{"text_format":"1","workbook":"xlsx","n_sheets":20,"sheets":["Welcome","Legend","Model Structure","Results_Biopathways","Calculations","Graphs Data","Lists","Choice Check","Land Data","Transport Data","Technology Data","Reversion_Data","Wood Product Data","LCA _data","Constants","Conversions","Reference Data","References","Regress","Copyright"],"not_rendered":{"charts":5,"images":2,"macros":1,"external_links":0,"defined_names":583,"comments":5,"pivot_tables":0},"unopened":[],"bounds":{"document_bytes":16777216,"sheet_cells":100000,"rows_first":2000,"rows_last":500,"rows_between":2000,"halvings":0,"cell_chars":16384,"cell_head_chars":4096},"cells_cut":0,"cells_raw":0,"read":"whole","date_system":"1900"}

{"sheet":"Welcome","index":0,"n_rows":20,"n_cols":5,"rows_kept":20,"cut":false,"hidden":false,"merged":[]}
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[null,"Model Information",null,null,"Developer Contact Details:"]
[null,"Version","BEAC2015",null,"beac_model@decc.gsi.gov.uk"]
[null,"Last updated","2015-01-09"]

{"sheet":"Legend","index":1,"n_rows":10,"n_cols":4,"rows_kept":10,"cut":false,"hidden":false,"merged":[]}
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[null,"Legend"]
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[null,"Name","Colour","Colour Description/Purpose"]
[null,"Input data","Input data","Cells containing input data from external sources."]
[null,"Calculations","Calculations","Cells containing formulae/calculations."]
[null,"User inputs","Parameters","Cells containing parameters (e.g. user defined values for setting up scenarios)"]
[null,"Reference Tables","Reference Tables","Cells containing reference tables (e.g. lists for data validation, lookup tables for non-data related conversions such as January -> 1, February -> 2 etc)."]
[null,"Data selected from Lookup Tables","Data selected from Lookup Tables","Cells containing model data which has been retrived from lookup tables"]
[null,"Ouput","Output","Model Outputs and key data"]

{"sheet":"Model Structure","index":2,"n_rows":2,"n_cols":2,"rows_kept":2,"cut":false,"hidden":false,"merged":[]}
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[null,"Model Structure"]

{"sheet":"Results_Biopathways","index":3,"n_rows":78,"n_cols":6,"rows_kept":78,"cut":false,"hidden":false,"merged":[[60,0,60,1],[61,0,61,1],[61,3,61,5],[62,0,62,1],[62,3,62,5],[59,3,59,4],[60,3,60,5],[28,3,28,4],[30,3,30,4],[31,3,31,4],[47,3,47,4],[48,3,48,4],[43,3,43,5],[44,3,44,5],[50,3,50,5],[52,3,52,5],[55,3,55,5],[56,3,56,5],[54,3,54,5],[57,3,57,5],[58,3,58,5],[0,2,0,4],[16,2,16,3],[19,3,19,5],[23,3,23,4],[25,3,25,4],[24,3,24,4],[28,0,28,1],[29,0,29,1],[31,0,31,1],[32,0,32,1],[29,3,29,5],[30,0,30,1],[24,0,24,1],[19,0,19,1],[22,0,22,1],[23,0,23,1],[25,0,25,1],[37,0,37,1],[32,3,32,5],[33,3,33,5],[42,3,42,5],[37,3,37,4],[38,0,38,1],[38,3,38,5],[34,3,34,5],[33,0,33,1],[34,0,34,1],[43,0,43,1],[44,0,44,1],[39,0,39,1],[39,3,39,5],[40,0,40,1],[40,3,40,5],[41,0,41,1],[41,3,41,5],[56,0,56,1],[58,0,58,1],[48,0,48,1],[49,0,49,1],[51,0,51,1],[54,0,54,1],[57,0,57,1],[53,0,53,1],[55,0,55,1],[52,0,52,1],[50,0,50,1],[47,0,47,1],[75,0,75,1],[76,0,76,1],[77,0,77,1],[49,3,49,5],[70,0,70,1],[71,0,71,1],[72,0,72,1],[73,0,73,1],[74,0,74,1],[66,0,66,1],[67,0,67,1],[68,0,68,1],[69,0,69,1],[59,0,59,1],[65,0,65,1],[16,0,17,1],[77,3,77,5],[66,3,66,5],[67,3,67,5],[68,3,68,5],[69,3,69,5],[70,3,70,5],[71,3,71,5],[72,3,72,5],[73,3,73,5],[74,3,74,5],[75,3,75,5],[76,3,76,5],[65,3,65,5],[53,3,53,5],[51,3,51,5]]}
[null,"Last scenario ran was:","Scenario 32 : Heat from wood chips produced from UK small roundwood that would otherwise be used for particleboard."]
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["Input data below:",null,{"$f":"\"Counterfactual: \"&Chosen_counterfactual","v":"Counterfactual: MDF (replacing plasterwork)"},null,{"$f":"Calculations!B446","v":1.154272350519624E-2},"(energy carrier basis)"]
[null,null,null,null,{"$f":"Calculations!B448","v":80.740602405340638},"(primary energy basis)"]
["General Analysis Questions"]
["Time Frame Analysed Over",null,40,"years"]
[]
["Land Type Questions",null,null,null,null,{"$f":"'Choice Check'!B4","v":"Selected combinations OK"}]
["What type of land is used?",null,"Long Rotation Forestry (LRF)"]
["What was the counterfactual land use?",null,"LRF Conifer for wood products, residues unused",{"$f":"INDEX('Land Data'!N32:N674,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":"Forest Research C-SORT model. Modelled as Sitka Spruce, Yield Class 12, Management Table Thinning, 59 year rotation. "},null,{"$f":"'Choice Check'!B10","v":"OK"}]
["Country/Region",null,"UK",null,null,{"$f":"'Choice Check'!F10","v":"OK"}]
["What is the new land use (bioenergy scenario)?",null,"LRF Conifer for wood products and bioenergy",{"$f":"INDEX('Land Data'!K712:K1388,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":"Forest Research C-SORT model. Modelled as Sitka Spruce, 59 year rotation"},null,{"$f":"'Choice Check'!J10","v":"OK"}]
[]
["Biomass Questions"]
["What biomass is used for bioenergy?",null,"Small Roundwood (50 wt% moisture)",null,null,{"$f":"'Choice Check'!N10","v":"OK"}]
["If you chose woody debris, what type of debris?",null,"Fine Woody Debris (< 10 cm diameter)"]
["What is the counterfactual to using the biomass for bioenergy?",null,"MDF (replacing plasterwork)",{"$f":"INDEX(Lists!B419:B440,MATCH(Chosen_counterfactual,lookup_counterfactual_list_names,0))","v":"Wood product is now replaced by non-wood product"},null,{"$f":"'Choice Check'!Q10","v":"OK"}]
["The default exponential decay factor for the residue is (in yr-1):",null,{"$f":"IF(debris_choice=Lists!A385,'Land Data'!B1420,'Land Data'!B1421)","v":0.185},{"$f":"IF(debris_choice=Lists!A385,'Land Data'!E1420,'Land Data'!E1421)","v":"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "}]
["Change from default",null,0]
["Exponential decay factor used in residue calculations:",null,{"$f":"C32*(1+decay_change)","v":0.185}]
["For forestry, if you have chosen 'leave the land unharvested', how frequent are natural disturbances?",null,"Predicted frequency of natural disturbances"]
[]
["New Land Management Questions"]
["Will the land conversion involve peat drainage?",null,"No peat drainage",null,null,{"$f":"'Choice Check'!AP10","v":"OK"}]
["The assumed yield for this land type is:",null,{"$f":"INDEX(lookup_base_yields_biopathways,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":3.7309999999999999},"oven dry tonnes per hectare per year (average over all stands)"]
["Typical Nitrogen fertiliser requirement",null,{"$f":"INDEX(NFert_recommend_newland,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":0},"kg N/Ha/y"]
["Change from default",null,0]
["Please indicate any additional N fertiliser requirements",null,{"$f":"C40*(1+fertiliser_change)","v":0},"kg N/ha/y"]
["Please enter irrigation requirements, if applicable",null,0,"mm/year"]
["What is the source of water?",null,"Ground Water"]
["What is the pump powered by?",null,"Electrical Pump"]
[]
["Technology Questions"]
["Please select the pre-treatment method",null,"Natural dry and chip",null,null,{"$f":"'Choice Check'!U10","v":"OK"}]
["Please select the drying used in pretreatment",null,"Natural or No Drying",null,null,{"$f":"'Choice Check'!Y10","v":"OK"}]
["Please select the electricity requirement of the pelletiser (excluding drying)",null,"Default 2014",{"$f":"INDEX('Technology Data'!B37:B40,MATCH(Chosen_Pellet_Energy,Pelletiser_Energy,0))&\" MJ electricity per tonne of pellets produced\"","v":"684 MJ electricity per tonne of pellets produced"}]
["Please select how the power required for the process is provided",null,"Predicted Grid Intensity 2020"]
["This corresponds to the following default figures:"]
["Emissions:",null,{"$f":"IF(Chosen_grid_intensity=Lists!A509,INDEX(lookup_EF_country_powerEFs, MATCH(Results_Biopathways!C25,lookup_EF_countries,0)),IF(Chosen_grid_intensity=Lists!A510, INDEX(lookup_EF_country_2020, MATCH(Results_Biopathways!C25,lookup_EF_countries,0)),IF(Chosen_grid_intensity=Lists!A511,INDEX(lookup_EF_country_2030, MATCH(Results_Biopathways!C25,lookup_EF_countries,0)),0)))","v":244},"kg CO2e/MWh"]
["MWh primary energy/MWh power",null,{"$f":"IF(Chosen_grid_intensity=Lists!A509,INDEX(lookup_EF_country_power_Ens, MATCH(Results_Biopathways!C25,lookup_EF_countries,0)),IF(Chosen_grid_intensity=Lists!A510, INDEX(lookup_En_country_2020, MATCH(Results_Biopathways!C25,lookup_EF_countries,0)),IF(Chosen_grid_intensity=Lists!A511,INDEX(lookup_En_country_2030, MATCH(Results_Biopathways!C25,lookup_EF_countries,0)),IF(Chosen_grid_intensity=Lists!A512,1.5,0))))","v":1.9988716374796893}]
["Please include a proportion change from the default"]
["For emissions:",null,0,"greater than default"]
["For MWh primary fossil energy/MWh power",null,0,"greater than default"]
["Assumed emission factor",null,{"$f":"C53*(1+C56)","v":244},"kg CO2e/MWh"]
["MWh primary energy/MWh power",null,{"$f":"C54*(1+C57)","v":1.9988716374796893}]
["What is the final use of the biomass?",null,"Heat from Biomass Boiler",null,null,{"$f":"'Choice Check'!AE10","v":"OK"}]
["This corresponds to the following default efficiency:",null,{"$f":"INDEX(Technologies_eff_biopathways,MATCH(Lookupname_technology,Lookup_technologies,0))","v":0.85}]
["Please include a proportion change from the default",null,0,"greater than default"]
["Assumed technology efficiency",null,{"$f":"C61*(1+C62)","v":0.85}]
[]
["Transport Questions",null,null,null,"  "]
["Please select transport emission scenario",null,"Predicted transport GHG emissions 2020"]
["Leg 1: Transport from forest/farm",null,"Truck"]
["Default distance",null,{"$f":"INDEX(Default_leg1,MATCH(Chosen_region_biopathways,Countries_regions,0))","v":50},"km"]
["Please include a proportion change from the default",null,0,"greater than default"]
["Assumed distance ",null,{"$f":"C68*(1+C69)","v":50},"km"]
["Leg 2: Transport of Pretreated Biomass",null,"Truck"]
["Assumed distance ",null,0,"km"]
["Leg 3: Transport of Pretreated Biomass",null,"Shipping - Product Tanker"]
["Default distance",null,{"$f":"INDEX(sea_distances,MATCH(Chosen_region_biopathways,Countries_regions,0))","v":0},{"$f":"\"km \" & INDEX(Shipping_assumption,MATCH(Chosen_region_biopathways,Countries_regions,0))","v":"km Assume biomass from UK and no shipping required"}]
["Please include a proportion change from the default",null,0,"greater than default"]
["Distance",null,{"$f":"C74*(1+C75)","v":0},"km"]
["Leg 4: Transport of Pretreated Biomass",null,"Truck"]
["Distance",null,0,"km"]

{"sheet":"Calculations","index":4,"n_rows":449,"n_cols":8,"rows_kept":449,"cut":false,"hidden":false,"merged":[]}
[null,"Data 1","Units 1","Error 1","Assumption/Reference","Data 2","Units 2","Error 2"]
[]
["Calculation Overview"]
["The calculations are performed using the following structure:"]
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["Biomass Outputs from Land"]
["Biomass Output for Bioenergy"]
["The calculations below determine the amount, and type, of biomass produced by the bioenergy scenario in comparion to the counterfactual"]
[]
["Counterfactual Scenario ",{"$f":"Lookupname_Previous_Land_Use","v":"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:UK:40"}]
[{"$f":"Lists!A374","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"'Land Data'!B12","v":3.4489999999999998},"odt/ha/y",null,"Data taken from 'Land Data' tab"]
["Of which:"]
[{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"B144*E146","v":2.4781065},"odt/ha/y",null,{"$f":"'Land Data'!B14","v":0.71850000000000003}]
[{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"B144*E147","v":0.97089349999999985},"odt/ha/y",null,{"$f":"'Land Data'!B15","v":0.28149999999999997}]
[{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"B144*E148","v":0},"odt/ha/y",null,{"$f":"'Land Data'!B16","v":0}]
[]
["Bioenergy Scenario ",{"$f":"Lookupname_New_Land_Use","v":"LRF Conifer for wood products and bioenergy:UK:40"}]
[{"$f":"Lists!A374","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"'Land Data'!B688","v":3.7309999999999999},"odt/ha/y",null,"Data taken from 'Land Data' tab"]
["Of which:"]
[{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"E153*$B$151","v":2.4781301999999998},"odt/ha/y",null,{"$f":"'Land Data'!B690","v":0.66420000000000001}]
[{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},0.97080619999999995,"odt/ha/y",null,{"$f":"'Land Data'!B691","v":0.26019999999999999}]
[{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},0.28206359999999997,"odt/ha/y",null,{"$f":"'Land Data'!B692","v":7.5600000000000001E-2},"Different residues removal strategies are investigated, and are shown here as different outputs (note though that these represent the same residues, therefore only count it once when considering the different wood outputs)"]
[{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},0.28206359999999997,"odt/ha/y",null,{"$f":"'Land Data'!B692","v":7.5600000000000001E-2}]
[{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},0,"odt/ha/y",null,{"$f":"'Land Data'!B693","v":0}]
[{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},0,"odt/ha/y",null,{"$f":"'Land Data'!B694","v":0}]
[{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},0,"odt/ha/y",null,{"$f":"'Land Data'!B695","v":0}]
[{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},0,"odt/ha/y",null,{"$f":"'Land Data'!B696","v":0}]
[{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},0,"odt/ha/y",null,{"$f":"'Land Data'!B697","v":0}]
[]
["Additional Biomass for Bioenergy Output of Bioenergy Scenario, compared to Counterfactual Scenario"]
[{"$f":"Lists!A375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"B151-B144","v":0.28200000000000003},"odt/ha/y"]
[{"$f":"Lists!A376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},{"$f":"B164-IF(E153*B151>B144*E146,(B151*E153-B144*E146)*Sawlog_construction,0)","v":0.28198578000000013},"odt/ha/y",null,"Assuming additional saw logs are used for construction products, with 60% of the saw logs converted to products, and off-cuts to bioenergy. "]
[{"$f":"Lists!A377","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},{"$f":"B164-IF(B151*E153>B144*E146,(B151*E153-B144*E146)*Sawlog_construction,0)","v":0.28198578000000013},"odt/ha/y",null,"Assuming additional saw logs are used for construction products, with 60% of the saw logs converted to products, and off-cuts to bioenergy. "]
[{"$f":"Lists!A378","v":"All additional wood created by new management (50 wt% moisture)"},{"$f":"B151","v":3.7309999999999999},"odt/ha/y"]
[]
["Chosen Biomass Form used for Energy",{"$f":"Results_Biopathways!C29","v":"Small Roundwood (50 wt% moisture)"}]
["Biomass Output for Bioenergy",{"$f":"INDEX(B151:B167,MATCH($B$169,$A$151:$A$167,0))","v":0.97080619999999995},"odt/ha/y"]
["Counterfactual to using this biomass for bioenergy",{"$f":"Chosen_counterfactual","v":"MDF (replacing plasterwork)"}]
["Counterfactual Name",{"$f":"B169&\":\"&B171","v":"Small Roundwood (50 wt% moisture):MDF (replacing plasterwork)"}]
[]
["Biomass Output for Construction Products"]
["The calculations below determine the difference in wood used for construction purposes of the bioenergy scenario, in comparison to the counterfactual"]
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["GHG Emissions from additional construction products of Counterfactual Scenario"]
["CO2 sequestered by using this biomass in wood product and displacing non-wood product (negative = sequestration)",{"$f":"'Wood Product Data'!B18*Output_Biomass/Conv_te_kg","v":-0.82159833020909068},"t CO2e/ha/y",{"$f":"'Wood Product Data'!C18*Output_Biomass/Conv_te_kg","v":0.41079916510454534}]
[]
["Additional Biomass for construction products of Bioenergy Scenario"]
["Sawn timber, replacing concrete screed flooring",{"$f":"IF(B169=A165,B164-B165,0)","v":0},"odt/ha/y",null,"Offcuts are not included in this figure (assumed to have gone for bioenergy)"]
["Sawn timber, replacing upvc window",{"$f":"IF(B169=A166,B164-B166,0)","v":0},"odt/ha/y",null,"Offcuts are not included in this figure (assumed to have gone for bioenergy)"]
[]
["GHG Emissions from additional construction products of Bioenergy Scenario"]
["Saw logs, replacing concrete screed flooring",{"$f":"-B181*'Wood Product Data'!AA4/Conv_te_kg","v":0},"t CO2e/ha/y",{"$f":"ABS(B185*Error_displacement)","v":0}]
["Saw logs, replacing upvc window",{"$f":"-B182*'Wood Product Data'!AA5/Conv_te_kg","v":0},"t CO2e/ha/y",{"$f":"ABS(B186*Error_displacement)","v":0}]
[]
["Land Carbon Stock Change"]
["Emissions from Soil Carbon Stock Change"]
["The calculations below determine the actual carbon emissions from the soil, from changing land management from the counterfactual to the bioenergy scenario"]
[]
["Soil Carbon Stock Change if the soils are Mineral"]
["Previous Land Soil Carbon Content, if mineral soil",{"$f":"'Land Data'!B6","v":72.545454545454547},"t C/ha",{"$f":"'Land Data'!D6","v":32.645454545454548}]
["Previous Land Use IPCC Land Management Factor",{"$f":"'Land Data'!B7","v":1},null,{"$f":"'Land Data'!D7","v":0}]
["New Land Use IPCC Land Management Factor",{"$f":"'Land Data'!B683","v":1},null,{"$f":"'Land Data'!D683","v":0}]
["Carbon Stock Change",{"$f":"B193*(B194-B195)","v":0},"t C/ha",{"$f":"IF(B194=B195,0,(((((((B194*D194)^2+(B195*D195)^2)^0.5)/(B194-B195))^2)+(D193/B193)^2)^0.5)*B196)","v":0}]
["CO2 emission from Carbon Stock Change",{"$f":"B196*MM_CO2/MM_C","v":0},"t CO2/ha",{"$f":"D196*MM_CO2/MM_C","v":0}]
["No of stands, with 1 stand being converted each year",{"$f":"Chosen_NoStands_New","v":59}]
["Proportion of soil which has undergone change of management by the end of the time horizon",{"$f":"IF((Chosen_Time_frame_biopathways/Calculations!B198)>1,1,(Chosen_Time_frame_biopathways/Calculations!B198))","v":0.67796610169491522}]
[]
["Soil Carbon Stock Change if the soils are Peaty"]
["IPCC Peat Emission Factor",{"$f":"'Land Data'!B685","v":0},"t C/ha/y",{"$f":"'Land Data'!D685","v":0}]
["CO2 emission from Carbon Stock Change",{"$f":"B202*MM_CO2/MM_C","v":0},"t CO2/ha/y",{"$f":"D202*MM_CO2/MM_C","v":0}]
[]
["Emissions from non-Soil Carbon Stock Change"]
["The calculations below determine the actual carbon emissions from the change in stock of non-soil biomass (above and below ground biomass) caused by changing land management from the counterfactual to the bioenergy scenario. This excludes any change in carbon from any increase.decrease in biomass residue harvesting. This is determined in the next section of the calculations."]
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["Previous Carbon Stock at t=0",{"$f":"'Land Data'!B9","v":69.5},"t C/ha"]
["New Carbon Stock at t=0 ",{"$f":"'Land Data'!B686","v":69.5},"t C/ha"]
["New Carbon Stock at end of time frame (excludes any reduction in C stock from introduction of branchwood harvest)",{"$f":"'Land Data'!B687","v":69.5},"t C/ha",null,"Excludes any additional reduction in C stock from introduction of additional branchwood harvest. This is calculated below, if chosen by user."]
["Carbon Stock Change",{"$f":"B208-B210","v":0},"t C/ha",{"$f":"B211*Error_carbon_stock","v":0}]
["CO2 emission from Carbon Stock Change",{"$f":"B211*MM_CO2/MM_C","v":0},"t CO2/ha",{"$f":"D211*MM_CO2/MM_C","v":0}]
[]
["Reduction in C Stock caused by increased, continuous harvesting of Residues"]
["The calculations below determine the actual carbon emissions from the change in carbon stock caused by increasing the removal of residues from the land for the bioenergy scenario, compared to the counterfactual"]
[]
[{"$f":"Lists!A382&\":\"&Lists!A435","v":"Woody Debris (25 wt% moisture). Continuous removal.:Leave residues to decay in forest"},{"$f":"INDEX('Land Data'!D1427:D1527,MATCH(Chosen_Time_frame_biopathways,'Land Data'!B1427:B1527,0))","v":0.23274053257770086},"t CO2/odt residue"]
[{"$f":"Lists!A383&\":\"&Lists!A435","v":"Woody Debris (25 wt% moisture). Remove for 15 years only.:Leave residues to decay in forest"},{"$f":"INDEX('Land Data'!H1427:H1527,MATCH(Chosen_Time_frame_biopathways,'Land Data'!B1427:B1527,0))","v":5.7086750462653404E-3},"t CO2/odt residue"]
["Reduction in C stock from harvesting residues",{"$f":"IF(B172=A217,Output_Biomass*B217,IF(B172=A218,Output_Biomass*B218,0))","v":0},"t CO2e/ha/y",{"$f":"B219*Error_carbon_stock","v":0},"Residue decay rate is highly variable (Harmon, 1986). Assume error +- 50% to account for varying decay rates."]
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["Reduction in C Stock caused by one-off harvesting of dead trees"]
["The calculations below determine the actual carbon emissions from the change in carbon stock caused by increasing the removal of dead trees from the land, for the bioenergy scenario, compared to the counterfactual"]
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["Exponential decay constant for dead trees",{"$f":"'Land Data'!B26","v":2.8000000000000001E-2},"y-1",null,"Decay constant for coarse residues"]
["Proportion C left at end of time frame ",{"$f":"EXP(-B224*Chosen_Time_frame_biopathways)","v":0.32627979462303947}]
["Reduction in C stock from harvesting dead trees",{"$f":"IF(B171=Lists!A436,Output_Biomass*C_biomass*B225*MM_CO2/MM_C,0)","v":0},"t CO2e/ha/y",{"$f":"B226*Error_carbon_stock","v":0}]
[]
["Counterfactual Land Carbon Stock Change"]
["The calculation below determines the forgone carbon emissions/sequestration of the bioenergy scenario from both the soils and the non-soil biomass, by determining how the counterfactual land type would change in carbon stock, if it hadn't been chnaged to the bioenergy scenario land type"]
[]
["Forgone Biomass Growth of Bioenergy Scenario (negative = sequestration)",{"$f":"IF(Results_Biopathways!C35=Lists!A493,'Land Data'!B10,IF(Results_Biopathways!C35=Lists!A494,'Land Data'!B11,0))","v":0},"t CO2e/ha/y",{"$f":"ABS(B231*Error_forgone_sequestration)","v":0}]
[]
["Other Land Emissions "]
["Counterfactual Scenario "]
["Land Management and Operations, excluding irrigation",{"$f":"'Land Data'!B18","v":7.4528477870840035E-2},"t CO2e/ha/y",{"$f":"B235*Error_land_management","v":1.8632119467710009E-2}]
["Carbon impact from residue removal fuel requirement (if not included above)",{"$f":"'Land Data'!B19","v":0},"t CO2e/ha/y",{"$f":"B236*Error_land_management","v":0}]
["Fertiliser Use",{"$f":"'Land Data'!B17","v":0},"kg N/ha/y",0]
["Direct emissions from Fertiliser",{"$f":"B237*EF_Nfert/Conv_te_kg","v":0},"t CO2e/ha/y",{"$f":"B238*Error_fertiliser","v":0}]
["Fertiliser N2O emissions from soils",{"$f":"B237*Conv_Nfert_N2O/Conv_te_kg","v":0},"t N2O/ha/y",{"$f":"IF(B237=0,0,(((Conv_Nfert_N2O_SD/Conv_Nfert_N2O)^2+(D237/B237)^2)^0.5)*B239)","v":0}]
["Land N2O Emissions (excluding fertiliser)",{"$f":"'Land Data'!B24","v":1.1439999999999998E-3},"t N2O/ha/y"]
["Land CH4 emissions (e.g. from living plants)",{"$f":"'Land Data'!B25","v":-3.613504E-3},"t CH4/ha/y"]
["N2O from burning wood onsite",{"$f":"IF(Chosen_counterfactual=Lists!A437,Output_Biomass*Chosen_LHV_biomass*Combustion_N2O_wood_smallscale/GWP_N2O,0)","v":0},"t N2O/ha/y",null,"Assuming emissions from burning similar to those from combustion in a biomass boiler. Emission factors for N2O (4 g/GJ HHV). EPA, 2008, Direct Emissions from Stationary Combustion Sources"]
["CH4 from burning wood onsite",{"$f":"IF(Chosen_counterfactual=Lists!A437,B170*Chosen_LHV_biomass*Combustion_CH4_wood_smallscale/GWP_CH4,0)","v":0},"t CH4/ha/y",null,"Assuming emissions from burning similar to those from combustion in a biomass boiler. Emission factors for CH4 (300 g/GJ HHV). EPA, 2008, Direct Emissions from Stationary Combustion Sources"]
[]
["Bioenergy Scenario"]
["Land Management and Operations, excluding irrigation",{"$f":"'Land Data'!B699","v":7.4527250191219599E-2},"t CO2e/ha/y",{"$f":"B246*Error_land_management","v":1.86318125478049E-2}]
["Carbon impact from residue removal fuel requirement (if not included above)",{"$f":"'Land Data'!B700","v":3.6535133980799992E-3},"t CO2e/ha/y",{"$f":"B247*Error_land_management","v":9.1337834951999981E-4}]
["Carbon impact from residue removal (depending on scenario)",{"$f":"IF(Chosen_biomass_form_biopathways=Lists!A382,Calculations!B247,IF(Chosen_biomass_form_biopathways=Lists!A383,B247,0))","v":0},"t CO2e/ha/y",{"$f":"B248*Error_land_management","v":0}]
["Fertiliser Use",{"$f":"Chosen_NFert_specific","v":0},"kg N/ha/y",0]
["Direct emissions from Fertiliser",{"$f":"B249*EF_Nfert/Conv_te_kg","v":0},"t CO2e/ha/y",{"$f":"B250*Error_fertiliser","v":0}]
["Fertiliser N2O emissions from soils",{"$f":"B249*Conv_Nfert_N2O/Conv_te_kg","v":0},"t N2O/ha/y",{"$f":"IF(B249=0,0,(((Conv_Nfert_N2O_SD/Conv_Nfert_N2O)^2+(D249/B249)^2)^0.5)*B251)","v":0}]
["Land N2O Emissions (excluding fertiliser)",{"$f":"'Land Data'!B705","v":1.1439999999999998E-3},"t N2O/ha/y"]
["Land CH4 emissions (e.g. from living plants)",{"$f":"'Land Data'!B706","v":-3.613504E-3},"t CH4/ha/y"]
["No burning of wood onsite"]
[]
["New Land Type Irrigation "]
["Chosen total dynamic head",{"$f":"'Land Data'!B1393","v":150},"m",{"$f":"'Land Data'!D1393","v":75}]
["Chosen efficiency",{"$f":"'Land Data'!B1394","v":0.85},null,{"$f":"'Land Data'!D1394","v":8.5000000000000006E-2}]
["Chosen irrigation quantity",{"$f":"Results_Biopathways!C43","v":0},"mm/year"]
["Chosen irrigation quantity",{"$f":"B259/Conv_m_mm*Conv_Ha_m2","v":0},"m3/year/ha"]
["Energy required by pump",{"$f":"B257*Density_Water*Gravity*B260/B258/Conv_MJ_J","v":0},"MJ/Ha/year",{"$f":"B261*(((D257/B257)^2+(D258/B258)^2)^0.5)","v":0}]
["Energy required by pump",{"$f":"B261/Conv_kwh_MJ","v":0},"kWh/ha/y",{"$f":"D261/Conv_kwh_MJ","v":0}]
["Grid Intensity",{"$f":"Chosen_Power_EF","v":244},"kg CO2e/MWh power",{"$f":"'Technology Data'!C44","v":61}]
["Grid primary energy requirement",{"$f":"Chosen_Grid_Prim_Energy","v":1.9988716374796893},"MWh/MWh power",{"$f":"'Technology Data'!C45","v":0.49971790936992233}]
["Irrigation GHG Emissions",{"$f":"IF(Chosen_irrigation_power='Land Data'!$A$1401,B262*EF_diesel_LHVenergybasis/1000,IF(Chosen_irrigation_power='Land Data'!$A$1402,B262*B263/1000000,0))","v":0},"t CO2/ha/y",{"$f":"IF(Chosen_irrigation_biopathways=0,0,IF(Chosen_irrigation_power='Land Data'!$A$1401,Irrigation_CO2_Specific*(D262/B262),IF(Chosen_irrigation_power='Land Data'!$A$1402,Irrigation_CO2_Specific*((Calculations!D262/Calculations!B262)^2+((D263/B263)^2))^0.5,0)))","v":0}]
[]
["Land Energy Requirement"]
["Counterfactual Scenario "]
["Direct Energy"]
["Land Management and Operations",{"$f":"'Land Data'!B20","v":0.23003017724282096},"MWh/ha/y",{"$f":"B270*Error_land_management","v":5.750754431070524E-2}]
["Residue removal fuel requirement (if not included above)",{"$f":"'Land Data'!B22","v":0},"MWh/ha/y",{"$f":"B271*Error_land_management","v":0}]
["Fertiliser Energy Requirement",{"$f":"B237*En_F_Nfert/Conv_MWh_KWh","v":0},"MWh/ha/y",{"$f":"B272*Error_fertiliser","v":0}]
[]
["Primary Energy"]
["Land Management and Operations",{"$f":"'Land Data'!B21","v":0.24526896492730962},"MWh/ha/y",{"$f":"B275*Error_land_management","v":6.1317241231827406E-2}]
["Residue removal fuel requirement (if not included above)",{"$f":"'Land Data'!B23","v":0},"MWh/ha/y",{"$f":"B276*Error_land_management","v":0}]
["Fertiliser Energy Requirement",{"$f":"B272*Prim_En_Nfert","v":0},"MWh/ha/y",{"$f":"B277*Error_fertiliser","v":0}]
[]
[]
["Bioenergy Scenario"]
["Direct Energy"]
["Land Management and Operations",{"$f":"'Land Data'!B701","v":0.23002639336357786},"MWh/ha/y",{"$f":"B282*Error_land_management","v":5.7506598340894464E-2}]
["Residue removal fuel requirement (if not included above)",{"$f":"'Land Data'!B703","v":1.1260636147572816E-2},"MWh/ha/y",{"$f":"B283*Error_land_management","v":2.815159036893204E-3}]
["Residue removal (depending on scenario)",{"$f":"IF(Chosen_biomass_form_biopathways=Lists!A382,Calculations!B283,IF(Chosen_biomass_form_biopathways=Lists!A383,B283,0))","v":0},"MWh/ha/y",{"$f":"B284*Error_land_management","v":0}]
["N Fertiliser Energy Requirement",{"$f":"B249*En_F_Nfert/Conv_MWh_KWh","v":0},"MWh/ha/y",{"$f":"B285*Error_fertiliser","v":0}]
["Irrigation Direct Energy Requirement",{"$f":"IF(Chosen_irrigation_power='Land Data'!$A$1402,B262,IF(Chosen_irrigation_power='Land Data'!$A$1401,B262,0))","v":0},"kWh/ha/y",{"$f":"IF(Chosen_irrigation_power='Land Data'!$A$1402,D262,IF(Chosen_irrigation_power='Land Data'!$A$1401,D262,0))","v":0}]
["Irrigation Direct Energy Requirement",{"$f":"Irrigation_energy_Specific/Conv_MWh_KWh","v":0},"MWh/ha/y",{"$f":"Irrigation_energy_error_Specific/Conv_MWh_KWh","v":0}]
["Biomass required to power irrigation  (primary energy)",{"$f":"IF(AND(Chosen_irrigation_power='Land Data'!A1402,Chosen_grid_intensity=Lists!A513),Calculations!B262/'Technology Data'!D221,0)","v":0},"kWh/ha/y"]
[]
["Primary Energy"]
["Land Management and Operations",{"$f":"'Land Data'!B702","v":0.24526490482488172},"MWh/ha/y",{"$f":"B291*Error_land_management","v":6.1316226206220431E-2}]
["Residue removal fuel requirement (if not included above)",{"$f":"'Land Data'!B704","v":1.2082662586345631E-2},"MWh/ha/y",{"$f":"B292*Error_land_management","v":3.0206656465864077E-3}]
["Residue removal (depending on scenario)",{"$f":"IF(Chosen_biomass_form_biopathways=Lists!A382,Calculations!B292,IF(Chosen_biomass_form_biopathways=Lists!A383,B292,0))","v":0},"MWh/ha/y",{"$f":"B293*Error_land_management","v":0}]
["N Fertiliser Energy Requirement",{"$f":"B285*Prim_En_Nfert","v":0},"MWh/ha/y",{"$f":"B294*Error_fertiliser","v":0}]
["Irrigation Primary Energy Requirement",{"$f":"IF(Chosen_irrigation_power='Land Data'!$A$1402,B262*Chosen_Grid_Prim_Energy,IF(Chosen_irrigation_power='Land Data'!$A$1401,B262*Prim_En_Diesel,0))","v":0},"kWh/ha/y",{"$f":"IF(Chosen_irrigation_power='Land Data'!$A$1402,D262*Chosen_Grid_Prim_Energy,IF(Chosen_irrigation_power='Land Data'!$A$1401,D262*Prim_En_Diesel,0))","v":0}]
["Irrigation Primary Energy Requirement",{"$f":"Irrigation_energy_Specific/Conv_MWh_KWh","v":0},"MWh/ha/y",{"$f":"Irrigation_energy_Specific/Conv_MWh_KWh","v":0}]
[]
[]
[]
["Transport of Biomass from Harvest (Leg 1)"]
["Biomass Form Transported",{"$f":"Calculations!B169","v":"Small Roundwood (50 wt% moisture)"}]
["Dry mass transported",{"$f":"Calculations!B170","v":0.97080619999999995},"odt/ha/y"]
["Moisture content",{"$f":"INDEX(Biomass_forms_moisture_biopathways,MATCH(B301,Biomass_forms_total_biopathways,0))","v":0.5}]
["LHV value of fuel",{"$f":"INDEX(LHV_Bioenergypathways,MATCH(B301,Biomass_forms_total_biopathways,0))","v":2.3271666666666664},"kWh/kg"]
["Wet mass transported",{"$f":"B302/(1-B303)","v":1.9416123999999999},"wet t/ha/y"]
["Energy Available in Biomass (based on LHV)",{"$f":"B304*B305","v":4.5184556568666663},"MWh LHV/ha/y"]
["External Direct Energy Required for transport",{"$f":"'Transport Data'!B70","v":0.29702614379084963},"kwh/t km"]
[null,{"$f":"B305*B307*Chosen_leg1_distance_biopathways/Conv_MWh_KWh","v":2.8835482195424835E-2},"MWh/ha/y"]
["Primary Energy Required for transport",{"$f":"'Transport Data'!B71","v":0.31870905228758162},"kwh/t km"]
[null,{"$f":"B305*B309*Chosen_leg1_distance_biopathways/Conv_MWh_KWh","v":3.0940472395690838E-2},"MWh/ha/y"]
["GHG emissions from transport",{"$f":"'Transport Data'!B72","v":9.637013235294116E-2},"kg CO2e/t km"]
[null,{"$f":"Chosen_leg1_distance_biopathways*B305*B311/Conv_te_kg","v":9.3556721983055861E-3},"t CO2e/ha/y"]
["Primary Energy from Biomass Required for Transport",{"$f":"'Transport Data'!B73","v":0},"kwh/tekm"]
[null,{"$f":"B313*B305*Chosen_leg1_distance_biopathways/Conv_MWh_KWh","v":0},"MWh/ha/y"]
["Losses during transport",{"$f":"IF(Chosen_leg1_distance_biopathways=0,0,'Transport Data'!B74)","v":1E-3}]
[]
["Pretreatment of Biomass"]
["Biomass Form Pretreated",{"$f":"B301","v":"Small Roundwood (50 wt% moisture)"}]
["Lookup Name for Pretreatment",{"$f":"Results_Biopathways!C48&\":\"&B301&\":\"&Results_Biopathways!C49","v":"Natural dry and chip:Small Roundwood (50 wt% moisture):Natural or No Drying"}]
["Dry mass pretreated",{"$f":"B302*(1-$B$315)","v":0.96983539379999995},"odt/ha/y"]
["Moisture content",{"$f":"INDEX(Biomass_forms_moisture_biopathways,MATCH(B318,Biomass_forms_total_biopathways,0))","v":0.5}]
["LHV value of fuel",{"$f":"INDEX(LHV_Bioenergypathways,MATCH(B318,Biomass_forms_total_biopathways,0))","v":2.3271666666666664},"kWh/kg"]
["Wet mass pretreated",{"$f":"B320/(1-B321)","v":1.9396707875999999},"wet t/ha/y"]
["Energy Available in Biomass (based on LHV)",{"$f":"B322*B323","v":4.5139372012097994},"MWh LHV/ha/y"]
["Pretreatment External Direct Energy Requirement (excludes biomass energy input)",{"$f":"'Technology Data'!B105","v":1.013888888888889E-2},"MWh/ wet t in"]
[null,{"$f":"B325*$B$323","v":1.9666106596500001E-2},"MWh/ha/y"]
["Pretreatment Primary Energy Requirement",{"$f":"'Technology Data'!B106","v":1.0879027777777779E-2},"MWh/ wet t in"]
[null,{"$f":"B327*$B$323","v":2.11017323780445E-2},"MWh/ha/y"]
["GHG Emissions from pretreatment",{"$f":"'Technology Data'!B107","v":3.2895624999999995E-3},{"$f":"'Technology Data'!AE115","v":"t CO2e/ wet t in"}]
[null,{"$f":"B329*$B$323","v":6.3806682852344237E-3},"t CO2e/ha/y"]
["Primary Energy from Biomass Required for Processing",{"$f":"'Technology Data'!B108","v":0},{"$f":"'Technology Data'!AI115","v":"MWh/ wet t in"}]
[null,{"$f":"B331*$B$323","v":0},"MWh/ha/y"]
["Energy Available in Biomass Output (based on LHV)",{"$f":"'Technology Data'!B109*B323-B332","v":4.9529493561365987},"MWh LHV/ha/y"]
[]
["Transport of Biomass (Leg 2)"]
["Biomass Form Transported",{"$f":"INDEX(Biomass_forms_output_biopathways,MATCH(B319,lookup_pretreatment_biopathways,0))","v":"Wood Chips (25 wt% moisture)"}]
["Dry mass transported",{"$f":"B340*(1-B338)","v":0.96983539379999972},"odt/ha/y"]
["Moisture content",{"$f":"INDEX(Biomass_forms_moisture_biopathways,MATCH(B336,Biomass_forms_total_biopathways,0))","v":0.25}]
["LHV value of fuel",{"$f":"INDEX(LHV_Bioenergypathways,MATCH(B336,Biomass_forms_total_biopathways,0))","v":3.8302499999999999},"kWh/kg"]
["Wet mass transported",{"$f":"B333/B339","v":1.2931138583999997},"wet t/ha/y"]
["Energy Available in Biomass (based on LHV)",{"$f":"B333","v":4.9529493561365987},"MWh LHV/ha/y"]
["External Energy Required for transport",{"$f":"'Transport Data'!B78","v":0.29702614379084963},"kwh/t km"]
[null,{"$f":"B340*B342*Chosen_leg2_distance_biopathways/Conv_MWh_KWh","v":0},"MWh/ha/y"]
["Primary Energy Required for transport",{"$f":"'Transport Data'!B79","v":0.31870905228758162},"kwh/t km"]
[null,{"$f":"B340*B344*Chosen_leg2_distance_biopathways/Conv_MWh_KWh","v":0},"MWh/ha/y"]
["GHG emissions from transport",{"$f":"'Transport Data'!B80","v":9.637013235294116E-2},"kg CO2e/t km"]
[null,{"$f":"Chosen_leg2_distance_biopathways*B340*B346/Conv_te_kg","v":0},"t CO2e/ha/y"]
["Primary Energy from Biomass Required for Transport",{"$f":"'Transport Data'!B81","v":0},"kwh/tekm"]
[null,{"$f":"B348*B340*Chosen_leg2_distance_biopathways/Conv_MWh_KWh","v":0},"MWh/ha/y"]
["Losses during transport",{"$f":"IF(Chosen_leg2_distance_biopathways=0,0,'Transport Data'!B82)","v":0}]
[]
[]
["Transport of Biomass (Leg 3)"]
["Biomass Form Transported",{"$f":"B336","v":"Wood Chips (25 wt% moisture)"}]
["Dry mass transported",{"$f":"B337*(1-$B$350)","v":0.96983539379999972},"odt/ha/y"]
["Moisture content",{"$f":"INDEX(Biomass_forms_moisture_biopathways,MATCH(B354,Biomass_forms_total_biopathways,0))","v":0.25}]
["LHV value of fuel",{"$f":"INDEX(LHV_Bioenergypathways,MATCH(B354,Biomass_forms_total_biopathways,0))","v":3.8302499999999999},"kWh/kg"]
["Wet mass transported",{"$f":"B340*(1-$B$350)","v":1.2931138583999997},"wet t/ha/y"]
["Energy Available in Biomass (based on LHV)",{"$f":"B357*B358","v":4.9529493561365987},"MWh LHV/ha/y"]
["External Energy Required for transport",{"$f":"'Transport Data'!B86","v":2.7074999999999998E-2},"kwh/t km"]
[null,{"$f":"B358*B360*Chosen_leg3_distance_biopathways/Conv_MWh_KWh","v":0},"MWh/ha/y"]
["Primary Energy Required for transport",{"$f":"'Transport Data'!B87","v":3.005325E-2},"kwh/t km"]
[null,{"$f":"B358*B362*Chosen_leg3_distance_biopathways/Conv_MWh_KWh","v":0},"MWh/ha/y"]
["GHG emissions from transport",{"$f":"'Transport Data'!B88","v":8.1768906666666655E-3},"kg CO2e/t km"]
[null,{"$f":"Chosen_leg3_distance_biopathways*B358*B364/Conv_te_kg","v":0},"t CO2e/ha/y"]
["Primary Energy from Biomass Required for Transport",{"$f":"'Transport Data'!B89","v":0},"kwh/tkm"]
[null,{"$f":"B366*B358*Chosen_leg3_distance_biopathways/Conv_MWh_KWh","v":0},"MWh/ha/y"]
["Losses during transport",{"$f":"'Transport Data'!B90","v":1E-3}]
[]
[]
["Transport of Biomass (Leg 4)"]
["Biomass Form Transported",{"$f":"B354","v":"Wood Chips (25 wt% moisture)"}]
["Dry mass transported",{"$f":"B355*(1-$B$368)","v":0.9688655584061997},"odt/ha/y"]
["Moisture content",{"$f":"INDEX(Biomass_forms_moisture_biopathways,MATCH(B372,Biomass_forms_total_biopathways,0))","v":0.25}]
["LHV value of fuel",{"$f":"INDEX(LHV_Bioenergypathways,MATCH(B372,Biomass_forms_total_biopathways,0))","v":3.8302499999999999},"kWh/kg"]
["Wet mass transported",{"$f":"B358*(1-$B$368)","v":1.2918207445415997},"wet t/ha/y"]
["Energy Available in Biomass (based on LHV)",{"$f":"B375*B376","v":4.9479964067804625},"MWh LHV/ha/y"]
["External Energy Required for transport",{"$f":"'Transport Data'!B94","v":0.29702614379084963},"kwh/t km"]
[null,{"$f":"B376*B378*Chosen_leg4_distance_biopathways/Conv_MWh_KWh","v":0},"MWh/ha/y"]
["Primary Energy Required for transport",{"$f":"'Transport Data'!B95","v":0.31870905228758162},"kwh/t km"]
[null,{"$f":"B376*B380*Chosen_leg4_distance_biopathways/Conv_MWh_KWh","v":0},"MWh/ha/y"]
["GHG emissions from transport",{"$f":"'Transport Data'!B96","v":9.637013235294116E-2},"kg CO2e/t km"]
[null,{"$f":"Chosen_leg4_distance_biopathways*B376*B382/Conv_te_kg","v":0},"t CO2e/ha/y"]
["Primary Energy from Biomass Required for Transport",{"$f":"'Transport Data'!B97","v":0},"kwh/tkm"]
[null,{"$f":"B384*B376*Chosen_leg4_distance_biopathways/Conv_MWh_KWh","v":0},"MWh/ha/y"]
["Losses during transport",{"$f":"'Transport Data'!B98","v":1E-3}]
[]
[]
["Energy Generation Technology"]
["Biomass Form used for Energy Generation",{"$f":"B372","v":"Wood Chips (25 wt% moisture)"}]
["Lookup Name for Energy Generation",{"$f":"B390&\":\"&Results_Biopathways!C60","v":"Wood Chips (25 wt% moisture):Heat from Biomass Boiler"}]
["Dry mass for energy generation",{"$f":"B373*(1-$B$386)","v":0.96789669284779345},"odt/ha/y"]
["Moisture content",{"$f":"INDEX(Biomass_forms_moisture_biopathways,MATCH(B390,Biomass_forms_total_biopathways,0))","v":0.25}]
["LHV value of fuel",{"$f":"INDEX(LHV_Bioenergypathways,MATCH(B390,Biomass_forms_total_biopathways,0))","v":3.8302499999999999},"kWh/kg"]
["Wet mass to energy generation",{"$f":"B376*(1-$B$386)","v":1.2905289237970581},"wet t/ha/y"]
["Energy Available in Biomass (based on LHV)",{"$f":"B394*B395","v":4.9430484103736818},"MWh LHV/ha/y"]
["Total Biomass Energy Required for transport (if biomass used to provide transport fuels required for supply chain)",{"$f":"B314+B349+B367+B385","v":0},"MWh/ha/y"]
["Net Biomass Primary Energy Available for Energy Generation",{"$f":"IF(B396>B397,B396-B397,0)","v":4.9430484103736818},"MWh/ha/y"]
[" Conversion Energy Efficiency (based on LHV)",{"$f":"'Technology Data'!B205","v":0.85}]
["Delivered Energy",{"$f":"B399*B398","v":4.2015911488176299},"MWh/ha/y"]
["External Direct Energy Requirement",{"$f":"'Technology Data'!B206","v":0},"MWh/MWh delivered energy"]
[null,{"$f":"B401*B400","v":0},"MWh/ha/y"]
["External Primary Energy Requirement",{"$f":"'Technology Data'!B207","v":0},"MWh/MWh delivered energy"]
[null,{"$f":"B403*B400","v":0},"MWh/ha/y"]
["Processing Emissions",{"$f":"'Technology Data'!B208","v":39.471905882352949},"kg CO2e/MWh delivered energy"]
[null,{"$f":"B405*B400/Conv_te_kg","v":0.16584481038225671},"te CO2e/ha/y"]
[]
["Summary:GHG Emissions "]
["SOC Carbon Stock Change",{"$f":"IF(Chosen_soil_type_biopathways=Lists!A247,B197*B199/Chosen_Time_frame_biopathways,IF(Chosen_soil_type_biopathways=Lists!A248,B203,0))","v":0},"t CO2e/ha/y",{"$f":"IF(Chosen_soil_type_biopathways=Lists!A247,D197*B199/Chosen_Time_frame_biopathways,IF(Chosen_soil_type_biopathways=Lists!A248,D203,0))","v":0},null,{"$f":"B409/$B$400*Conv_te_kg","v":0},"kg CO2e/MWh delivered energy",{"$f":"D409/$B$400*Conv_te_kg","v":0}]
["Above and Below Ground Carbon Stock Change",{"$f":"B212/Chosen_Time_frame_biopathways+B226+B219","v":0},"t CO2e/ha/y",{"$f":"D212/Chosen_Time_frame_biopathways+D226+D219","v":0},null,0,"kg CO2e/MWh delivered energy",0]
["Increased Savings from biomass to construction (due to bioenergy harvest)",{"$f":"B185+B186","v":0},"t CO2e/ha/y",{"$f":"D185+D186","v":0},null,0,"kg CO2e/MWh delivered energy",0]
["Increased Land Operations",{"$f":"B246-B235","v":-1.2276796204357954E-6},"t CO2e/ha/y",{"$f":"IF(ABS(B246-B235)<0.0001,0,(D246^2+D235^2)^0.5)","v":0},null,{"$f":"B412/$B$400*Conv_te_kg","v":-2.9219397531844021E-4},"kg CO2e/MWh delivered energy",{"$f":"D412/$B$400*Conv_te_kg","v":0}]
["Increased residue removal (if not included above)",{"$f":"IF(Chosen_counterfactual='Wood Product Data'!A39,0,(B248-B236))","v":0},"t CO2e/ha/y",{"$f":"IF(B248=B236,0,(D248^2+D236^2)^0.5)","v":0},null,0,"kg CO2e/MWh delivered energy",0]
["Fertiliser",{"$f":"B250-B238+(B251-B239)*GWP_N2O","v":0},"t CO2e/ha/y",{"$f":"IF(B249=B237,0,((D250^2+D238^2+(D251*GWP_N2O)^2+(D239*GWP_N2O)^2))^0.5)","v":0},null,0,"kg CO2e/MWh delivered energy",0]
["Irrigation",{"$f":"B265","v":0},"t CO2e/ha/y",{"$f":"IF(B415=0,0,D265)","v":0},null,0,"kg CO2e/MWh delivered energy",0]
["Difference in land methane and nitrous oxide emissions (excluding irrigation)",{"$f":"(B252-B240-B242)*GWP_N2O+(B253-B241-B243)*GWP_CH4","v":0},"t CO2e/ha/y",{"$f":"IF(B416=0,0,((D252*GWP_N2O)^2+(D240*GWP_N2O)^2+(D253*GWP_CH4)^2+(D241*GWP_CH4)^2+(D242*GWP_N2O)^2+(D243*GWP_CH4)^2)^0.5)","v":0},null,{"$f":"B416/$B$400*Conv_te_kg","v":0},"kg CO2e/MWh delivered energy",0]
["Forgone Sequestration from Further Growth of Trees",{"$f":"-B231","v":0},"t CO2e/ha/y",{"$f":"D231","v":0},null,{"$f":"B417/$B$400*Conv_te_kg","v":0},"kg CO2e/MWh delivered energy",0]
["Forgone Savings from Wood Products",{"$f":"-B178","v":0.82159833020909068},"t CO2e/ha/y",{"$f":"-D178","v":-0.41079916510454534},null,195.54456897604061,"kg CO2e/MWh delivered energy",-97.772284488020304]
["Pretreatment",{"$f":"B330","v":6.3806682852344237E-3},"t CO2e/ha/y",{"$f":"B419*Error_pretreatment","v":3.1903341426172118E-3},null,1.5186314087295258,"kg CO2e/MWh delivered energy",0.75931570436476292]
["Transport",{"$f":"B347+B365+B383+B312","v":9.3556721983055861E-3},"t CO2e/ha/y",{"$f":"B420*Error_transport","v":2.3389180495763965E-3},null,2.2266974265067097,"kg CO2e/MWh delivered energy",0.55667435662667741]
["Energy Technology",{"$f":"B406","v":0.16584481038225671},"t CO2e/ha/y",{"$f":"B421*Error_technology","v":4.1461202595564177E-2},null,39.471905882352956,"kg CO2e/MWh delivered energy",9.8679764705882391]
["TOTAL",{"$f":"SUM(B409:B421)","v":1.0031782533952669},"t CO2e/ha/y",{"$f":"SUMPRODUCT(D409:D421,D409:D421)^0.5","v":0.41290511517883388},null,{"$f":"SUM(F409:F421)","v":238.76151149965449},"kg CO2e/MWh delivered energy",{"$f":"SUMPRODUCT(H409:H421,H409:H421)^0.5","v":98.273511285130553}]
[]
["Summary: Direct Energy Requirment"]
["Increased Land Operations",{"$f":"B282-B270","v":-3.783879243102195E-6},"MWh/ha/y",{"$f":"B425*Error_land_management","v":-9.4596981077554876E-7},null,{"$f":"B425/$B$400","v":-9.0058244819156589E-7},"MWh/MWh delivered energy",{"$f":"D425/$B$400","v":-2.2514561204789147E-7}]
["Increased residue removal (if not included above)",{"$f":"IF(Chosen_counterfactual=Lists!A437,0,(B284-B271))","v":0},"MWh/ha/y",{"$f":"IF(ABS(B426)<0.001,0,(D284^2+D271^2)^0.5)","v":0},null,0,"MWh/MWh delivered energy",0]
["Fertiliser",{"$f":"B285-B272","v":0},"MWh/ha/y",{"$f":"IF(B249=B237,0,(D285^2+D272^2)^0.5)","v":0},null,0,"MWh/MWh delivered energy",0]
["Irrigation",{"$f":"B287","v":0},"MWh/ha/y",{"$f":"D287","v":0},null,0,"MWh/MWh delivered energy",0]
["Pretreatment",{"$f":"B326","v":1.9666106596500001E-2},"MWh/ha/y",{"$f":"B429*Error_pretreatment","v":9.8330532982500007E-3},null,4.6806330982571307E-3,"MWh/MWh delivered energy",2.3403165491285654E-3]
["Transport",{"$f":"B308+B343+B361+B379","v":2.8835482195424835E-2},"MWh/ha/y",{"$f":"B430*Error_transport","v":7.2088705488562088E-3},null,6.8629909893873015E-3,"MWh/MWh delivered energy",1.7157477473468254E-3]
["Energy Technology",{"$f":"B402","v":0},"MWh/ha/y",{"$f":"B431*Error_technology","v":0},null,0,"MWh/MWh delivered energy",0]
["TOTAL",{"$f":"SUM(B425:B431)","v":4.8497804912681734E-2},"MWh/ha/y",{"$f":"SUMPRODUCT(D425:D431,D425:D431)^0.5","v":1.2192487549768115E-2},null,{"$f":"SUM(F425:F431)","v":1.154272350519624E-2},"MWh/MWh delivered energy",{"$f":"SUMPRODUCT(H425:H431,H425:H431)^0.5","v":2.9018738658565589E-3}]
[]
["Summary: Primary Energy Requirment"]
["Increased Land Operations",{"$f":"B291-B275","v":-4.06010242789967E-6},"MWh/ha/y",{"$f":"B425*Error_land_management","v":-9.4596981077554876E-7},null,{"$f":"B435/$B$400","v":-9.6632496692169202E-7},"MWh/MWh delivered energy",{"$f":"D435/$B$400","v":-2.2514561204789147E-7}]
["Increased residue removal (if not included above)",{"$f":"IF(Chosen_counterfactual=Lists!A437,0,(B293-B276))","v":0},"MWh/ha/y",{"$f":"IF(ABS(B436)<0.001,0,(D293^2+D276^2)^0.5)","v":0},null,0,"MWh/MWh delivered energy",0]
["Fertiliser",{"$f":"B294-B277","v":0},"MWh/ha/y",{"$f":"IF(B249=B237,0,(D294^2+D277^2)^0.5)","v":0},null,0,"MWh/MWh delivered energy",0]
["Irrigation",{"$f":"B296","v":0},"MWh/ha/y",{"$f":"D296","v":0},null,0,"MWh/MWh delivered energy",0]
["Pretreatment",{"$f":"B328","v":2.11017323780445E-2},"MWh/ha/y",{"$f":"B439*Error_pretreatment","v":1.055086618902225E-2},null,5.0223193144299013E-3,"MWh/MWh delivered energy",2.5111596572149507E-3]
["Transport",{"$f":"B310+B345+B363+B381","v":3.0940472395690838E-2},"MWh/ha/y",{"$f":"B440*Error_transport","v":7.7351180989227095E-3},null,7.3639893316125721E-3,"MWh/MWh delivered energy",1.840997332903143E-3]
["Energy Technology",{"$f":"B404","v":0},"MWh/ha/y",{"$f":"B441*Error_technology","v":0},null,0,"MWh/MWh delivered energy",0]
["TOTAL",{"$f":"SUM(B435:B441)","v":5.2038144671307435E-2},"MWh/ha/y",{"$f":"SUMPRODUCT(D435:D441,D435:D441)^0.5","v":1.3082539135725659E-2},null,{"$f":"SUM(F435:F441)","v":1.2385342321075552E-2},"MWh/MWh delivered energy",{"$f":"SUMPRODUCT(H435:H441,H435:H441)^0.5","v":3.1137106568322852E-3}]
[]
[]
["Overall Energetic Efficiency"]
["High Grade EIR (Energy Input Requirement). Direct energy basis. Excludes feedstock energy input of biomass.",{"$f":"'Graphs Data'!B22","v":1.154272350519624E-2},"MWh invested per  MWh delivered"]
["EIR (Energy Input Requirement). Primary energy basis. Excludes feedstock energy input of biomass.",{"$f":"F442","v":1.2385342321075552E-2},"MWh invested per  MWh delivered"]
["EROI (Energy return on investment). Primary energy basis.",{"$f":"1/B447","v":80.740602405340638},"MWh delivered per MWh invested"]
["Overall efficiency (based on primary energy). Includes energy from feedstock and supply chain.",{"$f":"B400/(B306+B442)","v":0.91928604025319804}]

{"sheet":"Graphs Data","index":5,"n_rows":31,"n_cols":5,"rows_kept":31,"cut":false,"hidden":false,"merged":[[15,1,15,2],[1,1,1,2]]}
["Overall GHG Emissions Graph"]
[null,"kg CO2e/MWh delivered "]
[null,"Mean","Error"]
["Soil C Stock Change",{"$f":"Calculations!F409","v":0},{"$f":"Calculations!H409","v":0}]
["Land Biomass C Stock Change",{"$f":"Calculations!F410","v":0},{"$f":"Calculations!H410","v":0}]
["Land Emissions ",{"$f":"Calculations!F412+Calculations!F413+Calculations!F414+Calculations!F415+Calculations!F416","v":-2.9219397531844021E-4},{"$f":"(Calculations!H412^2+Calculations!H413^2+Calculations!H414^2+Calculations!H415^2+Calculations!H416^2)^0.5","v":0}]
["Pre-treatment",{"$f":"Calculations!F419","v":1.5186314087295258},{"$f":"Calculations!H419","v":0.75931570436476292}]
["Transport",{"$f":"Calculations!F420","v":2.2266974265067097},{"$f":"Calculations!H420","v":0.55667435662667741}]
["Energy Technology",{"$f":"Calculations!F421","v":39.471905882352956},{"$f":"Calculations!H421","v":9.8679764705882391}]
["Wood Products",{"$f":"Calculations!F411+Calculations!F418","v":195.54456897604061},{"$f":"(Calculations!H411^2+Calculations!H418^2)^0.5","v":97.772284488020304}]
["cfl C Stock Change",{"$f":"Calculations!F417","v":0},{"$f":"Calculations!H417","v":0}]
["Total",{"$f":"SUM(B4:B11)","v":238.76151149965449},{"$f":"SUMPRODUCT(C4:C11,C4:C11)^0.5","v":98.273511285130539}]
[]
[]
["Overall Energy Requirement Graph"]
[null,"MWh/MWh delivered"]
[null,"Mean","Error"]
["Land Management",{"$f":"Calculations!F425+Calculations!F426+Calculations!F427+Calculations!F428","v":-9.0058244819156589E-7},{"$f":"(Calculations!H425^2+Calculations!H426^2+Calculations!H427^2+Calculations!H428^2)^0.5","v":2.2514561204789147E-7}]
["Pre-treatment",{"$f":"Calculations!F429","v":4.6806330982571307E-3},{"$f":"Calculations!H429","v":2.3403165491285654E-3}]
["Transport",{"$f":"Calculations!F430","v":6.8629909893873015E-3},{"$f":"Calculations!H430","v":1.7157477473468254E-3}]
["Energy Technology",{"$f":"Calculations!F431","v":0},{"$f":"Calculations!H431","v":0}]
["Total",{"$f":"SUM(B18:B21)","v":1.154272350519624E-2},{"$f":"SUMPRODUCT(C18:C21,C18:C21)^0.5","v":2.9018738658565589E-3}]
[]
[]
["Technology Emission Comparisons Graph (kg CO2e/MWh)"]
["kg CO2e/MWh delivered"]
[null,{"$f":"Results_Biopathways!C60","v":"Heat from Biomass Boiler"},{"$f":"INDEX(Comparitor_name_2,MATCH(B27,'Technology Data'!A293:A305,0))","v":"Heat from Natural Gas"},{"$f":"INDEX(Comparitor_name_3,MATCH(B27,'Technology Data'!A293:A305,0))","v":"Heat Pump using 2013 UK power, COP=3"},{"$f":"IF(A31=0,0,INDEX(Comparitor_name_4,MATCH(A31,'Technology Data'!B293:B305,0)))","v":"Heat from Burning Oil"}]
["Other GHG Impacts",{"$f":"SUM('Graphs Data'!B4:B10)","v":238.76151149965449},{"$f":"INDEX(Comparitor_value_2,MATCH(B27,'Technology Data'!A293:A305,0))","v":261.54444444444442},{"$f":"INDEX(Comparitor_value_3,MATCH(B27,'Technology Data'!A293:A305,0))","v":184.63333333333335},{"$f":"INDEX(Comparitor_values_4,MATCH(B27,'Technology Data'!A293:A305,0))","v":377.51111111111112}]
["cfl GHG Impacts",{"$f":"SUM('Graphs Data'!B11)","v":0},0,0,0]
["Total",{"$f":"B28+B29","v":238.76151149965449},{"$f":"C28+C29","v":261.54444444444442},184.63333333333335,377.51111111111112]
[{"$f":"INDEX(Comparitor_name_1,MATCH(B27,'Technology Data'!A293:A305,0))","v":"Bioheat Sust. Std. 2013"},{"$f":"INDEX(Comparitor_value_1,MATCH(B27,'Technology Data'!A293:A305,0))","v":125.28},{"$f":"B31","v":125.28},{"$f":"B31","v":125.28},{"$f":"B31","v":125.28}]

{"sheet":"Lists","index":6,"n_rows":579,"n_cols":38,"rows_kept":579,"cut":false,"hidden":false,"merged":[]}
["This page contains lists of choices for the user"]
[]
["Time Horizons (years)"]
[20]
[40]
[100]
[]
["All Land Types"]
["Forestry","LRF Conifer for wood products, residues unused"]
[null,"LRF Conifer for wood products, 50% residues used"]
[null,"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years "]
[null,"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"]
[null,"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again)"]
[null,"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand"]
[null,"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting"]
[null,"LRF Conifer for wood products and bioenergy"]
[null,"LRF Conifer for Bioenergy, residues unused"]
[null,"Newly Abandoned LRF Conifer, residues unused"]
[null,"Old Growth Fast Growing Conifer (> 200 years old)"]
[null,"Old Growth Slow Growing Conifer (> 200 years old)"]
[null,"Newly Established Intensively managed SRF Conifer, 20 years rotation"]
[null,"Newly Established Intensively managed SRF Conifer, 25 years rotation"]
[null,"Intensely managed SRF Conifer, rotation length 25 years"]
[null,"Medium intensity managed SRF Conifer, rotation length 25 years"]
[null,"SRF Conifer, increased management intensity, 25 year rotation"]
[null,"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation"]
[null,"LRF Conifer, rotation length reduced to 50y"]
[null,"LRF Conifer, rotation length reduced to 80y"]
[null,"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation"]
[null,"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation"]
[null,"Conversion of LRF Conifer to SRC Willow over 3 y"]
[null,"Conversion of LRF Conifer to SRC Willow over 50 y"]
[null,"Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation"]
[null,"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation"]
[null,"Conversion of LRF Broadleaf to SRC Willow over 3 y"]
[null,"Conversion of LRF Broadleaf to SRC Willow over 70 y"]
[null,"LRF Broadleaf for wood products, residues unused"]
[null,"LRF Broadleaf for wood products, rotation length increasing"]
[null,"LRF Broadleaf for wood products and bioenergy; rotation stays the same"]
[null,"LRF Broadleaf for wood products and bioenergy"]
[null,"LRF Broadleaf for wood products, 50% residues used"]
[null,"LRF Broadleaf for bioenergy, residues unused"]
[null,"Newly Abandoned LRF Broadleaf, residues unused"]
[null,"LRF Broadleaf, rotation length reduced to 50y"]
[null,"LRF Broadleaf, rotation length reduced to 60y"]
[null,"LRF Broadleaf, rotation length reduced to 80y"]
[null,"Unmanaged Temperate Broadleaf"]
[null,"Newly Managed LRF Broadleaf"]
[null,"Newly Managed LRF Conifer (slow growing)"]
[null,"Newly Managed LRF Conifer (fast growing)"]
[null,"Unmanaged Tropical Non-Peat Rainforest"]
[null,"Unmanaged Tropical Peat Forest"]
["Non-Forest Natural Ecosystems","Northern Peatland"]
[null,"Marsh and Swamp "]
[null,"Tundra Woodland"]
[null,"Temperate shrub land "]
[null,"Temperate grassland (e.g. Steppes, grassland praires)"]
[null,"Tropical Woody Savannah"]
[null,"Tropical Grassland Savannah"]
["Abandoned Land","Land reverting to Tropical Rainforest"]
[null,"Land reverting to Tropical Moist Deciduous Forest"]
[null,"Land reverting to Tropical Dry Forest"]
[null,"Land reverting to Tropical Mountain System"]
[null,"Land reverting to Tropical Woody Savanna"]
[null,"Land reverting to Temperate Oceanic Forest"]
[null,"Land reverting to Temperate Continental Forest"]
[null,"Land reverting to Temperate Mountain System"]
[null,"Land reverting to Temperate Shrub or Grassland"]
[null,"Land reverting to Boreal Coniferous Forest"]
[null,"Land reverting to Boreal Tundra"]
[null,"Land reverting to Boreal Mountain System"]
["Bioenergy","SRC Willow Plantation"]
[null,"SRF Eucalyptus Plantation"]
[null,"Palm Plantation"]
[null,"Maize Cropland"]
[null,"Miscanthus Plantation"]
[]
[]
[]
["Previous Land Use"]
["Chosen","Options"]
[null,"Long Rotation Forestry (LRF)","Short Rotation Forestry (SRF)","Unmanaged Forests",{"$f":"A53","v":"Non-Forest Natural Ecosystems"},"Abandoned Annual Crop Land","Abandoned Perennial Cropland","Abandoned Pasture"]
[{"$f":"IF(INDEX(B83:H83,MATCH(Chosen_land_category_biopathways,Land_types_biopathways,0))=\"\",\"\",INDEX(B83:H83,MATCH(Chosen_land_category_biopathways,Land_types_biopathways,0)))","v":"LRF Conifer for wood products, residues unused"},{"$f":"B9","v":"LRF Conifer for wood products, residues unused"},{"$f":"B11","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years "},{"$f":"B47","v":"Unmanaged Temperate Broadleaf"},{"$f":"B53","v":"Northern Peatland"},{"$f":"B60","v":"Land reverting to Tropical Rainforest"},{"$f":"B60","v":"Land reverting to Tropical Rainforest"},{"$f":"B60","v":"Land reverting to Tropical Rainforest"}]
["LRF Conifer for wood products, 50% residues used",{"$f":"B10","v":"LRF Conifer for wood products, 50% residues used"},{"$f":"B13","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again)"},{"$f":"B52","v":"Unmanaged Tropical Peat Forest"},"Marsh and Swamp ","Land reverting to Tropical Moist Deciduous Forest","Land reverting to Tropical Moist Deciduous Forest","Land reverting to Tropical Moist Deciduous Forest"]
["Newly Abandoned LRF Conifer, residues unused",{"$f":"B18","v":"Newly Abandoned LRF Conifer, residues unused"},{"$f":"B26","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation"},{"$f":"B51","v":"Unmanaged Tropical Non-Peat Rainforest"},"Tundra Woodland","Land reverting to Tropical Dry Forest","Land reverting to Tropical Dry Forest","Land reverting to Tropical Dry Forest"]
["LRF Broadleaf for wood products, residues unused",{"$f":"B37","v":"LRF Broadleaf for wood products, residues unused"},{"$f":"B14","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand"},{"$f":"B19","v":"Old Growth Fast Growing Conifer (> 200 years old)"},"Temperate shrub land ","Land reverting to Tropical Mountain System","Land reverting to Tropical Mountain System","Land reverting to Tropical Mountain System"]
["LRF Broadleaf for wood products, 50% residues used",{"$f":"B41","v":"LRF Broadleaf for wood products, 50% residues used"},{"$f":"B15","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting"},{"$f":"B20","v":"Old Growth Slow Growing Conifer (> 200 years old)"},"Temperate grassland (e.g. Steppes, grassland praires)","Land reverting to Tropical Woody Savanna","Land reverting to Tropical Woody Savanna","Land reverting to Tropical Woody Savanna"]
["Newly Abandoned LRF Broadleaf, residues unused",{"$f":"B43","v":"Newly Abandoned LRF Broadleaf, residues unused"},{"$f":"B23","v":"Intensely managed SRF Conifer, rotation length 25 years"},null,"Tropical Woody Savannah","Land reverting to Temperate Oceanic Forest","Land reverting to Temperate Oceanic Forest","Land reverting to Temperate Oceanic Forest"]
["LRF Broadleaf for wood products, rotation length increasing",{"$f":"B38","v":"LRF Broadleaf for wood products, rotation length increasing"},{"$f":"B24","v":"Medium intensity managed SRF Conifer, rotation length 25 years"},null,"Tropical Grassland Savannah","Land reverting to Temperate Continental Forest","Land reverting to Temperate Continental Forest","Land reverting to Temperate Continental Forest"]
["",null,null,null,null,"Land reverting to Temperate Mountain System","Land reverting to Temperate Mountain System","Land reverting to Temperate Mountain System"]
["",null,null,null,null,"Land reverting to Temperate Shrub or Grassland","Land reverting to Temperate Shrub or Grassland","Land reverting to Temperate Shrub or Grassland"]
["",null,null,null,null,"Land reverting to Boreal Coniferous Forest","Land reverting to Boreal Coniferous Forest","Land reverting to Boreal Coniferous Forest"]
["",null,null,null,null,"Land reverting to Boreal Tundra","Land reverting to Boreal Tundra","Land reverting to Boreal Tundra"]
["",null,null,null,null,"Land reverting to Boreal Mountain System","Land reverting to Boreal Mountain System","Land reverting to Boreal Mountain System"]
[""]
[""]
[""]
[""]
[""]
[""]
[]
[]
[]
[]
[]
[]
["Countries"]
["Chosen","Options"]
[null,{"$f":"B9","v":"LRF Conifer for wood products, residues unused"},{"$f":"B10","v":"LRF Conifer for wood products, 50% residues used"},{"$f":"B11","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years "},{"$f":"B13","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again)"},{"$f":"B26","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation"},{"$f":"B14","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand"},{"$f":"B15","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting"},{"$f":"B23","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"B24","v":"Medium intensity managed SRF Conifer, rotation length 25 years"},{"$f":"B18","v":"Newly Abandoned LRF Conifer, residues unused"},{"$f":"B37","v":"LRF Broadleaf for wood products, residues unused"},{"$f":"B41","v":"LRF Broadleaf for wood products, 50% residues used"},{"$f":"B43","v":"Newly Abandoned LRF Broadleaf, residues unused"},{"$f":"B38","v":"LRF Broadleaf for wood products, rotation length increasing"},{"$f":"B47","v":"Unmanaged Temperate Broadleaf"},{"$f":"B52","v":"Unmanaged Tropical Peat Forest"},{"$f":"B51","v":"Unmanaged Tropical Non-Peat Rainforest"},{"$f":"B19","v":"Old Growth Fast Growing Conifer (> 200 years old)"},{"$f":"B20","v":"Old Growth Slow Growing Conifer (> 200 years old)"},{"$f":"B53","v":"Northern Peatland"},{"$f":"B54","v":"Marsh and Swamp "},{"$f":"B55","v":"Tundra Woodland"},{"$f":"B56","v":"Temperate shrub land "},{"$f":"B57","v":"Temperate grassland (e.g. Steppes, grassland praires)"},{"$f":"B58","v":"Tropical Woody Savannah"},{"$f":"B59","v":"Tropical Grassland Savannah"},{"$f":"B60","v":"Land reverting to Tropical Rainforest"},{"$f":"B61","v":"Land reverting to Tropical Moist Deciduous Forest"},{"$f":"B62","v":"Land reverting to Tropical Dry Forest"},{"$f":"B63","v":"Land reverting to Tropical Mountain System"},{"$f":"B64","v":"Land reverting to Tropical Woody Savanna"},{"$f":"B65","v":"Land reverting to Temperate Oceanic Forest"},{"$f":"B66","v":"Land reverting to Temperate Continental Forest"},{"$f":"B67","v":"Land reverting to Temperate Mountain System"},{"$f":"B68","v":"Land reverting to Temperate Shrub or Grassland"},{"$f":"B69","v":"Land reverting to Boreal Coniferous Forest"},{"$f":"B70","v":"Land reverting to Boreal Tundra"}]
[{"$f":"IF(INDEX(B110:AM110,MATCH(Chosen_Previous_Land_type_biopathways,Previous_Land_Types_Biopathways,0))=\"\",\"\",INDEX(B110:AM110,MATCH(Chosen_Previous_Land_type_biopathways,Previous_Land_Types_Biopathways,0)))","v":"UK"},{"$f":"'Transport Data'!A8","v":"UK"},{"$f":"'Transport Data'!A13","v":"Pacific Canada"},{"$f":"'Transport Data'!A9","v":"South USA"},{"$f":"'Transport Data'!A9","v":"South USA"},{"$f":"'Transport Data'!A9","v":"South USA"},{"$f":"'Transport Data'!A9","v":"South USA"},{"$f":"'Transport Data'!A9","v":"South USA"},{"$f":"'Transport Data'!A9","v":"South USA"},{"$f":"'Transport Data'!A9","v":"South USA"},{"$f":"'Transport Data'!A9","v":"South USA"},{"$f":"'Transport Data'!A8","v":"UK"},{"$f":"'Transport Data'!A16","v":"East Canada"},{"$f":"'Transport Data'!A11","v":"North-East USA"},{"$f":"'Transport Data'!A9","v":"South USA"},{"$f":"'Transport Data'!A8","v":"UK"},{"$f":"'Transport Data'!A20","v":"Africa (tropical wet region)"},{"$f":"'Transport Data'!A20","v":"Africa (tropical wet region)"},{"$f":"'Transport Data'!A10","v":"North West USA"},{"$f":"'Transport Data'!A10","v":"North West USA"},{"$f":"'Transport Data'!$A$49","v":"Europe (boreal region)"},{"$f":"'Transport Data'!$A$20","v":"Africa (tropical wet region)"},{"$f":"'Transport Data'!A49","v":"Europe (boreal region)"},{"$f":"'Transport Data'!$A$50","v":"Europe (temperate dry region)"},{"$f":"'Transport Data'!$A$50","v":"Europe (temperate dry region)"},{"$f":"'Transport Data'!$A$18","v":"Africa (tropical dry region)"},{"$f":"'Transport Data'!$A$18","v":"Africa (tropical dry region)"},{"$f":"'Transport Data'!$A$20","v":"Africa (tropical wet region)"},{"$f":"'Transport Data'!A19","v":"Africa (tropical moist region)"},{"$f":"'Transport Data'!A18","v":"Africa (tropical dry region)"},{"$f":"'Transport Data'!A21","v":"Africa (tropical montane region)"},{"$f":"'Transport Data'!$A$18","v":"Africa (tropical dry region)"},{"$f":"'Transport Data'!$A$51","v":"Europe (temperate moist region)"},{"$f":"'Transport Data'!$A$50","v":"Europe (temperate dry region)"},{"$f":"'Transport Data'!$A$51","v":"Europe (temperate moist region)"},{"$f":"'Transport Data'!$A$50","v":"Europe (temperate dry region)"},{"$f":"'Transport Data'!$A$49","v":"Europe (boreal region)"},{"$f":"'Transport Data'!$A$49","v":"Europe (boreal region)"}]
["South USA",{"$f":"'Transport Data'!A9","v":"South USA"},{"$f":"'Transport Data'!A14","v":"Interior Canada"},null,null,null,null,null,null,null,{"$f":"'Transport Data'!A10","v":"North West USA"},{"$f":"'Transport Data'!A11","v":"North-East USA"},null,{"$f":"'Transport Data'!A12","v":"North USA"},null,null,{"$f":"'Transport Data'!A29","v":"North America (tropical wet region)"},{"$f":"'Transport Data'!A29","v":"North America (tropical wet region)"},{"$f":"'Transport Data'!A9","v":"South USA"},null,{"$f":"'Transport Data'!$A$23","v":"North America (boreal region)"},{"$f":"'Transport Data'!$A$29","v":"North America (tropical wet region)"},{"$f":"'Transport Data'!A23","v":"North America (boreal region)"},{"$f":"'Transport Data'!$A$24","v":"North America (temperate dry region)"},{"$f":"'Transport Data'!$A$24","v":"North America (temperate dry region)"},{"$f":"'Transport Data'!$A$27","v":"North America (tropical dry region)"},{"$f":"'Transport Data'!$A$27","v":"North America (tropical dry region)"},{"$f":"'Transport Data'!$A$29","v":"North America (tropical wet region)"},{"$f":"'Transport Data'!A28","v":"North America (tropical moist region)"},{"$f":"'Transport Data'!A27","v":"North America (tropical dry region)"},{"$f":"'Transport Data'!A26","v":"North America (tropical montane region)"},{"$f":"'Transport Data'!$A$27","v":"North America (tropical dry region)"},{"$f":"'Transport Data'!$A$25","v":"North America (temperate moist region)"},{"$f":"'Transport Data'!$A$24","v":"North America (temperate dry region)"},{"$f":"'Transport Data'!$A$25","v":"North America (temperate moist region)"},{"$f":"'Transport Data'!$A$24","v":"North America (temperate dry region)"},{"$f":"'Transport Data'!$A$23","v":"North America (boreal region)"},{"$f":"'Transport Data'!$A$23","v":"North America (boreal region)"}]
["North West USA",{"$f":"'Transport Data'!A10","v":"North West USA"},{"$f":"'Transport Data'!A15","v":"Boreal North Canada"},null,null,null,null,null,null,null,{"$f":"'Transport Data'!A13","v":"Pacific Canada"},{"$f":"'Transport Data'!A12","v":"North USA"},null,{"$f":"'Transport Data'!A16","v":"East Canada"},null,null,{"$f":"'Transport Data'!A36","v":"South America (tropical wet region)"},{"$f":"'Transport Data'!A36","v":"South America (tropical wet region)"},null,null,{"$f":"'Transport Data'!$A$38","v":"Asia Continental (boreal region)"},{"$f":"'Transport Data'!$A$36","v":"South America (tropical wet region)"},{"$f":"'Transport Data'!A38","v":"Asia Continental (boreal region)"},{"$f":"'Transport Data'!$A$53","v":"New Zealand (temperate dry region)"},{"$f":"'Transport Data'!$A$53","v":"New Zealand (temperate dry region)"},{"$f":"'Transport Data'!$A$34","v":"South America (tropical dry region)"},{"$f":"'Transport Data'!$A$34","v":"South America (tropical dry region)"},{"$f":"'Transport Data'!$A$36","v":"South America (tropical wet region)"},{"$f":"'Transport Data'!A35","v":"South America (tropical moist region)"},{"$f":"'Transport Data'!A34","v":"South America (tropical dry region)"},{"$f":"'Transport Data'!A33","v":"South America (tropical montane region)"},{"$f":"'Transport Data'!$A$34","v":"South America (tropical dry region)"},{"$f":"'Transport Data'!$A$54","v":"New Zealand (temperate moist region)"},{"$f":"'Transport Data'!$A$53","v":"New Zealand (temperate dry region)"},{"$f":"'Transport Data'!$A$54","v":"New Zealand (temperate moist region)"},{"$f":"'Transport Data'!$A$53","v":"New Zealand (temperate dry region)"},{"$f":"'Transport Data'!$A$38","v":"Asia Continental (boreal region)"},{"$f":"'Transport Data'!$A$38","v":"Asia Continental (boreal region)"}]
["Pacific Canada",{"$f":"'Transport Data'!A13","v":"Pacific Canada"},null,null,null,null,null,null,null,null,{"$f":"'Transport Data'!A14","v":"Interior Canada"},{"$f":"'Transport Data'!A16","v":"East Canada"},null,null,null,null,{"$f":"'Transport Data'!A40","v":"Asia Continental (tropical wet region)"},{"$f":"'Transport Data'!A40","v":"Asia Continental (tropical wet region)"},null,null,null,{"$f":"'Transport Data'!$A$40","v":"Asia Continental (tropical wet region)"},null,{"$f":"'Transport Data'!$A$31","v":"South America (temperate dry region)"},{"$f":"'Transport Data'!$A$31","v":"South America (temperate dry region)"},{"$f":"'Transport Data'!$A$39","v":"Asia Continental (tropical dry region)"},{"$f":"'Transport Data'!$A$39","v":"Asia Continental (tropical dry region)"},{"$f":"'Transport Data'!$A$40","v":"Asia Continental (tropical wet region)"},{"$f":"'Transport Data'!A41","v":"Asia Continental (tropical moist region)"},{"$f":"'Transport Data'!A39","v":"Asia Continental (tropical dry region)"},{"$f":"'Transport Data'!A42","v":"Asia Continental (tropical montane region)"},{"$f":"'Transport Data'!$A$39","v":"Asia Continental (tropical dry region)"},{"$f":"'Transport Data'!$A$32","v":"South America (temperate moist region)"},{"$f":"'Transport Data'!$A$31","v":"South America (temperate dry region)"},{"$f":"'Transport Data'!$A$32","v":"South America (temperate moist region)"},{"$f":"'Transport Data'!$A$31","v":"South America (temperate dry region)"}]
["Interior Canada",{"$f":"'Transport Data'!A14","v":"Interior Canada"},null,null,null,null,null,null,null,null,{"$f":"'Transport Data'!A15","v":"Boreal North Canada"},{"$f":"'Transport Data'!A9","v":"South USA"},null,null,null,null,{"$f":"'Transport Data'!A46","v":"Asia Insular (tropical wet region)"},{"$f":"'Transport Data'!A46","v":"Asia Insular (tropical wet region)"},null,null,null,{"$f":"'Transport Data'!$A$46","v":"Asia Insular (tropical wet region)"},null,null,null,{"$f":"'Transport Data'!$A$44","v":"Asia Insular (tropical dry region)"},{"$f":"'Transport Data'!$A$44","v":"Asia Insular (tropical dry region)"},{"$f":"'Transport Data'!$A$46","v":"Asia Insular (tropical wet region)"},{"$f":"'Transport Data'!A45","v":"Asia Insular (tropical moist region)"},{"$f":"'Transport Data'!A44","v":"Asia Insular (tropical dry region)"},{"$f":"'Transport Data'!A47","v":"Asia Insular (tropical montane region)"},{"$f":"'Transport Data'!$A$44","v":"Asia Insular (tropical dry region)"}]
["Boreal North Canada",{"$f":"'Transport Data'!A15","v":"Boreal North Canada"}]
[]
[]
["Previous Land Use","New Land Use"]
[{"$f":"$B$109&\":\"&B110","v":"LRF Conifer for wood products, residues unused:UK"},{"$f":"$B$16","v":"LRF Conifer for wood products and bioenergy"}]
["LRF Conifer for wood products, residues unused:South USA","LRF Conifer for wood products and bioenergy",{"$f":"B29","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation"},{"$f":"B30","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation"},{"$f":"B31","v":"Conversion of LRF Conifer to SRC Willow over 3 y"},{"$f":"B32","v":"Conversion of LRF Conifer to SRC Willow over 50 y"}]
["LRF Conifer for wood products, residues unused:North West USA","LRF Conifer for wood products and bioenergy"]
["LRF Conifer for wood products, residues unused:Pacific Canada","LRF Conifer for wood products and bioenergy"]
["LRF Conifer for wood products, residues unused:Interior Canada","LRF Conifer for wood products and bioenergy"]
["LRF Conifer for wood products, residues unused:Boreal North Canada","LRF Conifer for wood products and bioenergy"]
[{"$f":"D109&\":\"&D110","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years :South USA"},{"$f":"B23","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"B12","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"}]
[{"$f":"E109&\":\"&E110","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again):South USA"},{"$f":"B23","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"B12","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"}]
[{"$f":"B14&\":\"&G110","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand:South USA"},{"$f":"B23","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"B12","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"}]
[{"$f":"H109&\":\"&H110","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting:South USA"},{"$f":"B23","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"B12","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"}]
[{"$f":"F109&\":\"&F110","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation:South USA"},{"$f":"B23","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"B12","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"}]
[{"$f":"I109&\":\"&I110","v":"Intensely managed SRF Conifer, rotation length 25 years:South USA"},{"$f":"B12","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"}]
[{"$f":"J109&\":\"&J110","v":"Medium intensity managed SRF Conifer, rotation length 25 years:South USA"},{"$f":"B25","v":"SRF Conifer, increased management intensity, 25 year rotation"}]
[{"$f":"$K$109&\":\"&K110","v":"Newly Abandoned LRF Conifer, residues unused:South USA"},{"$f":"$B$17","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"$B$72","v":"SRC Willow Plantation"},{"$f":"$B$76","v":"Miscanthus Plantation"},{"$f":"$B$75","v":"Maize Cropland"}]
[{"$f":"$K$109&\":\"&K111","v":"Newly Abandoned LRF Conifer, residues unused:North West USA"},{"$f":"$B$17","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"$B$72","v":"SRC Willow Plantation"},{"$f":"$B$76","v":"Miscanthus Plantation"},{"$f":"$B$75","v":"Maize Cropland"}]
[{"$f":"$K$109&\":\"&K112","v":"Newly Abandoned LRF Conifer, residues unused:Pacific Canada"},{"$f":"$B$17","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"$B$72","v":"SRC Willow Plantation"},{"$f":"$B$76","v":"Miscanthus Plantation"},{"$f":"$B$75","v":"Maize Cropland"}]
[{"$f":"$K$109&\":\"&K113","v":"Newly Abandoned LRF Conifer, residues unused:Interior Canada"},{"$f":"$B$17","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"$B$72","v":"SRC Willow Plantation"},{"$f":"$B$76","v":"Miscanthus Plantation"},{"$f":"$B$75","v":"Maize Cropland"}]
[{"$f":"$K$109&\":\"&K114","v":"Newly Abandoned LRF Conifer, residues unused:Boreal North Canada"},{"$f":"$B$17","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"$B$72","v":"SRC Willow Plantation"},{"$f":"$B$76","v":"Miscanthus Plantation"},{"$f":"$B$75","v":"Maize Cropland"}]
[{"$f":"C109&\":\"&C110","v":"LRF Conifer for wood products, 50% residues used:Pacific Canada"},{"$f":"$B$27","v":"LRF Conifer, rotation length reduced to 50y"}]
[{"$f":"C109&\":\"&C111","v":"LRF Conifer for wood products, 50% residues used:Interior Canada"},{"$f":"$B$27","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"$B$28","v":"LRF Conifer, rotation length reduced to 80y"}]
[{"$f":"C109&\":\"&C112","v":"LRF Conifer for wood products, 50% residues used:Boreal North Canada"},{"$f":"$B$27","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"$B$28","v":"LRF Conifer, rotation length reduced to 80y"}]
[{"$f":"$L$109&\":\"&L110","v":"LRF Broadleaf for wood products, residues unused:UK"},{"$f":"$B$40","v":"LRF Broadleaf for wood products and bioenergy"}]
[{"$f":"$L$109&\":\"&L111","v":"LRF Broadleaf for wood products, residues unused:North-East USA"},{"$f":"$B$40","v":"LRF Broadleaf for wood products and bioenergy"}]
[{"$f":"$L$109&\":\"&L112","v":"LRF Broadleaf for wood products, residues unused:North USA"},{"$f":"$B$40","v":"LRF Broadleaf for wood products and bioenergy"}]
[{"$f":"$L$109&\":\"&L113","v":"LRF Broadleaf for wood products, residues unused:East Canada"},{"$f":"$B$40","v":"LRF Broadleaf for wood products and bioenergy"}]
[{"$f":"$L$109&\":\"&L114","v":"LRF Broadleaf for wood products, residues unused:South USA"},{"$f":"$B$40","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"B33","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation"},{"$f":"B34","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation"},{"$f":"B35","v":"Conversion of LRF Broadleaf to SRC Willow over 3 y"},{"$f":"B36","v":"Conversion of LRF Broadleaf to SRC Willow over 70 y"},{"$f":"B45","v":"LRF Broadleaf, rotation length reduced to 60y"}]
[{"$f":"$N$109&\":\"&N110","v":"Newly Abandoned LRF Broadleaf, residues unused:North-East USA"},{"$f":"$B$42","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"$B$72","v":"SRC Willow Plantation"},{"$f":"$B$76","v":"Miscanthus Plantation"},{"$f":"$B$75","v":"Maize Cropland"}]
[{"$f":"$N$109&\":\"&N111","v":"Newly Abandoned LRF Broadleaf, residues unused:North USA"},{"$f":"$B$42","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"$B$72","v":"SRC Willow Plantation"},{"$f":"$B$76","v":"Miscanthus Plantation"},{"$f":"$B$75","v":"Maize Cropland"}]
[{"$f":"$N$109&\":\"&N112","v":"Newly Abandoned LRF Broadleaf, residues unused:East Canada"},{"$f":"$B$42","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"$B$72","v":"SRC Willow Plantation"},{"$f":"$B$76","v":"Miscanthus Plantation"},{"$f":"$B$75","v":"Maize Cropland"}]
[{"$f":"M109&\":\"&M110","v":"LRF Broadleaf for wood products, 50% residues used:East Canada"},{"$f":"B44","v":"LRF Broadleaf, rotation length reduced to 50y"},{"$f":"B46","v":"LRF Broadleaf, rotation length reduced to 80y"}]
[{"$f":"O109&\":\"&O110","v":"LRF Broadleaf for wood products, rotation length increasing:South USA"},{"$f":"B39","v":"LRF Broadleaf for wood products and bioenergy; rotation stays the same"}]
[{"$f":"$P$109&\":\"&P110","v":"Unmanaged Temperate Broadleaf:UK"},{"$f":"B48","v":"Newly Managed LRF Broadleaf"},{"$f":"B72","v":"SRC Willow Plantation"}]
[{"$f":"$Q$109&\":\"&Q110","v":"Unmanaged Tropical Peat Forest:Africa (tropical wet region)"},{"$f":"$B$73","v":"SRF Eucalyptus Plantation"},{"$f":"$B$75","v":"Maize Cropland"},{"$f":"$B$74","v":"Palm Plantation"}]
[{"$f":"$Q$109&\":\"&Q111","v":"Unmanaged Tropical Peat Forest:North America (tropical wet region)"},{"$f":"$B$73","v":"SRF Eucalyptus Plantation"},"Maize Cropland","Palm Plantation"]
[{"$f":"$Q$109&\":\"&Q112","v":"Unmanaged Tropical Peat Forest:South America (tropical wet region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$Q$109&\":\"&Q113","v":"Unmanaged Tropical Peat Forest:Asia Continental (tropical wet region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$Q$109&\":\"&Q114","v":"Unmanaged Tropical Peat Forest:Asia Insular (tropical wet region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$R$109&\":\"&R110","v":"Unmanaged Tropical Non-Peat Rainforest:Africa (tropical wet region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$R$109&\":\"&R111","v":"Unmanaged Tropical Non-Peat Rainforest:North America (tropical wet region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$R$109&\":\"&R112","v":"Unmanaged Tropical Non-Peat Rainforest:South America (tropical wet region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$R$109&\":\"&R113","v":"Unmanaged Tropical Non-Peat Rainforest:Asia Continental (tropical wet region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$R$109&\":\"&R114","v":"Unmanaged Tropical Non-Peat Rainforest:Asia Insular (tropical wet region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$S$109&\":\"&S110","v":"Old Growth Fast Growing Conifer (> 200 years old):North West USA"},{"$f":"$B$50","v":"Newly Managed LRF Conifer (fast growing)"}]
[{"$f":"$S$109&\":\"&S111","v":"Old Growth Fast Growing Conifer (> 200 years old):South USA"},{"$f":"$B$50","v":"Newly Managed LRF Conifer (fast growing)"}]
[{"$f":"$T$109&\":\"&T110","v":"Old Growth Slow Growing Conifer (> 200 years old):North West USA"},{"$f":"$B$49","v":"Newly Managed LRF Conifer (slow growing)"}]
[{"$f":"$U$109&\":\"&U110","v":"Northern Peatland:Europe (boreal region)"},{"$f":"$B$72","v":"SRC Willow Plantation"},{"$f":"$B$76","v":"Miscanthus Plantation"},{"$f":"$B$75","v":"Maize Cropland"}]
[{"$f":"$U$109&\":\"&U111","v":"Northern Peatland:North America (boreal region)"},{"$f":"$B$72","v":"SRC Willow Plantation"},{"$f":"$B$76","v":"Miscanthus Plantation"},{"$f":"$B$75","v":"Maize Cropland"}]
[{"$f":"$U$109&\":\"&U112","v":"Northern Peatland:Asia Continental (boreal region)"},{"$f":"$B$72","v":"SRC Willow Plantation"},{"$f":"$B$76","v":"Miscanthus Plantation"},{"$f":"$B$75","v":"Maize Cropland"}]
[{"$f":"$V$109&\":\"&V110","v":"Marsh and Swamp :Africa (tropical wet region)"},{"$f":"$B$73","v":"SRF Eucalyptus Plantation"},{"$f":"$B$75","v":"Maize Cropland"},{"$f":"$B$74","v":"Palm Plantation"}]
[{"$f":"$V$109&\":\"&V111","v":"Marsh and Swamp :North America (tropical wet region)"},{"$f":"$B$73","v":"SRF Eucalyptus Plantation"},{"$f":"$B$75","v":"Maize Cropland"},{"$f":"$B$74","v":"Palm Plantation"}]
[{"$f":"$V$109&\":\"&V112","v":"Marsh and Swamp :South America (tropical wet region)"},{"$f":"$B$73","v":"SRF Eucalyptus Plantation"},{"$f":"$B$75","v":"Maize Cropland"},{"$f":"$B$74","v":"Palm Plantation"}]
[{"$f":"$V$109&\":\"&V113","v":"Marsh and Swamp :Asia Continental (tropical wet region)"},{"$f":"$B$73","v":"SRF Eucalyptus Plantation"},{"$f":"$B$75","v":"Maize Cropland"},{"$f":"$B$74","v":"Palm Plantation"}]
[{"$f":"$V$109&\":\"&V114","v":"Marsh and Swamp :Asia Insular (tropical wet region)"},{"$f":"$B$73","v":"SRF Eucalyptus Plantation"},{"$f":"$B$75","v":"Maize Cropland"},{"$f":"$B$74","v":"Palm Plantation"}]
[{"$f":"$W$109&\":\"&W110","v":"Tundra Woodland:Europe (boreal region)"},{"$f":"$B$72","v":"SRC Willow Plantation"},{"$f":"$B$76","v":"Miscanthus Plantation"},{"$f":"$B$75","v":"Maize Cropland"}]
[{"$f":"$W$109&\":\"&W111","v":"Tundra Woodland:North America (boreal region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$W$109&\":\"&W112","v":"Tundra Woodland:Asia Continental (boreal region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$X$109&\":\"&X110","v":"Temperate shrub land :Europe (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$X$109&\":\"&X111","v":"Temperate shrub land :North America (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$X$109&\":\"&X112","v":"Temperate shrub land :New Zealand (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$X$109&\":\"&X113","v":"Temperate shrub land :South America (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$Y$109&\":\"&Y110","v":"Temperate grassland (e.g. Steppes, grassland praires):Europe (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$Y$109&\":\"&Y111","v":"Temperate grassland (e.g. Steppes, grassland praires):North America (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$Y$109&\":\"&Y112","v":"Temperate grassland (e.g. Steppes, grassland praires):New Zealand (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$Y$109&\":\"&Y113","v":"Temperate grassland (e.g. Steppes, grassland praires):South America (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$Z$109&\":\"&Z110","v":"Tropical Woody Savannah:Africa (tropical dry region)"},{"$f":"$B$73","v":"SRF Eucalyptus Plantation"},{"$f":"$B$75","v":"Maize Cropland"},{"$f":"$B$74","v":"Palm Plantation"}]
[{"$f":"$Z$109&\":\"&Z111","v":"Tropical Woody Savannah:North America (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$Z$109&\":\"&Z112","v":"Tropical Woody Savannah:South America (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$Z$109&\":\"&Z113","v":"Tropical Woody Savannah:Asia Continental (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$Z$109&\":\"&Z114","v":"Tropical Woody Savannah:Asia Insular (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AA$109&\":\"&AA110","v":"Tropical Grassland Savannah:Africa (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AA$109&\":\"&AA111","v":"Tropical Grassland Savannah:North America (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AA$109&\":\"&AA112","v":"Tropical Grassland Savannah:South America (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AA$109&\":\"&AA113","v":"Tropical Grassland Savannah:Asia Continental (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AA$109&\":\"&AA114","v":"Tropical Grassland Savannah:Asia Insular (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AB$109&\":\"&AB110","v":"Land reverting to Tropical Rainforest:Africa (tropical wet region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AB$109&\":\"&AB111","v":"Land reverting to Tropical Rainforest:North America (tropical wet region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AB$109&\":\"&AB112","v":"Land reverting to Tropical Rainforest:South America (tropical wet region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AB$109&\":\"&AB113","v":"Land reverting to Tropical Rainforest:Asia Continental (tropical wet region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AB$109&\":\"&AB114","v":"Land reverting to Tropical Rainforest:Asia Insular (tropical wet region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AC$109&\":\"&AC110","v":"Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AC$109&\":\"&AC111","v":"Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation",{"$f":"$B$72","v":"SRC Willow Plantation"},{"$f":"$B$21","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"$B$22","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"}]
[{"$f":"$AC$109&\":\"&AC112","v":"Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AC$109&\":\"&AC113","v":"Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AC$109&\":\"&AC114","v":"Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AD$109&\":\"&AD110","v":"Land reverting to Tropical Dry Forest:Africa (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AD$109&\":\"&AD111","v":"Land reverting to Tropical Dry Forest:North America (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AD$109&\":\"&AD112","v":"Land reverting to Tropical Dry Forest:South America (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AD$109&\":\"&AD113","v":"Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AD$109&\":\"&AD114","v":"Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AE$109&\":\"&AE110","v":"Land reverting to Tropical Mountain System:Africa (tropical montane region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AE$109&\":\"&AE111","v":"Land reverting to Tropical Mountain System:North America (tropical montane region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation",{"$f":"$B$72","v":"SRC Willow Plantation"},{"$f":"$B$21","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"$B$22","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"}]
[{"$f":"$AE$109&\":\"&AE112","v":"Land reverting to Tropical Mountain System:South America (tropical montane region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AE$109&\":\"&AE113","v":"Land reverting to Tropical Mountain System:Asia Continental (tropical montane region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AE$109&\":\"&AE114","v":"Land reverting to Tropical Mountain System:Asia Insular (tropical montane region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AF$109&\":\"&AF110","v":"Land reverting to Tropical Woody Savanna:Africa (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AF$109&\":\"&AF111","v":"Land reverting to Tropical Woody Savanna:North America (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AF$109&\":\"&AF112","v":"Land reverting to Tropical Woody Savanna:South America (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AF$109&\":\"&AF113","v":"Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AF$109&\":\"&AF114","v":"Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region)"},"SRF Eucalyptus Plantation","Maize Cropland","Palm Plantation"]
[{"$f":"$AG$109&\":\"&AG110","v":"Land reverting to Temperate Oceanic Forest:Europe (temperate moist region)"},{"$f":"$B$72","v":"SRC Willow Plantation"},{"$f":"$B$76","v":"Miscanthus Plantation"},{"$f":"$B$75","v":"Maize Cropland"}]
[{"$f":"$AG$109&\":\"&AG111","v":"Land reverting to Temperate Oceanic Forest:North America (temperate moist region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland",{"$f":"$B$21","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"$B$22","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"}]
[{"$f":"$AG$109&\":\"&AG112","v":"Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AG$109&\":\"&AG113","v":"Land reverting to Temperate Oceanic Forest:South America (temperate moist region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AH$109&\":\"&AH110","v":"Land reverting to Temperate Continental Forest:Europe (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AH$109&\":\"&AH111","v":"Land reverting to Temperate Continental Forest:North America (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AH$109&\":\"&AH112","v":"Land reverting to Temperate Continental Forest:New Zealand (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AH$109&\":\"&AH113","v":"Land reverting to Temperate Continental Forest:South America (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AI$109&\":\"&AI110","v":"Land reverting to Temperate Mountain System:Europe (temperate moist region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AI$109&\":\"&AI111","v":"Land reverting to Temperate Mountain System:North America (temperate moist region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland",{"$f":"$B$21","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"$B$22","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"}]
[{"$f":"$AI$109&\":\"&AI112","v":"Land reverting to Temperate Mountain System:New Zealand (temperate moist region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AI$109&\":\"&AI113","v":"Land reverting to Temperate Mountain System:South America (temperate moist region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AJ$109&\":\"&AJ110","v":"Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AJ$109&\":\"&AJ111","v":"Land reverting to Temperate Shrub or Grassland:North America (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland",{"$f":"$B$21","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"$B$22","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"}]
[{"$f":"$AJ$109&\":\"&AJ112","v":"Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AJ$109&\":\"&AJ113","v":"Land reverting to Temperate Shrub or Grassland:South America (temperate dry region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AK$109&\":\"&AK110","v":"Land reverting to Boreal Coniferous Forest:Europe (boreal region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AK$109&\":\"&AK111","v":"Land reverting to Boreal Coniferous Forest:North America (boreal region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AK$109&\":\"&AK112","v":"Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AL$109&\":\"&AL110","v":"Land reverting to Boreal Tundra:Europe (boreal region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AL$109&\":\"&AL111","v":"Land reverting to Boreal Tundra:North America (boreal region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
[{"$f":"$AL$109&\":\"&AL112","v":"Land reverting to Boreal Tundra:Asia Continental (boreal region)"},"SRC Willow Plantation","Miscanthus Plantation","Maize Cropland"]
["Insert above here "]
[]
["Lookup Name for New Land Use",{"$f":"Chosen_Previous_Land_type_biopathways&\":\"&Results_Biopathways!C25","v":"LRF Conifer for wood products, residues unused:UK"}]
["Chosen List for new land use",{"$f":"INDEX(B119:B240,MATCH(New_Land_Use_Lookup_biopathways,New_Land_Use_List_Biopathways,0))","v":"LRF Conifer for wood products and bioenergy"},{"$f":"IF(INDEX(C119:C240,MATCH(New_Land_Use_Lookup_biopathways,New_Land_Use_List_Biopathways,0))=\"\",\"\",INDEX(C119:C240,MATCH(New_Land_Use_Lookup_biopathways,New_Land_Use_List_Biopathways,0)))","v":""},{"$f":"IF(INDEX(D119:D240,MATCH(New_Land_Use_Lookup_biopathways,New_Land_Use_List_Biopathways,0))=\"\",\"\",INDEX(D119:D240,MATCH(New_Land_Use_Lookup_biopathways,New_Land_Use_List_Biopathways,0)))","v":""},{"$f":"IF(INDEX(E119:E240,MATCH(New_Land_Use_Lookup_biopathways,New_Land_Use_List_Biopathways,0))=\"\",\"\",INDEX(E119:E240,MATCH(New_Land_Use_Lookup_biopathways,New_Land_Use_List_Biopathways,0)))","v":""},{"$f":"IF(INDEX(F119:F240,MATCH(New_Land_Use_Lookup_biopathways,New_Land_Use_List_Biopathways,0))=\"\",\"\",INDEX(F119:F240,MATCH(New_Land_Use_Lookup_biopathways,New_Land_Use_List_Biopathways,0)))","v":""},{"$f":"IF(INDEX(G119:G240,MATCH(New_Land_Use_Lookup_biopathways,New_Land_Use_List_Biopathways,0))=\"\",\"\",INDEX(G119:G240,MATCH(New_Land_Use_Lookup_biopathways,New_Land_Use_List_Biopathways,0)))","v":""}]
[]
[]
["Soil Type"]
["No peat drainage"]
["Peat soil which requires drainage"]
[]
[]
[]
["Previous Land Use","New Land Use","Name","Allowed Soil Type"]
[{"$f":"B109","v":"LRF Conifer for wood products, residues unused"},{"$f":"B120","v":"LRF Conifer for wood products and bioenergy"},{"$f":"A253&\":\"&B253","v":"LRF Conifer for wood products, residues unused:LRF Conifer for wood products and bioenergy"},{"$f":"$A$247","v":"No peat drainage"}]
[{"$f":"A253","v":"LRF Conifer for wood products, residues unused"},{"$f":"C120","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation"},{"$f":"A254&\":\"&B254","v":"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation"},{"$f":"$A$247","v":"No peat drainage"}]
[{"$f":"A254","v":"LRF Conifer for wood products, residues unused"},{"$f":"D120","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation"},"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation","No peat drainage"]
["LRF Conifer for wood products, residues unused",{"$f":"E120","v":"Conversion of LRF Conifer to SRC Willow over 3 y"},"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to SRC Willow over 3 y","No peat drainage",{"$f":"$A$248","v":"Peat soil which requires drainage"}]
["LRF Conifer for wood products, residues unused",{"$f":"F120","v":"Conversion of LRF Conifer to SRC Willow over 50 y"},"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to SRC Willow over 50 y","No peat drainage",{"$f":"$A$248","v":"Peat soil which requires drainage"}]
[{"$f":"C109","v":"LRF Conifer for wood products, 50% residues used"},{"$f":"B138","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"A258&\":\"&B258","v":"LRF Conifer for wood products, 50% residues used:LRF Conifer, rotation length reduced to 50y"},"No peat drainage"]
[{"$f":"A258","v":"LRF Conifer for wood products, 50% residues used"},{"$f":"C138","v":"LRF Conifer, rotation length reduced to 80y"},{"$f":"A259&\":\"&B259","v":"LRF Conifer for wood products, 50% residues used:LRF Conifer, rotation length reduced to 80y"},"No peat drainage"]
[{"$f":"D109","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years "},{"$f":"B125","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"A260&\":\"&B260","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years :Intensely managed SRF Conifer, rotation length 25 years"},"No peat drainage"]
[{"$f":"A260","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years "},{"$f":"C125","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"A261&\":\"&B261","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years :Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},"No peat drainage"]
[{"$f":"E109","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again)"},{"$f":"B126","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"A262&\":\"&B262","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again):Intensely managed SRF Conifer, rotation length 25 years"},"No peat drainage"]
[{"$f":"A262","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again)"},{"$f":"C126","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"A263&\":\"&B263","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again):Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},"No peat drainage"]
[{"$f":"F109","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation"},{"$f":"B129","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"A264&\":\"&B264","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation:Intensely managed SRF Conifer, rotation length 25 years"},"No peat drainage"]
[{"$f":"A264","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation"},{"$f":"C129","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"A265&\":\"&B265","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},"No peat drainage"]
[{"$f":"G109","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand"},{"$f":"B127","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"A266&\":\"&B266","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand:Intensely managed SRF Conifer, rotation length 25 years"},"No peat drainage"]
[{"$f":"A266","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand"},{"$f":"C127","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"A267&\":\"&B267","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},"No peat drainage"]
[{"$f":"H109","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting"},{"$f":"B128","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"A268&\":\"&B268","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting:Intensely managed SRF Conifer, rotation length 25 years"},"No peat drainage"]
[{"$f":"A268","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting"},{"$f":"C128","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"A269&\":\"&B269","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},"No peat drainage"]
[{"$f":"I109","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"B130","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"A270&\":\"&B270","v":"Intensely managed SRF Conifer, rotation length 25 years:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},"No peat drainage"]
[{"$f":"J109","v":"Medium intensity managed SRF Conifer, rotation length 25 years"},{"$f":"B131","v":"SRF Conifer, increased management intensity, 25 year rotation"},{"$f":"A271&\":\"&B271","v":"Medium intensity managed SRF Conifer, rotation length 25 years:SRF Conifer, increased management intensity, 25 year rotation"},"No peat drainage"]
[{"$f":"K109","v":"Newly Abandoned LRF Conifer, residues unused"},{"$f":"B132","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"A272&\":\"&B272","v":"Newly Abandoned LRF Conifer, residues unused:LRF Conifer for Bioenergy, residues unused"},"No peat drainage"]
[{"$f":"A272","v":"Newly Abandoned LRF Conifer, residues unused"},{"$f":"C132","v":"SRC Willow Plantation"},{"$f":"A273&\":\"&B273","v":"Newly Abandoned LRF Conifer, residues unused:SRC Willow Plantation"},"No peat drainage",{"$f":"$A$248","v":"Peat soil which requires drainage"}]
[{"$f":"A273","v":"Newly Abandoned LRF Conifer, residues unused"},{"$f":"D132","v":"Miscanthus Plantation"},"Newly Abandoned LRF Conifer, residues unused:Miscanthus Plantation","No peat drainage",{"$f":"$A$248","v":"Peat soil which requires drainage"}]
["Newly Abandoned LRF Conifer, residues unused",{"$f":"E132","v":"Maize Cropland"},{"$f":"A275&\":\"&B275","v":"Newly Abandoned LRF Conifer, residues unused:Maize Cropland"},"No peat drainage",{"$f":"$A$248","v":"Peat soil which requires drainage"}]
[{"$f":"L109","v":"LRF Broadleaf for wood products, residues unused"},{"$f":"B144","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"A276&\":\"&B276","v":"LRF Broadleaf for wood products, residues unused:LRF Broadleaf for wood products and bioenergy"},"No peat drainage"]
[{"$f":"A276","v":"LRF Broadleaf for wood products, residues unused"},{"$f":"C144","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation"},"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation","No peat drainage",{"$f":"$A$248","v":"Peat soil which requires drainage"}]
[{"$f":"A277","v":"LRF Broadleaf for wood products, residues unused"},{"$f":"D144","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation"},"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation","No peat drainage",{"$f":"$A$248","v":"Peat soil which requires drainage"}]
["LRF Broadleaf for wood products, residues unused",{"$f":"E144","v":"Conversion of LRF Broadleaf to SRC Willow over 3 y"},{"$f":"A279&\":\"&B279","v":"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to SRC Willow over 3 y"},"No peat drainage",{"$f":"$A$248","v":"Peat soil which requires drainage"}]
["LRF Broadleaf for wood products, residues unused",{"$f":"F144","v":"Conversion of LRF Broadleaf to SRC Willow over 70 y"},{"$f":"A280&\":\"&B280","v":"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to SRC Willow over 70 y"},"No peat drainage",{"$f":"$A$248","v":"Peat soil which requires drainage"}]
["LRF Broadleaf for wood products, residues unused",{"$f":"G144","v":"LRF Broadleaf, rotation length reduced to 60y"},"LRF Broadleaf for wood products, residues unused:LRF Broadleaf, rotation length reduced to 60y","No peat drainage"]
[{"$f":"M109","v":"LRF Broadleaf for wood products, 50% residues used"},{"$f":"B148","v":"LRF Broadleaf, rotation length reduced to 50y"},{"$f":"A282&\":\"&B282","v":"LRF Broadleaf for wood products, 50% residues used:LRF Broadleaf, rotation length reduced to 50y"},"No peat drainage"]
[{"$f":"A282","v":"LRF Broadleaf for wood products, 50% residues used"},{"$f":"C148","v":"LRF Broadleaf, rotation length reduced to 80y"},{"$f":"A283&\":\"&B283","v":"LRF Broadleaf for wood products, 50% residues used:LRF Broadleaf, rotation length reduced to 80y"},"No peat drainage"]
[{"$f":"N109","v":"Newly Abandoned LRF Broadleaf, residues unused"},{"$f":"B145","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"A284&\":\"&B284","v":"Newly Abandoned LRF Broadleaf, residues unused:LRF Broadleaf for bioenergy, residues unused"},"No peat drainage"]
[{"$f":"A284","v":"Newly Abandoned LRF Broadleaf, residues unused"},{"$f":"C145","v":"SRC Willow Plantation"},{"$f":"A285&\":\"&B285","v":"Newly Abandoned LRF Broadleaf, residues unused:SRC Willow Plantation"},"No peat drainage",{"$f":"$A$248","v":"Peat soil which requires drainage"}]
[{"$f":"A285","v":"Newly Abandoned LRF Broadleaf, residues unused"},{"$f":"D145","v":"Miscanthus Plantation"},"Newly Abandoned LRF Broadleaf, residues unused:Miscanthus Plantation","No peat drainage",{"$f":"$A$248","v":"Peat soil which requires drainage"}]
["Newly Abandoned LRF Broadleaf, residues unused",{"$f":"E145","v":"Maize Cropland"},{"$f":"A287&\":\"&B287","v":"Newly Abandoned LRF Broadleaf, residues unused:Maize Cropland"},"No peat drainage",{"$f":"$A$248","v":"Peat soil which requires drainage"}]
[{"$f":"O109","v":"LRF Broadleaf for wood products, rotation length increasing"},{"$f":"B149","v":"LRF Broadleaf for wood products and bioenergy; rotation stays the same"},{"$f":"A288&\":\"&B288","v":"LRF Broadleaf for wood products, rotation length increasing:LRF Broadleaf for wood products and bioenergy; rotation stays the same"},"No peat drainage"]
[{"$f":"P109","v":"Unmanaged Temperate Broadleaf"},{"$f":"B150","v":"Newly Managed LRF Broadleaf"},{"$f":"A289&\":\"&B289","v":"Unmanaged Temperate Broadleaf:Newly Managed LRF Broadleaf"},"No peat drainage"]
[{"$f":"A289","v":"Unmanaged Temperate Broadleaf"},{"$f":"C150","v":"SRC Willow Plantation"},{"$f":"A290&\":\"&B290","v":"Unmanaged Temperate Broadleaf:SRC Willow Plantation"},"No peat drainage",{"$f":"$A$248","v":"Peat soil which requires drainage"}]
[{"$f":"Q109","v":"Unmanaged Tropical Peat Forest"},{"$f":"B151","v":"SRF Eucalyptus Plantation"},{"$f":"A291&\":\"&B291","v":"Unmanaged Tropical Peat Forest:SRF Eucalyptus Plantation"},{"$f":"$A$248","v":"Peat soil which requires drainage"}]
[{"$f":"A291","v":"Unmanaged Tropical Peat Forest"},{"$f":"C151","v":"Maize Cropland"},{"$f":"A292&\":\"&B292","v":"Unmanaged Tropical Peat Forest:Maize Cropland"},{"$f":"$A$248","v":"Peat soil which requires drainage"}]
[{"$f":"A292","v":"Unmanaged Tropical Peat Forest"},{"$f":"D151","v":"Palm Plantation"},"Unmanaged Tropical Peat Forest:Palm Plantation",{"$f":"$A$248","v":"Peat soil which requires drainage"}]
[{"$f":"R109","v":"Unmanaged Tropical Non-Peat Rainforest"},{"$f":"B156","v":"SRF Eucalyptus Plantation"},{"$f":"A294&\":\"&B294","v":"Unmanaged Tropical Non-Peat Rainforest:SRF Eucalyptus Plantation"},{"$f":"$A$247","v":"No peat drainage"}]
[{"$f":"A294","v":"Unmanaged Tropical Non-Peat Rainforest"},{"$f":"C156","v":"Maize Cropland"},{"$f":"A295&\":\"&B295","v":"Unmanaged Tropical Non-Peat Rainforest:Maize Cropland"},"No peat drainage"]
[{"$f":"A295","v":"Unmanaged Tropical Non-Peat Rainforest"},{"$f":"D156","v":"Palm Plantation"},"Unmanaged Tropical Non-Peat Rainforest:Palm Plantation","No peat drainage"]
[{"$f":"S109","v":"Old Growth Fast Growing Conifer (> 200 years old)"},{"$f":"B161","v":"Newly Managed LRF Conifer (fast growing)"},{"$f":"A297&\":\"&B297","v":"Old Growth Fast Growing Conifer (> 200 years old):Newly Managed LRF Conifer (fast growing)"},"No peat drainage"]
[{"$f":"T109","v":"Old Growth Slow Growing Conifer (> 200 years old)"},{"$f":"B163","v":"Newly Managed LRF Conifer (slow growing)"},{"$f":"A298&\":\"&B298","v":"Old Growth Slow Growing Conifer (> 200 years old):Newly Managed LRF Conifer (slow growing)"},"No peat drainage"]
[{"$f":"U109","v":"Northern Peatland"},{"$f":"B164","v":"SRC Willow Plantation"},{"$f":"A299&\":\"&B299","v":"Northern Peatland:SRC Willow Plantation"},{"$f":"$A$248","v":"Peat soil which requires drainage"}]
[{"$f":"A299","v":"Northern Peatland"},{"$f":"C164","v":"Miscanthus Plantation"},{"$f":"A300&\":\"&B300","v":"Northern Peatland:Miscanthus Plantation"},"Peat soil which requires drainage"]
[{"$f":"A300","v":"Northern Peatland"},{"$f":"D164","v":"Maize Cropland"},"Northern Peatland:Maize Cropland","Peat soil which requires drainage"]
[{"$f":"V109","v":"Marsh and Swamp "},{"$f":"B167","v":"SRF Eucalyptus Plantation"},{"$f":"A302&\":\"&B302","v":"Marsh and Swamp :SRF Eucalyptus Plantation"},"Peat soil which requires drainage"]
[{"$f":"A302","v":"Marsh and Swamp "},{"$f":"C167","v":"Maize Cropland"},{"$f":"A303&\":\"&B303","v":"Marsh and Swamp :Maize Cropland"},"Peat soil which requires drainage"]
[{"$f":"A303","v":"Marsh and Swamp "},{"$f":"D167","v":"Palm Plantation"},"Marsh and Swamp :Palm Plantation","Peat soil which requires drainage"]
[{"$f":"W109","v":"Tundra Woodland"},{"$f":"B172","v":"SRC Willow Plantation"},{"$f":"A305&\":\"&B305","v":"Tundra Woodland:SRC Willow Plantation"},{"$f":"$A$247","v":"No peat drainage"},{"$f":"$A$248","v":"Peat soil which requires drainage"}]
[{"$f":"A305","v":"Tundra Woodland"},{"$f":"C172","v":"Miscanthus Plantation"},{"$f":"A306&\":\"&B306","v":"Tundra Woodland:Miscanthus Plantation"},"No peat drainage","Peat soil which requires drainage"]
[{"$f":"A306","v":"Tundra Woodland"},{"$f":"D172","v":"Maize Cropland"},"Tundra Woodland:Maize Cropland","No peat drainage","Peat soil which requires drainage"]
[{"$f":"X109","v":"Temperate shrub land "},{"$f":"B175","v":"SRC Willow Plantation"},{"$f":"A308&\":\"&B308","v":"Temperate shrub land :SRC Willow Plantation"},"No peat drainage","Peat soil which requires drainage"]
[{"$f":"A308","v":"Temperate shrub land "},{"$f":"C175","v":"Miscanthus Plantation"},{"$f":"A309&\":\"&B309","v":"Temperate shrub land :Miscanthus Plantation"},"No peat drainage","Peat soil which requires drainage"]
[{"$f":"A309","v":"Temperate shrub land "},{"$f":"D175","v":"Maize Cropland"},"Temperate shrub land :Maize Cropland","No peat drainage","Peat soil which requires drainage"]
[{"$f":"Y109","v":"Temperate grassland (e.g. Steppes, grassland praires)"},{"$f":"B179","v":"SRC Willow Plantation"},{"$f":"A311&\":\"&B311","v":"Temperate grassland (e.g. Steppes, grassland praires):SRC Willow Plantation"},"No peat drainage","Peat soil which requires drainage"]
[{"$f":"A311","v":"Temperate grassland (e.g. Steppes, grassland praires)"},{"$f":"C179","v":"Miscanthus Plantation"},{"$f":"A312&\":\"&B312","v":"Temperate grassland (e.g. Steppes, grassland praires):Miscanthus Plantation"},"No peat drainage","Peat soil which requires drainage"]
[{"$f":"A312","v":"Temperate grassland (e.g. Steppes, grassland praires)"},{"$f":"D179","v":"Maize Cropland"},"Temperate grassland (e.g. Steppes, grassland praires):Maize Cropland","No peat drainage","Peat soil which requires drainage"]
[{"$f":"Z109","v":"Tropical Woody Savannah"},{"$f":"B183","v":"SRF Eucalyptus Plantation"},{"$f":"A314&\":\"&B314","v":"Tropical Woody Savannah:SRF Eucalyptus Plantation"},"No peat drainage","Peat soil which requires drainage"]
[{"$f":"A314","v":"Tropical Woody Savannah"},{"$f":"C183","v":"Maize Cropland"},{"$f":"A315&\":\"&B315","v":"Tropical Woody Savannah:Maize Cropland"},"No peat drainage","Peat soil which requires drainage"]
[{"$f":"A315","v":"Tropical Woody Savannah"},{"$f":"D183","v":"Palm Plantation"},"Tropical Woody Savannah:Palm Plantation","No peat drainage","Peat soil which requires drainage"]
[{"$f":"AA109","v":"Tropical Grassland Savannah"},{"$f":"B188","v":"SRF Eucalyptus Plantation"},{"$f":"A317&\":\"&B317","v":"Tropical Grassland Savannah:SRF Eucalyptus Plantation"},"No peat drainage","Peat soil which requires drainage"]
[{"$f":"A317","v":"Tropical Grassland Savannah"},{"$f":"C188","v":"Maize Cropland"},{"$f":"A318&\":\"&B318","v":"Tropical Grassland Savannah:Maize Cropland"},"No peat drainage","Peat soil which requires drainage"]
[{"$f":"A318","v":"Tropical Grassland Savannah"},{"$f":"D188","v":"Palm Plantation"},"Tropical Grassland Savannah:Palm Plantation","No peat drainage","Peat soil which requires drainage"]
[{"$f":"AB109","v":"Land reverting to Tropical Rainforest"},{"$f":"B193","v":"SRF Eucalyptus Plantation"},{"$f":"A320&\":\"&B320","v":"Land reverting to Tropical Rainforest:SRF Eucalyptus Plantation"},"No peat drainage"]
[{"$f":"A320","v":"Land reverting to Tropical Rainforest"},{"$f":"C193","v":"Maize Cropland"},{"$f":"A321&\":\"&B321","v":"Land reverting to Tropical Rainforest:Maize Cropland"},"No peat drainage"]
[{"$f":"A321","v":"Land reverting to Tropical Rainforest"},{"$f":"D193","v":"Palm Plantation"},"Land reverting to Tropical Rainforest:Palm Plantation","No peat drainage"]
[{"$f":"AC109","v":"Land reverting to Tropical Moist Deciduous Forest"},{"$f":"B199","v":"SRF Eucalyptus Plantation"},{"$f":"A323&\":\"&B323","v":"Land reverting to Tropical Moist Deciduous Forest:SRF Eucalyptus Plantation"},"No peat drainage"]
[{"$f":"A323","v":"Land reverting to Tropical Moist Deciduous Forest"},{"$f":"C199","v":"Maize Cropland"},{"$f":"A324&\":\"&B324","v":"Land reverting to Tropical Moist Deciduous Forest:Maize Cropland"},"No peat drainage"]
[{"$f":"A324","v":"Land reverting to Tropical Moist Deciduous Forest"},{"$f":"D199","v":"Palm Plantation"},"Land reverting to Tropical Moist Deciduous Forest:Palm Plantation","No peat drainage"]
["Land reverting to Tropical Moist Deciduous Forest",{"$f":"E199","v":"SRC Willow Plantation"},{"$f":"A326&\":\"&B326","v":"Land reverting to Tropical Moist Deciduous Forest:SRC Willow Plantation"},"No peat drainage"]
["Land reverting to Tropical Moist Deciduous Forest",{"$f":"F199","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"A327&\":\"&B327","v":"Land reverting to Tropical Moist Deciduous Forest:Newly Established Intensively managed SRF Conifer, 20 years rotation"},"No peat drainage"]
["Land reverting to Tropical Moist Deciduous Forest",{"$f":"G199","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},"Land reverting to Tropical Moist Deciduous Forest:Newly Established Intensively managed SRF Conifer, 25 years rotation","No peat drainage"]
[{"$f":"AD109","v":"Land reverting to Tropical Dry Forest"},{"$f":"B203","v":"SRF Eucalyptus Plantation"},{"$f":"A329&\":\"&B329","v":"Land reverting to Tropical Dry Forest:SRF Eucalyptus Plantation"},"No peat drainage"]
[{"$f":"A329","v":"Land reverting to Tropical Dry Forest"},{"$f":"C203","v":"Maize Cropland"},{"$f":"A330&\":\"&B330","v":"Land reverting to Tropical Dry Forest:Maize Cropland"},"No peat drainage"]
[{"$f":"A330","v":"Land reverting to Tropical Dry Forest"},{"$f":"D203","v":"Palm Plantation"},"Land reverting to Tropical Dry Forest:Palm Plantation","No peat drainage"]
[{"$f":"AE109","v":"Land reverting to Tropical Mountain System"},{"$f":"B209","v":"SRF Eucalyptus Plantation"},{"$f":"A332&\":\"&B332","v":"Land reverting to Tropical Mountain System:SRF Eucalyptus Plantation"},"No peat drainage"]
[{"$f":"A332","v":"Land reverting to Tropical Mountain System"},{"$f":"C209","v":"Maize Cropland"},{"$f":"A333&\":\"&B333","v":"Land reverting to Tropical Mountain System:Maize Cropland"},"No peat drainage"]
[{"$f":"A333","v":"Land reverting to Tropical Mountain System"},{"$f":"D209","v":"Palm Plantation"},"Land reverting to Tropical Mountain System:Palm Plantation","No peat drainage"]
["Land reverting to Tropical Mountain System",{"$f":"E209","v":"SRC Willow Plantation"},{"$f":"A335&\":\"&B335","v":"Land reverting to Tropical Mountain System:SRC Willow Plantation"},"No peat drainage"]
["Land reverting to Tropical Mountain System",{"$f":"F209","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"A336&\":\"&B336","v":"Land reverting to Tropical Mountain System:Newly Established Intensively managed SRF Conifer, 20 years rotation"},"No peat drainage"]
["Land reverting to Tropical Mountain System",{"$f":"G209","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},"Land reverting to Tropical Mountain System:Newly Established Intensively managed SRF Conifer, 25 years rotation","No peat drainage"]
[{"$f":"AF109","v":"Land reverting to Tropical Woody Savanna"},{"$f":"B213","v":"SRF Eucalyptus Plantation"},{"$f":"A338&\":\"&B338","v":"Land reverting to Tropical Woody Savanna:SRF Eucalyptus Plantation"},"No peat drainage"]
[{"$f":"A338","v":"Land reverting to Tropical Woody Savanna"},{"$f":"C213","v":"Maize Cropland"},{"$f":"A339&\":\"&B339","v":"Land reverting to Tropical Woody Savanna:Maize Cropland"},"No peat drainage"]
[{"$f":"A339","v":"Land reverting to Tropical Woody Savanna"},{"$f":"D213","v":"Palm Plantation"},"Land reverting to Tropical Woody Savanna:Palm Plantation","No peat drainage"]
[{"$f":"AG109","v":"Land reverting to Temperate Oceanic Forest"},{"$f":"B219","v":"SRC Willow Plantation"},{"$f":"A341&\":\"&B341","v":"Land reverting to Temperate Oceanic Forest:SRC Willow Plantation"},"No peat drainage"]
[{"$f":"A341","v":"Land reverting to Temperate Oceanic Forest"},{"$f":"C219","v":"Miscanthus Plantation"},"Land reverting to Temperate Oceanic Forest:Miscanthus Plantation","No peat drainage"]
[{"$f":"A342","v":"Land reverting to Temperate Oceanic Forest"},{"$f":"D219","v":"Maize Cropland"},"Land reverting to Temperate Oceanic Forest:Maize Cropland","No peat drainage"]
["Land reverting to Temperate Oceanic Forest",{"$f":"E219","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},"Land reverting to Temperate Oceanic Forest:Newly Established Intensively managed SRF Conifer, 20 years rotation","No peat drainage"]
["Land reverting to Temperate Oceanic Forest",{"$f":"F219","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},"Land reverting to Temperate Oceanic Forest:Newly Established Intensively managed SRF Conifer, 25 years rotation","No peat drainage"]
[{"$f":"AH109","v":"Land reverting to Temperate Continental Forest"},{"$f":"B223","v":"SRC Willow Plantation"},{"$f":"A346&\":\"&B346","v":"Land reverting to Temperate Continental Forest:SRC Willow Plantation"},"No peat drainage"]
[{"$f":"A346","v":"Land reverting to Temperate Continental Forest"},{"$f":"C223","v":"Miscanthus Plantation"},"Land reverting to Temperate Continental Forest:Miscanthus Plantation","No peat drainage"]
[{"$f":"A347","v":"Land reverting to Temperate Continental Forest"},{"$f":"D223","v":"Maize Cropland"},"Land reverting to Temperate Continental Forest:Maize Cropland","No peat drainage"]
[{"$f":"AI109","v":"Land reverting to Temperate Mountain System"},{"$f":"B227","v":"SRC Willow Plantation"},{"$f":"A349&\":\"&B349","v":"Land reverting to Temperate Mountain System:SRC Willow Plantation"},"No peat drainage"]
[{"$f":"A349","v":"Land reverting to Temperate Mountain System"},{"$f":"C227","v":"Miscanthus Plantation"},"Land reverting to Temperate Mountain System:Miscanthus Plantation","No peat drainage"]
[{"$f":"A350","v":"Land reverting to Temperate Mountain System"},{"$f":"D227","v":"Maize Cropland"},"Land reverting to Temperate Mountain System:Maize Cropland","No peat drainage"]
["Land reverting to Temperate Mountain System",{"$f":"E227","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},"Land reverting to Temperate Mountain System:Newly Established Intensively managed SRF Conifer, 20 years rotation","No peat drainage"]
["Land reverting to Temperate Mountain System",{"$f":"F227","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},"Land reverting to Temperate Mountain System:Newly Established Intensively managed SRF Conifer, 25 years rotation","No peat drainage"]
[{"$f":"AJ109","v":"Land reverting to Temperate Shrub or Grassland"},{"$f":"B231","v":"SRC Willow Plantation"},{"$f":"A354&\":\"&B354","v":"Land reverting to Temperate Shrub or Grassland:SRC Willow Plantation"},"No peat drainage"]
[{"$f":"A354","v":"Land reverting to Temperate Shrub or Grassland"},{"$f":"C231","v":"Miscanthus Plantation"},"Land reverting to Temperate Shrub or Grassland:Miscanthus Plantation","No peat drainage"]
[{"$f":"A355","v":"Land reverting to Temperate Shrub or Grassland"},{"$f":"D231","v":"Maize Cropland"},"Land reverting to Temperate Shrub or Grassland:Maize Cropland","No peat drainage"]
["Land reverting to Temperate Shrub or Grassland",{"$f":"E231","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},"Land reverting to Temperate Shrub or Grassland:Newly Established Intensively managed SRF Conifer, 20 years rotation","No peat drainage"]
["Land reverting to Temperate Shrub or Grassland",{"$f":"F231","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},"Land reverting to Temperate Shrub or Grassland:Newly Established Intensively managed SRF Conifer, 25 years rotation","No peat drainage"]
[{"$f":"AK109","v":"Land reverting to Boreal Coniferous Forest"},{"$f":"B235","v":"SRC Willow Plantation"},{"$f":"A359&\":\"&B359","v":"Land reverting to Boreal Coniferous Forest:SRC Willow Plantation"},"No peat drainage"]
[{"$f":"A359","v":"Land reverting to Boreal Coniferous Forest"},{"$f":"C235","v":"Miscanthus Plantation"},"Land reverting to Boreal Coniferous Forest:Miscanthus Plantation","No peat drainage"]
[{"$f":"A360","v":"Land reverting to Boreal Coniferous Forest"},{"$f":"D235","v":"Maize Cropland"},"Land reverting to Boreal Coniferous Forest:Maize Cropland","No peat drainage"]
[{"$f":"AL109","v":"Land reverting to Boreal Tundra"},{"$f":"B238","v":"SRC Willow Plantation"},{"$f":"A362&\":\"&B362","v":"Land reverting to Boreal Tundra:SRC Willow Plantation"},"No peat drainage"]
[{"$f":"A362","v":"Land reverting to Boreal Tundra"},{"$f":"C238","v":"Miscanthus Plantation"},"Land reverting to Boreal Tundra:Miscanthus Plantation","No peat drainage"]
[{"$f":"A363","v":"Land reverting to Boreal Tundra"},{"$f":"D238","v":"Maize Cropland"},"Land reverting to Boreal Tundra:Maize Cropland","No peat drainage"]
[]
[]
["Lookup Name for Soil type"]
[{"$f":"Chosen_Previous_Land_type_biopathways&\":\"&Chosen_new_landuse_biopathways","v":"LRF Conifer for wood products, residues unused:LRF Conifer for wood products and bioenergy"}]
["Chosen List for new land use",{"$f":"INDEX(Lookup_soil_1,MATCH(A368,lookupnames_soils,0))","v":"No peat drainage"},{"$f":"IF(INDEX(lookup_soil_2,MATCH(A368,lookupnames_soils,0))=0,\"\", INDEX(lookup_soil_2,MATCH(A368,lookupnames_soils,0)))","v":""}]
[]
[]
[]
["Biomass Forms"]
["All the wood harvested over the rotation (50 wt% moisture)"]
["All additional wood compared to counterfactual (50 wt% moisture)"]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."]
["All additional wood created by new management (50 wt% moisture)"]
["Biomass from Land Clearance (50 wt% moisture)"]
["Saw logs (50 wt% moisture)"]
["Small Roundwood (50 wt% moisture)"]
["Woody Debris (25 wt% moisture). Continuous removal."]
["Woody Debris (25 wt% moisture). Remove for 15 years only."]
["Fine Woody Debris (< 10 cm diameter)"]
["Coarse Woody Debris (> 10 cm diameter)"]
["SRC Chips (50 wt% moisture)"]
["Miscanthus Chips (30 wt% moisture)"]
["Eucalyptus Roundwood (50 wt% moisture)"]
["Palm Fruit (34 wt% moisture)"]
["Maize Whole Crop (70 wt% moisture)"]
["Miscanthus Bales"]
["Maize Sillage (67 wt% moisture)"]
["Palm Oil"]
["Palm Biodiesel"]
["SRC Chips (25 wt% moisture)"]
["SRC Pellets (10% moisture)"]
["Miscanthus Chips (10 wt% moisture)"]
["Miscanthus Pellets (10% moisture)"]
["Wood Chips (25 wt% moisture)"]
["Wood Pellets (7 wt% moisture)"]
[]
[]
["Lookup Name for Bioenergy Forms",{"$f":"Results_Biopathways!C26&\":\"&Results_Biopathways!C25&\":\"&Results_Biopathways!C20","v":"LRF Conifer for wood products and bioenergy:UK:40"}]
["Chosen List for bioenergy forms",{"$f":"IF(INDEX(lookup_bioenergy_form1,MATCH($B$403,Lookup_new_land_names,0))=\"\",\"\",INDEX(lookup_bioenergy_form1,MATCH($B$403,Lookup_new_land_names,0)))","v":"Saw logs (50 wt% moisture)"},{"$f":"IF(INDEX(lookup_bioenergy_form2,MATCH($B$403,Lookup_new_land_names,0))=\"\",\"\",INDEX(lookup_bioenergy_form2,MATCH($B$403,Lookup_new_land_names,0)))","v":"Small Roundwood (50 wt% moisture)"},{"$f":"IF(INDEX(lookup_bioenergy_form3,MATCH($B$403,Lookup_new_land_names,0))=\"\",\"\",INDEX(lookup_bioenergy_form3,MATCH($B$403,Lookup_new_land_names,0)))","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"IF(INDEX(lookup_bioenergy_form4,MATCH($B$403,Lookup_new_land_names,0))=\"\",\"\",INDEX(lookup_bioenergy_form4,MATCH($B$403,Lookup_new_land_names,0)))","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."}]
[]
[]
[]
["Irrigation"]
["Water Source"]
["Name"]
["Rivers/lakes"]
["Ground Water"]
[]
["Pump Type"]
["Diesel Pump"]
["Electrical Pump"]
[]
["Counterfactual Names","Message"]
["Sawn Timber (replacing concrete flooring), off cuts to particle board (replacing breeze blocks)","Wood product is now replaced by non-wood product"]
["Sawn Timber (replacing concrete flooring), off cuts to MDF (replacing plasterwork)","Wood product is now replaced by non-wood product"]
["Displacing imported wood products","Requires Intensification of forests or new plantations in other regions. Please consider new scenario where forest requires intensification for bioenergy, or new plantation established on abandoned land/natural ecosystem."]
["Particle board (replacing breeze blocks)","Wood product is now replaced by non-wood product"]
["MDF (replacing plasterwork)","Wood product is now replaced by non-wood product"]
["Paper and Card (replacing imported paper and card)","Requires Intensification of forests or new plantations in other regions. Please consider new scenario where forest requires intensification for bioenergy, or new plantation established on abandoned land/natural ecosystem."]
["Pallets (replacing recycled plastic pallets), off cuts Particle Board (replacing breeze blocks)","Wood product is now replaced by non-wood product"]
["Pallets (replacing recycled plastic pallets), off cuts MDF (replacing plaster work)","Wood product is now replaced by non-wood product"]
["Fencing (replacing concrete fencing), off cuts Particle Board (replacing breeze blocks)","Wood product is now replaced by non-wood product"]
["Fencing (replacing concrete fencing), off cuts MDF (replacing plaster work)","Wood product is now replaced by non-wood product"]
["Displacing imported wood products","Requires Intensification of forests or new plantations in other regions. Please consider new scenario where forest requires intensification for bioenergy, or new plantation established on abandoned land/natural ecosystem."]
["Sawn Timber (replacing upvc window), off cuts to particle board (replacing breeze blocks)","Wood product is now replaced by non-wood product"]
["Sawn Timber (replacing upvc window), off cuts to MDF (replacing plasterwork)","Wood product is now replaced by non-wood product"]
["Harvest the forest less frequently for over 100 years, owing to reduced wood demand","If demand for wood from bioenergy was not there, forest would start to be harvested less frequently"]
["Harvest the forest less frequently for 15 years, owing to reduced wood demand","If demand for wood from bioenergy was not there, forest would start to be harvested less frequently"]
["Convert to cotton plantation (stand by stand)","WARNING: THIS SCENARIO MAY HAVE INDIRECT GHG IMPACTS WHICH ARE NOT CALCULATED. This is because if the land would otherwise have been used for growing another commoditiy, using the land for bioenergy may cause the growth of that commodity to occur elsewhere."]
["Leave residues to decay in forest","Wood would otherwise be left in the forest"]
["Leave dead trees to decay in forest","Dead trees would otherwise be left in the forest"]
["Remove from land and burn","Biomass would otherwise be incinerated, with GHG emissions assumed to be the same as combusting for bioenergy"]
["Leave the land unharvested/unmanaged","Land would otherwise be left to revert to its native state"]
["Leave forest in previous management","As chosen under 'Previous Land Use' question"]
["Add new counterfactual here","Add new message here"]
[]
[]
["Counterfactual Scenarios for Different Land Uses"]
["New Land Use","Biomass Used for Bioenergy","Lookup Name","Counterfactual 1","Counterfactual 2","Counterfactual 3","Counterfactual 4","Counterfactual 5","Counterfactual 6","Counterfactual 7","Counterfactual 8","Counterfactual 9","Counterfactual 10"]
[{"$f":"$B$16","v":"LRF Conifer for wood products and bioenergy"},{"$f":"$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"A445&\":\"&B445","v":"LRF Conifer for wood products and bioenergy:Saw logs (50 wt% moisture)"},{"$f":"A419","v":"Sawn Timber (replacing concrete flooring), off cuts to particle board (replacing breeze blocks)"},{"$f":"A420","v":"Sawn Timber (replacing concrete flooring), off cuts to MDF (replacing plasterwork)"},{"$f":"A421","v":"Displacing imported wood products"},{"$f":"$A$437","v":"Remove from land and burn"}]
[{"$f":"$B$16","v":"LRF Conifer for wood products and bioenergy"},{"$f":"$A$381","v":"Small Roundwood (50 wt% moisture)"},"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture)",{"$f":"A435","v":"Leave residues to decay in forest"},{"$f":"A421","v":"Displacing imported wood products"},{"$f":"$A$422","v":"Particle board (replacing breeze blocks)"},{"$f":"$A$423","v":"MDF (replacing plasterwork)"},{"$f":"$A$424","v":"Paper and Card (replacing imported paper and card)"},{"$f":"$A$425","v":"Pallets (replacing recycled plastic pallets), off cuts Particle Board (replacing breeze blocks)"},{"$f":"$A$426","v":"Pallets (replacing recycled plastic pallets), off cuts MDF (replacing plaster work)"},{"$f":"$A$427","v":"Fencing (replacing concrete fencing), off cuts Particle Board (replacing breeze blocks)"},{"$f":"$A$428","v":"Fencing (replacing concrete fencing), off cuts MDF (replacing plaster work)"},{"$f":"$A$437","v":"Remove from land and burn"}]
[{"$f":"$B$16","v":"LRF Conifer for wood products and bioenergy"},{"$f":"$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},"LRF Conifer for wood products and bioenergy:Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"$A$435","v":"Leave residues to decay in forest"},{"$f":"$A$437","v":"Remove from land and burn"}]
[{"$f":"$B$16","v":"LRF Conifer for wood products and bioenergy"},{"$f":"$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},"LRF Conifer for wood products and bioenergy:Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"$A$435","v":"Leave residues to decay in forest"},{"$f":"$A$437","v":"Remove from land and burn"}]
[{"$f":"B23","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Intensely managed SRF Conifer, rotation length 25 years:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"$A$439","v":"Leave forest in previous management"}]
[{"$f":"B12","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"$A$439","v":"Leave forest in previous management"}]
[{"$f":"B17","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},"LRF Conifer for Bioenergy, residues unused:All the wood harvested over the rotation (50 wt% moisture)",{"$f":"$A$438","v":"Leave the land unharvested/unmanaged"},{"$f":"A436","v":"Leave dead trees to decay in forest"}]
[{"$f":"B49","v":"Newly Managed LRF Conifer (slow growing)"},{"$f":"$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},"Newly Managed LRF Conifer (slow growing):All the wood harvested over the rotation (50 wt% moisture)",{"$f":"$A$438","v":"Leave the land unharvested/unmanaged"}]
[{"$f":"B50","v":"Newly Managed LRF Conifer (fast growing)"},{"$f":"$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},"Newly Managed LRF Conifer (fast growing):All the wood harvested over the rotation (50 wt% moisture)",{"$f":"$A$438","v":"Leave the land unharvested/unmanaged"}]
[{"$f":"B21","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"A375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Newly Established Intensively managed SRF Conifer, 20 years rotation:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"A438","v":"Leave the land unharvested/unmanaged"}]
[{"$f":"B22","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},{"$f":"A375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"A455&\":\"&B455","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"A438","v":"Leave the land unharvested/unmanaged"}]
[{"$f":"$B$27","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"LRF Conifer, rotation length reduced to 50y:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"$A$439","v":"Leave forest in previous management"}]
[{"$f":"$B$27","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},"LRF Conifer, rotation length reduced to 50y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).","Leave forest in previous management"]
[{"$f":"B28","v":"LRF Conifer, rotation length reduced to 80y"},{"$f":"$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"LRF Conifer, rotation length reduced to 80y:All additional wood compared to counterfactual (50 wt% moisture)","Leave forest in previous management"]
[{"$f":"B28","v":"LRF Conifer, rotation length reduced to 80y"},{"$f":"$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},"LRF Conifer, rotation length reduced to 80y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).","Leave forest in previous management"]
[{"$f":"B29","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation"},{"$f":"$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation:All additional wood compared to counterfactual (50 wt% moisture)","Leave forest in previous management"]
[{"$f":"B30","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation"},"All additional wood compared to counterfactual (50 wt% moisture)","Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation:All additional wood compared to counterfactual (50 wt% moisture)","Leave forest in previous management"]
[{"$f":"B33","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation"},"All additional wood compared to counterfactual (50 wt% moisture)","Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"A439","v":"Leave forest in previous management"}]
[{"$f":"B34","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation"},"All additional wood compared to counterfactual (50 wt% moisture)","Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"$A$439","v":"Leave forest in previous management"}]
[{"$f":"B31","v":"Conversion of LRF Conifer to SRC Willow over 3 y"},"All additional wood compared to counterfactual (50 wt% moisture)","Conversion of LRF Conifer to SRC Willow over 3 y:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"A439","v":"Leave forest in previous management"}]
[{"$f":"B32","v":"Conversion of LRF Conifer to SRC Willow over 50 y"},{"$f":"$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Conversion of LRF Conifer to SRC Willow over 50 y:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"A439","v":"Leave forest in previous management"}]
[{"$f":"B35","v":"Conversion of LRF Broadleaf to SRC Willow over 3 y"},"All additional wood compared to counterfactual (50 wt% moisture)","Conversion of LRF Broadleaf to SRC Willow over 3 y:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"A439","v":"Leave forest in previous management"}]
[{"$f":"B36","v":"Conversion of LRF Broadleaf to SRC Willow over 70 y"},"All additional wood compared to counterfactual (50 wt% moisture)","Conversion of LRF Broadleaf to SRC Willow over 70 y:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"A439","v":"Leave forest in previous management"}]
[{"$f":"B25","v":"SRF Conifer, increased management intensity, 25 year rotation"},"All additional wood compared to counterfactual (50 wt% moisture)","SRF Conifer, increased management intensity, 25 year rotation:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"A439","v":"Leave forest in previous management"}]
[{"$f":"B40","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"$A$380","v":"Saw logs (50 wt% moisture)"},"LRF Broadleaf for wood products and bioenergy:Saw logs (50 wt% moisture)",{"$f":"A430","v":"Sawn Timber (replacing upvc window), off cuts to particle board (replacing breeze blocks)"},{"$f":"A431","v":"Sawn Timber (replacing upvc window), off cuts to MDF (replacing plasterwork)"},{"$f":"A421","v":"Displacing imported wood products"},{"$f":"A437","v":"Remove from land and burn"}]
[{"$f":"$A$469","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"$A$381","v":"Small Roundwood (50 wt% moisture)"},"LRF Broadleaf for wood products and bioenergy:Small Roundwood (50 wt% moisture)",{"$f":"A422","v":"Particle board (replacing breeze blocks)"},{"$f":"A423","v":"MDF (replacing plasterwork)"},{"$f":"A427","v":"Fencing (replacing concrete fencing), off cuts Particle Board (replacing breeze blocks)"},{"$f":"A428","v":"Fencing (replacing concrete fencing), off cuts MDF (replacing plaster work)"},{"$f":"A429","v":"Displacing imported wood products"},{"$f":"$A$437","v":"Remove from land and burn"}]
[{"$f":"$A$469","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},"LRF Broadleaf for wood products and bioenergy:Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"$A$435","v":"Leave residues to decay in forest"},{"$f":"$A$437","v":"Remove from land and burn"}]
[{"$f":"$A$469","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},"LRF Broadleaf for wood products and bioenergy:Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"$A$435","v":"Leave residues to decay in forest"},{"$f":"$A$437","v":"Remove from land and burn"}]
[{"$f":"B42","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},"LRF Broadleaf for bioenergy, residues unused:All the wood harvested over the rotation (50 wt% moisture)",{"$f":"A438","v":"Leave the land unharvested/unmanaged"}]
[{"$f":"$B$44","v":"LRF Broadleaf, rotation length reduced to 50y"},{"$f":"$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"LRF Broadleaf, rotation length reduced to 50y:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"A439","v":"Leave forest in previous management"}]
[{"$f":"$B$44","v":"LRF Broadleaf, rotation length reduced to 50y"},{"$f":"$A$377","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},"LRF Broadleaf, rotation length reduced to 50y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"$A$439","v":"Leave forest in previous management"}]
[{"$f":"$B$45","v":"LRF Broadleaf, rotation length reduced to 60y"},{"$f":"$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"LRF Broadleaf, rotation length reduced to 60y:All additional wood compared to counterfactual (50 wt% moisture)","Leave forest in previous management"]
[{"$f":"$B$45","v":"LRF Broadleaf, rotation length reduced to 60y"},{"$f":"$A$377","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},"LRF Broadleaf, rotation length reduced to 60y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).","Leave forest in previous management"]
[{"$f":"$B$46","v":"LRF Broadleaf, rotation length reduced to 80y"},{"$f":"$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"LRF Broadleaf, rotation length reduced to 80y:All additional wood compared to counterfactual (50 wt% moisture)","Leave forest in previous management"]
[{"$f":"$B$46","v":"LRF Broadleaf, rotation length reduced to 80y"},{"$f":"$A$377","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},"LRF Broadleaf, rotation length reduced to 80y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).","Leave forest in previous management"]
[{"$f":"B39","v":"LRF Broadleaf for wood products and bioenergy; rotation stays the same"},{"$f":"$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"LRF Broadleaf for wood products and bioenergy; rotation stays the same:All additional wood compared to counterfactual (50 wt% moisture)","Leave forest in previous management"]
[{"$f":"B48","v":"Newly Managed LRF Broadleaf"},{"$f":"$A$378","v":"All additional wood created by new management (50 wt% moisture)"},"Newly Managed LRF Broadleaf:All additional wood created by new management (50 wt% moisture)",{"$f":"A438","v":"Leave the land unharvested/unmanaged"}]
[{"$f":"B72","v":"SRC Willow Plantation"},{"$f":"A386","v":"SRC Chips (50 wt% moisture)"},"SRC Willow Plantation:SRC Chips (50 wt% moisture)",{"$f":"A438","v":"Leave the land unharvested/unmanaged"}]
[{"$f":"B73","v":"SRF Eucalyptus Plantation"},{"$f":"A388","v":"Eucalyptus Roundwood (50 wt% moisture)"},"SRF Eucalyptus Plantation:Eucalyptus Roundwood (50 wt% moisture)",{"$f":"$A$438","v":"Leave the land unharvested/unmanaged"}]
[{"$f":"B74","v":"Palm Plantation"},{"$f":"A389","v":"Palm Fruit (34 wt% moisture)"},"Palm Plantation:Palm Fruit (34 wt% moisture)",{"$f":"$A$438","v":"Leave the land unharvested/unmanaged"}]
[{"$f":"B75","v":"Maize Cropland"},{"$f":"A390","v":"Maize Whole Crop (70 wt% moisture)"},"Maize Cropland:Maize Whole Crop (70 wt% moisture)",{"$f":"$A$438","v":"Leave the land unharvested/unmanaged"}]
[{"$f":"B76","v":"Miscanthus Plantation"},{"$f":"A387","v":"Miscanthus Chips (30 wt% moisture)"},"Miscanthus Plantation:Miscanthus Chips (30 wt% moisture)",{"$f":"A438","v":"Leave the land unharvested/unmanaged"}]
["insert rows above here"]
[]
["Lookup Name for Counterfactual",{"$f":"Results_Biopathways!C26&\":\"&Chosen_biomass_form_biopathways","v":"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture)"}]
["Chosen List of Counterfactuals",{"$f":"INDEX(Counterfactual_1,MATCH($B$489,$C$445:$C$487,0))","v":"Leave residues to decay in forest"},{"$f":"IF(INDEX(Counterfactual_2,MATCH($B$489,$C$445:$C$487,0))=\"\",\"\",INDEX(Counterfactual_2,MATCH($B$489,$C$445:$C$487,0)))","v":"Displacing imported wood products"},{"$f":"IF(INDEX(Counterfactual_3,MATCH($B$489,$C$445:$C$487,0))=\"\",\"\",INDEX(Counterfactual_3,MATCH($B$489,$C$445:$C$487,0)))","v":"Particle board (replacing breeze blocks)"},{"$f":"IF(INDEX(Counterfactual_4,MATCH($B$489,$C$445:$C$487,0))=\"\",\"\",INDEX(Counterfactual_4,MATCH($B$489,$C$445:$C$487,0)))","v":"MDF (replacing plasterwork)"},{"$f":"IF(INDEX(Counterfactual_5,MATCH($B$489,$C$445:$C$487,0))=\"\",\"\",INDEX(Counterfactual_5,MATCH($B$489,$C$445:$C$487,0)))","v":"Paper and Card (replacing imported paper and card)"},{"$f":"IF(INDEX(Counterfactual_6,MATCH($B$489,$C$445:$C$487,0))=\"\",\"\",INDEX(Counterfactual_6,MATCH($B$489,$C$445:$C$487,0)))","v":"Pallets (replacing recycled plastic pallets), off cuts Particle Board (replacing breeze blocks)"},{"$f":"IF(INDEX(Counterfactual_7,MATCH($B$489,$C$445:$C$487,0))=\"\",\"\",INDEX(Counterfactual_7,MATCH($B$489,$C$445:$C$487,0)))","v":"Pallets (replacing recycled plastic pallets), off cuts MDF (replacing plaster work)"},{"$f":"IF(INDEX(Counterfactual_8,MATCH($B$489,$C$445:$C$487,0))=\"\",\"\",INDEX(Counterfactual_8,MATCH($B$489,$C$445:$C$487,0)))","v":"Fencing (replacing concrete fencing), off cuts Particle Board (replacing breeze blocks)"},{"$f":"IF(INDEX(Counterfactual_9,MATCH($B$489,$C$445:$C$487,0))=\"\",\"\",INDEX(Counterfactual_9,MATCH($B$489,$C$445:$C$487,0)))","v":"Fencing (replacing concrete fencing), off cuts MDF (replacing plaster work)"},{"$f":"IF(INDEX(Counterfactual_10,MATCH($B$489,$C$445:$C$487,0))=\"\",\"\",INDEX(Counterfactual_10,MATCH($B$489,$C$445:$C$487,0)))","v":"Remove from land and burn"}]
[]
["Natural Disturbances"]
["No Natural Disturbances, maximum forgone carbon sequestration"]
["Predicted frequency of natural disturbances"]
["Frequent disturbances means no forgone carbon sequestration"]
[]
["Pretreatment Processing"]
["Dry"]
["Dry and pelletise"]
["Natural dry, dry and pelletise"]
["Natural dry and chip"]
["Chip, dry and pelletise"]
["Chip, natural dry, dry, pelletise"]
["Pelletise only (no drying)"]
["Sillage "]
["Oil Extraction "]
[]
["Grid GHG Intensity Options"]
["Grid Intensity 2013"]
["Predicted Grid Intensity 2020"]
["Predicted Grid Intensity 2030"]
["Decarbonised Grid"]
["Power provided by proportion of biomass"]
[]
["Transport Methods"]
["Truck"]
["Shipping - Product Tanker"]
["Shipping - Inland bulk carrier"]
["Rail"]
[]
["Transport GHG Intensity Options"]
["Transport GHG emissions 2013"]
["Predicted transport GHG emissions 2020"]
["Predicted transport GHG emissions 2030"]
["Energy provided by proportion of biomass converted to bioliquids"]
[]
["Chosen","Options"]
[null,{"$f":"Lists!A374","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"Lists!A375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!A376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},{"$f":"Lists!A377","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},{"$f":"Lists!A378","v":"All additional wood created by new management (50 wt% moisture)"},{"$f":"Lists!A379","v":"Biomass from Land Clearance (50 wt% moisture)"},{"$f":"Lists!A380","v":"Saw logs (50 wt% moisture)"},null,null,{"$f":"Lists!A381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!A382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!A383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"Lists!A386","v":"SRC Chips (50 wt% moisture)"},{"$f":"Lists!A387","v":"Miscanthus Chips (30 wt% moisture)"},{"$f":"Lists!A388","v":"Eucalyptus Roundwood (50 wt% moisture)"},{"$f":"'Technology Data'!A20","v":"Palm Fruit (34 wt% moisture)"},{"$f":"'Technology Data'!A21","v":"Maize Whole Crop (70 wt% moisture)"},"Add"]
[{"$f":"IF(INDEX(B529:S529,MATCH(Chosen_biomass_form_biopathways,Biomass_forms_biopathways,0))=\"\",\"\",INDEX(B529:S529,MATCH(Chosen_biomass_form_biopathways,Biomass_forms_biopathways,0)))","v":"Natural dry and chip"},{"$f":"Lists!$A$501","v":"Natural dry and chip"},{"$f":"Lists!$A$501","v":"Natural dry and chip"},{"$f":"Lists!$A$501","v":"Natural dry and chip"},{"$f":"Lists!$A$501","v":"Natural dry and chip"},{"$f":"Lists!$A$501","v":"Natural dry and chip"},{"$f":"Lists!$A$501","v":"Natural dry and chip"},{"$f":"Lists!$A$501","v":"Natural dry and chip"},null,null,{"$f":"Lists!$A$501","v":"Natural dry and chip"},{"$f":"Lists!A501","v":"Natural dry and chip"},{"$f":"Lists!A501","v":"Natural dry and chip"},{"$f":"Lists!$A$498","v":"Dry"},{"$f":"Lists!$A$498","v":"Dry"},{"$f":"Lists!$A$501","v":"Natural dry and chip"},{"$f":"Lists!A506","v":"Oil Extraction "},{"$f":"Lists!A505","v":"Sillage "}]
[{"$f":"IF(INDEX(B530:S530,MATCH(Chosen_biomass_form_biopathways,Biomass_forms_biopathways,0))=\"\",\"\",INDEX(B530:S530,MATCH(Chosen_biomass_form_biopathways,Biomass_forms_biopathways,0)))","v":"Chip, dry and pelletise"},{"$f":"Lists!$A$502","v":"Chip, dry and pelletise"},{"$f":"Lists!$A$502","v":"Chip, dry and pelletise"},{"$f":"Lists!$A$502","v":"Chip, dry and pelletise"},{"$f":"Lists!$A$502","v":"Chip, dry and pelletise"},{"$f":"Lists!$A$502","v":"Chip, dry and pelletise"},{"$f":"Lists!$A$502","v":"Chip, dry and pelletise"},{"$f":"Lists!$A$502","v":"Chip, dry and pelletise"},null,null,{"$f":"Lists!$A$502","v":"Chip, dry and pelletise"},{"$f":"Lists!$A$502","v":"Chip, dry and pelletise"},{"$f":"Lists!$A$502","v":"Chip, dry and pelletise"},{"$f":"Lists!$A$499","v":"Dry and pelletise"},{"$f":"Lists!$A$499","v":"Dry and pelletise"},{"$f":"Lists!$A$502","v":"Chip, dry and pelletise"}]
[{"$f":"IF(INDEX(B531:S531,MATCH(Chosen_biomass_form_biopathways,Biomass_forms_biopathways,0))=\"\",\"\",INDEX(B531:S531,MATCH(Chosen_biomass_form_biopathways,Biomass_forms_biopathways,0)))","v":""},{"$f":"Lists!A503","v":"Chip, natural dry, dry, pelletise"},null,null,null,null,null,{"$f":"Lists!A504","v":"Pelletise only (no drying)"}]
[{"$f":"IF(INDEX(B532:S532,MATCH(Chosen_biomass_form_biopathways,Biomass_forms_biopathways,0))=\"\",\"\",INDEX(B532:S532,MATCH(Chosen_biomass_form_biopathways,Biomass_forms_biopathways,0)))","v":""},null,null,null,null,null,null,{"$f":"Lists!A500","v":"Natural dry, dry and pelletise"}]
[{"$f":"IF(INDEX(B533:S533,MATCH(Chosen_biomass_form_biopathways,Biomass_forms_biopathways,0))=\"\",\"\",INDEX(B533:S533,MATCH(Chosen_biomass_form_biopathways,Biomass_forms_biopathways,0)))","v":""},null,null,null,null,null,null,{"$f":"Lists!$A$499","v":"Dry and pelletise"}]
[null,"Insert here"]
[]
["Drying Methods"]
["Electricity "]
["Natural or No Drying"]
["Biomass"]
["Diesel"]
["Natural Gas"]
[]
["lookupname for drying: ",{"$f":"Chosen_biomass_form_biopathways&\":\"&Results_Biopathways!C48","v":"Small Roundwood (50 wt% moisture):Natural dry and chip"}]
["Chosen","Options"]
[null,{"$f":"$B$528&\":\"&B529","v":"All the wood harvested over the rotation (50 wt% moisture):Natural dry and chip"},{"$f":"$B$528&\":\"&B530","v":"All the wood harvested over the rotation (50 wt% moisture):Chip, dry and pelletise"},{"$f":"$B$528&\":\"&B531","v":"All the wood harvested over the rotation (50 wt% moisture):Chip, natural dry, dry, pelletise"},{"$f":"$C$528&\":\"&C529","v":"All additional wood compared to counterfactual (50 wt% moisture):Natural dry and chip"},{"$f":"$C$528&\":\"&C530","v":"All additional wood compared to counterfactual (50 wt% moisture):Chip, dry and pelletise"},{"$f":"D528&\":\"&D529","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Natural dry and chip"},{"$f":"D528&\":\"&D530","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Chip, dry and pelletise"},{"$f":"E528&\":\"&E529","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Natural dry and chip"},null,null,{"$f":"E528&\":\"&E530","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Chip, dry and pelletise"},{"$f":"$F$528&\":\"&F529","v":"All additional wood created by new management (50 wt% moisture):Natural dry and chip"},{"$f":"$F$528&\":\"&F530","v":"All additional wood created by new management (50 wt% moisture):Chip, dry and pelletise"},{"$f":"$G$528&\":\"&G529","v":"Biomass from Land Clearance (50 wt% moisture):Natural dry and chip"},{"$f":"$G$528&\":\"&G530","v":"Biomass from Land Clearance (50 wt% moisture):Chip, dry and pelletise"},{"$f":"$H$528&\":\"&H529","v":"Saw logs (50 wt% moisture):Natural dry and chip"},{"$f":"$H$528&\":\"&H530","v":"Saw logs (50 wt% moisture):Chip, dry and pelletise"},{"$f":"$H$528&\":\"&H531","v":"Saw logs (50 wt% moisture):Pelletise only (no drying)"},{"$f":"$H$528&\":\"&H532","v":"Saw logs (50 wt% moisture):Natural dry, dry and pelletise"},{"$f":"$H$528&\":\"&H533","v":"Saw logs (50 wt% moisture):Dry and pelletise"},{"$f":"$K$528&\":\"&K529","v":"Small Roundwood (50 wt% moisture):Natural dry and chip"},{"$f":"$K$528&\":\"&K530","v":"Small Roundwood (50 wt% moisture):Chip, dry and pelletise"},{"$f":"$L$528&\":\"&L529","v":"Woody Debris (25 wt% moisture). Continuous removal.:Natural dry and chip"},{"$f":"$L$528&\":\"&L530","v":"Woody Debris (25 wt% moisture). Continuous removal.:Chip, dry and pelletise"},{"$f":"$M$528&\":\"&M529","v":"Woody Debris (25 wt% moisture). Remove for 15 years only.:Natural dry and chip"},{"$f":"$M$528&\":\"&M530","v":"Woody Debris (25 wt% moisture). Remove for 15 years only.:Chip, dry and pelletise"},{"$f":"$N$528&\":\"&N529","v":"SRC Chips (50 wt% moisture):Dry"},{"$f":"$N$528&\":\"&N530","v":"SRC Chips (50 wt% moisture):Dry and pelletise"},{"$f":"$O$528&\":\"&O529","v":"Miscanthus Chips (30 wt% moisture):Dry"},{"$f":"$O$528&\":\"&O530","v":"Miscanthus Chips (30 wt% moisture):Dry and pelletise"},{"$f":"Q528&\":\"&Q529","v":"Palm Fruit (34 wt% moisture):Oil Extraction "},{"$f":"R528&\":\"&R529","v":"Maize Whole Crop (70 wt% moisture):Sillage "},{"$f":"$P$528&\":\"&P529","v":"Eucalyptus Roundwood (50 wt% moisture):Natural dry and chip"},{"$f":"$P$528&\":\"&P530","v":"Eucalyptus Roundwood (50 wt% moisture):Chip, dry and pelletise"}]
[{"$f":"IF(INDEX(B546:AI546,MATCH($B$543,lookup_names_drying_methods,0))=\"\",\"\",INDEX(B546:AI546,MATCH($B$543,lookup_names_drying_methods,0)))","v":"Natural or No Drying"},{"$f":"$A$538","v":"Natural or No Drying"},{"$f":"$A$537","v":"Electricity "},{"$f":"$A$537","v":"Electricity "},{"$f":"$A$538","v":"Natural or No Drying"},{"$f":"$A$537","v":"Electricity "},{"$f":"$A$538","v":"Natural or No Drying"},{"$f":"$A$537","v":"Electricity "},{"$f":"$A$538","v":"Natural or No Drying"},null,null,{"$f":"$A$537","v":"Electricity "},{"$f":"$A$538","v":"Natural or No Drying"},{"$f":"$A$537","v":"Electricity "},{"$f":"$A$538","v":"Natural or No Drying"},{"$f":"$A$537","v":"Electricity "},{"$f":"$A$538","v":"Natural or No Drying"},{"$f":"$A$537","v":"Electricity "},{"$f":"$A$538","v":"Natural or No Drying"},{"$f":"$A$537","v":"Electricity "},{"$f":"$A$537","v":"Electricity "},{"$f":"$A$538","v":"Natural or No Drying"},{"$f":"$A$537","v":"Electricity "},{"$f":"$A$538","v":"Natural or No Drying"},{"$f":"$A$537","v":"Electricity "},{"$f":"$A$538","v":"Natural or No Drying"},{"$f":"$A$537","v":"Electricity "},{"$f":"$A$538","v":"Natural or No Drying"},{"$f":"$A$537","v":"Electricity "},{"$f":"$A$538","v":"Natural or No Drying"},{"$f":"$A$537","v":"Electricity "},{"$f":"A538","v":"Natural or No Drying"},{"$f":"A538","v":"Natural or No Drying"},{"$f":"$A$538","v":"Natural or No Drying"},{"$f":"$A$537","v":"Electricity "}]
[{"$f":"IF(INDEX(B547:AI547,MATCH($B$543,lookup_names_drying_methods,0))=\"\",\"\",INDEX(B547:AI547,MATCH($B$543,lookup_names_drying_methods,0)))","v":""},null,{"$f":"$A$539","v":"Biomass"},{"$f":"$A$539","v":"Biomass"},null,{"$f":"$A$539","v":"Biomass"},null,{"$f":"$A$539","v":"Biomass"},null,null,null,{"$f":"$A$539","v":"Biomass"},null,{"$f":"$A$539","v":"Biomass"},null,{"$f":"$A$539","v":"Biomass"},null,{"$f":"$A$539","v":"Biomass"},null,{"$f":"$A$539","v":"Biomass"},{"$f":"$A$539","v":"Biomass"},null,{"$f":"$A$539","v":"Biomass"},null,{"$f":"$A$539","v":"Biomass"},null,{"$f":"$A$539","v":"Biomass"},null,{"$f":"$A$539","v":"Biomass"},{"$f":"$A$537","v":"Electricity "},{"$f":"$A$539","v":"Biomass"},null,null,null,{"$f":"$A$539","v":"Biomass"}]
[{"$f":"IF(INDEX(B548:AI548,MATCH($B$543,lookup_names_drying_methods,0))=\"\",\"\",INDEX(B548:AI548,MATCH($B$543,lookup_names_drying_methods,0)))","v":""},null,{"$f":"$A$540","v":"Diesel"},{"$f":"$A$540","v":"Diesel"},null,{"$f":"$A$540","v":"Diesel"},null,{"$f":"$A$540","v":"Diesel"},null,null,null,{"$f":"$A$540","v":"Diesel"},null,{"$f":"$A$540","v":"Diesel"},null,{"$f":"$A$540","v":"Diesel"},null,{"$f":"$A$540","v":"Diesel"},null,{"$f":"$A$540","v":"Diesel"},{"$f":"$A$540","v":"Diesel"},null,{"$f":"$A$540","v":"Diesel"},null,{"$f":"$A$540","v":"Diesel"},null,{"$f":"$A$540","v":"Diesel"},null,{"$f":"$A$540","v":"Diesel"},{"$f":"$A$539","v":"Biomass"},{"$f":"$A$540","v":"Diesel"},null,null,null,{"$f":"$A$540","v":"Diesel"}]
[{"$f":"IF(INDEX(B549:AI549,MATCH($B$543,lookup_names_drying_methods,0))=\"\",\"\",INDEX(B549:AI549,MATCH($B$543,lookup_names_drying_methods,0)))","v":""},null,{"$f":"$A$541","v":"Natural Gas"},{"$f":"$A$541","v":"Natural Gas"},null,{"$f":"$A$541","v":"Natural Gas"},null,{"$f":"$A$541","v":"Natural Gas"},null,null,null,{"$f":"$A$541","v":"Natural Gas"},null,{"$f":"$A$541","v":"Natural Gas"},null,{"$f":"$A$541","v":"Natural Gas"},null,{"$f":"$A$541","v":"Natural Gas"},null,{"$f":"$A$541","v":"Natural Gas"},{"$f":"$A$541","v":"Natural Gas"},null,{"$f":"$A$541","v":"Natural Gas"},null,{"$f":"$A$541","v":"Natural Gas"},null,{"$f":"$A$541","v":"Natural Gas"},null,{"$f":"$A$541","v":"Natural Gas"},{"$f":"$A$540","v":"Diesel"},{"$f":"$A$541","v":"Natural Gas"},null,null,null,{"$f":"$A$541","v":"Natural Gas"}]
[{"$f":"IF(INDEX(B550:AI550,MATCH($B$543,lookup_names_drying_methods,0))=\"\",\"\",INDEX(B550:AI550,MATCH($B$543,lookup_names_drying_methods,0)))","v":""},null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"$A$541","v":"Natural Gas"}]
[]
["Technologies for Energy Generation"]
[]
["BioSNG"]
["BtL"]
["Ethanol"]
["Gas from Slow Pyrolysis (Biochar co-product)"]
["CHP"]
["Heat from Biomass Boiler"]
["Co-fire Bioelectricity"]
["Dedicated Bioelectricity"]
["Dedicated Bioelectricity with CCS"]
["Electricity from Vegetable Oil"]
["Biodiesel"]
["Anaerobic digestion, electricity from biogas"]
["Anaerobic digestion, CHP from biogas"]
[]
["Biomass Form",{"$f":"INDEX(Biomass_forms_output_biopathways,MATCH(Calculations!B319,lookup_pretreatment_biopathways,0))","v":"Wood Chips (25 wt% moisture)"}]
[]
["Chosen",{"$f":"'Technology Data'!A22","v":"Maize Sillage (67 wt% moisture)"},{"$f":"'Technology Data'!A23","v":"Palm Oil"},{"$f":"'Technology Data'!A25","v":"SRC Chips (25 wt% moisture)"},{"$f":"'Technology Data'!A26","v":"SRC Pellets (10% moisture)"},{"$f":"'Technology Data'!A27","v":"Miscanthus Chips (10 wt% moisture)"},{"$f":"'Technology Data'!A28","v":"Miscanthus Pellets (10% moisture)"},{"$f":"'Technology Data'!A29","v":"Wood Chips (25 wt% moisture)"},null,null,{"$f":"'Technology Data'!A30","v":"Wood Pellets (7 wt% moisture)"}]
[{"$f":"IF(INDEX(B571:L571,MATCH($B$568,$B$570:$L$570,0))=\"\",\"\",INDEX(B571:L571,MATCH($B$568,$B$570:$L$570,0)))","v":"BioSNG"},{"$f":"A565","v":"Anaerobic digestion, electricity from biogas"},{"$f":"A563","v":"Electricity from Vegetable Oil"},{"$f":"$A$554","v":"BioSNG"},{"$f":"$A$554","v":"BioSNG"},{"$f":"$A$554","v":"BioSNG"},{"$f":"$A$554","v":"BioSNG"},{"$f":"$A$554","v":"BioSNG"},null,null,{"$f":"$A$554","v":"BioSNG"}]
[{"$f":"IF(INDEX(B572:L572,MATCH($B$568,$B$570:$L$570,0))=\"\",\"\",INDEX(B572:L572,MATCH($B$568,$B$570:$L$570,0)))","v":"BtL"},{"$f":"A566","v":"Anaerobic digestion, CHP from biogas"},{"$f":"A564","v":"Biodiesel"},{"$f":"$A$555","v":"BtL"},{"$f":"$A$555","v":"BtL"},{"$f":"$A$555","v":"BtL"},{"$f":"$A$555","v":"BtL"},{"$f":"$A$555","v":"BtL"},null,null,{"$f":"$A$555","v":"BtL"}]
[{"$f":"IF(INDEX(B573:L573,MATCH($B$568,$B$570:$L$570,0))=\"\",\"\",INDEX(B573:L573,MATCH($B$568,$B$570:$L$570,0)))","v":"Ethanol"},{"$f":"A556","v":"Ethanol"},{"$f":"A558","v":"CHP"},{"$f":"$A$556","v":"Ethanol"},{"$f":"$A$556","v":"Ethanol"},{"$f":"$A$556","v":"Ethanol"},{"$f":"$A$556","v":"Ethanol"},{"$f":"$A$556","v":"Ethanol"},null,null,{"$f":"$A$556","v":"Ethanol"}]
[{"$f":"IF(INDEX(B574:L574,MATCH($B$568,$B$570:$L$570,0))=\"\",\"\",INDEX(B574:L574,MATCH($B$568,$B$570:$L$570,0)))","v":"Gas from Slow Pyrolysis (Biochar co-product)"},null,null,{"$f":"$A$557","v":"Gas from Slow Pyrolysis (Biochar co-product)"},{"$f":"$A$557","v":"Gas from Slow Pyrolysis (Biochar co-product)"},{"$f":"$A$557","v":"Gas from Slow Pyrolysis (Biochar co-product)"},{"$f":"$A$557","v":"Gas from Slow Pyrolysis (Biochar co-product)"},{"$f":"$A$557","v":"Gas from Slow Pyrolysis (Biochar co-product)"},null,null,{"$f":"$A$557","v":"Gas from Slow Pyrolysis (Biochar co-product)"}]
[{"$f":"IF(INDEX(B575:L575,MATCH($B$568,$B$570:$L$570,0))=\"\",\"\",INDEX(B575:L575,MATCH($B$568,$B$570:$L$570,0)))","v":"CHP"},null,null,{"$f":"$A$558","v":"CHP"},{"$f":"$A$558","v":"CHP"},{"$f":"$A$558","v":"CHP"},{"$f":"$A$558","v":"CHP"},{"$f":"$A$558","v":"CHP"},null,null,{"$f":"$A$558","v":"CHP"}]
["Heat from Biomass Boiler",null,null,{"$f":"$A$559","v":"Heat from Biomass Boiler"},{"$f":"$A$559","v":"Heat from Biomass Boiler"},{"$f":"$A$559","v":"Heat from Biomass Boiler"},{"$f":"$A$559","v":"Heat from Biomass Boiler"},{"$f":"$A$559","v":"Heat from Biomass Boiler"},null,null,{"$f":"$A$559","v":"Heat from Biomass Boiler"}]
["Co-fire Bioelectricity",null,null,{"$f":"$A$560","v":"Co-fire Bioelectricity"},{"$f":"$A$560","v":"Co-fire Bioelectricity"},{"$f":"$A$560","v":"Co-fire Bioelectricity"},{"$f":"$A$560","v":"Co-fire Bioelectricity"},{"$f":"$A$560","v":"Co-fire Bioelectricity"},null,null,{"$f":"$A$560","v":"Co-fire Bioelectricity"}]
["Dedicated Bioelectricity",null,null,{"$f":"$A$561","v":"Dedicated Bioelectricity"},{"$f":"$A$561","v":"Dedicated Bioelectricity"},{"$f":"$A$561","v":"Dedicated Bioelectricity"},{"$f":"$A$561","v":"Dedicated Bioelectricity"},{"$f":"$A$561","v":"Dedicated Bioelectricity"},null,null,{"$f":"$A$561","v":"Dedicated Bioelectricity"}]
["Dedicated Bioelectricity with CCS",null,null,{"$f":"$A$562","v":"Dedicated Bioelectricity with CCS"},{"$f":"$A$562","v":"Dedicated Bioelectricity with CCS"},{"$f":"$A$562","v":"Dedicated Bioelectricity with CCS"},{"$f":"$A$562","v":"Dedicated Bioelectricity with CCS"},{"$f":"$A$562","v":"Dedicated Bioelectricity with CCS"},null,null,{"$f":"$A$562","v":"Dedicated Bioelectricity with CCS"}]

{"sheet":"Choice Check","index":7,"n_rows":359,"n_cols":43,"rows_kept":359,"cut":false,"hidden":false,"merged":[]}
["Checking Allowable Choice Combinations"]
[]
["Sum of Countif",{"$f":"A10+E10+I10+M10+P10+T10+X10+AD10+AO10","v":9},null,null,"Please check your combination of selections"]
["OK combination?",{"$f":"IF(B3=9,E4,E3)","v":"Selected combinations OK"},null,null,"Selected combinations OK"]
[]
["Chosen combination",null,"Name",null,"Chosen combination",null,null,null,"Chosen combination",null,null,null,"Chosen combination",null,null,"Chosen combination",null,null,null,"Chosen combination",null,null,null,"Chosen combination",null,null,null,null,null,"Chosen combination",null,null,null,null,null,null,null,null,null,null,"Chosen combination"]
[{"$f":"Chosen_land_category_biopathways","v":"Long Rotation Forestry (LRF)"},{"$f":"Chosen_Previous_Land_type_biopathways","v":"LRF Conifer for wood products, residues unused"},{"$f":"A7&\":\"&B7","v":"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused"},null,{"$f":"Chosen_Previous_Land_type_biopathways","v":"LRF Conifer for wood products, residues unused"},{"$f":"Chosen_region_biopathways","v":"UK"},{"$f":"E7&\":\"&F7","v":"LRF Conifer for wood products, residues unused:UK"},null,{"$f":"G7","v":"LRF Conifer for wood products, residues unused:UK"},{"$f":"Chosen_new_landuse_biopathways","v":"LRF Conifer for wood products and bioenergy"},{"$f":"I7&\":\"&J7","v":"LRF Conifer for wood products, residues unused:UK:LRF Conifer for wood products and bioenergy"},null,{"$f":"Chosen_new_landuse_biopathways","v":"LRF Conifer for wood products and bioenergy"},{"$f":"Chosen_biomass_form_biopathways","v":"Small Roundwood (50 wt% moisture)"},{"$f":"M7&\":\"&N7","v":"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture)"},{"$f":"O7","v":"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture)"},{"$f":"Chosen_counterfactual","v":"MDF (replacing plasterwork)"},{"$f":"P7&\":\"&Q7","v":"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture):MDF (replacing plasterwork)"},null,{"$f":"Chosen_biomass_form_biopathways","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Chosen_pretreatment_biopathways","v":"Natural dry and chip"},{"$f":"T7&\":\"&U7","v":"Small Roundwood (50 wt% moisture):Natural dry and chip"},null,{"$f":"Chosen_pretreatment_biopathways","v":"Natural dry and chip"},{"$f":"Chosen_pretreatment_drying_biopathways","v":"Natural or No Drying"},{"$f":"X7&\":\"&Y7","v":"Natural dry and chip:Natural or No Drying"},null,null,null,{"$f":"Calculations!B336","v":"Wood Chips (25 wt% moisture)"},{"$f":"Chosen_technology_biopathways","v":"Heat from Biomass Boiler"},{"$f":"AD7&\":\"&AE7","v":"Wood Chips (25 wt% moisture):Heat from Biomass Boiler"},null,null,null,null,null,null,null,null,{"$f":"Chosen_Previous_Land_type_biopathways&\":\"&Chosen_new_landuse_biopathways","v":"LRF Conifer for wood products, residues unused:LRF Conifer for wood products and bioenergy"},{"$f":"Chosen_soil_type_biopathways","v":"No peat drainage"},{"$f":"AO7&\":\"&AP7","v":"LRF Conifer for wood products, residues unused:LRF Conifer for wood products and bioenergy:No peat drainage"}]
[]
["Is this combination ok (1=yes, 0=No)?","Message","OK",null,"Is this combination ok (1=yes, 0=No)?","Message","OK",null,"Is this combination ok (1=yes, 0=No)?","Message","OK",null,"Is this combination ok (1=yes, 0=No)?","Message","OK","Is this combination ok (1=yes, 0=No)?","Message","OK",null,"Is this combination ok (1=yes, 0=No)?","Message","OK",null,"Is this combination ok (1=yes, 0=No)?","Message","OK",null,null,null,"Is this combination ok (1=yes, 0=No)?","Message","OK",null,null,null,null,null,null,null,null,"Is this combination ok (1=yes, 0=No)?","Message","OK"]
[{"$f":"COUNTIF(Countif_1,C7)","v":1},{"$f":"IF(A10=1,C9,C10)","v":"OK"},"Check combination of Land Type and Counterfactual Land Use",null,{"$f":"COUNTIF(countif_2,G7)","v":1},{"$f":"IF(E10=1,G9,G10)","v":"OK"},"Check combination of Counterfactual Land Use and Country",null,{"$f":"COUNTIF(countif_3,K7)","v":1},{"$f":"IF(I10=1,K9,K10)","v":"OK"},"Check combination of Counterfactual Land Use and New Land Use",null,{"$f":"COUNTIF(countif_4,O7)","v":1},{"$f":"IF(M10=1,O9,O10)","v":"OK"},"Check combination of New Land Use and Biomass Type",{"$f":"COUNTIF(countif_5,R7)","v":1},{"$f":"IF(P10=1,R9,R10)","v":"OK"},"Check combination of Biomass Type and Counterfactual use",null,{"$f":"COUNTIF(countif_6,V7)","v":1},{"$f":"IF(T10=1,V9,V10)","v":"OK"},"Check combination of Biomass Type and Pretreatment Method",null,{"$f":"COUNTIF(countif_7,Z7)","v":1},{"$f":"IF(X10=1,Z9,Z10)","v":"OK"},"Check combination of Pretreatment Method and Drying",null,null,null,{"$f":"COUNTIF(countif_8,AF7)","v":1},{"$f":"IF(AD10=1,AF9,AF10)","v":"OK"},"Check combination of Biomass Type and Energy Technology",null,null,null,null,null,null,null,null,{"$f":"COUNTIF(countif_9,AQ7)","v":1},{"$f":"IF(AO10=1,AQ9,AQ10)","v":"OK"},"Check combination of Land and Soil Types"]
[]
["Category 1: Previous Land Type","Category 2: Countefactual land use","Name",null,"Category 1: Previous Land Use","Category 2: Country","Name",null,"Category 1: Old Land Use","Category 2: New Land Use","Name",null,"Category 1: New land use","Category 2: Biomass type","Name","Category 1: New land use and biomass","Category 2: Counterfactual","Name",null,"Category 1: Biomass Type","Category 2: Drying Method","Name",null,"Category 1: Drying Method","Category 2: Fuel","Name",null,null,null,"Category 1: Biomass Form","Category 2: Energy Technology",null,null,null,null,null,null,null,null,null,"Category 1:Counterfactual and New Land Use","Category 2: Soil Type"]
[{"$f":"Lists!B82","v":"Long Rotation Forestry (LRF)"},{"$f":"Lists!B83","v":"LRF Conifer for wood products, residues unused"},{"$f":"A13&\":\"&B13","v":"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused"},null,{"$f":"Lists!B109","v":"LRF Conifer for wood products, residues unused"},{"$f":"Lists!B110","v":"UK"},{"$f":"E13&\":\"&F13","v":"LRF Conifer for wood products, residues unused:UK"},null,{"$f":"Lists!A119","v":"LRF Conifer for wood products, residues unused:UK"},{"$f":"Lists!B119","v":"LRF Conifer for wood products and bioenergy"},{"$f":"I13&\":\"&J13","v":"LRF Conifer for wood products, residues unused:UK:LRF Conifer for wood products and bioenergy"},null,{"$f":"'Land Data'!A712","v":"LRF Conifer for wood products and bioenergy"},{"$f":"'Land Data'!AL713","v":"Saw logs (50 wt% moisture)"},{"$f":"M13&\":\"&N13","v":"LRF Conifer for wood products and bioenergy:Saw logs (50 wt% moisture)"},{"$f":"Lists!C445","v":"LRF Conifer for wood products and bioenergy:Saw logs (50 wt% moisture)"},{"$f":"Lists!D445","v":"Sawn Timber (replacing concrete flooring), off cuts to particle board (replacing breeze blocks)"},{"$f":"P13&\":\"&Q13","v":"LRF Conifer for wood products and bioenergy:Saw logs (50 wt% moisture):Sawn Timber (replacing concrete flooring), off cuts to particle board (replacing breeze blocks)"},null,{"$f":"Lists!B528","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"Lists!B529","v":"Natural dry and chip"},{"$f":"T13&\":\"&U13","v":"All the wood harvested over the rotation (50 wt% moisture):Natural dry and chip"},null,{"$f":"Lists!A498","v":"Dry"},{"$f":"Lists!$A$538","v":"Natural or No Drying"},{"$f":"X13&\":\"&Y13","v":"Dry:Natural or No Drying"},null,null,null,{"$f":"Lists!B570","v":"Maize Sillage (67 wt% moisture)"},{"$f":"Lists!B571","v":"Anaerobic digestion, electricity from biogas"},{"$f":"AD13&\":\"&AE13","v":"Maize Sillage (67 wt% moisture):Anaerobic digestion, electricity from biogas"},null,null,null,null,null,null,null,null,{"$f":"Lists!C253","v":"LRF Conifer for wood products, residues unused:LRF Conifer for wood products and bioenergy"},{"$f":"Lists!D253","v":"No peat drainage"},{"$f":"AO13&\":\"&AP13","v":"LRF Conifer for wood products, residues unused:LRF Conifer for wood products and bioenergy:No peat drainage"}]
[{"$f":"A13","v":"Long Rotation Forestry (LRF)"},{"$f":"Lists!B84","v":"LRF Conifer for wood products, 50% residues used"},{"$f":"A14&\":\"&B14","v":"Long Rotation Forestry (LRF):LRF Conifer for wood products, 50% residues used"},null,{"$f":"E13","v":"LRF Conifer for wood products, residues unused"},{"$f":"Lists!B111","v":"South USA"},{"$f":"E14&\":\"&F14","v":"LRF Conifer for wood products, residues unused:South USA"},null,{"$f":"Lists!A120","v":"LRF Conifer for wood products, residues unused:South USA"},{"$f":"Lists!B120","v":"LRF Conifer for wood products and bioenergy"},{"$f":"I14&\":\"&J14","v":"LRF Conifer for wood products, residues unused:South USA:LRF Conifer for wood products and bioenergy"},null,{"$f":"M13","v":"LRF Conifer for wood products and bioenergy"},{"$f":"'Land Data'!AM713","v":"Small Roundwood (50 wt% moisture)"},{"$f":"M14&\":\"&N14","v":"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture)"},{"$f":"P13","v":"LRF Conifer for wood products and bioenergy:Saw logs (50 wt% moisture)"},{"$f":"Lists!E445","v":"Sawn Timber (replacing concrete flooring), off cuts to MDF (replacing plasterwork)"},{"$f":"P14&\":\"&Q14","v":"LRF Conifer for wood products and bioenergy:Saw logs (50 wt% moisture):Sawn Timber (replacing concrete flooring), off cuts to MDF (replacing plasterwork)"},null,{"$f":"T13","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"Lists!B530","v":"Chip, dry and pelletise"},{"$f":"T14&\":\"&U14","v":"All the wood harvested over the rotation (50 wt% moisture):Chip, dry and pelletise"},null,{"$f":"Lists!A499","v":"Dry and pelletise"},{"$f":"Lists!$A$537","v":"Electricity "},{"$f":"X14&\":\"&Y14","v":"Dry and pelletise:Electricity "},null,null,null,{"$f":"AD13","v":"Maize Sillage (67 wt% moisture)"},{"$f":"Lists!B572","v":"Anaerobic digestion, CHP from biogas"},{"$f":"AD14&\":\"&AE14","v":"Maize Sillage (67 wt% moisture):Anaerobic digestion, CHP from biogas"},null,null,null,null,null,null,null,null,{"$f":"Lists!C254","v":"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation"},{"$f":"Lists!D254","v":"No peat drainage"},{"$f":"AO14&\":\"&AP14","v":"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation:No peat drainage"}]
[{"$f":"A14","v":"Long Rotation Forestry (LRF)"},{"$f":"Lists!B85","v":"Newly Abandoned LRF Conifer, residues unused"},"Long Rotation Forestry (LRF):Newly Abandoned LRF Conifer, residues unused",null,{"$f":"E14","v":"LRF Conifer for wood products, residues unused"},{"$f":"Lists!B112","v":"North West USA"},"LRF Conifer for wood products, residues unused:North West USA",null,{"$f":"I14","v":"LRF Conifer for wood products, residues unused:South USA"},{"$f":"Lists!C120","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation"},"LRF Conifer for wood products, residues unused:South USA:Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation",null,{"$f":"M14","v":"LRF Conifer for wood products and bioenergy"},{"$f":"'Land Data'!AN713","v":"Woody Debris (25 wt% moisture). Continuous removal."},"LRF Conifer for wood products and bioenergy:Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"P14","v":"LRF Conifer for wood products and bioenergy:Saw logs (50 wt% moisture)"},{"$f":"Lists!F445","v":"Displacing imported wood products"},"LRF Conifer for wood products and bioenergy:Saw logs (50 wt% moisture):Displacing imported wood products",null,{"$f":"T14","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"Lists!B531","v":"Chip, natural dry, dry, pelletise"},"All the wood harvested over the rotation (50 wt% moisture):Chip, natural dry, dry, pelletise",null,{"$f":"X14","v":"Dry and pelletise"},{"$f":"Lists!$A$539","v":"Biomass"},"Dry and pelletise:Biomass",null,null,null,{"$f":"AD14","v":"Maize Sillage (67 wt% moisture)"},{"$f":"Lists!B573","v":"Ethanol"},"Maize Sillage (67 wt% moisture):Ethanol",null,null,null,null,null,null,null,null,{"$f":"Lists!C255","v":"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation"},{"$f":"Lists!D255","v":"No peat drainage"},"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation:No peat drainage"]
["Long Rotation Forestry (LRF)",{"$f":"Lists!B86","v":"LRF Broadleaf for wood products, residues unused"},"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused",null,"LRF Conifer for wood products, residues unused",{"$f":"Lists!B113","v":"Pacific Canada"},"LRF Conifer for wood products, residues unused:Pacific Canada",null,{"$f":"I15","v":"LRF Conifer for wood products, residues unused:South USA"},{"$f":"Lists!D120","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation"},"LRF Conifer for wood products, residues unused:South USA:Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation",null,"LRF Conifer for wood products and bioenergy",{"$f":"'Land Data'!AO713","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},"LRF Conifer for wood products and bioenergy:Woody Debris (25 wt% moisture). Remove for 15 years only.","LRF Conifer for wood products and bioenergy:Saw logs (50 wt% moisture)",{"$f":"Lists!G445","v":"Remove from land and burn"},"LRF Conifer for wood products and bioenergy:Saw logs (50 wt% moisture):Remove from land and burn",null,{"$f":"Lists!C528","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!C529","v":"Natural dry and chip"},"All additional wood compared to counterfactual (50 wt% moisture):Natural dry and chip",null,{"$f":"X15","v":"Dry and pelletise"},{"$f":"Lists!$A$540","v":"Diesel"},"Dry and pelletise:Diesel",null,null,null,{"$f":"Lists!C570","v":"Palm Oil"},{"$f":"Lists!C571","v":"Electricity from Vegetable Oil"},"Palm Oil:Electricity from Vegetable Oil",null,null,null,null,null,null,null,null,{"$f":"Lists!C256","v":"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to SRC Willow over 3 y"},{"$f":"Lists!D256","v":"No peat drainage"},"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to SRC Willow over 3 y:No peat drainage"]
["Long Rotation Forestry (LRF)",{"$f":"Lists!B87","v":"LRF Broadleaf for wood products, 50% residues used"},"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, 50% residues used",null,"LRF Conifer for wood products, residues unused",{"$f":"Lists!B114","v":"Interior Canada"},"LRF Conifer for wood products, residues unused:Interior Canada",null,"LRF Conifer for wood products, residues unused:South USA",{"$f":"Lists!E120","v":"Conversion of LRF Conifer to SRC Willow over 3 y"},"LRF Conifer for wood products, residues unused:South USA:Conversion of LRF Conifer to SRC Willow over 3 y",null,{"$f":"'Land Data'!A736","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"'Land Data'!AL737","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Intensely managed SRF Conifer, rotation length 25 years:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"Lists!C446","v":"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture)"},{"$f":"Lists!D446","v":"Leave residues to decay in forest"},"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture):Leave residues to decay in forest",null,{"$f":"T16","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!C530","v":"Chip, dry and pelletise"},"All additional wood compared to counterfactual (50 wt% moisture):Chip, dry and pelletise",null,"Dry and pelletise",{"$f":"Lists!$A$541","v":"Natural Gas"},"Dry and pelletise:Natural Gas",null,null,null,{"$f":"AD16","v":"Palm Oil"},{"$f":"Lists!C572","v":"Biodiesel"},"Palm Oil:Biodiesel",null,null,null,null,null,null,null,null,{"$f":"AO16","v":"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to SRC Willow over 3 y"},{"$f":"Lists!E256","v":"Peat soil which requires drainage"},"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to SRC Willow over 3 y:Peat soil which requires drainage"]
["Long Rotation Forestry (LRF)",{"$f":"Lists!B88","v":"Newly Abandoned LRF Broadleaf, residues unused"},"Long Rotation Forestry (LRF):Newly Abandoned LRF Broadleaf, residues unused",null,"LRF Conifer for wood products, residues unused",{"$f":"Lists!B115","v":"Boreal North Canada"},"LRF Conifer for wood products, residues unused:Boreal North Canada",null,"LRF Conifer for wood products, residues unused:South USA",{"$f":"Lists!F120","v":"Conversion of LRF Conifer to SRC Willow over 50 y"},"LRF Conifer for wood products, residues unused:South USA:Conversion of LRF Conifer to SRC Willow over 50 y",null,{"$f":"'Land Data'!A740","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"'Land Data'!AL741","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"P17","v":"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture)"},{"$f":"Lists!E446","v":"Displacing imported wood products"},"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture):Displacing imported wood products",null,{"$f":"Lists!D528","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},{"$f":"Lists!D529","v":"Natural dry and chip"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Natural dry and chip",null,{"$f":"Lists!A500","v":"Natural dry, dry and pelletise"},{"$f":"Lists!$A$537","v":"Electricity "},"Natural dry, dry and pelletise:Electricity ",null,null,null,{"$f":"AD17","v":"Palm Oil"},{"$f":"Lists!C573","v":"CHP"},"Palm Oil:CHP",null,null,null,null,null,null,null,null,{"$f":"Lists!C257","v":"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to SRC Willow over 50 y"},{"$f":"Lists!D257","v":"No peat drainage"},"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to SRC Willow over 50 y:No peat drainage"]
["Long Rotation Forestry (LRF)",{"$f":"Lists!B89","v":"LRF Broadleaf for wood products, rotation length increasing"},"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, rotation length increasing",null,{"$f":"Lists!C109","v":"LRF Conifer for wood products, 50% residues used"},{"$f":"Lists!C110","v":"Pacific Canada"},"LRF Conifer for wood products, 50% residues used:Pacific Canada",null,{"$f":"Lists!A121","v":"LRF Conifer for wood products, residues unused:North West USA"},{"$f":"Lists!B121","v":"LRF Conifer for wood products and bioenergy"},"LRF Conifer for wood products, residues unused:North West USA:LRF Conifer for wood products and bioenergy",null,{"$f":"'Land Data'!A744","v":"SRF Conifer, increased management intensity, 25 year rotation"},{"$f":"'Land Data'!AL745","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"SRF Conifer, increased management intensity, 25 year rotation:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"P18","v":"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture)"},{"$f":"Lists!F446","v":"Particle board (replacing breeze blocks)"},"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture):Particle board (replacing breeze blocks)",null,{"$f":"T18","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},{"$f":"Lists!D530","v":"Chip, dry and pelletise"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Chip, dry and pelletise",null,{"$f":"X18","v":"Natural dry, dry and pelletise"},{"$f":"Lists!$A$539","v":"Biomass"},"Natural dry, dry and pelletise:Biomass",null,null,null,{"$f":"Lists!D570","v":"SRC Chips (25 wt% moisture)"},{"$f":"Lists!D571","v":"BioSNG"},"SRC Chips (25 wt% moisture):BioSNG",null,null,null,null,null,null,null,null,{"$f":"AO18","v":"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to SRC Willow over 50 y"},{"$f":"Lists!E257","v":"Peat soil which requires drainage"},"LRF Conifer for wood products, residues unused:Conversion of LRF Conifer to SRC Willow over 50 y:Peat soil which requires drainage"]
[{"$f":"Lists!C82","v":"Short Rotation Forestry (SRF)"},{"$f":"Lists!C83","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years "},"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years ",null,{"$f":"E19","v":"LRF Conifer for wood products, 50% residues used"},{"$f":"Lists!C111","v":"Interior Canada"},"LRF Conifer for wood products, 50% residues used:Interior Canada",null,{"$f":"Lists!A122","v":"LRF Conifer for wood products, residues unused:Pacific Canada"},{"$f":"Lists!B122","v":"LRF Conifer for wood products and bioenergy"},"LRF Conifer for wood products, residues unused:Pacific Canada:LRF Conifer for wood products and bioenergy",null,{"$f":"'Land Data'!A748","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"'Land Data'!AL749","v":"All the wood harvested over the rotation (50 wt% moisture)"},"LRF Conifer for Bioenergy, residues unused:All the wood harvested over the rotation (50 wt% moisture)","LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture)",{"$f":"Lists!G446","v":"MDF (replacing plasterwork)"},"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture):MDF (replacing plasterwork)",null,{"$f":"Lists!E528","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},{"$f":"Lists!E529","v":"Natural dry and chip"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Natural dry and chip",null,{"$f":"X19","v":"Natural dry, dry and pelletise"},{"$f":"Lists!$A$540","v":"Diesel"},"Natural dry, dry and pelletise:Diesel",null,null,null,{"$f":"AD19","v":"SRC Chips (25 wt% moisture)"},{"$f":"Lists!D572","v":"BtL"},"SRC Chips (25 wt% moisture):BtL",null,null,null,null,null,null,null,null,{"$f":"Lists!C258","v":"LRF Conifer for wood products, 50% residues used:LRF Conifer, rotation length reduced to 50y"},{"$f":"Lists!D258","v":"No peat drainage"},"LRF Conifer for wood products, 50% residues used:LRF Conifer, rotation length reduced to 50y:No peat drainage"]
[{"$f":"A20","v":"Short Rotation Forestry (SRF)"},{"$f":"Lists!C84","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again)"},"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again)",null,{"$f":"E20","v":"LRF Conifer for wood products, 50% residues used"},{"$f":"Lists!C112","v":"Boreal North Canada"},"LRF Conifer for wood products, 50% residues used:Boreal North Canada",null,{"$f":"Lists!A123","v":"LRF Conifer for wood products, residues unused:Interior Canada"},{"$f":"Lists!B123","v":"LRF Conifer for wood products and bioenergy"},"LRF Conifer for wood products, residues unused:Interior Canada:LRF Conifer for wood products and bioenergy",null,{"$f":"'Land Data'!A768","v":"Newly Managed LRF Conifer (fast growing)"},{"$f":"'Land Data'!AL769","v":"All the wood harvested over the rotation (50 wt% moisture)"},"Newly Managed LRF Conifer (fast growing):All the wood harvested over the rotation (50 wt% moisture)","LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture)",{"$f":"Lists!H446","v":"Paper and Card (replacing imported paper and card)"},"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture):Paper and Card (replacing imported paper and card)",null,{"$f":"T20","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},{"$f":"Lists!E530","v":"Chip, dry and pelletise"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Chip, dry and pelletise",null,"Natural dry, dry and pelletise",{"$f":"Lists!$A$541","v":"Natural Gas"},"Natural dry, dry and pelletise:Natural Gas",null,null,null,{"$f":"AD20","v":"SRC Chips (25 wt% moisture)"},{"$f":"Lists!D573","v":"Ethanol"},"SRC Chips (25 wt% moisture):Ethanol",null,null,null,null,null,null,null,null,{"$f":"Lists!C259","v":"LRF Conifer for wood products, 50% residues used:LRF Conifer, rotation length reduced to 80y"},{"$f":"Lists!D259","v":"No peat drainage"},"LRF Conifer for wood products, 50% residues used:LRF Conifer, rotation length reduced to 80y:No peat drainage"]
[{"$f":"A21","v":"Short Rotation Forestry (SRF)"},{"$f":"Lists!C85","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation"},"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation",null,{"$f":"Lists!D109","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years "},{"$f":"Lists!D110","v":"South USA"},"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years :South USA",null,{"$f":"Lists!A124","v":"LRF Conifer for wood products, residues unused:Boreal North Canada"},{"$f":"Lists!B124","v":"LRF Conifer for wood products and bioenergy"},"LRF Conifer for wood products, residues unused:Boreal North Canada:LRF Conifer for wood products and bioenergy",null,{"$f":"'Land Data'!A776","v":"Newly Managed LRF Conifer (slow growing)"},{"$f":"'Land Data'!AL773","v":"All the wood harvested over the rotation (50 wt% moisture)"},"Newly Managed LRF Conifer (slow growing):All the wood harvested over the rotation (50 wt% moisture)","LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture)",{"$f":"Lists!I446","v":"Pallets (replacing recycled plastic pallets), off cuts Particle Board (replacing breeze blocks)"},"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture):Pallets (replacing recycled plastic pallets), off cuts Particle Board (replacing breeze blocks)",null,{"$f":"Lists!F528","v":"All additional wood created by new management (50 wt% moisture)"},{"$f":"Lists!F529","v":"Natural dry and chip"},"All additional wood created by new management (50 wt% moisture):Natural dry and chip",null,{"$f":"Lists!A501","v":"Natural dry and chip"},{"$f":"Lists!A538","v":"Natural or No Drying"},"Natural dry and chip:Natural or No Drying",null,null,null,"SRC Chips (25 wt% moisture)",{"$f":"Lists!D574","v":"Gas from Slow Pyrolysis (Biochar co-product)"},"SRC Chips (25 wt% moisture):Gas from Slow Pyrolysis (Biochar co-product)",null,null,null,null,null,null,null,null,{"$f":"Lists!C260","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years :Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"Lists!D260","v":"No peat drainage"},"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years :Intensely managed SRF Conifer, rotation length 25 years:No peat drainage"]
["Short Rotation Forestry (SRF)",{"$f":"Lists!C86","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand"},"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand",null,{"$f":"Lists!E109","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again)"},{"$f":"Lists!E110","v":"South USA"},"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again):South USA",null,{"$f":"Lists!A125","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years :South USA"},{"$f":"Lists!B125","v":"Intensely managed SRF Conifer, rotation length 25 years"},"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years :South USA:Intensely managed SRF Conifer, rotation length 25 years",null,{"$f":"'Land Data'!A780","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"'Land Data'!AL781","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"LRF Conifer, rotation length reduced to 50y:All additional wood compared to counterfactual (50 wt% moisture)","LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture)",{"$f":"Lists!J446","v":"Pallets (replacing recycled plastic pallets), off cuts MDF (replacing plaster work)"},"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture):Pallets (replacing recycled plastic pallets), off cuts MDF (replacing plaster work)",null,{"$f":"T22","v":"All additional wood created by new management (50 wt% moisture)"},{"$f":"Lists!F530","v":"Chip, dry and pelletise"},"All additional wood created by new management (50 wt% moisture):Chip, dry and pelletise",null,{"$f":"Lists!A502","v":"Chip, dry and pelletise"},{"$f":"Lists!$A$537","v":"Electricity "},"Chip, dry and pelletise:Electricity ",null,null,null,"SRC Chips (25 wt% moisture)",{"$f":"Lists!D575","v":"CHP"},"SRC Chips (25 wt% moisture):CHP",null,null,null,null,null,null,null,null,{"$f":"Lists!C261","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years :Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"Lists!D261","v":"No peat drainage"},"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years :Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years:No peat drainage"]
["Short Rotation Forestry (SRF)",{"$f":"Lists!C87","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting"},"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting",null,{"$f":"Lists!F109","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation"},{"$f":"Lists!F110","v":"South USA"},"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation:South USA",null,{"$f":"I23","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years :South USA"},{"$f":"Lists!C125","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years :South USA:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years",null,{"$f":"M23","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"'Land Data'!AM781","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},"LRF Conifer, rotation length reduced to 50y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).","LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture)",{"$f":"Lists!K446","v":"Fencing (replacing concrete fencing), off cuts Particle Board (replacing breeze blocks)"},"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture):Fencing (replacing concrete fencing), off cuts Particle Board (replacing breeze blocks)",null,{"$f":"Lists!G528","v":"Biomass from Land Clearance (50 wt% moisture)"},{"$f":"Lists!G529","v":"Natural dry and chip"},"Biomass from Land Clearance (50 wt% moisture):Natural dry and chip",null,{"$f":"X23","v":"Chip, dry and pelletise"},{"$f":"Lists!$A$539","v":"Biomass"},"Chip, dry and pelletise:Biomass",null,null,null,"SRC Chips (25 wt% moisture)",{"$f":"Lists!D576","v":"Heat from Biomass Boiler"},"SRC Chips (25 wt% moisture):Heat from Biomass Boiler",null,null,null,null,null,null,null,null,{"$f":"Lists!C262","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again):Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"Lists!D262","v":"No peat drainage"},"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again):Intensely managed SRF Conifer, rotation length 25 years:No peat drainage"]
["Short Rotation Forestry (SRF)",{"$f":"Lists!C88","v":"Intensely managed SRF Conifer, rotation length 25 years"},"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, rotation length 25 years",null,{"$f":"Lists!G109","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand"},{"$f":"Lists!G110","v":"South USA"},"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand:South USA",null,{"$f":"Lists!A126","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again):South USA"},{"$f":"Lists!B126","v":"Intensely managed SRF Conifer, rotation length 25 years"},"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again):South USA:Intensely managed SRF Conifer, rotation length 25 years",null,{"$f":"'Land Data'!A792","v":"LRF Conifer, rotation length reduced to 80y"},{"$f":"'Land Data'!AL793","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"LRF Conifer, rotation length reduced to 80y:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"P24","v":"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture)"},{"$f":"Lists!L446","v":"Fencing (replacing concrete fencing), off cuts MDF (replacing plaster work)"},"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture):Fencing (replacing concrete fencing), off cuts MDF (replacing plaster work)",null,{"$f":"T24","v":"Biomass from Land Clearance (50 wt% moisture)"},{"$f":"Lists!G530","v":"Chip, dry and pelletise"},"Biomass from Land Clearance (50 wt% moisture):Chip, dry and pelletise",null,{"$f":"X24","v":"Chip, dry and pelletise"},{"$f":"Lists!$A$540","v":"Diesel"},"Chip, dry and pelletise:Diesel",null,null,null,"SRC Chips (25 wt% moisture)",{"$f":"Lists!D577","v":"Co-fire Bioelectricity"},"SRC Chips (25 wt% moisture):Co-fire Bioelectricity",null,null,null,null,null,null,null,null,{"$f":"Lists!C263","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again):Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"Lists!D263","v":"No peat drainage"},"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again):Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years:No peat drainage"]
["Short Rotation Forestry (SRF)",{"$f":"Lists!C89","v":"Medium intensity managed SRF Conifer, rotation length 25 years"},"Short Rotation Forestry (SRF):Medium intensity managed SRF Conifer, rotation length 25 years",null,{"$f":"Lists!H109","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting"},{"$f":"Lists!H110","v":"South USA"},"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting:South USA",null,{"$f":"I25","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again):South USA"},{"$f":"Lists!C126","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again):South USA:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years",null,{"$f":"M25","v":"LRF Conifer, rotation length reduced to 80y"},{"$f":"'Land Data'!AM793","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},"LRF Conifer, rotation length reduced to 80y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).","LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture)",{"$f":"Lists!M446","v":"Remove from land and burn"},"LRF Conifer for wood products and bioenergy:Small Roundwood (50 wt% moisture):Remove from land and burn",null,{"$f":"Lists!H528","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!H529","v":"Natural dry and chip"},"Saw logs (50 wt% moisture):Natural dry and chip",null,"Chip, dry and pelletise",{"$f":"Lists!$A$541","v":"Natural Gas"},"Chip, dry and pelletise:Natural Gas",null,null,null,"SRC Chips (25 wt% moisture)",{"$f":"Lists!D578","v":"Dedicated Bioelectricity"},"SRC Chips (25 wt% moisture):Dedicated Bioelectricity",null,null,null,null,null,null,null,null,{"$f":"Lists!C264","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation:Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"Lists!D264","v":"No peat drainage"},"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation:Intensely managed SRF Conifer, rotation length 25 years:No peat drainage"]
[{"$f":"Lists!D82","v":"Unmanaged Forests"},{"$f":"Lists!D83","v":"Unmanaged Temperate Broadleaf"},"Unmanaged Forests:Unmanaged Temperate Broadleaf",null,{"$f":"Lists!I109","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"Lists!I110","v":"South USA"},"Intensely managed SRF Conifer, rotation length 25 years:South USA",null,{"$f":"Lists!A127","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand:South USA"},{"$f":"Lists!B127","v":"Intensely managed SRF Conifer, rotation length 25 years"},"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand:South USA:Intensely managed SRF Conifer, rotation length 25 years",null,{"$f":"'Land Data'!A800","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation"},{"$f":"'Land Data'!AL801","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"Lists!C447","v":"LRF Conifer for wood products and bioenergy:Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!D447","v":"Leave residues to decay in forest"},"LRF Conifer for wood products and bioenergy:Woody Debris (25 wt% moisture). Continuous removal.:Leave residues to decay in forest",null,{"$f":"T26","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!H530","v":"Chip, dry and pelletise"},"Saw logs (50 wt% moisture):Chip, dry and pelletise",null,{"$f":"Lists!A503","v":"Chip, natural dry, dry, pelletise"},{"$f":"Lists!$A$537","v":"Electricity "},"Chip, natural dry, dry, pelletise:Electricity ",null,null,null,"SRC Chips (25 wt% moisture)",{"$f":"Lists!D579","v":"Dedicated Bioelectricity with CCS"},"SRC Chips (25 wt% moisture):Dedicated Bioelectricity with CCS",null,null,null,null,null,null,null,null,{"$f":"Lists!C265","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"Lists!D265","v":"No peat drainage"},"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years:No peat drainage"]
[{"$f":"A27","v":"Unmanaged Forests"},{"$f":"Lists!D84","v":"Unmanaged Tropical Peat Forest"},"Unmanaged Forests:Unmanaged Tropical Peat Forest",null,{"$f":"Lists!J109","v":"Medium intensity managed SRF Conifer, rotation length 25 years"},{"$f":"Lists!J110","v":"South USA"},"Medium intensity managed SRF Conifer, rotation length 25 years:South USA",null,{"$f":"I27","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand:South USA"},{"$f":"Lists!C127","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand:South USA:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years",null,{"$f":"'Land Data'!A804","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation"},{"$f":"'Land Data'!AL805","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"P27","v":"LRF Conifer for wood products and bioenergy:Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!E447","v":"Remove from land and burn"},"LRF Conifer for wood products and bioenergy:Woody Debris (25 wt% moisture). Continuous removal.:Remove from land and burn",null,{"$f":"T27","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!H531","v":"Pelletise only (no drying)"},"Saw logs (50 wt% moisture):Pelletise only (no drying)",null,{"$f":"X27","v":"Chip, natural dry, dry, pelletise"},{"$f":"Lists!$A$539","v":"Biomass"},"Chip, natural dry, dry, pelletise:Biomass",null,null,null,{"$f":"Lists!E570","v":"SRC Pellets (10% moisture)"},{"$f":"Lists!E571","v":"BioSNG"},"SRC Pellets (10% moisture):BioSNG",null,null,null,null,null,null,null,null,{"$f":"Lists!C266","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand:Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"Lists!D266","v":"No peat drainage"},"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand:Intensely managed SRF Conifer, rotation length 25 years:No peat drainage"]
[{"$f":"A28","v":"Unmanaged Forests"},{"$f":"Lists!D85","v":"Unmanaged Tropical Non-Peat Rainforest"},"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest",null,{"$f":"Lists!K109","v":"Newly Abandoned LRF Conifer, residues unused"},{"$f":"Lists!K110","v":"South USA"},"Newly Abandoned LRF Conifer, residues unused:South USA",null,{"$f":"Lists!A128","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting:South USA"},{"$f":"Lists!B128","v":"Intensely managed SRF Conifer, rotation length 25 years"},"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting:South USA:Intensely managed SRF Conifer, rotation length 25 years",null,{"$f":"'Land Data'!A808","v":"Conversion of LRF Conifer to SRC Willow over 3 y"},{"$f":"'Land Data'!AL809","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Conversion of LRF Conifer to SRC Willow over 3 y:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"Lists!C448","v":"LRF Conifer for wood products and bioenergy:Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"Lists!D448","v":"Leave residues to decay in forest"},"LRF Conifer for wood products and bioenergy:Woody Debris (25 wt% moisture). Remove for 15 years only.:Leave residues to decay in forest",null,"Saw logs (50 wt% moisture)",{"$f":"Lists!H532","v":"Natural dry, dry and pelletise"},"Saw logs (50 wt% moisture):Natural dry, dry and pelletise",null,{"$f":"X28","v":"Chip, natural dry, dry, pelletise"},{"$f":"Lists!$A$540","v":"Diesel"},"Chip, natural dry, dry, pelletise:Diesel",null,null,null,{"$f":"AD28","v":"SRC Pellets (10% moisture)"},{"$f":"Lists!E572","v":"BtL"},"SRC Pellets (10% moisture):BtL",null,null,null,null,null,null,null,null,{"$f":"Lists!C267","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"Lists!D267","v":"No peat drainage"},"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years:No peat drainage"]
["Unmanaged Forests",{"$f":"Lists!D86","v":"Old Growth Fast Growing Conifer (> 200 years old)"},"Unmanaged Forests:Old Growth Fast Growing Conifer (> 200 years old)",null,{"$f":"E29","v":"Newly Abandoned LRF Conifer, residues unused"},{"$f":"Lists!K111","v":"North West USA"},"Newly Abandoned LRF Conifer, residues unused:North West USA",null,{"$f":"I29","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting:South USA"},{"$f":"Lists!C128","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting:South USA:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years",null,{"$f":"'Land Data'!A812","v":"Conversion of LRF Conifer to SRC Willow over 50 y"},{"$f":"'Land Data'!AL813","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Conversion of LRF Conifer to SRC Willow over 50 y:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"P29","v":"LRF Conifer for wood products and bioenergy:Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"Lists!E448","v":"Remove from land and burn"},"LRF Conifer for wood products and bioenergy:Woody Debris (25 wt% moisture). Remove for 15 years only.:Remove from land and burn",null,"Saw logs (50 wt% moisture)",{"$f":"Lists!H533","v":"Dry and pelletise"},"Saw logs (50 wt% moisture):Dry and pelletise",null,"Chip, natural dry, dry, pelletise",{"$f":"Lists!$A$541","v":"Natural Gas"},"Chip, natural dry, dry, pelletise:Natural Gas",null,null,null,{"$f":"AD29","v":"SRC Pellets (10% moisture)"},{"$f":"Lists!E573","v":"Ethanol"},"SRC Pellets (10% moisture):Ethanol",null,null,null,null,null,null,null,null,{"$f":"Lists!C268","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting:Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"Lists!D268","v":"No peat drainage"},"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting:Intensely managed SRF Conifer, rotation length 25 years:No peat drainage"]
["Unmanaged Forests",{"$f":"Lists!D87","v":"Old Growth Slow Growing Conifer (> 200 years old)"},"Unmanaged Forests:Old Growth Slow Growing Conifer (> 200 years old)",null,{"$f":"E30","v":"Newly Abandoned LRF Conifer, residues unused"},{"$f":"Lists!K112","v":"Pacific Canada"},"Newly Abandoned LRF Conifer, residues unused:Pacific Canada",null,{"$f":"Lists!A129","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation:South USA"},{"$f":"Lists!B129","v":"Intensely managed SRF Conifer, rotation length 25 years"},"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation:South USA:Intensely managed SRF Conifer, rotation length 25 years",null,{"$f":"'Land Data'!A816","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation"},{"$f":"'Land Data'!AL817","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"Lists!C449","v":"Intensely managed SRF Conifer, rotation length 25 years:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$D$449","v":"Leave forest in previous management"},"Intensely managed SRF Conifer, rotation length 25 years:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,{"$f":"Lists!K528","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!K529","v":"Natural dry and chip"},"Small Roundwood (50 wt% moisture):Natural dry and chip",null,{"$f":"Lists!A504","v":"Pelletise only (no drying)"},{"$f":"Lists!$A$538","v":"Natural or No Drying"},"Pelletise only (no drying):Natural or No Drying",null,null,null,"SRC Pellets (10% moisture)",{"$f":"Lists!E574","v":"Gas from Slow Pyrolysis (Biochar co-product)"},"SRC Pellets (10% moisture):Gas from Slow Pyrolysis (Biochar co-product)",null,null,null,null,null,null,null,null,{"$f":"Lists!C269","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"Lists!D269","v":"No peat drainage"},"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years:No peat drainage"]
[{"$f":"Lists!E82","v":"Non-Forest Natural Ecosystems"},{"$f":"Lists!E83","v":"Northern Peatland"},"Non-Forest Natural Ecosystems:Northern Peatland",null,"Newly Abandoned LRF Conifer, residues unused",{"$f":"Lists!K113","v":"Interior Canada"},"Newly Abandoned LRF Conifer, residues unused:Interior Canada",null,{"$f":"I31","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation:South USA"},{"$f":"Lists!C129","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation:South USA:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years",null,{"$f":"'Land Data'!A820","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation"},{"$f":"'Land Data'!AL821","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"Lists!C450","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$D$449","v":"Leave forest in previous management"},"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,{"$f":"T31","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!K530","v":"Chip, dry and pelletise"},"Small Roundwood (50 wt% moisture):Chip, dry and pelletise",null,{"$f":"Lists!A505","v":"Sillage "},{"$f":"Lists!$A$538","v":"Natural or No Drying"},"Sillage :Natural or No Drying",null,null,null,"SRC Pellets (10% moisture)",{"$f":"Lists!E575","v":"CHP"},"SRC Pellets (10% moisture):CHP",null,null,null,null,null,null,null,null,{"$f":"Lists!C270","v":"Intensely managed SRF Conifer, rotation length 25 years:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"Lists!D270","v":"No peat drainage"},"Intensely managed SRF Conifer, rotation length 25 years:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years:No peat drainage"]
[{"$f":"A32","v":"Non-Forest Natural Ecosystems"},{"$f":"Lists!E84","v":"Marsh and Swamp "},"Non-Forest Natural Ecosystems:Marsh and Swamp ",null,"Newly Abandoned LRF Conifer, residues unused",{"$f":"Lists!K114","v":"Boreal North Canada"},"Newly Abandoned LRF Conifer, residues unused:Boreal North Canada",null,{"$f":"Lists!A130","v":"Intensely managed SRF Conifer, rotation length 25 years:South USA"},{"$f":"Lists!B130","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},"Intensely managed SRF Conifer, rotation length 25 years:South USA:Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years",null,{"$f":"'Land Data'!A824","v":"Conversion of LRF Broadleaf to SRC Willow over 3 y"},{"$f":"'Land Data'!AL825","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Conversion of LRF Broadleaf to SRC Willow over 3 y:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"Lists!C451","v":"LRF Conifer for Bioenergy, residues unused:All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"Lists!D451","v":"Leave the land unharvested/unmanaged"},"LRF Conifer for Bioenergy, residues unused:All the wood harvested over the rotation (50 wt% moisture):Leave the land unharvested/unmanaged",null,{"$f":"Lists!L528","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!L529","v":"Natural dry and chip"},"Woody Debris (25 wt% moisture). Continuous removal.:Natural dry and chip",null,{"$f":"Lists!A506","v":"Oil Extraction "},{"$f":"Lists!$A$538","v":"Natural or No Drying"},"Oil Extraction :Natural or No Drying",null,null,null,"SRC Pellets (10% moisture)",{"$f":"Lists!E576","v":"Heat from Biomass Boiler"},"SRC Pellets (10% moisture):Heat from Biomass Boiler",null,null,null,null,null,null,null,null,{"$f":"Lists!C271","v":"Medium intensity managed SRF Conifer, rotation length 25 years:SRF Conifer, increased management intensity, 25 year rotation"},{"$f":"Lists!D271","v":"No peat drainage"},"Medium intensity managed SRF Conifer, rotation length 25 years:SRF Conifer, increased management intensity, 25 year rotation:No peat drainage"]
[{"$f":"A33","v":"Non-Forest Natural Ecosystems"},{"$f":"Lists!E85","v":"Tundra Woodland"},"Non-Forest Natural Ecosystems:Tundra Woodland",null,{"$f":"Lists!L109","v":"LRF Broadleaf for wood products, residues unused"},{"$f":"Lists!L110","v":"UK"},"LRF Broadleaf for wood products, residues unused:UK",null,{"$f":"Lists!A131","v":"Medium intensity managed SRF Conifer, rotation length 25 years:South USA"},{"$f":"Lists!B131","v":"SRF Conifer, increased management intensity, 25 year rotation"},"Medium intensity managed SRF Conifer, rotation length 25 years:South USA:SRF Conifer, increased management intensity, 25 year rotation",null,{"$f":"'Land Data'!A828","v":"Conversion of LRF Broadleaf to SRC Willow over 70 y"},{"$f":"'Land Data'!AL829","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Conversion of LRF Broadleaf to SRC Willow over 70 y:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"P33","v":"LRF Conifer for Bioenergy, residues unused:All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"Lists!E451","v":"Leave dead trees to decay in forest"},"LRF Conifer for Bioenergy, residues unused:All the wood harvested over the rotation (50 wt% moisture):Leave dead trees to decay in forest",null,{"$f":"T33","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!L530","v":"Chip, dry and pelletise"},"Woody Debris (25 wt% moisture). Continuous removal.:Chip, dry and pelletise",null,null,null,null,null,null,null,"SRC Pellets (10% moisture)",{"$f":"Lists!E577","v":"Co-fire Bioelectricity"},"SRC Pellets (10% moisture):Co-fire Bioelectricity",null,null,null,null,null,null,null,null,{"$f":"Lists!C272","v":"Newly Abandoned LRF Conifer, residues unused:LRF Conifer for Bioenergy, residues unused"},{"$f":"Lists!D272","v":"No peat drainage"},"Newly Abandoned LRF Conifer, residues unused:LRF Conifer for Bioenergy, residues unused:No peat drainage"]
["Non-Forest Natural Ecosystems",{"$f":"Lists!E86","v":"Temperate shrub land "},"Non-Forest Natural Ecosystems:Temperate shrub land ",null,{"$f":"E34","v":"LRF Broadleaf for wood products, residues unused"},{"$f":"Lists!L111","v":"North-East USA"},"LRF Broadleaf for wood products, residues unused:North-East USA",null,{"$f":"Lists!A132","v":"Newly Abandoned LRF Conifer, residues unused:South USA"},{"$f":"Lists!B132","v":"LRF Conifer for Bioenergy, residues unused"},"Newly Abandoned LRF Conifer, residues unused:South USA:LRF Conifer for Bioenergy, residues unused",null,{"$f":"'Land Data'!A832","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},{"$f":"'Land Data'!AL833","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Newly Established Intensively managed SRF Conifer, 25 years rotation:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"Lists!C452","v":"Newly Managed LRF Conifer (slow growing):All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"Lists!D452","v":"Leave the land unharvested/unmanaged"},"Newly Managed LRF Conifer (slow growing):All the wood harvested over the rotation (50 wt% moisture):Leave the land unharvested/unmanaged",null,{"$f":"Lists!M528","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"Lists!M529","v":"Natural dry and chip"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Natural dry and chip",null,null,null,null,null,null,null,"SRC Pellets (10% moisture)",{"$f":"Lists!E578","v":"Dedicated Bioelectricity"},"SRC Pellets (10% moisture):Dedicated Bioelectricity",null,null,null,null,null,null,null,null,{"$f":"Lists!C273","v":"Newly Abandoned LRF Conifer, residues unused:SRC Willow Plantation"},{"$f":"Lists!D273","v":"No peat drainage"},"Newly Abandoned LRF Conifer, residues unused:SRC Willow Plantation:No peat drainage"]
["Non-Forest Natural Ecosystems",{"$f":"Lists!E87","v":"Temperate grassland (e.g. Steppes, grassland praires)"},"Non-Forest Natural Ecosystems:Temperate grassland (e.g. Steppes, grassland praires)",null,{"$f":"E35","v":"LRF Broadleaf for wood products, residues unused"},{"$f":"Lists!L112","v":"North USA"},"LRF Broadleaf for wood products, residues unused:North USA",null,{"$f":"I35","v":"Newly Abandoned LRF Conifer, residues unused:South USA"},{"$f":"Lists!C132","v":"SRC Willow Plantation"},"Newly Abandoned LRF Conifer, residues unused:South USA:SRC Willow Plantation",null,{"$f":"'Land Data'!A840","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"'Land Data'!AL841","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"Newly Established Intensively managed SRF Conifer, 20 years rotation:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"Lists!C453","v":"Newly Managed LRF Conifer (fast growing):All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"Lists!D453","v":"Leave the land unharvested/unmanaged"},"Newly Managed LRF Conifer (fast growing):All the wood harvested over the rotation (50 wt% moisture):Leave the land unharvested/unmanaged",null,{"$f":"T35","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"Lists!M530","v":"Chip, dry and pelletise"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Chip, dry and pelletise",null,null,null,null,null,null,null,"SRC Pellets (10% moisture)",{"$f":"Lists!E579","v":"Dedicated Bioelectricity with CCS"},"SRC Pellets (10% moisture):Dedicated Bioelectricity with CCS",null,null,null,null,null,null,null,null,{"$f":"AO35","v":"Newly Abandoned LRF Conifer, residues unused:SRC Willow Plantation"},{"$f":"Lists!E273","v":"Peat soil which requires drainage"},"Newly Abandoned LRF Conifer, residues unused:SRC Willow Plantation:Peat soil which requires drainage"]
["Non-Forest Natural Ecosystems",{"$f":"Lists!E88","v":"Tropical Woody Savannah"},"Non-Forest Natural Ecosystems:Tropical Woody Savannah",null,"LRF Broadleaf for wood products, residues unused",{"$f":"Lists!L113","v":"East Canada"},"LRF Broadleaf for wood products, residues unused:East Canada",null,{"$f":"I36","v":"Newly Abandoned LRF Conifer, residues unused:South USA"},{"$f":"Lists!D132","v":"Miscanthus Plantation"},"Newly Abandoned LRF Conifer, residues unused:South USA:Miscanthus Plantation",null,{"$f":"'Land Data'!A848","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"'Land Data'!AL849","v":"Saw logs (50 wt% moisture)"},"LRF Broadleaf for wood products and bioenergy:Saw logs (50 wt% moisture)",{"$f":"Lists!C454","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D454","v":"Leave the land unharvested/unmanaged"},"Newly Established Intensively managed SRF Conifer, 20 years rotation:All additional wood compared to counterfactual (50 wt% moisture):Leave the land unharvested/unmanaged",null,{"$f":"Lists!N528","v":"SRC Chips (50 wt% moisture)"},{"$f":"Lists!N529","v":"Dry"},"SRC Chips (50 wt% moisture):Dry",null,null,null,null,null,null,null,{"$f":"Lists!F570","v":"Miscanthus Chips (10 wt% moisture)"},{"$f":"Lists!F571","v":"BioSNG"},"Miscanthus Chips (10 wt% moisture):BioSNG",null,null,null,null,null,null,null,null,{"$f":"Lists!C274","v":"Newly Abandoned LRF Conifer, residues unused:Miscanthus Plantation"},{"$f":"Lists!D274","v":"No peat drainage"},"Newly Abandoned LRF Conifer, residues unused:Miscanthus Plantation:No peat drainage"]
["Non-Forest Natural Ecosystems",{"$f":"Lists!E89","v":"Tropical Grassland Savannah"},"Non-Forest Natural Ecosystems:Tropical Grassland Savannah",null,"LRF Broadleaf for wood products, residues unused",{"$f":"Lists!L114","v":"South USA"},"LRF Broadleaf for wood products, residues unused:South USA",null,"Newly Abandoned LRF Conifer, residues unused:South USA",{"$f":"Lists!E132","v":"Maize Cropland"},"Newly Abandoned LRF Conifer, residues unused:South USA:Maize Cropland",null,{"$f":"M37","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"'Land Data'!AM849","v":"Small Roundwood (50 wt% moisture)"},"LRF Broadleaf for wood products and bioenergy:Small Roundwood (50 wt% moisture)",{"$f":"Lists!C455","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D455","v":"Leave the land unharvested/unmanaged"},"Newly Established Intensively managed SRF Conifer, 25 years rotation:All additional wood compared to counterfactual (50 wt% moisture):Leave the land unharvested/unmanaged",null,{"$f":"T37","v":"SRC Chips (50 wt% moisture)"},{"$f":"Lists!N530","v":"Dry and pelletise"},"SRC Chips (50 wt% moisture):Dry and pelletise",null,null,null,null,null,null,null,{"$f":"AD37","v":"Miscanthus Chips (10 wt% moisture)"},{"$f":"Lists!F572","v":"BtL"},"Miscanthus Chips (10 wt% moisture):BtL",null,null,null,null,null,null,null,null,{"$f":"AO37","v":"Newly Abandoned LRF Conifer, residues unused:Miscanthus Plantation"},{"$f":"Lists!E274","v":"Peat soil which requires drainage"},"Newly Abandoned LRF Conifer, residues unused:Miscanthus Plantation:Peat soil which requires drainage"]
[{"$f":"Lists!F82","v":"Abandoned Annual Crop Land"},{"$f":"Lists!F83","v":"Land reverting to Tropical Rainforest"},"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest",null,{"$f":"Lists!M109","v":"LRF Broadleaf for wood products, 50% residues used"},{"$f":"Lists!M110","v":"East Canada"},"LRF Broadleaf for wood products, 50% residues used:East Canada",null,{"$f":"Lists!A133","v":"Newly Abandoned LRF Conifer, residues unused:North West USA"},{"$f":"Lists!B133","v":"LRF Conifer for Bioenergy, residues unused"},"Newly Abandoned LRF Conifer, residues unused:North West USA:LRF Conifer for Bioenergy, residues unused",null,{"$f":"M38","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"'Land Data'!AN849","v":"Woody Debris (25 wt% moisture). Continuous removal."},"LRF Broadleaf for wood products and bioenergy:Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"Lists!C456","v":"LRF Conifer, rotation length reduced to 50y:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D456","v":"Leave forest in previous management"},"LRF Conifer, rotation length reduced to 50y:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,{"$f":"Lists!O528","v":"Miscanthus Chips (30 wt% moisture)"},{"$f":"Lists!O529","v":"Dry"},"Miscanthus Chips (30 wt% moisture):Dry",null,null,null,null,null,null,null,{"$f":"AD38","v":"Miscanthus Chips (10 wt% moisture)"},{"$f":"Lists!F573","v":"Ethanol"},"Miscanthus Chips (10 wt% moisture):Ethanol",null,null,null,null,null,null,null,null,{"$f":"Lists!C275","v":"Newly Abandoned LRF Conifer, residues unused:Maize Cropland"},{"$f":"Lists!D275","v":"No peat drainage"},"Newly Abandoned LRF Conifer, residues unused:Maize Cropland:No peat drainage"]
[{"$f":"A39","v":"Abandoned Annual Crop Land"},{"$f":"Lists!F84","v":"Land reverting to Tropical Moist Deciduous Forest"},"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest",null,{"$f":"Lists!N109","v":"Newly Abandoned LRF Broadleaf, residues unused"},{"$f":"Lists!N110","v":"North-East USA"},"Newly Abandoned LRF Broadleaf, residues unused:North-East USA",null,{"$f":"I39","v":"Newly Abandoned LRF Conifer, residues unused:North West USA"},{"$f":"Lists!C133","v":"SRC Willow Plantation"},"Newly Abandoned LRF Conifer, residues unused:North West USA:SRC Willow Plantation",null,"LRF Broadleaf for wood products and bioenergy",{"$f":"'Land Data'!AO849","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},"LRF Broadleaf for wood products and bioenergy:Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"Lists!C457","v":"LRF Conifer, rotation length reduced to 50y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},{"$f":"Lists!D457","v":"Leave forest in previous management"},"LRF Conifer, rotation length reduced to 50y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Leave forest in previous management",null,{"$f":"T39","v":"Miscanthus Chips (30 wt% moisture)"},{"$f":"Lists!O530","v":"Dry and pelletise"},"Miscanthus Chips (30 wt% moisture):Dry and pelletise",null,null,null,null,null,null,null,"Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!F574","v":"Gas from Slow Pyrolysis (Biochar co-product)"},"Miscanthus Chips (10 wt% moisture):Gas from Slow Pyrolysis (Biochar co-product)",null,null,null,null,null,null,null,null,{"$f":"AO39","v":"Newly Abandoned LRF Conifer, residues unused:Maize Cropland"},{"$f":"Lists!E275","v":"Peat soil which requires drainage"},"Newly Abandoned LRF Conifer, residues unused:Maize Cropland:Peat soil which requires drainage"]
[{"$f":"A40","v":"Abandoned Annual Crop Land"},{"$f":"Lists!F85","v":"Land reverting to Tropical Dry Forest"},"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest",null,{"$f":"E40","v":"Newly Abandoned LRF Broadleaf, residues unused"},{"$f":"Lists!N111","v":"North USA"},"Newly Abandoned LRF Broadleaf, residues unused:North USA",null,{"$f":"I40","v":"Newly Abandoned LRF Conifer, residues unused:North West USA"},{"$f":"Lists!D133","v":"Miscanthus Plantation"},"Newly Abandoned LRF Conifer, residues unused:North West USA:Miscanthus Plantation",null,{"$f":"'Land Data'!A868","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"'Land Data'!AL869","v":"All the wood harvested over the rotation (50 wt% moisture)"},"LRF Broadleaf for bioenergy, residues unused:All the wood harvested over the rotation (50 wt% moisture)",{"$f":"Lists!C458","v":"LRF Conifer, rotation length reduced to 80y:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D458","v":"Leave forest in previous management"},"LRF Conifer, rotation length reduced to 80y:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,{"$f":"Lists!P528","v":"Eucalyptus Roundwood (50 wt% moisture)"},{"$f":"Lists!P529","v":"Natural dry and chip"},"Eucalyptus Roundwood (50 wt% moisture):Natural dry and chip",null,null,null,null,null,null,null,"Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!F575","v":"CHP"},"Miscanthus Chips (10 wt% moisture):CHP",null,null,null,null,null,null,null,null,{"$f":"Lists!C276","v":"LRF Broadleaf for wood products, residues unused:LRF Broadleaf for wood products and bioenergy"},{"$f":"Lists!D276","v":"No peat drainage"},"LRF Broadleaf for wood products, residues unused:LRF Broadleaf for wood products and bioenergy:No peat drainage"]
["Abandoned Annual Crop Land",{"$f":"Lists!F86","v":"Land reverting to Tropical Mountain System"},"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System",null,{"$f":"E41","v":"Newly Abandoned LRF Broadleaf, residues unused"},{"$f":"Lists!N112","v":"East Canada"},"Newly Abandoned LRF Broadleaf, residues unused:East Canada",null,"Newly Abandoned LRF Conifer, residues unused:North West USA",{"$f":"Lists!E133","v":"Maize Cropland"},"Newly Abandoned LRF Conifer, residues unused:North West USA:Maize Cropland",null,{"$f":"'Land Data'!A880","v":"LRF Broadleaf, rotation length reduced to 50y"},{"$f":"'Land Data'!AL881","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"LRF Broadleaf, rotation length reduced to 50y:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"Lists!C459","v":"LRF Conifer, rotation length reduced to 80y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},{"$f":"Lists!D459","v":"Leave forest in previous management"},"LRF Conifer, rotation length reduced to 80y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Leave forest in previous management",null,{"$f":"T41","v":"Eucalyptus Roundwood (50 wt% moisture)"},{"$f":"Lists!P530","v":"Chip, dry and pelletise"},"Eucalyptus Roundwood (50 wt% moisture):Chip, dry and pelletise",null,null,null,null,null,null,null,"Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!F576","v":"Heat from Biomass Boiler"},"Miscanthus Chips (10 wt% moisture):Heat from Biomass Boiler",null,null,null,null,null,null,null,null,{"$f":"Lists!C277","v":"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation"},{"$f":"Lists!D277","v":"No peat drainage"},"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation:No peat drainage"]
["Abandoned Annual Crop Land",{"$f":"Lists!F87","v":"Land reverting to Tropical Woody Savanna"},"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna",null,{"$f":"Lists!O109","v":"LRF Broadleaf for wood products, rotation length increasing"},{"$f":"Lists!O110","v":"South USA"},"LRF Broadleaf for wood products, rotation length increasing:South USA",null,{"$f":"Lists!A134","v":"Newly Abandoned LRF Conifer, residues unused:Pacific Canada"},{"$f":"Lists!B134","v":"LRF Conifer for Bioenergy, residues unused"},"Newly Abandoned LRF Conifer, residues unused:Pacific Canada:LRF Conifer for Bioenergy, residues unused",null,{"$f":"M42","v":"LRF Broadleaf, rotation length reduced to 50y"},{"$f":"'Land Data'!AM881","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},"LRF Broadleaf, rotation length reduced to 50y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"Lists!C460","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D460","v":"Leave forest in previous management"},"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,{"$f":"Lists!Q528","v":"Palm Fruit (34 wt% moisture)"},{"$f":"Lists!Q529","v":"Oil Extraction "},"Palm Fruit (34 wt% moisture):Oil Extraction ",null,null,null,null,null,null,null,"Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!F577","v":"Co-fire Bioelectricity"},"Miscanthus Chips (10 wt% moisture):Co-fire Bioelectricity",null,null,null,null,null,null,null,null,{"$f":"AO42","v":"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation"},{"$f":"Lists!E277","v":"Peat soil which requires drainage"},"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation:Peat soil which requires drainage"]
["Abandoned Annual Crop Land",{"$f":"Lists!F88","v":"Land reverting to Temperate Oceanic Forest"},"Abandoned Annual Crop Land:Land reverting to Temperate Oceanic Forest",null,{"$f":"Lists!P109","v":"Unmanaged Temperate Broadleaf"},{"$f":"Lists!P110","v":"UK"},"Unmanaged Temperate Broadleaf:UK",null,{"$f":"I43","v":"Newly Abandoned LRF Conifer, residues unused:Pacific Canada"},{"$f":"Lists!C134","v":"SRC Willow Plantation"},"Newly Abandoned LRF Conifer, residues unused:Pacific Canada:SRC Willow Plantation",null,{"$f":"'Land Data'!A884","v":"LRF Broadleaf, rotation length reduced to 80y"},{"$f":"'Land Data'!AL885","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"LRF Broadleaf, rotation length reduced to 80y:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"Lists!C461","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D461","v":"Leave forest in previous management"},"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,{"$f":"Lists!R528","v":"Maize Whole Crop (70 wt% moisture)"},{"$f":"Lists!R529","v":"Sillage "},"Maize Whole Crop (70 wt% moisture):Sillage ",null,null,null,null,null,null,null,"Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!F578","v":"Dedicated Bioelectricity"},"Miscanthus Chips (10 wt% moisture):Dedicated Bioelectricity",null,null,null,null,null,null,null,null,{"$f":"Lists!C278","v":"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation"},{"$f":"Lists!D278","v":"No peat drainage"},"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation:No peat drainage"]
["Abandoned Annual Crop Land",{"$f":"Lists!F89","v":"Land reverting to Temperate Continental Forest"},"Abandoned Annual Crop Land:Land reverting to Temperate Continental Forest",null,{"$f":"Lists!Q109","v":"Unmanaged Tropical Peat Forest"},{"$f":"Lists!Q110","v":"Africa (tropical wet region)"},"Unmanaged Tropical Peat Forest:Africa (tropical wet region)",null,{"$f":"I44","v":"Newly Abandoned LRF Conifer, residues unused:Pacific Canada"},{"$f":"Lists!D134","v":"Miscanthus Plantation"},"Newly Abandoned LRF Conifer, residues unused:Pacific Canada:Miscanthus Plantation",null,{"$f":"M44","v":"LRF Broadleaf, rotation length reduced to 80y"},{"$f":"'Land Data'!AM885","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},"LRF Broadleaf, rotation length reduced to 80y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"Lists!C462","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D462","v":"Leave forest in previous management"},"Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,null,null,null,null,null,null,null,null,null,null,"Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!F579","v":"Dedicated Bioelectricity with CCS"},"Miscanthus Chips (10 wt% moisture):Dedicated Bioelectricity with CCS",null,null,null,null,null,null,null,null,{"$f":"AO44","v":"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation"},{"$f":"Lists!E278","v":"Peat soil which requires drainage"},"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation:Peat soil which requires drainage"]
["Abandoned Annual Crop Land",{"$f":"Lists!F90","v":"Land reverting to Temperate Mountain System"},"Abandoned Annual Crop Land:Land reverting to Temperate Mountain System",null,{"$f":"E45","v":"Unmanaged Tropical Peat Forest"},{"$f":"Lists!Q111","v":"North America (tropical wet region)"},"Unmanaged Tropical Peat Forest:North America (tropical wet region)",null,"Newly Abandoned LRF Conifer, residues unused:Pacific Canada",{"$f":"Lists!E134","v":"Maize Cropland"},"Newly Abandoned LRF Conifer, residues unused:Pacific Canada:Maize Cropland",null,{"$f":"'Land Data'!A888","v":"LRF Broadleaf, rotation length reduced to 60y"},{"$f":"'Land Data'!AL889","v":"All additional wood compared to counterfactual (50 wt% moisture)"},"LRF Broadleaf, rotation length reduced to 60y:All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"Lists!C463","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D463","v":"Leave forest in previous management"},"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!G570","v":"Miscanthus Pellets (10% moisture)"},{"$f":"Lists!G571","v":"BioSNG"},"Miscanthus Pellets (10% moisture):BioSNG",null,null,null,null,null,null,null,null,{"$f":"Lists!C279","v":"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to SRC Willow over 3 y"},{"$f":"Lists!D279","v":"No peat drainage"},"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to SRC Willow over 3 y:No peat drainage"]
["Abandoned Annual Crop Land",{"$f":"Lists!F91","v":"Land reverting to Temperate Shrub or Grassland"},"Abandoned Annual Crop Land:Land reverting to Temperate Shrub or Grassland",null,{"$f":"E46","v":"Unmanaged Tropical Peat Forest"},{"$f":"Lists!Q112","v":"South America (tropical wet region)"},"Unmanaged Tropical Peat Forest:South America (tropical wet region)",null,{"$f":"Lists!A135","v":"Newly Abandoned LRF Conifer, residues unused:Interior Canada"},{"$f":"Lists!B135","v":"LRF Conifer for Bioenergy, residues unused"},"Newly Abandoned LRF Conifer, residues unused:Interior Canada:LRF Conifer for Bioenergy, residues unused",null,{"$f":"M46","v":"LRF Broadleaf, rotation length reduced to 60y"},{"$f":"'Land Data'!AM889","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},"LRF Broadleaf, rotation length reduced to 60y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"Lists!C464","v":"Conversion of LRF Conifer to SRC Willow over 3 y:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D464","v":"Leave forest in previous management"},"Conversion of LRF Conifer to SRC Willow over 3 y:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,null,null,null,null,null,null,null,null,null,null,{"$f":"AD46","v":"Miscanthus Pellets (10% moisture)"},{"$f":"Lists!G572","v":"BtL"},"Miscanthus Pellets (10% moisture):BtL",null,null,null,null,null,null,null,null,{"$f":"AO46","v":"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to SRC Willow over 3 y"},{"$f":"Lists!E279","v":"Peat soil which requires drainage"},"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to SRC Willow over 3 y:Peat soil which requires drainage"]
["Abandoned Annual Crop Land",{"$f":"Lists!F92","v":"Land reverting to Boreal Coniferous Forest"},"Abandoned Annual Crop Land:Land reverting to Boreal Coniferous Forest",null,{"$f":"E47","v":"Unmanaged Tropical Peat Forest"},{"$f":"Lists!Q113","v":"Asia Continental (tropical wet region)"},"Unmanaged Tropical Peat Forest:Asia Continental (tropical wet region)",null,{"$f":"I47","v":"Newly Abandoned LRF Conifer, residues unused:Interior Canada"},{"$f":"Lists!C135","v":"SRC Willow Plantation"},"Newly Abandoned LRF Conifer, residues unused:Interior Canada:SRC Willow Plantation",null,{"$f":"'Land Data'!A892","v":"LRF Broadleaf for wood products and bioenergy; rotation stays the same"},{"$f":"'Land Data'!AL893","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"M48&\":\"&N48","v":"LRF Broadleaf for wood products and bioenergy; rotation stays the same:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!C465","v":"Conversion of LRF Conifer to SRC Willow over 50 y:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D465","v":"Leave forest in previous management"},"Conversion of LRF Conifer to SRC Willow over 50 y:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,null,null,null,null,null,null,null,null,null,null,{"$f":"AD47","v":"Miscanthus Pellets (10% moisture)"},{"$f":"Lists!G573","v":"Ethanol"},"Miscanthus Pellets (10% moisture):Ethanol",null,null,null,null,null,null,null,null,{"$f":"Lists!C280","v":"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to SRC Willow over 70 y"},{"$f":"Lists!D280","v":"No peat drainage"},"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to SRC Willow over 70 y:No peat drainage"]
["Abandoned Annual Crop Land",{"$f":"Lists!F93","v":"Land reverting to Boreal Tundra"},"Abandoned Annual Crop Land:Land reverting to Boreal Tundra",null,{"$f":"E48","v":"Unmanaged Tropical Peat Forest"},{"$f":"Lists!Q114","v":"Asia Insular (tropical wet region)"},"Unmanaged Tropical Peat Forest:Asia Insular (tropical wet region)",null,{"$f":"I48","v":"Newly Abandoned LRF Conifer, residues unused:Interior Canada"},{"$f":"Lists!D135","v":"Miscanthus Plantation"},"Newly Abandoned LRF Conifer, residues unused:Interior Canada:Miscanthus Plantation",null,{"$f":"'Land Data'!A896","v":"Newly Managed LRF Broadleaf"},{"$f":"'Land Data'!AL897","v":"All additional wood created by new management (50 wt% moisture)"},"Newly Managed LRF Broadleaf:All additional wood created by new management (50 wt% moisture)",{"$f":"Lists!C466","v":"Conversion of LRF Broadleaf to SRC Willow over 3 y:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D466","v":"Leave forest in previous management"},"Conversion of LRF Broadleaf to SRC Willow over 3 y:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,null,null,null,null,null,null,null,null,null,null,"Miscanthus Pellets (10% moisture)",{"$f":"Lists!G574","v":"Gas from Slow Pyrolysis (Biochar co-product)"},"Miscanthus Pellets (10% moisture):Gas from Slow Pyrolysis (Biochar co-product)",null,null,null,null,null,null,null,null,{"$f":"AO48","v":"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to SRC Willow over 70 y"},{"$f":"Lists!E280","v":"Peat soil which requires drainage"},"LRF Broadleaf for wood products, residues unused:Conversion of LRF Broadleaf to SRC Willow over 70 y:Peat soil which requires drainage"]
["Abandoned Annual Crop Land",{"$f":"Lists!F94","v":"Land reverting to Boreal Mountain System"},"Abandoned Annual Crop Land:Land reverting to Boreal Mountain System",null,{"$f":"Lists!R109","v":"Unmanaged Tropical Non-Peat Rainforest"},{"$f":"Lists!R110","v":"Africa (tropical wet region)"},"Unmanaged Tropical Non-Peat Rainforest:Africa (tropical wet region)",null,"Newly Abandoned LRF Conifer, residues unused:Interior Canada",{"$f":"Lists!E135","v":"Maize Cropland"},"Newly Abandoned LRF Conifer, residues unused:Interior Canada:Maize Cropland",null,{"$f":"'Land Data'!A900","v":"SRC Willow Plantation"},{"$f":"'Land Data'!AL901","v":"SRC Chips (50 wt% moisture)"},"SRC Willow Plantation:SRC Chips (50 wt% moisture)",{"$f":"Lists!C467","v":"Conversion of LRF Broadleaf to SRC Willow over 70 y:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D467","v":"Leave forest in previous management"},"Conversion of LRF Broadleaf to SRC Willow over 70 y:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,null,null,null,null,null,null,null,null,null,null,"Miscanthus Pellets (10% moisture)",{"$f":"Lists!G575","v":"CHP"},"Miscanthus Pellets (10% moisture):CHP",null,null,null,null,null,null,null,null,{"$f":"Lists!C281","v":"LRF Broadleaf for wood products, residues unused:LRF Broadleaf, rotation length reduced to 60y"},{"$f":"Lists!D281","v":"No peat drainage"},"LRF Broadleaf for wood products, residues unused:LRF Broadleaf, rotation length reduced to 60y:No peat drainage"]
[{"$f":"Lists!G82","v":"Abandoned Perennial Cropland"},{"$f":"Lists!G83","v":"Land reverting to Tropical Rainforest"},"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest",null,{"$f":"E50","v":"Unmanaged Tropical Non-Peat Rainforest"},{"$f":"Lists!R111","v":"North America (tropical wet region)"},"Unmanaged Tropical Non-Peat Rainforest:North America (tropical wet region)",null,{"$f":"Lists!A136","v":"Newly Abandoned LRF Conifer, residues unused:Boreal North Canada"},{"$f":"Lists!B136","v":"LRF Conifer for Bioenergy, residues unused"},"Newly Abandoned LRF Conifer, residues unused:Boreal North Canada:LRF Conifer for Bioenergy, residues unused",null,{"$f":"'Land Data'!A988","v":"Miscanthus Plantation"},{"$f":"'Land Data'!AL989","v":"Miscanthus Chips (30 wt% moisture)"},"Miscanthus Plantation:Miscanthus Chips (30 wt% moisture)",{"$f":"Lists!C468","v":"SRF Conifer, increased management intensity, 25 year rotation:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D468","v":"Leave forest in previous management"},"SRF Conifer, increased management intensity, 25 year rotation:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,null,null,null,null,null,null,null,null,null,null,"Miscanthus Pellets (10% moisture)",{"$f":"Lists!G576","v":"Heat from Biomass Boiler"},"Miscanthus Pellets (10% moisture):Heat from Biomass Boiler",null,null,null,null,null,null,null,null,{"$f":"Lists!C282","v":"LRF Broadleaf for wood products, 50% residues used:LRF Broadleaf, rotation length reduced to 50y"},{"$f":"Lists!D282","v":"No peat drainage"},"LRF Broadleaf for wood products, 50% residues used:LRF Broadleaf, rotation length reduced to 50y:No peat drainage"]
[{"$f":"A51","v":"Abandoned Perennial Cropland"},{"$f":"Lists!G84","v":"Land reverting to Tropical Moist Deciduous Forest"},"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest",null,{"$f":"E51","v":"Unmanaged Tropical Non-Peat Rainforest"},{"$f":"Lists!R112","v":"South America (tropical wet region)"},"Unmanaged Tropical Non-Peat Rainforest:South America (tropical wet region)",null,{"$f":"I51","v":"Newly Abandoned LRF Conifer, residues unused:Boreal North Canada"},{"$f":"Lists!C136","v":"SRC Willow Plantation"},"Newly Abandoned LRF Conifer, residues unused:Boreal North Canada:SRC Willow Plantation",null,{"$f":"'Land Data'!A1068","v":"SRF Eucalyptus Plantation"},{"$f":"'Land Data'!AL1069","v":"Eucalyptus Roundwood (50 wt% moisture)"},"SRF Eucalyptus Plantation:Eucalyptus Roundwood (50 wt% moisture)",{"$f":"Lists!C469","v":"LRF Broadleaf for wood products and bioenergy:Saw logs (50 wt% moisture)"},{"$f":"Lists!D469","v":"Sawn Timber (replacing upvc window), off cuts to particle board (replacing breeze blocks)"},{"$f":"P52&\":\"&Q52","v":"LRF Broadleaf for wood products and bioenergy:Saw logs (50 wt% moisture):Sawn Timber (replacing upvc window), off cuts to particle board (replacing breeze blocks)"},null,null,null,null,null,null,null,null,null,null,null,"Miscanthus Pellets (10% moisture)",{"$f":"Lists!G577","v":"Co-fire Bioelectricity"},"Miscanthus Pellets (10% moisture):Co-fire Bioelectricity",null,null,null,null,null,null,null,null,{"$f":"Lists!C283","v":"LRF Broadleaf for wood products, 50% residues used:LRF Broadleaf, rotation length reduced to 80y"},{"$f":"Lists!D283","v":"No peat drainage"},"LRF Broadleaf for wood products, 50% residues used:LRF Broadleaf, rotation length reduced to 80y:No peat drainage"]
[{"$f":"A52","v":"Abandoned Perennial Cropland"},{"$f":"Lists!G85","v":"Land reverting to Tropical Dry Forest"},"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest",null,"Unmanaged Tropical Non-Peat Rainforest",{"$f":"Lists!R113","v":"Asia Continental (tropical wet region)"},"Unmanaged Tropical Non-Peat Rainforest:Asia Continental (tropical wet region)",null,{"$f":"I52","v":"Newly Abandoned LRF Conifer, residues unused:Boreal North Canada"},{"$f":"Lists!D136","v":"Miscanthus Plantation"},"Newly Abandoned LRF Conifer, residues unused:Boreal North Canada:Miscanthus Plantation",null,{"$f":"'Land Data'!A1148","v":"Palm Plantation"},{"$f":"'Land Data'!AL1149","v":"Palm Fruit (34 wt% moisture)"},"Palm Plantation:Palm Fruit (34 wt% moisture)",{"$f":"P52","v":"LRF Broadleaf for wood products and bioenergy:Saw logs (50 wt% moisture)"},{"$f":"Lists!E469","v":"Sawn Timber (replacing upvc window), off cuts to MDF (replacing plasterwork)"},"LRF Broadleaf for wood products and bioenergy:Saw logs (50 wt% moisture):Sawn Timber (replacing upvc window), off cuts to MDF (replacing plasterwork)",null,null,null,null,null,null,null,null,null,null,null,"Miscanthus Pellets (10% moisture)",{"$f":"Lists!G578","v":"Dedicated Bioelectricity"},"Miscanthus Pellets (10% moisture):Dedicated Bioelectricity",null,null,null,null,null,null,null,null,{"$f":"Lists!C284","v":"Newly Abandoned LRF Broadleaf, residues unused:LRF Broadleaf for bioenergy, residues unused"},{"$f":"Lists!D284","v":"No peat drainage"},"Newly Abandoned LRF Broadleaf, residues unused:LRF Broadleaf for bioenergy, residues unused:No peat drainage"]
["Abandoned Perennial Cropland",{"$f":"Lists!G86","v":"Land reverting to Tropical Mountain System"},"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System",null,"Unmanaged Tropical Non-Peat Rainforest",{"$f":"Lists!R114","v":"Asia Insular (tropical wet region)"},"Unmanaged Tropical Non-Peat Rainforest:Asia Insular (tropical wet region)",null,"Newly Abandoned LRF Conifer, residues unused:Boreal North Canada",{"$f":"Lists!E136","v":"Maize Cropland"},"Newly Abandoned LRF Conifer, residues unused:Boreal North Canada:Maize Cropland",null,{"$f":"'Land Data'!A1228","v":"Maize Cropland"},{"$f":"'Land Data'!AL1229","v":"Maize Whole Crop (70 wt% moisture)"},"Maize Cropland:Maize Whole Crop (70 wt% moisture)",{"$f":"P53","v":"LRF Broadleaf for wood products and bioenergy:Saw logs (50 wt% moisture)"},{"$f":"Lists!F469","v":"Displacing imported wood products"},"LRF Broadleaf for wood products and bioenergy:Saw logs (50 wt% moisture):Displacing imported wood products",null,null,null,null,null,null,null,null,null,null,null,"Miscanthus Pellets (10% moisture)",{"$f":"Lists!G579","v":"Dedicated Bioelectricity with CCS"},"Miscanthus Pellets (10% moisture):Dedicated Bioelectricity with CCS",null,null,null,null,null,null,null,null,{"$f":"Lists!C285","v":"Newly Abandoned LRF Broadleaf, residues unused:SRC Willow Plantation"},{"$f":"Lists!D285","v":"No peat drainage"},"Newly Abandoned LRF Broadleaf, residues unused:SRC Willow Plantation:No peat drainage"]
["Abandoned Perennial Cropland",{"$f":"Lists!G87","v":"Land reverting to Tropical Woody Savanna"},"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna",null,{"$f":"Lists!S109","v":"Old Growth Fast Growing Conifer (> 200 years old)"},{"$f":"Lists!S110","v":"North West USA"},"Old Growth Fast Growing Conifer (> 200 years old):North West USA",null,{"$f":"Lists!A137","v":"LRF Conifer for wood products, 50% residues used:Pacific Canada"},{"$f":"Lists!B137","v":"LRF Conifer, rotation length reduced to 50y"},"LRF Conifer for wood products, 50% residues used:Pacific Canada:LRF Conifer, rotation length reduced to 50y",null,null,null,null,"LRF Broadleaf for wood products and bioenergy:Saw logs (50 wt% moisture)",{"$f":"Lists!G469","v":"Remove from land and burn"},"LRF Broadleaf for wood products and bioenergy:Saw logs (50 wt% moisture):Remove from land and burn",null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!H570","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!H571","v":"BioSNG"},"Wood Chips (25 wt% moisture):BioSNG",null,null,null,null,null,null,null,null,{"$f":"AO54","v":"Newly Abandoned LRF Broadleaf, residues unused:SRC Willow Plantation"},{"$f":"Lists!E285","v":"Peat soil which requires drainage"},"Newly Abandoned LRF Broadleaf, residues unused:SRC Willow Plantation:Peat soil which requires drainage"]
["Abandoned Perennial Cropland",{"$f":"Lists!G88","v":"Land reverting to Temperate Oceanic Forest"},"Abandoned Perennial Cropland:Land reverting to Temperate Oceanic Forest",null,{"$f":"E55","v":"Old Growth Fast Growing Conifer (> 200 years old)"},{"$f":"Lists!S111","v":"South USA"},"Old Growth Fast Growing Conifer (> 200 years old):South USA",null,{"$f":"Lists!A138","v":"LRF Conifer for wood products, 50% residues used:Interior Canada"},{"$f":"Lists!B138","v":"LRF Conifer, rotation length reduced to 50y"},"LRF Conifer for wood products, 50% residues used:Interior Canada:LRF Conifer, rotation length reduced to 50y",null,null,null,null,{"$f":"Lists!C470","v":"LRF Broadleaf for wood products and bioenergy:Small Roundwood (50 wt% moisture)"},{"$f":"Lists!D470","v":"Particle board (replacing breeze blocks)"},"LRF Broadleaf for wood products and bioenergy:Small Roundwood (50 wt% moisture):Particle board (replacing breeze blocks)",null,null,null,null,null,null,null,null,null,null,null,{"$f":"AD55","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!H572","v":"BtL"},"Wood Chips (25 wt% moisture):BtL",null,null,null,null,null,null,null,null,{"$f":"Lists!C286","v":"Newly Abandoned LRF Broadleaf, residues unused:Miscanthus Plantation"},{"$f":"Lists!D286","v":"No peat drainage"},"Newly Abandoned LRF Broadleaf, residues unused:Miscanthus Plantation:No peat drainage"]
["Abandoned Perennial Cropland",{"$f":"Lists!G89","v":"Land reverting to Temperate Continental Forest"},"Abandoned Perennial Cropland:Land reverting to Temperate Continental Forest",null,{"$f":"Lists!T109","v":"Old Growth Slow Growing Conifer (> 200 years old)"},{"$f":"Lists!T110","v":"North West USA"},"Old Growth Slow Growing Conifer (> 200 years old):North West USA",null,{"$f":"I56","v":"LRF Conifer for wood products, 50% residues used:Interior Canada"},{"$f":"Lists!C138","v":"LRF Conifer, rotation length reduced to 80y"},"LRF Conifer for wood products, 50% residues used:Interior Canada:LRF Conifer, rotation length reduced to 80y",null,null,null,null,{"$f":"P56","v":"LRF Broadleaf for wood products and bioenergy:Small Roundwood (50 wt% moisture)"},{"$f":"Lists!E470","v":"MDF (replacing plasterwork)"},"LRF Broadleaf for wood products and bioenergy:Small Roundwood (50 wt% moisture):MDF (replacing plasterwork)",null,null,null,null,null,null,null,null,null,null,null,{"$f":"AD56","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!H573","v":"Ethanol"},"Wood Chips (25 wt% moisture):Ethanol",null,null,null,null,null,null,null,null,{"$f":"AO56","v":"Newly Abandoned LRF Broadleaf, residues unused:Miscanthus Plantation"},{"$f":"Lists!E286","v":"Peat soil which requires drainage"},"Newly Abandoned LRF Broadleaf, residues unused:Miscanthus Plantation:Peat soil which requires drainage"]
["Abandoned Perennial Cropland",{"$f":"Lists!G90","v":"Land reverting to Temperate Mountain System"},"Abandoned Perennial Cropland:Land reverting to Temperate Mountain System",null,{"$f":"Lists!U109","v":"Northern Peatland"},{"$f":"Lists!U110","v":"Europe (boreal region)"},"Northern Peatland:Europe (boreal region)",null,{"$f":"Lists!A139","v":"LRF Conifer for wood products, 50% residues used:Boreal North Canada"},{"$f":"Lists!B139","v":"LRF Conifer, rotation length reduced to 50y"},"LRF Conifer for wood products, 50% residues used:Boreal North Canada:LRF Conifer, rotation length reduced to 50y",null,null,null,null,{"$f":"P57","v":"LRF Broadleaf for wood products and bioenergy:Small Roundwood (50 wt% moisture)"},{"$f":"Lists!F470","v":"Fencing (replacing concrete fencing), off cuts Particle Board (replacing breeze blocks)"},"LRF Broadleaf for wood products and bioenergy:Small Roundwood (50 wt% moisture):Fencing (replacing concrete fencing), off cuts Particle Board (replacing breeze blocks)",null,null,null,null,null,null,null,null,null,null,null,"Wood Chips (25 wt% moisture)",{"$f":"Lists!H574","v":"Gas from Slow Pyrolysis (Biochar co-product)"},"Wood Chips (25 wt% moisture):Gas from Slow Pyrolysis (Biochar co-product)",null,null,null,null,null,null,null,null,{"$f":"Lists!C287","v":"Newly Abandoned LRF Broadleaf, residues unused:Maize Cropland"},{"$f":"Lists!D287","v":"No peat drainage"},"Newly Abandoned LRF Broadleaf, residues unused:Maize Cropland:No peat drainage"]
["Abandoned Perennial Cropland",{"$f":"Lists!G91","v":"Land reverting to Temperate Shrub or Grassland"},"Abandoned Perennial Cropland:Land reverting to Temperate Shrub or Grassland",null,{"$f":"E58","v":"Northern Peatland"},{"$f":"Lists!U111","v":"North America (boreal region)"},"Northern Peatland:North America (boreal region)",null,{"$f":"I58","v":"LRF Conifer for wood products, 50% residues used:Boreal North Canada"},{"$f":"Lists!C139","v":"LRF Conifer, rotation length reduced to 80y"},"LRF Conifer for wood products, 50% residues used:Boreal North Canada:LRF Conifer, rotation length reduced to 80y",null,null,null,null,"LRF Broadleaf for wood products and bioenergy:Small Roundwood (50 wt% moisture)",{"$f":"Lists!G470","v":"Fencing (replacing concrete fencing), off cuts MDF (replacing plaster work)"},"LRF Broadleaf for wood products and bioenergy:Small Roundwood (50 wt% moisture):Fencing (replacing concrete fencing), off cuts MDF (replacing plaster work)",null,null,null,null,null,null,null,null,null,null,null,"Wood Chips (25 wt% moisture)",{"$f":"Lists!H575","v":"CHP"},"Wood Chips (25 wt% moisture):CHP",null,null,null,null,null,null,null,null,{"$f":"AO58","v":"Newly Abandoned LRF Broadleaf, residues unused:Maize Cropland"},{"$f":"Lists!E287","v":"Peat soil which requires drainage"},"Newly Abandoned LRF Broadleaf, residues unused:Maize Cropland:Peat soil which requires drainage"]
["Abandoned Perennial Cropland",{"$f":"Lists!G92","v":"Land reverting to Boreal Coniferous Forest"},"Abandoned Perennial Cropland:Land reverting to Boreal Coniferous Forest",null,{"$f":"E59","v":"Northern Peatland"},{"$f":"Lists!U112","v":"Asia Continental (boreal region)"},"Northern Peatland:Asia Continental (boreal region)",null,{"$f":"Lists!A140","v":"LRF Broadleaf for wood products, residues unused:UK"},{"$f":"Lists!B140","v":"LRF Broadleaf for wood products and bioenergy"},"LRF Broadleaf for wood products, residues unused:UK:LRF Broadleaf for wood products and bioenergy",null,null,null,null,"LRF Broadleaf for wood products and bioenergy:Small Roundwood (50 wt% moisture)",{"$f":"Lists!H470","v":"Displacing imported wood products"},"LRF Broadleaf for wood products and bioenergy:Small Roundwood (50 wt% moisture):Displacing imported wood products",null,null,null,null,null,null,null,null,null,null,null,"Wood Chips (25 wt% moisture)",{"$f":"Lists!H576","v":"Heat from Biomass Boiler"},"Wood Chips (25 wt% moisture):Heat from Biomass Boiler",null,null,null,null,null,null,null,null,{"$f":"Lists!C288","v":"LRF Broadleaf for wood products, rotation length increasing:LRF Broadleaf for wood products and bioenergy; rotation stays the same"},{"$f":"Lists!D288","v":"No peat drainage"},"LRF Broadleaf for wood products, rotation length increasing:LRF Broadleaf for wood products and bioenergy; rotation stays the same:No peat drainage"]
["Abandoned Perennial Cropland",{"$f":"Lists!G93","v":"Land reverting to Boreal Tundra"},"Abandoned Perennial Cropland:Land reverting to Boreal Tundra",null,{"$f":"Lists!V109","v":"Marsh and Swamp "},{"$f":"Lists!V110","v":"Africa (tropical wet region)"},"Marsh and Swamp :Africa (tropical wet region)",null,{"$f":"Lists!A141","v":"LRF Broadleaf for wood products, residues unused:North-East USA"},{"$f":"Lists!B141","v":"LRF Broadleaf for wood products and bioenergy"},"LRF Broadleaf for wood products, residues unused:North-East USA:LRF Broadleaf for wood products and bioenergy",null,null,null,null,"LRF Broadleaf for wood products and bioenergy:Small Roundwood (50 wt% moisture)",{"$f":"Lists!I470","v":"Remove from land and burn"},"LRF Broadleaf for wood products and bioenergy:Small Roundwood (50 wt% moisture):Remove from land and burn",null,null,null,null,null,null,null,null,null,null,null,"Wood Chips (25 wt% moisture)",{"$f":"Lists!H577","v":"Co-fire Bioelectricity"},"Wood Chips (25 wt% moisture):Co-fire Bioelectricity",null,null,null,null,null,null,null,null,{"$f":"Lists!C289","v":"Unmanaged Temperate Broadleaf:Newly Managed LRF Broadleaf"},{"$f":"Lists!D289","v":"No peat drainage"},"Unmanaged Temperate Broadleaf:Newly Managed LRF Broadleaf:No peat drainage"]
["Abandoned Perennial Cropland",{"$f":"Lists!G94","v":"Land reverting to Boreal Mountain System"},"Abandoned Perennial Cropland:Land reverting to Boreal Mountain System",null,{"$f":"E61","v":"Marsh and Swamp "},{"$f":"Lists!V111","v":"North America (tropical wet region)"},"Marsh and Swamp :North America (tropical wet region)",null,{"$f":"Lists!A142","v":"LRF Broadleaf for wood products, residues unused:North USA"},{"$f":"Lists!B142","v":"LRF Broadleaf for wood products and bioenergy"},"LRF Broadleaf for wood products, residues unused:North USA:LRF Broadleaf for wood products and bioenergy",null,null,null,null,{"$f":"Lists!C471","v":"LRF Broadleaf for wood products and bioenergy:Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!D471","v":"Leave residues to decay in forest"},"LRF Broadleaf for wood products and bioenergy:Woody Debris (25 wt% moisture). Continuous removal.:Leave residues to decay in forest",null,null,null,null,null,null,null,null,null,null,null,"Wood Chips (25 wt% moisture)",{"$f":"Lists!H578","v":"Dedicated Bioelectricity"},"Wood Chips (25 wt% moisture):Dedicated Bioelectricity",null,null,null,null,null,null,null,null,{"$f":"Lists!C290","v":"Unmanaged Temperate Broadleaf:SRC Willow Plantation"},{"$f":"Lists!D290","v":"No peat drainage"},"Unmanaged Temperate Broadleaf:SRC Willow Plantation:No peat drainage"]
[{"$f":"Lists!H82","v":"Abandoned Pasture"},{"$f":"Lists!H83","v":"Land reverting to Tropical Rainforest"},"Abandoned Pasture:Land reverting to Tropical Rainforest",null,{"$f":"E62","v":"Marsh and Swamp "},{"$f":"Lists!V112","v":"South America (tropical wet region)"},"Marsh and Swamp :South America (tropical wet region)",null,{"$f":"Lists!A143","v":"LRF Broadleaf for wood products, residues unused:East Canada"},{"$f":"Lists!B143","v":"LRF Broadleaf for wood products and bioenergy"},"LRF Broadleaf for wood products, residues unused:East Canada:LRF Broadleaf for wood products and bioenergy",null,null,null,null,{"$f":"P62","v":"LRF Broadleaf for wood products and bioenergy:Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!E471","v":"Remove from land and burn"},"LRF Broadleaf for wood products and bioenergy:Woody Debris (25 wt% moisture). Continuous removal.:Remove from land and burn",null,null,null,null,null,null,null,null,null,null,null,"Wood Chips (25 wt% moisture)",{"$f":"Lists!H579","v":"Dedicated Bioelectricity with CCS"},"Wood Chips (25 wt% moisture):Dedicated Bioelectricity with CCS",null,null,null,null,null,null,null,null,{"$f":"AO62","v":"Unmanaged Temperate Broadleaf:SRC Willow Plantation"},{"$f":"Lists!E290","v":"Peat soil which requires drainage"},"Unmanaged Temperate Broadleaf:SRC Willow Plantation:Peat soil which requires drainage"]
[{"$f":"A63","v":"Abandoned Pasture"},{"$f":"Lists!H84","v":"Land reverting to Tropical Moist Deciduous Forest"},"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest",null,"Marsh and Swamp ",{"$f":"Lists!V113","v":"Asia Continental (tropical wet region)"},"Marsh and Swamp :Asia Continental (tropical wet region)",null,{"$f":"Lists!A144","v":"LRF Broadleaf for wood products, residues unused:South USA"},{"$f":"Lists!B144","v":"LRF Broadleaf for wood products and bioenergy"},"LRF Broadleaf for wood products, residues unused:South USA:LRF Broadleaf for wood products and bioenergy",null,null,null,null,{"$f":"Lists!C472","v":"LRF Broadleaf for wood products and bioenergy:Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"Lists!D472","v":"Leave residues to decay in forest"},"LRF Broadleaf for wood products and bioenergy:Woody Debris (25 wt% moisture). Remove for 15 years only.:Leave residues to decay in forest",null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!K570","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!K571","v":"BioSNG"},"Wood Pellets (7 wt% moisture):BioSNG",null,null,null,null,null,null,null,null,{"$f":"Lists!C291","v":"Unmanaged Tropical Peat Forest:SRF Eucalyptus Plantation"},{"$f":"Lists!D291","v":"Peat soil which requires drainage"},"Unmanaged Tropical Peat Forest:SRF Eucalyptus Plantation:Peat soil which requires drainage"]
[{"$f":"A64","v":"Abandoned Pasture"},{"$f":"Lists!H85","v":"Land reverting to Tropical Dry Forest"},"Abandoned Pasture:Land reverting to Tropical Dry Forest",null,"Marsh and Swamp ",{"$f":"Lists!V114","v":"Asia Insular (tropical wet region)"},"Marsh and Swamp :Asia Insular (tropical wet region)",null,{"$f":"I64","v":"LRF Broadleaf for wood products, residues unused:South USA"},{"$f":"Lists!C144","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation"},"LRF Broadleaf for wood products, residues unused:South USA:Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation",null,null,null,null,{"$f":"P64","v":"LRF Broadleaf for wood products and bioenergy:Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"Lists!E472","v":"Remove from land and burn"},"LRF Broadleaf for wood products and bioenergy:Woody Debris (25 wt% moisture). Remove for 15 years only.:Remove from land and burn",null,null,null,null,null,null,null,null,null,null,null,{"$f":"AD64","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!K572","v":"BtL"},"Wood Pellets (7 wt% moisture):BtL",null,null,null,null,null,null,null,null,{"$f":"Lists!C292","v":"Unmanaged Tropical Peat Forest:Maize Cropland"},{"$f":"Lists!D292","v":"Peat soil which requires drainage"},"Unmanaged Tropical Peat Forest:Maize Cropland:Peat soil which requires drainage"]
["Abandoned Pasture",{"$f":"Lists!H86","v":"Land reverting to Tropical Mountain System"},"Abandoned Pasture:Land reverting to Tropical Mountain System",null,{"$f":"Lists!W109","v":"Tundra Woodland"},{"$f":"Lists!W110","v":"Europe (boreal region)"},"Tundra Woodland:Europe (boreal region)",null,{"$f":"I65","v":"LRF Broadleaf for wood products, residues unused:South USA"},{"$f":"Lists!D144","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation"},"LRF Broadleaf for wood products, residues unused:South USA:Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation",null,null,null,null,{"$f":"Lists!C473","v":"LRF Broadleaf for bioenergy, residues unused:All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"Lists!D473","v":"Leave the land unharvested/unmanaged"},"LRF Broadleaf for bioenergy, residues unused:All the wood harvested over the rotation (50 wt% moisture):Leave the land unharvested/unmanaged",null,null,null,null,null,null,null,null,null,null,null,{"$f":"AD65","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!K573","v":"Ethanol"},"Wood Pellets (7 wt% moisture):Ethanol",null,null,null,null,null,null,null,null,{"$f":"Lists!C293","v":"Unmanaged Tropical Peat Forest:Palm Plantation"},{"$f":"Lists!D293","v":"Peat soil which requires drainage"},"Unmanaged Tropical Peat Forest:Palm Plantation:Peat soil which requires drainage"]
["Abandoned Pasture",{"$f":"Lists!H87","v":"Land reverting to Tropical Woody Savanna"},"Abandoned Pasture:Land reverting to Tropical Woody Savanna",null,{"$f":"E66","v":"Tundra Woodland"},{"$f":"Lists!W111","v":"North America (boreal region)"},"Tundra Woodland:North America (boreal region)",null,"LRF Broadleaf for wood products, residues unused:South USA",{"$f":"Lists!E144","v":"Conversion of LRF Broadleaf to SRC Willow over 3 y"},"LRF Broadleaf for wood products, residues unused:South USA:Conversion of LRF Broadleaf to SRC Willow over 3 y",null,null,null,null,{"$f":"Lists!C474","v":"LRF Broadleaf, rotation length reduced to 50y:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D474","v":"Leave forest in previous management"},"LRF Broadleaf, rotation length reduced to 50y:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,null,null,null,null,null,null,null,null,null,null,"Wood Pellets (7 wt% moisture)",{"$f":"Lists!K574","v":"Gas from Slow Pyrolysis (Biochar co-product)"},"Wood Pellets (7 wt% moisture):Gas from Slow Pyrolysis (Biochar co-product)",null,null,null,null,null,null,null,null,{"$f":"Lists!C294","v":"Unmanaged Tropical Non-Peat Rainforest:SRF Eucalyptus Plantation"},{"$f":"Lists!D294","v":"No peat drainage"},"Unmanaged Tropical Non-Peat Rainforest:SRF Eucalyptus Plantation:No peat drainage"]
["Abandoned Pasture",{"$f":"Lists!H88","v":"Land reverting to Temperate Oceanic Forest"},"Abandoned Pasture:Land reverting to Temperate Oceanic Forest",null,{"$f":"E67","v":"Tundra Woodland"},{"$f":"Lists!W112","v":"Asia Continental (boreal region)"},"Tundra Woodland:Asia Continental (boreal region)",null,"LRF Broadleaf for wood products, residues unused:South USA",{"$f":"Lists!F144","v":"Conversion of LRF Broadleaf to SRC Willow over 70 y"},"LRF Broadleaf for wood products, residues unused:South USA:Conversion of LRF Broadleaf to SRC Willow over 70 y",null,null,null,null,{"$f":"Lists!C475","v":"LRF Broadleaf, rotation length reduced to 50y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},{"$f":"Lists!D475","v":"Leave forest in previous management"},"LRF Broadleaf, rotation length reduced to 50y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Leave forest in previous management",null,null,null,null,null,null,null,null,null,null,null,"Wood Pellets (7 wt% moisture)",{"$f":"Lists!K575","v":"CHP"},"Wood Pellets (7 wt% moisture):CHP",null,null,null,null,null,null,null,null,{"$f":"Lists!C295","v":"Unmanaged Tropical Non-Peat Rainforest:Maize Cropland"},{"$f":"Lists!D295","v":"No peat drainage"},"Unmanaged Tropical Non-Peat Rainforest:Maize Cropland:No peat drainage"]
["Abandoned Pasture",{"$f":"Lists!H89","v":"Land reverting to Temperate Continental Forest"},"Abandoned Pasture:Land reverting to Temperate Continental Forest",null,{"$f":"Lists!X109","v":"Temperate shrub land "},{"$f":"Lists!X110","v":"Europe (temperate dry region)"},"Temperate shrub land :Europe (temperate dry region)",null,"LRF Broadleaf for wood products, residues unused:South USA",{"$f":"Lists!G144","v":"LRF Broadleaf, rotation length reduced to 60y"},"LRF Broadleaf for wood products, residues unused:South USA:LRF Broadleaf, rotation length reduced to 60y",null,null,null,null,{"$f":"Lists!C476","v":"LRF Broadleaf, rotation length reduced to 60y:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D476","v":"Leave forest in previous management"},"LRF Broadleaf, rotation length reduced to 60y:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,null,null,null,null,null,null,null,null,null,null,"Wood Pellets (7 wt% moisture)",{"$f":"Lists!K576","v":"Heat from Biomass Boiler"},"Wood Pellets (7 wt% moisture):Heat from Biomass Boiler",null,null,null,null,null,null,null,null,{"$f":"Lists!C296","v":"Unmanaged Tropical Non-Peat Rainforest:Palm Plantation"},{"$f":"Lists!D296","v":"No peat drainage"},"Unmanaged Tropical Non-Peat Rainforest:Palm Plantation:No peat drainage"]
["Abandoned Pasture",{"$f":"Lists!H90","v":"Land reverting to Temperate Mountain System"},"Abandoned Pasture:Land reverting to Temperate Mountain System",null,{"$f":"E69","v":"Temperate shrub land "},{"$f":"Lists!X111","v":"North America (temperate dry region)"},"Temperate shrub land :North America (temperate dry region)",null,{"$f":"Lists!A145","v":"Newly Abandoned LRF Broadleaf, residues unused:North-East USA"},{"$f":"Lists!B145","v":"LRF Broadleaf for bioenergy, residues unused"},"Newly Abandoned LRF Broadleaf, residues unused:North-East USA:LRF Broadleaf for bioenergy, residues unused",null,null,null,null,{"$f":"Lists!C477","v":"LRF Broadleaf, rotation length reduced to 60y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},{"$f":"Lists!D477","v":"Leave forest in previous management"},"LRF Broadleaf, rotation length reduced to 60y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Leave forest in previous management",null,null,null,null,null,null,null,null,null,null,null,"Wood Pellets (7 wt% moisture)",{"$f":"Lists!K577","v":"Co-fire Bioelectricity"},"Wood Pellets (7 wt% moisture):Co-fire Bioelectricity",null,null,null,null,null,null,null,null,{"$f":"Lists!C297","v":"Old Growth Fast Growing Conifer (> 200 years old):Newly Managed LRF Conifer (fast growing)"},{"$f":"Lists!D297","v":"No peat drainage"},"Old Growth Fast Growing Conifer (> 200 years old):Newly Managed LRF Conifer (fast growing):No peat drainage"]
["Abandoned Pasture",{"$f":"Lists!H91","v":"Land reverting to Temperate Shrub or Grassland"},"Abandoned Pasture:Land reverting to Temperate Shrub or Grassland",null,{"$f":"E70","v":"Temperate shrub land "},{"$f":"Lists!X112","v":"New Zealand (temperate dry region)"},"Temperate shrub land :New Zealand (temperate dry region)",null,{"$f":"I70","v":"Newly Abandoned LRF Broadleaf, residues unused:North-East USA"},{"$f":"Lists!C145","v":"SRC Willow Plantation"},"Newly Abandoned LRF Broadleaf, residues unused:North-East USA:SRC Willow Plantation",null,null,null,null,{"$f":"Lists!C478","v":"LRF Broadleaf, rotation length reduced to 80y:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D478","v":"Leave forest in previous management"},"LRF Broadleaf, rotation length reduced to 80y:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,null,null,null,null,null,null,null,null,null,null,"Wood Pellets (7 wt% moisture)",{"$f":"Lists!K578","v":"Dedicated Bioelectricity"},"Wood Pellets (7 wt% moisture):Dedicated Bioelectricity",null,null,null,null,null,null,null,null,{"$f":"Lists!C298","v":"Old Growth Slow Growing Conifer (> 200 years old):Newly Managed LRF Conifer (slow growing)"},{"$f":"Lists!D298","v":"No peat drainage"},"Old Growth Slow Growing Conifer (> 200 years old):Newly Managed LRF Conifer (slow growing):No peat drainage"]
["Abandoned Pasture",{"$f":"Lists!H92","v":"Land reverting to Boreal Coniferous Forest"},"Abandoned Pasture:Land reverting to Boreal Coniferous Forest",null,"Temperate shrub land ",{"$f":"Lists!X113","v":"South America (temperate dry region)"},"Temperate shrub land :South America (temperate dry region)",null,{"$f":"I71","v":"Newly Abandoned LRF Broadleaf, residues unused:North-East USA"},{"$f":"Lists!D145","v":"Miscanthus Plantation"},"Newly Abandoned LRF Broadleaf, residues unused:North-East USA:Miscanthus Plantation",null,null,null,null,{"$f":"Lists!C479","v":"LRF Broadleaf, rotation length reduced to 80y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},{"$f":"Lists!D479","v":"Leave forest in previous management"},"LRF Broadleaf, rotation length reduced to 80y:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Leave forest in previous management",null,null,null,null,null,null,null,null,null,null,null,"Wood Pellets (7 wt% moisture)",{"$f":"Lists!K579","v":"Dedicated Bioelectricity with CCS"},"Wood Pellets (7 wt% moisture):Dedicated Bioelectricity with CCS",null,null,null,null,null,null,null,null,{"$f":"Lists!C299","v":"Northern Peatland:SRC Willow Plantation"},{"$f":"Lists!D299","v":"Peat soil which requires drainage"},"Northern Peatland:SRC Willow Plantation:Peat soil which requires drainage"]
["Abandoned Pasture",{"$f":"Lists!H93","v":"Land reverting to Boreal Tundra"},"Abandoned Pasture:Land reverting to Boreal Tundra",null,{"$f":"Lists!Y109","v":"Temperate grassland (e.g. Steppes, grassland praires)"},{"$f":"Lists!Y110","v":"Europe (temperate dry region)"},"Temperate grassland (e.g. Steppes, grassland praires):Europe (temperate dry region)",null,"Newly Abandoned LRF Broadleaf, residues unused:North-East USA",{"$f":"Lists!E145","v":"Maize Cropland"},"Newly Abandoned LRF Broadleaf, residues unused:North-East USA:Maize Cropland",null,null,null,null,{"$f":"Lists!C480","v":"LRF Broadleaf for wood products and bioenergy; rotation stays the same:All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!D480","v":"Leave forest in previous management"},"LRF Broadleaf for wood products and bioenergy; rotation stays the same:All additional wood compared to counterfactual (50 wt% moisture):Leave forest in previous management",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C300","v":"Northern Peatland:Miscanthus Plantation"},{"$f":"Lists!D300","v":"Peat soil which requires drainage"},"Northern Peatland:Miscanthus Plantation:Peat soil which requires drainage"]
["Abandoned Pasture",{"$f":"Lists!H94","v":"Land reverting to Boreal Mountain System"},"Abandoned Pasture:Land reverting to Boreal Mountain System",null,{"$f":"E73","v":"Temperate grassland (e.g. Steppes, grassland praires)"},{"$f":"Lists!Y111","v":"North America (temperate dry region)"},"Temperate grassland (e.g. Steppes, grassland praires):North America (temperate dry region)",null,{"$f":"Lists!A146","v":"Newly Abandoned LRF Broadleaf, residues unused:North USA"},{"$f":"Lists!B146","v":"LRF Broadleaf for bioenergy, residues unused"},"Newly Abandoned LRF Broadleaf, residues unused:North USA:LRF Broadleaf for bioenergy, residues unused",null,null,null,null,{"$f":"Lists!C481","v":"Newly Managed LRF Broadleaf:All additional wood created by new management (50 wt% moisture)"},{"$f":"Lists!D481","v":"Leave the land unharvested/unmanaged"},"Newly Managed LRF Broadleaf:All additional wood created by new management (50 wt% moisture):Leave the land unharvested/unmanaged",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C301","v":"Northern Peatland:Maize Cropland"},{"$f":"Lists!D301","v":"Peat soil which requires drainage"},"Northern Peatland:Maize Cropland:Peat soil which requires drainage"]
[null,null,null,null,{"$f":"E74","v":"Temperate grassland (e.g. Steppes, grassland praires)"},{"$f":"Lists!Y112","v":"New Zealand (temperate dry region)"},"Temperate grassland (e.g. Steppes, grassland praires):New Zealand (temperate dry region)",null,{"$f":"I74","v":"Newly Abandoned LRF Broadleaf, residues unused:North USA"},{"$f":"Lists!C146","v":"SRC Willow Plantation"},"Newly Abandoned LRF Broadleaf, residues unused:North USA:SRC Willow Plantation",null,null,null,null,{"$f":"Lists!C482","v":"SRC Willow Plantation:SRC Chips (50 wt% moisture)"},{"$f":"Lists!D482","v":"Leave the land unharvested/unmanaged"},"SRC Willow Plantation:SRC Chips (50 wt% moisture):Leave the land unharvested/unmanaged",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C302","v":"Marsh and Swamp :SRF Eucalyptus Plantation"},{"$f":"Lists!D302","v":"Peat soil which requires drainage"},"Marsh and Swamp :SRF Eucalyptus Plantation:Peat soil which requires drainage"]
[null,null,null,null,"Temperate grassland (e.g. Steppes, grassland praires)",{"$f":"Lists!Y113","v":"South America (temperate dry region)"},"Temperate grassland (e.g. Steppes, grassland praires):South America (temperate dry region)",null,{"$f":"I75","v":"Newly Abandoned LRF Broadleaf, residues unused:North USA"},{"$f":"Lists!D146","v":"Miscanthus Plantation"},"Newly Abandoned LRF Broadleaf, residues unused:North USA:Miscanthus Plantation",null,null,null,null,{"$f":"Lists!C483","v":"SRF Eucalyptus Plantation:Eucalyptus Roundwood (50 wt% moisture)"},{"$f":"Lists!D483","v":"Leave the land unharvested/unmanaged"},"SRF Eucalyptus Plantation:Eucalyptus Roundwood (50 wt% moisture):Leave the land unharvested/unmanaged",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C303","v":"Marsh and Swamp :Maize Cropland"},{"$f":"Lists!D303","v":"Peat soil which requires drainage"},"Marsh and Swamp :Maize Cropland:Peat soil which requires drainage"]
[null,null,null,null,{"$f":"Lists!Z109","v":"Tropical Woody Savannah"},{"$f":"Lists!Z110","v":"Africa (tropical dry region)"},"Tropical Woody Savannah:Africa (tropical dry region)",null,"Newly Abandoned LRF Broadleaf, residues unused:North USA",{"$f":"Lists!E146","v":"Maize Cropland"},"Newly Abandoned LRF Broadleaf, residues unused:North USA:Maize Cropland",null,null,null,null,{"$f":"Lists!C484","v":"Palm Plantation:Palm Fruit (34 wt% moisture)"},{"$f":"Lists!D484","v":"Leave the land unharvested/unmanaged"},"Palm Plantation:Palm Fruit (34 wt% moisture):Leave the land unharvested/unmanaged",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C304","v":"Marsh and Swamp :Palm Plantation"},{"$f":"Lists!D304","v":"Peat soil which requires drainage"},"Marsh and Swamp :Palm Plantation:Peat soil which requires drainage"]
[null,null,null,null,{"$f":"E77","v":"Tropical Woody Savannah"},{"$f":"Lists!Z111","v":"North America (tropical dry region)"},{"$f":"E78&\":\"&F78","v":"Tropical Woody Savannah:North America (tropical dry region)"},null,{"$f":"Lists!A147","v":"Newly Abandoned LRF Broadleaf, residues unused:East Canada"},{"$f":"Lists!B147","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"I78&\":\"&J78","v":"Newly Abandoned LRF Broadleaf, residues unused:East Canada:LRF Broadleaf for bioenergy, residues unused"},null,null,null,null,{"$f":"Lists!C485","v":"Maize Cropland:Maize Whole Crop (70 wt% moisture)"},{"$f":"Lists!D485","v":"Leave the land unharvested/unmanaged"},"Maize Cropland:Maize Whole Crop (70 wt% moisture):Leave the land unharvested/unmanaged",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C305","v":"Tundra Woodland:SRC Willow Plantation"},{"$f":"Lists!D305","v":"No peat drainage"},{"$f":"AO78&\":\"&AP78","v":"Tundra Woodland:SRC Willow Plantation:No peat drainage"}]
[null,null,null,null,{"$f":"E78","v":"Tropical Woody Savannah"},{"$f":"Lists!Z112","v":"South America (tropical dry region)"},"Tropical Woody Savannah:South America (tropical dry region)",null,{"$f":"I78","v":"Newly Abandoned LRF Broadleaf, residues unused:East Canada"},{"$f":"Lists!C147","v":"SRC Willow Plantation"},"Newly Abandoned LRF Broadleaf, residues unused:East Canada:SRC Willow Plantation",null,null,null,null,{"$f":"Lists!C486","v":"Miscanthus Plantation:Miscanthus Chips (30 wt% moisture)"},{"$f":"Lists!D486","v":"Leave the land unharvested/unmanaged"},"Miscanthus Plantation:Miscanthus Chips (30 wt% moisture):Leave the land unharvested/unmanaged",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AO78","v":"Tundra Woodland:SRC Willow Plantation"},{"$f":"Lists!E305","v":"Peat soil which requires drainage"},"Tundra Woodland:SRC Willow Plantation:Peat soil which requires drainage"]
[null,null,null,null,"Tropical Woody Savannah",{"$f":"Lists!Z113","v":"Asia Continental (tropical dry region)"},"Tropical Woody Savannah:Asia Continental (tropical dry region)",null,{"$f":"I79","v":"Newly Abandoned LRF Broadleaf, residues unused:East Canada"},{"$f":"Lists!D147","v":"Miscanthus Plantation"},"Newly Abandoned LRF Broadleaf, residues unused:East Canada:Miscanthus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C306","v":"Tundra Woodland:Miscanthus Plantation"},{"$f":"Lists!D306","v":"No peat drainage"},"Tundra Woodland:Miscanthus Plantation:No peat drainage"]
[null,null,null,null,"Tropical Woody Savannah",{"$f":"Lists!Z114","v":"Asia Insular (tropical dry region)"},"Tropical Woody Savannah:Asia Insular (tropical dry region)",null,"Newly Abandoned LRF Broadleaf, residues unused:East Canada",{"$f":"Lists!E147","v":"Maize Cropland"},"Newly Abandoned LRF Broadleaf, residues unused:East Canada:Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AO80","v":"Tundra Woodland:Miscanthus Plantation"},{"$f":"Lists!E306","v":"Peat soil which requires drainage"},"Tundra Woodland:Miscanthus Plantation:Peat soil which requires drainage"]
[null,null,null,null,{"$f":"Lists!AA109","v":"Tropical Grassland Savannah"},{"$f":"Lists!AA110","v":"Africa (tropical dry region)"},"Tropical Grassland Savannah:Africa (tropical dry region)",null,{"$f":"Lists!A148","v":"LRF Broadleaf for wood products, 50% residues used:East Canada"},{"$f":"Lists!B148","v":"LRF Broadleaf, rotation length reduced to 50y"},"LRF Broadleaf for wood products, 50% residues used:East Canada:LRF Broadleaf, rotation length reduced to 50y",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C307","v":"Tundra Woodland:Maize Cropland"},{"$f":"Lists!D307","v":"No peat drainage"},"Tundra Woodland:Maize Cropland:No peat drainage"]
[null,null,null,null,{"$f":"E82","v":"Tropical Grassland Savannah"},{"$f":"Lists!AA111","v":"North America (tropical dry region)"},"Tropical Grassland Savannah:North America (tropical dry region)",null,{"$f":"I82","v":"LRF Broadleaf for wood products, 50% residues used:East Canada"},{"$f":"Lists!C148","v":"LRF Broadleaf, rotation length reduced to 80y"},"LRF Broadleaf for wood products, 50% residues used:East Canada:LRF Broadleaf, rotation length reduced to 80y",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AO82","v":"Tundra Woodland:Maize Cropland"},{"$f":"Lists!E307","v":"Peat soil which requires drainage"},"Tundra Woodland:Maize Cropland:Peat soil which requires drainage"]
[null,null,null,null,{"$f":"E83","v":"Tropical Grassland Savannah"},{"$f":"Lists!AA112","v":"South America (tropical dry region)"},"Tropical Grassland Savannah:South America (tropical dry region)",null,{"$f":"Lists!A149","v":"LRF Broadleaf for wood products, rotation length increasing:South USA"},{"$f":"Lists!B149","v":"LRF Broadleaf for wood products and bioenergy; rotation stays the same"},"LRF Broadleaf for wood products, rotation length increasing:South USA:LRF Broadleaf for wood products and bioenergy; rotation stays the same",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C308","v":"Temperate shrub land :SRC Willow Plantation"},{"$f":"Lists!D308","v":"No peat drainage"},"Temperate shrub land :SRC Willow Plantation:No peat drainage"]
[null,null,null,null,"Tropical Grassland Savannah",{"$f":"Lists!AA113","v":"Asia Continental (tropical dry region)"},"Tropical Grassland Savannah:Asia Continental (tropical dry region)",null,{"$f":"Lists!A150","v":"Unmanaged Temperate Broadleaf:UK"},{"$f":"Lists!B150","v":"Newly Managed LRF Broadleaf"},"Unmanaged Temperate Broadleaf:UK:Newly Managed LRF Broadleaf",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AO84","v":"Temperate shrub land :SRC Willow Plantation"},{"$f":"Lists!E308","v":"Peat soil which requires drainage"},"Temperate shrub land :SRC Willow Plantation:Peat soil which requires drainage"]
[null,null,null,null,"Tropical Grassland Savannah",{"$f":"Lists!AA114","v":"Asia Insular (tropical dry region)"},"Tropical Grassland Savannah:Asia Insular (tropical dry region)",null,{"$f":"I85","v":"Unmanaged Temperate Broadleaf:UK"},{"$f":"Lists!C150","v":"SRC Willow Plantation"},"Unmanaged Temperate Broadleaf:UK:SRC Willow Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C309","v":"Temperate shrub land :Miscanthus Plantation"},{"$f":"Lists!D309","v":"No peat drainage"},"Temperate shrub land :Miscanthus Plantation:No peat drainage"]
[null,null,null,null,{"$f":"Lists!AB109","v":"Land reverting to Tropical Rainforest"},{"$f":"Lists!AB110","v":"Africa (tropical wet region)"},"Land reverting to Tropical Rainforest:Africa (tropical wet region)",null,{"$f":"Lists!A151","v":"Unmanaged Tropical Peat Forest:Africa (tropical wet region)"},{"$f":"Lists!B151","v":"SRF Eucalyptus Plantation"},"Unmanaged Tropical Peat Forest:Africa (tropical wet region):SRF Eucalyptus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AO86","v":"Temperate shrub land :Miscanthus Plantation"},{"$f":"Lists!E309","v":"Peat soil which requires drainage"},"Temperate shrub land :Miscanthus Plantation:Peat soil which requires drainage"]
[null,null,null,null,{"$f":"E87","v":"Land reverting to Tropical Rainforest"},{"$f":"Lists!AB111","v":"North America (tropical wet region)"},"Land reverting to Tropical Rainforest:North America (tropical wet region)",null,{"$f":"I87","v":"Unmanaged Tropical Peat Forest:Africa (tropical wet region)"},{"$f":"Lists!C151","v":"Maize Cropland"},"Unmanaged Tropical Peat Forest:Africa (tropical wet region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C310","v":"Temperate shrub land :Maize Cropland"},{"$f":"Lists!D310","v":"No peat drainage"},"Temperate shrub land :Maize Cropland:No peat drainage"]
[null,null,null,null,{"$f":"E88","v":"Land reverting to Tropical Rainforest"},{"$f":"Lists!AB112","v":"South America (tropical wet region)"},"Land reverting to Tropical Rainforest:South America (tropical wet region)",null,{"$f":"I88","v":"Unmanaged Tropical Peat Forest:Africa (tropical wet region)"},{"$f":"Lists!D151","v":"Palm Plantation"},"Unmanaged Tropical Peat Forest:Africa (tropical wet region):Palm Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AO88","v":"Temperate shrub land :Maize Cropland"},{"$f":"Lists!E310","v":"Peat soil which requires drainage"},"Temperate shrub land :Maize Cropland:Peat soil which requires drainage"]
[null,null,null,null,"Land reverting to Tropical Rainforest",{"$f":"Lists!AB113","v":"Asia Continental (tropical wet region)"},"Land reverting to Tropical Rainforest:Asia Continental (tropical wet region)",null,{"$f":"Lists!A152","v":"Unmanaged Tropical Peat Forest:North America (tropical wet region)"},{"$f":"Lists!B152","v":"SRF Eucalyptus Plantation"},"Unmanaged Tropical Peat Forest:North America (tropical wet region):SRF Eucalyptus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C311","v":"Temperate grassland (e.g. Steppes, grassland praires):SRC Willow Plantation"},{"$f":"Lists!D311","v":"No peat drainage"},"Temperate grassland (e.g. Steppes, grassland praires):SRC Willow Plantation:No peat drainage"]
[null,null,null,null,"Land reverting to Tropical Rainforest",{"$f":"Lists!AB114","v":"Asia Insular (tropical wet region)"},"Land reverting to Tropical Rainforest:Asia Insular (tropical wet region)",null,{"$f":"I90","v":"Unmanaged Tropical Peat Forest:North America (tropical wet region)"},{"$f":"Lists!C152","v":"Maize Cropland"},"Unmanaged Tropical Peat Forest:North America (tropical wet region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AO90","v":"Temperate grassland (e.g. Steppes, grassland praires):SRC Willow Plantation"},{"$f":"Lists!E311","v":"Peat soil which requires drainage"},"Temperate grassland (e.g. Steppes, grassland praires):SRC Willow Plantation:Peat soil which requires drainage"]
[null,null,null,null,{"$f":"Lists!AC109","v":"Land reverting to Tropical Moist Deciduous Forest"},{"$f":"Lists!AC110","v":"Africa (tropical moist region)"},"Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region)",null,{"$f":"I91","v":"Unmanaged Tropical Peat Forest:North America (tropical wet region)"},{"$f":"Lists!D152","v":"Palm Plantation"},"Unmanaged Tropical Peat Forest:North America (tropical wet region):Palm Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C312","v":"Temperate grassland (e.g. Steppes, grassland praires):Miscanthus Plantation"},{"$f":"Lists!D312","v":"No peat drainage"},"Temperate grassland (e.g. Steppes, grassland praires):Miscanthus Plantation:No peat drainage"]
[null,null,null,null,{"$f":"E92","v":"Land reverting to Tropical Moist Deciduous Forest"},{"$f":"Lists!AC111","v":"North America (tropical moist region)"},"Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region)",null,{"$f":"Lists!A153","v":"Unmanaged Tropical Peat Forest:South America (tropical wet region)"},{"$f":"Lists!B153","v":"SRF Eucalyptus Plantation"},"Unmanaged Tropical Peat Forest:South America (tropical wet region):SRF Eucalyptus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AO92","v":"Temperate grassland (e.g. Steppes, grassland praires):Miscanthus Plantation"},{"$f":"Lists!E312","v":"Peat soil which requires drainage"},"Temperate grassland (e.g. Steppes, grassland praires):Miscanthus Plantation:Peat soil which requires drainage"]
[null,null,null,null,{"$f":"E93","v":"Land reverting to Tropical Moist Deciduous Forest"},{"$f":"Lists!AC112","v":"South America (tropical moist region)"},"Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region)",null,{"$f":"I93","v":"Unmanaged Tropical Peat Forest:South America (tropical wet region)"},{"$f":"Lists!C153","v":"Maize Cropland"},"Unmanaged Tropical Peat Forest:South America (tropical wet region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C313","v":"Temperate grassland (e.g. Steppes, grassland praires):Maize Cropland"},{"$f":"Lists!D313","v":"No peat drainage"},"Temperate grassland (e.g. Steppes, grassland praires):Maize Cropland:No peat drainage"]
[null,null,null,null,"Land reverting to Tropical Moist Deciduous Forest",{"$f":"Lists!AC113","v":"Asia Continental (tropical moist region)"},"Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region)",null,{"$f":"I94","v":"Unmanaged Tropical Peat Forest:South America (tropical wet region)"},{"$f":"Lists!D153","v":"Palm Plantation"},"Unmanaged Tropical Peat Forest:South America (tropical wet region):Palm Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AO94","v":"Temperate grassland (e.g. Steppes, grassland praires):Maize Cropland"},{"$f":"Lists!E313","v":"Peat soil which requires drainage"},"Temperate grassland (e.g. Steppes, grassland praires):Maize Cropland:Peat soil which requires drainage"]
[null,null,null,null,"Land reverting to Tropical Moist Deciduous Forest",{"$f":"Lists!AC114","v":"Asia Insular (tropical moist region)"},"Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region)",null,{"$f":"Lists!A154","v":"Unmanaged Tropical Peat Forest:Asia Continental (tropical wet region)"},{"$f":"Lists!B154","v":"SRF Eucalyptus Plantation"},"Unmanaged Tropical Peat Forest:Asia Continental (tropical wet region):SRF Eucalyptus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C314","v":"Tropical Woody Savannah:SRF Eucalyptus Plantation"},{"$f":"Lists!D314","v":"No peat drainage"},"Tropical Woody Savannah:SRF Eucalyptus Plantation:No peat drainage"]
[null,null,null,null,{"$f":"Lists!AD109","v":"Land reverting to Tropical Dry Forest"},{"$f":"Lists!AD110","v":"Africa (tropical dry region)"},"Land reverting to Tropical Dry Forest:Africa (tropical dry region)",null,{"$f":"I96","v":"Unmanaged Tropical Peat Forest:Asia Continental (tropical wet region)"},{"$f":"Lists!C154","v":"Maize Cropland"},"Unmanaged Tropical Peat Forest:Asia Continental (tropical wet region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AO96","v":"Tropical Woody Savannah:SRF Eucalyptus Plantation"},{"$f":"Lists!E314","v":"Peat soil which requires drainage"},"Tropical Woody Savannah:SRF Eucalyptus Plantation:Peat soil which requires drainage"]
[null,null,null,null,{"$f":"E97","v":"Land reverting to Tropical Dry Forest"},{"$f":"Lists!AD111","v":"North America (tropical dry region)"},"Land reverting to Tropical Dry Forest:North America (tropical dry region)",null,{"$f":"I97","v":"Unmanaged Tropical Peat Forest:Asia Continental (tropical wet region)"},{"$f":"Lists!D154","v":"Palm Plantation"},"Unmanaged Tropical Peat Forest:Asia Continental (tropical wet region):Palm Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C315","v":"Tropical Woody Savannah:Maize Cropland"},{"$f":"Lists!D315","v":"No peat drainage"},"Tropical Woody Savannah:Maize Cropland:No peat drainage"]
[null,null,null,null,{"$f":"E98","v":"Land reverting to Tropical Dry Forest"},{"$f":"Lists!AD112","v":"South America (tropical dry region)"},"Land reverting to Tropical Dry Forest:South America (tropical dry region)",null,{"$f":"Lists!A155","v":"Unmanaged Tropical Peat Forest:Asia Insular (tropical wet region)"},{"$f":"Lists!B155","v":"SRF Eucalyptus Plantation"},"Unmanaged Tropical Peat Forest:Asia Insular (tropical wet region):SRF Eucalyptus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AO98","v":"Tropical Woody Savannah:Maize Cropland"},{"$f":"Lists!E315","v":"Peat soil which requires drainage"},"Tropical Woody Savannah:Maize Cropland:Peat soil which requires drainage"]
[null,null,null,null,"Land reverting to Tropical Dry Forest",{"$f":"Lists!AD113","v":"Asia Continental (tropical dry region)"},"Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region)",null,{"$f":"I99","v":"Unmanaged Tropical Peat Forest:Asia Insular (tropical wet region)"},{"$f":"Lists!C155","v":"Maize Cropland"},"Unmanaged Tropical Peat Forest:Asia Insular (tropical wet region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C316","v":"Tropical Woody Savannah:Palm Plantation"},{"$f":"Lists!D316","v":"No peat drainage"},"Tropical Woody Savannah:Palm Plantation:No peat drainage"]
[null,null,null,null,"Land reverting to Tropical Dry Forest",{"$f":"Lists!AD114","v":"Asia Insular (tropical dry region)"},"Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region)",null,{"$f":"I100","v":"Unmanaged Tropical Peat Forest:Asia Insular (tropical wet region)"},{"$f":"Lists!D155","v":"Palm Plantation"},"Unmanaged Tropical Peat Forest:Asia Insular (tropical wet region):Palm Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AO100","v":"Tropical Woody Savannah:Palm Plantation"},{"$f":"Lists!E316","v":"Peat soil which requires drainage"},"Tropical Woody Savannah:Palm Plantation:Peat soil which requires drainage"]
[null,null,null,null,{"$f":"Lists!AE109","v":"Land reverting to Tropical Mountain System"},{"$f":"Lists!AE110","v":"Africa (tropical montane region)"},"Land reverting to Tropical Mountain System:Africa (tropical montane region)",null,{"$f":"Lists!A156","v":"Unmanaged Tropical Non-Peat Rainforest:Africa (tropical wet region)"},{"$f":"Lists!B156","v":"SRF Eucalyptus Plantation"},"Unmanaged Tropical Non-Peat Rainforest:Africa (tropical wet region):SRF Eucalyptus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C317","v":"Tropical Grassland Savannah:SRF Eucalyptus Plantation"},{"$f":"Lists!D317","v":"No peat drainage"},"Tropical Grassland Savannah:SRF Eucalyptus Plantation:No peat drainage"]
[null,null,null,null,{"$f":"E102","v":"Land reverting to Tropical Mountain System"},{"$f":"Lists!AE111","v":"North America (tropical montane region)"},"Land reverting to Tropical Mountain System:North America (tropical montane region)",null,{"$f":"I102","v":"Unmanaged Tropical Non-Peat Rainforest:Africa (tropical wet region)"},{"$f":"Lists!C156","v":"Maize Cropland"},"Unmanaged Tropical Non-Peat Rainforest:Africa (tropical wet region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AO102","v":"Tropical Grassland Savannah:SRF Eucalyptus Plantation"},{"$f":"Lists!E317","v":"Peat soil which requires drainage"},"Tropical Grassland Savannah:SRF Eucalyptus Plantation:Peat soil which requires drainage"]
[null,null,null,null,{"$f":"E103","v":"Land reverting to Tropical Mountain System"},{"$f":"Lists!AE112","v":"South America (tropical montane region)"},"Land reverting to Tropical Mountain System:South America (tropical montane region)",null,{"$f":"I103","v":"Unmanaged Tropical Non-Peat Rainforest:Africa (tropical wet region)"},{"$f":"Lists!D156","v":"Palm Plantation"},"Unmanaged Tropical Non-Peat Rainforest:Africa (tropical wet region):Palm Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C318","v":"Tropical Grassland Savannah:Maize Cropland"},{"$f":"Lists!D318","v":"No peat drainage"},"Tropical Grassland Savannah:Maize Cropland:No peat drainage"]
[null,null,null,null,"Land reverting to Tropical Mountain System",{"$f":"Lists!AE113","v":"Asia Continental (tropical montane region)"},"Land reverting to Tropical Mountain System:Asia Continental (tropical montane region)",null,{"$f":"Lists!A157","v":"Unmanaged Tropical Non-Peat Rainforest:North America (tropical wet region)"},{"$f":"Lists!B157","v":"SRF Eucalyptus Plantation"},"Unmanaged Tropical Non-Peat Rainforest:North America (tropical wet region):SRF Eucalyptus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AO104","v":"Tropical Grassland Savannah:Maize Cropland"},{"$f":"Lists!E318","v":"Peat soil which requires drainage"},"Tropical Grassland Savannah:Maize Cropland:Peat soil which requires drainage"]
[null,null,null,null,"Land reverting to Tropical Mountain System",{"$f":"Lists!AE114","v":"Asia Insular (tropical montane region)"},"Land reverting to Tropical Mountain System:Asia Insular (tropical montane region)",null,{"$f":"I105","v":"Unmanaged Tropical Non-Peat Rainforest:North America (tropical wet region)"},{"$f":"Lists!C157","v":"Maize Cropland"},"Unmanaged Tropical Non-Peat Rainforest:North America (tropical wet region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C319","v":"Tropical Grassland Savannah:Palm Plantation"},{"$f":"Lists!D319","v":"No peat drainage"},"Tropical Grassland Savannah:Palm Plantation:No peat drainage"]
[null,null,null,null,{"$f":"Lists!AF109","v":"Land reverting to Tropical Woody Savanna"},{"$f":"Lists!AF110","v":"Africa (tropical dry region)"},"Land reverting to Tropical Woody Savanna:Africa (tropical dry region)",null,{"$f":"I106","v":"Unmanaged Tropical Non-Peat Rainforest:North America (tropical wet region)"},{"$f":"Lists!D157","v":"Palm Plantation"},"Unmanaged Tropical Non-Peat Rainforest:North America (tropical wet region):Palm Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AO106","v":"Tropical Grassland Savannah:Palm Plantation"},{"$f":"Lists!E319","v":"Peat soil which requires drainage"},"Tropical Grassland Savannah:Palm Plantation:Peat soil which requires drainage"]
[null,null,null,null,{"$f":"E107","v":"Land reverting to Tropical Woody Savanna"},{"$f":"Lists!AF111","v":"North America (tropical dry region)"},"Land reverting to Tropical Woody Savanna:North America (tropical dry region)",null,{"$f":"Lists!A158","v":"Unmanaged Tropical Non-Peat Rainforest:South America (tropical wet region)"},{"$f":"Lists!B158","v":"SRF Eucalyptus Plantation"},"Unmanaged Tropical Non-Peat Rainforest:South America (tropical wet region):SRF Eucalyptus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C320","v":"Land reverting to Tropical Rainforest:SRF Eucalyptus Plantation"},{"$f":"Lists!D320","v":"No peat drainage"},"Land reverting to Tropical Rainforest:SRF Eucalyptus Plantation:No peat drainage"]
[null,null,null,null,{"$f":"E108","v":"Land reverting to Tropical Woody Savanna"},{"$f":"Lists!AF112","v":"South America (tropical dry region)"},"Land reverting to Tropical Woody Savanna:South America (tropical dry region)",null,{"$f":"I108","v":"Unmanaged Tropical Non-Peat Rainforest:South America (tropical wet region)"},{"$f":"Lists!C158","v":"Maize Cropland"},"Unmanaged Tropical Non-Peat Rainforest:South America (tropical wet region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C321","v":"Land reverting to Tropical Rainforest:Maize Cropland"},{"$f":"Lists!D321","v":"No peat drainage"},"Land reverting to Tropical Rainforest:Maize Cropland:No peat drainage"]
[null,null,null,null,"Land reverting to Tropical Woody Savanna",{"$f":"Lists!AF113","v":"Asia Continental (tropical dry region)"},"Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region)",null,{"$f":"I109","v":"Unmanaged Tropical Non-Peat Rainforest:South America (tropical wet region)"},{"$f":"Lists!D158","v":"Palm Plantation"},"Unmanaged Tropical Non-Peat Rainforest:South America (tropical wet region):Palm Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C322","v":"Land reverting to Tropical Rainforest:Palm Plantation"},{"$f":"Lists!D322","v":"No peat drainage"},"Land reverting to Tropical Rainforest:Palm Plantation:No peat drainage"]
[null,null,null,null,"Land reverting to Tropical Woody Savanna",{"$f":"Lists!AF114","v":"Asia Insular (tropical dry region)"},"Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region)",null,{"$f":"Lists!A159","v":"Unmanaged Tropical Non-Peat Rainforest:Asia Continental (tropical wet region)"},{"$f":"Lists!B159","v":"SRF Eucalyptus Plantation"},"Unmanaged Tropical Non-Peat Rainforest:Asia Continental (tropical wet region):SRF Eucalyptus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C323","v":"Land reverting to Tropical Moist Deciduous Forest:SRF Eucalyptus Plantation"},{"$f":"Lists!D323","v":"No peat drainage"},"Land reverting to Tropical Moist Deciduous Forest:SRF Eucalyptus Plantation:No peat drainage"]
[null,null,null,null,{"$f":"Lists!AG109","v":"Land reverting to Temperate Oceanic Forest"},{"$f":"Lists!AG110","v":"Europe (temperate moist region)"},"Land reverting to Temperate Oceanic Forest:Europe (temperate moist region)",null,{"$f":"I111","v":"Unmanaged Tropical Non-Peat Rainforest:Asia Continental (tropical wet region)"},{"$f":"Lists!C159","v":"Maize Cropland"},"Unmanaged Tropical Non-Peat Rainforest:Asia Continental (tropical wet region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C324","v":"Land reverting to Tropical Moist Deciduous Forest:Maize Cropland"},{"$f":"Lists!D324","v":"No peat drainage"},"Land reverting to Tropical Moist Deciduous Forest:Maize Cropland:No peat drainage"]
[null,null,null,null,{"$f":"E112","v":"Land reverting to Temperate Oceanic Forest"},{"$f":"Lists!AG111","v":"North America (temperate moist region)"},"Land reverting to Temperate Oceanic Forest:North America (temperate moist region)",null,{"$f":"I112","v":"Unmanaged Tropical Non-Peat Rainforest:Asia Continental (tropical wet region)"},{"$f":"Lists!D159","v":"Palm Plantation"},"Unmanaged Tropical Non-Peat Rainforest:Asia Continental (tropical wet region):Palm Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C325","v":"Land reverting to Tropical Moist Deciduous Forest:Palm Plantation"},{"$f":"Lists!D325","v":"No peat drainage"},"Land reverting to Tropical Moist Deciduous Forest:Palm Plantation:No peat drainage"]
[null,null,null,null,{"$f":"E113","v":"Land reverting to Temperate Oceanic Forest"},{"$f":"Lists!AG112","v":"New Zealand (temperate moist region)"},"Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region)",null,{"$f":"Lists!A160","v":"Unmanaged Tropical Non-Peat Rainforest:Asia Insular (tropical wet region)"},{"$f":"Lists!B160","v":"SRF Eucalyptus Plantation"},"Unmanaged Tropical Non-Peat Rainforest:Asia Insular (tropical wet region):SRF Eucalyptus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C326","v":"Land reverting to Tropical Moist Deciduous Forest:SRC Willow Plantation"},{"$f":"Lists!D326","v":"No peat drainage"},"Land reverting to Tropical Moist Deciduous Forest:SRC Willow Plantation:No peat drainage"]
[null,null,null,null,"Land reverting to Temperate Oceanic Forest",{"$f":"Lists!AG113","v":"South America (temperate moist region)"},"Land reverting to Temperate Oceanic Forest:South America (temperate moist region)",null,{"$f":"I114","v":"Unmanaged Tropical Non-Peat Rainforest:Asia Insular (tropical wet region)"},{"$f":"Lists!C160","v":"Maize Cropland"},"Unmanaged Tropical Non-Peat Rainforest:Asia Insular (tropical wet region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C327","v":"Land reverting to Tropical Moist Deciduous Forest:Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"Lists!D327","v":"No peat drainage"},"Land reverting to Tropical Moist Deciduous Forest:Newly Established Intensively managed SRF Conifer, 20 years rotation:No peat drainage"]
[null,null,null,null,{"$f":"Lists!AH109","v":"Land reverting to Temperate Continental Forest"},{"$f":"Lists!AH110","v":"Europe (temperate dry region)"},"Land reverting to Temperate Continental Forest:Europe (temperate dry region)",null,{"$f":"I115","v":"Unmanaged Tropical Non-Peat Rainforest:Asia Insular (tropical wet region)"},{"$f":"Lists!D160","v":"Palm Plantation"},"Unmanaged Tropical Non-Peat Rainforest:Asia Insular (tropical wet region):Palm Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C328","v":"Land reverting to Tropical Moist Deciduous Forest:Newly Established Intensively managed SRF Conifer, 25 years rotation"},{"$f":"Lists!D328","v":"No peat drainage"},"Land reverting to Tropical Moist Deciduous Forest:Newly Established Intensively managed SRF Conifer, 25 years rotation:No peat drainage"]
[null,null,null,null,{"$f":"E116","v":"Land reverting to Temperate Continental Forest"},{"$f":"Lists!AH111","v":"North America (temperate dry region)"},"Land reverting to Temperate Continental Forest:North America (temperate dry region)",null,{"$f":"Lists!A161","v":"Old Growth Fast Growing Conifer (> 200 years old):North West USA"},{"$f":"Lists!B161","v":"Newly Managed LRF Conifer (fast growing)"},"Old Growth Fast Growing Conifer (> 200 years old):North West USA:Newly Managed LRF Conifer (fast growing)",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C329","v":"Land reverting to Tropical Dry Forest:SRF Eucalyptus Plantation"},{"$f":"Lists!D329","v":"No peat drainage"},"Land reverting to Tropical Dry Forest:SRF Eucalyptus Plantation:No peat drainage"]
[null,null,null,null,{"$f":"E117","v":"Land reverting to Temperate Continental Forest"},{"$f":"Lists!AH112","v":"New Zealand (temperate dry region)"},"Land reverting to Temperate Continental Forest:New Zealand (temperate dry region)",null,{"$f":"Lists!A162","v":"Old Growth Fast Growing Conifer (> 200 years old):South USA"},{"$f":"Lists!B162","v":"Newly Managed LRF Conifer (fast growing)"},"Old Growth Fast Growing Conifer (> 200 years old):South USA:Newly Managed LRF Conifer (fast growing)",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C330","v":"Land reverting to Tropical Dry Forest:Maize Cropland"},{"$f":"Lists!D330","v":"No peat drainage"},"Land reverting to Tropical Dry Forest:Maize Cropland:No peat drainage"]
[null,null,null,null,"Land reverting to Temperate Continental Forest",{"$f":"Lists!AH113","v":"South America (temperate dry region)"},"Land reverting to Temperate Continental Forest:South America (temperate dry region)",null,{"$f":"Lists!A163","v":"Old Growth Slow Growing Conifer (> 200 years old):North West USA"},{"$f":"Lists!B163","v":"Newly Managed LRF Conifer (slow growing)"},"Old Growth Slow Growing Conifer (> 200 years old):North West USA:Newly Managed LRF Conifer (slow growing)",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C331","v":"Land reverting to Tropical Dry Forest:Palm Plantation"},{"$f":"Lists!D331","v":"No peat drainage"},"Land reverting to Tropical Dry Forest:Palm Plantation:No peat drainage"]
[null,null,null,null,{"$f":"Lists!AI109","v":"Land reverting to Temperate Mountain System"},{"$f":"Lists!AI110","v":"Europe (temperate moist region)"},"Land reverting to Temperate Mountain System:Europe (temperate moist region)",null,{"$f":"Lists!A164","v":"Northern Peatland:Europe (boreal region)"},{"$f":"Lists!B164","v":"SRC Willow Plantation"},"Northern Peatland:Europe (boreal region):SRC Willow Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C332","v":"Land reverting to Tropical Mountain System:SRF Eucalyptus Plantation"},{"$f":"Lists!D332","v":"No peat drainage"},"Land reverting to Tropical Mountain System:SRF Eucalyptus Plantation:No peat drainage"]
[null,null,null,null,{"$f":"E120","v":"Land reverting to Temperate Mountain System"},{"$f":"Lists!AI111","v":"North America (temperate moist region)"},"Land reverting to Temperate Mountain System:North America (temperate moist region)",null,{"$f":"I120","v":"Northern Peatland:Europe (boreal region)"},{"$f":"Lists!C164","v":"Miscanthus Plantation"},"Northern Peatland:Europe (boreal region):Miscanthus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C333","v":"Land reverting to Tropical Mountain System:Maize Cropland"},{"$f":"Lists!D333","v":"No peat drainage"},"Land reverting to Tropical Mountain System:Maize Cropland:No peat drainage"]
[null,null,null,null,{"$f":"E121","v":"Land reverting to Temperate Mountain System"},{"$f":"Lists!AI112","v":"New Zealand (temperate moist region)"},"Land reverting to Temperate Mountain System:New Zealand (temperate moist region)",null,{"$f":"I121","v":"Northern Peatland:Europe (boreal region)"},{"$f":"Lists!D164","v":"Maize Cropland"},"Northern Peatland:Europe (boreal region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C334","v":"Land reverting to Tropical Mountain System:Palm Plantation"},{"$f":"Lists!D334","v":"No peat drainage"},"Land reverting to Tropical Mountain System:Palm Plantation:No peat drainage"]
[null,null,null,null,"Land reverting to Temperate Mountain System",{"$f":"Lists!AI113","v":"South America (temperate moist region)"},"Land reverting to Temperate Mountain System:South America (temperate moist region)",null,{"$f":"Lists!A165","v":"Northern Peatland:North America (boreal region)"},{"$f":"Lists!B165","v":"SRC Willow Plantation"},"Northern Peatland:North America (boreal region):SRC Willow Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C335","v":"Land reverting to Tropical Mountain System:SRC Willow Plantation"},{"$f":"Lists!D335","v":"No peat drainage"},"Land reverting to Tropical Mountain System:SRC Willow Plantation:No peat drainage"]
[null,null,null,null,{"$f":"Lists!AJ109","v":"Land reverting to Temperate Shrub or Grassland"},{"$f":"Lists!AJ110","v":"Europe (temperate dry region)"},"Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region)",null,{"$f":"I123","v":"Northern Peatland:North America (boreal region)"},{"$f":"Lists!C165","v":"Miscanthus Plantation"},"Northern Peatland:North America (boreal region):Miscanthus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C336","v":"Land reverting to Tropical Mountain System:Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"Lists!D336","v":"No peat drainage"},"Land reverting to Tropical Mountain System:Newly Established Intensively managed SRF Conifer, 20 years rotation:No peat drainage"]
[null,null,null,null,{"$f":"E124","v":"Land reverting to Temperate Shrub or Grassland"},{"$f":"Lists!AJ111","v":"North America (temperate dry region)"},"Land reverting to Temperate Shrub or Grassland:North America (temperate dry region)",null,{"$f":"I124","v":"Northern Peatland:North America (boreal region)"},{"$f":"Lists!D165","v":"Maize Cropland"},"Northern Peatland:North America (boreal region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C337","v":"Land reverting to Tropical Mountain System:Newly Established Intensively managed SRF Conifer, 25 years rotation"},{"$f":"Lists!D337","v":"No peat drainage"},"Land reverting to Tropical Mountain System:Newly Established Intensively managed SRF Conifer, 25 years rotation:No peat drainage"]
[null,null,null,null,{"$f":"E125","v":"Land reverting to Temperate Shrub or Grassland"},{"$f":"Lists!AJ112","v":"New Zealand (temperate dry region)"},"Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region)",null,{"$f":"Lists!A166","v":"Northern Peatland:Asia Continental (boreal region)"},{"$f":"Lists!B166","v":"SRC Willow Plantation"},"Northern Peatland:Asia Continental (boreal region):SRC Willow Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C338","v":"Land reverting to Tropical Woody Savanna:SRF Eucalyptus Plantation"},{"$f":"Lists!D338","v":"No peat drainage"},"Land reverting to Tropical Woody Savanna:SRF Eucalyptus Plantation:No peat drainage"]
[null,null,null,null,"Land reverting to Temperate Shrub or Grassland",{"$f":"Lists!AJ113","v":"South America (temperate dry region)"},"Land reverting to Temperate Shrub or Grassland:South America (temperate dry region)",null,{"$f":"I126","v":"Northern Peatland:Asia Continental (boreal region)"},{"$f":"Lists!C166","v":"Miscanthus Plantation"},"Northern Peatland:Asia Continental (boreal region):Miscanthus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C339","v":"Land reverting to Tropical Woody Savanna:Maize Cropland"},{"$f":"Lists!D339","v":"No peat drainage"},"Land reverting to Tropical Woody Savanna:Maize Cropland:No peat drainage"]
[null,null,null,null,{"$f":"Lists!AK109","v":"Land reverting to Boreal Coniferous Forest"},{"$f":"Lists!AK110","v":"Europe (boreal region)"},"Land reverting to Boreal Coniferous Forest:Europe (boreal region)",null,{"$f":"I127","v":"Northern Peatland:Asia Continental (boreal region)"},{"$f":"Lists!D166","v":"Maize Cropland"},"Northern Peatland:Asia Continental (boreal region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C340","v":"Land reverting to Tropical Woody Savanna:Palm Plantation"},{"$f":"Lists!D340","v":"No peat drainage"},"Land reverting to Tropical Woody Savanna:Palm Plantation:No peat drainage"]
[null,null,null,null,{"$f":"E128","v":"Land reverting to Boreal Coniferous Forest"},{"$f":"Lists!AK111","v":"North America (boreal region)"},"Land reverting to Boreal Coniferous Forest:North America (boreal region)",null,{"$f":"Lists!A167","v":"Marsh and Swamp :Africa (tropical wet region)"},{"$f":"Lists!B167","v":"SRF Eucalyptus Plantation"},"Marsh and Swamp :Africa (tropical wet region):SRF Eucalyptus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C341","v":"Land reverting to Temperate Oceanic Forest:SRC Willow Plantation"},{"$f":"Lists!D341","v":"No peat drainage"},"Land reverting to Temperate Oceanic Forest:SRC Willow Plantation:No peat drainage"]
[null,null,null,null,{"$f":"E129","v":"Land reverting to Boreal Coniferous Forest"},{"$f":"Lists!AK112","v":"Asia Continental (boreal region)"},"Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region)",null,{"$f":"I129","v":"Marsh and Swamp :Africa (tropical wet region)"},{"$f":"Lists!C167","v":"Maize Cropland"},"Marsh and Swamp :Africa (tropical wet region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C342","v":"Land reverting to Temperate Oceanic Forest:Miscanthus Plantation"},{"$f":"Lists!D342","v":"No peat drainage"},"Land reverting to Temperate Oceanic Forest:Miscanthus Plantation:No peat drainage"]
[null,null,null,null,{"$f":"Lists!AL109","v":"Land reverting to Boreal Tundra"},{"$f":"Lists!AL110","v":"Europe (boreal region)"},"Land reverting to Boreal Tundra:Europe (boreal region)",null,{"$f":"I130","v":"Marsh and Swamp :Africa (tropical wet region)"},{"$f":"Lists!D167","v":"Palm Plantation"},"Marsh and Swamp :Africa (tropical wet region):Palm Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C343","v":"Land reverting to Temperate Oceanic Forest:Maize Cropland"},{"$f":"Lists!D343","v":"No peat drainage"},"Land reverting to Temperate Oceanic Forest:Maize Cropland:No peat drainage"]
[null,null,null,null,{"$f":"E131","v":"Land reverting to Boreal Tundra"},{"$f":"Lists!AL111","v":"North America (boreal region)"},"Land reverting to Boreal Tundra:North America (boreal region)",null,{"$f":"Lists!A168","v":"Marsh and Swamp :North America (tropical wet region)"},{"$f":"Lists!B168","v":"SRF Eucalyptus Plantation"},"Marsh and Swamp :North America (tropical wet region):SRF Eucalyptus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C344","v":"Land reverting to Temperate Oceanic Forest:Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"Lists!D344","v":"No peat drainage"},"Land reverting to Temperate Oceanic Forest:Newly Established Intensively managed SRF Conifer, 20 years rotation:No peat drainage"]
[null,null,null,null,{"$f":"E132","v":"Land reverting to Boreal Tundra"},{"$f":"Lists!AL112","v":"Asia Continental (boreal region)"},"Land reverting to Boreal Tundra:Asia Continental (boreal region)",null,{"$f":"I132","v":"Marsh and Swamp :North America (tropical wet region)"},{"$f":"Lists!C168","v":"Maize Cropland"},"Marsh and Swamp :North America (tropical wet region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C345","v":"Land reverting to Temperate Oceanic Forest:Newly Established Intensively managed SRF Conifer, 25 years rotation"},{"$f":"Lists!D345","v":"No peat drainage"},"Land reverting to Temperate Oceanic Forest:Newly Established Intensively managed SRF Conifer, 25 years rotation:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"I133","v":"Marsh and Swamp :North America (tropical wet region)"},{"$f":"Lists!D168","v":"Palm Plantation"},"Marsh and Swamp :North America (tropical wet region):Palm Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C346","v":"Land reverting to Temperate Continental Forest:SRC Willow Plantation"},{"$f":"Lists!D346","v":"No peat drainage"},"Land reverting to Temperate Continental Forest:SRC Willow Plantation:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A169","v":"Marsh and Swamp :South America (tropical wet region)"},{"$f":"Lists!B169","v":"SRF Eucalyptus Plantation"},"Marsh and Swamp :South America (tropical wet region):SRF Eucalyptus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C347","v":"Land reverting to Temperate Continental Forest:Miscanthus Plantation"},{"$f":"Lists!D347","v":"No peat drainage"},"Land reverting to Temperate Continental Forest:Miscanthus Plantation:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"I135","v":"Marsh and Swamp :South America (tropical wet region)"},{"$f":"Lists!C169","v":"Maize Cropland"},"Marsh and Swamp :South America (tropical wet region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C348","v":"Land reverting to Temperate Continental Forest:Maize Cropland"},{"$f":"Lists!D348","v":"No peat drainage"},"Land reverting to Temperate Continental Forest:Maize Cropland:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"I136","v":"Marsh and Swamp :South America (tropical wet region)"},{"$f":"Lists!D169","v":"Palm Plantation"},"Marsh and Swamp :South America (tropical wet region):Palm Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C349","v":"Land reverting to Temperate Mountain System:SRC Willow Plantation"},{"$f":"Lists!D349","v":"No peat drainage"},"Land reverting to Temperate Mountain System:SRC Willow Plantation:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A170","v":"Marsh and Swamp :Asia Continental (tropical wet region)"},{"$f":"Lists!B170","v":"SRF Eucalyptus Plantation"},"Marsh and Swamp :Asia Continental (tropical wet region):SRF Eucalyptus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C350","v":"Land reverting to Temperate Mountain System:Miscanthus Plantation"},{"$f":"Lists!D350","v":"No peat drainage"},"Land reverting to Temperate Mountain System:Miscanthus Plantation:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"I138","v":"Marsh and Swamp :Asia Continental (tropical wet region)"},{"$f":"Lists!C170","v":"Maize Cropland"},"Marsh and Swamp :Asia Continental (tropical wet region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C351","v":"Land reverting to Temperate Mountain System:Maize Cropland"},{"$f":"Lists!D351","v":"No peat drainage"},"Land reverting to Temperate Mountain System:Maize Cropland:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"I139","v":"Marsh and Swamp :Asia Continental (tropical wet region)"},{"$f":"Lists!D170","v":"Palm Plantation"},"Marsh and Swamp :Asia Continental (tropical wet region):Palm Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C352","v":"Land reverting to Temperate Mountain System:Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"Lists!D352","v":"No peat drainage"},"Land reverting to Temperate Mountain System:Newly Established Intensively managed SRF Conifer, 20 years rotation:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A171","v":"Marsh and Swamp :Asia Insular (tropical wet region)"},{"$f":"Lists!B171","v":"SRF Eucalyptus Plantation"},"Marsh and Swamp :Asia Insular (tropical wet region):SRF Eucalyptus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C353","v":"Land reverting to Temperate Mountain System:Newly Established Intensively managed SRF Conifer, 25 years rotation"},{"$f":"Lists!D353","v":"No peat drainage"},"Land reverting to Temperate Mountain System:Newly Established Intensively managed SRF Conifer, 25 years rotation:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"I141","v":"Marsh and Swamp :Asia Insular (tropical wet region)"},{"$f":"Lists!C171","v":"Maize Cropland"},{"$f":"I142&\":\"&J142","v":"Marsh and Swamp :Asia Insular (tropical wet region):Maize Cropland"},null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C354","v":"Land reverting to Temperate Shrub or Grassland:SRC Willow Plantation"},{"$f":"Lists!D354","v":"No peat drainage"},{"$f":"AO142&\":\"&AP142","v":"Land reverting to Temperate Shrub or Grassland:SRC Willow Plantation:No peat drainage"}]
[null,null,null,null,null,null,null,null,{"$f":"I142","v":"Marsh and Swamp :Asia Insular (tropical wet region)"},{"$f":"Lists!D171","v":"Palm Plantation"},"Marsh and Swamp :Asia Insular (tropical wet region):Palm Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C355","v":"Land reverting to Temperate Shrub or Grassland:Miscanthus Plantation"},{"$f":"Lists!D355","v":"No peat drainage"},"Land reverting to Temperate Shrub or Grassland:Miscanthus Plantation:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A172","v":"Tundra Woodland:Europe (boreal region)"},{"$f":"Lists!B172","v":"SRC Willow Plantation"},"Tundra Woodland:Europe (boreal region):SRC Willow Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C356","v":"Land reverting to Temperate Shrub or Grassland:Maize Cropland"},{"$f":"Lists!D356","v":"No peat drainage"},"Land reverting to Temperate Shrub or Grassland:Maize Cropland:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"I144","v":"Tundra Woodland:Europe (boreal region)"},{"$f":"Lists!C172","v":"Miscanthus Plantation"},"Tundra Woodland:Europe (boreal region):Miscanthus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C357","v":"Land reverting to Temperate Shrub or Grassland:Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"Lists!D357","v":"No peat drainage"},"Land reverting to Temperate Shrub or Grassland:Newly Established Intensively managed SRF Conifer, 20 years rotation:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"I145","v":"Tundra Woodland:Europe (boreal region)"},{"$f":"Lists!D172","v":"Maize Cropland"},"Tundra Woodland:Europe (boreal region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C358","v":"Land reverting to Temperate Shrub or Grassland:Newly Established Intensively managed SRF Conifer, 25 years rotation"},{"$f":"Lists!D358","v":"No peat drainage"},"Land reverting to Temperate Shrub or Grassland:Newly Established Intensively managed SRF Conifer, 25 years rotation:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A173","v":"Tundra Woodland:North America (boreal region)"},{"$f":"Lists!B173","v":"SRC Willow Plantation"},"Tundra Woodland:North America (boreal region):SRC Willow Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C359","v":"Land reverting to Boreal Coniferous Forest:SRC Willow Plantation"},{"$f":"Lists!D359","v":"No peat drainage"},"Land reverting to Boreal Coniferous Forest:SRC Willow Plantation:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"I147","v":"Tundra Woodland:North America (boreal region)"},{"$f":"Lists!C173","v":"Miscanthus Plantation"},"Tundra Woodland:North America (boreal region):Miscanthus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C360","v":"Land reverting to Boreal Coniferous Forest:Miscanthus Plantation"},{"$f":"Lists!D360","v":"No peat drainage"},"Land reverting to Boreal Coniferous Forest:Miscanthus Plantation:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"I148","v":"Tundra Woodland:North America (boreal region)"},{"$f":"Lists!D173","v":"Maize Cropland"},"Tundra Woodland:North America (boreal region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C361","v":"Land reverting to Boreal Coniferous Forest:Maize Cropland"},{"$f":"Lists!D361","v":"No peat drainage"},"Land reverting to Boreal Coniferous Forest:Maize Cropland:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A174","v":"Tundra Woodland:Asia Continental (boreal region)"},{"$f":"Lists!B174","v":"SRC Willow Plantation"},"Tundra Woodland:Asia Continental (boreal region):SRC Willow Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C362","v":"Land reverting to Boreal Tundra:SRC Willow Plantation"},{"$f":"Lists!D362","v":"No peat drainage"},"Land reverting to Boreal Tundra:SRC Willow Plantation:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"I150","v":"Tundra Woodland:Asia Continental (boreal region)"},{"$f":"Lists!C174","v":"Miscanthus Plantation"},"Tundra Woodland:Asia Continental (boreal region):Miscanthus Plantation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C363","v":"Land reverting to Boreal Tundra:Miscanthus Plantation"},{"$f":"Lists!D363","v":"No peat drainage"},"Land reverting to Boreal Tundra:Miscanthus Plantation:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"I151","v":"Tundra Woodland:Asia Continental (boreal region)"},{"$f":"Lists!D174","v":"Maize Cropland"},"Tundra Woodland:Asia Continental (boreal region):Maize Cropland",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"Lists!C364","v":"Land reverting to Boreal Tundra:Maize Cropland"},{"$f":"Lists!D364","v":"No peat drainage"},"Land reverting to Boreal Tundra:Maize Cropland:No peat drainage"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A175","v":"Temperate shrub land :Europe (temperate dry region)"},{"$f":"Lists!B175","v":"SRC Willow Plantation"},"Temperate shrub land :Europe (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I153","v":"Temperate shrub land :Europe (temperate dry region)"},{"$f":"Lists!C175","v":"Miscanthus Plantation"},"Temperate shrub land :Europe (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I154","v":"Temperate shrub land :Europe (temperate dry region)"},{"$f":"Lists!D175","v":"Maize Cropland"},"Temperate shrub land :Europe (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A176","v":"Temperate shrub land :North America (temperate dry region)"},{"$f":"Lists!B176","v":"SRC Willow Plantation"},"Temperate shrub land :North America (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I156","v":"Temperate shrub land :North America (temperate dry region)"},{"$f":"Lists!C176","v":"Miscanthus Plantation"},"Temperate shrub land :North America (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I157","v":"Temperate shrub land :North America (temperate dry region)"},{"$f":"Lists!D176","v":"Maize Cropland"},"Temperate shrub land :North America (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A177","v":"Temperate shrub land :New Zealand (temperate dry region)"},{"$f":"Lists!B177","v":"SRC Willow Plantation"},"Temperate shrub land :New Zealand (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I159","v":"Temperate shrub land :New Zealand (temperate dry region)"},{"$f":"Lists!C177","v":"Miscanthus Plantation"},"Temperate shrub land :New Zealand (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I160","v":"Temperate shrub land :New Zealand (temperate dry region)"},{"$f":"Lists!D177","v":"Maize Cropland"},"Temperate shrub land :New Zealand (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A178","v":"Temperate shrub land :South America (temperate dry region)"},{"$f":"Lists!B178","v":"SRC Willow Plantation"},"Temperate shrub land :South America (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I162","v":"Temperate shrub land :South America (temperate dry region)"},{"$f":"Lists!C178","v":"Miscanthus Plantation"},"Temperate shrub land :South America (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I163","v":"Temperate shrub land :South America (temperate dry region)"},{"$f":"Lists!D178","v":"Maize Cropland"},"Temperate shrub land :South America (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A179","v":"Temperate grassland (e.g. Steppes, grassland praires):Europe (temperate dry region)"},{"$f":"Lists!B179","v":"SRC Willow Plantation"},"Temperate grassland (e.g. Steppes, grassland praires):Europe (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I165","v":"Temperate grassland (e.g. Steppes, grassland praires):Europe (temperate dry region)"},{"$f":"Lists!C179","v":"Miscanthus Plantation"},"Temperate grassland (e.g. Steppes, grassland praires):Europe (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I166","v":"Temperate grassland (e.g. Steppes, grassland praires):Europe (temperate dry region)"},{"$f":"Lists!D179","v":"Maize Cropland"},"Temperate grassland (e.g. Steppes, grassland praires):Europe (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A180","v":"Temperate grassland (e.g. Steppes, grassland praires):North America (temperate dry region)"},{"$f":"Lists!B180","v":"SRC Willow Plantation"},"Temperate grassland (e.g. Steppes, grassland praires):North America (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I168","v":"Temperate grassland (e.g. Steppes, grassland praires):North America (temperate dry region)"},{"$f":"Lists!C180","v":"Miscanthus Plantation"},"Temperate grassland (e.g. Steppes, grassland praires):North America (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I169","v":"Temperate grassland (e.g. Steppes, grassland praires):North America (temperate dry region)"},{"$f":"Lists!D180","v":"Maize Cropland"},"Temperate grassland (e.g. Steppes, grassland praires):North America (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A181","v":"Temperate grassland (e.g. Steppes, grassland praires):New Zealand (temperate dry region)"},{"$f":"Lists!B181","v":"SRC Willow Plantation"},"Temperate grassland (e.g. Steppes, grassland praires):New Zealand (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I171","v":"Temperate grassland (e.g. Steppes, grassland praires):New Zealand (temperate dry region)"},{"$f":"Lists!C181","v":"Miscanthus Plantation"},"Temperate grassland (e.g. Steppes, grassland praires):New Zealand (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I172","v":"Temperate grassland (e.g. Steppes, grassland praires):New Zealand (temperate dry region)"},{"$f":"Lists!D181","v":"Maize Cropland"},"Temperate grassland (e.g. Steppes, grassland praires):New Zealand (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A182","v":"Temperate grassland (e.g. Steppes, grassland praires):South America (temperate dry region)"},{"$f":"Lists!B182","v":"SRC Willow Plantation"},"Temperate grassland (e.g. Steppes, grassland praires):South America (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I174","v":"Temperate grassland (e.g. Steppes, grassland praires):South America (temperate dry region)"},{"$f":"Lists!C182","v":"Miscanthus Plantation"},"Temperate grassland (e.g. Steppes, grassland praires):South America (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I175","v":"Temperate grassland (e.g. Steppes, grassland praires):South America (temperate dry region)"},{"$f":"Lists!D182","v":"Maize Cropland"},"Temperate grassland (e.g. Steppes, grassland praires):South America (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A183","v":"Tropical Woody Savannah:Africa (tropical dry region)"},{"$f":"Lists!B183","v":"SRF Eucalyptus Plantation"},"Tropical Woody Savannah:Africa (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I177","v":"Tropical Woody Savannah:Africa (tropical dry region)"},{"$f":"Lists!C183","v":"Maize Cropland"},"Tropical Woody Savannah:Africa (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I178","v":"Tropical Woody Savannah:Africa (tropical dry region)"},{"$f":"Lists!D183","v":"Palm Plantation"},"Tropical Woody Savannah:Africa (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A184","v":"Tropical Woody Savannah:North America (tropical dry region)"},{"$f":"Lists!B184","v":"SRF Eucalyptus Plantation"},"Tropical Woody Savannah:North America (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I180","v":"Tropical Woody Savannah:North America (tropical dry region)"},{"$f":"Lists!C184","v":"Maize Cropland"},"Tropical Woody Savannah:North America (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I181","v":"Tropical Woody Savannah:North America (tropical dry region)"},{"$f":"Lists!D184","v":"Palm Plantation"},"Tropical Woody Savannah:North America (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A185","v":"Tropical Woody Savannah:South America (tropical dry region)"},{"$f":"Lists!B185","v":"SRF Eucalyptus Plantation"},"Tropical Woody Savannah:South America (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I183","v":"Tropical Woody Savannah:South America (tropical dry region)"},{"$f":"Lists!C185","v":"Maize Cropland"},"Tropical Woody Savannah:South America (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I184","v":"Tropical Woody Savannah:South America (tropical dry region)"},{"$f":"Lists!D185","v":"Palm Plantation"},"Tropical Woody Savannah:South America (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A186","v":"Tropical Woody Savannah:Asia Continental (tropical dry region)"},{"$f":"Lists!B186","v":"SRF Eucalyptus Plantation"},"Tropical Woody Savannah:Asia Continental (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I186","v":"Tropical Woody Savannah:Asia Continental (tropical dry region)"},{"$f":"Lists!C186","v":"Maize Cropland"},"Tropical Woody Savannah:Asia Continental (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I187","v":"Tropical Woody Savannah:Asia Continental (tropical dry region)"},{"$f":"Lists!D186","v":"Palm Plantation"},"Tropical Woody Savannah:Asia Continental (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A187","v":"Tropical Woody Savannah:Asia Insular (tropical dry region)"},{"$f":"Lists!B187","v":"SRF Eucalyptus Plantation"},"Tropical Woody Savannah:Asia Insular (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I189","v":"Tropical Woody Savannah:Asia Insular (tropical dry region)"},{"$f":"Lists!C187","v":"Maize Cropland"},"Tropical Woody Savannah:Asia Insular (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I190","v":"Tropical Woody Savannah:Asia Insular (tropical dry region)"},{"$f":"Lists!D187","v":"Palm Plantation"},"Tropical Woody Savannah:Asia Insular (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A188","v":"Tropical Grassland Savannah:Africa (tropical dry region)"},{"$f":"Lists!B188","v":"SRF Eucalyptus Plantation"},"Tropical Grassland Savannah:Africa (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I192","v":"Tropical Grassland Savannah:Africa (tropical dry region)"},{"$f":"Lists!C188","v":"Maize Cropland"},"Tropical Grassland Savannah:Africa (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I193","v":"Tropical Grassland Savannah:Africa (tropical dry region)"},{"$f":"Lists!D188","v":"Palm Plantation"},"Tropical Grassland Savannah:Africa (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A189","v":"Tropical Grassland Savannah:North America (tropical dry region)"},{"$f":"Lists!B189","v":"SRF Eucalyptus Plantation"},"Tropical Grassland Savannah:North America (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I195","v":"Tropical Grassland Savannah:North America (tropical dry region)"},{"$f":"Lists!C189","v":"Maize Cropland"},"Tropical Grassland Savannah:North America (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I196","v":"Tropical Grassland Savannah:North America (tropical dry region)"},{"$f":"Lists!D189","v":"Palm Plantation"},"Tropical Grassland Savannah:North America (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A190","v":"Tropical Grassland Savannah:South America (tropical dry region)"},{"$f":"Lists!B190","v":"SRF Eucalyptus Plantation"},"Tropical Grassland Savannah:South America (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I198","v":"Tropical Grassland Savannah:South America (tropical dry region)"},{"$f":"Lists!C190","v":"Maize Cropland"},"Tropical Grassland Savannah:South America (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I199","v":"Tropical Grassland Savannah:South America (tropical dry region)"},{"$f":"Lists!D190","v":"Palm Plantation"},"Tropical Grassland Savannah:South America (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A191","v":"Tropical Grassland Savannah:Asia Continental (tropical dry region)"},{"$f":"Lists!B191","v":"SRF Eucalyptus Plantation"},"Tropical Grassland Savannah:Asia Continental (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I201","v":"Tropical Grassland Savannah:Asia Continental (tropical dry region)"},{"$f":"Lists!C191","v":"Maize Cropland"},"Tropical Grassland Savannah:Asia Continental (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I202","v":"Tropical Grassland Savannah:Asia Continental (tropical dry region)"},{"$f":"Lists!D191","v":"Palm Plantation"},"Tropical Grassland Savannah:Asia Continental (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A192","v":"Tropical Grassland Savannah:Asia Insular (tropical dry region)"},{"$f":"Lists!B192","v":"SRF Eucalyptus Plantation"},"Tropical Grassland Savannah:Asia Insular (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I204","v":"Tropical Grassland Savannah:Asia Insular (tropical dry region)"},{"$f":"Lists!C192","v":"Maize Cropland"},"Tropical Grassland Savannah:Asia Insular (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I205","v":"Tropical Grassland Savannah:Asia Insular (tropical dry region)"},{"$f":"Lists!D192","v":"Palm Plantation"},{"$f":"I206&\":\"&J206","v":"Tropical Grassland Savannah:Asia Insular (tropical dry region):Palm Plantation"}]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A193","v":"Land reverting to Tropical Rainforest:Africa (tropical wet region)"},{"$f":"Lists!B193","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Rainforest:Africa (tropical wet region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I207","v":"Land reverting to Tropical Rainforest:Africa (tropical wet region)"},{"$f":"Lists!C193","v":"Maize Cropland"},"Land reverting to Tropical Rainforest:Africa (tropical wet region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I208","v":"Land reverting to Tropical Rainforest:Africa (tropical wet region)"},{"$f":"Lists!D193","v":"Palm Plantation"},"Land reverting to Tropical Rainforest:Africa (tropical wet region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A194","v":"Land reverting to Tropical Rainforest:North America (tropical wet region)"},{"$f":"Lists!B194","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Rainforest:North America (tropical wet region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I210","v":"Land reverting to Tropical Rainforest:North America (tropical wet region)"},{"$f":"Lists!C194","v":"Maize Cropland"},"Land reverting to Tropical Rainforest:North America (tropical wet region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I211","v":"Land reverting to Tropical Rainforest:North America (tropical wet region)"},{"$f":"Lists!D194","v":"Palm Plantation"},"Land reverting to Tropical Rainforest:North America (tropical wet region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A195","v":"Land reverting to Tropical Rainforest:South America (tropical wet region)"},{"$f":"Lists!B195","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Rainforest:South America (tropical wet region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I213","v":"Land reverting to Tropical Rainforest:South America (tropical wet region)"},{"$f":"Lists!C195","v":"Maize Cropland"},"Land reverting to Tropical Rainforest:South America (tropical wet region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I214","v":"Land reverting to Tropical Rainforest:South America (tropical wet region)"},{"$f":"Lists!D195","v":"Palm Plantation"},"Land reverting to Tropical Rainforest:South America (tropical wet region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A196","v":"Land reverting to Tropical Rainforest:Asia Continental (tropical wet region)"},{"$f":"Lists!B196","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Rainforest:Asia Continental (tropical wet region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I216","v":"Land reverting to Tropical Rainforest:Asia Continental (tropical wet region)"},{"$f":"Lists!C196","v":"Maize Cropland"},"Land reverting to Tropical Rainforest:Asia Continental (tropical wet region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I217","v":"Land reverting to Tropical Rainforest:Asia Continental (tropical wet region)"},{"$f":"Lists!D196","v":"Palm Plantation"},"Land reverting to Tropical Rainforest:Asia Continental (tropical wet region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A197","v":"Land reverting to Tropical Rainforest:Asia Insular (tropical wet region)"},{"$f":"Lists!B197","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Rainforest:Asia Insular (tropical wet region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I219","v":"Land reverting to Tropical Rainforest:Asia Insular (tropical wet region)"},{"$f":"Lists!C197","v":"Maize Cropland"},"Land reverting to Tropical Rainforest:Asia Insular (tropical wet region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I220","v":"Land reverting to Tropical Rainforest:Asia Insular (tropical wet region)"},{"$f":"Lists!D197","v":"Palm Plantation"},"Land reverting to Tropical Rainforest:Asia Insular (tropical wet region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A198","v":"Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region)"},{"$f":"Lists!B198","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I222","v":"Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region)"},{"$f":"Lists!C198","v":"Maize Cropland"},"Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I223","v":"Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region)"},{"$f":"Lists!D198","v":"Palm Plantation"},"Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A199","v":"Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region)"},{"$f":"Lists!B199","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I225","v":"Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region)"},{"$f":"Lists!C199","v":"Maize Cropland"},"Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I226","v":"Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region)"},{"$f":"Lists!D199","v":"Palm Plantation"},"Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I227","v":"Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region)"},{"$f":"Lists!E199","v":"SRC Willow Plantation"},"Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I228","v":"Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region)"},{"$f":"Lists!F199","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},"Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region):Newly Established Intensively managed SRF Conifer, 20 years rotation"]
[null,null,null,null,null,null,null,null,{"$f":"I229","v":"Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region)"},{"$f":"Lists!G199","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},"Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region):Newly Established Intensively managed SRF Conifer, 25 years rotation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A200","v":"Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region)"},{"$f":"Lists!B200","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I231","v":"Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region)"},{"$f":"Lists!C200","v":"Maize Cropland"},"Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I232","v":"Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region)"},{"$f":"Lists!D200","v":"Palm Plantation"},"Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A201","v":"Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region)"},{"$f":"Lists!B201","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I234","v":"Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region)"},{"$f":"Lists!C201","v":"Maize Cropland"},"Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I235","v":"Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region)"},{"$f":"Lists!D201","v":"Palm Plantation"},"Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A202","v":"Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region)"},{"$f":"Lists!B202","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I237","v":"Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region)"},{"$f":"Lists!C202","v":"Maize Cropland"},"Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I238","v":"Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region)"},{"$f":"Lists!D202","v":"Palm Plantation"},"Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A203","v":"Land reverting to Tropical Dry Forest:Africa (tropical dry region)"},{"$f":"Lists!B203","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Dry Forest:Africa (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I240","v":"Land reverting to Tropical Dry Forest:Africa (tropical dry region)"},{"$f":"Lists!C203","v":"Maize Cropland"},"Land reverting to Tropical Dry Forest:Africa (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I241","v":"Land reverting to Tropical Dry Forest:Africa (tropical dry region)"},{"$f":"Lists!D203","v":"Palm Plantation"},"Land reverting to Tropical Dry Forest:Africa (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A204","v":"Land reverting to Tropical Dry Forest:North America (tropical dry region)"},{"$f":"Lists!B204","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Dry Forest:North America (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I243","v":"Land reverting to Tropical Dry Forest:North America (tropical dry region)"},{"$f":"Lists!C204","v":"Maize Cropland"},"Land reverting to Tropical Dry Forest:North America (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I244","v":"Land reverting to Tropical Dry Forest:North America (tropical dry region)"},{"$f":"Lists!D204","v":"Palm Plantation"},"Land reverting to Tropical Dry Forest:North America (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A205","v":"Land reverting to Tropical Dry Forest:South America (tropical dry region)"},{"$f":"Lists!B205","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Dry Forest:South America (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I246","v":"Land reverting to Tropical Dry Forest:South America (tropical dry region)"},{"$f":"Lists!C205","v":"Maize Cropland"},"Land reverting to Tropical Dry Forest:South America (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I247","v":"Land reverting to Tropical Dry Forest:South America (tropical dry region)"},{"$f":"Lists!D205","v":"Palm Plantation"},"Land reverting to Tropical Dry Forest:South America (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A206","v":"Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region)"},{"$f":"Lists!B206","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I249","v":"Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region)"},{"$f":"Lists!C206","v":"Maize Cropland"},"Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I250","v":"Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region)"},{"$f":"Lists!D206","v":"Palm Plantation"},"Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A207","v":"Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region)"},{"$f":"Lists!B207","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I252","v":"Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region)"},{"$f":"Lists!C207","v":"Maize Cropland"},"Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I253","v":"Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region)"},{"$f":"Lists!D207","v":"Palm Plantation"},"Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A208","v":"Land reverting to Tropical Mountain System:Africa (tropical montane region)"},{"$f":"Lists!B208","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Mountain System:Africa (tropical montane region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I255","v":"Land reverting to Tropical Mountain System:Africa (tropical montane region)"},{"$f":"Lists!C208","v":"Maize Cropland"},"Land reverting to Tropical Mountain System:Africa (tropical montane region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I256","v":"Land reverting to Tropical Mountain System:Africa (tropical montane region)"},{"$f":"Lists!D208","v":"Palm Plantation"},"Land reverting to Tropical Mountain System:Africa (tropical montane region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A209","v":"Land reverting to Tropical Mountain System:North America (tropical montane region)"},{"$f":"Lists!B209","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Mountain System:North America (tropical montane region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I258","v":"Land reverting to Tropical Mountain System:North America (tropical montane region)"},{"$f":"Lists!C209","v":"Maize Cropland"},"Land reverting to Tropical Mountain System:North America (tropical montane region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I259","v":"Land reverting to Tropical Mountain System:North America (tropical montane region)"},{"$f":"Lists!D209","v":"Palm Plantation"},"Land reverting to Tropical Mountain System:North America (tropical montane region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I260","v":"Land reverting to Tropical Mountain System:North America (tropical montane region)"},{"$f":"Lists!E209","v":"SRC Willow Plantation"},"Land reverting to Tropical Mountain System:North America (tropical montane region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I261","v":"Land reverting to Tropical Mountain System:North America (tropical montane region)"},{"$f":"Lists!F209","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},"Land reverting to Tropical Mountain System:North America (tropical montane region):Newly Established Intensively managed SRF Conifer, 20 years rotation"]
[null,null,null,null,null,null,null,null,{"$f":"I262","v":"Land reverting to Tropical Mountain System:North America (tropical montane region)"},{"$f":"Lists!G209","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},"Land reverting to Tropical Mountain System:North America (tropical montane region):Newly Established Intensively managed SRF Conifer, 25 years rotation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A210","v":"Land reverting to Tropical Mountain System:South America (tropical montane region)"},{"$f":"Lists!B210","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Mountain System:South America (tropical montane region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I264","v":"Land reverting to Tropical Mountain System:South America (tropical montane region)"},{"$f":"Lists!C210","v":"Maize Cropland"},"Land reverting to Tropical Mountain System:South America (tropical montane region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I265","v":"Land reverting to Tropical Mountain System:South America (tropical montane region)"},{"$f":"Lists!D210","v":"Palm Plantation"},"Land reverting to Tropical Mountain System:South America (tropical montane region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A211","v":"Land reverting to Tropical Mountain System:Asia Continental (tropical montane region)"},{"$f":"Lists!B211","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Mountain System:Asia Continental (tropical montane region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I267","v":"Land reverting to Tropical Mountain System:Asia Continental (tropical montane region)"},{"$f":"Lists!C211","v":"Maize Cropland"},"Land reverting to Tropical Mountain System:Asia Continental (tropical montane region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I268","v":"Land reverting to Tropical Mountain System:Asia Continental (tropical montane region)"},{"$f":"Lists!D211","v":"Palm Plantation"},"Land reverting to Tropical Mountain System:Asia Continental (tropical montane region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A212","v":"Land reverting to Tropical Mountain System:Asia Insular (tropical montane region)"},{"$f":"Lists!B212","v":"SRF Eucalyptus Plantation"},{"$f":"I270&\":\"&J270","v":"Land reverting to Tropical Mountain System:Asia Insular (tropical montane region):SRF Eucalyptus Plantation"}]
[null,null,null,null,null,null,null,null,{"$f":"I270","v":"Land reverting to Tropical Mountain System:Asia Insular (tropical montane region)"},{"$f":"Lists!C212","v":"Maize Cropland"},"Land reverting to Tropical Mountain System:Asia Insular (tropical montane region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I271","v":"Land reverting to Tropical Mountain System:Asia Insular (tropical montane region)"},{"$f":"Lists!D212","v":"Palm Plantation"},"Land reverting to Tropical Mountain System:Asia Insular (tropical montane region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A213","v":"Land reverting to Tropical Woody Savanna:Africa (tropical dry region)"},{"$f":"Lists!B213","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Woody Savanna:Africa (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I273","v":"Land reverting to Tropical Woody Savanna:Africa (tropical dry region)"},{"$f":"Lists!C213","v":"Maize Cropland"},"Land reverting to Tropical Woody Savanna:Africa (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I274","v":"Land reverting to Tropical Woody Savanna:Africa (tropical dry region)"},{"$f":"Lists!D213","v":"Palm Plantation"},"Land reverting to Tropical Woody Savanna:Africa (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A214","v":"Land reverting to Tropical Woody Savanna:North America (tropical dry region)"},{"$f":"Lists!B214","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Woody Savanna:North America (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I276","v":"Land reverting to Tropical Woody Savanna:North America (tropical dry region)"},{"$f":"Lists!C214","v":"Maize Cropland"},"Land reverting to Tropical Woody Savanna:North America (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I277","v":"Land reverting to Tropical Woody Savanna:North America (tropical dry region)"},{"$f":"Lists!D214","v":"Palm Plantation"},"Land reverting to Tropical Woody Savanna:North America (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A215","v":"Land reverting to Tropical Woody Savanna:South America (tropical dry region)"},{"$f":"Lists!B215","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Woody Savanna:South America (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I279","v":"Land reverting to Tropical Woody Savanna:South America (tropical dry region)"},{"$f":"Lists!C215","v":"Maize Cropland"},"Land reverting to Tropical Woody Savanna:South America (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I280","v":"Land reverting to Tropical Woody Savanna:South America (tropical dry region)"},{"$f":"Lists!D215","v":"Palm Plantation"},"Land reverting to Tropical Woody Savanna:South America (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A216","v":"Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region)"},{"$f":"Lists!B216","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I282","v":"Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region)"},{"$f":"Lists!C216","v":"Maize Cropland"},"Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I283","v":"Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region)"},{"$f":"Lists!D216","v":"Palm Plantation"},"Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A217","v":"Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region)"},{"$f":"Lists!B217","v":"SRF Eucalyptus Plantation"},"Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region):SRF Eucalyptus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I285","v":"Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region)"},{"$f":"Lists!C217","v":"Maize Cropland"},"Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I286","v":"Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region)"},{"$f":"Lists!D217","v":"Palm Plantation"},"Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region):Palm Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A218","v":"Land reverting to Temperate Oceanic Forest:Europe (temperate moist region)"},{"$f":"Lists!B218","v":"SRC Willow Plantation"},"Land reverting to Temperate Oceanic Forest:Europe (temperate moist region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I288","v":"Land reverting to Temperate Oceanic Forest:Europe (temperate moist region)"},{"$f":"Lists!C218","v":"Miscanthus Plantation"},"Land reverting to Temperate Oceanic Forest:Europe (temperate moist region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I289","v":"Land reverting to Temperate Oceanic Forest:Europe (temperate moist region)"},{"$f":"Lists!D218","v":"Maize Cropland"},"Land reverting to Temperate Oceanic Forest:Europe (temperate moist region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A219","v":"Land reverting to Temperate Oceanic Forest:North America (temperate moist region)"},{"$f":"Lists!B219","v":"SRC Willow Plantation"},"Land reverting to Temperate Oceanic Forest:North America (temperate moist region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I291","v":"Land reverting to Temperate Oceanic Forest:North America (temperate moist region)"},{"$f":"Lists!C219","v":"Miscanthus Plantation"},"Land reverting to Temperate Oceanic Forest:North America (temperate moist region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I292","v":"Land reverting to Temperate Oceanic Forest:North America (temperate moist region)"},{"$f":"Lists!D219","v":"Maize Cropland"},"Land reverting to Temperate Oceanic Forest:North America (temperate moist region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I293","v":"Land reverting to Temperate Oceanic Forest:North America (temperate moist region)"},{"$f":"Lists!E219","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},"Land reverting to Temperate Oceanic Forest:North America (temperate moist region):Newly Established Intensively managed SRF Conifer, 20 years rotation"]
[null,null,null,null,null,null,null,null,{"$f":"I294","v":"Land reverting to Temperate Oceanic Forest:North America (temperate moist region)"},{"$f":"Lists!F219","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},"Land reverting to Temperate Oceanic Forest:North America (temperate moist region):Newly Established Intensively managed SRF Conifer, 25 years rotation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A220","v":"Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region)"},{"$f":"Lists!B220","v":"SRC Willow Plantation"},"Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I296","v":"Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region)"},{"$f":"Lists!C220","v":"Miscanthus Plantation"},"Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I297","v":"Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region)"},{"$f":"Lists!D220","v":"Maize Cropland"},"Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A221","v":"Land reverting to Temperate Oceanic Forest:South America (temperate moist region)"},{"$f":"Lists!B221","v":"SRC Willow Plantation"},"Land reverting to Temperate Oceanic Forest:South America (temperate moist region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I299","v":"Land reverting to Temperate Oceanic Forest:South America (temperate moist region)"},{"$f":"Lists!C221","v":"Miscanthus Plantation"},"Land reverting to Temperate Oceanic Forest:South America (temperate moist region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I300","v":"Land reverting to Temperate Oceanic Forest:South America (temperate moist region)"},{"$f":"Lists!D221","v":"Maize Cropland"},"Land reverting to Temperate Oceanic Forest:South America (temperate moist region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A222","v":"Land reverting to Temperate Continental Forest:Europe (temperate dry region)"},{"$f":"Lists!B222","v":"SRC Willow Plantation"},"Land reverting to Temperate Continental Forest:Europe (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I302","v":"Land reverting to Temperate Continental Forest:Europe (temperate dry region)"},{"$f":"Lists!C222","v":"Miscanthus Plantation"},"Land reverting to Temperate Continental Forest:Europe (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I303","v":"Land reverting to Temperate Continental Forest:Europe (temperate dry region)"},{"$f":"Lists!D222","v":"Maize Cropland"},"Land reverting to Temperate Continental Forest:Europe (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A223","v":"Land reverting to Temperate Continental Forest:North America (temperate dry region)"},{"$f":"Lists!B223","v":"SRC Willow Plantation"},"Land reverting to Temperate Continental Forest:North America (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I305","v":"Land reverting to Temperate Continental Forest:North America (temperate dry region)"},{"$f":"Lists!C223","v":"Miscanthus Plantation"},"Land reverting to Temperate Continental Forest:North America (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I306","v":"Land reverting to Temperate Continental Forest:North America (temperate dry region)"},{"$f":"Lists!D223","v":"Maize Cropland"},"Land reverting to Temperate Continental Forest:North America (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A224","v":"Land reverting to Temperate Continental Forest:New Zealand (temperate dry region)"},{"$f":"Lists!B224","v":"SRC Willow Plantation"},"Land reverting to Temperate Continental Forest:New Zealand (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I308","v":"Land reverting to Temperate Continental Forest:New Zealand (temperate dry region)"},{"$f":"Lists!C224","v":"Miscanthus Plantation"},"Land reverting to Temperate Continental Forest:New Zealand (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I309","v":"Land reverting to Temperate Continental Forest:New Zealand (temperate dry region)"},{"$f":"Lists!D224","v":"Maize Cropland"},"Land reverting to Temperate Continental Forest:New Zealand (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A225","v":"Land reverting to Temperate Continental Forest:South America (temperate dry region)"},{"$f":"Lists!B225","v":"SRC Willow Plantation"},"Land reverting to Temperate Continental Forest:South America (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I311","v":"Land reverting to Temperate Continental Forest:South America (temperate dry region)"},{"$f":"Lists!C225","v":"Miscanthus Plantation"},"Land reverting to Temperate Continental Forest:South America (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I312","v":"Land reverting to Temperate Continental Forest:South America (temperate dry region)"},{"$f":"Lists!D225","v":"Maize Cropland"},"Land reverting to Temperate Continental Forest:South America (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A226","v":"Land reverting to Temperate Mountain System:Europe (temperate moist region)"},{"$f":"Lists!B226","v":"SRC Willow Plantation"},"Land reverting to Temperate Mountain System:Europe (temperate moist region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I314","v":"Land reverting to Temperate Mountain System:Europe (temperate moist region)"},{"$f":"Lists!C226","v":"Miscanthus Plantation"},"Land reverting to Temperate Mountain System:Europe (temperate moist region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I315","v":"Land reverting to Temperate Mountain System:Europe (temperate moist region)"},{"$f":"Lists!D226","v":"Maize Cropland"},"Land reverting to Temperate Mountain System:Europe (temperate moist region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A227","v":"Land reverting to Temperate Mountain System:North America (temperate moist region)"},{"$f":"Lists!B227","v":"SRC Willow Plantation"},"Land reverting to Temperate Mountain System:North America (temperate moist region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I317","v":"Land reverting to Temperate Mountain System:North America (temperate moist region)"},{"$f":"Lists!C227","v":"Miscanthus Plantation"},"Land reverting to Temperate Mountain System:North America (temperate moist region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I318","v":"Land reverting to Temperate Mountain System:North America (temperate moist region)"},{"$f":"Lists!D227","v":"Maize Cropland"},"Land reverting to Temperate Mountain System:North America (temperate moist region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I319","v":"Land reverting to Temperate Mountain System:North America (temperate moist region)"},{"$f":"Lists!E227","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},"Land reverting to Temperate Mountain System:North America (temperate moist region):Newly Established Intensively managed SRF Conifer, 20 years rotation"]
[null,null,null,null,null,null,null,null,{"$f":"I320","v":"Land reverting to Temperate Mountain System:North America (temperate moist region)"},{"$f":"Lists!F227","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},"Land reverting to Temperate Mountain System:North America (temperate moist region):Newly Established Intensively managed SRF Conifer, 25 years rotation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A228","v":"Land reverting to Temperate Mountain System:New Zealand (temperate moist region)"},{"$f":"Lists!B228","v":"SRC Willow Plantation"},"Land reverting to Temperate Mountain System:New Zealand (temperate moist region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I322","v":"Land reverting to Temperate Mountain System:New Zealand (temperate moist region)"},{"$f":"Lists!C228","v":"Miscanthus Plantation"},"Land reverting to Temperate Mountain System:New Zealand (temperate moist region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I323","v":"Land reverting to Temperate Mountain System:New Zealand (temperate moist region)"},{"$f":"Lists!D228","v":"Maize Cropland"},"Land reverting to Temperate Mountain System:New Zealand (temperate moist region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A229","v":"Land reverting to Temperate Mountain System:South America (temperate moist region)"},{"$f":"Lists!B229","v":"SRC Willow Plantation"},"Land reverting to Temperate Mountain System:South America (temperate moist region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I325","v":"Land reverting to Temperate Mountain System:South America (temperate moist region)"},{"$f":"Lists!C229","v":"Miscanthus Plantation"},"Land reverting to Temperate Mountain System:South America (temperate moist region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I326","v":"Land reverting to Temperate Mountain System:South America (temperate moist region)"},{"$f":"Lists!D229","v":"Maize Cropland"},"Land reverting to Temperate Mountain System:South America (temperate moist region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A230","v":"Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region)"},{"$f":"Lists!B230","v":"SRC Willow Plantation"},"Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I328","v":"Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region)"},{"$f":"Lists!C230","v":"Miscanthus Plantation"},"Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I329","v":"Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region)"},{"$f":"Lists!D230","v":"Maize Cropland"},"Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A231","v":"Land reverting to Temperate Shrub or Grassland:North America (temperate dry region)"},{"$f":"Lists!B231","v":"SRC Willow Plantation"},"Land reverting to Temperate Shrub or Grassland:North America (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I331","v":"Land reverting to Temperate Shrub or Grassland:North America (temperate dry region)"},{"$f":"Lists!C231","v":"Miscanthus Plantation"},"Land reverting to Temperate Shrub or Grassland:North America (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I332","v":"Land reverting to Temperate Shrub or Grassland:North America (temperate dry region)"},{"$f":"Lists!D231","v":"Maize Cropland"},"Land reverting to Temperate Shrub or Grassland:North America (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"I333","v":"Land reverting to Temperate Shrub or Grassland:North America (temperate dry region)"},{"$f":"Lists!E231","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"I334&\":\"&J334","v":"Land reverting to Temperate Shrub or Grassland:North America (temperate dry region):Newly Established Intensively managed SRF Conifer, 20 years rotation"}]
[null,null,null,null,null,null,null,null,{"$f":"I334","v":"Land reverting to Temperate Shrub or Grassland:North America (temperate dry region)"},{"$f":"Lists!F231","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},"Land reverting to Temperate Shrub or Grassland:North America (temperate dry region):Newly Established Intensively managed SRF Conifer, 25 years rotation"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A232","v":"Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region)"},{"$f":"Lists!B232","v":"SRC Willow Plantation"},"Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I336","v":"Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region)"},{"$f":"Lists!C232","v":"Miscanthus Plantation"},"Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I337","v":"Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region)"},{"$f":"Lists!D232","v":"Maize Cropland"},"Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A233","v":"Land reverting to Temperate Shrub or Grassland:South America (temperate dry region)"},{"$f":"Lists!B233","v":"SRC Willow Plantation"},"Land reverting to Temperate Shrub or Grassland:South America (temperate dry region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I339","v":"Land reverting to Temperate Shrub or Grassland:South America (temperate dry region)"},{"$f":"Lists!C233","v":"Miscanthus Plantation"},"Land reverting to Temperate Shrub or Grassland:South America (temperate dry region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I340","v":"Land reverting to Temperate Shrub or Grassland:South America (temperate dry region)"},{"$f":"Lists!D233","v":"Maize Cropland"},"Land reverting to Temperate Shrub or Grassland:South America (temperate dry region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A234","v":"Land reverting to Boreal Coniferous Forest:Europe (boreal region)"},{"$f":"Lists!B234","v":"SRC Willow Plantation"},"Land reverting to Boreal Coniferous Forest:Europe (boreal region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I342","v":"Land reverting to Boreal Coniferous Forest:Europe (boreal region)"},{"$f":"Lists!C234","v":"Miscanthus Plantation"},"Land reverting to Boreal Coniferous Forest:Europe (boreal region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I343","v":"Land reverting to Boreal Coniferous Forest:Europe (boreal region)"},{"$f":"Lists!D234","v":"Maize Cropland"},"Land reverting to Boreal Coniferous Forest:Europe (boreal region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A235","v":"Land reverting to Boreal Coniferous Forest:North America (boreal region)"},{"$f":"Lists!B235","v":"SRC Willow Plantation"},"Land reverting to Boreal Coniferous Forest:North America (boreal region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I345","v":"Land reverting to Boreal Coniferous Forest:North America (boreal region)"},{"$f":"Lists!C235","v":"Miscanthus Plantation"},"Land reverting to Boreal Coniferous Forest:North America (boreal region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I346","v":"Land reverting to Boreal Coniferous Forest:North America (boreal region)"},{"$f":"Lists!D235","v":"Maize Cropland"},"Land reverting to Boreal Coniferous Forest:North America (boreal region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A236","v":"Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region)"},{"$f":"Lists!B236","v":"SRC Willow Plantation"},"Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I348","v":"Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region)"},{"$f":"Lists!C236","v":"Miscanthus Plantation"},"Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I349","v":"Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region)"},{"$f":"Lists!D236","v":"Maize Cropland"},"Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A237","v":"Land reverting to Boreal Tundra:Europe (boreal region)"},{"$f":"Lists!B237","v":"SRC Willow Plantation"},"Land reverting to Boreal Tundra:Europe (boreal region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I351","v":"Land reverting to Boreal Tundra:Europe (boreal region)"},{"$f":"Lists!C237","v":"Miscanthus Plantation"},"Land reverting to Boreal Tundra:Europe (boreal region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I352","v":"Land reverting to Boreal Tundra:Europe (boreal region)"},{"$f":"Lists!D237","v":"Maize Cropland"},"Land reverting to Boreal Tundra:Europe (boreal region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A238","v":"Land reverting to Boreal Tundra:North America (boreal region)"},{"$f":"Lists!B238","v":"SRC Willow Plantation"},"Land reverting to Boreal Tundra:North America (boreal region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I354","v":"Land reverting to Boreal Tundra:North America (boreal region)"},{"$f":"Lists!C238","v":"Miscanthus Plantation"},"Land reverting to Boreal Tundra:North America (boreal region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I355","v":"Land reverting to Boreal Tundra:North America (boreal region)"},{"$f":"Lists!D238","v":"Maize Cropland"},"Land reverting to Boreal Tundra:North America (boreal region):Maize Cropland"]
[null,null,null,null,null,null,null,null,{"$f":"Lists!A239","v":"Land reverting to Boreal Tundra:Asia Continental (boreal region)"},{"$f":"Lists!B239","v":"SRC Willow Plantation"},"Land reverting to Boreal Tundra:Asia Continental (boreal region):SRC Willow Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I357","v":"Land reverting to Boreal Tundra:Asia Continental (boreal region)"},{"$f":"Lists!C239","v":"Miscanthus Plantation"},"Land reverting to Boreal Tundra:Asia Continental (boreal region):Miscanthus Plantation"]
[null,null,null,null,null,null,null,null,{"$f":"I358","v":"Land reverting to Boreal Tundra:Asia Continental (boreal region)"},{"$f":"Lists!D239","v":"Maize Cropland"},"Land reverting to Boreal Tundra:Asia Continental (boreal region):Maize Cropland"]

{"sheet":"Land Data","index":8,"n_rows":1540,"n_cols":44,"rows_kept":1540,"cut":false,"hidden":false,"merged":[[29,44,29,47],[709,37,709,40],[29,5,29,6]]}
["Land Data Tables"]
["Previous Land Use"]
["Selected Data for Previous Land Use (selected from Land Table 1)"]
["Previous Land Use Lookup name",{"$f":"Chosen_land_category_biopathways&\":\"&Chosen_Previous_Land_type_biopathways&\":\"&Results_Biopathways!C25&\":\"&Results_Biopathways!C20","v":"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:UK:40"}]
[null,"Mean","Units","Error"]
["Soil carbon",{"$f":"INDEX(lookup_soil_previous_land,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":72.545454545454547},"t C/ha",{"$f":"INDEX(lookup_soilerror_previous_land,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":32.645454545454548}]
["Flu (IPCC Land Management Factor)",{"$f":"INDEX(lookup_flu_previousland,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":1},"-",{"$f":"INDEX(lookup_flu_error_previousland,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":0}]
["Number of stands",{"$f":"INDEX(No_stands_previous,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":59}]
["Non Soil Carbon Stock",{"$f":"INDEX(lookup_carbonstocks_previousland,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":69.5},"t C/ha"]
["Carbon Stock change over time frame, if land were to stay in its previous state (no disturbances)",{"$f":"INDEX(lookup_forgone_CO2max_previousland,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":0},"t CO2/ha/y",{"$f":"INDEX(lookup_forgone_CO2maxerror_previousland,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":0}]
["Carbon Stock change over time frame, if land were to stay in its previous state (with disturbances)",{"$f":"INDEX(lookup_forgone_CO2predicted_previousland,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":0},"t CO2/ha/y",{"$f":"INDEX(lookup_forgone_CO2predictederror_previousland,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":0}]
["Biomass Produced",{"$f":"INDEX(lookup_previousland_biomas_out,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":3.4489999999999998},"odt/ha/y"]
["of which"]
["Saw Logs",{"$f":"INDEX(lookup_previousland_proportion_sawlogs,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":0.71850000000000003}]
["Small Roundwood",{"$f":"INDEX(lookup_previousland_proportion_smallroundwood,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":0.28149999999999997}]
["Residues",{"$f":"INDEX(lookup_previousland_proportion_branchwood,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":0}]
["Nitrogen fertiliser application",{"$f":"INDEX(NFert_recommend_previous_land,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":0},"kg N/ha/y"]
["Carbon Impact from land management, excluding irrigation",{"$f":"INDEX(lookup_landmanagement_CO2_previousland,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":7.4528477870840035E-2},"t CO2/ha/y"]
["Additional Carbon Impact from residue removal",{"$f":"INDEX(lookup_branchremoval_CO2_previousland,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":0},"t CO2/ha/y"]
["Direct energy requirement from land management, excluding irrigation",{"$f":"INDEX(lookup_landmanagement_Energy_previousland,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":0.23003017724282096},"MWh/ha/y"]
["Primary energy requirement from land management, excluding irrigation",{"$f":"INDEX(X32:X673,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":0.24526896492730962},"MWh/ha/y"]
["Additional direct energy requirment from residue removal (if not included above)",{"$f":"INDEX(lookup_branchremoval_Energy_previousland,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":0},"MWh/ha/y"]
["Additional primary energy requirment from residue removal (if not included above)",{"$f":"INDEX(lookup_primry_energy_residues_previouslanduse,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":0},"MWh/ha/y"]
["N2O emissions from land, excluding from fertilisers",{"$f":"INDEX(lookup_N2O_land_previous,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":1.1439999999999998E-3},"t N2O/ha/y",{"$f":"INDEX(lookup_N2Oerror_land_previous,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":1.5839999999999999E-3}]
["CH4 emissions from land",{"$f":"INDEX(lookup_CH4_land_previous,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":-3.613504E-3},"t CH4/ha/y",{"$f":"INDEX(lookup_CH4error_land_previous,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":1.806752E-3}]
["Exponential decay factor for coarse residues",{"$f":"INDEX(lookup_decay_previousland,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":2.8000000000000001E-2},"y-1",null,{"$f":"INDEX(Assumptions_coarse_residues,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":"Chambers et al., 2000. Specific to forests in Pacific North USA. No data for UK, therefore assume similar to Pacific North West USA, as both temperate climtes. "}]
["Exponential decay factor for fine residues",{"$f":"INDEX(lookup_decay_fine_previousland,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":0.185},"y-1",null,{"$f":"INDEX(Assumptions_fine_residues,MATCH(Lookupname_Previous_Land_Use,Lookup_previous_land_names,0))","v":"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "}]
[]
["Land Data Table 1: Previous Land Use"]
["Land Category","Land Use","Country","Time ","Lookup Name","Soil Carbon at t=0, for Mineral Soils, top 30 cm",null,"Error in SOC","Reference","Flu (IPCC Land Management factor)","Flu error","No. Stands (1 harvested each year)","Carbon Stock at t=0 (Above and Below Ground, Litter). ","Note and Reference ","Biomass Out When in Production","Proportion Sawlogs","Proportion Small Roundwood","Proportion Total Roundwood","Proportion Branchwood","Note and Reference ","N Fertiliser Application","CO2 emissions from land management. Excluding irrigation and N fertilisation","Direct Energy Requirement from land management. Excluding irrigation","Primary Energy Requirement from land management. Excluding irrigation","CO2 emissions from residue harvest.","Additional Direct Energy Requirement from residue harvest, if not included in left column.","Additional Primary Energy Requirement from residue harvest, if not included in left column.","Note and Reference ","N2O emissions from land (excluding from fertiliser)","N2O Emissions error","Note and Reference ","CH4 emissions from land (excluding fertilsier)","CH4 emissions error","Note and Reference ","CO2 emissions from changing carbon stock (no disturbances)","Error","CO2 emissions if forest left (with disturbances)","Error","Disturbance details",null,"Exponential Decay function (k) for Coarse Woody Debris (> 10 cm diameter)","Reference","Exponential Decay function (k) for Fine Woody Debris (< 10 cm diameter)","Reference"]
[null,null,null,"years",null,"t CO2/ha","t C/ha","t C/ha",null,null,"%",null,"t C/ha",null,"odt/ha/y",null,null,null,null,null,"kg N/Ha/y","t CO2/ha/y","MWh/ha/y","MWh/ha/y","t CO2/ha/y","MWh/ha/y","MWh/ha/y",null,"t N2O/ha/y","t N2O/ha/y",null,"t CH4/ha/y","t CH4/ha/y",null,"t CO2/ha/y","t CO2/ha/y","t CO2/ha/y","t CO2/ha/y"]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"Lists!B9","v":"LRF Conifer for wood products, residues unused"},{"$f":"Lists!B110","v":"UK"},20,{"$f":"A32&\":\"&B32&\":\"&C32&\":\"&D32","v":"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:UK:20"},266,{"$f":"F32*MM_C/MM_CO2","v":72.545454545454547},{"$f":"error_SOC*G32","v":32.645454545454548},"Winrock, 2011",1,0,59,69.5,"Forest Research C-SORT model. Modelled as Sitka Spruce, Yield Class 12, Management Table Thinning, 59 year rotation. ",3.4489999999999998,0.71850000000000003,0.28149999999999997,{"$f":"P32+Q32","v":1},0,"Planted forest. Forest Research C-SORT model.",0,{"$f":"('Land Data'!O32/density_SW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/'Land Data'!L32)/Conv_te_kg","v":7.4528477870840035E-2},{"$f":"('Land Data'!O32/density_SW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/'Land Data'!L32)/Conv_MWh_KWh","v":0.23003017724282096},{"$f":"('Land Data'!O32/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/'Land Data'!L32)/Conv_MWh_KWh","v":0.24526896492730962},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Private Communication with UK Forestry Commission. Windthrow causes tree to fall when it reaches 29m (Wind Hazard Class 2.5). Forest Gales Manual. ",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. No data for UK, therefore assume similar to Pacific North West USA, as both temperate climtes. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B32","v":"LRF Conifer for wood products, residues unused"},"UK",40,{"$f":"A33&\":\"&B33&\":\"&C33&\":\"&D33","v":"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:UK:40"},266,72.545454545454547,32.645454545454548,"Winrock, 2011",1,0,59,69.5,"Forest Research C-SORT model. Modelled as Sitka Spruce, Yield Class 12, Management Table Thinning, 59 year rotation. ",3.4489999999999998,0.71850000000000003,0.28149999999999997,1,0,"Planted forest. Forest Research C-SORT model.",0,{"$f":"('Land Data'!O33/density_SW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/'Land Data'!L33)/Conv_te_kg","v":7.4528477870840035E-2},{"$f":"('Land Data'!O33/density_SW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/'Land Data'!L33)/Conv_MWh_KWh","v":0.23003017724282096},{"$f":"('Land Data'!O33/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/'Land Data'!L33)/Conv_MWh_KWh","v":0.24526896492730962},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Private Communication with UK Forestry Commission. Windthrow causes tree to fall when it reaches 29m (Wind Hazard Class 2.5). Forest Gales Manual. ",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. No data for UK, therefore assume similar to Pacific North West USA, as both temperate climtes. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, residues unused","UK",100,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:UK:100",266,72.545454545454547,32.645454545454548,"Winrock, 2011",1,0,59,69.5,"Forest Research C-SORT model. Modelled as Sitka Spruce, Yield Class 12, Management Table Thinning, 59 year rotation. ",3.4489999999999998,0.71850000000000003,0.28149999999999997,1,0,"Planted forest. Forest Research C-SORT model.",0,{"$f":"('Land Data'!O34/density_SW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/'Land Data'!L34)/Conv_te_kg","v":7.4528477870840035E-2},{"$f":"('Land Data'!O34/density_SW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/'Land Data'!L34)/Conv_MWh_KWh","v":0.23003017724282096},{"$f":"('Land Data'!O34/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/'Land Data'!L34)/Conv_MWh_KWh","v":0.24526896492730962},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Private Communication with UK Forestry Commission. Windthrow causes tree to fall when it reaches 29m (Wind Hazard Class 2.5). Forest Gales Manual. ",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. No data for UK, therefore assume similar to Pacific North West USA, as both temperate climtes. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B34","v":"LRF Conifer for wood products, residues unused"},{"$f":"Lists!B111","v":"South USA"},20,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:South USA:20",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,50,69.64,"Smith et al., 2006. Modelled as loblolly pine natural timberland, with natural regeneration, harvested every 50 years. ",1.7949999999999999,0.6,{"$f":"1-P35","v":0.4},1,0,"Naturally regenerated forest. Smith et al., 2006",0,{"$f":"('Land Data'!O35/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.4649133941605847E-2},{"$f":"('Land Data'!O35/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.10679344719249761},{"$f":"('Land Data'!O35/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":0.11458936883754993},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Mitchell et al., 2012. Surface fires every 10 years combusting 30% of available debris. Lightening, disease and crown fires result in loblolly lifespan in region being 100years. ",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, residues unused",{"$f":"C35","v":"South USA"},40,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:South USA:40",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,50,69.64,"Smith et al., 2006. Modelled as loblolly pine natural timberland, with natural regeneration, harvested every 50 years. ",1.7949999999999999,0.6,{"$f":"1-P36","v":0.4},1,0,"Naturally regenerated forest. Smith et al., 2007",0,{"$f":"('Land Data'!O36/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.4649133941605847E-2},{"$f":"('Land Data'!O36/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.10679344719249761},{"$f":"('Land Data'!O36/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":0.11458936883754993},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Mitchell et al., 2012. Surface fires every 10 years combusting 30% of available debris. Lightening, disease and crown fires result in loblolly lifespan in region being 100years. ",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, residues unused",{"$f":"C36","v":"South USA"},100,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:South USA:100",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,50,69.64,"Smith et al., 2006. Modelled as loblolly pine natural timberland, with natural regeneration, harvested every 50 years. ",1.7949999999999999,0.6,{"$f":"1-P37","v":0.4},1,0,"Naturally regenerated forest. Smith et al., 2008",0,{"$f":"('Land Data'!O37/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.4649133941605847E-2},{"$f":"('Land Data'!O37/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.10679344719249761},{"$f":"('Land Data'!O37/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":0.11458936883754993},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Mitchell et al., 2012. Surface fires every 10 years combusting 30% of available debris. Lightening, disease and crown fires result in loblolly lifespan in region being 100years. ",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, residues unused",{"$f":"Lists!B112","v":"North West USA"},20,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:North West USA:20",414,112.90909090909091,50.809090909090912,"Winrock, 2011",1,0,100,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at age 15y, 70 y rotation. ",4.016,0.74160000000000004,0.25840000000000002,1,0,"Planted forest. Forest Research C-SORT model.",0,{"$f":"('Land Data'!O38/density_SW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/'Land Data'!L38)/Conv_te_kg","v":8.2213056963503658E-2},{"$f":"('Land Data'!O38/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.23893174591925928},{"$f":"('Land Data'!O38/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":0.25637376337136514},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, residues unused",{"$f":"C38","v":"North West USA"},40,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:North West USA:40",414,112.90909090909091,50.809090909090912,"Winrock, 2011",1,0,100,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at age 15y, 70 y rotation. ",4.016,0.74160000000000004,0.25840000000000002,1,0,"Planted forest. Forest Research C-SORT model.",0,{"$f":"('Land Data'!O39/density_SW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/'Land Data'!L39)/Conv_te_kg","v":8.2213056963503658E-2},{"$f":"('Land Data'!O39/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.23893174591925928},{"$f":"('Land Data'!O39/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":0.25637376337136514},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, residues unused",{"$f":"C39","v":"North West USA"},100,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:North West USA:100",414,112.90909090909091,50.809090909090912,"Winrock, 2011",1,0,100,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at age 15y, 70 y rotation. ",4.016,0.74160000000000004,0.25840000000000002,1,0,"Planted forest. Forest Research C-SORT model.",0,{"$f":"('Land Data'!O40/density_SW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/'Land Data'!L40)/Conv_te_kg","v":8.2213056963503658E-2},{"$f":"('Land Data'!O40/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.23893174591925928},{"$f":"('Land Data'!O40/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":0.25637376337136514},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, residues unused",{"$f":"Lists!B113","v":"Pacific Canada"},20,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:Pacific Canada:20",265,72.272727272727266,32.522727272727273,"Winrock, 2011",1,0,100,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at age 15y, 70 y rotation. ",4.016,0.74160000000000004,0.25840000000000002,1,0,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O41/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":7.7521404963503654E-2},{"$f":"('Land Data'!O41/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.23893174591925928},{"$f":"('Land Data'!O41/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":0.25637376337136514},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, residues unused",{"$f":"C41","v":"Pacific Canada"},40,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:Pacific Canada:40",265,72.272727272727266,32.522727272727273,"Winrock, 2011",1,0,100,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at age 15y, 70 y rotation. ",4.016,0.74160000000000004,0.25840000000000002,1,0,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O42/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":7.7521404963503654E-2},{"$f":"('Land Data'!O42/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.23893174591925928},{"$f":"('Land Data'!O42/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":0.25637376337136514},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, residues unused",{"$f":"C42","v":"Pacific Canada"},100,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:Pacific Canada:100",265,72.272727272727266,32.522727272727273,"Winrock, 2011",1,0,100,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at age 15y, 70 y rotation. ",4.016,0.74160000000000004,0.25840000000000002,1,0,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O43/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":7.7521404963503654E-2},{"$f":"('Land Data'!O43/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.23893174591925928},{"$f":"('Land Data'!O43/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":0.25637376337136514},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, residues unused",{"$f":"Lists!B114","v":"Interior Canada"},20,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:Interior Canada:20",205,55.909090909090907,25.15909090909091,"Winrock, 2011",1,0,100,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.2969999999999999,0.25040000000000001,0.74960000000000004,1,0,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O44/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5036170875912409E-2},{"$f":"('Land Data'!O44/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7164958779203E-2},{"$f":"('Land Data'!O44/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":8.2798000770084812E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, residues unused",{"$f":"C44","v":"Interior Canada"},40,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:Interior Canada:40",205,55.909090909090907,25.15909090909091,"Winrock, 2011",1,0,100,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.2969999999999999,0.25040000000000001,0.74960000000000004,1,0,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O45/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5036170875912409E-2},{"$f":"('Land Data'!O45/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7164958779203E-2},{"$f":"('Land Data'!O45/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":8.2798000770084812E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, residues unused",{"$f":"C45","v":"Interior Canada"},100,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:Interior Canada:100",205,55.909090909090907,25.15909090909091,"Winrock, 2011",1,0,100,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.2969999999999999,0.25040000000000001,0.74960000000000004,1,0,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O46/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5036170875912409E-2},{"$f":"('Land Data'!O46/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7164958779203E-2},{"$f":"('Land Data'!O46/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":8.2798000770084812E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, residues unused",{"$f":"Lists!B115","v":"Boreal North Canada"},20,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:Boreal North Canada:20",218,59.454545454545453,26.754545454545454,"Winrock, 2011",1,0,100,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.2969999999999999,0.25040000000000001,0.74960000000000004,1,0,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O47/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5036170875912409E-2},{"$f":"('Land Data'!O47/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7164958779203E-2},{"$f":"('Land Data'!O47/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":8.2798000770084812E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, residues unused",{"$f":"C47","v":"Boreal North Canada"},40,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:Boreal North Canada:40",218,59.454545454545453,26.754545454545454,"Winrock, 2011",1,0,100,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.2969999999999999,0.25040000000000001,0.74960000000000004,1,0,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O48/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5036170875912409E-2},{"$f":"('Land Data'!O48/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7164958779203E-2},{"$f":"('Land Data'!O48/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":8.2798000770084812E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, residues unused",{"$f":"C48","v":"Boreal North Canada"},100,"Long Rotation Forestry (LRF):LRF Conifer for wood products, residues unused:Boreal North Canada:100",218,59.454545454545453,26.754545454545454,"Winrock, 2011",1,0,100,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.2969999999999999,0.25040000000000001,0.74960000000000004,1,0,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O49/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5036170875912409E-2},{"$f":"('Land Data'!O49/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7164958779203E-2},{"$f":"('Land Data'!O49/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":8.2798000770084812E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"Lists!B10","v":"LRF Conifer for wood products, 50% residues used"},{"$f":"'Transport Data'!A13","v":"Pacific Canada"},20,"Long Rotation Forestry (LRF):LRF Conifer for wood products, 50% residues used:Pacific Canada:20",265,72.272727272727266,32.522727272727273,"Winrock, 2011",1,0,70,114.32,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, 70 year rotation. ",4.3860000000000001,0.68630000000000002,0.2394,0.92569999999999997,7.4300000000000005E-2,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O50/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":8.4663566277372287E-2},{"$f":"('Land Data'!O50/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.260944879880944},{"$f":"('Land Data'!O50/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":0.27999385611225291},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B50","v":"LRF Conifer for wood products, 50% residues used"},{"$f":"C50","v":"Pacific Canada"},40,"Long Rotation Forestry (LRF):LRF Conifer for wood products, 50% residues used:Pacific Canada:40",265,72.272727272727266,32.522727272727273,"Winrock, 2011",1,0,70,114.32,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, 70 year rotation. ",4.3860000000000001,0.68630000000000002,0.2394,0.92569999999999997,7.4300000000000005E-2,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O51/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":8.4663566277372287E-2},{"$f":"('Land Data'!O51/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.260944879880944},{"$f":"('Land Data'!O51/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":0.27999385611225291},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B51","v":"LRF Conifer for wood products, 50% residues used"},{"$f":"C50","v":"Pacific Canada"},100,"Long Rotation Forestry (LRF):LRF Conifer for wood products, 50% residues used:Pacific Canada:100",265,72.272727272727266,32.522727272727273,"Winrock, 2011",1,0,70,114.32,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, 70 year rotation. ",4.3860000000000001,0.68630000000000002,0.2394,0.92569999999999997,7.4300000000000005E-2,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O52/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":8.4663566277372287E-2},{"$f":"('Land Data'!O52/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.260944879880944},{"$f":"('Land Data'!O52/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":0.27999385611225291},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, 50% residues used",{"$f":"'Transport Data'!A14","v":"Interior Canada"},20,"Long Rotation Forestry (LRF):LRF Conifer for wood products, 50% residues used:Interior Canada:20",205,55.909090909090907,25.15909090909091,"Winrock, 2011",1,0,100,67.739999999999995,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 100 year rotation",1.526,0.1883,0.64859999999999995,0.83689999999999998,0.16309999999999999,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O53/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.9456589635036501E-2},{"$f":"('Land Data'!O53/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":9.078930385278626E-2},{"$f":"('Land Data'!O53/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":9.7416923034039649E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, 50% residues used",{"$f":"C53","v":"Interior Canada"},40,"Long Rotation Forestry (LRF):LRF Conifer for wood products, 50% residues used:Interior Canada:40",205,55.909090909090907,25.15909090909091,"Winrock, 2011",1,0,100,67.739999999999995,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 100 year rotation",1.526,0.1883,0.64859999999999995,0.83689999999999998,0.16309999999999999,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O54/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.9456589635036501E-2},{"$f":"('Land Data'!O54/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":9.078930385278626E-2},{"$f":"('Land Data'!O54/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":9.7416923034039649E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, 50% residues used",{"$f":"C53","v":"Interior Canada"},100,"Long Rotation Forestry (LRF):LRF Conifer for wood products, 50% residues used:Interior Canada:100",205,55.909090909090907,25.15909090909091,"Winrock, 2011",1,0,100,67.739999999999995,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 100 year rotation",1.526,0.1883,0.64859999999999995,0.83689999999999998,0.16309999999999999,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O55/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.9456589635036501E-2},{"$f":"('Land Data'!O55/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":9.078930385278626E-2},{"$f":"('Land Data'!O55/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":9.7416923034039649E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, 50% residues used",{"$f":"'Transport Data'!A15","v":"Boreal North Canada"},20,"Long Rotation Forestry (LRF):LRF Conifer for wood products, 50% residues used:Boreal North Canada:20",218,59.454545454545453,26.754545454545454,"Winrock, 2011",1,0,100,67.739999999999995,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 100 year rotation",1.526,0.1883,0.64859999999999995,0.83689999999999998,0.16309999999999999,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O56/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.9456589635036501E-2},{"$f":"('Land Data'!O56/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":9.078930385278626E-2},{"$f":"('Land Data'!O56/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":9.7416923034039649E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, 50% residues used",{"$f":"C56","v":"Boreal North Canada"},40,"Long Rotation Forestry (LRF):LRF Conifer for wood products, 50% residues used:Boreal North Canada:40",218,59.454545454545453,26.754545454545454,"Winrock, 2011",1,0,100,67.739999999999995,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 100 year rotation",1.526,0.1883,0.64859999999999995,0.83689999999999998,0.16309999999999999,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O57/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.9456589635036501E-2},{"$f":"('Land Data'!O57/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":9.078930385278626E-2},{"$f":"('Land Data'!O57/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":9.7416923034039649E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Conifer for wood products, 50% residues used",{"$f":"C56","v":"Boreal North Canada"},100,"Long Rotation Forestry (LRF):LRF Conifer for wood products, 50% residues used:Boreal North Canada:100",218,59.454545454545453,26.754545454545454,"Winrock, 2011",1,0,100,67.739999999999995,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 100 year rotation",1.526,0.1883,0.64859999999999995,0.83689999999999998,0.16309999999999999,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O58/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.9456589635036501E-2},{"$f":"('Land Data'!O58/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":9.078930385278626E-2},{"$f":"('Land Data'!O58/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)/Conv_MWh_KWh)","v":9.7416923034039649E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"Lists!$B$23","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"'Transport Data'!A9","v":"South USA"},20,{"$f":"A59&\":\"&B59&\":\"&C59&\":\"&D59","v":"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, rotation length 25 years:South USA:20"},147,{"$f":"F59*MM_C/MM_CO2","v":40.090909090909093},18.040909090909093,"Winrock, 2011",1,0,25,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which is harvested every 25 years",5.9130000000000003,0.6,0.4,1,0,"Intensively maanegd plantation. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen","v":22.973493975903615},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/L59+O59*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L59+Loblolly_Phosphorus*EF_Pfert)/Conv_te_kg","v":0.12934477029933775},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/L59+O59*Loblolly_harvest*En_F_diesel+Loblolly_herbicide*En_F_Pest/L59+Loblolly_Phosphorus*En_F_Pfert)/Conv_MWh_KWh","v":0.4173633016586904},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/L59+O59*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/L59+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.44436519658917589},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"Lists!$B$23","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"C59","v":"South USA"},40,"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, rotation length 25 years:South USA:40",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,25,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which is harvested every 25 years",5.9130000000000003,0.6,0.4,1,0,"Intensively maanegd plantation. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen","v":22.973493975903615},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/L60+O60*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L60+Loblolly_Phosphorus*EF_Pfert)/Conv_te_kg","v":0.12934477029933775},0.4173633016586904,0.44436519658917589,0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"Lists!$B$23","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"C59","v":"South USA"},100,"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, rotation length 25 years:South USA:100",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,25,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which is harvested every 25 years",5.9130000000000003,0.6,0.4,1,0,"Intensively maanegd plantation. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen","v":22.973493975903615},0.12934477029933775,0.4173633016586904,0.44436519658917589,0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"Lists!B11","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years "},{"$f":"'Transport Data'!A9","v":"South USA"},20,"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years :South USA:20",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,35,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which was previously harvested every 25 years, but is now starting to be harvested every 35 years due to reduced demand for wood products. ",4.5049999999999999,0.6,{"$f":"1-P62","v":0.4},1,0,"Intensively maanegd plantation. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen","v":22.973493975903615},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/L62+O62*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L62+Loblolly_Phosphorus*EF_Pfert)/Conv_te_kg","v":9.8122361010194892E-2},0.3209465889695241,0.34093490704830354,0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-3.75,null,{"$f":"AI62","v":-3.75},null,"Assumed no difference in disturbance between stand harvested every 25 years and stand harvested every 35 years",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"B62","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years "},{"$f":"C62","v":"South USA"},40,"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years :South USA:40",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,35,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which was previously harvested every 25 years, but is now starting to be harvested every 35 years due to reduced demand for wood products. ",4.6079999999999997,0.6,0.4,1,0,"Intensively maanegd plantation. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"U62","v":22.973493975903615},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/L63+O63*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L63+Loblolly_Phosphorus*EF_Pfert)/Conv_te_kg","v":9.926304934219489E-2},0.32446234896952408,0.34470731752830353,0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-2.0249999999999999,null,-2.0249999999999999,null,"Assumed no difference in disturbance between stand harvested every 25 years and stand harvested every 35 years",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"B62","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years "},{"$f":"C62","v":"South USA"},100,"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years :South USA:100",147,40.090909090909093,{"$f":"error_SOC*G64","v":18.040909090909093},"Winrock, 2011",1,0,35,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which was previously harvested every 25 years, but is now starting to be harvested every 35 years due to reduced demand for wood products. ",4.6689999999999996,0.6,0.4,1,0,"Intensively maanegd plantation. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"U62","v":22.973493975903615},9.9938602626194903E-2,0.32654449809573771,0.34694146354073074,0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-0.81,null,-0.81,null,"Assumed no difference in disturbance between stand harvested every 25 years and stand harvested every 35 years",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"Lists!B13","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again)"},{"$f":"'Transport Data'!A9","v":"South USA"},20,"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again):South USA:20",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,35,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which was previously harvested every 25 years, but will now harvested every 35 years for 15 years, due to reduced demand for wood products. ",4.8150000000000004,0.6,0.4,1,0,"Intensively maanegd plantation. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen","v":22.973493975903615},0.1015555006501949,0.33152800256175713,0.35228876383276958,0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-2.8149999999999999,null,-2.8149999999999999,null,"Assumed no difference in disturbance between stand harvested every 25 years and stand harvested every 35 years",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"B65","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again)"},{"$f":"C65","v":"South USA"},40,"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again):South USA:40",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,25,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which was previously harvested every 25 years, but will now harvested every 35 years for 15 years, due to reduced demand for wood products. ",5.3639999999999999,0.6,0.4,1,0,"Intensively maanegd plantation. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen","v":22.973493975903615},0.12326479074333774,0.39862395952276808,0.42425788247733121,0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-0.501,null,-0.501,null,"Assumed no difference in disturbance between stand harvested every 25 years and stand harvested every 35 years",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"B65","v":"Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again)"},{"$f":"C65","v":"South USA"},100,"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, rotation length increasing from 25 to 35 years (for a period of 15 years, then wood extraction increases again):South USA:100",147,{"$f":"F67*MM_C/MM_CO2","v":40.090909090909093},18.040909090909093,"Winrock, 2011",1,0,25,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which was previously harvested every 25 years, but will now harvested every 35 years for 15 years, due to reduced demand for wood products. ",5.694,0.6,0.4,1,0,"Intensively maanegd plantation. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen","v":22.973493975903615},0.12691942326333774,0.40988804495966119,0.43634424615111755,0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-4.58E-2,null,-4.58E-2,null,"Assumed no difference in disturbance between stand harvested every 25 years and stand harvested every 35 years",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"Lists!B26","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation"},{"$f":"'Transport Data'!A9","v":"South USA"},20,"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation:South USA:20",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,25,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which was previously harvested every 25 years, but is now about to be converted to a cotton plantation due to reduced demand for wood products. ",5.9130000000000003,0.6,0.4,1,0,"Intensively maanegd plantation being converted to agricultural land. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen*(1-Landconv_25stand_20y)","v":13.784096385542169},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/L68*(1-Landconv_25stand_20y)+O68*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L68*(1-Landconv_25stand_20y)+Loblolly_Phosphorus*EF_Pfert*(1-Landconv_25stand_20y))/Conv_te_kg","v":0.10380061016840264},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/L68*(1-Landconv_25stand_20y)+O68*Loblolly_harvest*En_F_diesel+Loblolly_herbicide*En_F_Pest/L68*(1-Landconv_25stand_20y)+Loblolly_Phosphorus*En_F_Pfert*(1-Landconv_25stand_20y))/Conv_MWh_KWh","v":0.33115075334472882},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/L68*(1-Landconv_25stand_20y)+O68*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/L68*(1-Landconv_25stand_20y)+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert*(1-Landconv_25stand_20y))/Conv_MWh_KWh","v":0.35324538268453459},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"9.43+G68*MM_CO2/MM_C*(1-'Reference Data'!B26)/Chosen_Time_frame_biopathways","v":10.56925},null,10.56925,null,"Includes above ground loss (9.43 tCO2/ha/y) calculated using Smith et al. (2006) data. Soils loss using IPCC method",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"B68","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation"},{"$f":"C68","v":"South USA"},40,"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation:South USA:40",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,25,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which was previously harvested every 25 years, but is now about to be converted to a cotton plantation due to reduced demand for wood products. ",3.6960000000000002,0.6,0.4,1,0,"Intensively maanegd plantation being converted to agricultural land. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen*(1-Landconv_25stand_40y)","v":7.1792168674698793},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/L69*(1-Landconv_25stand_40y)+O69*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L69*(1-Landconv_25stand_40y)+Loblolly_Phosphorus*EF_Pfert*(1-Landconv_25stand_40y))/Conv_te_kg","v":6.0888259326293041E-2},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/L69*(1-Landconv_25stand_40y)+O69*Loblolly_harvest*En_F_diesel+Loblolly_herbicide*En_F_Pest/L69*(1-Landconv_25stand_40y)+Loblolly_Phosphorus*En_F_Pfert*(1-Landconv_25stand_40y))/Conv_MWh_KWh","v":0.19351131026348639},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/L69*(1-Landconv_25stand_40y)+O69*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/L69*(1-Landconv_25stand_40y)+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert*(1-Landconv_25stand_40y))/Conv_MWh_KWh","v":0.20655462775940872},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"7.22+G69*MM_CO2/MM_C*(1-'Reference Data'!B26)/Chosen_Time_frame_biopathways","v":8.3592499999999994},null,8.3592499999999994,null,"Includes above ground loss (7.22 tCO2/ha/y) calculated using Smith et al. (2006) data. Soils loss using IPCC method",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"B69","v":"Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation"},{"$f":"C68","v":"South USA"},100,"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, 25 year rotation, about to be converted to cotton plantation:South USA:100",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,25,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which was previously harvested every 25 years, but is now about to be converted to a cotton plantation due to reduced demand for wood products. ",1.478,0.6,0.4,1,0,"Intensively maanegd plantation being converted to agricultural land. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen*(1-Landconv_25stand_100y)","v":2.8716867469879519},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/L70*(1-Landconv_25stand_100y)+O70*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L70*(1-Landconv_25stand_100y)+Loblolly_Phosphorus*EF_Pfert*(1-Landconv_25stand_100y))/Conv_te_kg","v":2.4350873872917216E-2},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/L70*(1-Landconv_25stand_100y)+O70*Loblolly_harvest*En_F_diesel+Loblolly_herbicide*En_F_Pest/L70*(1-Landconv_25stand_100y)+Loblolly_Phosphorus*En_F_Pfert*(1-Landconv_25stand_100y))/Conv_MWh_KWh","v":7.7390870668501352E-2},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/L70*(1-Landconv_25stand_100y)+O70*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/L70*(1-Landconv_25stand_100y)+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert*(1-Landconv_25stand_100y))/Conv_MWh_KWh","v":8.2607200965977068E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"2.89+G70*MM_CO2/MM_C*(1-'Reference Data'!B26)/Chosen_Time_frame_biopathways","v":4.0292500000000002},null,4.0292500000000002,null,"Includes above ground loss (2.89 tCO2/ha/y) calculated using Smith et al. (2006) data. Soils loss using IPCC method",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"Lists!B14","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand"},{"$f":"'Transport Data'!A9","v":"South USA"},20,{"$f":"A71&\":\"&B71&\":\"&C71&\":\"&D71","v":"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand:South USA:20"},147,{"$f":"F71*MM_C/MM_CO2","v":40.090909090909093},18.040909090909093,"Winrock, 2011",1,0,25,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which was previously harvested every 25 years, but is now about to be harvested less intensively (conversion over 50 years).",5.9130000000000003,0.6,{"$f":"1-P71","v":0.4},{"$f":"P71+Q71","v":1},0,"Intensively maanegd plantation being converted to a naturally regenerated forest. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen*(1-Landconv_50stand_20y)","v":18.378795180722893},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/L71*(1-Landconv_50stand_20y)+O71*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L71*(1-Landconv_50stand_20y)+Loblolly_Phosphorus*EF_Pfert*(1-Landconv_50stand_20y))/Conv_te_kg","v":0.11657269023387022},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/L71*(1-Landconv_50stand_20y)+O71*Loblolly_harvest*En_F_diesel+Loblolly_herbicide*En_F_Pest/L71*(1-Landconv_50stand_20y)+Loblolly_Phosphorus*En_F_Pfert*(1-Landconv_50stand_20y))/Conv_MWh_KWh","v":0.37425702750170964},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/L71*(1-Landconv_50stand_20y)+O71*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/L71*(1-Landconv_50stand_20y)+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert*(1-Landconv_50stand_20y))/Conv_MWh_KWh","v":0.39880528963685519},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",1.8080000000000001,null,1.8080000000000001,null,"Calculated using Smith et al (2006)",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"B71","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand"},{"$f":"C71","v":"South USA"},40,"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand:South USA:40",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,25,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which was previously harvested every 25 years, but is now about to be harvested less intensively (conversion over 50 years).",4.8040000000000003,0.6,0.4,1,0,"Intensively maanegd plantation being converted to a naturally regenerated forest. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen*(1-Landconv_50stand_40y)","v":13.784096385542169},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/L72*(1-Landconv_50stand_40y)+O72*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L72*(1-Landconv_50stand_40y)+Loblolly_Phosphorus*EF_Pfert*(1-Landconv_50stand_40y))/Conv_te_kg","v":9.1518829972402641E-2},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/L72*(1-Landconv_50stand_40y)+O72*Loblolly_harvest*En_F_diesel+Loblolly_herbicide*En_F_Pest/L72*(1-Landconv_50stand_40y)+Loblolly_Phosphorus*En_F_Pfert*(1-Landconv_50stand_40y))/Conv_MWh_KWh","v":0.29329659955832105},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/L72*(1-Landconv_50stand_40y)+O72*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/L72*(1-Landconv_50stand_40y)+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert*(1-Landconv_50stand_40y))/Conv_MWh_KWh","v":0.31262787567171907},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0.68700000000000006,null,0.68700000000000006,null,"Calculated using Smith et al (2006)",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"B71","v":"Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand"},{"$f":"C71","v":"South USA"},100,"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, about to be managed less intensively as natural Loblolly stand:South USA:100",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,25,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which was previously harvested every 25 years, but is now about to be harvested less intensively (conversion over 50 years).",3.1150000000000002,0.6,0.4,1,0,"Intensively maanegd plantation being converted to a naturally regenerated forest. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen*(1-Landconv_50stand_100y)","v":5.7433734939759038},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/L73*(1-Landconv_50stand_100y)+O73*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L73*(1-Landconv_50stand_100y)+Loblolly_Phosphorus*EF_Pfert*(1-Landconv_50stand_100y))/Conv_te_kg","v":5.0462616141834435E-2},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/L73*(1-Landconv_50stand_100y)+O73*Loblolly_harvest*En_F_diesel+Loblolly_herbicide*En_F_Pest/L73*(1-Landconv_50stand_100y)+Loblolly_Phosphorus*En_F_Pfert*(1-Landconv_50stand_100y))/Conv_MWh_KWh","v":0.16020898250205123},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/L73*(1-Landconv_50stand_100y)+O73*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/L73*(1-Landconv_50stand_100y)+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert*(1-Landconv_50stand_100y))/Conv_MWh_KWh","v":0.17103783170205125},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0.41399999999999998,null,0.41399999999999998,null,"Calculated using Smith et al (2006)",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"Lists!B15","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting"},{"$f":"'Transport Data'!A9","v":"South USA"},20,{"$f":"A74&\":\"&B74&\":\"&C74&\":\"&D74","v":"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting:South USA:20"},147,{"$f":"F74*MM_C/MM_CO2","v":40.090909090909093},18.040909090909093,"Winrock, 2011",1,0,25,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which was previously harvested every 25 years, but is now about to be left to revert to a Natural Loblolly stand, and not be harvested.",5.9130000000000003,0.6,{"$f":"1-P74","v":0.4},{"$f":"P74+Q74","v":1},0,"Intensively maanegd plantation being converted to a naturally regenerated forest. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen*(1-Landconv_25stand_20y)","v":13.784096385542169},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/L74*(1-Landconv_25stand_20y)+O74*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L74*(1-Landconv_25stand_20y)+Loblolly_Phosphorus*EF_Pfert*(1-Landconv_25stand_20y))/Conv_te_kg","v":0.10380061016840264},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/L74*(1-Landconv_25stand_20y)+O74*Loblolly_harvest*En_F_diesel+Loblolly_herbicide*En_F_Pest/L74*(1-Landconv_25stand_20y)+Loblolly_Phosphorus*En_F_Pfert*(1-Landconv_25stand_20y))/Conv_MWh_KWh","v":0.33115075334472882},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/L74*(1-Landconv_25stand_20y)+O74*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/L74*(1-Landconv_25stand_20y)+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert*(1-Landconv_25stand_20y))/Conv_MWh_KWh","v":0.35324538268453459},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",3.5990000000000002,null,3.5990000000000002,null,"Calculated using Smith et al (2006)",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"B74","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting"},{"$f":"C74","v":"South USA"},40,"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting:South USA:40",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,25,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which was previously harvested every 25 years, but is now about to be left to revert to a Natural Loblolly stand, and not be harvested.",3.6960000000000002,0.6,0.4,1,0,"Intensively maanegd plantation being converted to a naturally regenerated forest. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen*(1-Landconv_25stand_40y)","v":7.1792168674698793},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/L75*(1-Landconv_25stand_40y)+O75*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L75*(1-Landconv_25stand_40y)+Loblolly_Phosphorus*EF_Pfert*(1-Landconv_25stand_40y))/Conv_te_kg","v":6.0888259326293041E-2},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/L75*(1-Landconv_25stand_40y)+O75*Loblolly_harvest*En_F_diesel+Loblolly_herbicide*En_F_Pest/L75*(1-Landconv_25stand_40y)+Loblolly_Phosphorus*En_F_Pfert*(1-Landconv_25stand_40y))/Conv_MWh_KWh","v":0.19351131026348639},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/L75*(1-Landconv_25stand_40y)+O75*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/L75*(1-Landconv_25stand_40y)+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert*(1-Landconv_25stand_40y))/Conv_MWh_KWh","v":0.20655462775940872},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0.51500000000000001,null,0.51500000000000001,null,"Calculated using Smith et al (2006)",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"B74","v":"Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting"},{"$f":"C74","v":"South USA"},100,"Short Rotation Forestry (SRF):Intensely managed SRF Conifer, about to be harvested then left to regenerate naturally, without future harvesting:South USA:100",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,25,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine which was previously harvested every 25 years, but is now about to be left to revert to a Natural Loblolly stand, and not be harvested.",1.478,0.6,0.4,1,0,"Intensively maanegd plantation being converted to a naturally regenerated forest. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen*(1-Landconv_25stand_100y)","v":2.8716867469879519},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/L76*(1-Landconv_25stand_100y)+O76*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L76*(1-Landconv_25stand_100y)+Loblolly_Phosphorus*EF_Pfert*(1-Landconv_25stand_100y))/Conv_te_kg","v":2.4350873872917216E-2},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/L76*(1-Landconv_25stand_100y)+O76*Loblolly_harvest*En_F_diesel+Loblolly_herbicide*En_F_Pest/L76*(1-Landconv_25stand_100y)+Loblolly_Phosphorus*En_F_Pfert*(1-Landconv_25stand_100y))/Conv_MWh_KWh","v":7.7390870668501352E-2},{"$f":"((Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/L76*(1-Landconv_25stand_100y)+O76*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/L76*(1-Landconv_25stand_100y)+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert*(1-Landconv_25stand_100y))/Conv_MWh_KWh","v":8.2607200965977068E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-2.4169999999999998,null,-2.4169999999999998,null,"Calculated using Smith et al (2006)",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"Lists!B24","v":"Medium intensity managed SRF Conifer, rotation length 25 years"},{"$f":"'Transport Data'!A9","v":"South USA"},20,{"$f":"A77&\":\"&B77&\":\"&C77&\":\"&D77","v":"Short Rotation Forestry (SRF):Medium intensity managed SRF Conifer, rotation length 25 years:South USA:20"},147,{"$f":"F77*MM_C/MM_CO2","v":40.090909090909093},18.040909090909093,"Winrock, 2011",1,0,25,59.81,"Smith et al., 2006; Allen et al., 2005. Modelled as managed Loblolly Pine (Smith et al., 2006), with yield 74% that of an intensively managed plantation (Allen et al., 2005).",4.3710000000000004,0.5,0.5,1,0,"Intensively maanegd plantation. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen_Low","v":7.6578313253012054},{"$f":"((Loblolly_landprep_low+Loblolly_fertiliser_diesel*Fert_applications_Low)*EF_diesel/L77+O77*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L77+Loblolly_Phosphorus_Low*EF_Pfert)/Conv_te_kg","v":7.4046436702935092E-2},{"$f":"((Loblolly_landprep_low+Loblolly_fertiliser_diesel*Fert_applications_Low)*En_F_diesel/L77+O77*Loblolly_harvest*En_F_diesel+Loblolly_herbicide*En_F_Pest/L77+Loblolly_Phosphorus_Low*En_F_Pfert)/Conv_MWh_KWh","v":0.23609161187383212},{"$f":"((Loblolly_landprep_low+Loblolly_fertiliser_diesel*Fert_applications_Low)*En_F_diesel*Prim_En_Diesel/L77+O77*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/L77+Loblolly_Phosphorus_Low*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.25188787843771565},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"B77","v":"Medium intensity managed SRF Conifer, rotation length 25 years"},{"$f":"C77","v":"South USA"},40,"Short Rotation Forestry (SRF):Medium intensity managed SRF Conifer, rotation length 25 years:South USA:40",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,25,59.81,"Smith et al., 2006; Allen et al., 2005. Modelled as managed Loblolly Pine (Smith et al., 2006), with yield 74% that of an intensively managed plantation (Allen et al., 2005).",4.3710000000000004,0.5,0.5,1,0,"Intensively maanegd plantation. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen_Low","v":7.6578313253012054},{"$f":"((Loblolly_landprep_low+Loblolly_fertiliser_diesel*Fert_applications_Low)*EF_diesel/L78+O78*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L78+Loblolly_Phosphorus_Low*EF_Pfert)/Conv_te_kg","v":7.4046436702935092E-2},{"$f":"((Loblolly_landprep_low+Loblolly_fertiliser_diesel*Fert_applications_Low)*En_F_diesel/L78+O78*Loblolly_harvest*En_F_diesel+Loblolly_herbicide*En_F_Pest/L78+Loblolly_Phosphorus_Low*En_F_Pfert)/Conv_MWh_KWh","v":0.23609161187383212},{"$f":"((Loblolly_landprep_low+Loblolly_fertiliser_diesel*Fert_applications_Low)*En_F_diesel*Prim_En_Diesel/L78+O78*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/L78+Loblolly_Phosphorus_Low*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.25188787843771565},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$C$82","v":"Short Rotation Forestry (SRF)"},{"$f":"B77","v":"Medium intensity managed SRF Conifer, rotation length 25 years"},{"$f":"C77","v":"South USA"},100,"Short Rotation Forestry (SRF):Medium intensity managed SRF Conifer, rotation length 25 years:South USA:100",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,25,59.81,"Smith et al., 2006; Allen et al., 2005. Modelled as managed Loblolly Pine (Smith et al., 2006), with yield 74% that of an intensively managed plantation (Allen et al., 2005).",4.3710000000000004,0.5,0.5,1,0,"Intensively maanegd plantation. Smith et al., 2006 for yield. Estimate for proportion saw logs.",{"$f":"Loblolly_Nitrogen_Low","v":7.6578313253012054},{"$f":"((Loblolly_landprep_low+Loblolly_fertiliser_diesel*Fert_applications_Low)*EF_diesel/L79+O79*Loblolly_harvest*EF_diesel+Loblolly_herbicide*EF_Pest/L79+Loblolly_Phosphorus_Low*EF_Pfert)/Conv_te_kg","v":7.4046436702935092E-2},{"$f":"((Loblolly_landprep_low+Loblolly_fertiliser_diesel*Fert_applications_Low)*En_F_diesel/L79+O79*Loblolly_harvest*En_F_diesel+Loblolly_herbicide*En_F_Pest/L79+Loblolly_Phosphorus_Low*En_F_Pfert)/Conv_MWh_KWh","v":0.23609161187383212},{"$f":"((Loblolly_landprep_low+Loblolly_fertiliser_diesel*Fert_applications_Low)*En_F_diesel*Prim_En_Diesel/L79+O79*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/L79+Loblolly_Phosphorus_Low*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.25188787843771565},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"Lists!B18","v":"Newly Abandoned LRF Conifer, residues unused"},{"$f":"Lists!K111","v":"North West USA"},20,"Long Rotation Forestry (LRF):Newly Abandoned LRF Conifer, residues unused:North West USA:20",414,112.90909090909091,50.809090909090912,"Winrock, 2011",1,0,1,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at age 15y, 70 y rotation. ",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-10.050000000000001,null,-10.050000000000001,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ","Includes forgone C stock change of soils, stands and debris. Calculated using C-SORT Forest Research Software",2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B80","v":"Newly Abandoned LRF Conifer, residues unused"},{"$f":"C80","v":"North West USA"},40,"Long Rotation Forestry (LRF):Newly Abandoned LRF Conifer, residues unused:North West USA:40",414,112.90909090909091,50.809090909090912,"Winrock, 2011",1,0,1,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at age 15y, 70 y rotation. ",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-9.1300000000000008,null,-9.1300000000000008,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ","Includes forgone C stock change of soils, stands and debris. Calculated using C-SORT Forest Research Software",2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B81","v":"Newly Abandoned LRF Conifer, residues unused"},{"$f":"C81","v":"North West USA"},100,"Long Rotation Forestry (LRF):Newly Abandoned LRF Conifer, residues unused:North West USA:100",414,112.90909090909091,50.809090909090912,"Winrock, 2011",1,0,1,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at age 15y, 70 y rotation. ",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-5.51,null,-5.17,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ","Includes forgone C stock change of soils, stands and debris. Calculated using C-SORT Forest Research Software",2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B82","v":"Newly Abandoned LRF Conifer, residues unused"},{"$f":"Lists!K112","v":"Pacific Canada"},20,"Long Rotation Forestry (LRF):Newly Abandoned LRF Conifer, residues unused:Pacific Canada:20",265,72.272727272727266,32.522727272727273,"Winrock, 2011",1,0,1,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at age 15y, 70 y rotation. ",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-10.050000000000001,null,-10.050000000000001,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ","Includes forgone C stock change of soils, stands and debris. Calculated using C-SORT Forest Research Software",2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"Newly Abandoned LRF Conifer, residues unused",{"$f":"C83","v":"Pacific Canada"},40,"Long Rotation Forestry (LRF):Newly Abandoned LRF Conifer, residues unused:Pacific Canada:40",265,72.272727272727266,32.522727272727273,"Winrock, 2011",1,0,1,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at age 15y, 70 y rotation. ",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-9.1300000000000008,null,-9.1300000000000008,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ","Includes forgone C stock change of soils, stands and debris. Calculated using C-SORT Forest Research Software",2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"Newly Abandoned LRF Conifer, residues unused",{"$f":"C84","v":"Pacific Canada"},100,"Long Rotation Forestry (LRF):Newly Abandoned LRF Conifer, residues unused:Pacific Canada:100",265,72.272727272727266,32.522727272727273,"Winrock, 2011",1,0,1,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at age 15y, 70 y rotation. ",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-5.51,null,-5.17,null,"Mitchell et al., 2012. Disturbances by major fire every 250 years. All trees die whilst 20% of biomass combusted. ","Includes forgone C stock change of soils, stands and debris. Calculated using C-SORT Forest Research Software",2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"Newly Abandoned LRF Conifer, residues unused",{"$f":"Lists!K113","v":"Interior Canada"},20,"Long Rotation Forestry (LRF):Newly Abandoned LRF Conifer, residues unused:Interior Canada:20",205,55.909090909090907,25.15909090909091,"Winrock, 2011",1,0,1,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-4.1500000000000004,null,-2.46,null,"Mitchell et al., 2012. Disturbance by major fire every 70 years where all trees die and 20% of above ground biomass lost in combustion","Includes forgone C stock change of soils, stands and debris. Calculated using C-SORT Forest Research Software",1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"Newly Abandoned LRF Conifer, residues unused",{"$f":"C86","v":"Interior Canada"},40,"Long Rotation Forestry (LRF):Newly Abandoned LRF Conifer, residues unused:Interior Canada:40",205,55.909090909090907,25.15909090909091,"Winrock, 2011",1,0,1,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-4.17,null,-1.78,null,"Mitchell et al., 2012. Disturbance by major fire every 70 years where all trees die and 20% of above ground biomass lost in combustion","Includes forgone C stock change of soils, stands and debris. Calculated using C-SORT Forest Research Software",1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"Newly Abandoned LRF Conifer, residues unused",{"$f":"C87","v":"Interior Canada"},100,"Long Rotation Forestry (LRF):Newly Abandoned LRF Conifer, residues unused:Interior Canada:100",205,55.909090909090907,25.15909090909091,"Winrock, 2011",1,0,1,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-3.1,null,-0.87,null,"Mitchell et al., 2012. Disturbance by major fire every 70 years where all trees die and 20% of above ground biomass lost in combustion","Includes forgone C stock change of soils, stands and debris. Calculated using C-SORT Forest Research Software",1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"Newly Abandoned LRF Conifer, residues unused",{"$f":"Lists!K114","v":"Boreal North Canada"},20,"Long Rotation Forestry (LRF):Newly Abandoned LRF Conifer, residues unused:Boreal North Canada:20",218,59.454545454545453,26.754545454545454,"Winrock, 2011",1,0,1,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-4.1500000000000004,null,-2.46,null,"Mitchell et al., 2012. Disturbance by major fire every 70 years where all trees die and 20% of above ground biomass lost in combustion","Includes forgone C stock change of soils, stands and debris. Calculated using C-SORT Forest Research Software",1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"Newly Abandoned LRF Conifer, residues unused",{"$f":"C89","v":"Boreal North Canada"},40,"Long Rotation Forestry (LRF):Newly Abandoned LRF Conifer, residues unused:Boreal North Canada:40",218,59.454545454545453,26.754545454545454,"Winrock, 2011",1,0,1,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-4.17,null,-1.78,null,"Mitchell et al., 2012. Disturbance by major fire every 70 years where all trees die and 20% of above ground biomass lost in combustion","Includes forgone C stock change of soils, stands and debris. Calculated using C-SORT Forest Research Software",1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B88","v":"Newly Abandoned LRF Conifer, residues unused"},{"$f":"C90","v":"Boreal North Canada"},100,"Long Rotation Forestry (LRF):Newly Abandoned LRF Conifer, residues unused:Boreal North Canada:100",218,59.454545454545453,26.754545454545454,"Winrock, 2011",1,0,1,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-3.1,null,-0.87,null,"Mitchell et al., 2012. Disturbance by major fire every 70 years where all trees die and 20% of above ground biomass lost in combustion","Includes forgone C stock change of soils, stands and debris. Calculated using C-SORT Forest Research Software",1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"Lists!B37","v":"LRF Broadleaf for wood products, residues unused"},{"$f":"Lists!L110","v":"UK"},20,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused:UK:20",266,72.545454545454547,32.645454545454548,"Winrock, 2011",1,0,150,123.07,"Forest Research C-SORT model. Modelled as Oak, Yield Class 6, Management Table Thinning, 150 year rotation",2.5489999999999999,0.621,0.379,1,0,"Planted forest. Forest Research C-SORT model.",0,{"$f":"('Land Data'!O92/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/'Land Data'!L92)/Conv_te_kg","v":4.179453838240918E-2},{"$f":"('Land Data'!O92/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/'Land Data'!L92)/Conv_MWh_KWh","v":0.12894364272587203},{"$f":"('Land Data'!O92/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/'Land Data'!L92)/Conv_MWh_KWh","v":0.13774551864486068},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Trees grown in areas not succeptible to windthrow or fire. Natural lifespan assumed to be 300 years.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B92","v":"LRF Broadleaf for wood products, residues unused"},{"$f":"C92","v":"UK"},40,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused:UK:40",266,72.545454545454547,32.645454545454548,"Winrock, 2011",1,0,150,123.07,"Forest Research C-SORT model. Modelled as Oak, Yield Class 6, Management Table Thinning, 150 year rotation",2.5489999999999999,0.621,0.379,1,0,"Planted forest. Forest Research C-SORT model.",0,{"$f":"('Land Data'!O93/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/'Land Data'!L93)/Conv_te_kg","v":4.179453838240918E-2},{"$f":"('Land Data'!O93/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/'Land Data'!L93)/Conv_MWh_KWh","v":0.12894364272587203},{"$f":"('Land Data'!O93/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/'Land Data'!L93)/Conv_MWh_KWh","v":0.13774551864486068},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Trees grown in areas not succeptible to windthrow or fire. Natural lifespan assumed to be 300 years.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B93","v":"LRF Broadleaf for wood products, residues unused"},{"$f":"C92","v":"UK"},100,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused:UK:100",266,72.545454545454547,32.645454545454548,"Winrock, 2011",1,0,150,123.07,"Forest Research C-SORT model. Modelled as Oak, Yield Class 6, Management Table Thinning, 150 year rotation",2.5489999999999999,0.621,0.379,1,0,"Planted forest. Forest Research C-SORT model.",0,{"$f":"('Land Data'!O94/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/'Land Data'!L94)/Conv_te_kg","v":4.179453838240918E-2},{"$f":"('Land Data'!O94/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/'Land Data'!L94)/Conv_MWh_KWh","v":0.12894364272587203},{"$f":"('Land Data'!O94/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/'Land Data'!L94)/Conv_MWh_KWh","v":0.13774551864486068},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Trees grown in areas not succeptible to windthrow or fire. Natural lifespan assumed to be 300 years.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Broadleaf for wood products, residues unused",{"$f":"Lists!L111","v":"North-East USA"},20,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused:North-East USA:20",164,44.727272727272727,20.127272727272729,"Winrock, 2011",1,0,100,61.12,"Forest Research C-SORT model. Modelled as Sycamore, Yield Class 4, Management Table Thinning, 100 year rotation",1.248,0.4113,0.5887,1,0,"Planted forest. Forest Research C-SORT model.",0,{"$f":"('Land Data'!O95/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/'Land Data'!L95)/Conv_te_kg","v":2.362304840535373E-2},{"$f":"('Land Data'!O95/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/'Land Data'!L95)/Conv_MWh_KWh","v":7.300011760010397E-2},{"$f":"('Land Data'!O95/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/'Land Data'!L95)/Conv_MWh_KWh","v":7.7412611184911551E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Pan et al., 2011. Major disturbance every 200 years. All trees die, and 20% of carbon is immediately released by combustion. ",null,0.03,"Chambers et al., 2000. Specific to forests in New Hampshire USA.",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Broadleaf for wood products, residues unused",{"$f":"C95","v":"North-East USA"},40,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused:North-East USA:40",164,44.727272727272727,{"$f":"error_SOC*G96","v":20.127272727272729},"Winrock, 2011",1,0,100,61.12,"Forest Research C-SORT model. Modelled as Sycamore, Yield Class 4, Management Table Thinning, 100 year rotation",1.248,0.4113,0.5887,1,0,"Planted forest. Forest Research C-SORT model.",0,{"$f":"('Land Data'!O96/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/'Land Data'!L96)/Conv_te_kg","v":2.362304840535373E-2},{"$f":"('Land Data'!O96/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/'Land Data'!L96)/Conv_MWh_KWh","v":7.300011760010397E-2},{"$f":"('Land Data'!O96/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/'Land Data'!L96)/Conv_MWh_KWh","v":7.7412611184911551E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Pan et al., 2011. Major disturbance every 200 years. All trees die, and 20% of carbon is immediately released by combustion. ",null,0.03,"Chambers et al., 2000. Specific to forests in New Hampshire USA.",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Broadleaf for wood products, residues unused",{"$f":"C95","v":"North-East USA"},100,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused:North-East USA:100",164,44.727272727272727,20.127272727272729,"Winrock, 2011",1,0,100,61.12,"Forest Research C-SORT model. Modelled as Sycamore, Yield Class 4, Management Table Thinning, 100 year rotation",1.248,0.4113,0.5887,1,0,"Planted forest. Forest Research C-SORT model.",0,{"$f":"('Land Data'!O97/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/'Land Data'!L97)/Conv_te_kg","v":2.362304840535373E-2},{"$f":"('Land Data'!O97/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/'Land Data'!L97)/Conv_MWh_KWh","v":7.300011760010397E-2},{"$f":"('Land Data'!O97/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/'Land Data'!L97)/Conv_MWh_KWh","v":7.7412611184911551E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Pan et al., 2011. Major disturbance every 200 years. All trees die, and 20% of carbon is immediately released by combustion. ",null,0.03,"Chambers et al., 2000. Specific to forests in New Hampshire USA.",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Broadleaf for wood products, residues unused",{"$f":"Lists!L112","v":"North USA"},20,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused:North USA:20",190,51.81818181818182,23.31818181818182,"Winrock, 2011",1,0,40,75.2,"Forest Research C-SORT model. Modelled as Poplar, Yield Class 14, No thinning, 40 year rotation",3.488,0.27379999999999999,0.72619999999999996,1,0,"Planted forest. Forest Research C-SORT model.",0,{"$f":"('Land Data'!O98/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/'Land Data'!L98)/Conv_te_kg","v":6.4639955850860423E-2},{"$f":"('Land Data'!O98/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/'Land Data'!L98)/Conv_MWh_KWh","v":0.19970582593885167},{"$f":"('Land Data'!O98/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/'Land Data'!L98)/Conv_MWh_KWh","v":0.21199306373238783},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Pan et al., 2011. Oldest deciduous trees in this region are 130-200 years, therefore assume lifespan of 150 years. ",null,0.03,"Chambers et al., 2000. Specific to forests in New Hampshire USA.",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Broadleaf for wood products, residues unused",{"$f":"C98","v":"North USA"},40,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused:North USA:40",190,51.81818181818182,23.31818181818182,"Winrock, 2011",1,0,40,75.2,"Forest Research C-SORT model. Modelled as Poplar, No thinning, 40 year rotation",3.488,0.27379999999999999,0.72619999999999996,1,0,"Planted forest. Forest Research C-SORT model.",0,{"$f":"('Land Data'!O99/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/'Land Data'!L99)/Conv_te_kg","v":6.4639955850860423E-2},{"$f":"('Land Data'!O99/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/'Land Data'!L99)/Conv_MWh_KWh","v":0.19970582593885167},{"$f":"('Land Data'!O99/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/'Land Data'!L99)/Conv_MWh_KWh","v":0.21199306373238783},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Pan et al., 2011. Oldest deciduous trees in this region are 130-200 years, therefore assume lifespan of 150 years. ",null,0.03,"Chambers et al., 2000. Specific to forests in New Hampshire USA.",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Broadleaf for wood products, residues unused",{"$f":"C98","v":"North USA"},100,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused:North USA:100",190,51.81818181818182,23.31818181818182,"Winrock, 2011",1,0,40,75.2,"Forest Research C-SORT model. Modelled as Poplar, No thinning, 40 year rotation",3.488,0.27379999999999999,0.72619999999999996,1,0,"Planted forest. Forest Research C-SORT model.",0,{"$f":"('Land Data'!O100/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/'Land Data'!L100)/Conv_te_kg","v":6.4639955850860423E-2},{"$f":"('Land Data'!O100/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/'Land Data'!L100)/Conv_MWh_KWh","v":0.19970582593885167},{"$f":"('Land Data'!O100/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/'Land Data'!L100)/Conv_MWh_KWh","v":0.21199306373238783},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Pan et al., 2011. Oldest deciduous trees in this region are 130-200 years, therefore assume lifespan of 150 years. ",null,0.03,"Chambers et al., 2000. Specific to forests in New Hampshire USA.",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Broadleaf for wood products, residues unused",{"$f":"Lists!L113","v":"East Canada"},20,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused:East Canada:20",591,161.18181818181819,72.531818181818181,"Winrock, 2011",1,0,100,84.98,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, No thinning, 100 year rotation",1.2749999999999999,1.32E-2,0.98680000000000001,1,0,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O101/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":1.9340969885277247E-2},{"$f":"('Land Data'!O101/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":5.9611557667675293E-2},{"$f":"('Land Data'!O101/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":6.3963201377415582E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Pan et al., 2011. Oldest deciduous trees in this region are 130-200 years, therefore assume lifespan of 150 years. ",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Broadleaf for wood products, residues unused",{"$f":"C101","v":"East Canada"},40,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused:East Canada:40",591,161.18181818181819,72.531818181818181,"Winrock, 2011",1,0,100,84.98,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, No thinning, 100 year rotation",1.2749999999999999,1.32E-2,0.98680000000000001,1,0,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O102/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":1.9340969885277247E-2},{"$f":"('Land Data'!O102/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":5.9611557667675293E-2},{"$f":"('Land Data'!O102/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":6.3963201377415582E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Pan et al., 2011. Oldest deciduous trees in this region are 130-200 years, therefore assume lifespan of 150 years. ",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Broadleaf for wood products, residues unused",{"$f":"C101","v":"East Canada"},100,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused:East Canada:100",591,161.18181818181819,72.531818181818181,"Winrock, 2011",1,0,100,84.98,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, No thinning, 100 year rotation",1.2749999999999999,1.32E-2,0.98680000000000001,1,0,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O103/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":1.9340969885277247E-2},{"$f":"('Land Data'!O103/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":5.9611557667675293E-2},{"$f":"('Land Data'!O103/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":6.3963201377415582E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Pan et al., 2011. Oldest deciduous trees in this region are 130-200 years, therefore assume lifespan of 150 years. ",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Broadleaf for wood products, residues unused",{"$f":"'Transport Data'!A9","v":"South USA"},20,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused:South USA:20",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,70,84.42,"Smith et al., 2006. Modelled as naturally regenerated Oak-Hickory broadleaf forest, which is harvested every 70 years. ",1.508,0.5,0.5,1,0,"Naturally regenerated forest. Smith et al., 2006 for yield. Estimate for proportion saw logs.",0,{"$f":"('Land Data'!O104/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.2875437323135756E-2},{"$f":"('Land Data'!O104/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.050527761792498E-2},{"$f":"('Land Data'!O104/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":7.565216288403348E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Broadleaf for wood products, residues unused",{"$f":"C104","v":"South USA"},40,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused:South USA:40",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,70,84.42,"Smith et al., 2006. Modelled as naturally regenerated Oak-Hickory broadleaf forest, which is harvested every 70 years. ",1.508,0.5,0.5,1,0,"Naturally regenerated forest. Smith et al., 2006 for yield. Estimate for proportion saw logs.",0,{"$f":"('Land Data'!O105/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.2875437323135756E-2},{"$f":"('Land Data'!O105/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.050527761792498E-2},{"$f":"('Land Data'!O105/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":7.565216288403348E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"LRF Broadleaf for wood products, residues unused",{"$f":"C104","v":"South USA"},100,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, residues unused:South USA:100",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,70,84.42,"Smith et al., 2006. Modelled as naturally regenerated Oak-Hickory broadleaf forest, which is harvested every 70 years. ",1.508,0.5,0.5,1,0,"Naturally regenerated forest. Smith et al., 2006 for yield. Estimate for proportion saw logs.",0,{"$f":"('Land Data'!O106/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.2875437323135756E-2},{"$f":"('Land Data'!O106/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.050527761792498E-2},{"$f":"('Land Data'!O106/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":7.565216288403348E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"Lists!M109","v":"LRF Broadleaf for wood products, 50% residues used"},{"$f":"Lists!M110","v":"East Canada"},20,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, 50% residues used:East Canada:20",591,161.18181818181819,72.531818181818181,"Winrock, 2011",1,0,100,80.72,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, 100 year rotation",1.6639999999999999,8.0999999999999996E-3,0.79139999999999999,0.79949999999999999,0.2006,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O107/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.524186187380497E-2},{"$f":"('Land Data'!O107/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7798927026675846E-2},{"$f":"('Land Data'!O107/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.347824869962317E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B107","v":"LRF Broadleaf for wood products, 50% residues used"},{"$f":"C107","v":"East Canada"},40,{"$f":"A108&\":\"&B108&\":\"&C108&\":\"&D108","v":"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, 50% residues used:East Canada:40"},591,{"$f":"F108*MM_C/MM_CO2","v":161.18181818181819},72.531818181818181,"Winrock, 2011",1,0,100,80.72,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, 100 year rotation",1.6639999999999999,8.0999999999999996E-3,0.79139999999999999,{"$f":"P108+Q108","v":0.79949999999999999},0.2006,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O108/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.524186187380497E-2},{"$f":"('Land Data'!O108/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7798927026675846E-2},{"$f":"('Land Data'!O108/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.347824869962317E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B108","v":"LRF Broadleaf for wood products, 50% residues used"},{"$f":"C108","v":"East Canada"},100,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, 50% residues used:East Canada:100",591,161.18181818181819,72.531818181818181,"Winrock, 2011",1,0,100,80.72,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, 100 year rotation",1.6639999999999999,8.0999999999999996E-3,0.79139999999999999,0.79949999999999999,0.2006,"Naturally regenerated forest. Forest Research C-SORT model. ",0,{"$f":"('Land Data'!O109/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.524186187380497E-2},{"$f":"('Land Data'!O109/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7798927026675846E-2},{"$f":"('Land Data'!O109/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.347824869962317E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,null,null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"Lists!B38","v":"LRF Broadleaf for wood products, rotation length increasing"},{"$f":"'Transport Data'!A9","v":"South USA"},20,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, rotation length increasing:South USA:20",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,80,84.42,"Smith et al., 2006. Modelled as naturally regenerated Oak-Hickory broadleaf forest, which harvest rate is reducing to every 80 years. ",1.3422000000000001,0.5,0.5,1,0,"Naturally regenerated forest. Smith et al., 2006 for yield. Estimate for proportion saw logs.",0,{"$f":"('Land Data'!O110/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.036035276864245E-2},{"$f":"('Land Data'!O110/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":6.2753437412983365E-2},{"$f":"('Land Data'!O110/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":6.7334438344131137E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-0.67400000000000004,null,-0.67400000000000004,null,null,null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B110","v":"LRF Broadleaf for wood products, rotation length increasing"},{"$f":"C110","v":"South USA"},40,{"$f":"A111&\":\"&B111&\":\"&C111&\":\"&D111","v":"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, rotation length increasing:South USA:40"},147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,80,84.42,"Smith et al., 2006. Modelled as naturally regenerated Oak-Hickory broadleaf forest, which harvest rate is reducing to every 80 years. ",1.3652,0.5,0.5,1,0,"Naturally regenerated forest. Smith et al., 2006 for yield. Estimate for proportion saw logs.",0,{"$f":"('Land Data'!O111/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.0709248695984703E-2},{"$f":"('Land Data'!O111/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":6.382878315914535E-2},{"$f":"('Land Data'!O111/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":6.848828432976295E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-0.60899999999999999,null,-0.60899999999999999,null,null,null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B111","v":"LRF Broadleaf for wood products, rotation length increasing"},{"$f":"C111","v":"South USA"},100,"Long Rotation Forestry (LRF):LRF Broadleaf for wood products, rotation length increasing:South USA:100",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,80,84.42,"Smith et al., 2006. Modelled as naturally regenerated Oak-Hickory broadleaf forest, which harvest rate is reducing to every 80 years. ",1.4295,0.5,0.5,1,0,"Naturally regenerated forest. Smith et al., 2006 for yield. Estimate for proportion saw logs.",0,{"$f":"('Land Data'!O112/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.1684640353728489E-2},{"$f":"('Land Data'!O112/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":6.6835075832111249E-2},{"$f":"('Land Data'!O112/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":7.1714036367855352E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-0.31900000000000001,null,-0.31900000000000001,null,null,null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA."]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"Lists!B43","v":"Newly Abandoned LRF Broadleaf, residues unused"},{"$f":"Lists!N110","v":"North-East USA"},20,"Long Rotation Forestry (LRF):Newly Abandoned LRF Broadleaf, residues unused:North-East USA:20",164,44.727272727272727,20.127272727272729,"Winrock, 2011",1,0,1,61.12,"Forest Research C-SORT model. Modelled as Sycamore, Yield Class 4, Management Table Thinning, 100 year rotation",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-3.6059999999999999,null,-3.6059999999999999,null,"Pan et al., 2011. Major disturbance every 200 years. All trees die, and 20% of carbon is immediately released by combustion. ",null,0.03,"Chambers et al., 2000. Specific to forests in New Hampshire USA.",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B113","v":"Newly Abandoned LRF Broadleaf, residues unused"},{"$f":"C113","v":"North-East USA"},40,"Long Rotation Forestry (LRF):Newly Abandoned LRF Broadleaf, residues unused:North-East USA:40",164,44.727272727272727,20.127272727272729,"Winrock, 2011",1,0,1,61.12,"Forest Research C-SORT model. Modelled as Sycamore, Yield Class 4, Management Table Thinning, 100 year rotation",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-3.093,null,-3.093,null,"Pan et al., 2011. Major disturbance every 200 years. All trees die, and 20% of carbon is immediately released by combustion. ",null,0.03,"Chambers et al., 2000. Specific to forests in New Hampshire USA.",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B114","v":"Newly Abandoned LRF Broadleaf, residues unused"},{"$f":"C113","v":"North-East USA"},100,"Long Rotation Forestry (LRF):Newly Abandoned LRF Broadleaf, residues unused:North-East USA:100",164,44.727272727272727,20.127272727272729,"Winrock, 2011",1,0,1,61.12,"Forest Research C-SORT model. Modelled as Sycamore, Yield Class 4, Management Table Thinning, 100 year rotation",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-1.6659999999999999,null,-1.3320000000000001,null,"Pan et al., 2011. Major disturbance every 200 years. All trees die, and 20% of carbon is immediately released by combustion. ",null,0.03,"Chambers et al., 2000. Specific to forests in New Hampshire USA.",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"Newly Abandoned LRF Broadleaf, residues unused",{"$f":"Lists!N111","v":"North USA"},20,"Long Rotation Forestry (LRF):Newly Abandoned LRF Broadleaf, residues unused:North USA:20",190,51.81818181818182,23.31818181818182,"Winrock, 2011",1,0,1,75.2,"Forest Research C-SORT model. Modelled as Poplar, Yield Class 14, No thinning, 40 year rotation",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-9.7200000000000006,null,-9.7200000000000006,null,"Pan et al., 2011. Oldest deciduous trees in this region are 130-200 years, therefore assume lifespan of 150 years. ",null,0.03,"Chambers et al., 2000. Specific to forests in New Hampshire USA.",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"Newly Abandoned LRF Broadleaf, residues unused",{"$f":"C116","v":"North USA"},40,"Long Rotation Forestry (LRF):Newly Abandoned LRF Broadleaf, residues unused:North USA:40",190,51.81818181818182,23.31818181818182,"Winrock, 2011",1,0,1,75.2,"Forest Research C-SORT model. Modelled as Poplar, Yield Class 14, No thinning, 40 year rotation",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-8.6300000000000008,null,-8.6300000000000008,null,"Pan et al., 2011. Oldest deciduous trees in this region are 130-200 years, therefore assume lifespan of 150 years. ",null,0.03,"Chambers et al., 2000. Specific to forests in New Hampshire USA.",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"Newly Abandoned LRF Broadleaf, residues unused",{"$f":"C116","v":"North USA"},100,"Long Rotation Forestry (LRF):Newly Abandoned LRF Broadleaf, residues unused:North USA:100",190,51.81818181818182,23.31818181818182,"Winrock, 2011",1,0,1,75.2,"Forest Research C-SORT model. Modelled as Poplar, Yield Class 14, No thinning, 40 year rotation",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-4.4000000000000004,null,-3.91,null,"Pan et al., 2011. Oldest deciduous trees in this region are 130-200 years, therefore assume lifespan of 150 years. ",null,0.03,"Chambers et al., 2000. Specific to forests in New Hampshire USA.",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"Newly Abandoned LRF Broadleaf, residues unused",{"$f":"Lists!N112","v":"East Canada"},20,"Long Rotation Forestry (LRF):Newly Abandoned LRF Broadleaf, residues unused:East Canada:20",591,161.18181818181819,72.531818181818181,"Winrock, 2011",1,0,1,84.98,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, No thinning, 100 year rotation",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-3.89,null,-3.89,null,"Pan et al., 2011. Oldest deciduous trees in this region are 130-200 years, therefore assume lifespan of 150 years. ",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},"Newly Abandoned LRF Broadleaf, residues unused",{"$f":"C119","v":"East Canada"},40,"Long Rotation Forestry (LRF):Newly Abandoned LRF Broadleaf, residues unused:East Canada:40",591,161.18181818181819,72.531818181818181,"Winrock, 2011",1,0,1,84.98,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, No thinning, 100 year rotation",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-3.26,null,-3.26,null,"Pan et al., 2011. Oldest deciduous trees in this region are 130-200 years, therefore assume lifespan of 150 years. ",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$B$82","v":"Long Rotation Forestry (LRF)"},{"$f":"B119","v":"Newly Abandoned LRF Broadleaf, residues unused"},{"$f":"C119","v":"East Canada"},100,"Long Rotation Forestry (LRF):Newly Abandoned LRF Broadleaf, residues unused:East Canada:100",591,161.18181818181819,72.531818181818181,"Winrock, 2011",1,0,1,84.98,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, No thinning, 100 year rotation",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-1.76,null,-1.3,null,"Pan et al., 2011. Oldest deciduous trees in this region are 130-200 years, therefore assume lifespan of 150 years. ",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"Lists!B47","v":"Unmanaged Temperate Broadleaf"},{"$f":"Lists!P110","v":"UK"},20,"Unmanaged Forests:Unmanaged Temperate Broadleaf:UK:20",266,72.545454545454547,32.645454545454548,"Winrock, 2011",1,0,1,100,"Forest Research Carbon Impacts Report. C-SORT model. Modelled as mixed broadleaf trees",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-6.5,null,-6.5,null,"Disturbances not modelled. However, likely to have minimal impact as infrequent.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"B122","v":"Unmanaged Temperate Broadleaf"},{"$f":"C122","v":"UK"},40,"Unmanaged Forests:Unmanaged Temperate Broadleaf:UK:40",266,72.545454545454547,32.645454545454548,"Winrock, 2011",1,0,1,100,"Forest Research Carbon Impacts Report. C-SORT model. Modelled as mixed broadleaf trees",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-7.7,null,-7.7,null,"Disturbances not modelled. However, likely to have minimal impact as infrequent.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"B123","v":"Unmanaged Temperate Broadleaf"},{"$f":"C122","v":"UK"},100,"Unmanaged Forests:Unmanaged Temperate Broadleaf:UK:100",266,72.545454545454547,32.645454545454548,"Winrock, 2011",1,0,1,100,"Forest Research Carbon Impacts Report. C-SORT model. Modelled as mixed broadleaf trees",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-6.8,null,-6.8,null,"Disturbances not modelled. However, likely to have minimal impact as infrequent.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"Lists!B52","v":"Unmanaged Tropical Peat Forest"},{"$f":"Lists!Q110","v":"Africa (tropical wet region)"},20,"Unmanaged Forests:Unmanaged Tropical Peat Forest:Africa (tropical wet region):20","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"'Reference Data'!$H$37+'Reference Data'!$K$37*C_litter","v":208.39099999999999},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$130/Conv_te_kg","v":7.4799999999999997E-4},{"$f":"'Reference Data'!$E$130/Conv_te_kg","v":7.4799999999999997E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$154","v":0.15840000000000001},{"$f":"'Reference Data'!$E$154","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-19.492000000000001,null,-9.7460000000000004,null,"Anderson-Teixei and Delucia, 2011. Mature site without recent major disturbance. Includes relatively frequent, small scale natural disturbances, such as small-scale mortality, tree fall events, surface fires. ",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",{"$f":"AVERAGE(0.368,0.857)","v":0.61250000000000004},"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"B125","v":"Unmanaged Tropical Peat Forest"},{"$f":"C125","v":"Africa (tropical wet region)"},40,"Unmanaged Forests:Unmanaged Tropical Peat Forest:Africa (tropical wet region):40","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"'Reference Data'!$H$37+'Reference Data'!$K$37*C_litter","v":208.39099999999999},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$130/Conv_te_kg","v":7.4799999999999997E-4},{"$f":"'Reference Data'!$E$130/Conv_te_kg","v":7.4799999999999997E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$154","v":0.15840000000000001},{"$f":"'Reference Data'!$E$154","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-19.492000000000001,null,-9.7460000000000004,null,"Anderson-Teixei and Delucia, 2011. Mature site without recent major disturbance. Includes relatively frequent, small scale natural disturbances, such as small-scale mortality, tree fall events, surface fires. ",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"B126","v":"Unmanaged Tropical Peat Forest"},{"$f":"C126","v":"Africa (tropical wet region)"},100,"Unmanaged Forests:Unmanaged Tropical Peat Forest:Africa (tropical wet region):100","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"'Reference Data'!$H$37+'Reference Data'!$K$37*C_litter","v":208.39099999999999},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$130/Conv_te_kg","v":7.4799999999999997E-4},{"$f":"'Reference Data'!$E$130/Conv_te_kg","v":7.4799999999999997E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$154","v":0.15840000000000001},{"$f":"'Reference Data'!$E$154","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-19.492000000000001,null,-9.7460000000000004,null,"Anderson-Teixei and Delucia, 2011. Mature site without recent major disturbance. Includes relatively frequent, small scale natural disturbances, such as small-scale mortality, tree fall events, surface fires. ",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"B127","v":"Unmanaged Tropical Peat Forest"},{"$f":"Lists!Q111","v":"North America (tropical wet region)"},20,"Unmanaged Forests:Unmanaged Tropical Peat Forest:North America (tropical wet region):20","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"'Reference Data'!$H$38+'Reference Data'!$K$38*C_litter","v":202.82999999999998},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$130/Conv_te_kg","v":7.4799999999999997E-4},{"$f":"'Reference Data'!$E$130/Conv_te_kg","v":7.4799999999999997E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$154","v":0.15840000000000001},{"$f":"'Reference Data'!$E$154","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-19.492000000000001,null,-9.7460000000000004,null,"Anderson-Teixei and Delucia, 2011. Mature site without recent major disturbance. Includes relatively frequent, small scale natural disturbances, such as small-scale mortality, tree fall events, surface fires. ",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Peat Forest",{"$f":"C128","v":"North America (tropical wet region)"},40,"Unmanaged Forests:Unmanaged Tropical Peat Forest:North America (tropical wet region):40","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"'Reference Data'!$H$38+'Reference Data'!$K$38*C_litter","v":202.82999999999998},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$130/Conv_te_kg","v":7.4799999999999997E-4},{"$f":"'Reference Data'!$E$130/Conv_te_kg","v":7.4799999999999997E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$154","v":0.15840000000000001},{"$f":"'Reference Data'!$E$154","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-19.492000000000001,null,-9.7460000000000004,null,"Anderson-Teixei and Delucia, 2011. Mature site without recent major disturbance. Includes relatively frequent, small scale natural disturbances, such as small-scale mortality, tree fall events, surface fires. ",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Peat Forest",{"$f":"C129","v":"North America (tropical wet region)"},100,"Unmanaged Forests:Unmanaged Tropical Peat Forest:North America (tropical wet region):100","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"'Reference Data'!$H$38+'Reference Data'!$K$38*C_litter","v":202.82999999999998},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$130/Conv_te_kg","v":7.4799999999999997E-4},{"$f":"'Reference Data'!$E$130/Conv_te_kg","v":7.4799999999999997E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$154","v":0.15840000000000001},{"$f":"'Reference Data'!$E$154","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-19.492000000000001,null,-9.7460000000000004,null,"Anderson-Teixei and Delucia, 2011. Mature site without recent major disturbance. Includes relatively frequent, small scale natural disturbances, such as small-scale mortality, tree fall events, surface fires. ",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Peat Forest",{"$f":"Lists!Q112","v":"South America (tropical wet region)"},20,"Unmanaged Forests:Unmanaged Tropical Peat Forest:South America (tropical wet region):20","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"'Reference Data'!$H$38+'Reference Data'!$K$38*C_litter","v":202.82999999999998},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$130/Conv_te_kg","v":7.4799999999999997E-4},{"$f":"'Reference Data'!$E$130/Conv_te_kg","v":7.4799999999999997E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$154","v":0.15840000000000001},{"$f":"'Reference Data'!$E$154","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-19.492000000000001,null,-9.7460000000000004,null,"Anderson-Teixei and Delucia, 2011. Mature site without recent major disturbance. Includes relatively frequent, small scale natural disturbances, such as small-scale mortality, tree fall events, surface fires. ",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Peat Forest",{"$f":"C131","v":"South America (tropical wet region)"},40,"Unmanaged Forests:Unmanaged Tropical Peat Forest:South America (tropical wet region):40","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"'Reference Data'!$H$38+'Reference Data'!$K$38*C_litter","v":202.82999999999998},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$130/Conv_te_kg","v":7.4799999999999997E-4},{"$f":"'Reference Data'!$E$130/Conv_te_kg","v":7.4799999999999997E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$154","v":0.15840000000000001},{"$f":"'Reference Data'!$E$154","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-19.492000000000001,null,-9.7460000000000004,null,"Anderson-Teixei and Delucia, 2011. Mature site without recent major disturbance. Includes relatively frequent, small scale natural disturbances, such as small-scale mortality, tree fall events, surface fires. ",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Peat Forest",{"$f":"C132","v":"South America (tropical wet region)"},100,"Unmanaged Forests:Unmanaged Tropical Peat Forest:South America (tropical wet region):100","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"'Reference Data'!$H$38+'Reference Data'!$K$38*C_litter","v":202.82999999999998},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$130/Conv_te_kg","v":7.4799999999999997E-4},{"$f":"'Reference Data'!$E$130/Conv_te_kg","v":7.4799999999999997E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$154","v":0.15840000000000001},{"$f":"'Reference Data'!$E$154","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-19.492000000000001,null,-9.7460000000000004,null,"Anderson-Teixei and Delucia, 2011. Mature site without recent major disturbance. Includes relatively frequent, small scale natural disturbances, such as small-scale mortality, tree fall events, surface fires. ",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Peat Forest",{"$f":"Lists!Q113","v":"Asia Continental (tropical wet region)"},20,"Unmanaged Forests:Unmanaged Tropical Peat Forest:Asia Continental (tropical wet region):20","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"'Reference Data'!$H$39+'Reference Data'!$K$39*C_litter","v":189.708},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$130/Conv_te_kg","v":7.4799999999999997E-4},{"$f":"'Reference Data'!$E$130/Conv_te_kg","v":7.4799999999999997E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$154","v":0.15840000000000001},{"$f":"'Reference Data'!$E$154","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-19.492000000000001,null,-9.7460000000000004,null,"Anderson-Teixei and Delucia, 2011. Mature site without recent major disturbance. Includes relatively frequent, small scale natural disturbances, such as small-scale mortality, tree fall events, surface fires. ",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Peat Forest",{"$f":"C134","v":"Asia Continental (tropical wet region)"},40,"Unmanaged Forests:Unmanaged Tropical Peat Forest:Asia Continental (tropical wet region):40","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"'Reference Data'!$H$39+'Reference Data'!$K$39*C_litter","v":189.708},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$130/Conv_te_kg","v":7.4799999999999997E-4},{"$f":"'Reference Data'!$E$130/Conv_te_kg","v":7.4799999999999997E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$154","v":0.15840000000000001},{"$f":"'Reference Data'!$E$154","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-19.492000000000001,null,-9.7460000000000004,null,"Anderson-Teixei and Delucia, 2011. Mature site without recent major disturbance. Includes relatively frequent, small scale natural disturbances, such as small-scale mortality, tree fall events, surface fires. ",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Peat Forest",{"$f":"C135","v":"Asia Continental (tropical wet region)"},100,"Unmanaged Forests:Unmanaged Tropical Peat Forest:Asia Continental (tropical wet region):100","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"'Reference Data'!$H$39+'Reference Data'!$K$39*C_litter","v":189.708},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$130/Conv_te_kg","v":7.4799999999999997E-4},{"$f":"'Reference Data'!$E$130/Conv_te_kg","v":7.4799999999999997E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$154","v":0.15840000000000001},{"$f":"'Reference Data'!$E$154","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-19.492000000000001,null,-9.7460000000000004,null,"Anderson-Teixei and Delucia, 2011. Mature site without recent major disturbance. Includes relatively frequent, small scale natural disturbances, such as small-scale mortality, tree fall events, surface fires. ",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Peat Forest",{"$f":"Lists!Q114","v":"Asia Insular (tropical wet region)"},20,"Unmanaged Forests:Unmanaged Tropical Peat Forest:Asia Insular (tropical wet region):20","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"'Reference Data'!$H$40+'Reference Data'!$K$40*C_litter","v":234.63499999999999},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$130/Conv_te_kg","v":7.4799999999999997E-4},{"$f":"'Reference Data'!$E$130/Conv_te_kg","v":7.4799999999999997E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$154","v":0.15840000000000001},{"$f":"'Reference Data'!$E$154","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-19.492000000000001,null,-9.7460000000000004,null,"Anderson-Teixei and Delucia, 2011. Mature site without recent major disturbance. Includes relatively frequent, small scale natural disturbances, such as small-scale mortality, tree fall events, surface fires. ",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Peat Forest",{"$f":"C137","v":"Asia Insular (tropical wet region)"},40,"Unmanaged Forests:Unmanaged Tropical Peat Forest:Asia Insular (tropical wet region):40","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"'Reference Data'!$H$40+'Reference Data'!$K$40*C_litter","v":234.63499999999999},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$130/Conv_te_kg","v":7.4799999999999997E-4},{"$f":"'Reference Data'!$E$130/Conv_te_kg","v":7.4799999999999997E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$154","v":0.15840000000000001},{"$f":"'Reference Data'!$E$154","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-19.492000000000001,null,-9.7460000000000004,null,"Anderson-Teixei and Delucia, 2011. Mature site without recent major disturbance. Includes relatively frequent, small scale natural disturbances, such as small-scale mortality, tree fall events, surface fires. ",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Peat Forest",{"$f":"C138","v":"Asia Insular (tropical wet region)"},100,"Unmanaged Forests:Unmanaged Tropical Peat Forest:Asia Insular (tropical wet region):100","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"'Reference Data'!$H$40+'Reference Data'!$K$40*C_litter","v":234.63499999999999},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$130/Conv_te_kg","v":7.4799999999999997E-4},{"$f":"'Reference Data'!$E$130/Conv_te_kg","v":7.4799999999999997E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$154","v":0.15840000000000001},{"$f":"'Reference Data'!$E$154","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-19.492000000000001,null,-9.7460000000000004,null,"Anderson-Teixei and Delucia, 2011. Mature site without recent major disturbance. Includes relatively frequent, small scale natural disturbances, such as small-scale mortality, tree fall events, surface fires. ",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"Lists!B51","v":"Unmanaged Tropical Non-Peat Rainforest"},{"$f":"Lists!R110","v":"Africa (tropical wet region)"},20,"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest:Africa (tropical wet region):20",93,{"$f":"F140*MM_C/MM_CO2","v":25.363636363636363},{"$f":"error_SOC*G140","v":11.413636363636364},"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$37+'Reference Data'!$K$37*C_litter","v":208.39099999999999},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$133/Conv_te_kg","v":3.6080000000000001E-3},{"$f":"'Reference Data'!$E$133/Conv_te_kg","v":3.5639999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$157","v":-3.613504E-3},{"$f":"'Reference Data'!$E$157","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"B140","v":"Unmanaged Tropical Non-Peat Rainforest"},{"$f":"C140","v":"Africa (tropical wet region)"},40,"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest:Africa (tropical wet region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$37+'Reference Data'!$K$37*C_litter","v":208.39099999999999},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$133/Conv_te_kg","v":3.6080000000000001E-3},{"$f":"'Reference Data'!$E$133/Conv_te_kg","v":3.5639999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$157","v":-3.613504E-3},{"$f":"'Reference Data'!$E$157","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"B141","v":"Unmanaged Tropical Non-Peat Rainforest"},{"$f":"C140","v":"Africa (tropical wet region)"},100,"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest:Africa (tropical wet region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$37+'Reference Data'!$K$37*C_litter","v":208.39099999999999},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$133/Conv_te_kg","v":3.6080000000000001E-3},{"$f":"'Reference Data'!$E$133/Conv_te_kg","v":3.5639999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$157","v":-3.613504E-3},{"$f":"'Reference Data'!$E$157","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Non-Peat Rainforest",{"$f":"Lists!R111","v":"North America (tropical wet region)"},20,"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest:North America (tropical wet region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$38+'Reference Data'!$K$38*C_litter","v":202.82999999999998},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$133/Conv_te_kg","v":3.6080000000000001E-3},{"$f":"'Reference Data'!$E$133/Conv_te_kg","v":3.5639999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$157","v":-3.613504E-3},{"$f":"'Reference Data'!$E$157","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Non-Peat Rainforest",{"$f":"C143","v":"North America (tropical wet region)"},40,"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest:North America (tropical wet region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$38+'Reference Data'!$K$38*C_litter","v":202.82999999999998},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$133/Conv_te_kg","v":3.6080000000000001E-3},{"$f":"'Reference Data'!$E$133/Conv_te_kg","v":3.5639999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$157","v":-3.613504E-3},{"$f":"'Reference Data'!$E$157","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Non-Peat Rainforest",{"$f":"C143","v":"North America (tropical wet region)"},100,"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest:North America (tropical wet region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$38+'Reference Data'!$K$38*C_litter","v":202.82999999999998},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$133/Conv_te_kg","v":3.6080000000000001E-3},{"$f":"'Reference Data'!$E$133/Conv_te_kg","v":3.5639999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$157","v":-3.613504E-3},{"$f":"'Reference Data'!$E$157","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Non-Peat Rainforest",{"$f":"Lists!R112","v":"South America (tropical wet region)"},20,"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest:South America (tropical wet region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$38+'Reference Data'!$K$38*C_litter","v":202.82999999999998},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$133/Conv_te_kg","v":3.6080000000000001E-3},{"$f":"'Reference Data'!$E$133/Conv_te_kg","v":3.5639999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$157","v":-3.613504E-3},{"$f":"'Reference Data'!$E$157","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Non-Peat Rainforest",{"$f":"C146","v":"South America (tropical wet region)"},40,"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest:South America (tropical wet region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$38+'Reference Data'!$K$38*C_litter","v":202.82999999999998},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$133/Conv_te_kg","v":3.6080000000000001E-3},{"$f":"'Reference Data'!$E$133/Conv_te_kg","v":3.5639999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$157","v":-3.613504E-3},{"$f":"'Reference Data'!$E$157","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Non-Peat Rainforest",{"$f":"C146","v":"South America (tropical wet region)"},100,"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest:South America (tropical wet region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$38+'Reference Data'!$K$38*C_litter","v":202.82999999999998},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$133/Conv_te_kg","v":3.6080000000000001E-3},{"$f":"'Reference Data'!$E$133/Conv_te_kg","v":3.5639999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$157","v":-3.613504E-3},{"$f":"'Reference Data'!$E$157","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Non-Peat Rainforest",{"$f":"Lists!R113","v":"Asia Continental (tropical wet region)"},20,"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest:Asia Continental (tropical wet region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$39+'Reference Data'!$K$39*C_litter","v":189.708},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$133/Conv_te_kg","v":3.6080000000000001E-3},{"$f":"'Reference Data'!$E$133/Conv_te_kg","v":3.5639999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$157","v":-3.613504E-3},{"$f":"'Reference Data'!$E$157","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Non-Peat Rainforest",{"$f":"C149","v":"Asia Continental (tropical wet region)"},40,"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest:Asia Continental (tropical wet region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$39+'Reference Data'!$K$39*C_litter","v":189.708},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$133/Conv_te_kg","v":3.6080000000000001E-3},{"$f":"'Reference Data'!$E$133/Conv_te_kg","v":3.5639999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$157","v":-3.613504E-3},{"$f":"'Reference Data'!$E$157","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Non-Peat Rainforest",{"$f":"C149","v":"Asia Continental (tropical wet region)"},100,"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest:Asia Continental (tropical wet region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$39+'Reference Data'!$K$39*C_litter","v":189.708},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$133/Conv_te_kg","v":3.6080000000000001E-3},{"$f":"'Reference Data'!$E$133/Conv_te_kg","v":3.5639999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$157","v":-3.613504E-3},{"$f":"'Reference Data'!$E$157","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Non-Peat Rainforest",{"$f":"Lists!R114","v":"Asia Insular (tropical wet region)"},20,"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest:Asia Insular (tropical wet region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$40+'Reference Data'!$K$40*C_litter","v":234.63499999999999},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$133/Conv_te_kg","v":3.6080000000000001E-3},{"$f":"'Reference Data'!$E$133/Conv_te_kg","v":3.5639999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$157","v":-3.613504E-3},{"$f":"'Reference Data'!$E$157","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Non-Peat Rainforest",{"$f":"C152","v":"Asia Insular (tropical wet region)"},40,"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest:Asia Insular (tropical wet region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$40+'Reference Data'!$K$40*C_litter","v":234.63499999999999},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$133/Conv_te_kg","v":3.6080000000000001E-3},{"$f":"'Reference Data'!$E$133/Conv_te_kg","v":3.5639999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$157","v":-3.613504E-3},{"$f":"'Reference Data'!$E$157","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},"Unmanaged Tropical Non-Peat Rainforest",{"$f":"C152","v":"Asia Insular (tropical wet region)"},100,"Unmanaged Forests:Unmanaged Tropical Non-Peat Rainforest:Asia Insular (tropical wet region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$40+'Reference Data'!$K$40*C_litter","v":234.63499999999999},"IPCC data from European Commission (2010), Table 15.",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$133/Conv_te_kg","v":3.6080000000000001E-3},{"$f":"'Reference Data'!$E$133/Conv_te_kg","v":3.5639999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$157","v":-3.613504E-3},{"$f":"'Reference Data'!$E$157","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"Lists!$B$19","v":"Old Growth Fast Growing Conifer (> 200 years old)"},{"$f":"Lists!S110","v":"North West USA"},20,"Unmanaged Forests:Old Growth Fast Growing Conifer (> 200 years old):North West USA:20",414,112.90909090909091,50.809090909090912,"Winrock, 2011",1,0,1,467,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for high severity, low frequency fires (every 250 years)",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-4.8,null,-4.8,null,"Mitchell et al., 2012. Fire disturbances considered. ",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"Lists!$B$19","v":"Old Growth Fast Growing Conifer (> 200 years old)"},{"$f":"C155","v":"North West USA"},40,"Unmanaged Forests:Old Growth Fast Growing Conifer (> 200 years old):North West USA:40",414,112.90909090909091,50.809090909090912,"Winrock, 2011",1,0,1,467,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for high severity, low frequency fires (every 250 years)",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-3.9,null,-3.9,null,"Mitchell et al., 2012. Fire disturbances considered. ",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"Lists!$B$19","v":"Old Growth Fast Growing Conifer (> 200 years old)"},{"$f":"C155","v":"North West USA"},100,"Unmanaged Forests:Old Growth Fast Growing Conifer (> 200 years old):North West USA:100",414,112.90909090909091,50.809090909090912,"Winrock, 2011",1,0,1,467,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for high severity, low frequency fires (every 250 years)",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-2.7,null,-2.7,null,"Mitchell et al., 2012. Fire disturbances considered. ",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"Lists!$B$19","v":"Old Growth Fast Growing Conifer (> 200 years old)"},{"$f":"Lists!S111","v":"South USA"},20,"Unmanaged Forests:Old Growth Fast Growing Conifer (> 200 years old):South USA:20",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,1,467,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for high severity, low frequency fires (every 250 years)",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-4.8,null,-4.8,null,"Mitchell et al., 2012. Fire disturbances considered. ",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"Lists!$B$19","v":"Old Growth Fast Growing Conifer (> 200 years old)"},{"$f":"C158","v":"South USA"},40,"Unmanaged Forests:Old Growth Fast Growing Conifer (> 200 years old):South USA:40",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,1,467,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for high severity, low frequency fires (every 250 years)",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-3.9,null,-3.9,null,"Mitchell et al., 2012. Fire disturbances considered. ",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"Lists!$B$19","v":"Old Growth Fast Growing Conifer (> 200 years old)"},{"$f":"C158","v":"South USA"},100,"Unmanaged Forests:Old Growth Fast Growing Conifer (> 200 years old):South USA:100",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,1,467,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for high severity, low frequency fires (every 250 years)",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-2.7,null,-2.7,null,"Mitchell et al., 2012. Fire disturbances considered. ",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"Lists!$B$20","v":"Old Growth Slow Growing Conifer (> 200 years old)"},{"$f":"Lists!T110","v":"North West USA"},20,"Unmanaged Forests:Old Growth Slow Growing Conifer (> 200 years old):North West USA:20",414,112.90909090909091,50.809090909090912,"Winrock, 2011",1,0,1,216,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for low severity, high frequency fires (every 250 years)",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0.1,null,0.1,null,"Mitchell et al., 2012. Fire disturbances considered. ",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"Lists!$B$20","v":"Old Growth Slow Growing Conifer (> 200 years old)"},{"$f":"C161","v":"North West USA"},40,"Unmanaged Forests:Old Growth Slow Growing Conifer (> 200 years old):North West USA:40",414,112.90909090909091,50.809090909090912,"Winrock, 2011",1,0,1,216,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for low severity, high frequency fires (every 250 years)",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-0.3,null,-0.3,null,"Mitchell et al., 2012. Fire disturbances considered. ",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!$D$82","v":"Unmanaged Forests"},{"$f":"Lists!$B$20","v":"Old Growth Slow Growing Conifer (> 200 years old)"},{"$f":"C161","v":"North West USA"},100,"Unmanaged Forests:Old Growth Slow Growing Conifer (> 200 years old):North West USA:100",414,112.90909090909091,50.809090909090912,"Winrock, 2011",1,0,1,216,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for low severity, high frequency fires (every 250 years)",0,0,0,0,0,"Unmanaged forest. No production",0,0,0,0,0,0,0,"Unmanaged forest, no operations",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",-0.3,null,-0.3,null,"Mitchell et al., 2012. Fire disturbances considered. ",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"Lists!A53","v":"Non-Forest Natural Ecosystems"},{"$f":"Lists!B53","v":"Northern Peatland"},{"$f":"Lists!U110","v":"Europe (boreal region)"},20,"Non-Forest Natural Ecosystems:Northern Peatland:Europe (boreal region):20","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$111+'Reference Data'!$E$111+'Reference Data'!$G$111)*C_biomass+'Reference Data'!$K$111*C_litter","v":57.339999999999996},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$131/Conv_te_kg","v":3.9599999999999998E-4},{"$f":"'Reference Data'!$E$131/Conv_te_kg","v":2.2000000000000001E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$155","v":0.15840000000000001},{"$f":"'Reference Data'!$E$155","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"A164","v":"Non-Forest Natural Ecosystems"},{"$f":"B164","v":"Northern Peatland"},{"$f":"C164","v":"Europe (boreal region)"},40,"Non-Forest Natural Ecosystems:Northern Peatland:Europe (boreal region):40","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$111+'Reference Data'!$E$111+'Reference Data'!$G$111)*C_biomass+'Reference Data'!$K$111*C_litter","v":57.339999999999996},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$131/Conv_te_kg","v":3.9599999999999998E-4},{"$f":"'Reference Data'!$E$131/Conv_te_kg","v":2.2000000000000001E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$155","v":0.15840000000000001},{"$f":"'Reference Data'!$E$155","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"A165","v":"Non-Forest Natural Ecosystems"},"Northern Peatland",{"$f":"C164","v":"Europe (boreal region)"},100,"Non-Forest Natural Ecosystems:Northern Peatland:Europe (boreal region):100","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$111+'Reference Data'!$E$111+'Reference Data'!$G$111)*C_biomass+'Reference Data'!$K$111*C_litter","v":57.339999999999996},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$131/Conv_te_kg","v":3.9599999999999998E-4},{"$f":"'Reference Data'!$E$131/Conv_te_kg","v":2.2000000000000001E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$155","v":0.15840000000000001},{"$f":"'Reference Data'!$E$155","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Non-Forest Natural Ecosystems","Northern Peatland",{"$f":"Lists!U111","v":"North America (boreal region)"},20,"Non-Forest Natural Ecosystems:Northern Peatland:North America (boreal region):20","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$111+'Reference Data'!$E$111+'Reference Data'!$G$111)*C_biomass+'Reference Data'!$K$111*C_litter","v":57.339999999999996},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$131/Conv_te_kg","v":3.9599999999999998E-4},{"$f":"'Reference Data'!$E$131/Conv_te_kg","v":2.2000000000000001E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$155","v":0.15840000000000001},{"$f":"'Reference Data'!$E$155","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Non-Forest Natural Ecosystems","Northern Peatland",{"$f":"C167","v":"North America (boreal region)"},40,"Non-Forest Natural Ecosystems:Northern Peatland:North America (boreal region):40","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$111+'Reference Data'!$E$111+'Reference Data'!$G$111)*C_biomass+'Reference Data'!$K$111*C_litter","v":57.339999999999996},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$131/Conv_te_kg","v":3.9599999999999998E-4},{"$f":"'Reference Data'!$E$131/Conv_te_kg","v":2.2000000000000001E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$155","v":0.15840000000000001},{"$f":"'Reference Data'!$E$155","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Non-Forest Natural Ecosystems","Northern Peatland",{"$f":"C167","v":"North America (boreal region)"},100,"Non-Forest Natural Ecosystems:Northern Peatland:North America (boreal region):100","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$111+'Reference Data'!$E$111+'Reference Data'!$G$111)*C_biomass+'Reference Data'!$K$111*C_litter","v":57.339999999999996},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$131/Conv_te_kg","v":3.9599999999999998E-4},{"$f":"'Reference Data'!$E$131/Conv_te_kg","v":2.2000000000000001E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$155","v":0.15840000000000001},{"$f":"'Reference Data'!$E$155","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Non-Forest Natural Ecosystems","Northern Peatland",{"$f":"Lists!U112","v":"Asia Continental (boreal region)"},20,"Non-Forest Natural Ecosystems:Northern Peatland:Asia Continental (boreal region):20","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$111+'Reference Data'!$E$111+'Reference Data'!$G$111)*C_biomass+'Reference Data'!$K$111*C_litter","v":57.339999999999996},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$131/Conv_te_kg","v":3.9599999999999998E-4},{"$f":"'Reference Data'!$E$131/Conv_te_kg","v":2.2000000000000001E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$155","v":0.15840000000000001},{"$f":"'Reference Data'!$E$155","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Non-Forest Natural Ecosystems","Northern Peatland",{"$f":"C170","v":"Asia Continental (boreal region)"},40,"Non-Forest Natural Ecosystems:Northern Peatland:Asia Continental (boreal region):40","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$111+'Reference Data'!$E$111+'Reference Data'!$G$111)*C_biomass+'Reference Data'!$K$111*C_litter","v":57.339999999999996},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$131/Conv_te_kg","v":3.9599999999999998E-4},{"$f":"'Reference Data'!$E$131/Conv_te_kg","v":2.2000000000000001E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$155","v":0.15840000000000001},{"$f":"'Reference Data'!$E$155","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Non-Forest Natural Ecosystems","Northern Peatland",{"$f":"C170","v":"Asia Continental (boreal region)"},100,"Non-Forest Natural Ecosystems:Northern Peatland:Asia Continental (boreal region):100","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$111+'Reference Data'!$E$111+'Reference Data'!$G$111)*C_biomass+'Reference Data'!$K$111*C_litter","v":57.339999999999996},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$131/Conv_te_kg","v":3.9599999999999998E-4},{"$f":"'Reference Data'!$E$131/Conv_te_kg","v":2.2000000000000001E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$155","v":0.15840000000000001},{"$f":"'Reference Data'!$E$155","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"A172","v":"Non-Forest Natural Ecosystems"},{"$f":"Lists!B54","v":"Marsh and Swamp "},{"$f":"Lists!V110","v":"Africa (tropical wet region)"},20,"Non-Forest Natural Ecosystems:Marsh and Swamp :Africa (tropical wet region):20","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$112+'Reference Data'!$E$112+'Reference Data'!$G$112)*C_biomass+'Reference Data'!$K$112*C_litter","v":88.679999999999993},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$132/Conv_te_kg","v":2.8600000000000001E-3},{"$f":"'Reference Data'!$E$132/Conv_te_kg","v":1.936E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$156","v":0.26239999999999997},{"$f":"'Reference Data'!$E$156","v":0.13119999999999998},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",{"$f":"AVERAGE(0.368,0.857)","v":0.61250000000000004},"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems",{"$f":"B173","v":"Marsh and Swamp "},{"$f":"C173","v":"Africa (tropical wet region)"},40,"Non-Forest Natural Ecosystems:Marsh and Swamp :Africa (tropical wet region):40","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$112+'Reference Data'!$E$112+'Reference Data'!$G$112)*C_biomass+'Reference Data'!$K$112*C_litter","v":88.679999999999993},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$132/Conv_te_kg","v":2.8600000000000001E-3},{"$f":"'Reference Data'!$E$132/Conv_te_kg","v":1.936E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$156","v":0.26239999999999997},{"$f":"'Reference Data'!$E$156","v":0.13119999999999998},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems",{"$f":"B174","v":"Marsh and Swamp "},{"$f":"C173","v":"Africa (tropical wet region)"},100,{"$f":"A175&\":\"&B175&\":\"&C175&\":\"&D175","v":"Non-Forest Natural Ecosystems:Marsh and Swamp :Africa (tropical wet region):100"},"N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$112+'Reference Data'!$E$112+'Reference Data'!$G$112)*C_biomass+'Reference Data'!$K$112*C_litter","v":88.679999999999993},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,{"$f":"P175+Q175","v":0},0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$132/Conv_te_kg","v":2.8600000000000001E-3},{"$f":"'Reference Data'!$E$132/Conv_te_kg","v":1.936E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$156","v":0.26239999999999997},{"$f":"'Reference Data'!$E$156","v":0.13119999999999998},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Marsh and Swamp ",{"$f":"Lists!V111","v":"North America (tropical wet region)"},20,"Non-Forest Natural Ecosystems:Marsh and Swamp :North America (tropical wet region):20","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$112+'Reference Data'!$E$112+'Reference Data'!$G$112)*C_biomass+'Reference Data'!$K$112*C_litter","v":88.679999999999993},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$132/Conv_te_kg","v":2.8600000000000001E-3},{"$f":"'Reference Data'!$E$132/Conv_te_kg","v":1.936E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$156","v":0.26239999999999997},{"$f":"'Reference Data'!$E$156","v":0.13119999999999998},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Marsh and Swamp ",{"$f":"C176","v":"North America (tropical wet region)"},40,"Non-Forest Natural Ecosystems:Marsh and Swamp :North America (tropical wet region):40","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$112+'Reference Data'!$E$112+'Reference Data'!$G$112)*C_biomass+'Reference Data'!$K$112*C_litter","v":88.679999999999993},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$132/Conv_te_kg","v":2.8600000000000001E-3},{"$f":"'Reference Data'!$E$132/Conv_te_kg","v":1.936E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$156","v":0.26239999999999997},{"$f":"'Reference Data'!$E$156","v":0.13119999999999998},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Marsh and Swamp ",{"$f":"C176","v":"North America (tropical wet region)"},100,"Non-Forest Natural Ecosystems:Marsh and Swamp :North America (tropical wet region):100","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$112+'Reference Data'!$E$112+'Reference Data'!$G$112)*C_biomass+'Reference Data'!$K$112*C_litter","v":88.679999999999993},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$132/Conv_te_kg","v":2.8600000000000001E-3},{"$f":"'Reference Data'!$E$132/Conv_te_kg","v":1.936E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$156","v":0.26239999999999997},{"$f":"'Reference Data'!$E$156","v":0.13119999999999998},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Marsh and Swamp ",{"$f":"Lists!V112","v":"South America (tropical wet region)"},20,"Non-Forest Natural Ecosystems:Marsh and Swamp :South America (tropical wet region):20","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$112+'Reference Data'!$E$112+'Reference Data'!$G$112)*C_biomass+'Reference Data'!$K$112*C_litter","v":88.679999999999993},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$132/Conv_te_kg","v":2.8600000000000001E-3},{"$f":"'Reference Data'!$E$132/Conv_te_kg","v":1.936E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$156","v":0.26239999999999997},{"$f":"'Reference Data'!$E$156","v":0.13119999999999998},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Marsh and Swamp ",{"$f":"C179","v":"South America (tropical wet region)"},40,"Non-Forest Natural Ecosystems:Marsh and Swamp :South America (tropical wet region):40","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$112+'Reference Data'!$E$112+'Reference Data'!$G$112)*C_biomass+'Reference Data'!$K$112*C_litter","v":88.679999999999993},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$132/Conv_te_kg","v":2.8600000000000001E-3},{"$f":"'Reference Data'!$E$132/Conv_te_kg","v":1.936E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$156","v":0.26239999999999997},{"$f":"'Reference Data'!$E$156","v":0.13119999999999998},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Marsh and Swamp ",{"$f":"C179","v":"South America (tropical wet region)"},100,"Non-Forest Natural Ecosystems:Marsh and Swamp :South America (tropical wet region):100","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$112+'Reference Data'!$E$112+'Reference Data'!$G$112)*C_biomass+'Reference Data'!$K$112*C_litter","v":88.679999999999993},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$132/Conv_te_kg","v":2.8600000000000001E-3},{"$f":"'Reference Data'!$E$132/Conv_te_kg","v":1.936E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$156","v":0.26239999999999997},{"$f":"'Reference Data'!$E$156","v":0.13119999999999998},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Marsh and Swamp ",{"$f":"Lists!V113","v":"Asia Continental (tropical wet region)"},20,"Non-Forest Natural Ecosystems:Marsh and Swamp :Asia Continental (tropical wet region):20","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$112+'Reference Data'!$E$112+'Reference Data'!$G$112)*C_biomass+'Reference Data'!$K$112*C_litter","v":88.679999999999993},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$132/Conv_te_kg","v":2.8600000000000001E-3},{"$f":"'Reference Data'!$E$132/Conv_te_kg","v":1.936E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$156","v":0.26239999999999997},{"$f":"'Reference Data'!$E$156","v":0.13119999999999998},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Marsh and Swamp ",{"$f":"C182","v":"Asia Continental (tropical wet region)"},40,"Non-Forest Natural Ecosystems:Marsh and Swamp :Asia Continental (tropical wet region):40","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$112+'Reference Data'!$E$112+'Reference Data'!$G$112)*C_biomass+'Reference Data'!$K$112*C_litter","v":88.679999999999993},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$132/Conv_te_kg","v":2.8600000000000001E-3},{"$f":"'Reference Data'!$E$132/Conv_te_kg","v":1.936E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$156","v":0.26239999999999997},{"$f":"'Reference Data'!$E$156","v":0.13119999999999998},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Marsh and Swamp ",{"$f":"C182","v":"Asia Continental (tropical wet region)"},100,"Non-Forest Natural Ecosystems:Marsh and Swamp :Asia Continental (tropical wet region):100","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$112+'Reference Data'!$E$112+'Reference Data'!$G$112)*C_biomass+'Reference Data'!$K$112*C_litter","v":88.679999999999993},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$132/Conv_te_kg","v":2.8600000000000001E-3},{"$f":"'Reference Data'!$E$132/Conv_te_kg","v":1.936E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$156","v":0.26239999999999997},{"$f":"'Reference Data'!$E$156","v":0.13119999999999998},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Marsh and Swamp ",{"$f":"Lists!V114","v":"Asia Insular (tropical wet region)"},20,"Non-Forest Natural Ecosystems:Marsh and Swamp :Asia Insular (tropical wet region):20","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$112+'Reference Data'!$E$112+'Reference Data'!$G$112)*C_biomass+'Reference Data'!$K$112*C_litter","v":88.679999999999993},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$132/Conv_te_kg","v":2.8600000000000001E-3},{"$f":"'Reference Data'!$E$132/Conv_te_kg","v":1.936E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$156","v":0.26239999999999997},{"$f":"'Reference Data'!$E$156","v":0.13119999999999998},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Marsh and Swamp ",{"$f":"C185","v":"Asia Insular (tropical wet region)"},40,"Non-Forest Natural Ecosystems:Marsh and Swamp :Asia Insular (tropical wet region):40","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$112+'Reference Data'!$E$112+'Reference Data'!$G$112)*C_biomass+'Reference Data'!$K$112*C_litter","v":88.679999999999993},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$132/Conv_te_kg","v":2.8600000000000001E-3},{"$f":"'Reference Data'!$E$132/Conv_te_kg","v":1.936E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$156","v":0.26239999999999997},{"$f":"'Reference Data'!$E$156","v":0.13119999999999998},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Marsh and Swamp ",{"$f":"C185","v":"Asia Insular (tropical wet region)"},100,"Non-Forest Natural Ecosystems:Marsh and Swamp :Asia Insular (tropical wet region):100","N/A","N/A","N/A","Peat only",1,0,1,{"$f":"('Reference Data'!$C$112+'Reference Data'!$E$112+'Reference Data'!$G$112)*C_biomass+'Reference Data'!$K$112*C_litter","v":88.679999999999993},"Anderson-Teixei and Delucia, 2011. Excluding peat. ",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$132/Conv_te_kg","v":2.8600000000000001E-3},{"$f":"'Reference Data'!$E$132/Conv_te_kg","v":1.936E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$156","v":0.26239999999999997},{"$f":"'Reference Data'!$E$156","v":0.13119999999999998},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems",{"$f":"Lists!B55","v":"Tundra Woodland"},{"$f":"Lists!W110","v":"Europe (boreal region)"},20,"Non-Forest Natural Ecosystems:Tundra Woodland:Europe (boreal region):20",239,{"$f":"F188*MM_C/MM_CO2","v":65.181818181818187},{"$f":"error_SOC*G188","v":29.331818181818186},"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$102+'Reference Data'!$D$102)*C_biomass+'Reference Data'!$F$102*C_litter","v":35},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$140/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$140/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$164","v":-3.02944E-3},{"$f":"'Reference Data'!$E$164","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Non-Forest Natural Ecosystems",{"$f":"B188","v":"Tundra Woodland"},{"$f":"C188","v":"Europe (boreal region)"},40,"Non-Forest Natural Ecosystems:Tundra Woodland:Europe (boreal region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$102+'Reference Data'!$D$102)*C_biomass+'Reference Data'!$F$102*C_litter","v":35},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$140/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$140/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$164","v":-3.02944E-3},{"$f":"'Reference Data'!$E$164","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Non-Forest Natural Ecosystems",{"$f":"B189","v":"Tundra Woodland"},{"$f":"C189","v":"Europe (boreal region)"},100,"Non-Forest Natural Ecosystems:Tundra Woodland:Europe (boreal region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$102+'Reference Data'!$D$102)*C_biomass+'Reference Data'!$F$102*C_litter","v":35},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$140/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$140/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$164","v":-3.02944E-3},{"$f":"'Reference Data'!$E$164","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Non-Forest Natural Ecosystems",{"$f":"B190","v":"Tundra Woodland"},{"$f":"Lists!W111","v":"North America (boreal region)"},20,"Non-Forest Natural Ecosystems:Tundra Woodland:North America (boreal region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$102+'Reference Data'!$D$102)*C_biomass+'Reference Data'!$F$102*C_litter","v":35},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$140/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$140/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$164","v":-3.02944E-3},{"$f":"'Reference Data'!$E$164","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Non-Forest Natural Ecosystems","Tundra Woodland",{"$f":"C191","v":"North America (boreal region)"},40,"Non-Forest Natural Ecosystems:Tundra Woodland:North America (boreal region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$102+'Reference Data'!$D$102)*C_biomass+'Reference Data'!$F$102*C_litter","v":35},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$140/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$140/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$164","v":-3.02944E-3},{"$f":"'Reference Data'!$E$164","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Non-Forest Natural Ecosystems","Tundra Woodland",{"$f":"C192","v":"North America (boreal region)"},100,"Non-Forest Natural Ecosystems:Tundra Woodland:North America (boreal region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$102+'Reference Data'!$D$102)*C_biomass+'Reference Data'!$F$102*C_litter","v":35},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$140/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$140/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$164","v":-3.02944E-3},{"$f":"'Reference Data'!$E$164","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Non-Forest Natural Ecosystems","Tundra Woodland",{"$f":"Lists!W112","v":"Asia Continental (boreal region)"},20,"Non-Forest Natural Ecosystems:Tundra Woodland:Asia Continental (boreal region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$102+'Reference Data'!$D$102)*C_biomass+'Reference Data'!$F$102*C_litter","v":35},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$140/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$140/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$164","v":-3.02944E-3},{"$f":"'Reference Data'!$E$164","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Non-Forest Natural Ecosystems","Tundra Woodland",{"$f":"C194","v":"Asia Continental (boreal region)"},40,"Non-Forest Natural Ecosystems:Tundra Woodland:Asia Continental (boreal region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$102+'Reference Data'!$D$102)*C_biomass+'Reference Data'!$F$102*C_litter","v":35},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$140/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$140/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$164","v":-3.02944E-3},{"$f":"'Reference Data'!$E$164","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Non-Forest Natural Ecosystems","Tundra Woodland",{"$f":"C195","v":"Asia Continental (boreal region)"},100,"Non-Forest Natural Ecosystems:Tundra Woodland:Asia Continental (boreal region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$102+'Reference Data'!$D$102)*C_biomass+'Reference Data'!$F$102*C_litter","v":35},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$140/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$140/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$164","v":-3.02944E-3},{"$f":"'Reference Data'!$E$164","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Non-Forest Natural Ecosystems",{"$f":"Lists!B56","v":"Temperate shrub land "},{"$f":"Lists!X110","v":"Europe (temperate dry region)"},20,"Non-Forest Natural Ecosystems:Temperate shrub land :Europe (temperate dry region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$69","v":7.4},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$137/Conv_te_kg","v":5.7199999999999992E-4},{"$f":"'Reference Data'!$E$137/Conv_te_kg","v":3.5199999999999999E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$161","v":-3.02944E-3},{"$f":"'Reference Data'!$E$161","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems",{"$f":"B197","v":"Temperate shrub land "},{"$f":"C197","v":"Europe (temperate dry region)"},40,"Non-Forest Natural Ecosystems:Temperate shrub land :Europe (temperate dry region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$69","v":7.4},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$137/Conv_te_kg","v":5.7199999999999992E-4},{"$f":"'Reference Data'!$E$137/Conv_te_kg","v":3.5199999999999999E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$161","v":-3.02944E-3},{"$f":"'Reference Data'!$E$161","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems",{"$f":"B198","v":"Temperate shrub land "},{"$f":"C197","v":"Europe (temperate dry region)"},100,"Non-Forest Natural Ecosystems:Temperate shrub land :Europe (temperate dry region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$69","v":7.4},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$137/Conv_te_kg","v":5.7199999999999992E-4},{"$f":"'Reference Data'!$E$137/Conv_te_kg","v":3.5199999999999999E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$161","v":-3.02944E-3},{"$f":"'Reference Data'!$E$161","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate shrub land ",{"$f":"Lists!X111","v":"North America (temperate dry region)"},20,"Non-Forest Natural Ecosystems:Temperate shrub land :North America (temperate dry region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$69","v":7.4},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$137/Conv_te_kg","v":5.7199999999999992E-4},{"$f":"'Reference Data'!$E$137/Conv_te_kg","v":3.5199999999999999E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$161","v":-3.02944E-3},{"$f":"'Reference Data'!$E$161","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate shrub land ",{"$f":"C200","v":"North America (temperate dry region)"},40,"Non-Forest Natural Ecosystems:Temperate shrub land :North America (temperate dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$69","v":7.4},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$137/Conv_te_kg","v":5.7199999999999992E-4},{"$f":"'Reference Data'!$E$137/Conv_te_kg","v":3.5199999999999999E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$161","v":-3.02944E-3},{"$f":"'Reference Data'!$E$161","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate shrub land ",{"$f":"C200","v":"North America (temperate dry region)"},100,"Non-Forest Natural Ecosystems:Temperate shrub land :North America (temperate dry region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$69","v":7.4},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$137/Conv_te_kg","v":5.7199999999999992E-4},{"$f":"'Reference Data'!$E$137/Conv_te_kg","v":3.5199999999999999E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$161","v":-3.02944E-3},{"$f":"'Reference Data'!$E$161","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate shrub land ",{"$f":"Lists!X112","v":"New Zealand (temperate dry region)"},20,"Non-Forest Natural Ecosystems:Temperate shrub land :New Zealand (temperate dry region):20",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$69","v":7.4},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$137/Conv_te_kg","v":5.7199999999999992E-4},{"$f":"'Reference Data'!$E$137/Conv_te_kg","v":3.5199999999999999E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$161","v":-3.02944E-3},{"$f":"'Reference Data'!$E$161","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate shrub land ",{"$f":"C203","v":"New Zealand (temperate dry region)"},40,"Non-Forest Natural Ecosystems:Temperate shrub land :New Zealand (temperate dry region):40",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$69","v":7.4},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$137/Conv_te_kg","v":5.7199999999999992E-4},{"$f":"'Reference Data'!$E$137/Conv_te_kg","v":3.5199999999999999E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$161","v":-3.02944E-3},{"$f":"'Reference Data'!$E$161","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"A204","v":"Non-Forest Natural Ecosystems"},"Temperate shrub land ",{"$f":"C203","v":"New Zealand (temperate dry region)"},100,"Non-Forest Natural Ecosystems:Temperate shrub land :New Zealand (temperate dry region):100",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$69","v":7.4},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$137/Conv_te_kg","v":5.7199999999999992E-4},{"$f":"'Reference Data'!$E$137/Conv_te_kg","v":3.5199999999999999E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$161","v":-3.02944E-3},{"$f":"'Reference Data'!$E$161","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate shrub land ",{"$f":"Lists!X113","v":"South America (temperate dry region)"},20,"Non-Forest Natural Ecosystems:Temperate shrub land :South America (temperate dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$69","v":7.4},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$137/Conv_te_kg","v":5.7199999999999992E-4},{"$f":"'Reference Data'!$E$137/Conv_te_kg","v":3.5199999999999999E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$161","v":-3.02944E-3},{"$f":"'Reference Data'!$E$161","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate shrub land ",{"$f":"C206","v":"South America (temperate dry region)"},40,"Non-Forest Natural Ecosystems:Temperate shrub land :South America (temperate dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$69","v":7.4},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$137/Conv_te_kg","v":5.7199999999999992E-4},{"$f":"'Reference Data'!$E$137/Conv_te_kg","v":3.5199999999999999E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$161","v":-3.02944E-3},{"$f":"'Reference Data'!$E$161","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate shrub land ",{"$f":"C206","v":"South America (temperate dry region)"},100,"Non-Forest Natural Ecosystems:Temperate shrub land :South America (temperate dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$69","v":7.4},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$137/Conv_te_kg","v":5.7199999999999992E-4},{"$f":"'Reference Data'!$E$137/Conv_te_kg","v":3.5199999999999999E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$161","v":-3.02944E-3},{"$f":"'Reference Data'!$E$161","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems",{"$f":"Lists!B57","v":"Temperate grassland (e.g. Steppes, grassland praires)"},{"$f":"Lists!Y110","v":"Europe (temperate dry region)"},20,"Non-Forest Natural Ecosystems:Temperate grassland (e.g. Steppes, grassland praires):Europe (temperate dry region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$100+'Reference Data'!$D$100)*C_biomass+'Reference Data'!$F$100*C_litter","v":5},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$138/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$138/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$162","v":-2.3724799999999997E-3},{"$f":"'Reference Data'!$E$162","v":1.1862399999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems",{"$f":"B209","v":"Temperate grassland (e.g. Steppes, grassland praires)"},{"$f":"C209","v":"Europe (temperate dry region)"},40,"Non-Forest Natural Ecosystems:Temperate grassland (e.g. Steppes, grassland praires):Europe (temperate dry region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$100+'Reference Data'!$D$100)*C_biomass+'Reference Data'!$F$100*C_litter","v":5},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$138/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$138/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$162","v":-2.3724799999999997E-3},{"$f":"'Reference Data'!$E$162","v":1.1862399999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems",{"$f":"B210","v":"Temperate grassland (e.g. Steppes, grassland praires)"},{"$f":"C209","v":"Europe (temperate dry region)"},100,"Non-Forest Natural Ecosystems:Temperate grassland (e.g. Steppes, grassland praires):Europe (temperate dry region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$100+'Reference Data'!$D$100)*C_biomass+'Reference Data'!$F$100*C_litter","v":5},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$138/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$138/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$162","v":-2.3724799999999997E-3},{"$f":"'Reference Data'!$E$162","v":1.1862399999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate grassland (e.g. Steppes, grassland praires)",{"$f":"Lists!Y111","v":"North America (temperate dry region)"},20,"Non-Forest Natural Ecosystems:Temperate grassland (e.g. Steppes, grassland praires):North America (temperate dry region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$100+'Reference Data'!$D$100)*C_biomass+'Reference Data'!$F$100*C_litter","v":5},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$138/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$138/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$162","v":-2.3724799999999997E-3},{"$f":"'Reference Data'!$E$162","v":1.1862399999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate grassland (e.g. Steppes, grassland praires)",{"$f":"C212","v":"North America (temperate dry region)"},40,"Non-Forest Natural Ecosystems:Temperate grassland (e.g. Steppes, grassland praires):North America (temperate dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$100+'Reference Data'!$D$100)*C_biomass+'Reference Data'!$F$100*C_litter","v":5},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$138/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$138/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$162","v":-2.3724799999999997E-3},{"$f":"'Reference Data'!$E$162","v":1.1862399999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate grassland (e.g. Steppes, grassland praires)",{"$f":"C212","v":"North America (temperate dry region)"},100,"Non-Forest Natural Ecosystems:Temperate grassland (e.g. Steppes, grassland praires):North America (temperate dry region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$100+'Reference Data'!$D$100)*C_biomass+'Reference Data'!$F$100*C_litter","v":5},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$138/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$138/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$162","v":-2.3724799999999997E-3},{"$f":"'Reference Data'!$E$162","v":1.1862399999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate grassland (e.g. Steppes, grassland praires)",{"$f":"Lists!Y112","v":"New Zealand (temperate dry region)"},20,"Non-Forest Natural Ecosystems:Temperate grassland (e.g. Steppes, grassland praires):New Zealand (temperate dry region):20",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$100+'Reference Data'!$D$100)*C_biomass+'Reference Data'!$F$100*C_litter","v":5},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$138/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$138/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$162","v":-2.3724799999999997E-3},{"$f":"'Reference Data'!$E$162","v":1.1862399999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate grassland (e.g. Steppes, grassland praires)",{"$f":"C215","v":"New Zealand (temperate dry region)"},40,"Non-Forest Natural Ecosystems:Temperate grassland (e.g. Steppes, grassland praires):New Zealand (temperate dry region):40",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$100+'Reference Data'!$D$100)*C_biomass+'Reference Data'!$F$100*C_litter","v":5},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$138/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$138/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$162","v":-2.3724799999999997E-3},{"$f":"'Reference Data'!$E$162","v":1.1862399999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate grassland (e.g. Steppes, grassland praires)",{"$f":"C215","v":"New Zealand (temperate dry region)"},100,"Non-Forest Natural Ecosystems:Temperate grassland (e.g. Steppes, grassland praires):New Zealand (temperate dry region):100",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$100+'Reference Data'!$D$100)*C_biomass+'Reference Data'!$F$100*C_litter","v":5},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$138/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$138/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$162","v":-2.3724799999999997E-3},{"$f":"'Reference Data'!$E$162","v":1.1862399999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate grassland (e.g. Steppes, grassland praires)",{"$f":"Lists!Y113","v":"South America (temperate dry region)"},20,"Non-Forest Natural Ecosystems:Temperate grassland (e.g. Steppes, grassland praires):South America (temperate dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$100+'Reference Data'!$D$100)*C_biomass+'Reference Data'!$F$100*C_litter","v":5},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$138/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$138/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$162","v":-2.3724799999999997E-3},{"$f":"'Reference Data'!$E$162","v":1.1862399999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate grassland (e.g. Steppes, grassland praires)",{"$f":"C218","v":"South America (temperate dry region)"},40,"Non-Forest Natural Ecosystems:Temperate grassland (e.g. Steppes, grassland praires):South America (temperate dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$100+'Reference Data'!$D$100)*C_biomass+'Reference Data'!$F$100*C_litter","v":5},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$138/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$138/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$162","v":-2.3724799999999997E-3},{"$f":"'Reference Data'!$E$162","v":1.1862399999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems","Temperate grassland (e.g. Steppes, grassland praires)",{"$f":"C218","v":"South America (temperate dry region)"},100,"Non-Forest Natural Ecosystems:Temperate grassland (e.g. Steppes, grassland praires):South America (temperate dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$100+'Reference Data'!$D$100)*C_biomass+'Reference Data'!$F$100*C_litter","v":5},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$138/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$138/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$162","v":-2.3724799999999997E-3},{"$f":"'Reference Data'!$E$162","v":1.1862399999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Non-Forest Natural Ecosystems",{"$f":"Lists!B58","v":"Tropical Woody Savannah"},{"$f":"Lists!Z110","v":"Africa (tropical dry region)"},20,"Non-Forest Natural Ecosystems:Tropical Woody Savannah:Africa (tropical dry region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$54","v":46},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",{"$f":"AVERAGE(0.368,0.857)","v":0.61250000000000004},"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems",{"$f":"B221","v":"Tropical Woody Savannah"},{"$f":"C221","v":"Africa (tropical dry region)"},40,"Non-Forest Natural Ecosystems:Tropical Woody Savannah:Africa (tropical dry region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$54","v":46},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems",{"$f":"B222","v":"Tropical Woody Savannah"},{"$f":"C221","v":"Africa (tropical dry region)"},100,"Non-Forest Natural Ecosystems:Tropical Woody Savannah:Africa (tropical dry region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$54","v":46},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Woody Savannah",{"$f":"Lists!Z111","v":"North America (tropical dry region)"},20,"Non-Forest Natural Ecosystems:Tropical Woody Savannah:North America (tropical dry region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$55","v":53},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Woody Savannah",{"$f":"C224","v":"North America (tropical dry region)"},40,"Non-Forest Natural Ecosystems:Tropical Woody Savannah:North America (tropical dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$55","v":53},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Woody Savannah",{"$f":"C224","v":"North America (tropical dry region)"},100,"Non-Forest Natural Ecosystems:Tropical Woody Savannah:North America (tropical dry region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$55","v":53},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Woody Savannah",{"$f":"Lists!Z112","v":"South America (tropical dry region)"},20,"Non-Forest Natural Ecosystems:Tropical Woody Savannah:South America (tropical dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$55","v":53},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Woody Savannah",{"$f":"C227","v":"South America (tropical dry region)"},40,"Non-Forest Natural Ecosystems:Tropical Woody Savannah:South America (tropical dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$55","v":53},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Woody Savannah",{"$f":"C227","v":"South America (tropical dry region)"},100,"Non-Forest Natural Ecosystems:Tropical Woody Savannah:South America (tropical dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$55","v":53},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Woody Savannah",{"$f":"Lists!Z113","v":"Asia Continental (tropical dry region)"},20,"Non-Forest Natural Ecosystems:Tropical Woody Savannah:Asia Continental (tropical dry region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$56","v":39},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Woody Savannah",{"$f":"C230","v":"Asia Continental (tropical dry region)"},40,"Non-Forest Natural Ecosystems:Tropical Woody Savannah:Asia Continental (tropical dry region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$56","v":39},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Woody Savannah",{"$f":"C230","v":"Asia Continental (tropical dry region)"},100,"Non-Forest Natural Ecosystems:Tropical Woody Savannah:Asia Continental (tropical dry region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$56","v":39},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Woody Savannah",{"$f":"Lists!Z114","v":"Asia Insular (tropical dry region)"},20,"Non-Forest Natural Ecosystems:Tropical Woody Savannah:Asia Insular (tropical dry region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$57","v":46},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Woody Savannah",{"$f":"C233","v":"Asia Insular (tropical dry region)"},40,"Non-Forest Natural Ecosystems:Tropical Woody Savannah:Asia Insular (tropical dry region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$57","v":46},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Woody Savannah",{"$f":"C233","v":"Asia Insular (tropical dry region)"},100,"Non-Forest Natural Ecosystems:Tropical Woody Savannah:Asia Insular (tropical dry region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,{"$f":"'Reference Data'!$H$57","v":46},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems",{"$f":"Lists!B59","v":"Tropical Grassland Savannah"},{"$f":"Lists!AA110","v":"Africa (tropical dry region)"},20,"Non-Forest Natural Ecosystems:Tropical Grassland Savannah:Africa (tropical dry region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass+'Reference Data'!$F$101*C_litter","v":7.1749999999999998},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$139/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$139/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$163","v":-3.02944E-3},{"$f":"'Reference Data'!$E$163","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"A236","v":"Non-Forest Natural Ecosystems"},{"$f":"B236","v":"Tropical Grassland Savannah"},{"$f":"C236","v":"Africa (tropical dry region)"},40,"Non-Forest Natural Ecosystems:Tropical Grassland Savannah:Africa (tropical dry region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass+'Reference Data'!$F$101*C_litter","v":7.1749999999999998},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$139/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$139/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$163","v":-3.02944E-3},{"$f":"'Reference Data'!$E$163","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems",{"$f":"B237","v":"Tropical Grassland Savannah"},{"$f":"C236","v":"Africa (tropical dry region)"},100,"Non-Forest Natural Ecosystems:Tropical Grassland Savannah:Africa (tropical dry region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass+'Reference Data'!$F$101*C_litter","v":7.1749999999999998},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$139/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$139/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$163","v":-3.02944E-3},{"$f":"'Reference Data'!$E$163","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Grassland Savannah",{"$f":"Lists!AA111","v":"North America (tropical dry region)"},20,{"$f":"A239&\":\"&B239&\":\"&C239&\":\"&D239","v":"Non-Forest Natural Ecosystems:Tropical Grassland Savannah:North America (tropical dry region):20"},207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass+'Reference Data'!$F$101*C_litter","v":7.1749999999999998},"IPCC 2006",0,0,0,{"$f":"P239+Q239","v":0},0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$139/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$139/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$163","v":-3.02944E-3},{"$f":"'Reference Data'!$E$163","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Grassland Savannah",{"$f":"C239","v":"North America (tropical dry region)"},40,"Non-Forest Natural Ecosystems:Tropical Grassland Savannah:North America (tropical dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass+'Reference Data'!$F$101*C_litter","v":7.1749999999999998},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$139/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$139/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$163","v":-3.02944E-3},{"$f":"'Reference Data'!$E$163","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Grassland Savannah",{"$f":"C239","v":"North America (tropical dry region)"},100,"Non-Forest Natural Ecosystems:Tropical Grassland Savannah:North America (tropical dry region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass+'Reference Data'!$F$101*C_litter","v":7.1749999999999998},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$139/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$139/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$163","v":-3.02944E-3},{"$f":"'Reference Data'!$E$163","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Grassland Savannah",{"$f":"Lists!AA112","v":"South America (tropical dry region)"},20,"Non-Forest Natural Ecosystems:Tropical Grassland Savannah:South America (tropical dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass+'Reference Data'!$F$101*C_litter","v":7.1749999999999998},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$139/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$139/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$163","v":-3.02944E-3},{"$f":"'Reference Data'!$E$163","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Grassland Savannah",{"$f":"C242","v":"South America (tropical dry region)"},40,"Non-Forest Natural Ecosystems:Tropical Grassland Savannah:South America (tropical dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass+'Reference Data'!$F$101*C_litter","v":7.1749999999999998},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$139/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$139/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$163","v":-3.02944E-3},{"$f":"'Reference Data'!$E$163","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Grassland Savannah",{"$f":"C242","v":"South America (tropical dry region)"},100,"Non-Forest Natural Ecosystems:Tropical Grassland Savannah:South America (tropical dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass+'Reference Data'!$F$101*C_litter","v":7.1749999999999998},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$139/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$139/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$163","v":-3.02944E-3},{"$f":"'Reference Data'!$E$163","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Grassland Savannah",{"$f":"Lists!AA113","v":"Asia Continental (tropical dry region)"},20,"Non-Forest Natural Ecosystems:Tropical Grassland Savannah:Asia Continental (tropical dry region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass+'Reference Data'!$F$101*C_litter","v":7.1749999999999998},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$139/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$139/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$163","v":-3.02944E-3},{"$f":"'Reference Data'!$E$163","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Grassland Savannah",{"$f":"C245","v":"Asia Continental (tropical dry region)"},40,"Non-Forest Natural Ecosystems:Tropical Grassland Savannah:Asia Continental (tropical dry region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass+'Reference Data'!$F$101*C_litter","v":7.1749999999999998},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$139/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$139/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$163","v":-3.02944E-3},{"$f":"'Reference Data'!$E$163","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Grassland Savannah",{"$f":"C245","v":"Asia Continental (tropical dry region)"},100,"Non-Forest Natural Ecosystems:Tropical Grassland Savannah:Asia Continental (tropical dry region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass+'Reference Data'!$F$101*C_litter","v":7.1749999999999998},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$139/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$139/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$163","v":-3.02944E-3},{"$f":"'Reference Data'!$E$163","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Grassland Savannah",{"$f":"Lists!AA114","v":"Asia Insular (tropical dry region)"},20,"Non-Forest Natural Ecosystems:Tropical Grassland Savannah:Asia Insular (tropical dry region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass+'Reference Data'!$F$101*C_litter","v":7.1749999999999998},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$139/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$139/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$163","v":-3.02944E-3},{"$f":"'Reference Data'!$E$163","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Grassland Savannah",{"$f":"C248","v":"Asia Insular (tropical dry region)"},40,"Non-Forest Natural Ecosystems:Tropical Grassland Savannah:Asia Insular (tropical dry region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass+'Reference Data'!$F$101*C_litter","v":7.1749999999999998},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$139/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$139/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$163","v":-3.02944E-3},{"$f":"'Reference Data'!$E$163","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Non-Forest Natural Ecosystems","Tropical Grassland Savannah",{"$f":"C248","v":"Asia Insular (tropical dry region)"},100,"Non-Forest Natural Ecosystems:Tropical Grassland Savannah:Asia Insular (tropical dry region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass+'Reference Data'!$F$101*C_litter","v":7.1749999999999998},"IPCC 2006",0,0,0,0,0,"Unmanaged ecosystem. No production",0,0,0,0,0,0,0,"Unmanaged ecosystem, no operations",{"$f":"'Reference Data'!$D$139/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$139/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$163","v":-3.02944E-3},{"$f":"'Reference Data'!$E$163","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",0,null,0,null,"Assume unmanaged global ecosystems, on average, are at equilibrium (apart from peat systems), where carbon sequestration is balanced by emissions from natural disturbances and natural deaths of vegetation.",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"Lists!F82","v":"Abandoned Annual Crop Land"},{"$f":"Lists!B60","v":"Land reverting to Tropical Rainforest"},{"$f":"Lists!AB110","v":"Africa (tropical wet region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest:Africa (tropical wet region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29*J251","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G117*('Land Data'!G251*(1-'Land Data'!J251))*MM_CO2/MM_C/D251+Reversion_Data!K117)","v":-14.248453333333332},{"$f":"(((((H251/G251)^2+(K251/(1-J251))^2)^0.5)*(G251*(1-J251))*MM_CO2/MM_C/D251)^2+Reversion_Data!L117^2)^0.5","v":6.7487348907513347},{"$f":"AI251","v":-14.248453333333332},{"$f":"AJ251","v":6.7487348907513347},"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"A251","v":"Abandoned Annual Crop Land"},"Land reverting to Tropical Rainforest","Africa (tropical wet region)",40,"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest:Africa (tropical wet region):40",93,{"$f":"F252*MM_C/MM_CO2","v":25.363636363636363},{"$f":"error_SOC*G252","v":11.413636363636364},"Winrock, 2011",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29*J252","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G118*('Land Data'!G252*(1-'Land Data'!J252))*MM_CO2/MM_C/D252+Reversion_Data!K118)","v":-15.500995833333334},{"$f":"(((((H252/G252)^2+(K252/(1-J252))^2)^0.5)*(G252*(1-J252))*MM_CO2/MM_C/D252)^2+Reversion_Data!L118^2)^0.5","v":7.2917542715148018},-15.500995833333334,7.2917542715148018,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Rainforest","Africa (tropical wet region)",100,"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest:Africa (tropical wet region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29*J253","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G119*('Land Data'!G253*(1-'Land Data'!J253))*MM_CO2/MM_C/D253+Reversion_Data!K119)","v":-7.9635999999999978},{"$f":"(((((H253/G253)^2+(K253/(1-J253))^2)^0.5)*(G253*(1-J253))*MM_CO2/MM_C/D253)^2+Reversion_Data!L119^2)^0.5","v":3.7477326484134368},-7.9635999999999978,3.7477326484134368,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"A253","v":"Abandoned Annual Crop Land"},{"$f":"B253","v":"Land reverting to Tropical Rainforest"},{"$f":"Lists!AB111","v":"North America (tropical wet region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest:North America (tropical wet region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29*J254","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G120*('Land Data'!G254*(1-'Land Data'!J254))*MM_CO2/MM_C/D254+Reversion_Data!K120)","v":-16.631673333333335},{"$f":"(((((H254/G254)^2+(K254/(1-J254))^2)^0.5)*(G254*(1-J254))*MM_CO2/MM_C/D254)^2+Reversion_Data!L120^2)^0.5","v":7.7188127766327161},-16.631673333333335,7.7188127766327161,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Rainforest",{"$f":"C254","v":"North America (tropical wet region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest:North America (tropical wet region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29*J255","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G121*('Land Data'!G255*(1-'Land Data'!J255))*MM_CO2/MM_C/D255+Reversion_Data!K121)","v":-17.892264166666664},{"$f":"(((((H255/G255)^2+(K255/(1-J255))^2)^0.5)*(G255*(1-J255))*MM_CO2/MM_C/D255)^2+Reversion_Data!L121^2)^0.5","v":7.982420551181221},-17.892264166666664,7.982420551181221,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Rainforest",{"$f":"C255","v":"North America (tropical wet region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest:North America (tropical wet region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29*J256","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G122*('Land Data'!G256*(1-'Land Data'!J256))*MM_CO2/MM_C/D256+Reversion_Data!K122)","v":-8.3369199999999992},{"$f":"(((((H256/G256)^2+(K256/(1-J256))^2)^0.5)*(G256*(1-J256))*MM_CO2/MM_C/D256)^2+Reversion_Data!L122^2)^0.5","v":3.6693359408686685},-8.3369199999999992,3.6693359408686685,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Rainforest",{"$f":"Lists!AB112","v":"South America (tropical wet region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest:South America (tropical wet region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29*J257","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G123*('Land Data'!G257*(1-'Land Data'!J257))*MM_CO2/MM_C/D257+Reversion_Data!K123)","v":-16.204233333333335},{"$f":"(((((H257/G257)^2+(K257/(1-J257))^2)^0.5)*(G257*(1-J257))*MM_CO2/MM_C/D257)^2+Reversion_Data!L123^2)^0.5","v":7.5507415324155058},-16.204233333333335,7.5507415324155058,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Rainforest",{"$f":"C257","v":"South America (tropical wet region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest:South America (tropical wet region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29*J258","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G124*('Land Data'!G258*(1-'Land Data'!J258))*MM_CO2/MM_C/D258+Reversion_Data!K124)","v":-17.464824166666663},{"$f":"(((((H258/G258)^2+(K258/(1-J258))^2)^0.5)*(G258*(1-J258))*MM_CO2/MM_C/D258)^2+Reversion_Data!L124^2)^0.5","v":7.942130986585358},-17.464824166666663,7.942130986585358,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Rainforest",{"$f":"C258","v":"South America (tropical wet region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest:South America (tropical wet region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29*J259","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G125*('Land Data'!G259*(1-'Land Data'!J259))*MM_CO2/MM_C/D259+Reversion_Data!K125)","v":-8.1231999999999989},{"$f":"(((((H259/G259)^2+(K259/(1-J259))^2)^0.5)*(G259*(1-J259))*MM_CO2/MM_C/D259)^2+Reversion_Data!L125^2)^0.5","v":3.6553209609138286},-8.1231999999999989,3.6553209609138286,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Rainforest",{"$f":"Lists!AB113","v":"Asia Continental (tropical wet region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest:Asia Continental (tropical wet region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29*J260","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G126*('Land Data'!G260*(1-'Land Data'!J260))*MM_CO2/MM_C/D260+Reversion_Data!K126)","v":-11.425826666666666},{"$f":"(((((H260/G260)^2+(K260/(1-J260))^2)^0.5)*(G260*(1-J260))*MM_CO2/MM_C/D260)^2+Reversion_Data!L126^2)^0.5","v":5.3019552466278359},-11.425826666666666,5.3019552466278359,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Rainforest",{"$f":"C260","v":"Asia Continental (tropical wet region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest:Asia Continental (tropical wet region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29*J261","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G127*('Land Data'!G261*(1-'Land Data'!J261))*MM_CO2/MM_C/D261+Reversion_Data!K127)","v":-12.152963333333332},{"$f":"(((((H261/G261)^2+(K261/(1-J261))^2)^0.5)*(G261*(1-J261))*MM_CO2/MM_C/D261)^2+Reversion_Data!L127^2)^0.5","v":5.3417796299332148},-12.152963333333332,5.3417796299332148,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Rainforest",{"$f":"C261","v":"Asia Continental (tropical wet region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest:Asia Continental (tropical wet region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29*J262","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G128*('Land Data'!G262*(1-'Land Data'!J262))*MM_CO2/MM_C/D262+Reversion_Data!K128)","v":-7.6205333333333343},{"$f":"(((((H262/G262)^2+(K262/(1-J262))^2)^0.5)*(G262*(1-J262))*MM_CO2/MM_C/D262)^2+Reversion_Data!L128^2)^0.5","v":3.417152138098885},-7.6205333333333343,3.417152138098885,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Rainforest",{"$f":"Lists!AB114","v":"Asia Insular (tropical wet region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest:Asia Insular (tropical wet region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29*J263","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G129*('Land Data'!G263*(1-'Land Data'!J263))*MM_CO2/MM_C/D263+Reversion_Data!K129)","v":-19.254850000000001},{"$f":"(((((H263/G263)^2+(K263/(1-J263))^2)^0.5)*(G263*(1-J263))*MM_CO2/MM_C/D263)^2+Reversion_Data!L129^2)^0.5","v":8.9393478054176292},-19.254850000000001,8.9393478054176292,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Rainforest",{"$f":"C263","v":"Asia Insular (tropical wet region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest:Asia Insular (tropical wet region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29*J264","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G130*('Land Data'!G264*(1-'Land Data'!J264))*MM_CO2/MM_C/D264+Reversion_Data!K130)","v":-20.688938333333329},{"$f":"(((((H264/G264)^2+(K264/(1-J264))^2)^0.5)*(G264*(1-J264))*MM_CO2/MM_C/D264)^2+Reversion_Data!L130^2)^0.5","v":9.2563900309111133},-20.688938333333329,9.2563900309111133,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Rainforest",{"$f":"C264","v":"Asia Insular (tropical wet region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Rainforest:Asia Insular (tropical wet region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29*J265","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G131*('Land Data'!G265*(1-'Land Data'!J265))*MM_CO2/MM_C/D265+Reversion_Data!K131)","v":-9.6449333333333325},{"$f":"(((((H265/G265)^2+(K265/(1-J265))^2)^0.5)*(G265*(1-J265))*MM_CO2/MM_C/D265)^2+Reversion_Data!L131^2)^0.5","v":4.2595435116925113},-9.6449333333333325,4.2595435116925113,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"A265","v":"Abandoned Annual Crop Land"},{"$f":"Lists!AC109","v":"Land reverting to Tropical Moist Deciduous Forest"},{"$f":"Lists!AC110","v":"Africa (tropical moist region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28*J266","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G132*('Land Data'!G266*(1-'Land Data'!J266))*MM_CO2/MM_C/D266+Reversion_Data!K132)","v":-7.7889233333333321},{"$f":"(((((H266/G266)^2+(K266/(1-J266))^2)^0.5)*(G266*(1-J266))*MM_CO2/MM_C/D266)^2+Reversion_Data!L132^2)^0.5","v":3.6168325104621735},-7.7889233333333321,3.6168325104621735,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land",{"$f":"B266","v":"Land reverting to Tropical Moist Deciduous Forest"},{"$f":"C266","v":"Africa (tropical moist region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28*J267","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G133*('Land Data'!G267*(1-'Land Data'!J267))*MM_CO2/MM_C/D267+Reversion_Data!K133)","v":-7.9077049999999991},{"$f":"(((((H267/G267)^2+(K267/(1-J267))^2)^0.5)*(G267*(1-J267))*MM_CO2/MM_C/D267)^2+Reversion_Data!L133^2)^0.5","v":3.5220061667544318},-7.9077049999999991,3.5220061667544318,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land",{"$f":"B267","v":"Land reverting to Tropical Moist Deciduous Forest"},{"$f":"C267","v":"Africa (tropical moist region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28*J268","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G134*('Land Data'!G268*(1-'Land Data'!J268))*MM_CO2/MM_C/D268+Reversion_Data!K134)","v":-4.9921993333333337},{"$f":"(((((H268/G268)^2+(K268/(1-J268))^2)^0.5)*(G268*(1-J268))*MM_CO2/MM_C/D268)^2+Reversion_Data!L134^2)^0.5","v":2.2671054212624178},-4.9921993333333337,2.2671054212624178,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land",{"$f":"B268","v":"Land reverting to Tropical Moist Deciduous Forest"},{"$f":"Lists!AC111","v":"North America (tropical moist region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region):20",147,40.090909090909093,18.040909090909093,"Winrock, 2011",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28*J269","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G135*('Land Data'!G269*(1-'Land Data'!J269))*MM_CO2/MM_C/D269+Reversion_Data!K135)","v":-10.498896666666667},{"$f":"(((((H269/G269)^2+(K269/(1-J269))^2)^0.5)*(G269*(1-J269))*MM_CO2/MM_C/D269)^2+Reversion_Data!L135^2)^0.5","v":4.8715653989181043},-10.498896666666667,4.8715653989181043,"Abandoned agricultural land left to revert to its native state",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Tropical Moist Deciduous Forest",{"$f":"C269","v":"North America (tropical moist region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region):40",147,40.090909090909093,18.040909090909093,"Winrock, 2011",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28*J270","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G136*('Land Data'!G270*(1-'Land Data'!J270))*MM_CO2/MM_C/D270+Reversion_Data!K136)","v":-10.997361666666665},{"$f":"(((((H270/G270)^2+(K270/(1-J270))^2)^0.5)*(G270*(1-J270))*MM_CO2/MM_C/D270)^2+Reversion_Data!L136^2)^0.5","v":4.8288236382961172},-10.997361666666665,4.8288236382961172,"Abandoned agricultural land left to revert to its native state",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Tropical Moist Deciduous Forest",{"$f":"C270","v":"North America (tropical moist region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region):100",147,40.090909090909093,18.040909090909093,"Winrock, 2011",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28*J271","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G137*('Land Data'!G271*(1-'Land Data'!J271))*MM_CO2/MM_C/D271+Reversion_Data!K137)","v":-5.6410666666666671},{"$f":"(((((H271/G271)^2+(K271/(1-J271))^2)^0.5)*(G271*(1-J271))*MM_CO2/MM_C/D271)^2+Reversion_Data!L137^2)^0.5","v":2.4678186885969651},-5.6410666666666671,2.4678186885969651,"Abandoned agricultural land left to revert to its native state",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Tropical Moist Deciduous Forest",{"$f":"Lists!AC112","v":"South America (tropical moist region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28*J272","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G138*('Land Data'!G272*(1-'Land Data'!J272))*MM_CO2/MM_C/D272+Reversion_Data!K138)","v":-10.696496666666667},{"$f":"(((((H272/G272)^2+(K272/(1-J272))^2)^0.5)*(G272*(1-J272))*MM_CO2/MM_C/D272)^2+Reversion_Data!L138^2)^0.5","v":4.97266947772885},-10.696496666666667,4.97266947772885,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",{"$f":"AVERAGE(0.368,0.857)","v":0.61250000000000004},"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Moist Deciduous Forest",{"$f":"C272","v":"South America (tropical moist region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28*J273","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G139*('Land Data'!G273*(1-'Land Data'!J273))*MM_CO2/MM_C/D273+Reversion_Data!K139)","v":-11.194961666666664},{"$f":"(((((H273/G273)^2+(K273/(1-J273))^2)^0.5)*(G273*(1-J273))*MM_CO2/MM_C/D273)^2+Reversion_Data!L139^2)^0.5","v":4.8545196265405446},-11.194961666666664,4.8545196265405446,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Moist Deciduous Forest",{"$f":"C273","v":"South America (tropical moist region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28*J274","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G140*('Land Data'!G274*(1-'Land Data'!J274))*MM_CO2/MM_C/D274+Reversion_Data!K140)","v":-5.7398666666666669},{"$f":"(((((H274/G274)^2+(K274/(1-J274))^2)^0.5)*(G274*(1-J274))*MM_CO2/MM_C/D274)^2+Reversion_Data!L140^2)^0.5","v":2.4758717195647364},-5.7398666666666669,2.4758717195647364,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Moist Deciduous Forest",{"$f":"Lists!AC113","v":"Asia Continental (tropical moist region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28*J275","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G141*('Land Data'!G275*(1-'Land Data'!J275))*MM_CO2/MM_C/D275+Reversion_Data!K141)","v":-12.792870000000002},{"$f":"(((((H275/G275)^2+(K275/(1-J275))^2)^0.5)*(G275*(1-J275))*MM_CO2/MM_C/D275)^2+Reversion_Data!L141^2)^0.5","v":5.936601950074218},-12.792870000000002,5.936601950074218,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Moist Deciduous Forest",{"$f":"C275","v":"Asia Continental (tropical moist region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28*J276","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G142*('Land Data'!G276*(1-'Land Data'!J276))*MM_CO2/MM_C/D276+Reversion_Data!K142)","v":-11.570879999999999},{"$f":"(((((H276/G276)^2+(K276/(1-J276))^2)^0.5)*(G276*(1-J276))*MM_CO2/MM_C/D276)^2+Reversion_Data!L142^2)^0.5","v":5.0566408147801036},-11.570879999999999,5.0566408147801036,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Moist Deciduous Forest",{"$f":"C276","v":"Asia Continental (tropical moist region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28*J277","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G143*('Land Data'!G277*(1-'Land Data'!J277))*MM_CO2/MM_C/D277+Reversion_Data!K143)","v":-4.8705333333333343},{"$f":"(((((H277/G277)^2+(K277/(1-J277))^2)^0.5)*(G277*(1-J277))*MM_CO2/MM_C/D277)^2+Reversion_Data!L143^2)^0.5","v":2.059240248630656},-4.8705333333333343,2.059240248630656,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Moist Deciduous Forest",{"$f":"Lists!AC114","v":"Asia Insular (tropical moist region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28*J278","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G144*('Land Data'!G278*(1-'Land Data'!J278))*MM_CO2/MM_C/D278+Reversion_Data!K144)","v":-15.674643333333332},{"$f":"(((((H278/G278)^2+(K278/(1-J278))^2)^0.5)*(G278*(1-J278))*MM_CO2/MM_C/D278)^2+Reversion_Data!L144^2)^0.5","v":7.2791494255672555},-15.674643333333332,7.2791494255672555,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Moist Deciduous Forest",{"$f":"C278","v":"Asia Insular (tropical moist region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28*J279","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G145*('Land Data'!G279*(1-'Land Data'!J279))*MM_CO2/MM_C/D279+Reversion_Data!K145)","v":-16.707691113360323},{"$f":"(((((H279/G279)^2+(K279/(1-J279))^2)^0.5)*(G279*(1-J279))*MM_CO2/MM_C/D279)^2+Reversion_Data!L145^2)^0.5","v":7.2995293533773475},-16.707691113360323,7.2995293533773475,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Moist Deciduous Forest",{"$f":"C279","v":"Asia Insular (tropical moist region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28*J280","v":0.1104},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G146*('Land Data'!G280*(1-'Land Data'!J280))*MM_CO2/MM_C/D280+Reversion_Data!K146)","v":-7.5915999999999997},{"$f":"(((((H280/G280)^2+(K280/(1-J280))^2)^0.5)*(G280*(1-J280))*MM_CO2/MM_C/D280)^2+Reversion_Data!L146^2)^0.5","v":3.2464647156905926},-7.5915999999999997,3.2464647156905926,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land",{"$f":"Lists!AD109","v":"Land reverting to Tropical Dry Forest"},{"$f":"Lists!AD110","v":"Africa (tropical dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest:Africa (tropical dry region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J281","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G147*('Land Data'!G281*(1-'Land Data'!J281))*MM_CO2/MM_C/D281+Reversion_Data!K147)","v":-4.91995},{"$f":"(((((H281/G281)^2+(K281/(1-J281))^2)^0.5)*(G281*(1-J281))*MM_CO2/MM_C/D281)^2+Reversion_Data!L147^2)^0.5","v":2.3940209471410228},-4.91995,2.3940209471410228,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land",{"$f":"B281","v":"Land reverting to Tropical Dry Forest"},{"$f":"C281","v":"Africa (tropical dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest:Africa (tropical dry region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J282","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G148*('Land Data'!G282*(1-'Land Data'!J282))*MM_CO2/MM_C/D282+Reversion_Data!K148)","v":-5.3430283333333337},{"$f":"(((((H282/G282)^2+(K282/(1-J282))^2)^0.5)*(G282*(1-J282))*MM_CO2/MM_C/D282)^2+Reversion_Data!L148^2)^0.5","v":2.3589881913400808},-5.3430283333333337,2.3589881913400808,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land",{"$f":"B282","v":"Land reverting to Tropical Dry Forest"},{"$f":"C282","v":"Africa (tropical dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest:Africa (tropical dry region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J283","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G149*('Land Data'!G283*(1-'Land Data'!J283))*MM_CO2/MM_C/D283+Reversion_Data!K149)","v":-3.2139333333333338},{"$f":"(((((H283/G283)^2+(K283/(1-J283))^2)^0.5)*(G283*(1-J283))*MM_CO2/MM_C/D283)^2+Reversion_Data!L149^2)^0.5","v":1.4320487819787351},-3.2139333333333338,1.4320487819787351,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land",{"$f":"B283","v":"Land reverting to Tropical Dry Forest"},{"$f":"Lists!AD111","v":"North America (tropical dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest:North America (tropical dry region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J284","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G150*('Land Data'!G284*(1-'Land Data'!J284))*MM_CO2/MM_C/D284+Reversion_Data!K150)","v":-7.6378033333333342},{"$f":"(((((H284/G284)^2+(K284/(1-J284))^2)^0.5)*(G284*(1-J284))*MM_CO2/MM_C/D284)^2+Reversion_Data!L150^2)^0.5","v":3.9853221857077878},-7.6378033333333342,3.9853221857077878,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Dry Forest",{"$f":"C284","v":"North America (tropical dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest:North America (tropical dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J285","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G151*('Land Data'!G285*(1-'Land Data'!J285))*MM_CO2/MM_C/D285+Reversion_Data!K151)","v":-7.617068333333334},{"$f":"(((((H285/G285)^2+(K285/(1-J285))^2)^0.5)*(G285*(1-J285))*MM_CO2/MM_C/D285)^2+Reversion_Data!L151^2)^0.5","v":3.229933205992606},-7.617068333333334,3.229933205992606,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Dry Forest",{"$f":"C285","v":"North America (tropical dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest:North America (tropical dry region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J286","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G152*('Land Data'!G286*(1-'Land Data'!J286))*MM_CO2/MM_C/D286+Reversion_Data!K152)","v":-4.6127166666666666},{"$f":"(((((H286/G286)^2+(K286/(1-J286))^2)^0.5)*(G286*(1-J286))*MM_CO2/MM_C/D286)^2+Reversion_Data!L152^2)^0.5","v":1.9467273240557141},-4.6127166666666666,1.9467273240557141,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Dry Forest",{"$f":"Lists!AD112","v":"South America (tropical dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest:South America (tropical dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J287","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G153*('Land Data'!G287*(1-'Land Data'!J287))*MM_CO2/MM_C/D287+Reversion_Data!K153)","v":-7.2925633333333337},{"$f":"(((((H287/G287)^2+(K287/(1-J287))^2)^0.5)*(G287*(1-J287))*MM_CO2/MM_C/D287)^2+Reversion_Data!L153^2)^0.5","v":3.6487969468811836},-7.2925633333333337,3.6487969468811836,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Dry Forest",{"$f":"C287","v":"South America (tropical dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest:South America (tropical dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J288","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G154*('Land Data'!G288*(1-'Land Data'!J288))*MM_CO2/MM_C/D288+Reversion_Data!K154)","v":-7.2718283333333336},{"$f":"(((((H288/G288)^2+(K288/(1-J288))^2)^0.5)*(G288*(1-J288))*MM_CO2/MM_C/D288)^2+Reversion_Data!L154^2)^0.5","v":3.128929541247671},-7.2718283333333336,3.128929541247671,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Dry Forest",{"$f":"C288","v":"South America (tropical dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest:South America (tropical dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J289","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G155*('Land Data'!G289*(1-'Land Data'!J289))*MM_CO2/MM_C/D289+Reversion_Data!K155)","v":-4.4400966666666672},{"$f":"(((((H289/G289)^2+(K289/(1-J289))^2)^0.5)*(G289*(1-J289))*MM_CO2/MM_C/D289)^2+Reversion_Data!L155^2)^0.5","v":1.9201521615882715},-4.4400966666666672,1.9201521615882715,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Dry Forest",{"$f":"Lists!AD113","v":"Asia Continental (tropical dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J290","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G156*('Land Data'!G290*(1-'Land Data'!J290))*MM_CO2/MM_C/D290+Reversion_Data!K156)","v":-9.4611233333333313},{"$f":"(((((H290/G290)^2+(K290/(1-J290))^2)^0.5)*(G290*(1-J290))*MM_CO2/MM_C/D290)^2+Reversion_Data!L156^2)^0.5","v":4.5585702570719588},-9.4611233333333313,4.5585702570719588,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Dry Forest",{"$f":"C290","v":"Asia Continental (tropical dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J291","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G157*('Land Data'!G291*(1-'Land Data'!J291))*MM_CO2/MM_C/D291+Reversion_Data!K157)","v":-8.785026666666667},{"$f":"(((((H291/G291)^2+(K291/(1-J291))^2)^0.5)*(G291*(1-J291))*MM_CO2/MM_C/D291)^2+Reversion_Data!L157^2)^0.5","v":3.8596195871668963},-8.785026666666667,3.8596195871668963,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Dry Forest",{"$f":"C291","v":"Asia Continental (tropical dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J292","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G158*('Land Data'!G292*(1-'Land Data'!J292))*MM_CO2/MM_C/D292+Reversion_Data!K158)","v":-3.7195333333333327},{"$f":"(((((H292/G292)^2+(K292/(1-J292))^2)^0.5)*(G292*(1-J292))*MM_CO2/MM_C/D292)^2+Reversion_Data!L158^2)^0.5","v":1.5777129064013657},-3.7195333333333327,1.5777129064013657,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Dry Forest",{"$f":"Lists!AD114","v":"Asia Insular (tropical dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J293","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G159*('Land Data'!G293*(1-'Land Data'!J293))*MM_CO2/MM_C/D293+Reversion_Data!K159)","v":-11.167096666666668},{"$f":"(((((H293/G293)^2+(K293/(1-J293))^2)^0.5)*(G293*(1-J293))*MM_CO2/MM_C/D293)^2+Reversion_Data!L159^2)^0.5","v":5.5046289210440378},-11.167096666666668,5.5046289210440378,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Dry Forest",{"$f":"C293","v":"Asia Insular (tropical dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J294","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G160*('Land Data'!G294*(1-'Land Data'!J294))*MM_CO2/MM_C/D294+Reversion_Data!K160)","v":-11.041586666666667},{"$f":"(((((H294/G294)^2+(K294/(1-J294))^2)^0.5)*(G294*(1-J294))*MM_CO2/MM_C/D294)^2+Reversion_Data!L160^2)^0.5","v":4.785955273381588},-11.041586666666667,4.785955273381588,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Dry Forest",{"$f":"C294","v":"Asia Insular (tropical dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J295","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G161*('Land Data'!G295*(1-'Land Data'!J295))*MM_CO2/MM_C/D295+Reversion_Data!K161)","v":-4.6819333333333333},{"$f":"(((((H295/G295)^2+(K295/(1-J295))^2)^0.5)*(G295*(1-J295))*MM_CO2/MM_C/D295)^2+Reversion_Data!L161^2)^0.5","v":1.9474303737678131},-4.6819333333333333,1.9474303737678131,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land",{"$f":"Lists!AE109","v":"Land reverting to Tropical Mountain System"},{"$f":"Lists!AE110","v":"Africa (tropical montane region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System:Africa (tropical montane region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30*J296","v":0.16},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G162*('Land Data'!G296*(1-'Land Data'!J296))*MM_CO2/MM_C/D296+Reversion_Data!K162)","v":-6.1809850000000006},{"$f":"(((((H296/G296)^2+(K296/(1-J296))^2)^0.5)*(G296*(1-J296))*MM_CO2/MM_C/D296)^2+Reversion_Data!L162^2)^0.5","v":2.9520904533154555},-6.1809850000000006,2.9520904533154555,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land",{"$f":"B296","v":"Land reverting to Tropical Mountain System"},{"$f":"C296","v":"Africa (tropical montane region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System:Africa (tropical montane region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30*J297","v":0.16},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G163*('Land Data'!G297*(1-'Land Data'!J297))*MM_CO2/MM_C/D297+Reversion_Data!K163)","v":-6.3512202800269906},{"$f":"(((((H297/G297)^2+(K297/(1-J297))^2)^0.5)*(G297*(1-J297))*MM_CO2/MM_C/D297)^2+Reversion_Data!L163^2)^0.5","v":2.8897147738320985},-6.3512202800269906,2.8897147738320985,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"A297","v":"Abandoned Annual Crop Land"},{"$f":"B297","v":"Land reverting to Tropical Mountain System"},{"$f":"C297","v":"Africa (tropical montane region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System:Africa (tropical montane region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30*J298","v":0.16},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G164*('Land Data'!G298*(1-'Land Data'!J298))*MM_CO2/MM_C/D298+Reversion_Data!K164)","v":-3.2175883333333339},{"$f":"(((((H298/G298)^2+(K298/(1-J298))^2)^0.5)*(G298*(1-J298))*MM_CO2/MM_C/D298)^2+Reversion_Data!L164^2)^0.5","v":1.4568654774208549},-3.2175883333333339,1.4568654774208549,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land",{"$f":"B298","v":"Land reverting to Tropical Mountain System"},{"$f":"Lists!AE111","v":"North America (tropical montane region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System:North America (tropical montane region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30*J299","v":0.16},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G165*('Land Data'!G299*(1-'Land Data'!J299))*MM_CO2/MM_C/D299+Reversion_Data!K165)","v":-6.8753266666666661},{"$f":"(((((H299/G299)^2+(K299/(1-J299))^2)^0.5)*(G299*(1-J299))*MM_CO2/MM_C/D299)^2+Reversion_Data!L165^2)^0.5","v":3.5786095620288676},-6.8753266666666661,3.5786095620288676,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Mountain System",{"$f":"C299","v":"North America (tropical montane region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System:North America (tropical montane region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30*J300","v":0.16},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G166*('Land Data'!G300*(1-'Land Data'!J300))*MM_CO2/MM_C/D300+Reversion_Data!K166)","v":-6.8841175000000003},{"$f":"(((((H300/G300)^2+(K300/(1-J300))^2)^0.5)*(G300*(1-J300))*MM_CO2/MM_C/D300)^2+Reversion_Data!L166^2)^0.5","v":2.9429342532201703},-6.8841175000000003,2.9429342532201703,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Mountain System",{"$f":"C300","v":"North America (tropical montane region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System:North America (tropical montane region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30*J301","v":0.16},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G167*('Land Data'!G301*(1-'Land Data'!J301))*MM_CO2/MM_C/D301+Reversion_Data!K167)","v":-4.1222121120107964},{"$f":"(((((H301/G301)^2+(K301/(1-J301))^2)^0.5)*(G301*(1-J301))*MM_CO2/MM_C/D301)^2+Reversion_Data!L167^2)^0.5","v":1.7529420734841021},-4.1222121120107964,1.7529420734841021,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Mountain System",{"$f":"Lists!AE112","v":"South America (tropical montane region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System:South America (tropical montane region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30*J302","v":0.16},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G168*('Land Data'!G302*(1-'Land Data'!J302))*MM_CO2/MM_C/D302+Reversion_Data!K168)","v":-6.5794066666666664},{"$f":"(((((H302/G302)^2+(K302/(1-J302))^2)^0.5)*(G302*(1-J302))*MM_CO2/MM_C/D302)^2+Reversion_Data!L168^2)^0.5","v":3.2892177667865723},-6.5794066666666664,3.2892177667865723,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Mountain System",{"$f":"C302","v":"South America (tropical montane region)"},40,{"$f":"A303&\":\"&B303&\":\"&C303&\":\"&D303","v":"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System:South America (tropical montane region):40"},166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30*J303","v":0.16},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,{"$f":"P303+Q303","v":0},0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G169*('Land Data'!G303*(1-'Land Data'!J303))*MM_CO2/MM_C/D303+Reversion_Data!K169)","v":-6.5881974999999997},{"$f":"(((((H303/G303)^2+(K303/(1-J303))^2)^0.5)*(G303*(1-J303))*MM_CO2/MM_C/D303)^2+Reversion_Data!L169^2)^0.5","v":2.8572694655477564},-6.5881974999999997,2.8572694655477564,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Mountain System",{"$f":"C303","v":"South America (tropical montane region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System:South America (tropical montane region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30*J304","v":0.16},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G170*('Land Data'!G304*(1-'Land Data'!J304))*MM_CO2/MM_C/D304+Reversion_Data!K170)","v":-3.9742521120107965},{"$f":"(((((H304/G304)^2+(K304/(1-J304))^2)^0.5)*(G304*(1-J304))*MM_CO2/MM_C/D304)^2+Reversion_Data!L170^2)^0.5","v":1.7301173942211965},-3.9742521120107965,1.7301173942211965,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",{"$f":"AVERAGE(0.368,0.857)","v":0.61250000000000004},"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Mountain System",{"$f":"Lists!AE113","v":"Asia Continental (tropical montane region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System:Asia Continental (tropical montane region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30*J305","v":0.16},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G171*('Land Data'!G305*(1-'Land Data'!J305))*MM_CO2/MM_C/D305+Reversion_Data!K171)","v":-6.0993733333333324},{"$f":"(((((H305/G305)^2+(K305/(1-J305))^2)^0.5)*(G305*(1-J305))*MM_CO2/MM_C/D305)^2+Reversion_Data!L171^2)^0.5","v":3.0758655612436057},-6.0993733333333324,3.0758655612436057,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Mountain System",{"$f":"C305","v":"Asia Continental (tropical montane region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System:Asia Continental (tropical montane region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30*J306","v":0.16},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G172*('Land Data'!G306*(1-'Land Data'!J306))*MM_CO2/MM_C/D306+Reversion_Data!K172)","v":-6.0229370833333338},{"$f":"(((((H306/G306)^2+(K306/(1-J306))^2)^0.5)*(G306*(1-J306))*MM_CO2/MM_C/D306)^2+Reversion_Data!L172^2)^0.5","v":2.5988246971367577},-6.0229370833333338,2.5988246971367577,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Mountain System",{"$f":"C306","v":"Asia Continental (tropical montane region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System:Asia Continental (tropical montane region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30*J307","v":0.16},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G173*('Land Data'!G307*(1-'Land Data'!J307))*MM_CO2/MM_C/D307+Reversion_Data!K173)","v":-3.5845987786774627},{"$f":"(((((H307/G307)^2+(K307/(1-J307))^2)^0.5)*(G307*(1-J307))*MM_CO2/MM_C/D307)^2+Reversion_Data!L173^2)^0.5","v":1.5465733889354429},-3.5845987786774627,1.5465733889354429,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Mountain System",{"$f":"Lists!AE114","v":"Asia Insular (tropical montane region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System:Asia Insular (tropical montane region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30*J308","v":0.16},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G174*('Land Data'!G308*(1-'Land Data'!J308))*MM_CO2/MM_C/D308+Reversion_Data!K174)","v":-11.586345000000001},{"$f":"(((((H308/G308)^2+(K308/(1-J308))^2)^0.5)*(G308*(1-J308))*MM_CO2/MM_C/D308)^2+Reversion_Data!L174^2)^0.5","v":5.6198046370631296},-11.586345000000001,5.6198046370631296,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Mountain System",{"$f":"C308","v":"Asia Insular (tropical montane region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System:Asia Insular (tropical montane region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30*J309","v":0.16},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G175*('Land Data'!G309*(1-'Land Data'!J309))*MM_CO2/MM_C/D309+Reversion_Data!K175)","v":-12.206076946693656},{"$f":"(((((H309/G309)^2+(K309/(1-J309))^2)^0.5)*(G309*(1-J309))*MM_CO2/MM_C/D309)^2+Reversion_Data!L175^2)^0.5","v":5.4287481086126057},-12.206076946693656,5.4287481086126057,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Mountain System",{"$f":"C309","v":"Asia Insular (tropical montane region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Mountain System:Asia Insular (tropical montane region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30*J310","v":0.16},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G176*('Land Data'!G310*(1-'Land Data'!J310))*MM_CO2/MM_C/D310+Reversion_Data!K176)","v":-5.711451666666667},{"$f":"(((((H310/G310)^2+(K310/(1-J310))^2)^0.5)*(G310*(1-J310))*MM_CO2/MM_C/D310)^2+Reversion_Data!L176^2)^0.5","v":2.493419230247365},-5.711451666666667,2.493419230247365,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land",{"$f":"Lists!AF109","v":"Land reverting to Tropical Woody Savanna"},{"$f":"Lists!AF110","v":"Africa (tropical dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna:Africa (tropical dry region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J311","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G177*('Land Data'!G311*(1-'Land Data'!J311))*MM_CO2/MM_C/D311+Reversion_Data!K177)","v":-1.8669},{"$f":"(((((H311/G311)^2+(K311/(1-J311))^2)^0.5)*(G311*(1-J311))*MM_CO2/MM_C/D311)^2+Reversion_Data!L177^2)^0.5","v":1.3204959398744851},-1.8669,1.3204959398744851,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land",{"$f":"B311","v":"Land reverting to Tropical Woody Savanna"},{"$f":"C311","v":"Africa (tropical dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna:Africa (tropical dry region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J312","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G178*('Land Data'!G312*(1-'Land Data'!J312))*MM_CO2/MM_C/D312+Reversion_Data!K178)","v":-2.4097499999999998},{"$f":"(((((H312/G312)^2+(K312/(1-J312))^2)^0.5)*(G312*(1-J312))*MM_CO2/MM_C/D312)^2+Reversion_Data!L178^2)^0.5","v":1.0125708008856713},-2.4097499999999998,1.0125708008856713,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land",{"$f":"B312","v":"Land reverting to Tropical Woody Savanna"},{"$f":"C312","v":"Africa (tropical dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna:Africa (tropical dry region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J313","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G179*('Land Data'!G313*(1-'Land Data'!J313))*MM_CO2/MM_C/D313+Reversion_Data!K179)","v":-2.0794666666666668},{"$f":"(((((H313/G313)^2+(K313/(1-J313))^2)^0.5)*(G313*(1-J313))*MM_CO2/MM_C/D313)^2+Reversion_Data!L179^2)^0.5","v":0.87808233704672833},-2.0794666666666668,0.87808233704672833,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land",{"$f":"B313","v":"Land reverting to Tropical Woody Savanna"},{"$f":"Lists!AF111","v":"North America (tropical dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna:North America (tropical dry region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J314","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G180*('Land Data'!G314*(1-'Land Data'!J314))*MM_CO2/MM_C/D314+Reversion_Data!K180)","v":-7.8803899999999985},{"$f":"(((((H314/G314)^2+(K314/(1-J314))^2)^0.5)*(G314*(1-J314))*MM_CO2/MM_C/D314)^2+Reversion_Data!L180^2)^0.5","v":4.0758941212757538},-7.8803899999999985,4.0758941212757538,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Woody Savanna",{"$f":"C314","v":"North America (tropical dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna:North America (tropical dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J315","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G181*('Land Data'!G315*(1-'Land Data'!J315))*MM_CO2/MM_C/D315+Reversion_Data!K181)","v":-6.5649733333333344},{"$f":"(((((H315/G315)^2+(K315/(1-J315))^2)^0.5)*(G315*(1-J315))*MM_CO2/MM_C/D315)^2+Reversion_Data!L181^2)^0.5","v":2.7599615950680834},{"$f":"AI315","v":-6.5649733333333344},{"$f":"AJ315","v":2.7599615950680834},"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Woody Savanna",{"$f":"C315","v":"North America (tropical dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna:North America (tropical dry region):100",207.1,{"$f":"F316*MM_C/MM_CO2","v":56.481818181818177},{"$f":"error_SOC*G316","v":25.416818181818179},"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J316","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G182*('Land Data'!G316*(1-'Land Data'!J316))*MM_CO2/MM_C/D316+Reversion_Data!K182)","v":-2.7999533333333328},{"$f":"(((((H316/G316)^2+(K316/(1-J316))^2)^0.5)*(G316*(1-J316))*MM_CO2/MM_C/D316)^2+Reversion_Data!L182^2)^0.5","v":1.1039846380272331},-2.7999533333333328,1.1039846380272331,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Woody Savanna",{"$f":"Lists!AF112","v":"South America (tropical dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna:South America (tropical dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J317","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G183*('Land Data'!G317*(1-'Land Data'!J317))*MM_CO2/MM_C/D317+Reversion_Data!K183)","v":-7.535149999999998},{"$f":"(((((H317/G317)^2+(K317/(1-J317))^2)^0.5)*(G317*(1-J317))*MM_CO2/MM_C/D317)^2+Reversion_Data!L183^2)^0.5","v":3.7475110571584702},-7.535149999999998,3.7475110571584702,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Woody Savanna",{"$f":"C317","v":"South America (tropical dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna:South America (tropical dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J318","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G184*('Land Data'!G318*(1-'Land Data'!J318))*MM_CO2/MM_C/D318+Reversion_Data!K184)","v":-6.219733333333334},{"$f":"(((((H318/G318)^2+(K318/(1-J318))^2)^0.5)*(G318*(1-J318))*MM_CO2/MM_C/D318)^2+Reversion_Data!L184^2)^0.5","v":2.6410451653028288},-6.219733333333334,2.6410451653028288,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Woody Savanna",{"$f":"C318","v":"South America (tropical dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna:South America (tropical dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J319","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G185*('Land Data'!G319*(1-'Land Data'!J319))*MM_CO2/MM_C/D319+Reversion_Data!K185)","v":-2.6273333333333335},{"$f":"(((((H319/G319)^2+(K319/(1-J319))^2)^0.5)*(G319*(1-J319))*MM_CO2/MM_C/D319)^2+Reversion_Data!L185^2)^0.5","v":1.0564180661211313},-2.6273333333333335,1.0564180661211313,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Woody Savanna",{"$f":"Lists!AF113","v":"Asia Continental (tropical dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J320","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G186*('Land Data'!G320*(1-'Land Data'!J320))*MM_CO2/MM_C/D320+Reversion_Data!K186)","v":-8.2101688933873156},{"$f":"(((((H320/G320)^2+(K320/(1-J320))^2)^0.5)*(G320*(1-J320))*MM_CO2/MM_C/D320)^2+Reversion_Data!L186^2)^0.5","v":4.0124758956662498},-8.2101688933873156,4.0124758956662498,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Woody Savanna",{"$f":"C320","v":"Asia Continental (tropical dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J321","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G187*('Land Data'!G321*(1-'Land Data'!J321))*MM_CO2/MM_C/D321+Reversion_Data!K187)","v":-4.9714},{"$f":"(((((H321/G321)^2+(K321/(1-J321))^2)^0.5)*(G321*(1-J321))*MM_CO2/MM_C/D321)^2+Reversion_Data!L187^2)^0.5","v":2.0880538345864674},-4.9714,2.0880538345864674,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Woody Savanna",{"$f":"C321","v":"Asia Continental (tropical dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J322","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G188*('Land Data'!G322*(1-'Land Data'!J322))*MM_CO2/MM_C/D322+Reversion_Data!K188)","v":-2.1237999999999997},{"$f":"(((((H322/G322)^2+(K322/(1-J322))^2)^0.5)*(G322*(1-J322))*MM_CO2/MM_C/D322)^2+Reversion_Data!L188^2)^0.5","v":0.83522153383458675},-2.1237999999999997,0.83522153383458675,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Woody Savanna",{"$f":"Lists!AF114","v":"Asia Insular (tropical dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J323","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G189*('Land Data'!G323*(1-'Land Data'!J323))*MM_CO2/MM_C/D323+Reversion_Data!K189)","v":-5.6852833333333326},{"$f":"(((((H323/G323)^2+(K323/(1-J323))^2)^0.5)*(G323*(1-J323))*MM_CO2/MM_C/D323)^2+Reversion_Data!L189^2)^0.5","v":3.5454254668226275},-5.6852833333333326,3.5454254668226275,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Woody Savanna",{"$f":"C323","v":"Asia Insular (tropical dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J324","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G190*('Land Data'!G324*(1-'Land Data'!J324))*MM_CO2/MM_C/D324+Reversion_Data!K190)","v":-5.5584177800269909},{"$f":"(((((H324/G324)^2+(K324/(1-J324))^2)^0.5)*(G324*(1-J324))*MM_CO2/MM_C/D324)^2+Reversion_Data!L190^2)^0.5","v":2.3486251246690864},-5.5584177800269909,2.3486251246690864,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land","Land reverting to Tropical Woody Savanna",{"$f":"C324","v":"Asia Insular (tropical dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27*J325","v":0.17689999999999997},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G191*('Land Data'!G325*(1-'Land Data'!J325))*MM_CO2/MM_C/D325+Reversion_Data!K191)","v":-2.6674666666666669},{"$f":"(((((H325/G325)^2+(K325/(1-J325))^2)^0.5)*(G325*(1-J325))*MM_CO2/MM_C/D325)^2+Reversion_Data!L191^2)^0.5","v":1.0377298640173387},-2.6674666666666669,1.0377298640173387,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Annual Crop Land",{"$f":"Lists!AG109","v":"Land reverting to Temperate Oceanic Forest"},{"$f":"Lists!AG110","v":"Europe (temperate moist region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Oceanic Forest:Europe (temperate moist region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24*J326","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G192*('Land Data'!G326*(1-'Land Data'!J326))*MM_CO2/MM_C/D326+Reversion_Data!K192)","v":-5.3151016666666662},{"$f":"(((((H326/G326)^2+(K326/(1-J326))^2)^0.5)*(G326*(1-J326))*MM_CO2/MM_C/D326)^2+Reversion_Data!L192^2)^0.5","v":2.7757829183549725},-5.3151016666666662,2.7757829183549725,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land",{"$f":"B326","v":"Land reverting to Temperate Oceanic Forest"},{"$f":"C326","v":"Europe (temperate moist region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Oceanic Forest:Europe (temperate moist region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24*J327","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G193*('Land Data'!G327*(1-'Land Data'!J327))*MM_CO2/MM_C/D327+Reversion_Data!K193)","v":-6.1220525000000006},{"$f":"(((((H327/G327)^2+(K327/(1-J327))^2)^0.5)*(G327*(1-J327))*MM_CO2/MM_C/D327)^2+Reversion_Data!L193^2)^0.5","v":2.7103318198481574},-6.1220525000000006,2.7103318198481574,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land",{"$f":"B327","v":"Land reverting to Temperate Oceanic Forest"},{"$f":"C327","v":"Europe (temperate moist region)"},100,"Abandoned Annual Crop Land:Land reverting to Temperate Oceanic Forest:Europe (temperate moist region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24*J328","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G194*('Land Data'!G328*(1-'Land Data'!J328))*MM_CO2/MM_C/D328+Reversion_Data!K194)","v":-3.8209000000000004},{"$f":"(((((H328/G328)^2+(K328/(1-J328))^2)^0.5)*(G328*(1-J328))*MM_CO2/MM_C/D328)^2+Reversion_Data!L194^2)^0.5","v":1.5787809236689554},-3.8209000000000004,1.5787809236689554,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land",{"$f":"B328","v":"Land reverting to Temperate Oceanic Forest"},{"$f":"Lists!AG111","v":"North America (temperate moist region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Oceanic Forest:North America (temperate moist region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24*J329","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G195*('Land Data'!G329*(1-'Land Data'!J329))*MM_CO2/MM_C/D329+Reversion_Data!K195)","v":-19.069116666666666},{"$f":"(((((H329/G329)^2+(K329/(1-J329))^2)^0.5)*(G329*(1-J329))*MM_CO2/MM_C/D329)^2+Reversion_Data!L195^2)^0.5","v":9.2303688782455868},-19.069116666666666,9.2303688782455868,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"A329","v":"Abandoned Annual Crop Land"},"Land reverting to Temperate Oceanic Forest",{"$f":"C329","v":"North America (temperate moist region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Oceanic Forest:North America (temperate moist region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24*J330","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G196*('Land Data'!G330*(1-'Land Data'!J330))*MM_CO2/MM_C/D330+Reversion_Data!K196)","v":-26.819001666666662},{"$f":"(((((H330/G330)^2+(K330/(1-J330))^2)^0.5)*(G330*(1-J330))*MM_CO2/MM_C/D330)^2+Reversion_Data!L196^2)^0.5","v":13.003337932696528},-26.819001666666662,13.003337932696528,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Oceanic Forest",{"$f":"C330","v":"North America (temperate moist region)"},100,"Abandoned Annual Crop Land:Land reverting to Temperate Oceanic Forest:North America (temperate moist region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24*J331","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G197*('Land Data'!G331*(1-'Land Data'!J331))*MM_CO2/MM_C/D331+Reversion_Data!K197)","v":-15.528676666666666},{"$f":"(((((H331/G331)^2+(K331/(1-J331))^2)^0.5)*(G331*(1-J331))*MM_CO2/MM_C/D331)^2+Reversion_Data!L197^2)^0.5","v":7.4494313988346592},-15.528676666666666,7.4494313988346592,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Oceanic Forest",{"$f":"Lists!AG112","v":"New Zealand (temperate moist region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region):20",272,74.181818181818187,33.381818181818183,"Winrock, 2011",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24*J332","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G198*('Land Data'!G332*(1-'Land Data'!J332))*MM_CO2/MM_C/D332+Reversion_Data!K198)","v":-6.7552950000000003},{"$f":"(((((H332/G332)^2+(K332/(1-J332))^2)^0.5)*(G332*(1-J332))*MM_CO2/MM_C/D332)^2+Reversion_Data!L198^2)^0.5","v":3.4414389293289362},-6.7552950000000003,3.4414389293289362,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Oceanic Forest",{"$f":"C332","v":"New Zealand (temperate moist region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region):40",272,74.181818181818187,33.381818181818183,"Winrock, 2011",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24*J333","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G199*('Land Data'!G333*(1-'Land Data'!J333))*MM_CO2/MM_C/D333+Reversion_Data!K199)","v":-8.2141425000000012},{"$f":"(((((H333/G333)^2+(K333/(1-J333))^2)^0.5)*(G333*(1-J333))*MM_CO2/MM_C/D333)^2+Reversion_Data!L199^2)^0.5","v":3.680445666413378},-8.2141425000000012,3.680445666413378,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Oceanic Forest",{"$f":"C333","v":"New Zealand (temperate moist region)"},100,"Abandoned Annual Crop Land:Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region):100",272,74.181818181818187,33.381818181818183,"Winrock, 2011",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24*J334","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G200*('Land Data'!G334*(1-'Land Data'!J334))*MM_CO2/MM_C/D334+Reversion_Data!K200)","v":-8.4529816666666662},{"$f":"(((((H334/G334)^2+(K334/(1-J334))^2)^0.5)*(G334*(1-J334))*MM_CO2/MM_C/D334)^2+Reversion_Data!L200^2)^0.5","v":3.8254214838169176},-8.4529816666666662,3.8254214838169176,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Oceanic Forest",{"$f":"Lists!AG113","v":"South America (temperate moist region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Oceanic Forest:South America (temperate moist region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24*J335","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G201*('Land Data'!G335*(1-'Land Data'!J335))*MM_CO2/MM_C/D335+Reversion_Data!K201)","v":-8.6861491666666684},{"$f":"(((((H335/G335)^2+(K335/(1-J335))^2)^0.5)*(G335*(1-J335))*MM_CO2/MM_C/D335)^2+Reversion_Data!L201^2)^0.5","v":4.1783674635311829},-8.6861491666666684,4.1783674635311829,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Oceanic Forest",{"$f":"C335","v":"South America (temperate moist region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Oceanic Forest:South America (temperate moist region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24*J336","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G202*('Land Data'!G336*(1-'Land Data'!J336))*MM_CO2/MM_C/D336+Reversion_Data!K202)","v":-10.951807105263159},{"$f":"(((((H336/G336)^2+(K336/(1-J336))^2)^0.5)*(G336*(1-J336))*MM_CO2/MM_C/D336)^2+Reversion_Data!L202^2)^0.5","v":5.1682383197417447},-10.951807105263159,5.1682383197417447,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Oceanic Forest",{"$f":"C336","v":"South America (temperate moist region)"},100,"Abandoned Annual Crop Land:Land reverting to Temperate Oceanic Forest:South America (temperate moist region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24*J337","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G203*('Land Data'!G337*(1-'Land Data'!J337))*MM_CO2/MM_C/D337+Reversion_Data!K203)","v":-4.9145999999999992},{"$f":"(((((H337/G337)^2+(K337/(1-J337))^2)^0.5)*(G337*(1-J337))*MM_CO2/MM_C/D337)^2+Reversion_Data!L203^2)^0.5","v":2.2132211035221943},-4.9145999999999992,2.2132211035221943,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land",{"$f":"Lists!AH109","v":"Land reverting to Temperate Continental Forest"},{"$f":"Lists!AH110","v":"Europe (temperate dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Continental Forest:Europe (temperate dry region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J338","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G204*('Land Data'!G338*(1-'Land Data'!J338))*MM_CO2/MM_C/D338+Reversion_Data!K204)","v":-6.9349066666666666},{"$f":"(((((H338/G338)^2+(K338/(1-J338))^2)^0.5)*(G338*(1-J338))*MM_CO2/MM_C/D338)^2+Reversion_Data!L204^2)^0.5","v":3.3550901272809015},-6.9349066666666666,3.3550901272809015,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land",{"$f":"B338","v":"Land reverting to Temperate Continental Forest"},{"$f":"C338","v":"Europe (temperate dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Continental Forest:Europe (temperate dry region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J339","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G205*('Land Data'!G339*(1-'Land Data'!J339))*MM_CO2/MM_C/D339+Reversion_Data!K205)","v":-8.0486933333333326},{"$f":"(((((H339/G339)^2+(K339/(1-J339))^2)^0.5)*(G339*(1-J339))*MM_CO2/MM_C/D339)^2+Reversion_Data!L205^2)^0.5","v":3.7506675852306612},-8.0486933333333326,3.7506675852306612,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land",{"$f":"B339","v":"Land reverting to Temperate Continental Forest"},{"$f":"C339","v":"Europe (temperate dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Temperate Continental Forest:Europe (temperate dry region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J340","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G206*('Land Data'!G340*(1-'Land Data'!J340))*MM_CO2/MM_C/D340+Reversion_Data!K206)","v":-3.6679999999999997},{"$f":"(((((H340/G340)^2+(K340/(1-J340))^2)^0.5)*(G340*(1-J340))*MM_CO2/MM_C/D340)^2+Reversion_Data!L206^2)^0.5","v":1.6117369176140379},-3.6679999999999997,1.6117369176140379,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land",{"$f":"B340","v":"Land reverting to Temperate Continental Forest"},{"$f":"Lists!AH111","v":"North America (temperate dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Continental Forest:North America (temperate dry region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J341","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G207*('Land Data'!G341*(1-'Land Data'!J341))*MM_CO2/MM_C/D341+Reversion_Data!K207)","v":-6.850976666666666},{"$f":"(((((H341/G341)^2+(K341/(1-J341))^2)^0.5)*(G341*(1-J341))*MM_CO2/MM_C/D341)^2+Reversion_Data!L207^2)^0.5","v":3.305439856800453},-6.850976666666666,3.305439856800453,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Continental Forest",{"$f":"C341","v":"North America (temperate dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Continental Forest:North America (temperate dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J342","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G208*('Land Data'!G342*(1-'Land Data'!J342))*MM_CO2/MM_C/D342+Reversion_Data!K208)","v":-8.2601654385964931},{"$f":"(((((H342/G342)^2+(K342/(1-J342))^2)^0.5)*(G342*(1-J342))*MM_CO2/MM_C/D342)^2+Reversion_Data!L208^2)^0.5","v":3.8864893930518232},-8.2601654385964931,3.8864893930518232,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Continental Forest",{"$f":"C342","v":"North America (temperate dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Temperate Continental Forest:North America (temperate dry region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J343","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G209*('Land Data'!G343*(1-'Land Data'!J343))*MM_CO2/MM_C/D343+Reversion_Data!K209)","v":-3.8242000000000003},{"$f":"(((((H343/G343)^2+(K343/(1-J343))^2)^0.5)*(G343*(1-J343))*MM_CO2/MM_C/D343)^2+Reversion_Data!L209^2)^0.5","v":1.7167774547785746},-3.8242000000000003,1.7167774547785746,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Continental Forest",{"$f":"Lists!AH112","v":"New Zealand (temperate dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Continental Forest:New Zealand (temperate dry region):20",272,74.181818181818187,33.381818181818183,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J344","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G210*('Land Data'!G344*(1-'Land Data'!J344))*MM_CO2/MM_C/D344+Reversion_Data!K210)","v":-7.0229066666666666},{"$f":"(((((H344/G344)^2+(K344/(1-J344))^2)^0.5)*(G344*(1-J344))*MM_CO2/MM_C/D344)^2+Reversion_Data!L210^2)^0.5","v":3.4136112303801935},-7.0229066666666666,3.4136112303801935,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Continental Forest",{"$f":"C344","v":"New Zealand (temperate dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Continental Forest:New Zealand (temperate dry region):40",272,74.181818181818187,33.381818181818183,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J345","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G211*('Land Data'!G345*(1-'Land Data'!J345))*MM_CO2/MM_C/D345+Reversion_Data!K211)","v":-8.1366933333333318},{"$f":"(((((H345/G345)^2+(K345/(1-J345))^2)^0.5)*(G345*(1-J345))*MM_CO2/MM_C/D345)^2+Reversion_Data!L211^2)^0.5","v":3.7638458127824523},-8.1366933333333318,3.7638458127824523,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Continental Forest",{"$f":"C345","v":"New Zealand (temperate dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Temperate Continental Forest:New Zealand (temperate dry region):100",272,74.181818181818187,33.381818181818183,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J346","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G212*('Land Data'!G346*(1-'Land Data'!J346))*MM_CO2/MM_C/D346+Reversion_Data!K212)","v":-3.734},{"$f":"(((((H346/G346)^2+(K346/(1-J346))^2)^0.5)*(G346*(1-J346))*MM_CO2/MM_C/D346)^2+Reversion_Data!L212^2)^0.5","v":1.6166447867110449},-3.734,1.6166447867110449,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Continental Forest",{"$f":"Lists!AH113","v":"South America (temperate dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Continental Forest:South America (temperate dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J347","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G213*('Land Data'!G347*(1-'Land Data'!J347))*MM_CO2/MM_C/D347+Reversion_Data!K213)","v":-6.7413766666666666},{"$f":"(((((H347/G347)^2+(K347/(1-J347))^2)^0.5)*(G347*(1-J347))*MM_CO2/MM_C/D347)^2+Reversion_Data!L213^2)^0.5","v":3.2504964783898784},-6.7413766666666666,3.2504964783898784,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Continental Forest",{"$f":"C347","v":"South America (temperate dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Continental Forest:South America (temperate dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J348","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G214*('Land Data'!G348*(1-'Land Data'!J348))*MM_CO2/MM_C/D348+Reversion_Data!K214)","v":-8.1505654385964927},{"$f":"(((((H348/G348)^2+(K348/(1-J348))^2)^0.5)*(G348*(1-J348))*MM_CO2/MM_C/D348)^2+Reversion_Data!L214^2)^0.5","v":3.87488689894032},-8.1505654385964927,3.87488689894032,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Continental Forest",{"$f":"C348","v":"South America (temperate dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Temperate Continental Forest:South America (temperate dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J349","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G215*('Land Data'!G349*(1-'Land Data'!J349))*MM_CO2/MM_C/D349+Reversion_Data!K215)","v":-3.742},{"$f":"(((((H349/G349)^2+(K349/(1-J349))^2)^0.5)*(G349*(1-J349))*MM_CO2/MM_C/D349)^2+Reversion_Data!L215^2)^0.5","v":1.712576018050002},-3.742,1.712576018050002,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land",{"$f":"Lists!AI109","v":"Land reverting to Temperate Mountain System"},{"$f":"Lists!AI110","v":"Europe (temperate moist region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Mountain System:Europe (temperate moist region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26*J350","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G216*('Land Data'!G350*(1-'Land Data'!J350))*MM_CO2/MM_C/D350+Reversion_Data!K216)","v":-6.1922600000000001},{"$f":"(((((H350/G350)^2+(K350/(1-J350))^2)^0.5)*(G350*(1-J350))*MM_CO2/MM_C/D350)^2+Reversion_Data!L216^2)^0.5","v":3.1297216514469959},-6.1922600000000001,3.1297216514469959,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land",{"$f":"B350","v":"Land reverting to Temperate Mountain System"},{"$f":"C350","v":"Europe (temperate moist region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Mountain System:Europe (temperate moist region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26*J351","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G217*('Land Data'!G351*(1-'Land Data'!J351))*MM_CO2/MM_C/D351+Reversion_Data!K217)","v":-7.4032654385964927},{"$f":"(((((H351/G351)^2+(K351/(1-J351))^2)^0.5)*(G351*(1-J351))*MM_CO2/MM_C/D351)^2+Reversion_Data!L217^2)^0.5","v":3.3234421736508262},-7.4032654385964927,3.3234421736508262,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land",{"$f":"B351","v":"Land reverting to Temperate Mountain System"},{"$f":"C351","v":"Europe (temperate moist region)"},100,"Abandoned Annual Crop Land:Land reverting to Temperate Mountain System:Europe (temperate moist region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26*J352","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G218*('Land Data'!G352*(1-'Land Data'!J352))*MM_CO2/MM_C/D352+Reversion_Data!K218)","v":-4.1509},{"$f":"(((((H352/G352)^2+(K352/(1-J352))^2)^0.5)*(G352*(1-J352))*MM_CO2/MM_C/D352)^2+Reversion_Data!L218^2)^0.5","v":1.7401075268330404},-4.1509,1.7401075268330404,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land",{"$f":"B352","v":"Land reverting to Temperate Mountain System"},{"$f":"Lists!AI111","v":"North America (temperate moist region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Mountain System:North America (temperate moist region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26*J353","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G219*('Land Data'!G353*(1-'Land Data'!J353))*MM_CO2/MM_C/D353+Reversion_Data!K219)","v":-6.0604066666666663},{"$f":"(((((H353/G353)^2+(K353/(1-J353))^2)^0.5)*(G353*(1-J353))*MM_CO2/MM_C/D353)^2+Reversion_Data!L219^2)^0.5","v":3.0069675526726858},-6.0604066666666663,3.0069675526726858,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Mountain System",{"$f":"C353","v":"North America (temperate moist region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Mountain System:North America (temperate moist region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26*J354","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G220*('Land Data'!G354*(1-'Land Data'!J354))*MM_CO2/MM_C/D354+Reversion_Data!K220)","v":-7.2714121052631588},{"$f":"(((((H354/G354)^2+(K354/(1-J354))^2)^0.5)*(G354*(1-J354))*MM_CO2/MM_C/D354)^2+Reversion_Data!L220^2)^0.5","v":3.294987396550022},-7.2714121052631588,3.294987396550022,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Mountain System",{"$f":"C354","v":"North America (temperate moist region)"},100,"Abandoned Annual Crop Land:Land reverting to Temperate Mountain System:North America (temperate moist region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26*J355","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G221*('Land Data'!G355*(1-'Land Data'!J355))*MM_CO2/MM_C/D355+Reversion_Data!K221)","v":-4.0520100000000001},{"$f":"(((((H355/G355)^2+(K355/(1-J355))^2)^0.5)*(G355*(1-J355))*MM_CO2/MM_C/D355)^2+Reversion_Data!L221^2)^0.5","v":1.7314277503934752},-4.0520100000000001,1.7314277503934752,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Mountain System",{"$f":"Lists!AI112","v":"New Zealand (temperate moist region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Mountain System:New Zealand (temperate moist region):20",272,74.181818181818187,33.381818181818183,"Winrock, 2011",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26*J356","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G222*('Land Data'!G356*(1-'Land Data'!J356))*MM_CO2/MM_C/D356+Reversion_Data!K222)","v":-6.3286600000000002},{"$f":"(((((H356/G356)^2+(K356/(1-J356))^2)^0.5)*(G356*(1-J356))*MM_CO2/MM_C/D356)^2+Reversion_Data!L222^2)^0.5","v":3.269221524095776},-6.3286600000000002,3.269221524095776,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Mountain System",{"$f":"C356","v":"New Zealand (temperate moist region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Mountain System:New Zealand (temperate moist region):40",272,74.181818181818187,33.381818181818183,"Winrock, 2011",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26*J357","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G223*('Land Data'!G357*(1-'Land Data'!J357))*MM_CO2/MM_C/D357+Reversion_Data!K223)","v":-7.5396654385964927},{"$f":"(((((H357/G357)^2+(K357/(1-J357))^2)^0.5)*(G357*(1-J357))*MM_CO2/MM_C/D357)^2+Reversion_Data!L223^2)^0.5","v":3.3568483464582788},-7.5396654385964927,3.3568483464582788,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Mountain System",{"$f":"C357","v":"New Zealand (temperate moist region)"},100,"Abandoned Annual Crop Land:Land reverting to Temperate Mountain System:New Zealand (temperate moist region):100",272,74.181818181818187,33.381818181818183,"Winrock, 2011",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26*J358","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G224*('Land Data'!G358*(1-'Land Data'!J358))*MM_CO2/MM_C/D358+Reversion_Data!K224)","v":-4.2532000000000005},{"$f":"(((((H358/G358)^2+(K358/(1-J358))^2)^0.5)*(G358*(1-J358))*MM_CO2/MM_C/D358)^2+Reversion_Data!L224^2)^0.5","v":1.7503371890193045},-4.2532000000000005,1.7503371890193045,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Mountain System",{"$f":"Lists!AI113","v":"South America (temperate moist region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Mountain System:South America (temperate moist region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26*J359","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G225*('Land Data'!G359*(1-'Land Data'!J359))*MM_CO2/MM_C/D359+Reversion_Data!K225)","v":-5.8905266666666662},{"$f":"(((((H359/G359)^2+(K359/(1-J359))^2)^0.5)*(G359*(1-J359))*MM_CO2/MM_C/D359)^2+Reversion_Data!L225^2)^0.5","v":2.8688183663158444},-5.8905266666666662,2.8688183663158444,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Mountain System",{"$f":"C359","v":"South America (temperate moist region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Mountain System:South America (temperate moist region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26*J360","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G226*('Land Data'!G360*(1-'Land Data'!J360))*MM_CO2/MM_C/D360+Reversion_Data!K226)","v":-7.1015321052631588},{"$f":"(((((H360/G360)^2+(K360/(1-J360))^2)^0.5)*(G360*(1-J360))*MM_CO2/MM_C/D360)^2+Reversion_Data!L226^2)^0.5","v":3.2640478217153435},-7.1015321052631588,3.2640478217153435,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Mountain System",{"$f":"C360","v":"South America (temperate moist region)"},100,"Abandoned Annual Crop Land:Land reverting to Temperate Mountain System:South America (temperate moist region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26*J361","v":4.1399999999999992E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G227*('Land Data'!G361*(1-'Land Data'!J361))*MM_CO2/MM_C/D361+Reversion_Data!K227)","v":-3.9246000000000003},{"$f":"(((((H361/G361)^2+(K361/(1-J361))^2)^0.5)*(G361*(1-J361))*MM_CO2/MM_C/D361)^2+Reversion_Data!L227^2)^0.5","v":1.722025741118872},-3.9246000000000003,1.722025741118872,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"A361","v":"Abandoned Annual Crop Land"},{"$f":"Lists!AJ109","v":"Land reverting to Temperate Shrub or Grassland"},{"$f":"Lists!AJ110","v":"Europe (temperate dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J362","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G228*('Land Data'!G362*(1-'Land Data'!J362))*MM_CO2/MM_C/D362+Reversion_Data!K228)","v":-1.9939999999999998},{"$f":"(((((H362/G362)^2+(K362/(1-J362))^2)^0.5)*(G362*(1-J362))*MM_CO2/MM_C/D362)^2+Reversion_Data!L228^2)^0.5","v":1.3423518171891866},-1.9939999999999998,1.3423518171891866,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land",{"$f":"B362","v":"Land reverting to Temperate Shrub or Grassland"},{"$f":"C362","v":"Europe (temperate dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J363","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G229*('Land Data'!G363*(1-'Land Data'!J363))*MM_CO2/MM_C/D363+Reversion_Data!K229)","v":-1.3156666666666665},{"$f":"(((((H363/G363)^2+(K363/(1-J363))^2)^0.5)*(G363*(1-J363))*MM_CO2/MM_C/D363)^2+Reversion_Data!L229^2)^0.5","v":0.67117590859459331},-1.3156666666666665,0.67117590859459331,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land",{"$f":"B363","v":"Land reverting to Temperate Shrub or Grassland"},{"$f":"C363","v":"Europe (temperate dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J364","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G230*('Land Data'!G364*(1-'Land Data'!J364))*MM_CO2/MM_C/D364+Reversion_Data!K230)","v":-0.7493333333333333},{"$f":"(((((H364/G364)^2+(K364/(1-J364))^2)^0.5)*(G364*(1-J364))*MM_CO2/MM_C/D364)^2+Reversion_Data!L230^2)^0.5","v":0.26847036343783731},-0.7493333333333333,0.26847036343783731,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land",{"$f":"B364","v":"Land reverting to Temperate Shrub or Grassland"},{"$f":"Lists!AJ111","v":"North America (temperate dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Shrub or Grassland:North America (temperate dry region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J365","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G231*('Land Data'!G365*(1-'Land Data'!J365))*MM_CO2/MM_C/D365+Reversion_Data!K231)","v":-1.9089333333333331},{"$f":"(((((H365/G365)^2+(K365/(1-J365))^2)^0.5)*(G365*(1-J365))*MM_CO2/MM_C/D365)^2+Reversion_Data!L231^2)^0.5","v":1.2114585597580756},-1.9089333333333331,1.2114585597580756,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Shrub or Grassland",{"$f":"C365","v":"North America (temperate dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Shrub or Grassland:North America (temperate dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J366","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G232*('Land Data'!G366*(1-'Land Data'!J366))*MM_CO2/MM_C/D366+Reversion_Data!K232)","v":-1.2305999999999999},{"$f":"(((((H366/G366)^2+(K366/(1-J366))^2)^0.5)*(G366*(1-J366))*MM_CO2/MM_C/D366)^2+Reversion_Data!L232^2)^0.5","v":0.6057292798790378},-1.2305999999999999,0.6057292798790378,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Shrub or Grassland",{"$f":"C366","v":"North America (temperate dry region)"},100,{"$f":"A367&\":\"&B367&\":\"&C367&\":\"&D367","v":"Abandoned Annual Crop Land:Land reverting to Temperate Shrub or Grassland:North America (temperate dry region):100"},207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J367","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,{"$f":"P367+Q367","v":0},0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G233*('Land Data'!G367*(1-'Land Data'!J367))*MM_CO2/MM_C/D367+Reversion_Data!K233)","v":-0.68553333333333333},{"$f":"(((((H367/G367)^2+(K367/(1-J367))^2)^0.5)*(G367*(1-J367))*MM_CO2/MM_C/D367)^2+Reversion_Data!L233^2)^0.5","v":0.24229171195161514},-0.68553333333333333,0.24229171195161514,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Shrub or Grassland",{"$f":"Lists!AJ112","v":"New Zealand (temperate dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region):20",272,74.181818181818187,33.381818181818183,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J368","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G234*('Land Data'!G368*(1-'Land Data'!J368))*MM_CO2/MM_C/D368+Reversion_Data!K234)","v":-2.0819999999999999},{"$f":"(((((H368/G368)^2+(K368/(1-J368))^2)^0.5)*(G368*(1-J368))*MM_CO2/MM_C/D368)^2+Reversion_Data!L234^2)^0.5","v":1.4825721807423444},-2.0819999999999999,1.4825721807423444,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Shrub or Grassland",{"$f":"C368","v":"New Zealand (temperate dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region):40",272,74.181818181818187,33.381818181818183,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J369","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G235*('Land Data'!G369*(1-'Land Data'!J369))*MM_CO2/MM_C/D369+Reversion_Data!K235)","v":-1.4036666666666666},{"$f":"(((((H369/G369)^2+(K369/(1-J369))^2)^0.5)*(G369*(1-J369))*MM_CO2/MM_C/D369)^2+Reversion_Data!L235^2)^0.5","v":0.74128609037117221},-1.4036666666666666,0.74128609037117221,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Shrub or Grassland",{"$f":"C369","v":"New Zealand (temperate dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region):100",272,74.181818181818187,33.381818181818183,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J370","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G236*('Land Data'!G370*(1-'Land Data'!J370))*MM_CO2/MM_C/D370+Reversion_Data!K236)","v":-0.81533333333333347},{"$f":"(((((H370/G370)^2+(K370/(1-J370))^2)^0.5)*(G370*(1-J370))*MM_CO2/MM_C/D370)^2+Reversion_Data!L236^2)^0.5","v":0.29651443614846884},-0.81533333333333347,0.29651443614846884,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Shrub or Grassland",{"$f":"Lists!AJ113","v":"South America (temperate dry region)"},20,"Abandoned Annual Crop Land:Land reverting to Temperate Shrub or Grassland:South America (temperate dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J371","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G237*('Land Data'!G371*(1-'Land Data'!J371))*MM_CO2/MM_C/D371+Reversion_Data!K237)","v":-1.7993333333333332},{"$f":"(((((H371/G371)^2+(K371/(1-J371))^2)^0.5)*(G371*(1-J371))*MM_CO2/MM_C/D371)^2+Reversion_Data!L237^2)^0.5","v":1.0523433617936264},-1.7993333333333332,1.0523433617936264,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Shrub or Grassland",{"$f":"C371","v":"South America (temperate dry region)"},40,"Abandoned Annual Crop Land:Land reverting to Temperate Shrub or Grassland:South America (temperate dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J372","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G238*('Land Data'!G372*(1-'Land Data'!J372))*MM_CO2/MM_C/D372+Reversion_Data!K238)","v":-1.121},{"$f":"(((((H372/G372)^2+(K372/(1-J372))^2)^0.5)*(G372*(1-J372))*MM_CO2/MM_C/D372)^2+Reversion_Data!L238^2)^0.5","v":0.52617168089681321},-1.121,0.52617168089681321,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land","Land reverting to Temperate Shrub or Grassland",{"$f":"C372","v":"South America (temperate dry region)"},100,"Abandoned Annual Crop Land:Land reverting to Temperate Shrub or Grassland:South America (temperate dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23*J373","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G239*('Land Data'!G373*(1-'Land Data'!J373))*MM_CO2/MM_C/D373+Reversion_Data!K239)","v":-0.60333333333333328},{"$f":"(((((H373/G373)^2+(K373/(1-J373))^2)^0.5)*(G373*(1-J373))*MM_CO2/MM_C/D373)^2+Reversion_Data!L239^2)^0.5","v":0.2104686723587253},-0.60333333333333328,0.2104686723587253,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Annual Crop Land",{"$f":"Lists!AK109","v":"Land reverting to Boreal Coniferous Forest"},{"$f":"Lists!AK110","v":"Europe (boreal region)"},20,"Abandoned Annual Crop Land:Land reverting to Boreal Coniferous Forest:Europe (boreal region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J374","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G243*('Land Data'!G374*(1-'Land Data'!J374))*MM_CO2/MM_C/D374+Reversion_Data!K243)","v":-3.4586883333333334},{"$f":"(((((H374/G374)^2+(K374/(1-J374))^2)^0.5)*(G374*(1-J374))*MM_CO2/MM_C/D374)^2+Reversion_Data!L243^2)^0.5","v":1.8875640453021352},-3.4586883333333334,1.8875640453021352,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land",{"$f":"B374","v":"Land reverting to Boreal Coniferous Forest"},{"$f":"C374","v":"Europe (boreal region)"},40,"Abandoned Annual Crop Land:Land reverting to Boreal Coniferous Forest:Europe (boreal region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J375","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G244*('Land Data'!G375*(1-'Land Data'!J375))*MM_CO2/MM_C/D375+Reversion_Data!K244)","v":-4.1310083333333338},{"$f":"(((((H375/G375)^2+(K375/(1-J375))^2)^0.5)*(G375*(1-J375))*MM_CO2/MM_C/D375)^2+Reversion_Data!L244^2)^0.5","v":1.9161316612776627},-4.1310083333333338,1.9161316612776627,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land",{"$f":"B375","v":"Land reverting to Boreal Coniferous Forest"},{"$f":"C375","v":"Europe (boreal region)"},100,"Abandoned Annual Crop Land:Land reverting to Boreal Coniferous Forest:Europe (boreal region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J376","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G245*('Land Data'!G376*(1-'Land Data'!J376))*MM_CO2/MM_C/D376+Reversion_Data!K245)","v":-2.5505833333333334},{"$f":"(((((H376/G376)^2+(K376/(1-J376))^2)^0.5)*(G376*(1-J376))*MM_CO2/MM_C/D376)^2+Reversion_Data!L245^2)^0.5","v":1.0618716071177241},-2.5505833333333334,1.0618716071177241,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land",{"$f":"B376","v":"Land reverting to Boreal Coniferous Forest"},{"$f":"Lists!AK111","v":"North America (boreal region)"},20,"Abandoned Annual Crop Land:Land reverting to Boreal Coniferous Forest:North America (boreal region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J377","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G246*('Land Data'!G377*(1-'Land Data'!J377))*MM_CO2/MM_C/D377+Reversion_Data!K246)","v":-3.3948883333333328},{"$f":"(((((H377/G377)^2+(K377/(1-J377))^2)^0.5)*(G377*(1-J377))*MM_CO2/MM_C/D377)^2+Reversion_Data!L246^2)^0.5","v":1.7968365162188131},-3.3948883333333328,1.7968365162188131,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land","Land reverting to Boreal Coniferous Forest",{"$f":"C377","v":"North America (boreal region)"},40,"Abandoned Annual Crop Land:Land reverting to Boreal Coniferous Forest:North America (boreal region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J378","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G247*('Land Data'!G378*(1-'Land Data'!J378))*MM_CO2/MM_C/D378+Reversion_Data!K247)","v":-4.0672083333333333},{"$f":"(((((H378/G378)^2+(K378/(1-J378))^2)^0.5)*(G378*(1-J378))*MM_CO2/MM_C/D378)^2+Reversion_Data!L247^2)^0.5","v":1.8941994096651216},-4.0672083333333333,1.8941994096651216,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land","Land reverting to Boreal Coniferous Forest",{"$f":"C378","v":"North America (boreal region)"},100,"Abandoned Annual Crop Land:Land reverting to Boreal Coniferous Forest:North America (boreal region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J379","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G248*('Land Data'!G379*(1-'Land Data'!J379))*MM_CO2/MM_C/D379+Reversion_Data!K248)","v":-2.4867833333333333},{"$f":"(((((H379/G379)^2+(K379/(1-J379))^2)^0.5)*(G379*(1-J379))*MM_CO2/MM_C/D379)^2+Reversion_Data!L248^2)^0.5","v":1.0555568424479935},{"$f":"AI379","v":-2.4867833333333333},{"$f":"AJ379","v":1.0555568424479935},"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land","Land reverting to Boreal Coniferous Forest",{"$f":"Lists!AK112","v":"Asia Continental (boreal region)"},20,"Abandoned Annual Crop Land:Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region):20",161,{"$f":"F380*MM_C/MM_CO2","v":43.909090909090907},{"$f":"error_SOC*G380","v":19.759090909090908},"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J380","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G249*('Land Data'!G380*(1-'Land Data'!J380))*MM_CO2/MM_C/D380+Reversion_Data!K249)","v":-3.3026883333333332},{"$f":"(((((H380/G380)^2+(K380/(1-J380))^2)^0.5)*(G380*(1-J380))*MM_CO2/MM_C/D380)^2+Reversion_Data!L249^2)^0.5","v":1.6822633637802853},-3.3026883333333332,1.6822633637802853,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land","Land reverting to Boreal Coniferous Forest",{"$f":"C380","v":"Asia Continental (boreal region)"},40,"Abandoned Annual Crop Land:Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J381","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G250*('Land Data'!G381*(1-'Land Data'!J381))*MM_CO2/MM_C/D381+Reversion_Data!K250)","v":-3.9750083333333337},{"$f":"(((((H381/G381)^2+(K381/(1-J381))^2)^0.5)*(G381*(1-J381))*MM_CO2/MM_C/D381)^2+Reversion_Data!L250^2)^0.5","v":1.8677094376135426},-3.9750083333333337,1.8677094376135426,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land","Land reverting to Boreal Coniferous Forest",{"$f":"C381","v":"Asia Continental (boreal region)"},100,"Abandoned Annual Crop Land:Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J382","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G251*('Land Data'!G382*(1-'Land Data'!J382))*MM_CO2/MM_C/D382+Reversion_Data!K251)","v":-2.3945833333333337},{"$f":"(((((H382/G382)^2+(K382/(1-J382))^2)^0.5)*(G382*(1-J382))*MM_CO2/MM_C/D382)^2+Reversion_Data!L251^2)^0.5","v":1.047976998794715},-2.3945833333333337,1.047976998794715,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land",{"$f":"Lists!AL109","v":"Land reverting to Boreal Tundra"},{"$f":"Lists!AL110","v":"Europe (boreal region)"},20,"Abandoned Annual Crop Land:Land reverting to Boreal Tundra:Europe (boreal region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J383","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G252*('Land Data'!G383*(1-'Land Data'!J383))*MM_CO2/MM_C/D383+Reversion_Data!K252)","v":-3.1351416666666672},{"$f":"(((((H383/G383)^2+(K383/(1-J383))^2)^0.5)*(G383*(1-J383))*MM_CO2/MM_C/D383)^2+Reversion_Data!L252^2)^0.5","v":1.7626323352259339},-3.1351416666666672,1.7626323352259339,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land",{"$f":"B383","v":"Land reverting to Boreal Tundra"},{"$f":"C383","v":"Europe (boreal region)"},40,"Abandoned Annual Crop Land:Land reverting to Boreal Tundra:Europe (boreal region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J384","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G253*('Land Data'!G384*(1-'Land Data'!J384))*MM_CO2/MM_C/D384+Reversion_Data!K253)","v":-3.1351416666666672},{"$f":"(((((H384/G384)^2+(K384/(1-J384))^2)^0.5)*(G384*(1-J384))*MM_CO2/MM_C/D384)^2+Reversion_Data!L253^2)^0.5","v":1.4493251987335445},-3.1351416666666672,1.4493251987335445,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land",{"$f":"B384","v":"Land reverting to Boreal Tundra"},{"$f":"C384","v":"Europe (boreal region)"},100,"Abandoned Annual Crop Land:Land reverting to Boreal Tundra:Europe (boreal region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J385","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G254*('Land Data'!G385*(1-'Land Data'!J385))*MM_CO2/MM_C/D385+Reversion_Data!K254)","v":-1.8065708333333332},{"$f":"(((((H385/G385)^2+(K385/(1-J385))^2)^0.5)*(G385*(1-J385))*MM_CO2/MM_C/D385)^2+Reversion_Data!L254^2)^0.5","v":0.70352399134358379},-1.8065708333333332,0.70352399134358379,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land",{"$f":"B385","v":"Land reverting to Boreal Tundra"},{"$f":"Lists!AL111","v":"North America (boreal region)"},20,"Abandoned Annual Crop Land:Land reverting to Boreal Tundra:North America (boreal region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J386","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G255*('Land Data'!G386*(1-'Land Data'!J386))*MM_CO2/MM_C/D386+Reversion_Data!K255)","v":-3.0713416666666666},{"$f":"(((((H386/G386)^2+(K386/(1-J386))^2)^0.5)*(G386*(1-J386))*MM_CO2/MM_C/D386)^2+Reversion_Data!L255^2)^0.5","v":1.665111464762653},-3.0713416666666666,1.665111464762653,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land","Land reverting to Boreal Tundra",{"$f":"C386","v":"North America (boreal region)"},40,"Abandoned Annual Crop Land:Land reverting to Boreal Tundra:North America (boreal region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J387","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G256*('Land Data'!G387*(1-'Land Data'!J387))*MM_CO2/MM_C/D387+Reversion_Data!K256)","v":-3.0713416666666666},{"$f":"(((((H387/G387)^2+(K387/(1-J387))^2)^0.5)*(G387*(1-J387))*MM_CO2/MM_C/D387)^2+Reversion_Data!L256^2)^0.5","v":1.4202022362709574},-3.0713416666666666,1.4202022362709574,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land","Land reverting to Boreal Tundra",{"$f":"C387","v":"North America (boreal region)"},100,"Abandoned Annual Crop Land:Land reverting to Boreal Tundra:North America (boreal region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J388","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G257*('Land Data'!G388*(1-'Land Data'!J388))*MM_CO2/MM_C/D388+Reversion_Data!K257)","v":-1.7427708333333332},{"$f":"(((((H388/G388)^2+(K388/(1-J388))^2)^0.5)*(G388*(1-J388))*MM_CO2/MM_C/D388)^2+Reversion_Data!L257^2)^0.5","v":0.6939560101562684},-1.7427708333333332,0.6939560101562684,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land","Land reverting to Boreal Tundra",{"$f":"Lists!AL112","v":"Asia Continental (boreal region)"},20,"Abandoned Annual Crop Land:Land reverting to Boreal Tundra:Asia Continental (boreal region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J389","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G258*('Land Data'!G389*(1-'Land Data'!J389))*MM_CO2/MM_C/D389+Reversion_Data!K258)","v":-2.979141666666667},{"$f":"(((((H389/G389)^2+(K389/(1-J389))^2)^0.5)*(G389*(1-J389))*MM_CO2/MM_C/D389)^2+Reversion_Data!L258^2)^0.5","v":1.5407740746728666},-2.979141666666667,1.5407740746728666,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land","Land reverting to Boreal Tundra",{"$f":"C389","v":"Asia Continental (boreal region)"},40,"Abandoned Annual Crop Land:Land reverting to Boreal Tundra:Asia Continental (boreal region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J390","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G259*('Land Data'!G390*(1-'Land Data'!J390))*MM_CO2/MM_C/D390+Reversion_Data!K259)","v":-2.979141666666667},{"$f":"(((((H390/G390)^2+(K390/(1-J390))^2)^0.5)*(G390*(1-J390))*MM_CO2/MM_C/D390)^2+Reversion_Data!L259^2)^0.5","v":1.3846737997391401},-2.979141666666667,1.3846737997391401,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Annual Crop Land","Land reverting to Boreal Tundra",{"$f":"C390","v":"Asia Continental (boreal region)"},100,"Abandoned Annual Crop Land:Land reverting to Boreal Tundra:Asia Continental (boreal region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22*J391","v":3.5999999999999997E-2},1,0,"Abandoned land, after final annual crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G260*('Land Data'!G391*(1-'Land Data'!J391))*MM_CO2/MM_C/D391+Reversion_Data!K260)","v":-1.6505708333333331},{"$f":"(((((H391/G391)^2+(K391/(1-J391))^2)^0.5)*(G391*(1-J391))*MM_CO2/MM_C/D391)^2+Reversion_Data!L260^2)^0.5","v":0.68237122330591204},-1.6505708333333331,0.68237122330591204,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!G82","v":"Abandoned Perennial Cropland"},{"$f":"B251","v":"Land reverting to Tropical Rainforest"},"Africa (tropical wet region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest:Africa (tropical wet region):20",{"$f":"F251","v":93},25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G117*('Land Data'!G392*(1-'Land Data'!J392))*MM_CO2/MM_C/D392+Reversion_Data!K117)","v":-13.281253333333332},{"$f":"IF(J392=1,Reversion_Data!L117,(((((H392/G392)^2+(K392/(1-J392))^2)^0.5)*(G392*(1-J392))*MM_CO2/MM_C/D392)^2+Reversion_Data!L117^2)^0.5)","v":6.640626666666666},-13.281253333333332,6.640626666666666,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",{"$f":"AVERAGE(0.368,0.857)","v":0.61250000000000004},"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"A392","v":"Abandoned Perennial Cropland"},"Land reverting to Tropical Rainforest","Africa (tropical wet region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest:Africa (tropical wet region):40",{"$f":"F252","v":93},25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G118*('Land Data'!G393*(1-'Land Data'!J393))*MM_CO2/MM_C/D393+Reversion_Data!K118)","v":-14.533795833333334},{"$f":"IF(J393=1,Reversion_Data!L118,(((((H393/G393)^2+(K393/(1-J393))^2)^0.5)*(G393*(1-J393))*MM_CO2/MM_C/D393)^2+Reversion_Data!L118^2)^0.5)","v":7.2668979166666672},-14.533795833333334,7.2668979166666672,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Rainforest","Africa (tropical wet region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest:Africa (tropical wet region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G119*('Land Data'!G394*(1-'Land Data'!J394))*MM_CO2/MM_C/D394+Reversion_Data!K119)","v":-7.4799999999999978},{"$f":"IF(J394=1,Reversion_Data!L119,(((((H394/G394)^2+(K394/(1-J394))^2)^0.5)*(G394*(1-J394))*MM_CO2/MM_C/D394)^2+Reversion_Data!L119^2)^0.5)","v":3.7399999999999989},-7.4799999999999978,3.7399999999999989,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Rainforest","North America (tropical wet region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest:North America (tropical wet region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G120*('Land Data'!G395*(1-'Land Data'!J395))*MM_CO2/MM_C/D395+Reversion_Data!K120)","v":-14.477833333333335},{"$f":"IF(J395=1,Reversion_Data!L120,(((((H395/G395)^2+(K395/(1-J395))^2)^0.5)*(G395*(1-J395))*MM_CO2/MM_C/D395)^2+Reversion_Data!L120^2)^0.5)","v":7.2389166666666673},-14.477833333333335,7.2389166666666673,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Rainforest","North America (tropical wet region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest:North America (tropical wet region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G121*('Land Data'!G396*(1-'Land Data'!J396))*MM_CO2/MM_C/D396+Reversion_Data!K121)","v":-15.738424166666663},{"$f":"IF(J396=1,Reversion_Data!L121,(((((H396/G396)^2+(K396/(1-J396))^2)^0.5)*(G396*(1-J396))*MM_CO2/MM_C/D396)^2+Reversion_Data!L121^2)^0.5)","v":7.8692120833333314},-15.738424166666663,7.8692120833333314,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Rainforest","North America (tropical wet region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest:North America (tropical wet region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G122*('Land Data'!G397*(1-'Land Data'!J397))*MM_CO2/MM_C/D397+Reversion_Data!K122)","v":-7.2599999999999989},{"$f":"IF(J397=1,Reversion_Data!L122,(((((H397/G397)^2+(K397/(1-J397))^2)^0.5)*(G397*(1-J397))*MM_CO2/MM_C/D397)^2+Reversion_Data!L122^2)^0.5)","v":3.6299999999999994},-7.2599999999999989,3.6299999999999994,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Rainforest","South America (tropical wet region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest:South America (tropical wet region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G123*('Land Data'!G398*(1-'Land Data'!J398))*MM_CO2/MM_C/D398+Reversion_Data!K123)","v":-14.477833333333335},{"$f":"IF(J398=1,Reversion_Data!L123,(((((H398/G398)^2+(K398/(1-J398))^2)^0.5)*(G398*(1-J398))*MM_CO2/MM_C/D398)^2+Reversion_Data!L123^2)^0.5)","v":7.2389166666666673},-14.477833333333335,7.2389166666666673,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Rainforest","South America (tropical wet region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest:South America (tropical wet region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G124*('Land Data'!G399*(1-'Land Data'!J399))*MM_CO2/MM_C/D399+Reversion_Data!K124)","v":-15.738424166666663},{"$f":"IF(J399=1,Reversion_Data!L124,(((((H399/G399)^2+(K399/(1-J399))^2)^0.5)*(G399*(1-J399))*MM_CO2/MM_C/D399)^2+Reversion_Data!L124^2)^0.5)","v":7.8692120833333314},-15.738424166666663,7.8692120833333314,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Rainforest","South America (tropical wet region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest:South America (tropical wet region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G125*('Land Data'!G400*(1-'Land Data'!J400))*MM_CO2/MM_C/D400+Reversion_Data!K125)","v":-7.2599999999999989},{"$f":"IF(J400=1,Reversion_Data!L125,(((((H400/G400)^2+(K400/(1-J400))^2)^0.5)*(G400*(1-J400))*MM_CO2/MM_C/D400)^2+Reversion_Data!L125^2)^0.5)","v":3.6299999999999994},-7.2599999999999989,3.6299999999999994,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Rainforest","Asia Continental (tropical wet region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest:Asia Continental (tropical wet region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G126*('Land Data'!G401*(1-'Land Data'!J401))*MM_CO2/MM_C/D401+Reversion_Data!K126)","v":-9.7514266666666654},{"$f":"IF(J401=1,Reversion_Data!L126,(((((H401/G401)^2+(K401/(1-J401))^2)^0.5)*(G401*(1-J401))*MM_CO2/MM_C/D401)^2+Reversion_Data!L126^2)^0.5)","v":4.8757133333333327},-9.7514266666666654,4.8757133333333327,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Rainforest","Asia Continental (tropical wet region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest:Asia Continental (tropical wet region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G127*('Land Data'!G402*(1-'Land Data'!J402))*MM_CO2/MM_C/D402+Reversion_Data!K127)","v":-10.478563333333332},{"$f":"IF(J402=1,Reversion_Data!L127,(((((H402/G402)^2+(K402/(1-J402))^2)^0.5)*(G402*(1-J402))*MM_CO2/MM_C/D402)^2+Reversion_Data!L127^2)^0.5)","v":5.2392816666666659},-10.478563333333332,5.2392816666666659,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Rainforest","Asia Continental (tropical wet region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest:Asia Continental (tropical wet region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G128*('Land Data'!G403*(1-'Land Data'!J403))*MM_CO2/MM_C/D403+Reversion_Data!K128)","v":-6.7833333333333341},{"$f":"IF(J403=1,Reversion_Data!L128,(((((H403/G403)^2+(K403/(1-J403))^2)^0.5)*(G403*(1-J403))*MM_CO2/MM_C/D403)^2+Reversion_Data!L128^2)^0.5)","v":3.3916666666666671},-6.7833333333333341,3.3916666666666671,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Rainforest","Asia Insular (tropical wet region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest:Asia Insular (tropical wet region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G129*('Land Data'!G404*(1-'Land Data'!J404))*MM_CO2/MM_C/D404+Reversion_Data!K129)","v":-16.83165},{"$f":"IF(J404=1,Reversion_Data!L129,(((((H404/G404)^2+(K404/(1-J404))^2)^0.5)*(G404*(1-J404))*MM_CO2/MM_C/D404)^2+Reversion_Data!L129^2)^0.5)","v":8.4158249999999999},-16.83165,8.4158249999999999,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Rainforest","Asia Insular (tropical wet region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest:Asia Insular (tropical wet region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G130*('Land Data'!G405*(1-'Land Data'!J405))*MM_CO2/MM_C/D405+Reversion_Data!K130)","v":-18.265738333333328},{"$f":"IF(J405=1,Reversion_Data!L130,(((((H405/G405)^2+(K405/(1-J405))^2)^0.5)*(G405*(1-J405))*MM_CO2/MM_C/D405)^2+Reversion_Data!L130^2)^0.5)","v":9.1328691666666639},-18.265738333333328,9.1328691666666639,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Rainforest","Asia Insular (tropical wet region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Rainforest:Asia Insular (tropical wet region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G131*('Land Data'!G406*(1-'Land Data'!J406))*MM_CO2/MM_C/D406+Reversion_Data!K131)","v":-8.4333333333333318},{"$f":"IF(J406=1,Reversion_Data!L131,(((((H406/G406)^2+(K406/(1-J406))^2)^0.5)*(G406*(1-J406))*MM_CO2/MM_C/D406)^2+Reversion_Data!L131^2)^0.5)","v":4.2166666666666659},-8.4333333333333318,4.2166666666666659,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Moist Deciduous Forest","Africa (tropical moist region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G132*('Land Data'!G407*(1-'Land Data'!J407))*MM_CO2/MM_C/D407+Reversion_Data!K132)","v":-6.821723333333332},{"$f":"IF(J407=1,Reversion_Data!L132,(((((H407/G407)^2+(K407/(1-J407))^2)^0.5)*(G407*(1-J407))*MM_CO2/MM_C/D407)^2+Reversion_Data!L132^2)^0.5)","v":3.410861666666666},-6.821723333333332,3.410861666666666,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Moist Deciduous Forest","Africa (tropical moist region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G133*('Land Data'!G408*(1-'Land Data'!J408))*MM_CO2/MM_C/D408+Reversion_Data!K133)","v":-6.940504999999999},{"$f":"IF(J408=1,Reversion_Data!L133,(((((H408/G408)^2+(K408/(1-J408))^2)^0.5)*(G408*(1-J408))*MM_CO2/MM_C/D408)^2+Reversion_Data!L133^2)^0.5)","v":3.4702524999999995},-6.940504999999999,3.4702524999999995,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Moist Deciduous Forest","Africa (tropical moist region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G134*('Land Data'!G409*(1-'Land Data'!J409))*MM_CO2/MM_C/D409+Reversion_Data!K134)","v":-4.5085993333333336},{"$f":"IF(J409=1,Reversion_Data!L134,(((((H409/G409)^2+(K409/(1-J409))^2)^0.5)*(G409*(1-J409))*MM_CO2/MM_C/D409)^2+Reversion_Data!L134^2)^0.5)","v":2.2542996666666668},-4.5085993333333336,2.2542996666666668,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Moist Deciduous Forest","North America (tropical moist region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region):20",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G135*('Land Data'!G410*(1-'Land Data'!J410))*MM_CO2/MM_C/D410+Reversion_Data!K135)","v":-8.9700966666666666},{"$f":"IF(J410=1,Reversion_Data!L135,(((((H410/G410)^2+(K410/(1-J410))^2)^0.5)*(G410*(1-J410))*MM_CO2/MM_C/D410)^2+Reversion_Data!L135^2)^0.5)","v":4.4850483333333333},-8.9700966666666666,4.4850483333333333,"Abandoned agricultural land left to revert to its native state",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Tropical Moist Deciduous Forest","North America (tropical moist region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region):40",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G136*('Land Data'!G411*(1-'Land Data'!J411))*MM_CO2/MM_C/D411+Reversion_Data!K136)","v":-9.4685616666666643},{"$f":"IF(J411=1,Reversion_Data!L136,(((((H411/G411)^2+(K411/(1-J411))^2)^0.5)*(G411*(1-J411))*MM_CO2/MM_C/D411)^2+Reversion_Data!L136^2)^0.5)","v":4.7342808333333322},-9.4685616666666643,4.7342808333333322,"Abandoned agricultural land left to revert to its native state",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland",{"$f":"B271","v":"Land reverting to Tropical Moist Deciduous Forest"},"North America (tropical moist region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region):100",147,40.090909090909093,18.040909090909093,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G137*('Land Data'!G412*(1-'Land Data'!J412))*MM_CO2/MM_C/D412+Reversion_Data!K137)","v":-4.8766666666666669},{"$f":"IF(J412=1,Reversion_Data!L137,(((((H412/G412)^2+(K412/(1-J412))^2)^0.5)*(G412*(1-J412))*MM_CO2/MM_C/D412)^2+Reversion_Data!L137^2)^0.5)","v":2.4383333333333335},-4.8766666666666669,2.4383333333333335,"Abandoned agricultural land left to revert to its native state",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Tropical Moist Deciduous Forest","South America (tropical moist region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G138*('Land Data'!G413*(1-'Land Data'!J413))*MM_CO2/MM_C/D413+Reversion_Data!K138)","v":-8.9700966666666666},{"$f":"IF(J413=1,Reversion_Data!L138,(((((H413/G413)^2+(K413/(1-J413))^2)^0.5)*(G413*(1-J413))*MM_CO2/MM_C/D413)^2+Reversion_Data!L138^2)^0.5)","v":4.4850483333333333},-8.9700966666666666,4.4850483333333333,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",{"$f":"AVERAGE(0.368,0.857)","v":0.61250000000000004},"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Moist Deciduous Forest","South America (tropical moist region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G139*('Land Data'!G414*(1-'Land Data'!J414))*MM_CO2/MM_C/D414+Reversion_Data!K139)","v":-9.4685616666666643},{"$f":"IF(J414=1,Reversion_Data!L139,(((((H414/G414)^2+(K414/(1-J414))^2)^0.5)*(G414*(1-J414))*MM_CO2/MM_C/D414)^2+Reversion_Data!L139^2)^0.5)","v":4.7342808333333322},-9.4685616666666643,4.7342808333333322,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Moist Deciduous Forest","South America (tropical moist region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G140*('Land Data'!G415*(1-'Land Data'!J415))*MM_CO2/MM_C/D415+Reversion_Data!K140)","v":-4.8766666666666669},{"$f":"IF(J415=1,Reversion_Data!L140,(((((H415/G415)^2+(K415/(1-J415))^2)^0.5)*(G415*(1-J415))*MM_CO2/MM_C/D415)^2+Reversion_Data!L140^2)^0.5)","v":2.4383333333333335},-4.8766666666666669,2.4383333333333335,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Moist Deciduous Forest","Asia Continental (tropical moist region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G141*('Land Data'!G416*(1-'Land Data'!J416))*MM_CO2/MM_C/D416+Reversion_Data!K141)","v":-11.118470000000002},{"$f":"IF(J416=1,Reversion_Data!L141,(((((H416/G416)^2+(K416/(1-J416))^2)^0.5)*(G416*(1-J416))*MM_CO2/MM_C/D416)^2+Reversion_Data!L141^2)^0.5)","v":5.559235000000001},-11.118470000000002,5.559235000000001,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Moist Deciduous Forest","Asia Continental (tropical moist region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G142*('Land Data'!G417*(1-'Land Data'!J417))*MM_CO2/MM_C/D417+Reversion_Data!K142)","v":-9.8964799999999986},{"$f":"IF(J417=1,Reversion_Data!L142,(((((H417/G417)^2+(K417/(1-J417))^2)^0.5)*(G417*(1-J417))*MM_CO2/MM_C/D417)^2+Reversion_Data!L142^2)^0.5)","v":4.9482399999999993},-9.8964799999999986,4.9482399999999993,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Moist Deciduous Forest","Asia Continental (tropical moist region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G143*('Land Data'!G418*(1-'Land Data'!J418))*MM_CO2/MM_C/D418+Reversion_Data!K143)","v":-4.0333333333333341},{"$f":"IF(J418=1,Reversion_Data!L143,(((((H418/G418)^2+(K418/(1-J418))^2)^0.5)*(G418*(1-J418))*MM_CO2/MM_C/D418)^2+Reversion_Data!L143^2)^0.5)","v":2.0166666666666671},-4.0333333333333341,2.0166666666666671,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Moist Deciduous Forest","Asia Insular (tropical moist region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G144*('Land Data'!G419*(1-'Land Data'!J419))*MM_CO2/MM_C/D419+Reversion_Data!K144)","v":-13.251443333333333},{"$f":"IF(J419=1,Reversion_Data!L144,(((((H419/G419)^2+(K419/(1-J419))^2)^0.5)*(G419*(1-J419))*MM_CO2/MM_C/D419)^2+Reversion_Data!L144^2)^0.5)","v":6.6257216666666663},-13.251443333333333,6.6257216666666663,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Moist Deciduous Forest","Asia Insular (tropical moist region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G145*('Land Data'!G420*(1-'Land Data'!J420))*MM_CO2/MM_C/D420+Reversion_Data!K145)","v":-14.284491113360323},{"$f":"IF(J420=1,Reversion_Data!L145,(((((H420/G420)^2+(K420/(1-J420))^2)^0.5)*(G420*(1-J420))*MM_CO2/MM_C/D420)^2+Reversion_Data!L145^2)^0.5)","v":7.1422455566801615},-14.284491113360323,7.1422455566801615,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Moist Deciduous Forest","Asia Insular (tropical moist region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G146*('Land Data'!G421*(1-'Land Data'!J421))*MM_CO2/MM_C/D421+Reversion_Data!K146)","v":-6.38},{"$f":"IF(J421=1,Reversion_Data!L146,(((((H421/G421)^2+(K421/(1-J421))^2)^0.5)*(G421*(1-J421))*MM_CO2/MM_C/D421)^2+Reversion_Data!L146^2)^0.5)","v":3.19},-6.38,3.19,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Dry Forest","Africa (tropical dry region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest:Africa (tropical dry region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G147*('Land Data'!G422*(1-'Land Data'!J422))*MM_CO2/MM_C/D422+Reversion_Data!K147)","v":-4.1387499999999999},{"$f":"IF(J422=1,Reversion_Data!L147,(((((H422/G422)^2+(K422/(1-J422))^2)^0.5)*(G422*(1-J422))*MM_CO2/MM_C/D422)^2+Reversion_Data!L147^2)^0.5)","v":2.069375},-4.1387499999999999,2.069375,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Dry Forest","Africa (tropical dry region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest:Africa (tropical dry region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G148*('Land Data'!G423*(1-'Land Data'!J423))*MM_CO2/MM_C/D423+Reversion_Data!K148)","v":-4.5618283333333336},{"$f":"IF(J423=1,Reversion_Data!L148,(((((H423/G423)^2+(K423/(1-J423))^2)^0.5)*(G423*(1-J423))*MM_CO2/MM_C/D423)^2+Reversion_Data!L148^2)^0.5)","v":2.2809141666666668},-4.5618283333333336,2.2809141666666668,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Dry Forest","Africa (tropical dry region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest:Africa (tropical dry region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G149*('Land Data'!G424*(1-'Land Data'!J424))*MM_CO2/MM_C/D424+Reversion_Data!K149)","v":-2.8233333333333337},{"$f":"IF(J424=1,Reversion_Data!L149,(((((H424/G424)^2+(K424/(1-J424))^2)^0.5)*(G424*(1-J424))*MM_CO2/MM_C/D424)^2+Reversion_Data!L149^2)^0.5)","v":1.4116666666666668},-2.8233333333333337,1.4116666666666668,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"A424","v":"Abandoned Perennial Cropland"},"Land reverting to Tropical Dry Forest","North America (tropical dry region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest:North America (tropical dry region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G150*('Land Data'!G425*(1-'Land Data'!J425))*MM_CO2/MM_C/D425+Reversion_Data!K150)","v":-5.8981633333333336},{"$f":"IF(J425=1,Reversion_Data!L150,(((((H425/G425)^2+(K425/(1-J425))^2)^0.5)*(G425*(1-J425))*MM_CO2/MM_C/D425)^2+Reversion_Data!L150^2)^0.5)","v":2.9490816666666668},-5.8981633333333336,2.9490816666666668,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Dry Forest","North America (tropical dry region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest:North America (tropical dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G151*('Land Data'!G426*(1-'Land Data'!J426))*MM_CO2/MM_C/D426+Reversion_Data!K151)","v":-5.8774283333333335},{"$f":"IF(J426=1,Reversion_Data!L151,(((((H426/G426)^2+(K426/(1-J426))^2)^0.5)*(G426*(1-J426))*MM_CO2/MM_C/D426)^2+Reversion_Data!L151^2)^0.5)","v":2.9387141666666667},-5.8774283333333335,2.9387141666666667,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Dry Forest","North America (tropical dry region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest:North America (tropical dry region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G152*('Land Data'!G427*(1-'Land Data'!J427))*MM_CO2/MM_C/D427+Reversion_Data!K152)","v":-3.7428966666666668},{"$f":"IF(J427=1,Reversion_Data!L152,(((((H427/G427)^2+(K427/(1-J427))^2)^0.5)*(G427*(1-J427))*MM_CO2/MM_C/D427)^2+Reversion_Data!L152^2)^0.5)","v":1.8714483333333334},-3.7428966666666668,1.8714483333333334,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Dry Forest","South America (tropical dry region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest:South America (tropical dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G153*('Land Data'!G428*(1-'Land Data'!J428))*MM_CO2/MM_C/D428+Reversion_Data!K153)","v":-5.8981633333333336},{"$f":"IF(J428=1,Reversion_Data!L153,(((((H428/G428)^2+(K428/(1-J428))^2)^0.5)*(G428*(1-J428))*MM_CO2/MM_C/D428)^2+Reversion_Data!L153^2)^0.5)","v":2.9490816666666668},-5.8981633333333336,2.9490816666666668,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Dry Forest","South America (tropical dry region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest:South America (tropical dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G154*('Land Data'!G429*(1-'Land Data'!J429))*MM_CO2/MM_C/D429+Reversion_Data!K154)","v":-5.8774283333333335},{"$f":"IF(J429=1,Reversion_Data!L154,(((((H429/G429)^2+(K429/(1-J429))^2)^0.5)*(G429*(1-J429))*MM_CO2/MM_C/D429)^2+Reversion_Data!L154^2)^0.5)","v":2.9387141666666667},-5.8774283333333335,2.9387141666666667,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Dry Forest","South America (tropical dry region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest:South America (tropical dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G155*('Land Data'!G430*(1-'Land Data'!J430))*MM_CO2/MM_C/D430+Reversion_Data!K155)","v":-3.7428966666666668},{"$f":"IF(J430=1,Reversion_Data!L155,(((((H430/G430)^2+(K430/(1-J430))^2)^0.5)*(G430*(1-J430))*MM_CO2/MM_C/D430)^2+Reversion_Data!L155^2)^0.5)","v":1.8714483333333334},-3.7428966666666668,1.8714483333333334,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Dry Forest","Asia Continental (tropical dry region)",20,{"$f":"A431&\":\"&B431&\":\"&C431&\":\"&D431","v":"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region):20"},161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,{"$f":"P431+Q431","v":0},0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G156*('Land Data'!G431*(1-'Land Data'!J431))*MM_CO2/MM_C/D431+Reversion_Data!K156)","v":-8.108723333333332},{"$f":"IF(J431=1,Reversion_Data!L156,(((((H431/G431)^2+(K431/(1-J431))^2)^0.5)*(G431*(1-J431))*MM_CO2/MM_C/D431)^2+Reversion_Data!L156^2)^0.5)","v":4.054361666666666},-8.108723333333332,4.054361666666666,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland",{"$f":"B291","v":"Land reverting to Tropical Dry Forest"},"Asia Continental (tropical dry region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G157*('Land Data'!G432*(1-'Land Data'!J432))*MM_CO2/MM_C/D432+Reversion_Data!K157)","v":-7.4326266666666676},{"$f":"IF(J432=1,Reversion_Data!L157,(((((H432/G432)^2+(K432/(1-J432))^2)^0.5)*(G432*(1-J432))*MM_CO2/MM_C/D432)^2+Reversion_Data!L157^2)^0.5)","v":3.7163133333333338},-7.4326266666666676,3.7163133333333338,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Dry Forest","Asia Continental (tropical dry region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G158*('Land Data'!G433*(1-'Land Data'!J433))*MM_CO2/MM_C/D433+Reversion_Data!K158)","v":-3.043333333333333},{"$f":"IF(J433=1,Reversion_Data!L158,(((((H433/G433)^2+(K433/(1-J433))^2)^0.5)*(G433*(1-J433))*MM_CO2/MM_C/D433)^2+Reversion_Data!L158^2)^0.5)","v":1.5216666666666665},-3.043333333333333,1.5216666666666665,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Dry Forest","Asia Insular (tropical dry region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G159*('Land Data'!G434*(1-'Land Data'!J434))*MM_CO2/MM_C/D434+Reversion_Data!K159)","v":-9.2098966666666673},{"$f":"IF(J434=1,Reversion_Data!L159,(((((H434/G434)^2+(K434/(1-J434))^2)^0.5)*(G434*(1-J434))*MM_CO2/MM_C/D434)^2+Reversion_Data!L159^2)^0.5)","v":4.6049483333333336},-9.2098966666666673,4.6049483333333336,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Dry Forest","Asia Insular (tropical dry region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G160*('Land Data'!G435*(1-'Land Data'!J435))*MM_CO2/MM_C/D435+Reversion_Data!K160)","v":-9.0843866666666671},{"$f":"IF(J435=1,Reversion_Data!L160,(((((H435/G435)^2+(K435/(1-J435))^2)^0.5)*(G435*(1-J435))*MM_CO2/MM_C/D435)^2+Reversion_Data!L160^2)^0.5)","v":4.5421933333333335},-9.0843866666666671,4.5421933333333335,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Dry Forest","Asia Insular (tropical dry region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G161*('Land Data'!G436*(1-'Land Data'!J436))*MM_CO2/MM_C/D436+Reversion_Data!K161)","v":-3.7033333333333331},{"$f":"IF(J436=1,Reversion_Data!L161,(((((H436/G436)^2+(K436/(1-J436))^2)^0.5)*(G436*(1-J436))*MM_CO2/MM_C/D436)^2+Reversion_Data!L161^2)^0.5)","v":1.8516666666666666},-3.7033333333333331,1.8516666666666666,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Mountain System","Africa (tropical montane region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System:Africa (tropical montane region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G162*('Land Data'!G437*(1-'Land Data'!J437))*MM_CO2/MM_C/D437+Reversion_Data!K162)","v":-5.5113850000000006},{"$f":"IF(J437=1,Reversion_Data!L162,(((((H437/G437)^2+(K437/(1-J437))^2)^0.5)*(G437*(1-J437))*MM_CO2/MM_C/D437)^2+Reversion_Data!L162^2)^0.5)","v":2.7556925000000003},-5.5113850000000006,2.7556925000000003,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Mountain System","Africa (tropical montane region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System:Africa (tropical montane region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G163*('Land Data'!G438*(1-'Land Data'!J438))*MM_CO2/MM_C/D438+Reversion_Data!K163)","v":-5.6816202800269906},{"$f":"IF(J438=1,Reversion_Data!L163,(((((H438/G438)^2+(K438/(1-J438))^2)^0.5)*(G438*(1-J438))*MM_CO2/MM_C/D438)^2+Reversion_Data!L163^2)^0.5)","v":2.8408101400134953},-5.6816202800269906,2.8408101400134953,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Mountain System","Africa (tropical montane region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System:Africa (tropical montane region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G164*('Land Data'!G439*(1-'Land Data'!J439))*MM_CO2/MM_C/D439+Reversion_Data!K164)","v":-2.882788333333334},{"$f":"IF(J439=1,Reversion_Data!L164,(((((H439/G439)^2+(K439/(1-J439))^2)^0.5)*(G439*(1-J439))*MM_CO2/MM_C/D439)^2+Reversion_Data!L164^2)^0.5)","v":1.441394166666667},-2.882788333333334,1.441394166666667,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Mountain System","North America (tropical montane region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System:North America (tropical montane region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G165*('Land Data'!G440*(1-'Land Data'!J440))*MM_CO2/MM_C/D440+Reversion_Data!K165)","v":-5.3842066666666666},{"$f":"IF(J440=1,Reversion_Data!L165,(((((H440/G440)^2+(K440/(1-J440))^2)^0.5)*(G440*(1-J440))*MM_CO2/MM_C/D440)^2+Reversion_Data!L165^2)^0.5)","v":2.6921033333333333},-5.3842066666666666,2.6921033333333333,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Mountain System","North America (tropical montane region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System:North America (tropical montane region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G166*('Land Data'!G441*(1-'Land Data'!J441))*MM_CO2/MM_C/D441+Reversion_Data!K166)","v":-5.3929974999999999},{"$f":"IF(J441=1,Reversion_Data!L166,(((((H441/G441)^2+(K441/(1-J441))^2)^0.5)*(G441*(1-J441))*MM_CO2/MM_C/D441)^2+Reversion_Data!L166^2)^0.5)","v":2.6964987499999999},-5.3929974999999999,2.6964987499999999,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Mountain System","North America (tropical montane region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System:North America (tropical montane region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G167*('Land Data'!G442*(1-'Land Data'!J442))*MM_CO2/MM_C/D442+Reversion_Data!K167)","v":-3.3766521120107966},{"$f":"IF(J442=1,Reversion_Data!L167,(((((H442/G442)^2+(K442/(1-J442))^2)^0.5)*(G442*(1-J442))*MM_CO2/MM_C/D442)^2+Reversion_Data!L167^2)^0.5)","v":1.6883260560053983},-3.3766521120107966,1.6883260560053983,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Mountain System","South America (tropical montane region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System:South America (tropical montane region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G168*('Land Data'!G443*(1-'Land Data'!J443))*MM_CO2/MM_C/D443+Reversion_Data!K168)","v":-5.3842066666666666},{"$f":"IF(J443=1,Reversion_Data!L168,(((((H443/G443)^2+(K443/(1-J443))^2)^0.5)*(G443*(1-J443))*MM_CO2/MM_C/D443)^2+Reversion_Data!L168^2)^0.5)","v":2.6921033333333333},{"$f":"AI443","v":-5.3842066666666666},{"$f":"AJ443","v":2.6921033333333333},"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Mountain System","South America (tropical montane region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System:South America (tropical montane region):40",166,{"$f":"F444*MM_C/MM_CO2","v":45.272727272727273},{"$f":"error_SOC*G444","v":20.372727272727275},"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G169*('Land Data'!G444*(1-'Land Data'!J444))*MM_CO2/MM_C/D444+Reversion_Data!K169)","v":-5.3929974999999999},{"$f":"IF(J444=1,Reversion_Data!L169,(((((H444/G444)^2+(K444/(1-J444))^2)^0.5)*(G444*(1-J444))*MM_CO2/MM_C/D444)^2+Reversion_Data!L169^2)^0.5)","v":2.6964987499999999},-5.3929974999999999,2.6964987499999999,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Mountain System","South America (tropical montane region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System:South America (tropical montane region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G170*('Land Data'!G445*(1-'Land Data'!J445))*MM_CO2/MM_C/D445+Reversion_Data!K170)","v":-3.3766521120107966},{"$f":"IF(J445=1,Reversion_Data!L170,(((((H445/G445)^2+(K445/(1-J445))^2)^0.5)*(G445*(1-J445))*MM_CO2/MM_C/D445)^2+Reversion_Data!L170^2)^0.5)","v":1.6883260560053983},-3.3766521120107966,1.6883260560053983,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",{"$f":"AVERAGE(0.368,0.857)","v":0.61250000000000004},"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Mountain System","Asia Continental (tropical montane region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System:Asia Continental (tropical montane region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G171*('Land Data'!G446*(1-'Land Data'!J446))*MM_CO2/MM_C/D446+Reversion_Data!K171)","v":-4.9401733333333331},{"$f":"IF(J446=1,Reversion_Data!L171,(((((H446/G446)^2+(K446/(1-J446))^2)^0.5)*(G446*(1-J446))*MM_CO2/MM_C/D446)^2+Reversion_Data!L171^2)^0.5)","v":2.4700866666666665},-4.9401733333333331,2.4700866666666665,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Mountain System","Asia Continental (tropical montane region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System:Asia Continental (tropical montane region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G172*('Land Data'!G447*(1-'Land Data'!J447))*MM_CO2/MM_C/D447+Reversion_Data!K172)","v":-4.8637370833333335},{"$f":"IF(J447=1,Reversion_Data!L172,(((((H447/G447)^2+(K447/(1-J447))^2)^0.5)*(G447*(1-J447))*MM_CO2/MM_C/D447)^2+Reversion_Data!L172^2)^0.5)","v":2.4318685416666668},-4.8637370833333335,2.4318685416666668,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Mountain System","Asia Continental (tropical montane region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System:Asia Continental (tropical montane region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G173*('Land Data'!G448*(1-'Land Data'!J448))*MM_CO2/MM_C/D448+Reversion_Data!K173)","v":-3.004998778677463},{"$f":"IF(J448=1,Reversion_Data!L173,(((((H448/G448)^2+(K448/(1-J448))^2)^0.5)*(G448*(1-J448))*MM_CO2/MM_C/D448)^2+Reversion_Data!L173^2)^0.5)","v":1.5024993893387315},-3.004998778677463,1.5024993893387315,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Mountain System","Asia Insular (tropical montane region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System:Asia Insular (tropical montane region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G174*('Land Data'!G449*(1-'Land Data'!J449))*MM_CO2/MM_C/D449+Reversion_Data!K174)","v":-9.9087450000000015},{"$f":"IF(J449=1,Reversion_Data!L174,(((((H449/G449)^2+(K449/(1-J449))^2)^0.5)*(G449*(1-J449))*MM_CO2/MM_C/D449)^2+Reversion_Data!L174^2)^0.5)","v":4.9543725000000007},-9.9087450000000015,4.9543725000000007,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Mountain System","Asia Insular (tropical montane region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System:Asia Insular (tropical montane region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G175*('Land Data'!G450*(1-'Land Data'!J450))*MM_CO2/MM_C/D450+Reversion_Data!K175)","v":-10.528476946693656},{"$f":"IF(J450=1,Reversion_Data!L175,(((((H450/G450)^2+(K450/(1-J450))^2)^0.5)*(G450*(1-J450))*MM_CO2/MM_C/D450)^2+Reversion_Data!L175^2)^0.5)","v":5.2642384733468282},-10.528476946693656,5.2642384733468282,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Mountain System","Asia Insular (tropical montane region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Mountain System:Asia Insular (tropical montane region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G176*('Land Data'!G451*(1-'Land Data'!J451))*MM_CO2/MM_C/D451+Reversion_Data!K176)","v":-4.872651666666667},{"$f":"IF(J451=1,Reversion_Data!L176,(((((H451/G451)^2+(K451/(1-J451))^2)^0.5)*(G451*(1-J451))*MM_CO2/MM_C/D451)^2+Reversion_Data!L176^2)^0.5)","v":2.4363258333333335},-4.872651666666667,2.4363258333333335,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland",{"$f":"B311","v":"Land reverting to Tropical Woody Savanna"},"Africa (tropical dry region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna:Africa (tropical dry region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G177*('Land Data'!G452*(1-'Land Data'!J452))*MM_CO2/MM_C/D452+Reversion_Data!K177)","v":-1.0856999999999999},{"$f":"IF(J452=1,Reversion_Data!L177,(((((H452/G452)^2+(K452/(1-J452))^2)^0.5)*(G452*(1-J452))*MM_CO2/MM_C/D452)^2+Reversion_Data!L177^2)^0.5)","v":0.54284999999999994},-1.0856999999999999,0.54284999999999994,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Woody Savanna","Africa (tropical dry region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna:Africa (tropical dry region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G178*('Land Data'!G453*(1-'Land Data'!J453))*MM_CO2/MM_C/D453+Reversion_Data!K178)","v":-1.6285499999999997},{"$f":"IF(J453=1,Reversion_Data!L178,(((((H453/G453)^2+(K453/(1-J453))^2)^0.5)*(G453*(1-J453))*MM_CO2/MM_C/D453)^2+Reversion_Data!L178^2)^0.5)","v":0.81427499999999986},-1.6285499999999997,0.81427499999999986,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Woody Savanna","Africa (tropical dry region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna:Africa (tropical dry region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G179*('Land Data'!G454*(1-'Land Data'!J454))*MM_CO2/MM_C/D454+Reversion_Data!K179)","v":-1.6888666666666665},{"$f":"IF(J454=1,Reversion_Data!L179,(((((H454/G454)^2+(K454/(1-J454))^2)^0.5)*(G454*(1-J454))*MM_CO2/MM_C/D454)^2+Reversion_Data!L179^2)^0.5)","v":0.84443333333333326},-1.6888666666666665,0.84443333333333326,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Woody Savanna","North America (tropical dry region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna:North America (tropical dry region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G180*('Land Data'!G455*(1-'Land Data'!J455))*MM_CO2/MM_C/D455+Reversion_Data!K180)","v":-6.1407499999999979},{"$f":"IF(J455=1,Reversion_Data!L180,(((((H455/G455)^2+(K455/(1-J455))^2)^0.5)*(G455*(1-J455))*MM_CO2/MM_C/D455)^2+Reversion_Data!L180^2)^0.5)","v":3.070374999999999},-6.1407499999999979,3.070374999999999,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Woody Savanna","North America (tropical dry region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna:North America (tropical dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G181*('Land Data'!G456*(1-'Land Data'!J456))*MM_CO2/MM_C/D456+Reversion_Data!K181)","v":-4.8253333333333339},{"$f":"IF(J456=1,Reversion_Data!L181,(((((H456/G456)^2+(K456/(1-J456))^2)^0.5)*(G456*(1-J456))*MM_CO2/MM_C/D456)^2+Reversion_Data!L181^2)^0.5)","v":2.412666666666667},-4.8253333333333339,2.412666666666667,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"A456","v":"Abandoned Perennial Cropland"},"Land reverting to Tropical Woody Savanna","North America (tropical dry region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna:North America (tropical dry region):100",{"$f":"F316","v":207.1},56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G182*('Land Data'!G457*(1-'Land Data'!J457))*MM_CO2/MM_C/D457+Reversion_Data!K182)","v":-1.9301333333333333},{"$f":"IF(J457=1,Reversion_Data!L182,(((((H457/G457)^2+(K457/(1-J457))^2)^0.5)*(G457*(1-J457))*MM_CO2/MM_C/D457)^2+Reversion_Data!L182^2)^0.5)","v":0.96506666666666663},-1.9301333333333333,0.96506666666666663,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Woody Savanna","South America (tropical dry region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna:South America (tropical dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G183*('Land Data'!G458*(1-'Land Data'!J458))*MM_CO2/MM_C/D458+Reversion_Data!K183)","v":-6.1407499999999979},{"$f":"IF(J458=1,Reversion_Data!L183,(((((H458/G458)^2+(K458/(1-J458))^2)^0.5)*(G458*(1-J458))*MM_CO2/MM_C/D458)^2+Reversion_Data!L183^2)^0.5)","v":3.070374999999999},-6.1407499999999979,3.070374999999999,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Woody Savanna","South America (tropical dry region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna:South America (tropical dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G184*('Land Data'!G459*(1-'Land Data'!J459))*MM_CO2/MM_C/D459+Reversion_Data!K184)","v":-4.8253333333333339},{"$f":"IF(J459=1,Reversion_Data!L184,(((((H459/G459)^2+(K459/(1-J459))^2)^0.5)*(G459*(1-J459))*MM_CO2/MM_C/D459)^2+Reversion_Data!L184^2)^0.5)","v":2.412666666666667},-4.8253333333333339,2.412666666666667,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Woody Savanna","South America (tropical dry region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna:South America (tropical dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G185*('Land Data'!G460*(1-'Land Data'!J460))*MM_CO2/MM_C/D460+Reversion_Data!K185)","v":-1.9301333333333333},{"$f":"IF(J460=1,Reversion_Data!L185,(((((H460/G460)^2+(K460/(1-J460))^2)^0.5)*(G460*(1-J460))*MM_CO2/MM_C/D460)^2+Reversion_Data!L185^2)^0.5)","v":0.96506666666666663},-1.9301333333333333,0.96506666666666663,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Woody Savanna","Asia Continental (tropical dry region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G186*('Land Data'!G461*(1-'Land Data'!J461))*MM_CO2/MM_C/D461+Reversion_Data!K186)","v":-6.8577688933873153},{"$f":"IF(J461=1,Reversion_Data!L186,(((((H461/G461)^2+(K461/(1-J461))^2)^0.5)*(G461*(1-J461))*MM_CO2/MM_C/D461)^2+Reversion_Data!L186^2)^0.5)","v":3.4288844466936577},-6.8577688933873153,3.4288844466936577,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Woody Savanna","Asia Continental (tropical dry region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G187*('Land Data'!G462*(1-'Land Data'!J462))*MM_CO2/MM_C/D462+Reversion_Data!K187)","v":-3.6189999999999998},{"$f":"IF(J462=1,Reversion_Data!L187,(((((H462/G462)^2+(K462/(1-J462))^2)^0.5)*(G462*(1-J462))*MM_CO2/MM_C/D462)^2+Reversion_Data!L187^2)^0.5)","v":1.8094999999999999},-3.6189999999999998,1.8094999999999999,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Woody Savanna","Asia Continental (tropical dry region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G188*('Land Data'!G463*(1-'Land Data'!J463))*MM_CO2/MM_C/D463+Reversion_Data!K188)","v":-1.4475999999999998},{"$f":"IF(J463=1,Reversion_Data!L188,(((((H463/G463)^2+(K463/(1-J463))^2)^0.5)*(G463*(1-J463))*MM_CO2/MM_C/D463)^2+Reversion_Data!L188^2)^0.5)","v":0.72379999999999989},-1.4475999999999998,0.72379999999999989,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Woody Savanna","Asia Insular (tropical dry region)",20,"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G189*('Land Data'!G464*(1-'Land Data'!J464))*MM_CO2/MM_C/D464+Reversion_Data!K189)","v":-3.7280833333333327},{"$f":"IF(J464=1,Reversion_Data!L189,(((((H464/G464)^2+(K464/(1-J464))^2)^0.5)*(G464*(1-J464))*MM_CO2/MM_C/D464)^2+Reversion_Data!L189^2)^0.5)","v":1.8640416666666664},-3.7280833333333327,1.8640416666666664,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Woody Savanna","Asia Insular (tropical dry region)",40,"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G190*('Land Data'!G465*(1-'Land Data'!J465))*MM_CO2/MM_C/D465+Reversion_Data!K190)","v":-3.6012177800269907},{"$f":"IF(J465=1,Reversion_Data!L190,(((((H465/G465)^2+(K465/(1-J465))^2)^0.5)*(G465*(1-J465))*MM_CO2/MM_C/D465)^2+Reversion_Data!L190^2)^0.5)","v":1.8006088900134953},-3.6012177800269907,1.8006088900134953,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Tropical Woody Savanna","Asia Insular (tropical dry region)",100,"Abandoned Perennial Cropland:Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G191*('Land Data'!G466*(1-'Land Data'!J466))*MM_CO2/MM_C/D466+Reversion_Data!K191)","v":-1.6888666666666665},{"$f":"IF(J466=1,Reversion_Data!L191,(((((H466/G466)^2+(K466/(1-J466))^2)^0.5)*(G466*(1-J466))*MM_CO2/MM_C/D466)^2+Reversion_Data!L191^2)^0.5)","v":0.84443333333333326},-1.6888666666666665,0.84443333333333326,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Perennial Cropland","Land reverting to Temperate Oceanic Forest","Europe (temperate moist region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Oceanic Forest:Europe (temperate moist region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G192*('Land Data'!G467*(1-'Land Data'!J467))*MM_CO2/MM_C/D467+Reversion_Data!K192)","v":-4.3272349999999991},{"$f":"IF(J467=1,Reversion_Data!L192,(((((H467/G467)^2+(K467/(1-J467))^2)^0.5)*(G467*(1-J467))*MM_CO2/MM_C/D467)^2+Reversion_Data!L192^2)^0.5)","v":2.1636174999999995},-4.3272349999999991,2.1636174999999995,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Oceanic Forest","Europe (temperate moist region)",40,"Abandoned Perennial Cropland:Land reverting to Temperate Oceanic Forest:Europe (temperate moist region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G193*('Land Data'!G468*(1-'Land Data'!J468))*MM_CO2/MM_C/D468+Reversion_Data!K193)","v":-5.1341858333333334},{"$f":"IF(J468=1,Reversion_Data!L193,(((((H468/G468)^2+(K468/(1-J468))^2)^0.5)*(G468*(1-J468))*MM_CO2/MM_C/D468)^2+Reversion_Data!L193^2)^0.5)","v":2.5670929166666667},-5.1341858333333334,2.5670929166666667,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Oceanic Forest","Europe (temperate moist region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Oceanic Forest:Europe (temperate moist region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G194*('Land Data'!G469*(1-'Land Data'!J469))*MM_CO2/MM_C/D469+Reversion_Data!K194)","v":-3.08},{"$f":"IF(J469=1,Reversion_Data!L194,(((((H469/G469)^2+(K469/(1-J469))^2)^0.5)*(G469*(1-J469))*MM_CO2/MM_C/D469)^2+Reversion_Data!L194^2)^0.5)","v":1.54},-3.08,1.54,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Oceanic Forest","North America (temperate moist region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Oceanic Forest:North America (temperate moist region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G195*('Land Data'!G470*(1-'Land Data'!J470))*MM_CO2/MM_C/D470+Reversion_Data!K195)","v":-18.213103333333333},{"$f":"IF(J470=1,Reversion_Data!L195,(((((H470/G470)^2+(K470/(1-J470))^2)^0.5)*(G470*(1-J470))*MM_CO2/MM_C/D470)^2+Reversion_Data!L195^2)^0.5)","v":9.1065516666666664},-18.213103333333333,9.1065516666666664,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Oceanic Forest","North America (temperate moist region)",40,"Abandoned Perennial Cropland:Land reverting to Temperate Oceanic Forest:North America (temperate moist region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G196*('Land Data'!G471*(1-'Land Data'!J471))*MM_CO2/MM_C/D471+Reversion_Data!K196)","v":-25.962988333333328},{"$f":"IF(J471=1,Reversion_Data!L196,(((((H471/G471)^2+(K471/(1-J471))^2)^0.5)*(G471*(1-J471))*MM_CO2/MM_C/D471)^2+Reversion_Data!L196^2)^0.5)","v":12.981494166666664},-25.962988333333328,12.981494166666664,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland",{"$f":"B331","v":"Land reverting to Temperate Oceanic Forest"},"North America (temperate moist region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Oceanic Forest:North America (temperate moist region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G197*('Land Data'!G472*(1-'Land Data'!J472))*MM_CO2/MM_C/D472+Reversion_Data!K197)","v":-14.886666666666665},{"$f":"IF(J472=1,Reversion_Data!L197,(((((H472/G472)^2+(K472/(1-J472))^2)^0.5)*(G472*(1-J472))*MM_CO2/MM_C/D472)^2+Reversion_Data!L197^2)^0.5)","v":7.4433333333333325},-14.886666666666665,7.4433333333333325,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Oceanic Forest","New Zealand (temperate moist region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region):20",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G198*('Land Data'!G473*(1-'Land Data'!J473))*MM_CO2/MM_C/D473+Reversion_Data!K198)","v":-5.6310283333333331},{"$f":"IF(J473=1,Reversion_Data!L198,(((((H473/G473)^2+(K473/(1-J473))^2)^0.5)*(G473*(1-J473))*MM_CO2/MM_C/D473)^2+Reversion_Data!L198^2)^0.5)","v":2.8155141666666665},-5.6310283333333331,2.8155141666666665,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Oceanic Forest","New Zealand (temperate moist region)",40,"Abandoned Perennial Cropland:Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region):40",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G199*('Land Data'!G474*(1-'Land Data'!J474))*MM_CO2/MM_C/D474+Reversion_Data!K199)","v":-7.0898758333333349},{"$f":"IF(J474=1,Reversion_Data!L199,(((((H474/G474)^2+(K474/(1-J474))^2)^0.5)*(G474*(1-J474))*MM_CO2/MM_C/D474)^2+Reversion_Data!L199^2)^0.5)","v":3.5449379166666675},-7.0898758333333349,3.5449379166666675,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Oceanic Forest","New Zealand (temperate moist region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region):100",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G200*('Land Data'!G475*(1-'Land Data'!J475))*MM_CO2/MM_C/D475+Reversion_Data!K200)","v":-7.6097816666666667},{"$f":"IF(J475=1,Reversion_Data!L200,(((((H475/G475)^2+(K475/(1-J475))^2)^0.5)*(G475*(1-J475))*MM_CO2/MM_C/D475)^2+Reversion_Data!L200^2)^0.5)","v":3.8048908333333333},-7.6097816666666667,3.8048908333333333,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Oceanic Forest","South America (temperate moist region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Oceanic Forest:South America (temperate moist region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G201*('Land Data'!G476*(1-'Land Data'!J476))*MM_CO2/MM_C/D476+Reversion_Data!K201)","v":-8.0000158333333342},{"$f":"IF(J476=1,Reversion_Data!L201,(((((H476/G476)^2+(K476/(1-J476))^2)^0.5)*(G476*(1-J476))*MM_CO2/MM_C/D476)^2+Reversion_Data!L201^2)^0.5)","v":4.0000079166666671},-8.0000158333333342,4.0000079166666671,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Oceanic Forest","South America (temperate moist region)",40,"Abandoned Perennial Cropland:Land reverting to Temperate Oceanic Forest:South America (temperate moist region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G202*('Land Data'!G477*(1-'Land Data'!J477))*MM_CO2/MM_C/D477+Reversion_Data!K202)","v":-10.265673771929825},{"$f":"IF(J477=1,Reversion_Data!L202,(((((H477/G477)^2+(K477/(1-J477))^2)^0.5)*(G477*(1-J477))*MM_CO2/MM_C/D477)^2+Reversion_Data!L202^2)^0.5)","v":5.1328368859649123},-10.265673771929825,5.1328368859649123,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Oceanic Forest","South America (temperate moist region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Oceanic Forest:South America (temperate moist region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G203*('Land Data'!G478*(1-'Land Data'!J478))*MM_CO2/MM_C/D478+Reversion_Data!K203)","v":-4.3999999999999995},{"$f":"IF(J478=1,Reversion_Data!L203,(((((H478/G478)^2+(K478/(1-J478))^2)^0.5)*(G478*(1-J478))*MM_CO2/MM_C/D478)^2+Reversion_Data!L203^2)^0.5)","v":2.1999999999999997},-4.3999999999999995,2.1999999999999997,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Continental Forest","Europe (temperate dry region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Continental Forest:Europe (temperate dry region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G204*('Land Data'!G479*(1-'Land Data'!J479))*MM_CO2/MM_C/D479+Reversion_Data!K204)","v":-6.2975733333333332},{"$f":"IF(J479=1,Reversion_Data!L204,(((((H479/G479)^2+(K479/(1-J479))^2)^0.5)*(G479*(1-J479))*MM_CO2/MM_C/D479)^2+Reversion_Data!L204^2)^0.5)","v":3.1487866666666666},-6.2975733333333332,3.1487866666666666,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Continental Forest","Europe (temperate dry region)",40,"Abandoned Perennial Cropland:Land reverting to Temperate Continental Forest:Europe (temperate dry region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G205*('Land Data'!G480*(1-'Land Data'!J480))*MM_CO2/MM_C/D480+Reversion_Data!K205)","v":-7.4113599999999993},{"$f":"IF(J480=1,Reversion_Data!L205,(((((H480/G480)^2+(K480/(1-J480))^2)^0.5)*(G480*(1-J480))*MM_CO2/MM_C/D480)^2+Reversion_Data!L205^2)^0.5)","v":3.7056799999999996},-7.4113599999999993,3.7056799999999996,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Continental Forest","Europe (temperate dry region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Continental Forest:Europe (temperate dry region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G206*('Land Data'!G481*(1-'Land Data'!J481))*MM_CO2/MM_C/D481+Reversion_Data!K206)","v":-3.19},{"$f":"IF(J481=1,Reversion_Data!L206,(((((H481/G481)^2+(K481/(1-J481))^2)^0.5)*(G481*(1-J481))*MM_CO2/MM_C/D481)^2+Reversion_Data!L206^2)^0.5)","v":1.595},-3.19,1.595,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Continental Forest","North America (temperate dry region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Continental Forest:North America (temperate dry region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G207*('Land Data'!G482*(1-'Land Data'!J482))*MM_CO2/MM_C/D482+Reversion_Data!K207)","v":-6.2987099999999998},{"$f":"IF(J482=1,Reversion_Data!L207,(((((H482/G482)^2+(K482/(1-J482))^2)^0.5)*(G482*(1-J482))*MM_CO2/MM_C/D482)^2+Reversion_Data!L207^2)^0.5)","v":3.1493549999999999},-6.2987099999999998,3.1493549999999999,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Continental Forest","North America (temperate dry region)",40,"Abandoned Perennial Cropland:Land reverting to Temperate Continental Forest:North America (temperate dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G208*('Land Data'!G483*(1-'Land Data'!J483))*MM_CO2/MM_C/D483+Reversion_Data!K208)","v":-7.707898771929826},{"$f":"IF(J483=1,Reversion_Data!L208,(((((H483/G483)^2+(K483/(1-J483))^2)^0.5)*(G483*(1-J483))*MM_CO2/MM_C/D483)^2+Reversion_Data!L208^2)^0.5)","v":3.853949385964913},-7.707898771929826,3.853949385964913,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Continental Forest","North America (temperate dry region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Continental Forest:North America (temperate dry region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G209*('Land Data'!G484*(1-'Land Data'!J484))*MM_CO2/MM_C/D484+Reversion_Data!K209)","v":-3.41},{"$f":"IF(J484=1,Reversion_Data!L209,(((((H484/G484)^2+(K484/(1-J484))^2)^0.5)*(G484*(1-J484))*MM_CO2/MM_C/D484)^2+Reversion_Data!L209^2)^0.5)","v":1.7050000000000001},-3.41,1.7050000000000001,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Continental Forest","New Zealand (temperate dry region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Continental Forest:New Zealand (temperate dry region):20",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G210*('Land Data'!G485*(1-'Land Data'!J485))*MM_CO2/MM_C/D485+Reversion_Data!K210)","v":-6.2975733333333332},{"$f":"IF(J485=1,Reversion_Data!L210,(((((H485/G485)^2+(K485/(1-J485))^2)^0.5)*(G485*(1-J485))*MM_CO2/MM_C/D485)^2+Reversion_Data!L210^2)^0.5)","v":3.1487866666666666},-6.2975733333333332,3.1487866666666666,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Continental Forest","New Zealand (temperate dry region)",40,"Abandoned Perennial Cropland:Land reverting to Temperate Continental Forest:New Zealand (temperate dry region):40",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G211*('Land Data'!G486*(1-'Land Data'!J486))*MM_CO2/MM_C/D486+Reversion_Data!K211)","v":-7.4113599999999993},{"$f":"IF(J486=1,Reversion_Data!L211,(((((H486/G486)^2+(K486/(1-J486))^2)^0.5)*(G486*(1-J486))*MM_CO2/MM_C/D486)^2+Reversion_Data!L211^2)^0.5)","v":3.7056799999999996},-7.4113599999999993,3.7056799999999996,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Continental Forest","New Zealand (temperate dry region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Continental Forest:New Zealand (temperate dry region):100",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G212*('Land Data'!G487*(1-'Land Data'!J487))*MM_CO2/MM_C/D487+Reversion_Data!K212)","v":-3.19},{"$f":"IF(J487=1,Reversion_Data!L212,(((((H487/G487)^2+(K487/(1-J487))^2)^0.5)*(G487*(1-J487))*MM_CO2/MM_C/D487)^2+Reversion_Data!L212^2)^0.5)","v":1.595},-3.19,1.595,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Continental Forest","South America (temperate dry region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Continental Forest:South America (temperate dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G213*('Land Data'!G488*(1-'Land Data'!J488))*MM_CO2/MM_C/D488+Reversion_Data!K213)","v":-6.2987099999999998},{"$f":"IF(J488=1,Reversion_Data!L213,(((((H488/G488)^2+(K488/(1-J488))^2)^0.5)*(G488*(1-J488))*MM_CO2/MM_C/D488)^2+Reversion_Data!L213^2)^0.5)","v":3.1493549999999999},-6.2987099999999998,3.1493549999999999,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"A488","v":"Abandoned Perennial Cropland"},"Land reverting to Temperate Continental Forest","South America (temperate dry region)",40,"Abandoned Perennial Cropland:Land reverting to Temperate Continental Forest:South America (temperate dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G214*('Land Data'!G489*(1-'Land Data'!J489))*MM_CO2/MM_C/D489+Reversion_Data!K214)","v":-7.707898771929826},{"$f":"IF(J489=1,Reversion_Data!L214,(((((H489/G489)^2+(K489/(1-J489))^2)^0.5)*(G489*(1-J489))*MM_CO2/MM_C/D489)^2+Reversion_Data!L214^2)^0.5)","v":3.853949385964913},-7.707898771929826,3.853949385964913,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Continental Forest","South America (temperate dry region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Continental Forest:South America (temperate dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G215*('Land Data'!G490*(1-'Land Data'!J490))*MM_CO2/MM_C/D490+Reversion_Data!K215)","v":-3.41},{"$f":"IF(J490=1,Reversion_Data!L215,(((((H490/G490)^2+(K490/(1-J490))^2)^0.5)*(G490*(1-J490))*MM_CO2/MM_C/D490)^2+Reversion_Data!L215^2)^0.5)","v":1.7050000000000001},-3.41,1.7050000000000001,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Mountain System","Europe (temperate moist region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Mountain System:Europe (temperate moist region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G216*('Land Data'!G491*(1-'Land Data'!J491))*MM_CO2/MM_C/D491+Reversion_Data!K216)","v":-5.204393333333333},{"$f":"IF(J491=1,Reversion_Data!L216,(((((H491/G491)^2+(K491/(1-J491))^2)^0.5)*(G491*(1-J491))*MM_CO2/MM_C/D491)^2+Reversion_Data!L216^2)^0.5)","v":2.6021966666666665},-5.204393333333333,2.6021966666666665,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland",{"$f":"B351","v":"Land reverting to Temperate Mountain System"},"Europe (temperate moist region)",40,"Abandoned Perennial Cropland:Land reverting to Temperate Mountain System:Europe (temperate moist region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G217*('Land Data'!G492*(1-'Land Data'!J492))*MM_CO2/MM_C/D492+Reversion_Data!K217)","v":-6.4153987719298255},{"$f":"IF(J492=1,Reversion_Data!L217,(((((H492/G492)^2+(K492/(1-J492))^2)^0.5)*(G492*(1-J492))*MM_CO2/MM_C/D492)^2+Reversion_Data!L217^2)^0.5)","v":3.2076993859649128},-6.4153987719298255,3.2076993859649128,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Mountain System","Europe (temperate moist region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Mountain System:Europe (temperate moist region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G218*('Land Data'!G493*(1-'Land Data'!J493))*MM_CO2/MM_C/D493+Reversion_Data!K218)","v":-3.41},{"$f":"IF(J493=1,Reversion_Data!L218,(((((H493/G493)^2+(K493/(1-J493))^2)^0.5)*(G493*(1-J493))*MM_CO2/MM_C/D493)^2+Reversion_Data!L218^2)^0.5)","v":1.7050000000000001},-3.41,1.7050000000000001,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Mountain System","North America (temperate moist region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Mountain System:North America (temperate moist region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G219*('Land Data'!G494*(1-'Land Data'!J494))*MM_CO2/MM_C/D494+Reversion_Data!K219)","v":-5.204393333333333},{"$f":"IF(J494=1,Reversion_Data!L219,(((((H494/G494)^2+(K494/(1-J494))^2)^0.5)*(G494*(1-J494))*MM_CO2/MM_C/D494)^2+Reversion_Data!L219^2)^0.5)","v":2.6021966666666665},-5.204393333333333,2.6021966666666665,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Mountain System","North America (temperate moist region)",40,{"$f":"A495&\":\"&B495&\":\"&C495&\":\"&D495","v":"Abandoned Perennial Cropland:Land reverting to Temperate Mountain System:North America (temperate moist region):40"},207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,{"$f":"P495+Q495","v":0},0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G220*('Land Data'!G495*(1-'Land Data'!J495))*MM_CO2/MM_C/D495+Reversion_Data!K220)","v":-6.4153987719298255},{"$f":"IF(J495=1,Reversion_Data!L220,(((((H495/G495)^2+(K495/(1-J495))^2)^0.5)*(G495*(1-J495))*MM_CO2/MM_C/D495)^2+Reversion_Data!L220^2)^0.5)","v":3.2076993859649128},-6.4153987719298255,3.2076993859649128,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Mountain System","North America (temperate moist region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Mountain System:North America (temperate moist region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G221*('Land Data'!G496*(1-'Land Data'!J496))*MM_CO2/MM_C/D496+Reversion_Data!K221)","v":-3.41},{"$f":"IF(J496=1,Reversion_Data!L221,(((((H496/G496)^2+(K496/(1-J496))^2)^0.5)*(G496*(1-J496))*MM_CO2/MM_C/D496)^2+Reversion_Data!L221^2)^0.5)","v":1.7050000000000001},-3.41,1.7050000000000001,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Mountain System","New Zealand (temperate moist region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Mountain System:New Zealand (temperate moist region):20",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G222*('Land Data'!G497*(1-'Land Data'!J497))*MM_CO2/MM_C/D497+Reversion_Data!K222)","v":-5.204393333333333},{"$f":"IF(J497=1,Reversion_Data!L222,(((((H497/G497)^2+(K497/(1-J497))^2)^0.5)*(G497*(1-J497))*MM_CO2/MM_C/D497)^2+Reversion_Data!L222^2)^0.5)","v":2.6021966666666665},-5.204393333333333,2.6021966666666665,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Mountain System","New Zealand (temperate moist region)",40,"Abandoned Perennial Cropland:Land reverting to Temperate Mountain System:New Zealand (temperate moist region):40",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G223*('Land Data'!G498*(1-'Land Data'!J498))*MM_CO2/MM_C/D498+Reversion_Data!K223)","v":-6.4153987719298255},{"$f":"IF(J498=1,Reversion_Data!L223,(((((H498/G498)^2+(K498/(1-J498))^2)^0.5)*(G498*(1-J498))*MM_CO2/MM_C/D498)^2+Reversion_Data!L223^2)^0.5)","v":3.2076993859649128},-6.4153987719298255,3.2076993859649128,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Mountain System","New Zealand (temperate moist region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Mountain System:New Zealand (temperate moist region):100",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G224*('Land Data'!G499*(1-'Land Data'!J499))*MM_CO2/MM_C/D499+Reversion_Data!K224)","v":-3.41},{"$f":"IF(J499=1,Reversion_Data!L224,(((((H499/G499)^2+(K499/(1-J499))^2)^0.5)*(G499*(1-J499))*MM_CO2/MM_C/D499)^2+Reversion_Data!L224^2)^0.5)","v":1.7050000000000001},-3.41,1.7050000000000001,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Mountain System","South America (temperate moist region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Mountain System:South America (temperate moist region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G225*('Land Data'!G500*(1-'Land Data'!J500))*MM_CO2/MM_C/D500+Reversion_Data!K225)","v":-5.204393333333333},{"$f":"IF(J500=1,Reversion_Data!L225,(((((H500/G500)^2+(K500/(1-J500))^2)^0.5)*(G500*(1-J500))*MM_CO2/MM_C/D500)^2+Reversion_Data!L225^2)^0.5)","v":2.6021966666666665},-5.204393333333333,2.6021966666666665,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Mountain System","South America (temperate moist region)",40,"Abandoned Perennial Cropland:Land reverting to Temperate Mountain System:South America (temperate moist region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G226*('Land Data'!G501*(1-'Land Data'!J501))*MM_CO2/MM_C/D501+Reversion_Data!K226)","v":-6.4153987719298255},{"$f":"IF(J501=1,Reversion_Data!L226,(((((H501/G501)^2+(K501/(1-J501))^2)^0.5)*(G501*(1-J501))*MM_CO2/MM_C/D501)^2+Reversion_Data!L226^2)^0.5)","v":3.2076993859649128},-6.4153987719298255,3.2076993859649128,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Mountain System","South America (temperate moist region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Mountain System:South America (temperate moist region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G227*('Land Data'!G502*(1-'Land Data'!J502))*MM_CO2/MM_C/D502+Reversion_Data!K227)","v":-3.41},{"$f":"IF(J502=1,Reversion_Data!L227,(((((H502/G502)^2+(K502/(1-J502))^2)^0.5)*(G502*(1-J502))*MM_CO2/MM_C/D502)^2+Reversion_Data!L227^2)^0.5)","v":1.7050000000000001},-3.41,1.7050000000000001,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Shrub or Grassland","Europe (temperate dry region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G228*('Land Data'!G503*(1-'Land Data'!J503))*MM_CO2/MM_C/D503+Reversion_Data!K228)","v":-1.3566666666666667},{"$f":"IF(J503=1,Reversion_Data!L228,(((((H503/G503)^2+(K503/(1-J503))^2)^0.5)*(G503*(1-J503))*MM_CO2/MM_C/D503)^2+Reversion_Data!L228^2)^0.5)","v":0.67833333333333334},-1.3566666666666667,0.67833333333333334,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Shrub or Grassland","Europe (temperate dry region)",40,"Abandoned Perennial Cropland:Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G229*('Land Data'!G504*(1-'Land Data'!J504))*MM_CO2/MM_C/D504+Reversion_Data!K229)","v":-0.67833333333333334},{"$f":"IF(J504=1,Reversion_Data!L229,(((((H504/G504)^2+(K504/(1-J504))^2)^0.5)*(G504*(1-J504))*MM_CO2/MM_C/D504)^2+Reversion_Data!L229^2)^0.5)","v":0.33916666666666667},-0.67833333333333334,0.33916666666666667,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Shrub or Grassland","Europe (temperate dry region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G230*('Land Data'!G505*(1-'Land Data'!J505))*MM_CO2/MM_C/D505+Reversion_Data!K230)","v":-0.27133333333333337},{"$f":"IF(J505=1,Reversion_Data!L230,(((((H505/G505)^2+(K505/(1-J505))^2)^0.5)*(G505*(1-J505))*MM_CO2/MM_C/D505)^2+Reversion_Data!L230^2)^0.5)","v":0.13566666666666669},-0.27133333333333337,0.13566666666666669,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Shrub or Grassland","North America (temperate dry region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Shrub or Grassland:North America (temperate dry region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G231*('Land Data'!G506*(1-'Land Data'!J506))*MM_CO2/MM_C/D506+Reversion_Data!K231)","v":-1.3566666666666667},{"$f":"IF(J506=1,Reversion_Data!L231,(((((H506/G506)^2+(K506/(1-J506))^2)^0.5)*(G506*(1-J506))*MM_CO2/MM_C/D506)^2+Reversion_Data!L231^2)^0.5)","v":0.67833333333333334},-1.3566666666666667,0.67833333333333334,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Shrub or Grassland","North America (temperate dry region)",40,"Abandoned Perennial Cropland:Land reverting to Temperate Shrub or Grassland:North America (temperate dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G232*('Land Data'!G507*(1-'Land Data'!J507))*MM_CO2/MM_C/D507+Reversion_Data!K232)","v":-0.67833333333333334},{"$f":"IF(J507=1,Reversion_Data!L232,(((((H507/G507)^2+(K507/(1-J507))^2)^0.5)*(G507*(1-J507))*MM_CO2/MM_C/D507)^2+Reversion_Data!L232^2)^0.5)","v":0.33916666666666667},{"$f":"AI507","v":-0.67833333333333334},{"$f":"AJ507","v":0.33916666666666667},"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Shrub or Grassland","North America (temperate dry region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Shrub or Grassland:North America (temperate dry region):100",207.1,{"$f":"F508*MM_C/MM_CO2","v":56.481818181818177},{"$f":"error_SOC*G508","v":25.416818181818179},"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G233*('Land Data'!G508*(1-'Land Data'!J508))*MM_CO2/MM_C/D508+Reversion_Data!K233)","v":-0.27133333333333337},{"$f":"IF(J508=1,Reversion_Data!L233,(((((H508/G508)^2+(K508/(1-J508))^2)^0.5)*(G508*(1-J508))*MM_CO2/MM_C/D508)^2+Reversion_Data!L233^2)^0.5)","v":0.13566666666666669},-0.27133333333333337,0.13566666666666669,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Shrub or Grassland","New Zealand (temperate dry region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region):20",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G234*('Land Data'!G509*(1-'Land Data'!J509))*MM_CO2/MM_C/D509+Reversion_Data!K234)","v":-1.3566666666666667},{"$f":"IF(J509=1,Reversion_Data!L234,(((((H509/G509)^2+(K509/(1-J509))^2)^0.5)*(G509*(1-J509))*MM_CO2/MM_C/D509)^2+Reversion_Data!L234^2)^0.5)","v":0.67833333333333334},-1.3566666666666667,0.67833333333333334,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Shrub or Grassland","New Zealand (temperate dry region)",40,"Abandoned Perennial Cropland:Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region):40",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G235*('Land Data'!G510*(1-'Land Data'!J510))*MM_CO2/MM_C/D510+Reversion_Data!K235)","v":-0.67833333333333334},{"$f":"IF(J510=1,Reversion_Data!L235,(((((H510/G510)^2+(K510/(1-J510))^2)^0.5)*(G510*(1-J510))*MM_CO2/MM_C/D510)^2+Reversion_Data!L235^2)^0.5)","v":0.33916666666666667},-0.67833333333333334,0.33916666666666667,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Shrub or Grassland","New Zealand (temperate dry region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region):100",272,74.181818181818187,33.381818181818183,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G236*('Land Data'!G511*(1-'Land Data'!J511))*MM_CO2/MM_C/D511+Reversion_Data!K236)","v":-0.27133333333333337},{"$f":"IF(J511=1,Reversion_Data!L236,(((((H511/G511)^2+(K511/(1-J511))^2)^0.5)*(G511*(1-J511))*MM_CO2/MM_C/D511)^2+Reversion_Data!L236^2)^0.5)","v":0.13566666666666669},-0.27133333333333337,0.13566666666666669,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland",{"$f":"B371","v":"Land reverting to Temperate Shrub or Grassland"},"South America (temperate dry region)",20,"Abandoned Perennial Cropland:Land reverting to Temperate Shrub or Grassland:South America (temperate dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G237*('Land Data'!G512*(1-'Land Data'!J512))*MM_CO2/MM_C/D512+Reversion_Data!K237)","v":-1.3566666666666667},{"$f":"IF(J512=1,Reversion_Data!L237,(((((H512/G512)^2+(K512/(1-J512))^2)^0.5)*(G512*(1-J512))*MM_CO2/MM_C/D512)^2+Reversion_Data!L237^2)^0.5)","v":0.67833333333333334},-1.3566666666666667,0.67833333333333334,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Shrub or Grassland","South America (temperate dry region)",40,"Abandoned Perennial Cropland:Land reverting to Temperate Shrub or Grassland:South America (temperate dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G238*('Land Data'!G513*(1-'Land Data'!J513))*MM_CO2/MM_C/D513+Reversion_Data!K238)","v":-0.67833333333333334},{"$f":"IF(J513=1,Reversion_Data!L238,(((((H513/G513)^2+(K513/(1-J513))^2)^0.5)*(G513*(1-J513))*MM_CO2/MM_C/D513)^2+Reversion_Data!L238^2)^0.5)","v":0.33916666666666667},-0.67833333333333334,0.33916666666666667,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Temperate Shrub or Grassland","South America (temperate dry region)",100,"Abandoned Perennial Cropland:Land reverting to Temperate Shrub or Grassland:South America (temperate dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G239*('Land Data'!G514*(1-'Land Data'!J514))*MM_CO2/MM_C/D514+Reversion_Data!K239)","v":-0.27133333333333337},{"$f":"IF(J514=1,Reversion_Data!L239,(((((H514/G514)^2+(K514/(1-J514))^2)^0.5)*(G514*(1-J514))*MM_CO2/MM_C/D514)^2+Reversion_Data!L239^2)^0.5)","v":0.13566666666666669},-0.27133333333333337,0.13566666666666669,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Coniferous Forest","Europe (boreal region)",20,"Abandoned Perennial Cropland:Land reverting to Boreal Coniferous Forest:Europe (boreal region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G243*('Land Data'!G515*(1-'Land Data'!J515))*MM_CO2/MM_C/D515+Reversion_Data!K243)","v":-2.9806883333333332},{"$f":"IF(J515=1,Reversion_Data!L243,(((((H515/G515)^2+(K515/(1-J515))^2)^0.5)*(G515*(1-J515))*MM_CO2/MM_C/D515)^2+Reversion_Data!L243^2)^0.5)","v":1.4903441666666666},-2.9806883333333332,1.4903441666666666,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Coniferous Forest","Europe (boreal region)",40,"Abandoned Perennial Cropland:Land reverting to Boreal Coniferous Forest:Europe (boreal region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G244*('Land Data'!G516*(1-'Land Data'!J516))*MM_CO2/MM_C/D516+Reversion_Data!K244)","v":-3.6530083333333336},{"$f":"IF(J516=1,Reversion_Data!L244,(((((H516/G516)^2+(K516/(1-J516))^2)^0.5)*(G516*(1-J516))*MM_CO2/MM_C/D516)^2+Reversion_Data!L244^2)^0.5)","v":1.8265041666666668},-3.6530083333333336,1.8265041666666668,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Coniferous Forest","Europe (boreal region)",100,"Abandoned Perennial Cropland:Land reverting to Boreal Coniferous Forest:Europe (boreal region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G245*('Land Data'!G517*(1-'Land Data'!J517))*MM_CO2/MM_C/D517+Reversion_Data!K245)","v":-2.0725833333333337},{"$f":"IF(J517=1,Reversion_Data!L245,(((((H517/G517)^2+(K517/(1-J517))^2)^0.5)*(G517*(1-J517))*MM_CO2/MM_C/D517)^2+Reversion_Data!L245^2)^0.5)","v":1.0362916666666668},-2.0725833333333337,1.0362916666666668,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Coniferous Forest","North America (boreal region)",20,"Abandoned Perennial Cropland:Land reverting to Boreal Coniferous Forest:North America (boreal region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G246*('Land Data'!G518*(1-'Land Data'!J518))*MM_CO2/MM_C/D518+Reversion_Data!K246)","v":-2.9806883333333332},{"$f":"IF(J518=1,Reversion_Data!L246,(((((H518/G518)^2+(K518/(1-J518))^2)^0.5)*(G518*(1-J518))*MM_CO2/MM_C/D518)^2+Reversion_Data!L246^2)^0.5)","v":1.4903441666666666},-2.9806883333333332,1.4903441666666666,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Coniferous Forest","North America (boreal region)",40,"Abandoned Perennial Cropland:Land reverting to Boreal Coniferous Forest:North America (boreal region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G247*('Land Data'!G519*(1-'Land Data'!J519))*MM_CO2/MM_C/D519+Reversion_Data!K247)","v":-3.6530083333333336},{"$f":"IF(J519=1,Reversion_Data!L247,(((((H519/G519)^2+(K519/(1-J519))^2)^0.5)*(G519*(1-J519))*MM_CO2/MM_C/D519)^2+Reversion_Data!L247^2)^0.5)","v":1.8265041666666668},-3.6530083333333336,1.8265041666666668,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Coniferous Forest","North America (boreal region)",100,"Abandoned Perennial Cropland:Land reverting to Boreal Coniferous Forest:North America (boreal region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G248*('Land Data'!G520*(1-'Land Data'!J520))*MM_CO2/MM_C/D520+Reversion_Data!K248)","v":-2.0725833333333337},{"$f":"IF(J520=1,Reversion_Data!L248,(((((H520/G520)^2+(K520/(1-J520))^2)^0.5)*(G520*(1-J520))*MM_CO2/MM_C/D520)^2+Reversion_Data!L248^2)^0.5)","v":1.0362916666666668},-2.0725833333333337,1.0362916666666668,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"A520","v":"Abandoned Perennial Cropland"},"Land reverting to Boreal Coniferous Forest","Asia Continental (boreal region)",20,"Abandoned Perennial Cropland:Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region):20",{"$f":"F380","v":161},43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G249*('Land Data'!G521*(1-'Land Data'!J521))*MM_CO2/MM_C/D521+Reversion_Data!K249)","v":-2.9806883333333332},{"$f":"IF(J521=1,Reversion_Data!L249,(((((H521/G521)^2+(K521/(1-J521))^2)^0.5)*(G521*(1-J521))*MM_CO2/MM_C/D521)^2+Reversion_Data!L249^2)^0.5)","v":1.4903441666666666},-2.9806883333333332,1.4903441666666666,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Coniferous Forest","Asia Continental (boreal region)",40,"Abandoned Perennial Cropland:Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G250*('Land Data'!G522*(1-'Land Data'!J522))*MM_CO2/MM_C/D522+Reversion_Data!K250)","v":-3.6530083333333336},{"$f":"IF(J522=1,Reversion_Data!L250,(((((H522/G522)^2+(K522/(1-J522))^2)^0.5)*(G522*(1-J522))*MM_CO2/MM_C/D522)^2+Reversion_Data!L250^2)^0.5)","v":1.8265041666666668},-3.6530083333333336,1.8265041666666668,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Coniferous Forest","Asia Continental (boreal region)",100,"Abandoned Perennial Cropland:Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G251*('Land Data'!G523*(1-'Land Data'!J523))*MM_CO2/MM_C/D523+Reversion_Data!K251)","v":-2.0725833333333337},{"$f":"IF(J523=1,Reversion_Data!L251,(((((H523/G523)^2+(K523/(1-J523))^2)^0.5)*(G523*(1-J523))*MM_CO2/MM_C/D523)^2+Reversion_Data!L251^2)^0.5)","v":1.0362916666666668},-2.0725833333333337,1.0362916666666668,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Tundra","Europe (boreal region)",20,"Abandoned Perennial Cropland:Land reverting to Boreal Tundra:Europe (boreal region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G252*('Land Data'!G524*(1-'Land Data'!J524))*MM_CO2/MM_C/D524+Reversion_Data!K252)","v":-2.657141666666667},{"$f":"IF(J524=1,Reversion_Data!L252,(((((H524/G524)^2+(K524/(1-J524))^2)^0.5)*(G524*(1-J524))*MM_CO2/MM_C/D524)^2+Reversion_Data!L252^2)^0.5)","v":1.3285708333333335},-2.657141666666667,1.3285708333333335,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Tundra","Europe (boreal region)",40,"Abandoned Perennial Cropland:Land reverting to Boreal Tundra:Europe (boreal region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G253*('Land Data'!G525*(1-'Land Data'!J525))*MM_CO2/MM_C/D525+Reversion_Data!K253)","v":-2.657141666666667},{"$f":"IF(J525=1,Reversion_Data!L253,(((((H525/G525)^2+(K525/(1-J525))^2)^0.5)*(G525*(1-J525))*MM_CO2/MM_C/D525)^2+Reversion_Data!L253^2)^0.5)","v":1.3285708333333335},-2.657141666666667,1.3285708333333335,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Tundra","Europe (boreal region)",100,"Abandoned Perennial Cropland:Land reverting to Boreal Tundra:Europe (boreal region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G254*('Land Data'!G526*(1-'Land Data'!J526))*MM_CO2/MM_C/D526+Reversion_Data!K254)","v":-1.3285708333333333},{"$f":"IF(J526=1,Reversion_Data!L254,(((((H526/G526)^2+(K526/(1-J526))^2)^0.5)*(G526*(1-J526))*MM_CO2/MM_C/D526)^2+Reversion_Data!L254^2)^0.5)","v":0.66428541666666663},-1.3285708333333333,0.66428541666666663,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Tundra","North America (boreal region)",20,"Abandoned Perennial Cropland:Land reverting to Boreal Tundra:North America (boreal region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G255*('Land Data'!G527*(1-'Land Data'!J527))*MM_CO2/MM_C/D527+Reversion_Data!K255)","v":-2.657141666666667},{"$f":"IF(J527=1,Reversion_Data!L255,(((((H527/G527)^2+(K527/(1-J527))^2)^0.5)*(G527*(1-J527))*MM_CO2/MM_C/D527)^2+Reversion_Data!L255^2)^0.5)","v":1.3285708333333335},-2.657141666666667,1.3285708333333335,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Tundra","North America (boreal region)",40,"Abandoned Perennial Cropland:Land reverting to Boreal Tundra:North America (boreal region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G256*('Land Data'!G528*(1-'Land Data'!J528))*MM_CO2/MM_C/D528+Reversion_Data!K256)","v":-2.657141666666667},{"$f":"IF(J528=1,Reversion_Data!L256,(((((H528/G528)^2+(K528/(1-J528))^2)^0.5)*(G528*(1-J528))*MM_CO2/MM_C/D528)^2+Reversion_Data!L256^2)^0.5)","v":1.3285708333333335},-2.657141666666667,1.3285708333333335,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Tundra","North America (boreal region)",100,"Abandoned Perennial Cropland:Land reverting to Boreal Tundra:North America (boreal region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G257*('Land Data'!G529*(1-'Land Data'!J529))*MM_CO2/MM_C/D529+Reversion_Data!K257)","v":-1.3285708333333333},{"$f":"IF(J529=1,Reversion_Data!L257,(((((H529/G529)^2+(K529/(1-J529))^2)^0.5)*(G529*(1-J529))*MM_CO2/MM_C/D529)^2+Reversion_Data!L257^2)^0.5)","v":0.66428541666666663},-1.3285708333333333,0.66428541666666663,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Tundra","Asia Continental (boreal region)",20,"Abandoned Perennial Cropland:Land reverting to Boreal Tundra:Asia Continental (boreal region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G258*('Land Data'!G530*(1-'Land Data'!J530))*MM_CO2/MM_C/D530+Reversion_Data!K258)","v":-2.657141666666667},{"$f":"IF(J530=1,Reversion_Data!L258,(((((H530/G530)^2+(K530/(1-J530))^2)^0.5)*(G530*(1-J530))*MM_CO2/MM_C/D530)^2+Reversion_Data!L258^2)^0.5)","v":1.3285708333333335},-2.657141666666667,1.3285708333333335,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland","Land reverting to Boreal Tundra","Asia Continental (boreal region)",40,"Abandoned Perennial Cropland:Land reverting to Boreal Tundra:Asia Continental (boreal region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G259*('Land Data'!G531*(1-'Land Data'!J531))*MM_CO2/MM_C/D531+Reversion_Data!K259)","v":-2.657141666666667},{"$f":"IF(J531=1,Reversion_Data!L259,(((((H531/G531)^2+(K531/(1-J531))^2)^0.5)*(G531*(1-J531))*MM_CO2/MM_C/D531)^2+Reversion_Data!L259^2)^0.5)","v":1.3285708333333335},-2.657141666666667,1.3285708333333335,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Perennial Cropland",{"$f":"B391","v":"Land reverting to Boreal Tundra"},"Asia Continental (boreal region)",100,"Abandoned Perennial Cropland:Land reverting to Boreal Tundra:Asia Continental (boreal region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",1,0,1,0,"Abandoned land, after final crop has been harvested",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G260*('Land Data'!G532*(1-'Land Data'!J532))*MM_CO2/MM_C/D532+Reversion_Data!K260)","v":-1.3285708333333333},{"$f":"IF(J532=1,Reversion_Data!L260,(((((H532/G532)^2+(K532/(1-J532))^2)^0.5)*(G532*(1-J532))*MM_CO2/MM_C/D532)^2+Reversion_Data!L260^2)^0.5)","v":0.66428541666666663},-1.3285708333333333,0.66428541666666663,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"Lists!H82","v":"Abandoned Pasture"},"Land reverting to Tropical Rainforest","Africa (tropical wet region)",20,"Abandoned Pasture:Land reverting to Tropical Rainforest:Africa (tropical wet region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",0.7,{"$f":"25%*J533","v":0.17499999999999999},1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G117*('Land Data'!G533*(1-'Land Data'!J533))*MM_CO2/MM_C/D533+Reversion_Data!K117)","v":-13.839253333333332},{"$f":"IF(J533=1,Reversion_Data!L117,(((((H533/G533)^2+(K533/(1-J533))^2)^0.5)*(G533*(1-J533))*MM_CO2/MM_C/D533)^2+Reversion_Data!L117^2)^0.5)","v":6.719686127420271},-13.839253333333332,6.719686127420271,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",{"$f":"AVERAGE(0.368,0.857)","v":0.61250000000000004},"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"A533","v":"Abandoned Pasture"},"Land reverting to Tropical Rainforest","Africa (tropical wet region)",40,"Abandoned Pasture:Land reverting to Tropical Rainforest:Africa (tropical wet region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G118*('Land Data'!G534*(1-'Land Data'!J534))*MM_CO2/MM_C/D534+Reversion_Data!K118)","v":-15.091795833333334},{"$f":"IF(J534=1,Reversion_Data!L118,(((((H534/G534)^2+(K534/(1-J534))^2)^0.5)*(G534*(1-J534))*MM_CO2/MM_C/D534)^2+Reversion_Data!L118^2)^0.5)","v":7.2850442766330765},-15.091795833333334,7.2850442766330765,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Rainforest","Africa (tropical wet region)",100,"Abandoned Pasture:Land reverting to Tropical Rainforest:Africa (tropical wet region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G119*('Land Data'!G535*(1-'Land Data'!J535))*MM_CO2/MM_C/D535+Reversion_Data!K119)","v":-7.7589999999999977},{"$f":"IF(J535=1,Reversion_Data!L119,(((((H535/G535)^2+(K535/(1-J535))^2)^0.5)*(G535*(1-J535))*MM_CO2/MM_C/D535)^2+Reversion_Data!L119^2)^0.5)","v":3.7456441855841018},-7.7589999999999977,3.7456441855841018,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Rainforest","North America (tropical wet region)",20,"Abandoned Pasture:Land reverting to Tropical Rainforest:North America (tropical wet region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G120*('Land Data'!G536*(1-'Land Data'!J536))*MM_CO2/MM_C/D536+Reversion_Data!K120)","v":-15.720433333333334},{"$f":"IF(J536=1,Reversion_Data!L120,(((((H536/G536)^2+(K536/(1-J536))^2)^0.5)*(G536*(1-J536))*MM_CO2/MM_C/D536)^2+Reversion_Data!L120^2)^0.5)","v":7.5920949564790385},-15.720433333333334,7.5920949564790385,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Rainforest","North America (tropical wet region)",40,"Abandoned Pasture:Land reverting to Tropical Rainforest:North America (tropical wet region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G121*('Land Data'!G537*(1-'Land Data'!J537))*MM_CO2/MM_C/D537+Reversion_Data!K121)","v":-16.981024166666664},{"$f":"IF(J537=1,Reversion_Data!L121,(((((H537/G537)^2+(K537/(1-J537))^2)^0.5)*(G537*(1-J537))*MM_CO2/MM_C/D537)^2+Reversion_Data!L121^2)^0.5)","v":7.9519806741963235},-16.981024166666664,7.9519806741963235,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Rainforest","North America (tropical wet region)",100,"Abandoned Pasture:Land reverting to Tropical Rainforest:North America (tropical wet region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G122*('Land Data'!G538*(1-'Land Data'!J538))*MM_CO2/MM_C/D538+Reversion_Data!K122)","v":-7.8812999999999986},{"$f":"IF(J538=1,Reversion_Data!L122,(((((H538/G538)^2+(K538/(1-J538))^2)^0.5)*(G538*(1-J538))*MM_CO2/MM_C/D538)^2+Reversion_Data!L122^2)^0.5)","v":3.6587456392662769},-7.8812999999999986,3.6587456392662769,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Rainforest","South America (tropical wet region)",20,"Abandoned Pasture:Land reverting to Tropical Rainforest:South America (tropical wet region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G123*('Land Data'!G539*(1-'Land Data'!J539))*MM_CO2/MM_C/D539+Reversion_Data!K123)","v":-15.473833333333335},{"$f":"IF(J539=1,Reversion_Data!L123,(((((H539/G539)^2+(K539/(1-J539))^2)^0.5)*(G539*(1-J539))*MM_CO2/MM_C/D539)^2+Reversion_Data!L123^2)^0.5)","v":7.467743367774796},-15.473833333333335,7.467743367774796,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Rainforest","South America (tropical wet region)",40,"Abandoned Pasture:Land reverting to Tropical Rainforest:South America (tropical wet region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G124*('Land Data'!G540*(1-'Land Data'!J540))*MM_CO2/MM_C/D540+Reversion_Data!K124)","v":-16.734424166666663},{"$f":"IF(J540=1,Reversion_Data!L124,(((((H540/G540)^2+(K540/(1-J540))^2)^0.5)*(G540*(1-J540))*MM_CO2/MM_C/D540)^2+Reversion_Data!L124^2)^0.5)","v":7.922488115325848},-16.734424166666663,7.922488115325848,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Rainforest","South America (tropical wet region)",100,"Abandoned Pasture:Land reverting to Tropical Rainforest:South America (tropical wet region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G125*('Land Data'!G541*(1-'Land Data'!J541))*MM_CO2/MM_C/D541+Reversion_Data!K125)","v":-7.7579999999999991},{"$f":"IF(J541=1,Reversion_Data!L125,(((((H541/G541)^2+(K541/(1-J541))^2)^0.5)*(G541*(1-J541))*MM_CO2/MM_C/D541)^2+Reversion_Data!L125^2)^0.5)","v":3.6484943552101043},-7.7579999999999991,3.6484943552101043,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Rainforest","Asia Continental (tropical wet region)",20,"Abandoned Pasture:Land reverting to Tropical Rainforest:Asia Continental (tropical wet region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G126*('Land Data'!G542*(1-'Land Data'!J542))*MM_CO2/MM_C/D542+Reversion_Data!K126)","v":-10.717426666666665},{"$f":"IF(J542=1,Reversion_Data!L126,(((((H542/G542)^2+(K542/(1-J542))^2)^0.5)*(G542*(1-J542))*MM_CO2/MM_C/D542)^2+Reversion_Data!L126^2)^0.5)","v":5.1902006352206111},-10.717426666666665,5.1902006352206111,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Rainforest","Asia Continental (tropical wet region)",40,"Abandoned Pasture:Land reverting to Tropical Rainforest:Asia Continental (tropical wet region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G127*('Land Data'!G543*(1-'Land Data'!J543))*MM_CO2/MM_C/D543+Reversion_Data!K127)","v":-11.444563333333331},{"$f":"IF(J543=1,Reversion_Data!L127,(((((H543/G543)^2+(K543/(1-J543))^2)^0.5)*(G543*(1-J543))*MM_CO2/MM_C/D543)^2+Reversion_Data!L127^2)^0.5)","v":5.314270685044133},-11.444563333333331,5.314270685044133,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Rainforest","Asia Continental (tropical wet region)",100,"Abandoned Pasture:Land reverting to Tropical Rainforest:Asia Continental (tropical wet region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G128*('Land Data'!G544*(1-'Land Data'!J544))*MM_CO2/MM_C/D544+Reversion_Data!K128)","v":-7.2663333333333338},{"$f":"IF(J544=1,Reversion_Data!L128,(((((H544/G544)^2+(K544/(1-J544))^2)^0.5)*(G544*(1-J544))*MM_CO2/MM_C/D544)^2+Reversion_Data!L128^2)^0.5)","v":3.4102825194956767},-7.2663333333333338,3.4102825194956767,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Rainforest","Asia Insular (tropical wet region)",20,"Abandoned Pasture:Land reverting to Tropical Rainforest:Asia Insular (tropical wet region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G129*('Land Data'!G545*(1-'Land Data'!J545))*MM_CO2/MM_C/D545+Reversion_Data!K129)","v":-18.229649999999999},{"$f":"IF(J545=1,Reversion_Data!L129,(((((H545/G545)^2+(K545/(1-J545))^2)^0.5)*(G545*(1-J545))*MM_CO2/MM_C/D545)^2+Reversion_Data!L129^2)^0.5)","v":8.8009178246149418},-18.229649999999999,8.8009178246149418,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Rainforest","Asia Insular (tropical wet region)",40,"Abandoned Pasture:Land reverting to Tropical Rainforest:Asia Insular (tropical wet region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G130*('Land Data'!G546*(1-'Land Data'!J546))*MM_CO2/MM_C/D546+Reversion_Data!K130)","v":-19.663738333333328},{"$f":"IF(J546=1,Reversion_Data!L130,(((((H546/G546)^2+(K546/(1-J546))^2)^0.5)*(G546*(1-J546))*MM_CO2/MM_C/D546)^2+Reversion_Data!L130^2)^0.5)","v":9.2231670399435277},-19.663738333333328,9.2231670399435277,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Rainforest","Asia Insular (tropical wet region)",100,"Abandoned Pasture:Land reverting to Tropical Rainforest:Asia Insular (tropical wet region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G131*('Land Data'!G547*(1-'Land Data'!J547))*MM_CO2/MM_C/D547+Reversion_Data!K131)","v":-9.1323333333333316},{"$f":"IF(J547=1,Reversion_Data!L131,(((((H547/G547)^2+(K547/(1-J547))^2)^0.5)*(G547*(1-J547))*MM_CO2/MM_C/D547)^2+Reversion_Data!L131^2)^0.5)","v":4.2479971213240919},-9.1323333333333316,4.2479971213240919,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Moist Deciduous Forest","Africa (tropical moist region)",20,"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G132*('Land Data'!G548*(1-'Land Data'!J548))*MM_CO2/MM_C/D548+Reversion_Data!K132)","v":-7.3797233333333319},{"$f":"IF(J548=1,Reversion_Data!L132,(((((H548/G548)^2+(K548/(1-J548))^2)^0.5)*(G548*(1-J548))*MM_CO2/MM_C/D548)^2+Reversion_Data!L132^2)^0.5)","v":3.56233581153379},-7.3797233333333319,3.56233581153379,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Moist Deciduous Forest","Africa (tropical moist region)",40,"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G133*('Land Data'!G549*(1-'Land Data'!J549))*MM_CO2/MM_C/D549+Reversion_Data!K133)","v":-7.4985049999999989},{"$f":"IF(J549=1,Reversion_Data!L133,(((((H549/G549)^2+(K549/(1-J549))^2)^0.5)*(G549*(1-J549))*MM_CO2/MM_C/D549)^2+Reversion_Data!L133^2)^0.5)","v":3.5080930995351656},-7.4985049999999989,3.5080930995351656,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Moist Deciduous Forest","Africa (tropical moist region)",100,"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest:Africa (tropical moist region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G134*('Land Data'!G550*(1-'Land Data'!J550))*MM_CO2/MM_C/D550+Reversion_Data!K134)","v":-4.7875993333333335},{"$f":"IF(J550=1,Reversion_Data!L134,(((((H550/G550)^2+(K550/(1-J550))^2)^0.5)*(G550*(1-J550))*MM_CO2/MM_C/D550)^2+Reversion_Data!L134^2)^0.5)","v":2.26365133183833},-4.7875993333333335,2.26365133183833,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Moist Deciduous Forest","North America (tropical moist region)",20,"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region):20",147,40.090909090909093,18.040909090909093,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G135*('Land Data'!G551*(1-'Land Data'!J551))*MM_CO2/MM_C/D551+Reversion_Data!K135)","v":-9.8520966666666663},{"$f":"IF(J551=1,Reversion_Data!L135,(((((H551/G551)^2+(K551/(1-J551))^2)^0.5)*(G551*(1-J551))*MM_CO2/MM_C/D551)^2+Reversion_Data!L135^2)^0.5)","v":4.7701842393492635},-9.8520966666666663,4.7701842393492635,"Abandoned agricultural land left to revert to its native state",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture",{"$f":"B411","v":"Land reverting to Tropical Moist Deciduous Forest"},"North America (tropical moist region)",40,"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region):40",147,40.090909090909093,18.040909090909093,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G136*('Land Data'!G552*(1-'Land Data'!J552))*MM_CO2/MM_C/D552+Reversion_Data!K136)","v":-10.350561666666664},{"$f":"IF(J552=1,Reversion_Data!L136,(((((H552/G552)^2+(K552/(1-J552))^2)^0.5)*(G552*(1-J552))*MM_CO2/MM_C/D552)^2+Reversion_Data!L136^2)^0.5)","v":4.8034534233317334},-10.350561666666664,4.8034534233317334,"Abandoned agricultural land left to revert to its native state",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Tropical Moist Deciduous Forest","North America (tropical moist region)",100,"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest:North America (tropical moist region):100",147,40.090909090909093,18.040909090909093,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G137*('Land Data'!G553*(1-'Land Data'!J553))*MM_CO2/MM_C/D553+Reversion_Data!K137)","v":-5.3176666666666668},{"$f":"IF(J553=1,Reversion_Data!L137,(((((H553/G553)^2+(K553/(1-J553))^2)^0.5)*(G553*(1-J553))*MM_CO2/MM_C/D553)^2+Reversion_Data!L137^2)^0.5)","v":2.4598840235759987},-5.3176666666666668,2.4598840235759987,"Abandoned agricultural land left to revert to its native state",null,8.3000000000000004E-2,"Mattson, 1987. Specific to forests in South East USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Tropical Moist Deciduous Forest","South America (tropical moist region)",20,"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G138*('Land Data'!G554*(1-'Land Data'!J554))*MM_CO2/MM_C/D554+Reversion_Data!K138)","v":-9.966096666666667},{"$f":"IF(J554=1,Reversion_Data!L138,(((((H554/G554)^2+(K554/(1-J554))^2)^0.5)*(G554*(1-J554))*MM_CO2/MM_C/D554)^2+Reversion_Data!L138^2)^0.5)","v":4.8457130592242157},-9.966096666666667,4.8457130592242157,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",{"$f":"AVERAGE(0.368,0.857)","v":0.61250000000000004},"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Moist Deciduous Forest","South America (tropical moist region)",40,"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G139*('Land Data'!G555*(1-'Land Data'!J555))*MM_CO2/MM_C/D555+Reversion_Data!K139)","v":-10.464561666666665},{"$f":"IF(J555=1,Reversion_Data!L139,(((((H555/G555)^2+(K555/(1-J555))^2)^0.5)*(G555*(1-J555))*MM_CO2/MM_C/D555)^2+Reversion_Data!L139^2)^0.5)","v":4.8223162623232572},-10.464561666666665,4.8223162623232572,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Moist Deciduous Forest","South America (tropical moist region)",100,"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest:South America (tropical moist region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G140*('Land Data'!G556*(1-'Land Data'!J556))*MM_CO2/MM_C/D556+Reversion_Data!K140)","v":-5.3746666666666671},{"$f":"IF(J556=1,Reversion_Data!L140,(((((H556/G556)^2+(K556/(1-J556))^2)^0.5)*(G556*(1-J556))*MM_CO2/MM_C/D556)^2+Reversion_Data!L140^2)^0.5)","v":2.4657819255652851},-5.3746666666666671,2.4657819255652851,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Moist Deciduous Forest","Asia Continental (tropical moist region)",20,"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G141*('Land Data'!G557*(1-'Land Data'!J557))*MM_CO2/MM_C/D557+Reversion_Data!K141)","v":-12.084470000000003},{"$f":"IF(J557=1,Reversion_Data!L141,(((((H557/G557)^2+(K557/(1-J557))^2)^0.5)*(G557*(1-J557))*MM_CO2/MM_C/D557)^2+Reversion_Data!L141^2)^0.5)","v":5.8370108711758464},-12.084470000000003,5.8370108711758464,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Moist Deciduous Forest","Asia Continental (tropical moist region)",40,"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G142*('Land Data'!G558*(1-'Land Data'!J558))*MM_CO2/MM_C/D558+Reversion_Data!K142)","v":-10.862479999999998},{"$f":"IF(J558=1,Reversion_Data!L142,(((((H558/G558)^2+(K558/(1-J558))^2)^0.5)*(G558*(1-J558))*MM_CO2/MM_C/D558)^2+Reversion_Data!L142^2)^0.5)","v":5.0275719416881541},-10.862479999999998,5.0275719416881541,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Moist Deciduous Forest","Asia Continental (tropical moist region)",100,{"$f":"A559&\":\"&B559&\":\"&C559&\":\"&D559","v":"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest:Asia Continental (tropical moist region):100"},161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,{"$f":"P559+Q559","v":0},0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G143*('Land Data'!G559*(1-'Land Data'!J559))*MM_CO2/MM_C/D559+Reversion_Data!K143)","v":-4.5163333333333338},{"$f":"IF(J559=1,Reversion_Data!L143,(((((H559/G559)^2+(K559/(1-J559))^2)^0.5)*(G559*(1-J559))*MM_CO2/MM_C/D559)^2+Reversion_Data!L143^2)^0.5)","v":2.0478204338868302},-4.5163333333333338,2.0478204338868302,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Moist Deciduous Forest","Asia Insular (tropical moist region)",20,"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G144*('Land Data'!G560*(1-'Land Data'!J560))*MM_CO2/MM_C/D560+Reversion_Data!K144)","v":-14.649443333333332},{"$f":"IF(J560=1,Reversion_Data!L144,(((((H560/G560)^2+(K560/(1-J560))^2)^0.5)*(G560*(1-J560))*MM_CO2/MM_C/D560)^2+Reversion_Data!L144^2)^0.5)","v":7.1084619805648614},-14.649443333333332,7.1084619805648614,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Moist Deciduous Forest","Asia Insular (tropical moist region)",40,"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G145*('Land Data'!G561*(1-'Land Data'!J561))*MM_CO2/MM_C/D561+Reversion_Data!K145)","v":-15.682491113360323},{"$f":"IF(J561=1,Reversion_Data!L145,(((((H561/G561)^2+(K561/(1-J561))^2)^0.5)*(G561*(1-J561))*MM_CO2/MM_C/D561)^2+Reversion_Data!L145^2)^0.5)","v":7.2573536928530302},-15.682491113360323,7.2573536928530302,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Moist Deciduous Forest","Asia Insular (tropical moist region)",100,"Abandoned Pasture:Land reverting to Tropical Moist Deciduous Forest:Asia Insular (tropical moist region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G146*('Land Data'!G562*(1-'Land Data'!J562))*MM_CO2/MM_C/D562+Reversion_Data!K146)","v":-7.0789999999999997},{"$f":"IF(J562=1,Reversion_Data!L146,(((((H562/G562)^2+(K562/(1-J562))^2)^0.5)*(G562*(1-J562))*MM_CO2/MM_C/D562)^2+Reversion_Data!L146^2)^0.5)","v":3.2313003210781881},-7.0789999999999997,3.2313003210781881,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Dry Forest","Africa (tropical dry region)",20,"Abandoned Pasture:Land reverting to Tropical Dry Forest:Africa (tropical dry region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G147*('Land Data'!G563*(1-'Land Data'!J563))*MM_CO2/MM_C/D563+Reversion_Data!K147)","v":-4.6967499999999998},{"$f":"IF(J563=1,Reversion_Data!L147,(((((H563/G563)^2+(K563/(1-J563))^2)^0.5)*(G563*(1-J563))*MM_CO2/MM_C/D563)^2+Reversion_Data!L147^2)^0.5)","v":2.310535006362163},-4.6967499999999998,2.310535006362163,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Dry Forest","Africa (tropical dry region)",40,"Abandoned Pasture:Land reverting to Tropical Dry Forest:Africa (tropical dry region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G148*('Land Data'!G564*(1-'Land Data'!J564))*MM_CO2/MM_C/D564+Reversion_Data!K148)","v":-5.1198283333333334},{"$f":"IF(J564=1,Reversion_Data!L148,(((((H564/G564)^2+(K564/(1-J564))^2)^0.5)*(G564*(1-J564))*MM_CO2/MM_C/D564)^2+Reversion_Data!L148^2)^0.5)","v":2.3380834495267049},-5.1198283333333334,2.3380834495267049,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Dry Forest","Africa (tropical dry region)",100,"Abandoned Pasture:Land reverting to Tropical Dry Forest:Africa (tropical dry region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",0.7,{"$f":"25%*J565","v":0.17499999999999999},1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G149*('Land Data'!G565*(1-'Land Data'!J565))*MM_CO2/MM_C/D565+Reversion_Data!K149)","v":-3.1023333333333336},{"$f":"IF(J565=1,Reversion_Data!L149,(((((H565/G565)^2+(K565/(1-J565))^2)^0.5)*(G565*(1-J565))*MM_CO2/MM_C/D565)^2+Reversion_Data!L149^2)^0.5)","v":1.4265528881810792},-3.1023333333333336,1.4265528881810792,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"A565","v":"Abandoned Pasture"},"Land reverting to Tropical Dry Forest","North America (tropical dry region)",20,"Abandoned Pasture:Land reverting to Tropical Dry Forest:North America (tropical dry region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G150*('Land Data'!G566*(1-'Land Data'!J566))*MM_CO2/MM_C/D566+Reversion_Data!K150)","v":-7.140763333333334},{"$f":"IF(J566=1,Reversion_Data!L150,(((((H566/G566)^2+(K566/(1-J566))^2)^0.5)*(G566*(1-J566))*MM_CO2/MM_C/D566)^2+Reversion_Data!L150^2)^0.5)","v":3.7329712023962149},-7.140763333333334,3.7329712023962149,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Dry Forest","North America (tropical dry region)",40,"Abandoned Pasture:Land reverting to Tropical Dry Forest:North America (tropical dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G151*('Land Data'!G567*(1-'Land Data'!J567))*MM_CO2/MM_C/D567+Reversion_Data!K151)","v":-7.1200283333333338},{"$f":"IF(J567=1,Reversion_Data!L151,(((((H567/G567)^2+(K567/(1-J567))^2)^0.5)*(G567*(1-J567))*MM_CO2/MM_C/D567)^2+Reversion_Data!L151^2)^0.5)","v":3.1536548295081155},-7.1200283333333338,3.1536548295081155,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Dry Forest","North America (tropical dry region)",100,"Abandoned Pasture:Land reverting to Tropical Dry Forest:North America (tropical dry region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G152*('Land Data'!G568*(1-'Land Data'!J568))*MM_CO2/MM_C/D568+Reversion_Data!K152)","v":-4.3641966666666665},{"$f":"IF(J568=1,Reversion_Data!L152,(((((H568/G568)^2+(K568/(1-J568))^2)^0.5)*(G568*(1-J568))*MM_CO2/MM_C/D568)^2+Reversion_Data!L152^2)^0.5)","v":1.9266132245954588},-4.3641966666666665,1.9266132245954588,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Dry Forest","South America (tropical dry region)",20,"Abandoned Pasture:Land reverting to Tropical Dry Forest:South America (tropical dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G153*('Land Data'!G569*(1-'Land Data'!J569))*MM_CO2/MM_C/D569+Reversion_Data!K153)","v":-6.8941633333333341},{"$f":"IF(J569=1,Reversion_Data!L153,(((((H569/G569)^2+(K569/(1-J569))^2)^0.5)*(G569*(1-J569))*MM_CO2/MM_C/D569)^2+Reversion_Data!L153^2)^0.5)","v":3.4730907239329993},-6.8941633333333341,3.4730907239329993,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Dry Forest","South America (tropical dry region)",40,"Abandoned Pasture:Land reverting to Tropical Dry Forest:South America (tropical dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G154*('Land Data'!G570*(1-'Land Data'!J570))*MM_CO2/MM_C/D570+Reversion_Data!K154)","v":-6.8734283333333339},{"$f":"IF(J570=1,Reversion_Data!L154,(((((H570/G570)^2+(K570/(1-J570))^2)^0.5)*(G570*(1-J570))*MM_CO2/MM_C/D570)^2+Reversion_Data!L154^2)^0.5)","v":3.0785321304750681},-6.8734283333333339,3.0785321304750681,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Dry Forest","South America (tropical dry region)",100,"Abandoned Pasture:Land reverting to Tropical Dry Forest:South America (tropical dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G155*('Land Data'!G571*(1-'Land Data'!J571))*MM_CO2/MM_C/D571+Reversion_Data!K155)","v":-4.240896666666667},{"$f":"IF(J571=1,Reversion_Data!L155,(((((H571/G571)^2+(K571/(1-J571))^2)^0.5)*(G571*(1-J571))*MM_CO2/MM_C/D571)^2+Reversion_Data!L155^2)^0.5)","v":1.907073654669927},{"$f":"AI571","v":-4.240896666666667},{"$f":"AJ571","v":1.907073654669927},"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture",{"$f":"B431","v":"Land reverting to Tropical Dry Forest"},"Asia Continental (tropical dry region)",20,"Abandoned Pasture:Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region):20",161,{"$f":"F572*MM_C/MM_CO2","v":43.909090909090907},{"$f":"error_SOC*G572","v":19.759090909090908},"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G156*('Land Data'!G572*(1-'Land Data'!J572))*MM_CO2/MM_C/D572+Reversion_Data!K156)","v":-9.0747233333333313},{"$f":"IF(J572=1,Reversion_Data!L156,(((((H572/G572)^2+(K572/(1-J572))^2)^0.5)*(G572*(1-J572))*MM_CO2/MM_C/D572)^2+Reversion_Data!L156^2)^0.5)","v":4.4275784181803157},-9.0747233333333313,4.4275784181803157,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Dry Forest","Asia Continental (tropical dry region)",40,"Abandoned Pasture:Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G157*('Land Data'!G573*(1-'Land Data'!J573))*MM_CO2/MM_C/D573+Reversion_Data!K157)","v":-8.3986266666666687},{"$f":"IF(J573=1,Reversion_Data!L157,(((((H573/G573)^2+(K573/(1-J573))^2)^0.5)*(G573*(1-J573))*MM_CO2/MM_C/D573)^2+Reversion_Data!L157^2)^0.5)","v":3.8213067559096996},-8.3986266666666687,3.8213067559096996,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Dry Forest","Asia Continental (tropical dry region)",100,"Abandoned Pasture:Land reverting to Tropical Dry Forest:Asia Continental (tropical dry region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G158*('Land Data'!G574*(1-'Land Data'!J574))*MM_CO2/MM_C/D574+Reversion_Data!K158)","v":-3.5263333333333331},{"$f":"IF(J574=1,Reversion_Data!L158,(((((H574/G574)^2+(K574/(1-J574))^2)^0.5)*(G574*(1-J574))*MM_CO2/MM_C/D574)^2+Reversion_Data!L158^2)^0.5)","v":1.5627199139463361},-3.5263333333333331,1.5627199139463361,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Dry Forest","Asia Insular (tropical dry region)",20,"Abandoned Pasture:Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G159*('Land Data'!G575*(1-'Land Data'!J575))*MM_CO2/MM_C/D575+Reversion_Data!K159)","v":-10.607896666666667},{"$f":"IF(J575=1,Reversion_Data!L159,(((((H575/G575)^2+(K575/(1-J575))^2)^0.5)*(G575*(1-J575))*MM_CO2/MM_C/D575)^2+Reversion_Data!L159^2)^0.5)","v":5.2759447758358355},-10.607896666666667,5.2759447758358355,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Dry Forest","Asia Insular (tropical dry region)",40,"Abandoned Pasture:Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G160*('Land Data'!G576*(1-'Land Data'!J576))*MM_CO2/MM_C/D576+Reversion_Data!K160)","v":-10.482386666666667},{"$f":"IF(J576=1,Reversion_Data!L160,(((((H576/G576)^2+(K576/(1-J576))^2)^0.5)*(G576*(1-J576))*MM_CO2/MM_C/D576)^2+Reversion_Data!L160^2)^0.5)","v":4.7211260636237817},-10.482386666666667,4.7211260636237817,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Dry Forest","Asia Insular (tropical dry region)",100,"Abandoned Pasture:Land reverting to Tropical Dry Forest:Asia Insular (tropical dry region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G161*('Land Data'!G577*(1-'Land Data'!J577))*MM_CO2/MM_C/D577+Reversion_Data!K161)","v":-4.402333333333333},{"$f":"IF(J577=1,Reversion_Data!L161,(((((H577/G577)^2+(K577/(1-J577))^2)^0.5)*(G577*(1-J577))*MM_CO2/MM_C/D577)^2+Reversion_Data!L161^2)^0.5)","v":1.9219446426586912},-4.402333333333333,1.9219446426586912,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Mountain System","Africa (tropical montane region)",20,"Abandoned Pasture:Land reverting to Tropical Mountain System:Africa (tropical montane region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G162*('Land Data'!G578*(1-'Land Data'!J578))*MM_CO2/MM_C/D578+Reversion_Data!K162)","v":-6.0693850000000005},{"$f":"IF(J578=1,Reversion_Data!L162,(((((H578/G578)^2+(K578/(1-J578))^2)^0.5)*(G578*(1-J578))*MM_CO2/MM_C/D578)^2+Reversion_Data!L162^2)^0.5)","v":2.9411052819571508},-6.0693850000000005,2.9411052819571508,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Mountain System","Africa (tropical montane region)",40,"Abandoned Pasture:Land reverting to Tropical Mountain System:Africa (tropical montane region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G163*('Land Data'!G579*(1-'Land Data'!J579))*MM_CO2/MM_C/D579+Reversion_Data!K163)","v":-6.2396202800269904},{"$f":"IF(J579=1,Reversion_Data!L163,(((((H579/G579)^2+(K579/(1-J579))^2)^0.5)*(G579*(1-J579))*MM_CO2/MM_C/D579)^2+Reversion_Data!L163^2)^0.5)","v":2.8869130629191964},-6.2396202800269904,2.8869130629191964,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Mountain System","Africa (tropical montane region)",100,"Abandoned Pasture:Land reverting to Tropical Mountain System:Africa (tropical montane region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G164*('Land Data'!G580*(1-'Land Data'!J580))*MM_CO2/MM_C/D580+Reversion_Data!K164)","v":-3.1617883333333339},{"$f":"IF(J580=1,Reversion_Data!L164,(((((H580/G580)^2+(K580/(1-J580))^2)^0.5)*(G580*(1-J580))*MM_CO2/MM_C/D580)^2+Reversion_Data!L164^2)^0.5)","v":1.4559764794462497},-3.1617883333333339,1.4559764794462497,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Mountain System","North America (tropical montane region)",20,"Abandoned Pasture:Land reverting to Tropical Mountain System:North America (tropical montane region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G165*('Land Data'!G581*(1-'Land Data'!J581))*MM_CO2/MM_C/D581+Reversion_Data!K165)","v":-6.626806666666667},{"$f":"IF(J581=1,Reversion_Data!L165,(((((H581/G581)^2+(K581/(1-J581))^2)^0.5)*(G581*(1-J581))*MM_CO2/MM_C/D581)^2+Reversion_Data!L165^2)^0.5)","v":3.5334702034394518},-6.626806666666667,3.5334702034394518,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Mountain System","North America (tropical montane region)",40,"Abandoned Pasture:Land reverting to Tropical Mountain System:North America (tropical montane region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G166*('Land Data'!G582*(1-'Land Data'!J582))*MM_CO2/MM_C/D582+Reversion_Data!K166)","v":-6.6355975000000003},{"$f":"IF(J582=1,Reversion_Data!L166,(((((H582/G582)^2+(K582/(1-J582))^2)^0.5)*(G582*(1-J582))*MM_CO2/MM_C/D582)^2+Reversion_Data!L166^2)^0.5)","v":2.9292666896450488},-6.6355975000000003,2.9292666896450488,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Mountain System","North America (tropical montane region)",100,"Abandoned Pasture:Land reverting to Tropical Mountain System:North America (tropical montane region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G167*('Land Data'!G583*(1-'Land Data'!J583))*MM_CO2/MM_C/D583+Reversion_Data!K167)","v":-3.9979521120107968},{"$f":"IF(J583=1,Reversion_Data!L167,(((((H583/G583)^2+(K583/(1-J583))^2)^0.5)*(G583*(1-J583))*MM_CO2/MM_C/D583)^2+Reversion_Data!L167^2)^0.5)","v":1.7492754283521916},-3.9979521120107968,1.7492754283521916,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Mountain System","South America (tropical montane region)",20,"Abandoned Pasture:Land reverting to Tropical Mountain System:South America (tropical montane region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G168*('Land Data'!G584*(1-'Land Data'!J584))*MM_CO2/MM_C/D584+Reversion_Data!K168)","v":-6.380206666666667},{"$f":"IF(J584=1,Reversion_Data!L168,(((((H584/G584)^2+(K584/(1-J584))^2)^0.5)*(G584*(1-J584))*MM_CO2/MM_C/D584)^2+Reversion_Data!L168^2)^0.5)","v":3.2577134400288257},-6.380206666666667,3.2577134400288257,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Mountain System","South America (tropical montane region)",40,"Abandoned Pasture:Land reverting to Tropical Mountain System:South America (tropical montane region):40",{"$f":"F444","v":166},45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G169*('Land Data'!G585*(1-'Land Data'!J585))*MM_CO2/MM_C/D585+Reversion_Data!K169)","v":-6.3889975000000003},{"$f":"IF(J585=1,Reversion_Data!L169,(((((H585/G585)^2+(K585/(1-J585))^2)^0.5)*(G585*(1-J585))*MM_CO2/MM_C/D585)^2+Reversion_Data!L169^2)^0.5)","v":2.8482318433989118},-6.3889975000000003,2.8482318433989118,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Mountain System","South America (tropical montane region)",100,"Abandoned Pasture:Land reverting to Tropical Mountain System:South America (tropical montane region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G170*('Land Data'!G586*(1-'Land Data'!J586))*MM_CO2/MM_C/D586+Reversion_Data!K170)","v":-3.8746521120107968},{"$f":"IF(J586=1,Reversion_Data!L170,(((((H586/G586)^2+(K586/(1-J586))^2)^0.5)*(G586*(1-J586))*MM_CO2/MM_C/D586)^2+Reversion_Data!L170^2)^0.5)","v":1.7277314407588766},-3.8746521120107968,1.7277314407588766,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",{"$f":"AVERAGE(0.368,0.857)","v":0.61250000000000004},"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Mountain System","Asia Continental (tropical montane region)",20,"Abandoned Pasture:Land reverting to Tropical Mountain System:Asia Continental (tropical montane region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G171*('Land Data'!G587*(1-'Land Data'!J587))*MM_CO2/MM_C/D587+Reversion_Data!K171)","v":-5.9061733333333333},{"$f":"IF(J587=1,Reversion_Data!L171,(((((H587/G587)^2+(K587/(1-J587))^2)^0.5)*(G587*(1-J587))*MM_CO2/MM_C/D587)^2+Reversion_Data!L171^2)^0.5)","v":3.0441633112966269},-5.9061733333333333,3.0441633112966269,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Mountain System","Asia Continental (tropical montane region)",40,"Abandoned Pasture:Land reverting to Tropical Mountain System:Asia Continental (tropical montane region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G172*('Land Data'!G588*(1-'Land Data'!J588))*MM_CO2/MM_C/D588+Reversion_Data!K172)","v":-5.8297370833333337},{"$f":"IF(J588=1,Reversion_Data!L172,(((((H588/G588)^2+(K588/(1-J588))^2)^0.5)*(G588*(1-J588))*MM_CO2/MM_C/D588)^2+Reversion_Data!L172^2)^0.5)","v":2.5894758417868973},-5.8297370833333337,2.5894758417868973,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Mountain System","Asia Continental (tropical montane region)",100,"Abandoned Pasture:Land reverting to Tropical Mountain System:Asia Continental (tropical montane region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G173*('Land Data'!G589*(1-'Land Data'!J589))*MM_CO2/MM_C/D589+Reversion_Data!K173)","v":-3.4879987786774631},{"$f":"IF(J589=1,Reversion_Data!L173,(((((H589/G589)^2+(K589/(1-J589))^2)^0.5)*(G589*(1-J589))*MM_CO2/MM_C/D589)^2+Reversion_Data!L173^2)^0.5)","v":1.5440623368126241},-3.4879987786774631,1.5440623368126241,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Mountain System","Asia Insular (tropical montane region)",20,"Abandoned Pasture:Land reverting to Tropical Mountain System:Asia Insular (tropical montane region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G174*('Land Data'!G590*(1-'Land Data'!J590))*MM_CO2/MM_C/D590+Reversion_Data!K174)","v":-11.306745000000001},{"$f":"IF(J590=1,Reversion_Data!L174,(((((H590/G590)^2+(K590/(1-J590))^2)^0.5)*(G590*(1-J590))*MM_CO2/MM_C/D590)^2+Reversion_Data!L174^2)^0.5)","v":5.5835339162358686},-11.306745000000001,5.5835339162358686,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Mountain System","Asia Insular (tropical montane region)",40,"Abandoned Pasture:Land reverting to Tropical Mountain System:Asia Insular (tropical montane region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G175*('Land Data'!G591*(1-'Land Data'!J591))*MM_CO2/MM_C/D591+Reversion_Data!K175)","v":-11.926476946693656},{"$f":"IF(J591=1,Reversion_Data!L175,(((((H591/G591)^2+(K591/(1-J591))^2)^0.5)*(G591*(1-J591))*MM_CO2/MM_C/D591)^2+Reversion_Data!L175^2)^0.5)","v":5.4193835198770479},-11.926476946693656,5.4193835198770479,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture",{"$f":"B451","v":"Land reverting to Tropical Mountain System"},"Asia Insular (tropical montane region)",100,"Abandoned Pasture:Land reverting to Tropical Mountain System:Asia Insular (tropical montane region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G176*('Land Data'!G592*(1-'Land Data'!J592))*MM_CO2/MM_C/D592+Reversion_Data!K176)","v":-5.5716516666666669},{"$f":"IF(J592=1,Reversion_Data!L176,(((((H592/G592)^2+(K592/(1-J592))^2)^0.5)*(G592*(1-J592))*MM_CO2/MM_C/D592)^2+Reversion_Data!L176^2)^0.5)","v":2.4901576920282302},-5.5716516666666669,2.4901576920282302,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Woody Savanna","Africa (tropical dry region)",20,"Abandoned Pasture:Land reverting to Tropical Woody Savanna:Africa (tropical dry region):20",93,25.363636363636363,11.413636363636364,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G177*('Land Data'!G593*(1-'Land Data'!J593))*MM_CO2/MM_C/D593+Reversion_Data!K177)","v":-1.6436999999999999},{"$f":"IF(J593=1,Reversion_Data!L177,(((((H593/G593)^2+(K593/(1-J593))^2)^0.5)*(G593*(1-J593))*MM_CO2/MM_C/D593)^2+Reversion_Data!L177^2)^0.5)","v":1.1623017024421844},-1.6436999999999999,1.1623017024421844,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Woody Savanna","Africa (tropical dry region)",40,"Abandoned Pasture:Land reverting to Tropical Woody Savanna:Africa (tropical dry region):40",93,25.363636363636363,11.413636363636364,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G178*('Land Data'!G594*(1-'Land Data'!J594))*MM_CO2/MM_C/D594+Reversion_Data!K178)","v":-2.18655},{"$f":"IF(J594=1,Reversion_Data!L178,(((((H594/G594)^2+(K594/(1-J594))^2)^0.5)*(G594*(1-J594))*MM_CO2/MM_C/D594)^2+Reversion_Data!L178^2)^0.5)","v":0.96286476562132017},-2.18655,0.96286476562132017,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Woody Savanna","Africa (tropical dry region)",100,"Abandoned Pasture:Land reverting to Tropical Woody Savanna:Africa (tropical dry region):100",93,25.363636363636363,11.413636363636364,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G179*('Land Data'!G595*(1-'Land Data'!J595))*MM_CO2/MM_C/D595+Reversion_Data!K179)","v":-1.9678666666666667},{"$f":"IF(J595=1,Reversion_Data!L179,(((((H595/G595)^2+(K595/(1-J595))^2)^0.5)*(G595*(1-J595))*MM_CO2/MM_C/D595)^2+Reversion_Data!L179^2)^0.5)","v":0.86909034020891307},-1.9678666666666667,0.86909034020891307,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Woody Savanna","North America (tropical dry region)",20,"Abandoned Pasture:Land reverting to Tropical Woody Savanna:North America (tropical dry region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G180*('Land Data'!G596*(1-'Land Data'!J596))*MM_CO2/MM_C/D596+Reversion_Data!K180)","v":-7.3833499999999983},{"$f":"IF(J596=1,Reversion_Data!L180,(((((H596/G596)^2+(K596/(1-J596))^2)^0.5)*(G596*(1-J596))*MM_CO2/MM_C/D596)^2+Reversion_Data!L180^2)^0.5)","v":3.8295161524499401},-7.3833499999999983,3.8295161524499401,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Woody Savanna","North America (tropical dry region)",40,"Abandoned Pasture:Land reverting to Tropical Woody Savanna:North America (tropical dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,{"$f":"25%*J597","v":0.17499999999999999},1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G181*('Land Data'!G597*(1-'Land Data'!J597))*MM_CO2/MM_C/D597+Reversion_Data!K181)","v":-6.0679333333333343},{"$f":"IF(J597=1,Reversion_Data!L181,(((((H597/G597)^2+(K597/(1-J597))^2)^0.5)*(G597*(1-J597))*MM_CO2/MM_C/D597)^2+Reversion_Data!L181^2)^0.5)","v":2.6702917958075192},-6.0679333333333343,2.6702917958075192,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
[{"$f":"A597","v":"Abandoned Pasture"},"Land reverting to Tropical Woody Savanna","North America (tropical dry region)",100,"Abandoned Pasture:Land reverting to Tropical Woody Savanna:North America (tropical dry region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G182*('Land Data'!G598*(1-'Land Data'!J598))*MM_CO2/MM_C/D598+Reversion_Data!K182)","v":-2.5514333333333332},{"$f":"IF(J598=1,Reversion_Data!L182,(((((H598/G598)^2+(K598/(1-J598))^2)^0.5)*(G598*(1-J598))*MM_CO2/MM_C/D598)^2+Reversion_Data!L182^2)^0.5)","v":1.0681167183230076},-2.5514333333333332,1.0681167183230076,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Woody Savanna","South America (tropical dry region)",20,"Abandoned Pasture:Land reverting to Tropical Woody Savanna:South America (tropical dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G183*('Land Data'!G599*(1-'Land Data'!J599))*MM_CO2/MM_C/D599+Reversion_Data!K183)","v":-7.1367499999999984},{"$f":"IF(J599=1,Reversion_Data!L183,(((((H599/G599)^2+(K599/(1-J599))^2)^0.5)*(G599*(1-J599))*MM_CO2/MM_C/D599)^2+Reversion_Data!L183^2)^0.5)","v":3.5766575375097061},-7.1367499999999984,3.5766575375097061,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Woody Savanna","South America (tropical dry region)",40,"Abandoned Pasture:Land reverting to Tropical Woody Savanna:South America (tropical dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G184*('Land Data'!G600*(1-'Land Data'!J600))*MM_CO2/MM_C/D600+Reversion_Data!K184)","v":-5.8213333333333344},{"$f":"IF(J600=1,Reversion_Data!L184,(((((H600/G600)^2+(K600/(1-J600))^2)^0.5)*(G600*(1-J600))*MM_CO2/MM_C/D600)^2+Reversion_Data!L184^2)^0.5)","v":2.5811391999356497},-5.8213333333333344,2.5811391999356497,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Woody Savanna","South America (tropical dry region)",100,"Abandoned Pasture:Land reverting to Tropical Woody Savanna:South America (tropical dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G185*('Land Data'!G601*(1-'Land Data'!J601))*MM_CO2/MM_C/D601+Reversion_Data!K185)","v":-2.4281333333333333},{"$f":"IF(J601=1,Reversion_Data!L185,(((((H601/G601)^2+(K601/(1-J601))^2)^0.5)*(G601*(1-J601))*MM_CO2/MM_C/D601)^2+Reversion_Data!L185^2)^0.5)","v":1.0324556799742597},-2.4281333333333333,1.0324556799742597,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Woody Savanna","Asia Continental (tropical dry region)",20,"Abandoned Pasture:Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G186*('Land Data'!G602*(1-'Land Data'!J602))*MM_CO2/MM_C/D602+Reversion_Data!K186)","v":-7.8237688933873155},{"$f":"IF(J602=1,Reversion_Data!L186,(((((H602/G602)^2+(K602/(1-J602))^2)^0.5)*(G602*(1-J602))*MM_CO2/MM_C/D602)^2+Reversion_Data!L186^2)^0.5)","v":3.8630105712743874},-7.8237688933873155,3.8630105712743874,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Woody Savanna","Asia Continental (tropical dry region)",40,"Abandoned Pasture:Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G187*('Land Data'!G603*(1-'Land Data'!J603))*MM_CO2/MM_C/D603+Reversion_Data!K187)","v":-4.585},{"$f":"IF(J603=1,Reversion_Data!L187,(((((H603/G603)^2+(K603/(1-J603))^2)^0.5)*(G603*(1-J603))*MM_CO2/MM_C/D603)^2+Reversion_Data!L187^2)^0.5)","v":2.016355817124051},-4.585,2.016355817124051,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Woody Savanna","Asia Continental (tropical dry region)",100,"Abandoned Pasture:Land reverting to Tropical Woody Savanna:Asia Continental (tropical dry region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G188*('Land Data'!G604*(1-'Land Data'!J604))*MM_CO2/MM_C/D604+Reversion_Data!K188)","v":-1.9305999999999999},{"$f":"IF(J604=1,Reversion_Data!L188,(((((H604/G604)^2+(K604/(1-J604))^2)^0.5)*(G604*(1-J604))*MM_CO2/MM_C/D604)^2+Reversion_Data!L188^2)^0.5)","v":0.80654232684962035},-1.9305999999999999,0.80654232684962035,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Woody Savanna","Asia Insular (tropical dry region)",20,"Abandoned Pasture:Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region):20",233,63.545454545454547,28.595454545454547,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G189*('Land Data'!G605*(1-'Land Data'!J605))*MM_CO2/MM_C/D605+Reversion_Data!K189)","v":-5.1260833333333329},{"$f":"IF(J605=1,Reversion_Data!L189,(((((H605/G605)^2+(K605/(1-J605))^2)^0.5)*(G605*(1-J605))*MM_CO2/MM_C/D605)^2+Reversion_Data!L189^2)^0.5)","v":3.1787883635230334},-5.1260833333333329,3.1787883635230334,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Woody Savanna","Asia Insular (tropical dry region)",40,"Abandoned Pasture:Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region):40",233,63.545454545454547,28.595454545454547,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G190*('Land Data'!G606*(1-'Land Data'!J606))*MM_CO2/MM_C/D606+Reversion_Data!K190)","v":-4.9992177800269904},{"$f":"IF(J606=1,Reversion_Data!L190,(((((H606/G606)^2+(K606/(1-J606))^2)^0.5)*(G606*(1-J606))*MM_CO2/MM_C/D606)^2+Reversion_Data!L190^2)^0.5)","v":2.2135273673586311},-4.9992177800269904,2.2135273673586311,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Tropical Woody Savanna","Asia Insular (tropical dry region)",100,"Abandoned Pasture:Land reverting to Tropical Woody Savanna:Asia Insular (tropical dry region):100",233,63.545454545454547,28.595454545454547,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G191*('Land Data'!G607*(1-'Land Data'!J607))*MM_CO2/MM_C/D607+Reversion_Data!K191)","v":-2.3878666666666666},{"$f":"IF(J607=1,Reversion_Data!L191,(((((H607/G607)^2+(K607/(1-J607))^2)^0.5)*(G607*(1-J607))*MM_CO2/MM_C/D607)^2+Reversion_Data!L191^2)^0.5)","v":0.98907503226218607},-2.3878666666666666,0.98907503226218607,"Abandoned agricultural land left to revert to its native state",null,0.16700000000000001,"Chambers et al., 2000. Specific to tropical forests in Brazil.",0.61250000000000004,"Eaton, 2005. Specific to tropical forests in Mexico."]
["Abandoned Pasture","Land reverting to Temperate Oceanic Forest","Europe (temperate moist region)",20,"Abandoned Pasture:Land reverting to Temperate Oceanic Forest:Europe (temperate moist region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G192*('Land Data'!G608*(1-'Land Data'!J608))*MM_CO2/MM_C/D608+Reversion_Data!K192)","v":-5.2832349999999995},{"$f":"IF(J608=1,Reversion_Data!L192,(((((H608/G608)^2+(K608/(1-J608))^2)^0.5)*(G608*(1-J608))*MM_CO2/MM_C/D608)^2+Reversion_Data!L192^2)^0.5)","v":3.4142558210108174},-5.2832349999999995,3.4142558210108174,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Oceanic Forest","Europe (temperate moist region)",40,"Abandoned Pasture:Land reverting to Temperate Oceanic Forest:Europe (temperate moist region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G193*('Land Data'!G609*(1-'Land Data'!J609))*MM_CO2/MM_C/D609+Reversion_Data!K193)","v":-6.0901858333333339},{"$f":"IF(J609=1,Reversion_Data!L193,(((((H609/G609)^2+(K609/(1-J609))^2)^0.5)*(G609*(1-J609))*MM_CO2/MM_C/D609)^2+Reversion_Data!L193^2)^0.5)","v":2.8868566944083272},-6.0901858333333339,2.8868566944083272,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Oceanic Forest","Europe (temperate moist region)",100,"Abandoned Pasture:Land reverting to Temperate Oceanic Forest:Europe (temperate moist region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G194*('Land Data'!G610*(1-'Land Data'!J610))*MM_CO2/MM_C/D610+Reversion_Data!K194)","v":-3.7970000000000002},{"$f":"IF(J610=1,Reversion_Data!L194,(((((H610/G610)^2+(K610/(1-J610))^2)^0.5)*(G610*(1-J610))*MM_CO2/MM_C/D610)^2+Reversion_Data!L194^2)^0.5)","v":1.6280774198421892},-3.7970000000000002,1.6280774198421892,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Oceanic Forest","North America (temperate moist region)",20,"Abandoned Pasture:Land reverting to Temperate Oceanic Forest:North America (temperate moist region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G195*('Land Data'!G611*(1-'Land Data'!J611))*MM_CO2/MM_C/D611+Reversion_Data!K195)","v":-19.041503333333331},{"$f":"IF(J611=1,Reversion_Data!L195,(((((H611/G611)^2+(K611/(1-J611))^2)^0.5)*(G611*(1-J611))*MM_CO2/MM_C/D611)^2+Reversion_Data!L195^2)^0.5)","v":9.3897430518049543},-19.041503333333331,9.3897430518049543,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture",{"$f":"B471","v":"Land reverting to Temperate Oceanic Forest"},"North America (temperate moist region)",40,"Abandoned Pasture:Land reverting to Temperate Oceanic Forest:North America (temperate moist region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G196*('Land Data'!G612*(1-'Land Data'!J612))*MM_CO2/MM_C/D612+Reversion_Data!K196)","v":-26.791388333333327},{"$f":"IF(J612=1,Reversion_Data!L196,(((((H612/G612)^2+(K612/(1-J612))^2)^0.5)*(G612*(1-J612))*MM_CO2/MM_C/D612)^2+Reversion_Data!L196^2)^0.5)","v":13.031833663361159},-26.791388333333327,13.031833663361159,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Oceanic Forest","North America (temperate moist region)",100,"Abandoned Pasture:Land reverting to Temperate Oceanic Forest:North America (temperate moist region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G197*('Land Data'!G613*(1-'Land Data'!J613))*MM_CO2/MM_C/D613+Reversion_Data!K197)","v":-15.507966666666665},{"$f":"IF(J613=1,Reversion_Data!L197,(((((H613/G613)^2+(K613/(1-J613))^2)^0.5)*(G613*(1-J613))*MM_CO2/MM_C/D613)^2+Reversion_Data!L197^2)^0.5)","v":7.4573943682737536},-15.507966666666665,7.4573943682737536,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Oceanic Forest","New Zealand (temperate moist region)",20,"Abandoned Pasture:Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region):20",272,74.181818181818187,33.381818181818183,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G198*('Land Data'!G614*(1-'Land Data'!J614))*MM_CO2/MM_C/D614+Reversion_Data!K198)","v":-6.7190283333333332},{"$f":"IF(J614=1,Reversion_Data!L198,(((((H614/G614)^2+(K614/(1-J614))^2)^0.5)*(G614*(1-J614))*MM_CO2/MM_C/D614)^2+Reversion_Data!L198^2)^0.5)","v":4.1185453770355247},-6.7190283333333332,4.1185453770355247,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Oceanic Forest","New Zealand (temperate moist region)",40,"Abandoned Pasture:Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region):40",272,74.181818181818187,33.381818181818183,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G199*('Land Data'!G615*(1-'Land Data'!J615))*MM_CO2/MM_C/D615+Reversion_Data!K199)","v":-8.177875833333335},{"$f":"IF(J615=1,Reversion_Data!L199,(((((H615/G615)^2+(K615/(1-J615))^2)^0.5)*(G615*(1-J615))*MM_CO2/MM_C/D615)^2+Reversion_Data!L199^2)^0.5)","v":3.8503777519901878},-8.177875833333335,3.8503777519901878,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Oceanic Forest","New Zealand (temperate moist region)",100,"Abandoned Pasture:Land reverting to Temperate Oceanic Forest:New Zealand (temperate moist region):100",272,74.181818181818187,33.381818181818183,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G200*('Land Data'!G616*(1-'Land Data'!J616))*MM_CO2/MM_C/D616+Reversion_Data!K200)","v":-8.4257816666666674},{"$f":"IF(J616=1,Reversion_Data!L200,(((((H616/G616)^2+(K616/(1-J616))^2)^0.5)*(G616*(1-J616))*MM_CO2/MM_C/D616)^2+Reversion_Data!L200^2)^0.5)","v":3.8520911325647567},-8.4257816666666674,3.8520911325647567,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Oceanic Forest","South America (temperate moist region)",20,"Abandoned Pasture:Land reverting to Temperate Oceanic Forest:South America (temperate moist region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G201*('Land Data'!G617*(1-'Land Data'!J617))*MM_CO2/MM_C/D617+Reversion_Data!K201)","v":-8.6640158333333339},{"$f":"IF(J617=1,Reversion_Data!L201,(((((H617/G617)^2+(K617/(1-J617))^2)^0.5)*(G617*(1-J617))*MM_CO2/MM_C/D617)^2+Reversion_Data!L201^2)^0.5)","v":4.4006067574138017},-8.6640158333333339,4.4006067574138017,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Oceanic Forest","South America (temperate moist region)",40,"Abandoned Pasture:Land reverting to Temperate Oceanic Forest:South America (temperate moist region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G202*('Land Data'!G618*(1-'Land Data'!J618))*MM_CO2/MM_C/D618+Reversion_Data!K202)","v":-10.929673771929824},{"$f":"IF(J618=1,Reversion_Data!L202,(((((H618/G618)^2+(K618/(1-J618))^2)^0.5)*(G618*(1-J618))*MM_CO2/MM_C/D618)^2+Reversion_Data!L202^2)^0.5)","v":5.2141474492885198},-10.929673771929824,5.2141474492885198,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Oceanic Forest","South America (temperate moist region)",100,"Abandoned Pasture:Land reverting to Temperate Oceanic Forest:South America (temperate moist region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G203*('Land Data'!G619*(1-'Land Data'!J619))*MM_CO2/MM_C/D619+Reversion_Data!K203)","v":-4.8979999999999997},{"$f":"IF(J619=1,Reversion_Data!L203,(((((H619/G619)^2+(K619/(1-J619))^2)^0.5)*(G619*(1-J619))*MM_CO2/MM_C/D619)^2+Reversion_Data!L203^2)^0.5)","v":2.2303836127446774},-4.8979999999999997,2.2303836127446774,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Continental Forest","Europe (temperate dry region)",20,"Abandoned Pasture:Land reverting to Temperate Continental Forest:Europe (temperate dry region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G204*('Land Data'!G620*(1-'Land Data'!J620))*MM_CO2/MM_C/D620+Reversion_Data!K204)","v":-7.2535733333333337},{"$f":"IF(J620=1,Reversion_Data!L204,(((((H620/G620)^2+(K620/(1-J620))^2)^0.5)*(G620*(1-J620))*MM_CO2/MM_C/D620)^2+Reversion_Data!L204^2)^0.5)","v":4.109836930728247},-7.2535733333333337,4.109836930728247,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Continental Forest","Europe (temperate dry region)",40,"Abandoned Pasture:Land reverting to Temperate Continental Forest:Europe (temperate dry region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G205*('Land Data'!G621*(1-'Land Data'!J621))*MM_CO2/MM_C/D621+Reversion_Data!K205)","v":-8.3673599999999997},{"$f":"IF(J621=1,Reversion_Data!L205,(((((H621/G621)^2+(K621/(1-J621))^2)^0.5)*(G621*(1-J621))*MM_CO2/MM_C/D621)^2+Reversion_Data!L205^2)^0.5)","v":3.9339598108839393},-8.3673599999999997,3.9339598108839393,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Continental Forest","Europe (temperate dry region)",100,"Abandoned Pasture:Land reverting to Temperate Continental Forest:Europe (temperate dry region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G206*('Land Data'!G622*(1-'Land Data'!J622))*MM_CO2/MM_C/D622+Reversion_Data!K206)","v":-3.907},{"$f":"IF(J622=1,Reversion_Data!L206,(((((H622/G622)^2+(K622/(1-J622))^2)^0.5)*(G622*(1-J622))*MM_CO2/MM_C/D622)^2+Reversion_Data!L206^2)^0.5)","v":1.6801967399682693},-3.907,1.6801967399682693,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Continental Forest","North America (temperate dry region)",20,{"$f":"A623&\":\"&B623&\":\"&C623&\":\"&D623","v":"Abandoned Pasture:Land reverting to Temperate Continental Forest:North America (temperate dry region):20"},207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,{"$f":"P623+Q623","v":0},0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G207*('Land Data'!G623*(1-'Land Data'!J623))*MM_CO2/MM_C/D623+Reversion_Data!K207)","v":-7.1271100000000001},{"$f":"IF(J623=1,Reversion_Data!L207,(((((H623/G623)^2+(K623/(1-J623))^2)^0.5)*(G623*(1-J623))*MM_CO2/MM_C/D623)^2+Reversion_Data!L207^2)^0.5)","v":3.8931257669480699},-7.1271100000000001,3.8931257669480699,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Continental Forest","North America (temperate dry region)",40,"Abandoned Pasture:Land reverting to Temperate Continental Forest:North America (temperate dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G208*('Land Data'!G624*(1-'Land Data'!J624))*MM_CO2/MM_C/D624+Reversion_Data!K208)","v":-8.5362987719298253},{"$f":"IF(J624=1,Reversion_Data!L208,(((((H624/G624)^2+(K624/(1-J624))^2)^0.5)*(G624*(1-J624))*MM_CO2/MM_C/D624)^2+Reversion_Data!L208^2)^0.5)","v":4.0202516960871773},-8.5362987719298253,4.0202516960871773,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Continental Forest","North America (temperate dry region)",100,"Abandoned Pasture:Land reverting to Temperate Continental Forest:North America (temperate dry region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G209*('Land Data'!G625*(1-'Land Data'!J625))*MM_CO2/MM_C/D625+Reversion_Data!K209)","v":-4.0312999999999999},{"$f":"IF(J625=1,Reversion_Data!L209,(((((H625/G625)^2+(K625/(1-J625))^2)^0.5)*(G625*(1-J625))*MM_CO2/MM_C/D625)^2+Reversion_Data!L209^2)^0.5)","v":1.7653737997517693},-4.0312999999999999,1.7653737997517693,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Continental Forest","New Zealand (temperate dry region)",20,"Abandoned Pasture:Land reverting to Temperate Continental Forest:New Zealand (temperate dry region):20",272,74.181818181818187,33.381818181818183,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G210*('Land Data'!G626*(1-'Land Data'!J626))*MM_CO2/MM_C/D626+Reversion_Data!K210)","v":-7.3855733333333333},{"$f":"IF(J626=1,Reversion_Data!L210,(((((H626/G626)^2+(K626/(1-J626))^2)^0.5)*(G626*(1-J626))*MM_CO2/MM_C/D626)^2+Reversion_Data!L210^2)^0.5)","v":4.3531773995758289},-7.3855733333333333,4.3531773995758289,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Continental Forest","New Zealand (temperate dry region)",40,"Abandoned Pasture:Land reverting to Temperate Continental Forest:New Zealand (temperate dry region):40",272,74.181818181818187,33.381818181818183,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G211*('Land Data'!G627*(1-'Land Data'!J627))*MM_CO2/MM_C/D627+Reversion_Data!K211)","v":-8.4993599999999994},{"$f":"IF(J627=1,Reversion_Data!L211,(((((H627/G627)^2+(K627/(1-J627))^2)^0.5)*(G627*(1-J627))*MM_CO2/MM_C/D627)^2+Reversion_Data!L211^2)^0.5)","v":3.9988608705980253},-8.4993599999999994,3.9988608705980253,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Continental Forest","New Zealand (temperate dry region)",100,"Abandoned Pasture:Land reverting to Temperate Continental Forest:New Zealand (temperate dry region):100",272,74.181818181818187,33.381818181818183,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G212*('Land Data'!G628*(1-'Land Data'!J628))*MM_CO2/MM_C/D628+Reversion_Data!K212)","v":-4.0060000000000002},{"$f":"IF(J628=1,Reversion_Data!L212,(((((H628/G628)^2+(K628/(1-J628))^2)^0.5)*(G628*(1-J628))*MM_CO2/MM_C/D628)^2+Reversion_Data!L212^2)^0.5)","v":1.704534200302241},-4.0060000000000002,1.704534200302241,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Continental Forest","South America (temperate dry region)",20,"Abandoned Pasture:Land reverting to Temperate Continental Forest:South America (temperate dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,{"$f":"25%*J629","v":0.17499999999999999},1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G213*('Land Data'!G629*(1-'Land Data'!J629))*MM_CO2/MM_C/D629+Reversion_Data!K213)","v":-6.9627099999999995},{"$f":"IF(J629=1,Reversion_Data!L213,(((((H629/G629)^2+(K629/(1-J629))^2)^0.5)*(G629*(1-J629))*MM_CO2/MM_C/D629)^2+Reversion_Data!L213^2)^0.5)","v":3.6446828964979932},-6.9627099999999995,3.6446828964979932,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
[{"$f":"A629","v":"Abandoned Pasture"},"Land reverting to Temperate Continental Forest","South America (temperate dry region)",40,"Abandoned Pasture:Land reverting to Temperate Continental Forest:South America (temperate dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G214*('Land Data'!G630*(1-'Land Data'!J630))*MM_CO2/MM_C/D630+Reversion_Data!K214)","v":-8.3718987719298266},{"$f":"IF(J630=1,Reversion_Data!L214,(((((H630/G630)^2+(K630/(1-J630))^2)^0.5)*(G630*(1-J630))*MM_CO2/MM_C/D630)^2+Reversion_Data!L214^2)^0.5)","v":3.9615962684982589},-8.3718987719298266,3.9615962684982589,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Continental Forest","South America (temperate dry region)",100,"Abandoned Pasture:Land reverting to Temperate Continental Forest:South America (temperate dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G215*('Land Data'!G631*(1-'Land Data'!J631))*MM_CO2/MM_C/D631+Reversion_Data!K215)","v":-3.9080000000000004},{"$f":"IF(J631=1,Reversion_Data!L215,(((((H631/G631)^2+(K631/(1-J631))^2)^0.5)*(G631*(1-J631))*MM_CO2/MM_C/D631)^2+Reversion_Data!L215^2)^0.5)","v":1.7440286866906749},-3.9080000000000004,1.7440286866906749,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture",{"$f":"B491","v":"Land reverting to Temperate Mountain System"},"Europe (temperate moist region)",20,"Abandoned Pasture:Land reverting to Temperate Mountain System:Europe (temperate moist region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G216*('Land Data'!G632*(1-'Land Data'!J632))*MM_CO2/MM_C/D632+Reversion_Data!K216)","v":-6.1603933333333334},{"$f":"IF(J632=1,Reversion_Data!L216,(((((H632/G632)^2+(K632/(1-J632))^2)^0.5)*(G632*(1-J632))*MM_CO2/MM_C/D632)^2+Reversion_Data!L216^2)^0.5)","v":3.7077391516948857},-6.1603933333333334,3.7077391516948857,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Mountain System","Europe (temperate moist region)",40,"Abandoned Pasture:Land reverting to Temperate Mountain System:Europe (temperate moist region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G217*('Land Data'!G633*(1-'Land Data'!J633))*MM_CO2/MM_C/D633+Reversion_Data!K217)","v":-7.371398771929826},{"$f":"IF(J633=1,Reversion_Data!L217,(((((H633/G633)^2+(K633/(1-J633))^2)^0.5)*(G633*(1-J633))*MM_CO2/MM_C/D633)^2+Reversion_Data!L217^2)^0.5)","v":3.4689062947807741},-7.371398771929826,3.4689062947807741,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Mountain System","Europe (temperate moist region)",100,"Abandoned Pasture:Land reverting to Temperate Mountain System:Europe (temperate moist region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G218*('Land Data'!G634*(1-'Land Data'!J634))*MM_CO2/MM_C/D634+Reversion_Data!K218)","v":-4.1270000000000007},{"$f":"IF(J634=1,Reversion_Data!L218,(((((H634/G634)^2+(K634/(1-J634))^2)^0.5)*(G634*(1-J634))*MM_CO2/MM_C/D634)^2+Reversion_Data!L218^2)^0.5)","v":1.7849540848436412},-4.1270000000000007,1.7849540848436412,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Mountain System","North America (temperate moist region)",20,"Abandoned Pasture:Land reverting to Temperate Mountain System:North America (temperate moist region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G219*('Land Data'!G635*(1-'Land Data'!J635))*MM_CO2/MM_C/D635+Reversion_Data!K219)","v":-6.0327933333333332},{"$f":"IF(J635=1,Reversion_Data!L219,(((((H635/G635)^2+(K635/(1-J635))^2)^0.5)*(G635*(1-J635))*MM_CO2/MM_C/D635)^2+Reversion_Data!L219^2)^0.5)","v":3.4654608370693079},{"$f":"AI635","v":-6.0327933333333332},{"$f":"AJ635","v":3.4654608370693079},"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Mountain System","North America (temperate moist region)",40,"Abandoned Pasture:Land reverting to Temperate Mountain System:North America (temperate moist region):40",207.1,{"$f":"F636*MM_C/MM_CO2","v":56.481818181818177},{"$f":"error_SOC*G636","v":25.416818181818179},"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G220*('Land Data'!G636*(1-'Land Data'!J636))*MM_CO2/MM_C/D636+Reversion_Data!K220)","v":-7.2437987719298258},{"$f":"IF(J636=1,Reversion_Data!L220,(((((H636/G636)^2+(K636/(1-J636))^2)^0.5)*(G636*(1-J636))*MM_CO2/MM_C/D636)^2+Reversion_Data!L220^2)^0.5)","v":3.4057059739549125},-7.2437987719298258,3.4057059739549125,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Mountain System","North America (temperate moist region)",100,"Abandoned Pasture:Land reverting to Temperate Mountain System:North America (temperate moist region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G221*('Land Data'!G637*(1-'Land Data'!J637))*MM_CO2/MM_C/D637+Reversion_Data!K221)","v":-4.0312999999999999},{"$f":"IF(J637=1,Reversion_Data!L221,(((((H637/G637)^2+(K637/(1-J637))^2)^0.5)*(G637*(1-J637))*MM_CO2/MM_C/D637)^2+Reversion_Data!L221^2)^0.5)","v":1.7653737997517693},-4.0312999999999999,1.7653737997517693,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Mountain System","New Zealand (temperate moist region)",20,"Abandoned Pasture:Land reverting to Temperate Mountain System:New Zealand (temperate moist region):20",272,74.181818181818187,33.381818181818183,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G222*('Land Data'!G638*(1-'Land Data'!J638))*MM_CO2/MM_C/D638+Reversion_Data!K222)","v":-6.2923933333333331},{"$f":"IF(J638=1,Reversion_Data!L222,(((((H638/G638)^2+(K638/(1-J638))^2)^0.5)*(G638*(1-J638))*MM_CO2/MM_C/D638)^2+Reversion_Data!L222^2)^0.5)","v":3.9757670319085738},-6.2923933333333331,3.9757670319085738,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Mountain System","New Zealand (temperate moist region)",40,"Abandoned Pasture:Land reverting to Temperate Mountain System:New Zealand (temperate moist region):40",272,74.181818181818187,33.381818181818183,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G223*('Land Data'!G639*(1-'Land Data'!J639))*MM_CO2/MM_C/D639+Reversion_Data!K223)","v":-7.5033987719298256},{"$f":"IF(J639=1,Reversion_Data!L223,(((((H639/G639)^2+(K639/(1-J639))^2)^0.5)*(G639*(1-J639))*MM_CO2/MM_C/D639)^2+Reversion_Data!L223^2)^0.5)","v":3.5423381191974999},-7.5033987719298256,3.5423381191974999,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Mountain System","New Zealand (temperate moist region)",100,"Abandoned Pasture:Land reverting to Temperate Mountain System:New Zealand (temperate moist region):100",272,74.181818181818187,33.381818181818183,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G224*('Land Data'!G640*(1-'Land Data'!J640))*MM_CO2/MM_C/D640+Reversion_Data!K224)","v":-4.2260000000000009},{"$f":"IF(J640=1,Reversion_Data!L224,(((((H640/G640)^2+(K640/(1-J640))^2)^0.5)*(G640*(1-J640))*MM_CO2/MM_C/D640)^2+Reversion_Data!L224^2)^0.5)","v":1.807881865609587},-4.2260000000000009,1.807881865609587,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Mountain System","South America (temperate moist region)",20,"Abandoned Pasture:Land reverting to Temperate Mountain System:South America (temperate moist region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G225*('Land Data'!G641*(1-'Land Data'!J641))*MM_CO2/MM_C/D641+Reversion_Data!K225)","v":-5.8683933333333336},{"$f":"IF(J641=1,Reversion_Data!L225,(((((H641/G641)^2+(K641/(1-J641))^2)^0.5)*(G641*(1-J641))*MM_CO2/MM_C/D641)^2+Reversion_Data!L225^2)^0.5)","v":3.1838190890832836},-5.8683933333333336,3.1838190890832836,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Mountain System","South America (temperate moist region)",40,"Abandoned Pasture:Land reverting to Temperate Mountain System:South America (temperate moist region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G226*('Land Data'!G642*(1-'Land Data'!J642))*MM_CO2/MM_C/D642+Reversion_Data!K226)","v":-7.0793987719298261},{"$f":"IF(J642=1,Reversion_Data!L226,(((((H642/G642)^2+(K642/(1-J642))^2)^0.5)*(G642*(1-J642))*MM_CO2/MM_C/D642)^2+Reversion_Data!L226^2)^0.5)","v":3.3362635500990745},-7.0793987719298261,3.3362635500990745,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Mountain System","South America (temperate moist region)",100,"Abandoned Pasture:Land reverting to Temperate Mountain System:South America (temperate moist region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G227*('Land Data'!G643*(1-'Land Data'!J643))*MM_CO2/MM_C/D643+Reversion_Data!K227)","v":-3.9080000000000004},{"$f":"IF(J643=1,Reversion_Data!L227,(((((H643/G643)^2+(K643/(1-J643))^2)^0.5)*(G643*(1-J643))*MM_CO2/MM_C/D643)^2+Reversion_Data!L227^2)^0.5)","v":1.7440286866906749},-3.9080000000000004,1.7440286866906749,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Shrub or Grassland","Europe (temperate dry region)",20,"Abandoned Pasture:Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G228*('Land Data'!G644*(1-'Land Data'!J644))*MM_CO2/MM_C/D644+Reversion_Data!K228)","v":-2.3126666666666669},{"$f":"IF(J644=1,Reversion_Data!L228,(((((H644/G644)^2+(K644/(1-J644))^2)^0.5)*(G644*(1-J644))*MM_CO2/MM_C/D644)^2+Reversion_Data!L228^2)^0.5)","v":2.7269100161375168},-2.3126666666666669,2.7269100161375168,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Shrub or Grassland","Europe (temperate dry region)",40,"Abandoned Pasture:Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G229*('Land Data'!G645*(1-'Land Data'!J645))*MM_CO2/MM_C/D645+Reversion_Data!K229)","v":-1.6343333333333336},{"$f":"IF(J645=1,Reversion_Data!L229,(((((H645/G645)^2+(K645/(1-J645))^2)^0.5)*(G645*(1-J645))*MM_CO2/MM_C/D645)^2+Reversion_Data!L229^2)^0.5)","v":1.3634550080687584},-1.6343333333333336,1.3634550080687584,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Shrub or Grassland","Europe (temperate dry region)",100,"Abandoned Pasture:Land reverting to Temperate Shrub or Grassland:Europe (temperate dry region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G230*('Land Data'!G646*(1-'Land Data'!J646))*MM_CO2/MM_C/D646+Reversion_Data!K230)","v":-0.98833333333333351},{"$f":"IF(J646=1,Reversion_Data!L230,(((((H646/G646)^2+(K646/(1-J646))^2)^0.5)*(G646*(1-J646))*MM_CO2/MM_C/D646)^2+Reversion_Data!L230^2)^0.5)","v":0.54538200322750341},-0.98833333333333351,0.54538200322750341,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Shrub or Grassland","North America (temperate dry region)",20,"Abandoned Pasture:Land reverting to Temperate Shrub or Grassland:North America (temperate dry region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G231*('Land Data'!G647*(1-'Land Data'!J647))*MM_CO2/MM_C/D647+Reversion_Data!K231)","v":-2.1850666666666667},{"$f":"IF(J647=1,Reversion_Data!L231,(((((H647/G647)^2+(K647/(1-J647))^2)^0.5)*(G647*(1-J647))*MM_CO2/MM_C/D647)^2+Reversion_Data!L231^2)^0.5)","v":2.3870750789116602},-2.1850666666666667,2.3870750789116602,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Shrub or Grassland","North America (temperate dry region)",40,"Abandoned Pasture:Land reverting to Temperate Shrub or Grassland:North America (temperate dry region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G232*('Land Data'!G648*(1-'Land Data'!J648))*MM_CO2/MM_C/D648+Reversion_Data!K232)","v":-1.5067333333333335},{"$f":"IF(J648=1,Reversion_Data!L232,(((((H648/G648)^2+(K648/(1-J648))^2)^0.5)*(G648*(1-J648))*MM_CO2/MM_C/D648)^2+Reversion_Data!L232^2)^0.5)","v":1.1935375394558301},-1.5067333333333335,1.1935375394558301,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Shrub or Grassland","North America (temperate dry region)",100,"Abandoned Pasture:Land reverting to Temperate Shrub or Grassland:North America (temperate dry region):100",{"$f":"F508","v":207.1},56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G233*('Land Data'!G649*(1-'Land Data'!J649))*MM_CO2/MM_C/D649+Reversion_Data!K233)","v":-0.89263333333333339},{"$f":"IF(J649=1,Reversion_Data!L233,(((((H649/G649)^2+(K649/(1-J649))^2)^0.5)*(G649*(1-J649))*MM_CO2/MM_C/D649)^2+Reversion_Data!L233^2)^0.5)","v":0.47741501578233214},-0.89263333333333339,0.47741501578233214,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Shrub or Grassland","New Zealand (temperate dry region)",20,"Abandoned Pasture:Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region):20",272,74.181818181818187,33.381818181818183,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G234*('Land Data'!G650*(1-'Land Data'!J650))*MM_CO2/MM_C/D650+Reversion_Data!K234)","v":-2.444666666666667},{"$f":"IF(J650=1,Reversion_Data!L234,(((((H650/G650)^2+(K650/(1-J650))^2)^0.5)*(G650*(1-J650))*MM_CO2/MM_C/D650)^2+Reversion_Data!L234^2)^0.5)","v":3.0814659029609772},-2.444666666666667,3.0814659029609772,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Shrub or Grassland","New Zealand (temperate dry region)",40,"Abandoned Pasture:Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region):40",272,74.181818181818187,33.381818181818183,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G235*('Land Data'!G651*(1-'Land Data'!J651))*MM_CO2/MM_C/D651+Reversion_Data!K235)","v":-1.7663333333333338},{"$f":"IF(J651=1,Reversion_Data!L235,(((((H651/G651)^2+(K651/(1-J651))^2)^0.5)*(G651*(1-J651))*MM_CO2/MM_C/D651)^2+Reversion_Data!L235^2)^0.5)","v":1.5407329514804886},-1.7663333333333338,1.5407329514804886,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture",{"$f":"B511","v":"Land reverting to Temperate Shrub or Grassland"},"New Zealand (temperate dry region)",100,"Abandoned Pasture:Land reverting to Temperate Shrub or Grassland:New Zealand (temperate dry region):100",272,74.181818181818187,33.381818181818183,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G236*('Land Data'!G652*(1-'Land Data'!J652))*MM_CO2/MM_C/D652+Reversion_Data!K236)","v":-1.0873333333333337},{"$f":"IF(J652=1,Reversion_Data!L236,(((((H652/G652)^2+(K652/(1-J652))^2)^0.5)*(G652*(1-J652))*MM_CO2/MM_C/D652)^2+Reversion_Data!L236^2)^0.5)","v":0.6162931805921954},-1.0873333333333337,0.6162931805921954,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Shrub or Grassland","South America (temperate dry region)",20,"Abandoned Pasture:Land reverting to Temperate Shrub or Grassland:South America (temperate dry region):20",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G237*('Land Data'!G653*(1-'Land Data'!J653))*MM_CO2/MM_C/D653+Reversion_Data!K237)","v":-2.0206666666666671},{"$f":"IF(J653=1,Reversion_Data!L237,(((((H653/G653)^2+(K653/(1-J653))^2)^0.5)*(G653*(1-J653))*MM_CO2/MM_C/D653)^2+Reversion_Data!L237^2)^0.5)","v":1.9558662048082716},-2.0206666666666671,1.9558662048082716,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Shrub or Grassland","South America (temperate dry region)",40,"Abandoned Pasture:Land reverting to Temperate Shrub or Grassland:South America (temperate dry region):40",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G238*('Land Data'!G654*(1-'Land Data'!J654))*MM_CO2/MM_C/D654+Reversion_Data!K238)","v":-1.3423333333333334},{"$f":"IF(J654=1,Reversion_Data!L238,(((((H654/G654)^2+(K654/(1-J654))^2)^0.5)*(G654*(1-J654))*MM_CO2/MM_C/D654)^2+Reversion_Data!L238^2)^0.5)","v":0.97793310240413578},-1.3423333333333334,0.97793310240413578,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Temperate Shrub or Grassland","South America (temperate dry region)",100,"Abandoned Pasture:Land reverting to Temperate Shrub or Grassland:South America (temperate dry region):100",166,45.272727272727273,20.372727272727275,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G239*('Land Data'!G655*(1-'Land Data'!J655))*MM_CO2/MM_C/D655+Reversion_Data!K239)","v":-0.76933333333333342},{"$f":"IF(J655=1,Reversion_Data!L239,(((((H655/G655)^2+(K655/(1-J655))^2)^0.5)*(G655*(1-J655))*MM_CO2/MM_C/D655)^2+Reversion_Data!L239^2)^0.5)","v":0.39117324096165429},-0.76933333333333342,0.39117324096165429,"Abandoned agricultural land left to revert to its native state",null,2.8000000000000001E-2,"Chambers et al., 2000. Specific to forests in Pacific North USA. ",0.185,"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "]
["Abandoned Pasture","Land reverting to Boreal Coniferous Forest","Europe (boreal region)",20,"Abandoned Pasture:Land reverting to Boreal Coniferous Forest:Europe (boreal region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G243*('Land Data'!G656*(1-'Land Data'!J656))*MM_CO2/MM_C/D656+Reversion_Data!K243)","v":-3.6976883333333332},{"$f":"IF(J656=1,Reversion_Data!L243,(((((H656/G656)^2+(K656/(1-J656))^2)^0.5)*(G656*(1-J656))*MM_CO2/MM_C/D656)^2+Reversion_Data!L243^2)^0.5)","v":3.0326601952934591},-3.6976883333333332,3.0326601952934591,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",{"$f":"AVERAGE(0.066,0.127)","v":9.6500000000000002E-2},"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture","Land reverting to Boreal Coniferous Forest","Europe (boreal region)",40,"Abandoned Pasture:Land reverting to Boreal Coniferous Forest:Europe (boreal region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G244*('Land Data'!G657*(1-'Land Data'!J657))*MM_CO2/MM_C/D657+Reversion_Data!K244)","v":-4.3700083333333337},{"$f":"IF(J657=1,Reversion_Data!L244,(((((H657/G657)^2+(K657/(1-J657))^2)^0.5)*(G657*(1-J657))*MM_CO2/MM_C/D657)^2+Reversion_Data!L244^2)^0.5)","v":2.2539061653273622},-4.3700083333333337,2.2539061653273622,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture","Land reverting to Boreal Coniferous Forest","Europe (boreal region)",100,"Abandoned Pasture:Land reverting to Boreal Coniferous Forest:Europe (boreal region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G245*('Land Data'!G658*(1-'Land Data'!J658))*MM_CO2/MM_C/D658+Reversion_Data!K245)","v":-2.7895833333333337},{"$f":"IF(J658=1,Reversion_Data!L245,(((((H658/G658)^2+(K658/(1-J658))^2)^0.5)*(G658*(1-J658))*MM_CO2/MM_C/D658)^2+Reversion_Data!L245^2)^0.5)","v":1.1631579872926885},-2.7895833333333337,1.1631579872926885,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture","Land reverting to Boreal Coniferous Forest","North America (boreal region)",20,"Abandoned Pasture:Land reverting to Boreal Coniferous Forest:North America (boreal region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G246*('Land Data'!G659*(1-'Land Data'!J659))*MM_CO2/MM_C/D659+Reversion_Data!K246)","v":-3.6019883333333333},{"$f":"IF(J659=1,Reversion_Data!L246,(((((H659/G659)^2+(K659/(1-J659))^2)^0.5)*(G659*(1-J659))*MM_CO2/MM_C/D659)^2+Reversion_Data!L246^2)^0.5)","v":2.7311384176506617},-3.6019883333333333,2.7311384176506617,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture","Land reverting to Boreal Coniferous Forest","North America (boreal region)",40,"Abandoned Pasture:Land reverting to Boreal Coniferous Forest:North America (boreal region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G247*('Land Data'!G660*(1-'Land Data'!J660))*MM_CO2/MM_C/D660+Reversion_Data!K247)","v":-4.2743083333333338},{"$f":"IF(J660=1,Reversion_Data!L247,(((((H660/G660)^2+(K660/(1-J660))^2)^0.5)*(G660*(1-J660))*MM_CO2/MM_C/D660)^2+Reversion_Data!L247^2)^0.5)","v":2.1553689478052696},-4.2743083333333338,2.1553689478052696,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture","Land reverting to Boreal Coniferous Forest","North America (boreal region)",100,"Abandoned Pasture:Land reverting to Boreal Coniferous Forest:North America (boreal region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,{"$f":"25%*J661","v":0.17499999999999999},1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G248*('Land Data'!G661*(1-'Land Data'!J661))*MM_CO2/MM_C/D661+Reversion_Data!K248)","v":-2.6938833333333339},{"$f":"IF(J661=1,Reversion_Data!L248,(((((H661/G661)^2+(K661/(1-J661))^2)^0.5)*(G661*(1-J661))*MM_CO2/MM_C/D661)^2+Reversion_Data!L248^2)^0.5)","v":1.1328813138421774},-2.6938833333333339,1.1328813138421774,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[{"$f":"A661","v":"Abandoned Pasture"},"Land reverting to Boreal Coniferous Forest","Asia Continental (boreal region)",20,"Abandoned Pasture:Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G249*('Land Data'!G662*(1-'Land Data'!J662))*MM_CO2/MM_C/D662+Reversion_Data!K249)","v":-3.4636883333333333},{"$f":"IF(J662=1,Reversion_Data!L249,(((((H662/G662)^2+(K662/(1-J662))^2)^0.5)*(G662*(1-J662))*MM_CO2/MM_C/D662)^2+Reversion_Data!L249^2)^0.5)","v":2.320932541052704},-3.4636883333333333,2.320932541052704,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture","Land reverting to Boreal Coniferous Forest","Asia Continental (boreal region)",40,"Abandoned Pasture:Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G250*('Land Data'!G663*(1-'Land Data'!J663))*MM_CO2/MM_C/D663+Reversion_Data!K250)","v":-4.1360083333333337},{"$f":"IF(J663=1,Reversion_Data!L250,(((((H663/G663)^2+(K663/(1-J663))^2)^0.5)*(G663*(1-J663))*MM_CO2/MM_C/D663)^2+Reversion_Data!L250^2)^0.5)","v":2.0316293958546412},-4.1360083333333337,2.0316293958546412,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture","Land reverting to Boreal Coniferous Forest","Asia Continental (boreal region)",100,"Abandoned Pasture:Land reverting to Boreal Coniferous Forest:Asia Continental (boreal region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G251*('Land Data'!G664*(1-'Land Data'!J664))*MM_CO2/MM_C/D664+Reversion_Data!K251)","v":-2.5555833333333338},{"$f":"IF(J664=1,Reversion_Data!L251,(((((H664/G664)^2+(K664/(1-J664))^2)^0.5)*(G664*(1-J664))*MM_CO2/MM_C/D664)^2+Reversion_Data!L251^2)^0.5)","v":1.0956844908105516},-2.5555833333333338,1.0956844908105516,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture","Land reverting to Boreal Tundra","Europe (boreal region)",20,"Abandoned Pasture:Land reverting to Boreal Tundra:Europe (boreal region):20",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G252*('Land Data'!G665*(1-'Land Data'!J665))*MM_CO2/MM_C/D665+Reversion_Data!K252)","v":-3.374141666666667},{"$f":"IF(J665=1,Reversion_Data!L252,(((((H665/G665)^2+(K665/(1-J665))^2)^0.5)*(G665*(1-J665))*MM_CO2/MM_C/D665)^2+Reversion_Data!L252^2)^0.5)","v":2.9565186595359125},-3.374141666666667,2.9565186595359125,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture","Land reverting to Boreal Tundra","Europe (boreal region)",40,"Abandoned Pasture:Land reverting to Boreal Tundra:Europe (boreal region):40",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G253*('Land Data'!G666*(1-'Land Data'!J666))*MM_CO2/MM_C/D666+Reversion_Data!K253)","v":-3.374141666666667},{"$f":"IF(J666=1,Reversion_Data!L253,(((((H666/G666)^2+(K666/(1-J666))^2)^0.5)*(G666*(1-J666))*MM_CO2/MM_C/D666)^2+Reversion_Data!L253^2)^0.5)","v":1.8732527833781611},-3.374141666666667,1.8732527833781611,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture","Land reverting to Boreal Tundra","Europe (boreal region)",100,"Abandoned Pasture:Land reverting to Boreal Tundra:Europe (boreal region):100",239,65.181818181818187,29.331818181818186,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G254*('Land Data'!G667*(1-'Land Data'!J667))*MM_CO2/MM_C/D667+Reversion_Data!K254)","v":-2.0455708333333336},{"$f":"IF(J667=1,Reversion_Data!L254,(((((H667/G667)^2+(K667/(1-J667))^2)^0.5)*(G667*(1-J667))*MM_CO2/MM_C/D667)^2+Reversion_Data!L254^2)^0.5)","v":0.84871149385171341},-2.0455708333333336,0.84871149385171341,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture","Land reverting to Boreal Tundra","North America (boreal region)",20,"Abandoned Pasture:Land reverting to Boreal Tundra:North America (boreal region):20",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G255*('Land Data'!G668*(1-'Land Data'!J668))*MM_CO2/MM_C/D668+Reversion_Data!K255)","v":-3.2784416666666671},{"$f":"IF(J668=1,Reversion_Data!L255,(((((H668/G668)^2+(K668/(1-J668))^2)^0.5)*(G668*(1-J668))*MM_CO2/MM_C/D668)^2+Reversion_Data!L255^2)^0.5)","v":2.6463355381421354},-3.2784416666666671,2.6463355381421354,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture","Land reverting to Boreal Tundra","North America (boreal region)",40,"Abandoned Pasture:Land reverting to Boreal Tundra:North America (boreal region):40",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G256*('Land Data'!G669*(1-'Land Data'!J669))*MM_CO2/MM_C/D669+Reversion_Data!K256)","v":-3.2784416666666671},{"$f":"IF(J669=1,Reversion_Data!L256,(((((H669/G669)^2+(K669/(1-J669))^2)^0.5)*(G669*(1-J669))*MM_CO2/MM_C/D669)^2+Reversion_Data!L256^2)^0.5)","v":1.7534532470232926},-3.2784416666666671,1.7534532470232926,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture","Land reverting to Boreal Tundra","North America (boreal region)",100,"Abandoned Pasture:Land reverting to Boreal Tundra:North America (boreal region):100",207.1,56.481818181818177,25.416818181818179,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G257*('Land Data'!G670*(1-'Land Data'!J670))*MM_CO2/MM_C/D670+Reversion_Data!K257)","v":-1.9498708333333332},{"$f":"IF(J670=1,Reversion_Data!L257,(((((H670/G670)^2+(K670/(1-J670))^2)^0.5)*(G670*(1-J670))*MM_CO2/MM_C/D670)^2+Reversion_Data!L257^2)^0.5)","v":0.80671851822429785},-1.9498708333333332,0.80671851822429785,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture","Land reverting to Boreal Tundra","Asia Continental (boreal region)",20,"Abandoned Pasture:Land reverting to Boreal Tundra:Asia Continental (boreal region):20",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G258*('Land Data'!G671*(1-'Land Data'!J671))*MM_CO2/MM_C/D671+Reversion_Data!K258)","v":-3.1401416666666671},{"$f":"IF(J671=1,Reversion_Data!L258,(((((H671/G671)^2+(K671/(1-J671))^2)^0.5)*(G671*(1-J671))*MM_CO2/MM_C/D671)^2+Reversion_Data!L258^2)^0.5)","v":2.2205185394821698},-3.1401416666666671,2.2205185394821698,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture",{"$f":"B531","v":"Land reverting to Boreal Tundra"},"Asia Continental (boreal region)",40,"Abandoned Pasture:Land reverting to Boreal Tundra:Asia Continental (boreal region):40",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G259*('Land Data'!G672*(1-'Land Data'!J672))*MM_CO2/MM_C/D672+Reversion_Data!K259)","v":-3.1401416666666671},{"$f":"IF(J672=1,Reversion_Data!L259,(((((H672/G672)^2+(K672/(1-J672))^2)^0.5)*(G672*(1-J672))*MM_CO2/MM_C/D672)^2+Reversion_Data!L259^2)^0.5)","v":1.5989061856262952},-3.1401416666666671,1.5989061856262952,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
["Abandoned Pasture","Land reverting to Boreal Tundra","Asia Continental (boreal region)",100,"Abandoned Pasture:Land reverting to Boreal Tundra:Asia Continental (boreal region):100",161,43.909090909090907,19.759090909090908,"Winrock, 2011",0.7,0.17499999999999999,1,0,"Assume little vegetation on the abandoned land initially.",0,0,0,0,0,"Abandoned land. No production",0,0,0,0,0,0,0,"Abandoned land. No operations",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"-(Reversion_Data!G260*('Land Data'!G673*(1-'Land Data'!J673))*MM_CO2/MM_C/D673+Reversion_Data!K260)","v":-1.8115708333333334},{"$f":"IF(J673=1,Reversion_Data!L260,(((((H673/G673)^2+(K673/(1-J673))^2)^0.5)*(G673*(1-J673))*MM_CO2/MM_C/D673)^2+Reversion_Data!L260^2)^0.5)","v":0.7535908702976748},-1.8115708333333334,0.7535908702976748,"Abandoned agricultural land left to revert to its native state",null,1.0999999999999999E-2,"Chambers et al., 2000. Specific to forests in Canadian Rocky Mountains",9.6500000000000002E-2,"Vavrova, 2009. Specific to Boreal conditions in Finland, decaying fine residues with diameter > 1 cm. "]
[null,"New type add here, then inset rows above"]
[]
[]
[]
["New Land Use"]
["New Land Use Lookup name at t=0",{"$f":"Results_Biopathways!C26&\":\"&Results_Biopathways!C25&\":\"&0","v":"LRF Conifer for wood products and bioenergy:UK:0"}]
["New Land Use Lookup name at end of time frame",{"$f":"Results_Biopathways!C26&\":\"&Results_Biopathways!C25&\":\"&Results_Biopathways!C20","v":"LRF Conifer for wood products and bioenergy:UK:40"}]
[]
["Selected Data for New Land Use (selected from Land Table 2)","Mean","Units","Error"]
["Flu (IPCC Land Management Factor)",{"$f":"INDEX(lookup_flu_newland,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":1},"-",{"$f":"INDEX(lookup_flu_error_newland,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":0}]
["Number of stands",{"$f":"INDEX(Stands_newland,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":59}]
["IPCC Peat emission factor",{"$f":"INDEX(lookup_peat_EF,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":0},"t C/ha/y",{"$f":"INDEX(lookup_peat_EF_error,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":0}]
["Non Soil Carbon Stock at end of time = 0",{"$f":"INDEX(lookup_carbonstocks_newland,MATCH('Land Data'!B679,Lookup_new_land_names,0))","v":69.5},"t C/ha"]
["Non Soil Carbon Stock at end of time frame",{"$f":"INDEX(lookup_carbonstocks_newland,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":69.5},"t C/ha"]
["Biomass Produced",{"$f":"INDEX(lookup_new_land_use_biomass_production,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":3.7309999999999999},"odt/ha/y"]
["of which"]
["Saw Logs",{"$f":"INDEX(lookup_newland_proportion_sawlogs,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":0.66420000000000001}]
["Small Roundwood",{"$f":"INDEX(lookup_newland_proportion_smallroundwood,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":0.26019999999999999}]
["Residues",{"$f":"INDEX(lookup_newland_proportion_branchwood,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":7.5600000000000001E-2}]
["SRC Chips",{"$f":"INDEX(lookup_newland_proportion_SRC_Chips,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":0}]
["Miscanthus Chips",{"$f":"INDEX(lookup_newland_proportion_Miscanthus_chips,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":0}]
["Eucalyptus Roundwood",{"$f":"INDEX(lookup_newland_proportion_Eucalyptus_chips,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":0}]
["Palm Fruits",{"$f":"INDEX(lookup_newland_proportion_Palm,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":0}]
["Maize (whole crop)",{"$f":"INDEX(lookup_newland_proportion_maize,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":0}]
["Recommended Nitrogen fertiliser application",{"$f":"INDEX(NFert_recommend_newland,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":0},"kg N/ha/y"]
["Carbon Impact from land management, excluding irrigation",{"$f":"INDEX(lookup_landmanagement_CO2_newland,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":7.4527250191219599E-2},"t CO2/ha/y"]
["Additional Carbon Impact from residue removal, if used",{"$f":"INDEX(lookup_branchremoval_CO2_newland,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":3.6535133980799992E-3},"t CO2/ha/y"]
["Energy requirement (direct) from land management, excluding irrigation",{"$f":"INDEX(lookup_landmanagement_Energy_newland,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":0.23002639336357786},"MWh/ha/y",null,null,null,null,{"$f":"INDEX('Land Data'!K712:K1388,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":"Forest Research C-SORT model. Modelled as Sitka Spruce, 59 year rotation"}]
["Primary energy requirement from land management, excluding irrigation",{"$f":"INDEX(lookup_PrimEn_Newland_management,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":0.24526490482488172},"MWh/ha/y"]
["Energy requirment (direct) from residue removal (if not included above)",{"$f":"INDEX(lookup_branchremoval_Energy_newland,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":1.1260636147572816E-2},"MWh/ha/y"]
["Primary energy requirment (direct) from residue removal (if not included above)",{"$f":"INDEX(lookup_PrimEn_Residue_Newland,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":1.2082662586345631E-2},"MWh/ha/y"]
["N2O emissions from land, excluding from fertilisers",{"$f":"INDEX(lookup_N2O_land_new,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":1.1439999999999998E-3},"t N2O/ha/y",{"$f":"INDEX(lookup_N2Oerror_land_new,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":1.5839999999999999E-3}]
["CH4 emissions from land",{"$f":"INDEX(lookup_CH4_land_new,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":-3.613504E-3},"t CH4/ha/y",{"$f":"INDEX(lookup_CH4error_land_new,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":1.806752E-3}]
["Dry biomass LHV",{"$f":"INDEX(lookup_LHV_dry,MATCH(Lookupname_New_Land_Use,Lookup_new_land_names,0))","v":5.333333333333333},"kWh/kg"]
[]
["Land Data Table 2. New Land Use"]
["Land Use","Country","Time ","Lookup Name","SOC factor to determine change in soil carbon (IPCC Flu Land Management factor)","Flu error","No. Stands (1 harvested each year)","IPCC Peat Emission Factor","IPCC Peat Emission Factor error","Carbon Stock at end of Time Frame (Above and Below Ground, Litter).","Note and Reference ","Base Yield","Note and Reference ","Modelled yield","Proportion Sawlogs","Proportion Small Roundwood","Proportion Total Roundwood","Proportion Branchwood","Proportion SRC Chips","Proportion Miscanthus Chips","Proportion Maize Crop","Proportion Palm Crop","Proportion Eucalyptus chips","Recommended N Fertiliser","CO2 emissions from land management w/o branchwood harvest. Excluding irrigation","Direct Energy Requirement from land management w/o branchwood harvest. Excluding irrigation","Primary Energy Requirement from land management w/o branchwood harvest. Excluding irrigation","CO2 emissions from branchwood harvest.","Additional Direct Energy Requirement from branchwood harvest.Excluding irrigation","Primary Energy Requirement from branchwood harvest.","Note and Reference ","N2O emissions from land (excluding from fertiliser)","N2O Emissions error","Note and Reference ","CH4 emissions from land (excluding fertilsier)","CH4 emissions error","Note and Reference ","Possible Bioenergy Forms from Land",null,null,null,"Dry biomass LHV"]
[null,null,"years",null,null,"%",null,"te C/ha/y","te C/ha/y","te C/ha",null,"odt/ha/y",null,"odt/ha/y",null,null,null,null,null,null,null,null,null,"kg N/Ha/y","te CO2/ha/y","MWh/ha/y",null,"te CO2/ha/y","MWh/ha/y","MWh/ha/y",null,"te N2O/ha/y","te N2O/ha/y",null,"te CH4/ha/y","te CH4/ha/y",null,null,null,null,null,"kWh/kg"]
[{"$f":"Lists!B16","v":"LRF Conifer for wood products and bioenergy"},{"$f":"'Transport Data'!A8","v":"UK"},0,{"$f":"A712&\":\"&B712&\":\"&C712","v":"LRF Conifer for wood products and bioenergy:UK:0"},1,0,59,null,null,69.5,"Forest Research C-SORT model. Modelled as Sitka Spruce, 59 year rotation","N/A",null,"N/A"]
[{"$f":"Lists!B16","v":"LRF Conifer for wood products and bioenergy"},{"$f":"'Transport Data'!A8","v":"UK"},20,{"$f":"A713&\":\"&B713&\":\"&C713","v":"LRF Conifer for wood products and bioenergy:UK:20"},1,0,59,null,null,69.5,"Forest Research C-SORT model. Modelled as Sitka Spruce, 59 year rotation",3.7309999999999999,"Planted forest. Forest Research C-SORT model.",{"$f":"L713","v":3.7309999999999999},0.66420000000000001,0.26019999999999999,{"$f":"O713+P713","v":0.9244},7.5600000000000001E-2,0,0,0,0,0,0,{"$f":"(L713*Q713/density_SW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G713)/Conv_te_kg","v":7.4527250191219599E-2},{"$f":"(L713*Q713/density_SW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G713)/Conv_MWh_KWh","v":0.23002639336357786},{"$f":"(L713*Q713/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G713)/Conv_MWh_KWh","v":0.24526490482488172},{"$f":"L713*R713*LCA_brash*EF_diesel/Conv_te_kg","v":3.6535133980799992E-3},{"$f":"L713*R713*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.1260636147572816E-2},{"$f":"L713*R713*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.2082662586345631E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A712","v":"LRF Conifer for wood products and bioenergy"},{"$f":"B712","v":"UK"},40,"LRF Conifer for wood products and bioenergy:UK:40",1,0,59,null,null,69.5,"Forest Research C-SORT model. Modelled as Sitka Spruce, 59 year rotation",3.7309999999999999,"Planted forest. Forest Research C-SORT model.",{"$f":"L714","v":3.7309999999999999},0.66420000000000001,0.26019999999999999,{"$f":"O714+P714","v":0.9244},7.5600000000000001E-2,0,0,0,0,0,0,{"$f":"(L714*Q714/density_SW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G714)/Conv_te_kg","v":7.4527250191219599E-2},{"$f":"(L714*Q714/density_SW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G714)/Conv_MWh_KWh","v":0.23002639336357786},{"$f":"(L714*Q714/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G714)/Conv_MWh_KWh","v":0.24526490482488172},{"$f":"L714*R714*LCA_brash*EF_diesel/Conv_te_kg","v":3.6535133980799992E-3},{"$f":"L714*R714*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.1260636147572816E-2},{"$f":"L714*R714*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.2082662586345631E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A714","v":"LRF Conifer for wood products and bioenergy"},{"$f":"B714","v":"UK"},100,"LRF Conifer for wood products and bioenergy:UK:100",1,0,59,null,null,69.5,"Forest Research C-SORT model. Modelled as Sitka Spruce, 59 year rotation",3.7309999999999999,"Planted forest. Forest Research C-SORT model.",{"$f":"L715","v":3.7309999999999999},0.66420000000000001,0.26019999999999999,{"$f":"O715+P715","v":0.9244},7.5600000000000001E-2,0,0,0,0,0,0,{"$f":"(L715*Q715/density_SW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G715)/Conv_te_kg","v":7.4527250191219599E-2},{"$f":"(L715*Q715/density_SW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G715)/Conv_MWh_KWh","v":0.23002639336357786},{"$f":"(L715*Q715/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G715)/Conv_MWh_KWh","v":0.24526490482488172},{"$f":"L715*R715*LCA_brash*EF_diesel/Conv_te_kg","v":3.6535133980799992E-3},{"$f":"L715*R715*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.1260636147572816E-2},{"$f":"L715*R715*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.2082662586345631E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A715","v":"LRF Conifer for wood products and bioenergy"},{"$f":"'Transport Data'!A9","v":"South USA"},0,"LRF Conifer for wood products and bioenergy:South USA:0",1,0,50,null,null,69.64,"Smith et al., 2006. Modelled as loblolly pine natural timberland, with natural regeneration, harvested every 50 years. ","N/A",null,"N/A"]
[{"$f":"A715","v":"LRF Conifer for wood products and bioenergy"},{"$f":"'Transport Data'!A9","v":"South USA"},20,"LRF Conifer for wood products and bioenergy:South USA:20",1,0,50,null,null,69.64,"Smith et al., 2006. Modelled as loblolly pine natural timberland, with natural regeneration, harvested every 50 years. ",{"$f":"O35/Q717","v":1.9944444444444442},"Naturally regenerated forest. Smith et al., 2006. Estimated residue proportion.",{"$f":"L717","v":1.9944444444444442},0.54,0.36,{"$f":"O717+P717","v":0.9},0.1,0,0,0,0,0,0,{"$f":"(L717*Q717/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.4649133941605847E-2},{"$f":"(L717*Q717/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.10679344719249761},{"$f":"(L717*Q717/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.11458936883754993},{"$f":"L717*R717*LCA_brash*EF_diesel/Conv_te_kg","v":2.5833639999999995E-3},{"$f":"L717*R717*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":7.9622869471413157E-3},{"$f":"L717*R717*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":8.5435338942826313E-3},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A717","v":"LRF Conifer for wood products and bioenergy"},{"$f":"B717","v":"South USA"},40,"LRF Conifer for wood products and bioenergy:South USA:40",1,0,50,null,null,69.64,"Smith et al., 2006. Modelled as loblolly pine natural timberland, with natural regeneration, harvested every 50 years. ",{"$f":"O36/Q718","v":1.9944444444444442},"Naturally regenerated forest. Smith et al., 2006. Estimated residue proportion.",{"$f":"L718","v":1.9944444444444442},0.54,0.36,{"$f":"O718+P718","v":0.9},0.1,0,0,0,0,0,0,{"$f":"(L718*Q718/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.4649133941605847E-2},{"$f":"(L718*Q718/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.10679344719249761},{"$f":"(L718*Q718/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.11458936883754993},{"$f":"L718*R718*LCA_brash*EF_diesel/Conv_te_kg","v":2.5833639999999995E-3},{"$f":"L718*R718*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":7.9622869471413157E-3},{"$f":"L718*R718*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":8.5435338942826313E-3},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A718","v":"LRF Conifer for wood products and bioenergy"},{"$f":"B718","v":"South USA"},100,"LRF Conifer for wood products and bioenergy:South USA:100",1,0,50,null,null,69.64,"Smith et al., 2006. Modelled as loblolly pine natural timberland, with natural regeneration, harvested every 50 years. ",1.9944444444444442,"Naturally regenerated forest. Smith et al., 2006. Estimated residue proportion.",{"$f":"L719","v":1.9944444444444442},0.54,0.36,{"$f":"O719+P719","v":0.9},0.1,0,0,0,0,0,0,{"$f":"(L719*Q719/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.4649133941605847E-2},{"$f":"(L719*Q719/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.10679344719249761},{"$f":"(L719*Q719/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.11458936883754993},{"$f":"L719*R719*LCA_brash*EF_diesel/Conv_te_kg","v":2.5833639999999995E-3},{"$f":"L719*R719*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":7.9622869471413157E-3},{"$f":"L719*R719*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":8.5435338942826313E-3},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A719","v":"LRF Conifer for wood products and bioenergy"},{"$f":"'Transport Data'!A10","v":"North West USA"},0,"LRF Conifer for wood products and bioenergy:North West USA:0",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation","N/A",null,"N/A"]
[{"$f":"A719","v":"LRF Conifer for wood products and bioenergy"},{"$f":"'Transport Data'!A10","v":"North West USA"},20,"LRF Conifer for wood products and bioenergy:North West USA:20",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation",4.3280000000000003,"Planted forest. Forest Research C-SORT model.",{"$f":"L721","v":4.3280000000000003},0.68810000000000004,0.2397,{"$f":"O721+P721","v":0.92780000000000007},7.22E-2,0,0,0,0,0,0,{"$f":"(L721*Q721/density_SW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G721)/Conv_te_kg","v":8.2203760571912421E-2},{"$f":"(L721*Q721/density_SW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G721)/Conv_MWh_KWh","v":0.2535540154782322},{"$f":"(L721*Q721/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G721)/Conv_MWh_KWh","v":0.27114694360814312},{"$f":"L721*R721*LCA_brash*EF_diesel/Conv_te_kg","v":4.0475116684800007E-3},{"$f":"L721*R721*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.2474993584466023E-2},{"$f":"L721*R721*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.3385668116132041E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A721","v":"LRF Conifer for wood products and bioenergy"},{"$f":"B721","v":"North West USA"},40,"LRF Conifer for wood products and bioenergy:North West USA:40",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation",4.3280000000000003,"Planted forest. Forest Research C-SORT model.",{"$f":"L722","v":4.3280000000000003},0.68810000000000004,0.2397,{"$f":"O722+P722","v":0.92780000000000007},7.22E-2,0,0,0,0,0,0,{"$f":"(L722*Q722/density_SW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G722)/Conv_te_kg","v":8.2203760571912421E-2},{"$f":"(L722*Q722/density_SW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G722)/Conv_MWh_KWh","v":0.2535540154782322},{"$f":"(L722*Q722/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G722)/Conv_MWh_KWh","v":0.27114694360814312},{"$f":"L722*R722*LCA_brash*EF_diesel/Conv_te_kg","v":4.0475116684800007E-3},{"$f":"L722*R722*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.2474993584466023E-2},{"$f":"L722*R722*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.3385668116132041E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A722","v":"LRF Conifer for wood products and bioenergy"},{"$f":"B722","v":"North West USA"},100,"LRF Conifer for wood products and bioenergy:North West USA:100",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation",4.3280000000000003,"Planted forest. Forest Research C-SORT model.",{"$f":"L723","v":4.3280000000000003},0.68810000000000004,0.2397,{"$f":"O723+P723","v":0.92780000000000007},7.22E-2,0,0,0,0,0,0,{"$f":"(L723*Q723/density_SW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G723)/Conv_te_kg","v":8.2203760571912421E-2},{"$f":"(L723*Q723/density_SW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G723)/Conv_MWh_KWh","v":0.2535540154782322},{"$f":"(L723*Q723/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G723)/Conv_MWh_KWh","v":0.27114694360814312},{"$f":"L723*R723*LCA_brash*EF_diesel/Conv_te_kg","v":4.0475116684800007E-3},{"$f":"L723*R723*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.2474993584466023E-2},{"$f":"L723*R723*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.3385668116132041E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A723","v":"LRF Conifer for wood products and bioenergy"},{"$f":"'Transport Data'!A13","v":"Pacific Canada"},0,"LRF Conifer for wood products and bioenergy:Pacific Canada:0",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation","N/A",null,"N/A"]
[{"$f":"A723","v":"LRF Conifer for wood products and bioenergy"},{"$f":"'Transport Data'!A13","v":"Pacific Canada"},20,"LRF Conifer for wood products and bioenergy:Pacific Canada:20",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation",4.3280000000000003,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L725","v":4.3280000000000003},0.68810000000000004,0.2397,{"$f":"O725+P725","v":0.92780000000000007},7.22E-2,0,0,0,0,0,0,{"$f":"(L725*Q725/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":7.7512108571912416E-2},{"$f":"(L725*Q725/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.2389030931481351},{"$f":"(L725*Q725/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.25634301894794898},{"$f":"L725*R725*LCA_brash*EF_diesel/Conv_te_kg","v":4.0475116684800007E-3},{"$f":"L725*R725*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.2474993584466023E-2},{"$f":"L725*R725*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.3385668116132041E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A725","v":"LRF Conifer for wood products and bioenergy"},{"$f":"B725","v":"Pacific Canada"},40,"LRF Conifer for wood products and bioenergy:Pacific Canada:40",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation",4.3280000000000003,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L726","v":4.3280000000000003},0.68810000000000004,0.2397,{"$f":"O726+P726","v":0.92780000000000007},7.22E-2,0,0,0,0,0,0,{"$f":"(L726*Q726/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":7.7512108571912416E-2},{"$f":"(L726*Q726/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.2389030931481351},{"$f":"(L726*Q726/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.25634301894794898},{"$f":"L726*R726*LCA_brash*EF_diesel/Conv_te_kg","v":4.0475116684800007E-3},{"$f":"L726*R726*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.2474993584466023E-2},{"$f":"L726*R726*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.3385668116132041E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A726","v":"LRF Conifer for wood products and bioenergy"},{"$f":"B726","v":"Pacific Canada"},100,"LRF Conifer for wood products and bioenergy:Pacific Canada:100",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation",4.3280000000000003,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L727","v":4.3280000000000003},0.68810000000000004,0.2397,{"$f":"O727+P727","v":0.92780000000000007},7.22E-2,0,0,0,0,0,0,{"$f":"(L727*Q727/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":7.7512108571912416E-2},{"$f":"(L727*Q727/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.2389030931481351},{"$f":"(L727*Q727/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.25634301894794898},{"$f":"L727*R727*LCA_brash*EF_diesel/Conv_te_kg","v":4.0475116684800007E-3},{"$f":"L727*R727*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.2474993584466023E-2},{"$f":"L727*R727*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.3385668116132041E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A727","v":"LRF Conifer for wood products and bioenergy"},{"$f":"'Transport Data'!A14","v":"Interior Canada"},0,"LRF Conifer for wood products and bioenergy:Interior Canada:0",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation","N/A",null,"N/A"]
[{"$f":"A727","v":"LRF Conifer for wood products and bioenergy"},{"$f":"'Transport Data'!A14","v":"Interior Canada"},20,"LRF Conifer for wood products and bioenergy:Interior Canada:20",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.536,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L729","v":1.536},0.21149999999999999,0.63300000000000001,{"$f":"O729+P729","v":0.84450000000000003},0.1555,0,0,0,0,0,0,{"$f":"(L729*Q729/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5039104952992705E-2},{"$f":"(L729*Q729/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.717400201261429E-2},{"$f":"(L729*Q729/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.2807704159535131E-2},{"$f":"L729*R729*LCA_brash*EF_diesel/Conv_te_kg","v":3.0937503743999999E-3},{"$f":"L729*R729*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":9.5353686990291286E-3},{"$f":"L729*R729*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.0231450614058253E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A729","v":"LRF Conifer for wood products and bioenergy"},{"$f":"B729","v":"Interior Canada"},40,"LRF Conifer for wood products and bioenergy:Interior Canada:40",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.536,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L730","v":1.536},0.21149999999999999,0.63300000000000001,{"$f":"O730+P730","v":0.84450000000000003},0.1555,0,0,0,0,0,0,{"$f":"(L730*Q730/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5039104952992705E-2},{"$f":"(L730*Q730/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.717400201261429E-2},{"$f":"(L730*Q730/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.2807704159535131E-2},{"$f":"L730*R730*LCA_brash*EF_diesel/Conv_te_kg","v":3.0937503743999999E-3},{"$f":"L730*R730*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":9.5353686990291286E-3},{"$f":"L730*R730*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.0231450614058253E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A730","v":"LRF Conifer for wood products and bioenergy"},{"$f":"B730","v":"Interior Canada"},100,"LRF Conifer for wood products and bioenergy:Interior Canada:100",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.536,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L731","v":1.536},0.21149999999999999,0.63300000000000001,{"$f":"O731+P731","v":0.84450000000000003},0.1555,0,0,0,0,0,0,{"$f":"(L731*Q731/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5039104952992705E-2},{"$f":"(L731*Q731/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.717400201261429E-2},{"$f":"(L731*Q731/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.2807704159535131E-2},{"$f":"L731*R731*LCA_brash*EF_diesel/Conv_te_kg","v":3.0937503743999999E-3},{"$f":"L731*R731*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":9.5353686990291286E-3},{"$f":"L731*R731*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.0231450614058253E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A731","v":"LRF Conifer for wood products and bioenergy"},{"$f":"'Transport Data'!A15","v":"Boreal North Canada"},0,"LRF Conifer for wood products and bioenergy:Boreal North Canada:0",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation","N/A",null,"N/A"]
[{"$f":"A731","v":"LRF Conifer for wood products and bioenergy"},{"$f":"'Transport Data'!A15","v":"Boreal North Canada"},20,"LRF Conifer for wood products and bioenergy:Boreal North Canada:20",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.536,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L733","v":1.536},0.21149999999999999,0.63300000000000001,{"$f":"O733+P733","v":0.84450000000000003},0.1555,0,0,0,0,0,0,{"$f":"(L733*Q733/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5039104952992705E-2},{"$f":"(L733*Q733/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.717400201261429E-2},{"$f":"(L733*Q733/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.2807704159535131E-2},{"$f":"L733*R733*LCA_brash*EF_diesel/Conv_te_kg","v":3.0937503743999999E-3},{"$f":"L733*R733*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":9.5353686990291286E-3},{"$f":"L733*R733*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.0231450614058253E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A733","v":"LRF Conifer for wood products and bioenergy"},{"$f":"B733","v":"Boreal North Canada"},40,"LRF Conifer for wood products and bioenergy:Boreal North Canada:40",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.536,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L734","v":1.536},0.21149999999999999,0.63300000000000001,{"$f":"O734+P734","v":0.84450000000000003},0.1555,0,0,0,0,0,0,{"$f":"(L734*Q734/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5039104952992705E-2},{"$f":"(L734*Q734/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.717400201261429E-2},{"$f":"(L734*Q734/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.2807704159535131E-2},{"$f":"L734*R734*LCA_brash*EF_diesel/Conv_te_kg","v":3.0937503743999999E-3},{"$f":"L734*R734*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":9.5353686990291286E-3},{"$f":"L734*R734*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.0231450614058253E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A734","v":"LRF Conifer for wood products and bioenergy"},{"$f":"B734","v":"Boreal North Canada"},100,"LRF Conifer for wood products and bioenergy:Boreal North Canada:100",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.536,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L735","v":1.536},0.21149999999999999,0.63300000000000001,{"$f":"O735+P735","v":0.84450000000000003},0.1555,0,0,0,0,0,0,{"$f":"(L735*Q735/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5039104952992705E-2},{"$f":"(L735*Q735/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.717400201261429E-2},{"$f":"(L735*Q735/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.2807704159535131E-2},{"$f":"L735*R735*LCA_brash*EF_diesel/Conv_te_kg","v":3.0937503743999999E-3},{"$f":"L735*R735*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":9.5353686990291286E-3},{"$f":"L735*R735*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.0231450614058253E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!B23","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"'Transport Data'!A9","v":"South USA"},0,"Intensely managed SRF Conifer, rotation length 25 years:South USA:0",1,0,25,null,null,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine with a 25 year rotation.","N/A"]
[{"$f":"A736","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"B736","v":"South USA"},20,"Intensely managed SRF Conifer, rotation length 25 years:South USA:20",1,0,25,null,null,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine with a 25 year rotation.",5.9130000000000003,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L737","v":5.9130000000000003},0.6,0.4,{"$f":"O737+P737","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen","v":22.973493975903615},{"$f":"(N737*Loblolly_harvest*EF_diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/G737+Loblolly_herbicide*EF_Pest/G737+Loblolly_Phosphorus*EF_Pfert)/Conv_te_kg","v":0.12934477029933775},{"$f":"(N737*Loblolly_harvest*En_F_diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/G737+Loblolly_herbicide*En_F_Pest/G737+Loblolly_Phosphorus*En_F_Pfert)/Conv_MWh_KWh","v":0.4173633016586904},{"$f":"(N737*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/G737+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/G737+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.44436519658917589},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A737","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"B736","v":"South USA"},40,"Intensely managed SRF Conifer, rotation length 25 years:South USA:40",1,0,25,null,null,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine with a 25 year rotation.",5.9130000000000003,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L738","v":5.9130000000000003},0.6,0.4,{"$f":"O738+P738","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen","v":22.973493975903615},{"$f":"(N738*Loblolly_harvest*EF_diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/G738+Loblolly_herbicide*EF_Pest/G738+Loblolly_Phosphorus*EF_Pfert)/Conv_te_kg","v":0.12934477029933775},{"$f":"(N738*Loblolly_harvest*En_F_diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/G738+Loblolly_herbicide*En_F_Pest/G738+Loblolly_Phosphorus*En_F_Pfert)/Conv_MWh_KWh","v":0.4173633016586904},{"$f":"(N738*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/G738+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/G738+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.44436519658917589},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A738","v":"Intensely managed SRF Conifer, rotation length 25 years"},{"$f":"B736","v":"South USA"},100,"Intensely managed SRF Conifer, rotation length 25 years:South USA:100",1,0,25,null,null,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine with a 25 year rotation.",5.9130000000000003,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L739","v":5.9130000000000003},0.6,0.4,{"$f":"O739+P739","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen","v":22.973493975903615},{"$f":"(N739*Loblolly_harvest*EF_diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/G739+Loblolly_herbicide*EF_Pest/G739+Loblolly_Phosphorus*EF_Pfert)/Conv_te_kg","v":0.12934477029933775},{"$f":"(N739*Loblolly_harvest*En_F_diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/G739+Loblolly_herbicide*En_F_Pest/G739+Loblolly_Phosphorus*En_F_Pfert)/Conv_MWh_KWh","v":0.4173633016586904},{"$f":"(N739*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/G739+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/G739+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.44436519658917589},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!B12","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"'Transport Data'!A9","v":"South USA"},0,{"$f":"A740&\":\"&B740&\":\"&C740","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years:South USA:0"},1,0,20,null,null,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine with a 20 year rotation.","N/A"]
[{"$f":"A740","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"B740","v":"South USA"},20,"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years:South USA:20",1,0,20,null,null,66.53,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine with a 20 year rotation.",6.625,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L741","v":6.625},0.5,0.5,{"$f":"O741+P741","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen","v":22.973493975903615},{"$f":"(N741*Loblolly_harvest*EF_diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/G741+Loblolly_herbicide*EF_Pest/G741+Loblolly_Phosphorus*EF_Pfert)/Conv_te_kg","v":0.15090556354733772},{"$f":"(N741*Loblolly_harvest*En_F_diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/G741+Loblolly_herbicide*En_F_Pest/G741+Loblolly_Phosphorus*En_F_Pfert)/Conv_MWh_KWh","v":0.48397845730054584},{"$f":"(N741*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/G741+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/G741+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.5158215208151089},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A741","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"B740","v":"South USA"},40,"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years:South USA:40",1,0,20,null,null,66.53,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine with a 20 year rotation.",6.1829999999999998,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L742","v":6.1829999999999998},0.5,0.5,{"$f":"O742+P742","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen","v":22.973493975903615},{"$f":"(N742*Loblolly_harvest*EF_diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/G742+Loblolly_herbicide*EF_Pest/G742+Loblolly_Phosphorus*EF_Pfert)/Conv_te_kg","v":0.14601057089933772},{"$f":"(N742*Loblolly_harvest*En_F_diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/G742+Loblolly_herbicide*En_F_Pest/G742+Loblolly_Phosphorus*En_F_Pfert)/Conv_MWh_KWh","v":0.46889140953355551},{"$f":"(N742*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/G742+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/G742+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.49963311856112835},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A742","v":"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years"},{"$f":"B740","v":"South USA"},100,"Intensely managed SRF Conifer, rotation length reduced from 25 to 20 years:South USA:100",1,0,20,null,null,66.53,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine with a 20 year rotation.",5.9169999999999998,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L743","v":5.9169999999999998},0.5,0.5,{"$f":"O743+P743","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen","v":22.973493975903615},{"$f":"(N743*Loblolly_harvest*EF_diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*EF_diesel/G743+Loblolly_herbicide*EF_Pest/G743+Loblolly_Phosphorus*EF_Pfert)/Conv_te_kg","v":0.14306471559533773},{"$f":"(N743*Loblolly_harvest*En_F_diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel/G743+Loblolly_herbicide*En_F_Pest/G743+Loblolly_Phosphorus*En_F_Pfert)/Conv_MWh_KWh","v":0.45981187399957496},{"$f":"(N743*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+(Loblolly_landprep+Loblolly_fertiliser_diesel*Fert_applications)*En_F_diesel*Prim_En_Diesel/G743+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/G743+Loblolly_Phosphorus*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.48989077693316718},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!B25","v":"SRF Conifer, increased management intensity, 25 year rotation"},{"$f":"'Transport Data'!A9","v":"South USA"},0,{"$f":"A744&\":\"&B744&\":\"&C744","v":"SRF Conifer, increased management intensity, 25 year rotation:South USA:0"},1,0,25,null,null,59.82,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine with a 25 year rotation.","N/A"]
[{"$f":"A744","v":"SRF Conifer, increased management intensity, 25 year rotation"},{"$f":"B744","v":"South USA"},20,"SRF Conifer, increased management intensity, 25 year rotation:South USA:20",1,0,25,null,null,73.7,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine with a 25 year rotation.",4.3710000000000004,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L745","v":4.3710000000000004},0.6,{"$f":"1-O745","v":0.4},{"$f":"O745+P745","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen_Low*(1-Landconv_25stand_20y)+Loblolly_Nitrogen*Landconv_25stand_20y","v":13.784096385542171},{"$f":"(N745*Loblolly_harvest*EF_diesel+(Loblolly_landprep*Landconv_25stand_20y+Loblolly_landprep_low*(1-Landconv_25stand_20y))*EF_diesel/G745+(Fert_applications_Low*(1-Landconv_25stand_20y)+Fert_applications*Landconv_25stand_20y)*Loblolly_fertiliser_diesel*EF_diesel/G745+Loblolly_herbicide*EF_Pest/G745+(Loblolly_Phosphorus*Landconv_25stand_20y+Loblolly_Phosphorus_Low*(1-Landconv_25stand_20y))*EF_Pfert)/Conv_te_kg","v":8.9334929722296161E-2},{"$f":"(N745*Loblolly_harvest*En_F_diesel+(Loblolly_landprep*Landconv_25stand_20y+Loblolly_landprep_low*(1-Landconv_25stand_20y))*En_F_diesel/G745+(Fert_applications_Low*(1-Landconv_25stand_20y)+Fert_applications*Landconv_25stand_20y)*Loblolly_fertiliser_diesel*En_F_diesel/G745+Loblolly_herbicide*En_F_Pest/G745+(Loblolly_Phosphorus*Landconv_25stand_20y+Loblolly_Phosphorus_Low*(1-Landconv_25stand_20y))*En_F_Pfert)/Conv_MWh_KWh","v":0.28754668809845502},{"$f":"(N745*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+(Loblolly_landprep*Landconv_25stand_20y+Loblolly_landprep_low*(1-Landconv_25stand_20y))*En_F_diesel*Prim_En_Diesel/G745+(Fert_applications_Low*(1-Landconv_25stand_20y)+Fert_applications*Landconv_25stand_20y)*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G745+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/G745+(Loblolly_Phosphorus*Landconv_25stand_20y+Loblolly_Phosphorus_Low*(1-Landconv_25stand_20y))*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.30628829323165896},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A745","v":"SRF Conifer, increased management intensity, 25 year rotation"},{"$f":"B744","v":"South USA"},40,"SRF Conifer, increased management intensity, 25 year rotation:South USA:40",1,0,25,null,null,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine with a 25 year rotation.",4.9489999999999998,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L746","v":4.9489999999999998},0.6,{"$f":"1-O746","v":0.4},{"$f":"O746+P746","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen_Low*(1-Landconv_25stand_40y)+Loblolly_Nitrogen*Landconv_25stand_40y","v":18.187349397590364},{"$f":"(N746*Loblolly_harvest*EF_diesel+(Loblolly_landprep*Landconv_25stand_40y+Loblolly_landprep_low*(1-Landconv_25stand_40y))*EF_diesel/G746+(Fert_applications_Low*(1-Landconv_25stand_40y)+Fert_applications*Landconv_25stand_40y)*Loblolly_fertiliser_diesel*EF_diesel/G746+Loblolly_herbicide*EF_Pest/G746+(Loblolly_Phosphorus*Landconv_25stand_40y+Loblolly_Phosphorus_Low*(1-Landconv_25stand_40y))*EF_Pfert)/Conv_te_kg","v":0.1067246783119619},{"$f":"(N746*Loblolly_harvest*En_F_diesel+(Loblolly_landprep*Landconv_25stand_40y+Loblolly_landprep_low*(1-Landconv_25stand_40y))*En_F_diesel/G746+(Fert_applications_Low*(1-Landconv_25stand_40y)+Fert_applications*Landconv_25stand_40y)*Loblolly_fertiliser_diesel*En_F_diesel/G746+Loblolly_herbicide*En_F_Pest/G746+(Loblolly_Phosphorus*Landconv_25stand_40y+Loblolly_Phosphorus_Low*(1-Landconv_25stand_40y))*En_F_Pfert)/Conv_MWh_KWh","v":0.34425924044558237},{"$f":"(N746*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+(Loblolly_landprep*Landconv_25stand_40y+Loblolly_landprep_low*(1-Landconv_25stand_40y))*En_F_diesel*Prim_En_Diesel/G746+(Fert_applications_Low*(1-Landconv_25stand_40y)+Fert_applications*Landconv_25stand_40y)*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G746+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/G746+(Loblolly_Phosphorus*Landconv_25stand_40y+Loblolly_Phosphorus_Low*(1-Landconv_25stand_40y))*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.36655804046616486},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A746","v":"SRF Conifer, increased management intensity, 25 year rotation"},{"$f":"B744","v":"South USA"},100,"SRF Conifer, increased management intensity, 25 year rotation:South USA:100",1,0,25,null,null,80.92,"Smith et al., 2006. Modelled as intensively managed Loblolly Pine with a 25 year rotation.",5.5279999999999996,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L747","v":5.5279999999999996},0.6,0.4,{"$f":"O747+P747","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen_Low*(1-Landconv_25stand_100y)+Loblolly_Nitrogen*Landconv_25stand_100y","v":21.059036144578315},{"$f":"(N747*Loblolly_harvest*EF_diesel+(Loblolly_landprep*Landconv_25stand_100y+Loblolly_landprep_low*(1-Landconv_25stand_100y))*EF_diesel/G747+(Fert_applications_Low*(1-Landconv_25stand_100y)+Fert_applications*Landconv_25stand_100y)*Loblolly_fertiliser_diesel*EF_diesel/G747+Loblolly_herbicide*EF_Pest/G747+(Loblolly_Phosphorus*Landconv_25stand_100y+Loblolly_Phosphorus_Low*(1-Landconv_25stand_100y))*EF_Pfert)/Conv_te_kg","v":0.12030337829078741},{"$f":"(N747*Loblolly_harvest*En_F_diesel+(Loblolly_landprep*Landconv_25stand_100y+Loblolly_landprep_low*(1-Landconv_25stand_100y))*En_F_diesel/G747+(Fert_applications_Low*(1-Landconv_25stand_100y)+Fert_applications*Landconv_25stand_100y)*Loblolly_fertiliser_diesel*En_F_diesel/G747+Loblolly_herbicide*En_F_Pest/G747+(Loblolly_Phosphorus*Landconv_25stand_100y+Loblolly_Phosphorus_Low*(1-Landconv_25stand_100y))*En_F_Pfert)/Conv_MWh_KWh","v":0.38814215732878699},{"$f":"(N747*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+(Loblolly_landprep*Landconv_25stand_100y+Loblolly_landprep_low*(1-Landconv_25stand_100y))*En_F_diesel*Prim_En_Diesel/G747+(Fert_applications_Low*(1-Landconv_25stand_40y)+Fert_applications*Landconv_25stand_40y)*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G747+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect/G747+(Loblolly_Phosphorus*Landconv_25stand_100y+Loblolly_Phosphorus_Low*(1-Landconv_25stand_100y))*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.41026038855053448},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!B17","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"'Transport Data'!A9","v":"South USA"},0,"LRF Conifer for Bioenergy, residues unused:South USA:0",1,0,50,null,null,69.64,"Smith et al., 2006. Modelled as loblolly pine natural timberland, with natural regeneration, harvested every 50 years. ","N/A",null,"N/A"]
[{"$f":"Lists!B17","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"'Transport Data'!A9","v":"South USA"},20,"LRF Conifer for Bioenergy, residues unused:South USA:20",1,0,50,null,null,69.64,"Smith et al., 2006. Modelled as loblolly pine natural timberland, with natural regeneration, harvested every 50 years. ",1.7949999999999999,"Naturally regenerated forest. Smith et al., 2006.",{"$f":"L749","v":1.7949999999999999},0.6,0.4,{"$f":"O749+P749","v":1},0,0,0,0,0,0,0,{"$f":"(L749*Q749/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.4649133941605847E-2},{"$f":"(L749*Q749/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.10679344719249761},{"$f":"(L749*Q749/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.11458936883754993},{"$f":"L749*R749*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L749*R749*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L749*R749*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A749","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"B749","v":"South USA"},40,"LRF Conifer for Bioenergy, residues unused:South USA:40",1,0,50,null,null,69.64,"Smith et al., 2006. Modelled as loblolly pine natural timberland, with natural regeneration, harvested every 50 years. ",1.7949999999999999,"Naturally regenerated forest. Smith et al., 2006.",{"$f":"L750","v":1.7949999999999999},0.6,0.4,{"$f":"O750+P750","v":1},0,0,0,0,0,0,0,{"$f":"(L750*Q750/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.4649133941605847E-2},{"$f":"(L750*Q750/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.10679344719249761},{"$f":"(L750*Q750/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.11458936883754993},{"$f":"L750*R750*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L750*R750*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L750*R750*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A750","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"B750","v":"South USA"},100,"LRF Conifer for Bioenergy, residues unused:South USA:100",1,0,50,null,null,69.64,"Smith et al., 2006. Modelled as loblolly pine natural timberland, with natural regeneration, harvested every 50 years. ",1.7949999999999999,"Naturally regenerated forest. Smith et al., 2006.",{"$f":"L751","v":1.7949999999999999},0.6,0.4,{"$f":"O751+P751","v":1},0,0,0,0,0,0,0,{"$f":"(L751*Q751/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.4649133941605847E-2},{"$f":"(L751*Q751/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.10679344719249761},{"$f":"(L751*Q751/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.11458936883754993},{"$f":"L751*R751*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L751*R751*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L751*R751*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A751","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"'Transport Data'!A10","v":"North West USA"},0,"LRF Conifer for Bioenergy, residues unused:North West USA:0",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation","N/A",null,"N/A"]
[{"$f":"A751","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"'Transport Data'!A10","v":"North West USA"},20,"LRF Conifer for Bioenergy, residues unused:North West USA:20",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation",4.016,"Planted forest. Forest Research C-SORT model.",{"$f":"L753","v":4.016},0.74160000000000004,0.25840000000000002,{"$f":"O753+P753","v":1},0,0,0,0,0,0,0,{"$f":"(L753*Q753/density_SW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G753)/Conv_te_kg","v":8.2213056963503658E-2},{"$f":"(L753*Q753/density_SW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G753)/Conv_MWh_KWh","v":0.25358266824935632},{"$f":"(L753*Q753/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G753)/Conv_MWh_KWh","v":0.27117768803155934},{"$f":"L753*R753*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L753*R753*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L753*R753*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A753","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"B753","v":"North West USA"},40,"LRF Conifer for Bioenergy, residues unused:North West USA:40",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation",4.016,"Planted forest. Forest Research C-SORT model.",{"$f":"L754","v":4.016},0.74160000000000004,0.25840000000000002,{"$f":"O754+P754","v":1},0,0,0,0,0,0,0,{"$f":"(L754*Q754/density_SW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G754)/Conv_te_kg","v":8.2213056963503658E-2},{"$f":"(L754*Q754/density_SW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G754)/Conv_MWh_KWh","v":0.25358266824935632},{"$f":"(L754*Q754/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G754)/Conv_MWh_KWh","v":0.27117768803155934},{"$f":"L754*R754*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L754*R754*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L754*R754*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A754","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"B754","v":"North West USA"},100,"LRF Conifer for Bioenergy, residues unused:North West USA:100",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation",4.016,"Planted forest. Forest Research C-SORT model.",{"$f":"L755","v":4.016},0.74160000000000004,0.25840000000000002,{"$f":"O755+P755","v":1},0,0,0,0,0,0,0,{"$f":"(L755*Q755/density_SW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G755)/Conv_te_kg","v":8.2213056963503658E-2},{"$f":"(L755*Q755/density_SW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G755)/Conv_MWh_KWh","v":0.25358266824935632},{"$f":"(L755*Q755/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G755)/Conv_MWh_KWh","v":0.27117768803155934},{"$f":"L755*R755*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L755*R755*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L755*R755*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A755","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"'Transport Data'!A13","v":"Pacific Canada"},0,"LRF Conifer for Bioenergy, residues unused:Pacific Canada:0",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation","N/A",null,"N/A"]
[{"$f":"A755","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"'Transport Data'!A13","v":"Pacific Canada"},20,"LRF Conifer for Bioenergy, residues unused:Pacific Canada:20",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation",4.016,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L757","v":4.016},0.74160000000000004,0.25840000000000002,{"$f":"O757+P757","v":1},0,0,0,0,0,0,0,{"$f":"(L757*Q757/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":7.7521404963503654E-2},{"$f":"(L757*Q757/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.23893174591925928},{"$f":"(L757*Q757/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.25637376337136514},{"$f":"L757*R757*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L757*R757*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L757*R757*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A757","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"B757","v":"Pacific Canada"},40,"LRF Conifer for Bioenergy, residues unused:Pacific Canada:40",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation",4.016,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L758","v":4.016},0.74160000000000004,0.25840000000000002,{"$f":"O758+P758","v":1},0,0,0,0,0,0,0,{"$f":"(L758*Q758/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":7.7521404963503654E-2},{"$f":"(L758*Q758/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.23893174591925928},{"$f":"(L758*Q758/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.25637376337136514},{"$f":"L758*R758*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L758*R758*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L758*R758*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A758","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"B758","v":"Pacific Canada"},100,"LRF Conifer for Bioenergy, residues unused:Pacific Canada:100",1,0,100,null,null,118.78,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, Sole thin at 15 years, 70 years rotation",4.016,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L759","v":4.016},0.74160000000000004,0.25840000000000002,{"$f":"O759+P759","v":1},0,0,0,0,0,0,0,{"$f":"(L759*Q759/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":7.7521404963503654E-2},{"$f":"(L759*Q759/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.23893174591925928},{"$f":"(L759*Q759/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.25637376337136514},{"$f":"L759*R759*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L759*R759*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L759*R759*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A759","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"'Transport Data'!A14","v":"Interior Canada"},0,"LRF Conifer for Bioenergy, residues unused:Interior Canada:0",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation","N/A",null,"N/A"]
[{"$f":"A759","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"'Transport Data'!A14","v":"Interior Canada"},20,"LRF Conifer for Bioenergy, residues unused:Interior Canada:20",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.2969999999999999,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L761","v":1.2969999999999999},0.25040000000000001,0.74960000000000004,{"$f":"O761+P761","v":1},0,0,0,0,0,0,0,{"$f":"(L761*Q761/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5036170875912409E-2},{"$f":"(L761*Q761/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7164958779203E-2},{"$f":"(L761*Q761/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.2798000770084812E-2},{"$f":"L761*R761*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L761*R761*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L761*R761*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A761","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"B761","v":"Interior Canada"},40,"LRF Conifer for Bioenergy, residues unused:Interior Canada:40",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.2969999999999999,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L762","v":1.2969999999999999},0.25040000000000001,0.74960000000000004,{"$f":"O762+P762","v":1},0,0,0,0,0,0,0,{"$f":"(L762*Q762/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5036170875912409E-2},{"$f":"(L762*Q762/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7164958779203E-2},{"$f":"(L762*Q762/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.2798000770084812E-2},{"$f":"L762*R762*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L762*R762*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L762*R762*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A762","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"B762","v":"Interior Canada"},100,"LRF Conifer for Bioenergy, residues unused:Interior Canada:100",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.2969999999999999,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L763","v":1.2969999999999999},0.25040000000000001,0.74960000000000004,{"$f":"O763+P763","v":1},0,0,0,0,0,0,0,{"$f":"(L763*Q763/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5036170875912409E-2},{"$f":"(L763*Q763/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7164958779203E-2},{"$f":"(L763*Q763/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.2798000770084812E-2},{"$f":"L763*R763*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L763*R763*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L763*R763*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A763","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"'Transport Data'!A15","v":"Boreal North Canada"},0,"LRF Conifer for Bioenergy, residues unused:Boreal North Canada:0",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation","N/A",null,"N/A"]
[{"$f":"A763","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"'Transport Data'!A15","v":"Boreal North Canada"},20,"LRF Conifer for Bioenergy, residues unused:Boreal North Canada:20",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.2969999999999999,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L765","v":1.2969999999999999},0.25040000000000001,0.74960000000000004,{"$f":"O765+P765","v":1},0,0,0,0,0,0,0,{"$f":"(L765*Q765/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5036170875912409E-2},{"$f":"(L765*Q765/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7164958779203E-2},{"$f":"(L765*Q765/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.2798000770084812E-2},{"$f":"L765*R765*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L765*R765*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L765*R765*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A765","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"B765","v":"Boreal North Canada"},40,"LRF Conifer for Bioenergy, residues unused:Boreal North Canada:40",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.2969999999999999,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L766","v":1.2969999999999999},0.25040000000000001,0.74960000000000004,{"$f":"O766+P766","v":1},0,0,0,0,0,0,0,{"$f":"(L766*Q766/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5036170875912409E-2},{"$f":"(L766*Q766/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7164958779203E-2},{"$f":"(L766*Q766/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.2798000770084812E-2},{"$f":"L766*R766*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L766*R766*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L766*R766*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A766","v":"LRF Conifer for Bioenergy, residues unused"},{"$f":"B766","v":"Boreal North Canada"},100,"LRF Conifer for Bioenergy, residues unused:Boreal North Canada:100",1,0,100,null,null,73.78,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, No thinning, 100 year rotation",1.2969999999999999,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L767","v":1.2969999999999999},0.25040000000000001,0.74960000000000004,{"$f":"O767+P767","v":1},0,0,0,0,0,0,0,{"$f":"(L767*Q767/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5036170875912409E-2},{"$f":"(L767*Q767/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7164958779203E-2},{"$f":"(L767*Q767/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.2798000770084812E-2},{"$f":"L767*R767*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L767*R767*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L767*R767*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!B50","v":"Newly Managed LRF Conifer (fast growing)"},{"$f":"'Transport Data'!A10","v":"North West USA"},0,"Newly Managed LRF Conifer (fast growing):North West USA:0",1,0,50,null,null,467,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for high severity, low frequency fires (every 250 years)","N/A",null,"N/A"]
[{"$f":"A768","v":"Newly Managed LRF Conifer (fast growing)"},"North West USA",20,"Newly Managed LRF Conifer (fast growing):North West USA:20",1,0,50,null,null,378,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for high severity, low frequency fires (every 250 years)",8.9,"Naturally regenerated forest. Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. ",{"$f":"L769","v":8.9},0.6,0.3,{"$f":"O769+P769","v":0.89999999999999991},0.1,0,0,0,0,0,0,{"$f":"(L769*Q769/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":0.15461814087591244},{"$f":"(L769*Q769/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.47655460279214812},{"$f":"(L769*Q769/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.5113430887959749},{"$f":"L769*R769*LCA_brash*EF_diesel/Conv_te_kg","v":1.1527992000000001E-2},{"$f":"L769*R769*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":3.5530873786407777E-2},{"$f":"L769*R769*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":3.8124627572815539E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
["Newly Managed LRF Conifer (fast growing)","North West USA",40,"Newly Managed LRF Conifer (fast growing):North West USA:40",1,0,50,null,null,255,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for high severity, low frequency fires (every 250 years)",8,"Naturally regenerated forest. Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. ",{"$f":"L770","v":8},0.6,0.3,{"$f":"O770+P770","v":0.89999999999999991},0.1,0,0,0,0,0,0,{"$f":"(L770*Q770/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":0.138982598540146},{"$f":"(L770*Q770/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.4283636879030544},{"$f":"(L770*Q770/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.45963423711997742},{"$f":"L770*R770*LCA_brash*EF_diesel/Conv_te_kg","v":1.036224E-2},{"$f":"L770*R770*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":3.1937864077669909E-2},{"$f":"L770*R770*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":3.4269328155339805E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
["Newly Managed LRF Conifer (fast growing)","North West USA",100,"Newly Managed LRF Conifer (fast growing):North West USA:100",1,0,50,null,null,184,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for high severity, low frequency fires (every 250 years)",6.7,"Naturally regenerated forest. Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. ",{"$f":"L771","v":6.7},0.6,0.3,{"$f":"O771+P771","v":0.89999999999999991},0.1,0,0,0,0,0,0,{"$f":"(L771*Q771/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":0.11639792627737226},{"$f":"(L771*Q771/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.3587545886188081},{"$f":"(L771*Q771/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.38494367358798104},{"$f":"L771*R771*LCA_brash*EF_diesel/Conv_te_kg","v":8.6783759999999998E-3},{"$f":"L771*R771*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":2.6747961165048548E-2},{"$f":"L771*R771*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":2.8700562330097087E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A770","v":"Newly Managed LRF Conifer (fast growing)"},{"$f":"'Transport Data'!A9","v":"South USA"},0,"Newly Managed LRF Conifer (fast growing):South USA:0",1,0,50,null,null,467,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for high severity, low frequency fires (every 250 years)","N/A",null,"N/A"]
[{"$f":"A772","v":"Newly Managed LRF Conifer (fast growing)"},"South USA",20,"Newly Managed LRF Conifer (fast growing):South USA:20",1,0,50,null,null,378,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for high severity, low frequency fires (every 250 years)",8.9,"Naturally regenerated forest. Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. ",{"$f":"L773","v":8.9},0.6,0.3,{"$f":"O773+P773","v":0.89999999999999991},0.1,0,0,0,0,0,0,{"$f":"(L773*Q773/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":0.15461814087591244},{"$f":"(L773*Q773/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.47655460279214812},{"$f":"(L773*Q773/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.5113430887959749},{"$f":"L773*R773*LCA_brash*EF_diesel/Conv_te_kg","v":1.1527992000000001E-2},{"$f":"L773*R773*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":3.5530873786407777E-2},{"$f":"L773*R773*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":3.8124627572815539E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
["Newly Managed LRF Conifer (fast growing)","South USA",40,"Newly Managed LRF Conifer (fast growing):South USA:40",1,0,50,null,null,255,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for high severity, low frequency fires (every 250 years)",8,"Naturally regenerated forest. Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. ",{"$f":"L774","v":8},0.6,0.3,{"$f":"O774+P774","v":0.89999999999999991},0.1,0,0,0,0,0,0,{"$f":"(L774*Q774/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":0.138982598540146},{"$f":"(L774*Q774/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.4283636879030544},{"$f":"(L774*Q774/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.45963423711997742},{"$f":"L774*R774*LCA_brash*EF_diesel/Conv_te_kg","v":1.036224E-2},{"$f":"L774*R774*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":3.1937864077669909E-2},{"$f":"L774*R774*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":3.4269328155339805E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
["Newly Managed LRF Conifer (fast growing)","South USA",100,"Newly Managed LRF Conifer (fast growing):South USA:100",1,0,50,null,null,184,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for high severity, low frequency fires (every 250 years)",6.7,"Naturally regenerated forest. Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. ",{"$f":"L775","v":6.7},0.6,0.3,{"$f":"O775+P775","v":0.89999999999999991},0.1,0,0,0,0,0,0,{"$f":"(L775*Q775/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":0.11639792627737226},{"$f":"(L775*Q775/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.3587545886188081},{"$f":"(L775*Q775/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.38494367358798104},{"$f":"L775*R775*LCA_brash*EF_diesel/Conv_te_kg","v":8.6783759999999998E-3},{"$f":"L775*R775*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":2.6747961165048548E-2},{"$f":"L775*R775*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":2.8700562330097087E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!B49","v":"Newly Managed LRF Conifer (slow growing)"},{"$f":"'Transport Data'!A10","v":"North West USA"},0,"Newly Managed LRF Conifer (slow growing):North West USA:0",1,0,50,null,null,216,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for low severity, high frequency fires (every 16 years)","N/A",null,"N/A"]
[{"$f":"A776","v":"Newly Managed LRF Conifer (slow growing)"},"North West USA",20,"Newly Managed LRF Conifer (slow growing):North West USA:20",1,0,50,null,null,167,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for low severity, high frequency fires (every 16 years)",4,"Naturally regenerated forest. Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. ",{"$f":"L777","v":4},0.6,0.3,{"$f":"O777+P777","v":0.89999999999999991},0.1,0,0,0,0,0,0,{"$f":"(L777*Q777/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":6.9491299270072998E-2},{"$f":"(L777*Q777/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.2141818439515272},{"$f":"(L777*Q777/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.22981711855998871},{"$f":"L777*R777*LCA_brash*EF_diesel/Conv_te_kg","v":5.18112E-3},{"$f":"L777*R777*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.5968932038834954E-2},{"$f":"L777*R777*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.7134664077669903E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
["Newly Managed LRF Conifer (slow growing)","North West USA",40,"Newly Managed LRF Conifer (slow growing):North West USA:40",1,0,50,null,null,110,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for low severity, high frequency fires (every 16 years)",3.6,"Naturally regenerated forest. Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. ",{"$f":"L778","v":3.6},0.6,0.3,{"$f":"O778+P778","v":0.89999999999999991},0.1,0,0,0,0,0,0,{"$f":"(L778*Q778/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":6.2542169343065696E-2},{"$f":"(L778*Q778/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.19276365955637451},{"$f":"(L778*Q778/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.20683540670398984},{"$f":"L778*R778*LCA_brash*EF_diesel/Conv_te_kg","v":4.6630080000000006E-3},{"$f":"L778*R778*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.4372038834951459E-2},{"$f":"L778*R778*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.5421197669902915E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
["Newly Managed LRF Conifer (slow growing)","North West USA",100,"Newly Managed LRF Conifer (slow growing):North West USA:100",1,0,50,null,null,74,"Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. Accounts for low severity, high frequency fires (every 16 years)",2.9,"Naturally regenerated forest. Mitchell et al., 2012, G2-L2 Scenario. 50 year harvest rotation. ",{"$f":"L779","v":2.9},0.6,0.3,{"$f":"O779+P779","v":0.89999999999999991},0.1,0,0,0,0,0,0,{"$f":"(L779*Q779/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":5.0381191970802923E-2},{"$f":"(L779*Q779/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.15528183686485725},{"$f":"(L779*Q779/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.16661741095599181},{"$f":"L779*R779*LCA_brash*EF_diesel/Conv_te_kg","v":3.7563119999999999E-3},{"$f":"L779*R779*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.157747572815534E-2},{"$f":"L779*R779*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.2422631456310678E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$135/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$135/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$159","v":-3.613504E-3},{"$f":"'Reference Data'!$E$159","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!B27","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"C41","v":"Pacific Canada"},0,"LRF Conifer, rotation length reduced to 50y:Pacific Canada:0",1,0,50,null,null,114.32,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, 50 year rotation.","N/A",null,"N/A"]
[{"$f":"A780","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"C41","v":"Pacific Canada"},20,"LRF Conifer, rotation length reduced to 50y:Pacific Canada:20",1,0,50,null,null,94.99,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, 50 year rotation.",5.8559999999999999,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L781","v":5.8559999999999999},0.65029999999999999,0.2717,{"$f":"O781+P781","v":0.92199999999999993},7.8E-2,0,0,0,0,0,0,{"$f":"(L781/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":0.11303918014598541},{"$f":"(L781/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.348402466161151},{"$f":"(L781/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.37383584619091492},0,0,0,"See constants tab for assumptions of energy requirements. Residue energy requirements accounted for in land management cells.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A781","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"B781","v":"Pacific Canada"},40,"LRF Conifer, rotation length reduced to 50y:Pacific Canada:40",1,0,50,null,null,84.83,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, 50 year rotation.",5.5369999999999999,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L782","v":5.5369999999999999},0.60550000000000004,0.31169999999999998,{"$f":"O782+P782","v":0.91720000000000002},8.2799999999999999E-2,0,0,0,0,0,0,{"$f":"(L782/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":0.1068814789051095},{"$f":"(L782/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.32942357498877956},{"$f":"(L782/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.35347149596296046},0,0,0,"See constants tab for assumptions of energy requirements. Residue energy requirements accounted for in land management cells.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A782","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"B781","v":"Pacific Canada"},100,"LRF Conifer, rotation length reduced to 50y:Pacific Canada:100",1,0,50,null,null,83.41,"Forest Research C-SORT model. Modelled as Douglas Fir, Yield Class 12, 50 year rotation.",4.91,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L783","v":4.91},0.50119999999999998,0.40310000000000001,{"$f":"O783+P783","v":0.90429999999999999},9.5699999999999993E-2,0,0,0,0,0,0,{"$f":"(L783/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":9.4778410948905115E-2},{"$f":"(L783/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.29212023716722191},{"$f":"(L783/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.31344501448042905},0,0,0,"See constants tab for assumptions of energy requirements. Residue energy requirements accounted for in land management cells.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A783","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"'Transport Data'!$A$14","v":"Interior Canada"},0,{"$f":"A784&\":\"&B784&\":\"&C784","v":"LRF Conifer, rotation length reduced to 50y:Interior Canada:0"},1,0,50,null,null,67.739999999999995,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 50 year rotation.","N/A",null,"N/A"]
[{"$f":"A783","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"'Transport Data'!A14","v":"Interior Canada"},20,"LRF Conifer, rotation length reduced to 50y:Interior Canada:20",1,0,50,null,null,46.92,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 50 year rotation.",2.8,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L785","v":2.8},0.13320000000000001,0.68179999999999996,{"$f":"O785+P785","v":0.81499999999999995},0.185,0,0,0,0,0,0,{"$f":"(L785/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":5.4048788321167884E-2},{"$f":"(L785/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.16658587862896562},{"$f":"(L785/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.17874664776888008},0,0,0,"See constants tab for assumptions of energy requirements. Residue energy requirements accounted for in land management cells.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A785","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"B785","v":"Interior Canada"},40,"LRF Conifer, rotation length reduced to 50y:Interior Canada:40",1,0,50,null,null,31.36,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 50 year rotation.",2.5009999999999999,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L786","v":2.5009999999999999},9.4100000000000003E-2,0.68920000000000003,{"$f":"O786+P786","v":0.7833},0.2167,0,0,0,0,0,0,{"$f":"(L786/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":4.82771498540146E-2},{"$f":"(L786/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.14879688658965823},{"$f":"(L786/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.15965905931070326},0,0,0,"See constants tab for assumptions of energy requirements. Residue energy requirements accounted for in land management cells.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A786","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"B785","v":"Interior Canada"},100,"LRF Conifer, rotation length reduced to 50y:Interior Canada:100",1,0,50,null,null,29.49,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 50 year rotation.",1.8879999999999999,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L787","v":1.8879999999999999},5.0200000000000002E-2,0.64639999999999997,{"$f":"O787+P787","v":0.6966},0.3034,0,0,0,0,0,0,{"$f":"(L787/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.6444325839416057E-2},{"$f":"(L787/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.11232647816124537},{"$f":"(L787/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.12052631106701628},0,0,0,"See constants tab for assumptions of energy requirements. Residue energy requirements accounted for in land management cells.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A787","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"'Transport Data'!$A$15","v":"Boreal North Canada"},0,"LRF Conifer, rotation length reduced to 50y:Boreal North Canada:0",1,0,50,null,null,67.739999999999995,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 50 year rotation.","N/A",null,"N/A"]
[{"$f":"A787","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"'Transport Data'!A15","v":"Boreal North Canada"},20,"LRF Conifer, rotation length reduced to 50y:Boreal North Canada:20",1,0,50,null,null,46.92,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 50 year rotation.",2.8,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L789","v":2.8},0.13320000000000001,0.68179999999999996,{"$f":"O789+P789","v":0.81499999999999995},0.185,0,0,0,0,0,0,{"$f":"(L789/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":5.4048788321167884E-2},{"$f":"(L789/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.16658587862896562},{"$f":"(L789/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.17874664776888008},0,0,0,"See constants tab for assumptions of energy requirements. Residue energy requirements accounted for in land management cells.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A789","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"B789","v":"Boreal North Canada"},40,"LRF Conifer, rotation length reduced to 50y:Boreal North Canada:40",1,0,50,null,null,31.36,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 50 year rotation.",2.5009999999999999,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L790","v":2.5009999999999999},9.4100000000000003E-2,0.68920000000000003,{"$f":"O790+P790","v":0.7833},0.2167,0,0,0,0,0,0,{"$f":"(L790/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":4.82771498540146E-2},{"$f":"(L790/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.14879688658965823},{"$f":"(L790/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.15965905931070326},0,0,0,"See constants tab for assumptions of energy requirements. Residue energy requirements accounted for in land management cells.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A790","v":"LRF Conifer, rotation length reduced to 50y"},{"$f":"B789","v":"Boreal North Canada"},100,"LRF Conifer, rotation length reduced to 50y:Boreal North Canada:100",1,0,50,null,null,29.49,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 50 year rotation.",1.8879999999999999,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L791","v":1.8879999999999999},5.0200000000000002E-2,0.64639999999999997,{"$f":"O791+P791","v":0.6966},0.3034,0,0,0,0,0,0,{"$f":"(L791/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.6444325839416057E-2},{"$f":"(L791/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.11232647816124537},{"$f":"(L791/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.12052631106701628},0,0,0,"See constants tab for assumptions of energy requirements. Residue energy requirements accounted for in land management cells.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!$B$28","v":"LRF Conifer, rotation length reduced to 80y"},{"$f":"'Transport Data'!$A$14","v":"Interior Canada"},0,"LRF Conifer, rotation length reduced to 80y:Interior Canada:0",1,0,80,null,null,67.739999999999995,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 80 year rotation.","N/A",null,"N/A"]
[{"$f":"Lists!$B$28","v":"LRF Conifer, rotation length reduced to 80y"},{"$f":"B792","v":"Interior Canada"},20,"LRF Conifer, rotation length reduced to 80y:Interior Canada:20",1,0,80,null,null,62.22,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 80 year rotation.",1.87,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L793","v":1.87},0.17199999999999999,0.66049999999999998,{"$f":"O793+P793","v":0.83250000000000002},0.16750000000000001,0,0,0,0,0,0,{"$f":"(L793/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.6096869343065698E-2},{"$f":"(L793/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.11125556894148776},{"$f":"(L793/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.11937722547421636},0,0,0,"See constants tab for assumptions of energy requirements. Residue energy requirements accounted for in land management cells.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!$B$28","v":"LRF Conifer, rotation length reduced to 80y"},{"$f":"B793","v":"Interior Canada"},40,"LRF Conifer, rotation length reduced to 80y:Interior Canada:40",1,0,80,null,null,57.34,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 80 year rotation.",1.83,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L794","v":1.83},0.157,0.67059999999999997,{"$f":"O794+P794","v":0.8276},0.17249999999999999,0,0,0,0,0,0,{"$f":"(L794/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.5324743795620443E-2},{"$f":"(L794/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.1088757706753597},{"$f":"(L794/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.11682370193466093},0,0,0,"See constants tab for assumptions of energy requirements. Residue energy requirements accounted for in land management cells.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!$B$28","v":"LRF Conifer, rotation length reduced to 80y"},{"$f":"B793","v":"Interior Canada"},100,"LRF Conifer, rotation length reduced to 80y:Interior Canada:100",1,0,80,null,null,54.56,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 80 year rotation.",1.7150000000000001,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L795","v":1.7150000000000001},0.1237,0.68720000000000003,{"$f":"O795+P795","v":0.81090000000000007},0.18909999999999999,0,0,0,0,0,0,{"$f":"(L795/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.3104882846715332E-2},{"$f":"(L795/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.10203385066024145},{"$f":"(L795/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.10948232175843907},0,0,0,"See constants tab for assumptions of energy requirements. Residue energy requirements accounted for in land management cells.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!$B$28","v":"LRF Conifer, rotation length reduced to 80y"},{"$f":"'Transport Data'!$A$15","v":"Boreal North Canada"},0,"LRF Conifer, rotation length reduced to 80y:Boreal North Canada:0",1,0,80,null,null,67.739999999999995,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 80 year rotation.","N/A",null,"N/A"]
[{"$f":"Lists!$B$28","v":"LRF Conifer, rotation length reduced to 80y"},{"$f":"B796","v":"Boreal North Canada"},20,"LRF Conifer, rotation length reduced to 80y:Boreal North Canada:20",1,0,80,null,null,62.22,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 80 year rotation.",1.87,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L797","v":1.87},0.17199999999999999,0.66049999999999998,{"$f":"O797+P797","v":0.83250000000000002},0.16750000000000001,0,0,0,0,0,0,{"$f":"(L797/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.6096869343065698E-2},{"$f":"(L797/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.11125556894148776},{"$f":"(L797/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.11937722547421636},0,0,0,"See constants tab for assumptions of energy requirements. Residue energy requirements accounted for in land management cells.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!$B$28","v":"LRF Conifer, rotation length reduced to 80y"},{"$f":"B797","v":"Boreal North Canada"},40,"LRF Conifer, rotation length reduced to 80y:Boreal North Canada:40",1,0,80,null,null,57.34,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 80 year rotation.",1.83,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L798","v":1.83},0.157,0.67059999999999997,{"$f":"O798+P798","v":0.8276},0.17249999999999999,0,0,0,0,0,0,{"$f":"(L798/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.5324743795620443E-2},{"$f":"(L798/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.1088757706753597},{"$f":"(L798/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.11682370193466093},0,0,0,"See constants tab for assumptions of energy requirements. Residue energy requirements accounted for in land management cells.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!$B$28","v":"LRF Conifer, rotation length reduced to 80y"},{"$f":"B797","v":"Boreal North Canada"},100,"LRF Conifer, rotation length reduced to 80y:Boreal North Canada:100",1,0,80,null,null,54.56,"Forest Research C-SORT model. Modelled as Lodgepole Pine, Yield Class 4, 80 year rotation.",1.7150000000000001,"Naturally regenerated forest.  Forest Research C-SORT model.",{"$f":"L799","v":1.7150000000000001},0.1237,0.68720000000000003,{"$f":"O799+P799","v":0.81090000000000007},0.18909999999999999,0,0,0,0,0,0,{"$f":"(L799/density_SW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.3104882846715332E-2},{"$f":"(L799/density_SW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.10203385066024145},{"$f":"(L799/density_SW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.10948232175843907},0,0,0,"See constants tab for assumptions of energy requirements. Residue energy requirements accounted for in land management cells.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!B29","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation"},{"$f":"'Transport Data'!A9","v":"South USA"},0,"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation:South USA:0",1,0,20,null,null,{"$f":"M35","v":69.64},null,"N/A",null,"N/A"]
[{"$f":"A800","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation"},"South USA",20,"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation:South USA:20",1,0,20,1.36,0.54,66.53,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 20 year rotation.",2.8220000000000001,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L801","v":2.8220000000000001},0,1,{"$f":"O801+P801","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_20stand_20y","v":11.486746987951808},{"$f":"(N801*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G801+Fert_applications*Landconv_20stand_20y*Loblolly_fertiliser_diesel*EF_diesel/G801+Loblolly_herbicide*EF_Pest*Landconv_20stand_20y/G801+(Loblolly_Phosphorus*Landconv_20stand_20y)*EF_Pfert)/Conv_te_kg","v":9.8044051691668868E-2},{"$f":"(N801*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G801+Fert_applications*Landconv_20stand_20y*Loblolly_fertiliser_diesel*En_F_diesel/G801+Loblolly_herbicide*En_F_Pest*Landconv_20stand_20y/G801+(Loblolly_Phosphorus*Landconv_20stand_20y)*En_F_Pfert)/Conv_MWh_KWh","v":0.31161866282503026},{"$f":"(N801*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G801+Fert_applications*Landconv_20stand_20y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G801+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_20stand_20y/G801+(Loblolly_Phosphorus*Landconv_20stand_20y)*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.3326231432770691},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
["Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation","South USA",40,"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation:South USA:40",1,0,20,1.36,0.54,66.53,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 20 year rotation.",4.2809999999999997,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L802","v":4.2809999999999997},0,1,{"$f":"O802+P802","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_20stand_40y","v":17.230120481927713},{"$f":"(N802*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G802+Fert_applications*Landconv_20stand_40y*Loblolly_fertiliser_diesel*EF_diesel/G802+Loblolly_herbicide*EF_Pest*Landconv_20stand_40y/G802+(Loblolly_Phosphorus*Landconv_20stand_40y)*EF_Pfert)/Conv_te_kg","v":0.1195742776495033},{"$f":"(N802*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G802+Fert_applications*Landconv_20stand_40y*Loblolly_fertiliser_diesel*En_F_diesel/G802+Loblolly_herbicide*En_F_Pest*Landconv_20stand_40y/G802+(Loblolly_Phosphorus*Landconv_20stand_40y)*En_F_Pfert)/Conv_MWh_KWh","v":0.38269444549968124},{"$f":"(N802*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G802+Fert_applications*Landconv_20stand_40y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G802+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_20stand_40y/G802+(Loblolly_Phosphorus*Landconv_20stand_40y)*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.40801561711987538},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
["Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation","South USA",100,"Conversion of LRF Conifer to intensively managed SRF plantation, 20 year rotation:South USA:100",1,0,20,1.36,0.54,66.53,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 20 year rotation.",5.157,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L803","v":5.157},0,1,{"$f":"O803+P803","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_20stand_100y","v":20.676144578313256},{"$f":"(N803*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G803+Fert_applications*Landconv_20stand_100y*Loblolly_fertiliser_diesel*EF_diesel/G803+Loblolly_herbicide*EF_Pest*Landconv_25stand_100y/G803+(Loblolly_Phosphorus*Landconv_20stand_100y)*EF_Pfert)/Conv_te_kg","v":0.13249354301060395},{"$f":"(N803*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G803+Fert_applications*Landconv_20stand_100y*Loblolly_fertiliser_diesel*En_F_diesel/G803+Loblolly_herbicide*En_F_Pest*Landconv_20stand_100y/G803+(Loblolly_Phosphorus*Landconv_20stand_100y)*En_F_Pfert)/Conv_MWh_KWh","v":0.42536039525981162},{"$f":"(N803*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G803+Fert_applications*Landconv_20stand_100y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G803+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_20stand_100y/G803+(Loblolly_Phosphorus*Landconv_20stand_100y)*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.45327307663223881},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!B30","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation"},{"$f":"'Transport Data'!A9","v":"South USA"},0,{"$f":"A804&\":\"&B804&\":\"&C804","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation:South USA:0"},1,0,25,null,null,{"$f":"M35","v":69.64}]
[{"$f":"A804","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation"},"South USA",20,"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation:South USA:20",1,0,25,1.36,0.54,80.923000000000002,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 25 year rotation.",2.758,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L805","v":2.758},0.6,0.4,{"$f":"O805+P805","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_25stand_20y","v":9.1893975903614464},{"$f":"(N805*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G805+Fert_applications*Landconv_25stand_20y*Loblolly_fertiliser_diesel*EF_diesel/G805+Loblolly_herbicide*EF_Pest*Landconv_25stand_20y/G805+(Loblolly_Phosphorus*Landconv_25stand_20y)*EF_Pfert)/Conv_te_kg","v":8.2990475770935088E-2},{"$f":"(N805*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G805+Fert_applications*Landconv_25stand_20y*Loblolly_fertiliser_diesel*En_F_diesel/G805+Loblolly_herbicide*En_F_Pest*Landconv_25stand_20y/G805+(Loblolly_Phosphorus*Landconv_25stand_20y+0*(1-Landconv_25stand_20y))*En_F_Pfert)/Conv_MWh_KWh","v":0.26327007841104899},{"$f":"(N805*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G805+Fert_applications*Landconv_25stand_20y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G805+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_25stand_20y/G805+(Loblolly_Phosphorus*Landconv_25stand_20y+0*(1-Landconv_25stand_20y))*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.28110254369881593},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A805","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation"},"South USA",40,"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation:South USA:40",1,0,25,1.36,0.54,80.923000000000002,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 25 year rotation.",3.7709999999999999,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L806","v":3.7709999999999999},0.6,0.4,{"$f":"O806+P806","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_25stand_40y","v":15.794277108433736},{"$f":"(N806*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G806+Fert_applications*Landconv_25stand_40y*Loblolly_fertiliser_diesel*EF_diesel/G806+Loblolly_herbicide*EF_Pest*Landconv_25stand_40y/G806+(Loblolly_Phosphorus*Landconv_25stand_40y)*EF_Pfert)/Conv_te_kg","v":9.9678199149044688E-2},{"$f":"(N806*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G806+Fert_applications*Landconv_25stand_40y*Loblolly_fertiliser_diesel*En_F_diesel/G806+Loblolly_herbicide*En_F_Pest*Landconv_25stand_40y/G806+(Loblolly_Phosphorus*Landconv_25stand_40y)*En_F_Pfert)/Conv_MWh_KWh","v":0.32008157430782536},{"$f":"(N806*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G806+Fert_applications*Landconv_25stand_40y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G806+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_25stand_40y/G806+(Loblolly_Phosphorus*Landconv_25stand_40y+0*(1-Landconv_25stand_40y))*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.34106491129500977},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A806","v":"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation"},"South USA",100,"Conversion of LRF Conifer to intensively managed SRF plantation, 25 year rotation:South USA:100",1,0,25,1.36,0.54,80.923000000000002,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 25 year rotation.",5.056,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L807","v":5.056},0.6,0.4,{"$f":"O807+P807","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_25stand_100y","v":20.101807228915664},{"$f":"(N807*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G807+Fert_applications*Landconv_25stand_100y*Loblolly_fertiliser_diesel*EF_diesel/G807+Loblolly_herbicide*EF_Pest*Landconv_25stand_100y/G807+(Loblolly_Phosphorus*Landconv_25stand_100y)*EF_Pfert)/Conv_te_kg","v":0.11747592691042053},{"$f":"(N807*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G807+Fert_applications*Landconv_25stand_100y*Loblolly_fertiliser_diesel*En_F_diesel/G807+Loblolly_herbicide*En_F_Pest*Landconv_25stand_100y/G807+(Loblolly_Phosphorus*Landconv_25stand_100y)*En_F_Pfert)/Conv_MWh_KWh","v":0.37844378399989781},{"$f":"(N807*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G807+Fert_applications*Landconv_25stand_100y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G807+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_25stand_100y/G807+(Loblolly_Phosphorus*Landconv_25stand_100y+0*(1-Landconv_25stand_100y))*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.40303775740261621},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!B31","v":"Conversion of LRF Conifer to SRC Willow over 3 y"},{"$f":"'Transport Data'!A9","v":"South USA"},0,"Conversion of LRF Conifer to SRC Willow over 3 y:South USA:0",1,0,3,null,null,{"$f":"M35","v":69.64},null,"N/A",null,"N/A"]
[{"$f":"A808","v":"Conversion of LRF Conifer to SRC Willow over 3 y"},{"$f":"B808","v":"South USA"},20,"Conversion of LRF Conifer to SRC Willow over 3 y:South USA:20",1,0,3,1.36,0.54,{"$f":"L809*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"SRC plantation. CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land. The initial clearing of the conifer forest results in an overall yield greater than that of energy crops alone, by adding 2.054 odt/ha/y over 20y.",{"$f":"L809*Yield_factor_20y_SRC+2.142","v":11.641999999999999},0,1,{"$f":"O809+P809","v":1},0,0,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N809)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.18311689537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N809)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.65902545076282948},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N809)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.69429239200184933},0,0,0,"ADAS, 2011, Carbon Impacts of Using Biomass in Bioenergy and other Sectors, Energy Crops.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"A808","v":"Conversion of LRF Conifer to SRC Willow over 3 y"},{"$f":"B809","v":"South USA"},40,"Conversion of LRF Conifer to SRC Willow over 3 y:South USA:40",1,0,3,1.36,0.54,{"$f":"L810*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"SRC plantation. CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land. The initial clearing of the conifer forest results in an overall yield greater than that of energy crops alone, by adding 1.027 odt/ha/y over 40y.",{"$f":"L810*Yield_factor_40y_SRC+1.071","v":10.821},0,1,{"$f":"O810+P810","v":1},0,0,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N810)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.17487200287499996},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N810)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.63361354600092468},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N810)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.66702541819232541},0,0,0,"ADAS, 2011, Carbon Impacts of Using Biomass in Bioenergy and other Sectors, Energy Crops.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"A808","v":"Conversion of LRF Conifer to SRC Willow over 3 y"},{"$f":"B810","v":"South USA"},100,"Conversion of LRF Conifer to SRC Willow over 3 y:South USA:100",1,0,3,1.36,0.54,{"$f":"L811*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"SRC plantation. CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land. The initial clearing of the conifer forest results in an overall yield greater than that of energy crops alone, by adding 0.411 odt/ha/y over 100y.",{"$f":"L811*Yield_factor_100y_SRC+0.428","v":10.328000000000001},0,1,{"$f":"O811+P811","v":1},0,0,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N811)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16992105037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N811)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.6183540221914009},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N811)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.65065194914470648},0,0,0,"ADAS, 2011, Carbon Impacts of Using Biomass in Bioenergy and other Sectors, Energy Crops.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"Lists!$B$32","v":"Conversion of LRF Conifer to SRC Willow over 50 y"},{"$f":"'Transport Data'!A9","v":"South USA"},0,{"$f":"A812&\":\"&B812&\":\"&C812","v":"Conversion of LRF Conifer to SRC Willow over 50 y:South USA:0"},1,0,50,null,null,{"$f":"M35","v":69.64}]
[{"$f":"Lists!$B$32","v":"Conversion of LRF Conifer to SRC Willow over 50 y"},{"$f":"B812","v":"South USA"},20,"Conversion of LRF Conifer to SRC Willow over 50 y:South USA:20",1,0,50,1.36,0.54,57.28,"Forestry: Smith et al., 2006. SRC: Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass.",3.7949999999999999,"Forestry: Smith et al., 2006. SRC plantation. CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land. The initial clearing of the conifer forest results in an overall yield greater than that of energy crops alone.",{"$f":"L813","v":3.7949999999999999},0,1,{"$f":"O813+P813","v":1},0,0,0,0,0,0,{"$f":"8*Landconv_50stand_20y","v":1.6},{"$f":"((Diesel_SRC*Landconv_50stand_20y+Diesel_SRC_harvest*'Land Data'!N813)*EF_diesel+Cuttings_SRC*EF_SRC_cutting*Landconv_50stand_20y+Setts_SRC*EF_SRC_sett*Landconv_50stand_20y+Pesticides_SRC*EF_Pest*Landconv_50stand_20y)/Conv_te_kg","v":5.1351709574999987E-2},{"$f":"((Diesel_SRC*Landconv_50stand_20y+Diesel_SRC_harvest*'Land Data'!N813)*En_F_diesel+Cuttings_SRC*En_SRC_cutting*Landconv_50stand_20y+Setts_SRC*En_SRC_sett*Landconv_50stand_20y+Pesticides_SRC*En_F_Pest*Landconv_50stand_20y)/Conv_MWh_KWh","v":0.1771998520573278},{"$f":"((Diesel_SRC*Landconv_50stand_20y+Diesel_SRC_harvest*'Land Data'!N813)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting*Landconv_50stand_20y+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett*Landconv_50stand_20y+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect*Landconv_50stand_20y)/Conv_MWh_KWh","v":0.18756705792417938},0,0,0,"ADAS, 2011, Carbon Impacts of Using Biomass in Bioenergy and other Sectors, Energy Crops.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"Lists!$B$32","v":"Conversion of LRF Conifer to SRC Willow over 50 y"},{"$f":"B813","v":"South USA"},40,"Conversion of LRF Conifer to SRC Willow over 50 y:South USA:40",1,0,50,1.36,0.54,29.63,"Forestry: Smith et al., 2006. SRC: Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass.",5.7949999999999999,"Forestry: Smith et al., 2006. SRC plantation. CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land. The initial clearing of the conifer forest results in an overall yield greater than that of energy crops alone.",{"$f":"L814","v":5.7949999999999999},0,1,{"$f":"O814+P814","v":1},0,0,0,0,0,0,{"$f":"8*Landconv_50stand_40y","v":3.2},{"$f":"((Diesel_SRC*Landconv_50stand_40y+Diesel_SRC_harvest*'Land Data'!N814)*EF_diesel+Cuttings_SRC*EF_SRC_cutting*Landconv_50stand_40y+Setts_SRC*EF_SRC_sett*Landconv_50stand_40y+Pesticides_SRC*EF_Pest*Landconv_50stand_40y)/Conv_te_kg","v":8.4677131649999973E-2},{"$f":"((Diesel_SRC*Landconv_50stand_40y+Diesel_SRC_harvest*'Land Data'!N814)*En_F_diesel+Cuttings_SRC*En_SRC_cutting*Landconv_50stand_40y+Setts_SRC*En_SRC_sett*Landconv_50stand_40y+Pesticides_SRC*En_F_Pest*Landconv_50stand_40y)/Conv_MWh_KWh","v":0.29884018030513176},{"$f":"((Diesel_SRC*Landconv_50stand_40y+Diesel_SRC_harvest*'Land Data'!N814)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting*Landconv_50stand_40y+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett*Landconv_50stand_40y+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect*Landconv_50stand_40y)/Conv_MWh_KWh","v":0.31551874680073966},0,0,0,"ADAS, 2011, Carbon Impacts of Using Biomass in Bioenergy and other Sectors, Energy Crops.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"Lists!$B$32","v":"Conversion of LRF Conifer to SRC Willow over 50 y"},{"$f":"B814","v":"South USA"},100,"Conversion of LRF Conifer to SRC Willow over 50 y:South USA:100",1,0,50,1.36,0.54,10.95,"Forestry: Smith et al., 2006. SRC: Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass.",8.3979999999999997,"Forestry: Smith et al., 2006. SRC plantation. CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land. The initial clearing of the conifer forest results in an overall yield greater than that of energy crops alone.",8.3979999999999997,0,1,{"$f":"O815+P815","v":1},0,0,0,0,0,0,{"$f":"8*Landconv_50stand_100y","v":6},{"$f":"((Diesel_SRC*Landconv_50stand_100y+Diesel_SRC_harvest*'Land Data'!N815)*EF_diesel+Cuttings_SRC*EF_SRC_cutting*Landconv_50stand_100y+Setts_SRC*EF_SRC_sett*Landconv_50stand_100y+Pesticides_SRC*EF_Pest*Landconv_50stand_100y)/Conv_te_kg","v":0.13398849778124999},{"$f":"((Diesel_SRC*Landconv_50stand_100y+Diesel_SRC_harvest*'Land Data'!N815)*En_F_diesel+Cuttings_SRC*En_SRC_cutting*Landconv_50stand_100y+Setts_SRC*En_SRC_sett*Landconv_50stand_100y+Pesticides_SRC*En_F_Pest*Landconv_50stand_100y)/Conv_MWh_KWh","v":0.483946469024503},{"$f":"((Diesel_SRC*Landconv_50stand_100y+Diesel_SRC_harvest*'Land Data'!N815)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting*Landconv_50stand_100y+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett*Landconv_50stand_100y+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect*Landconv_50stand_100y)/Conv_MWh_KWh","v":0.50964312376329168},0,0,0,"ADAS, 2011, Carbon Impacts of Using Biomass in Bioenergy and other Sectors, Energy Crops.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"Lists!B33","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation"},{"$f":"'Transport Data'!A9","v":"South USA"},0,"Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation:South USA:0",1,0,20,null,null,{"$f":"$M$104","v":84.42},null,"N/A",null,"N/A"]
[{"$f":"A816","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation"},"South USA",20,"Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation:South USA:20",1,0,20,1.36,0.54,66.53,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 20 year rotation.",2.8159999999999998,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L817","v":2.8159999999999998},0,1,{"$f":"O817+P817","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_20stand_20y","v":11.486746987951808},{"$f":"(N817*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G817+Fert_applications*Landconv_20stand_20y*Loblolly_fertiliser_diesel*EF_diesel/G817+Loblolly_herbicide*EF_Pest*Landconv_20stand_20y/G817+(Loblolly_Phosphorus*Landconv_20stand_20y)*EF_Pfert)/Conv_te_kg","v":9.797760382766886E-2},{"$f":"(N817*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G817+Fert_applications*Landconv_20stand_20y*Loblolly_fertiliser_diesel*En_F_diesel/G817+Loblolly_herbicide*En_F_Pest*Landconv_20stand_20y/G817+(Loblolly_Phosphorus*Landconv_20stand_20y)*En_F_Pfert)/Conv_MWh_KWh","v":0.31141386127163218},{"$f":"(N817*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G817+Fert_applications*Landconv_20stand_20y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G817+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_20stand_20y/G817+(Loblolly_Phosphorus*Landconv_20stand_20y)*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.33240339121027296},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
["Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation","South USA",40,"Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation:South USA:40",1,0,20,1.36,0.54,66.53,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 20 year rotation.",4.2779999999999996,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L818","v":4.2779999999999996},0,1,{"$f":"O818+P818","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_20stand_40y","v":17.230120481927713},{"$f":"(N818*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G818+Fert_applications*Landconv_20stand_40y*Loblolly_fertiliser_diesel*EF_diesel/G818+Loblolly_herbicide*EF_Pest*Landconv_20stand_40y/G818+(Loblolly_Phosphorus*Landconv_20stand_40y)*EF_Pfert)/Conv_te_kg","v":0.1195410537175033},{"$f":"(N818*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G818+Fert_applications*Landconv_20stand_40y*Loblolly_fertiliser_diesel*En_F_diesel/G818+Loblolly_herbicide*En_F_Pest*Landconv_20stand_40y/G818+(Loblolly_Phosphorus*Landconv_20stand_40y)*En_F_Pfert)/Conv_MWh_KWh","v":0.38259204472298225},{"$f":"(N818*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G818+Fert_applications*Landconv_20stand_40y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G818+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_20stand_40y/G818+(Loblolly_Phosphorus*Landconv_20stand_40y)*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.40790574108647737},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
["Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation","South USA",100,"Conversion of LRF Broadleaf to intensively managed SRF plantation, 20 year rotation:South USA:100",1,0,20,1.36,0.54,66.53,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 20 year rotation.",5.1559999999999997,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L819","v":5.1559999999999997},0,1,{"$f":"O819+P819","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_20stand_100y","v":20.676144578313256},{"$f":"(N819*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G819+Fert_applications*Landconv_20stand_100y*Loblolly_fertiliser_diesel*EF_diesel/G819+Loblolly_herbicide*EF_Pest*Landconv_25stand_100y/G819+(Loblolly_Phosphorus*Landconv_20stand_100y)*EF_Pfert)/Conv_te_kg","v":0.13248246836660396},{"$f":"(N819*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G819+Fert_applications*Landconv_20stand_100y*Loblolly_fertiliser_diesel*En_F_diesel/G819+Loblolly_herbicide*En_F_Pest*Landconv_20stand_100y/G819+(Loblolly_Phosphorus*Landconv_20stand_100y)*En_F_Pfert)/Conv_MWh_KWh","v":0.42532626166757859},{"$f":"(N819*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G819+Fert_applications*Landconv_20stand_100y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G819+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_20stand_100y/G819+(Loblolly_Phosphorus*Landconv_20stand_100y)*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.45323645128777273},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!B34","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation"},{"$f":"'Transport Data'!A9","v":"South USA"},0,{"$f":"A820&\":\"&B820&\":\"&C820","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation:South USA:0"},1,0,25,null,null,{"$f":"$M$104","v":84.42}]
[{"$f":"A820","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation"},"South USA",20,"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation:South USA:20",1,0,25,1.36,0.54,66.66,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 25 year rotation.",2.8050000000000002,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L821","v":2.8050000000000002},0.6,0.4,{"$f":"O821+P821","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_25stand_20y","v":9.1893975903614464},{"$f":"(N821*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G821+Fert_applications*Landconv_25stand_20y*Loblolly_fertiliser_diesel*EF_diesel/G821+Loblolly_herbicide*EF_Pest*Landconv_25stand_20y/G821+(Loblolly_Phosphorus*Landconv_25stand_20y)*EF_Pfert)/Conv_te_kg","v":8.3510984038935088E-2},{"$f":"(N821*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G821+Fert_applications*Landconv_25stand_20y*Loblolly_fertiliser_diesel*En_F_diesel/G821+Loblolly_herbicide*En_F_Pest*Landconv_25stand_20y/G821+(Loblolly_Phosphorus*Landconv_25stand_20y+0*(1-Landconv_25stand_20y))*En_F_Pfert)/Conv_MWh_KWh","v":0.26487435724600039},{"$f":"(N821*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G821+Fert_applications*Landconv_25stand_20y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G821+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_25stand_20y/G821+(Loblolly_Phosphorus*Landconv_25stand_20y+0*(1-Landconv_25stand_20y))*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.28282393488871888},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A821","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation"},"South USA",40,"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation:South USA:40",1,0,25,1.36,0.54,80.923000000000002,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 25 year rotation.",3.742,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L822","v":3.742},0.6,0.4,{"$f":"O822+P822","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_25stand_40y","v":15.794277108433736},{"$f":"(N822*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G822+Fert_applications*Landconv_25stand_40y*Loblolly_fertiliser_diesel*EF_diesel/G822+Loblolly_herbicide*EF_Pest*Landconv_25stand_40y/G822+(Loblolly_Phosphorus*Landconv_25stand_40y)*EF_Pfert)/Conv_te_kg","v":9.9357034473044684E-2},{"$f":"(N822*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G822+Fert_applications*Landconv_25stand_40y*Loblolly_fertiliser_diesel*En_F_diesel/G822+Loblolly_herbicide*En_F_Pest*Landconv_25stand_40y/G822+(Loblolly_Phosphorus*Landconv_25stand_40y)*En_F_Pfert)/Conv_MWh_KWh","v":0.31909170013306798},{"$f":"(N822*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G822+Fert_applications*Landconv_25stand_40y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G822+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_25stand_40y/G822+(Loblolly_Phosphorus*Landconv_25stand_40y+0*(1-Landconv_25stand_40y))*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.34000277630549519},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A822","v":"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation"},"South USA",100,"Conversion of LRF Broadleaf to intensively managed SRF plantation, 25 year rotation:South USA:100",1,0,25,1.36,0.54,80.923000000000002,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 25 year rotation.",5.0449999999999999,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L823","v":5.0449999999999999},0.6,0.4,{"$f":"O823+P823","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_25stand_100y","v":20.101807228915664},{"$f":"(N823*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G823+Fert_applications*Landconv_25stand_100y*Loblolly_fertiliser_diesel*EF_diesel/G823+Loblolly_herbicide*EF_Pest*Landconv_25stand_100y/G823+(Loblolly_Phosphorus*Landconv_25stand_100y)*EF_Pfert)/Conv_te_kg","v":0.11735410582642052},{"$f":"(N823*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G823+Fert_applications*Landconv_25stand_100y*Loblolly_fertiliser_diesel*En_F_diesel/G823+Loblolly_herbicide*En_F_Pest*Landconv_25stand_100y/G823+(Loblolly_Phosphorus*Landconv_25stand_100y)*En_F_Pfert)/Conv_MWh_KWh","v":0.37806831448533468},{"$f":"(N823*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G823+Fert_applications*Landconv_25stand_100y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G823+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_25stand_100y/G823+(Loblolly_Phosphorus*Landconv_25stand_100y+0*(1-Landconv_25stand_100y))*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.40263487861348995},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!B35","v":"Conversion of LRF Broadleaf to SRC Willow over 3 y"},{"$f":"'Transport Data'!A9","v":"South USA"},0,"Conversion of LRF Broadleaf to SRC Willow over 3 y:South USA:0",1,0,3,null,null,84.42,null,"N/A",null,"N/A"]
[{"$f":"A824","v":"Conversion of LRF Broadleaf to SRC Willow over 3 y"},"South USA",20,"Conversion of LRF Broadleaf to SRC Willow over 3 y:South USA:20",1,0,3,1.36,0.54,{"$f":"L825*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"SRC plantation. CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land. The initial clearing of the broadleaf forest results in an overall yield greater than that of energy crops alone, by adding 2.241 odt/ha/y over 20y.",{"$f":"L825*Yield_factor_20y_SRC+2.305","v":11.805},0,1,{"$f":"O825+P825","v":1},0,0,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N825)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.184753822875},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N825)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.66407068885806753},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N825)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6997059324780398},0,0,0,"ADAS, 2011, Carbon Impacts of Using Biomass in Bioenergy and other Sectors, Energy Crops.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["Conversion of LRF Broadleaf to SRC Willow over 3 y","South USA",40,"Conversion of LRF Broadleaf to SRC Willow over 3 y:South USA:40",1,0,3,1.36,0.54,{"$f":"L826*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"SRC plantation. CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land. The initial clearing of the broadleaf forest results in an overall yield greater than that of energy crops alone, by adding 1.121 odt/ha/y over 40y.",{"$f":"L826*Yield_factor_40y_SRC+1.152","v":10.901999999999999},0,1,{"$f":"O826+P826","v":1},0,0,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N826)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.17568544537499997},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N826)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.6361206888580675},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N826)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.66971558247803975},0,0,0,"ADAS, 2011, Carbon Impacts of Using Biomass in Bioenergy and other Sectors, Energy Crops.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["Conversion of LRF Broadleaf to SRC Willow over 3 y","South USA",100,"Conversion of LRF Broadleaf to SRC Willow over 3 y:South USA:100",1,0,3,1.36,0.54,{"$f":"L827*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"SRC plantation. CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land. The initial clearing of the conifer forest results in an overall yield greater than that of energy crops alone, by adding 0.448 odt/ha/y over 100y.",{"$f":"L827*Yield_factor_100y_SRC+0.461","v":10.361000000000001},0,1,{"$f":"O827+P827","v":1},0,0,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N827)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.17025245287499996},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N827)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.6193754507628294},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N827)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.65174794200184916},0,0,0,"ADAS, 2011, Carbon Impacts of Using Biomass in Bioenergy and other Sectors, Energy Crops.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"Lists!$B$36","v":"Conversion of LRF Broadleaf to SRC Willow over 70 y"},{"$f":"'Transport Data'!A9","v":"South USA"},0,{"$f":"A828&\":\"&B828&\":\"&C828","v":"Conversion of LRF Broadleaf to SRC Willow over 70 y:South USA:0"},1,0,70,null,null,84.42]
[{"$f":"Lists!$B$36","v":"Conversion of LRF Broadleaf to SRC Willow over 70 y"},{"$f":"B828","v":"South USA"},20,"Conversion of LRF Broadleaf to SRC Willow over 70 y:South USA:20",1,0,70,1.36,0.54,77.86,"Forestry: Smith et al., 2006. SRC: Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass.",2.9369999999999998,"Forestry: Smith et al., 2006. SRC plantation. CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land. The initial clearing of the conifer forest results in an overall yield greater than that of energy crops alone.",{"$f":"L829","v":2.9369999999999998},0,1,{"$f":"O829+P829","v":1},0,0,0,0,0,0,{"$f":"8*Landconv_70stand_20y","v":1.1428571428571428},{"$f":"((Diesel_SRC*Landconv_70stand_20y+Diesel_SRC_harvest*'Land Data'!N829)*EF_diesel+Cuttings_SRC*EF_SRC_cutting*Landconv_70stand_20y+Setts_SRC*EF_SRC_sett*Landconv_70stand_20y+Pesticides_SRC*EF_Pest*Landconv_70stand_20y)/Conv_te_kg","v":3.8952266839285696E-2},{"$f":"((Diesel_SRC*Landconv_70stand_20y+Diesel_SRC_harvest*'Land Data'!N829)*En_F_diesel+Cuttings_SRC*En_SRC_cutting*Landconv_70stand_20y+Setts_SRC*En_SRC_sett*Landconv_70stand_20y+Pesticides_SRC*En_F_Pest*Landconv_70stand_20y)/Conv_MWh_KWh","v":0.13357540453074432},{"$f":"((Diesel_SRC*Landconv_70stand_20y+Diesel_SRC_harvest*'Land Data'!N829)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting*Landconv_70stand_20y+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett*Landconv_70stand_20y+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect*Landconv_70stand_20y)/Conv_MWh_KWh","v":0.14149184953767913},0,0,0,"ADAS, 2011, Carbon Impacts of Using Biomass in Bioenergy and other Sectors, Energy Crops.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"Lists!$B$36","v":"Conversion of LRF Broadleaf to SRC Willow over 70 y"},{"$f":"B829","v":"South USA"},40,"Conversion of LRF Broadleaf to SRC Willow over 70 y:South USA:40",1,0,70,1.36,0.54,60.05,"Forestry: Smith et al., 2006. SRC: Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass.",4.3659999999999997,"Forestry: Smith et al., 2006. SRC plantation. CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land. The initial clearing of the conifer forest results in an overall yield greater than that of energy crops alone.",{"$f":"L830","v":4.3659999999999997},0,1,{"$f":"O830+P830","v":1},0,0,0,0,0,0,{"$f":"8*Landconv_70stand_40y","v":2.2857142857142856},{"$f":"((Diesel_SRC*Landconv_70stand_40y+Diesel_SRC_harvest*'Land Data'!N830)*EF_diesel+Cuttings_SRC*EF_SRC_cutting*Landconv_70stand_40y+Setts_SRC*EF_SRC_sett*Landconv_70stand_40y+Pesticides_SRC*EF_Pest*Landconv_70stand_40y)/Conv_te_kg","v":6.2760443678571406E-2},{"$f":"((Diesel_SRC*Landconv_70stand_40y+Diesel_SRC_harvest*'Land Data'!N830)*En_F_diesel+Cuttings_SRC*En_SRC_cutting*Landconv_70stand_40y+Setts_SRC*En_SRC_sett*Landconv_70stand_40y+Pesticides_SRC*En_F_Pest*Landconv_70stand_40y)/Conv_MWh_KWh","v":0.22047461858529815},{"$f":"((Diesel_SRC*Landconv_70stand_40y+Diesel_SRC_harvest*'Land Data'!N830)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting*Landconv_70stand_40y+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett*Landconv_70stand_40y+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect*Landconv_70stand_40y)/Conv_MWh_KWh","v":0.23290014669440587},0,0,0,"ADAS, 2011, Carbon Impacts of Using Biomass in Bioenergy and other Sectors, Energy Crops.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"Lists!$B$36","v":"Conversion of LRF Broadleaf to SRC Willow over 70 y"},{"$f":"B830","v":"South USA"},100,"Conversion of LRF Broadleaf to SRC Willow over 70 y:South USA:100",1,0,70,1.36,0.54,10.95,"Forestry: Smith et al., 2006. SRC: Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass.",7.5570000000000004,"Forestry: Smith et al., 2006. SRC plantation. CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land. The initial clearing of the conifer forest results in an overall yield greater than that of energy crops alone.",7.5570000000000004,0,1,{"$f":"O831+P831","v":1},0,0,0,0,0,0,{"$f":"8*Landconv_70stand_100y","v":5.2},{"$f":"((Diesel_SRC*Landconv_70stand_100y+Diesel_SRC_harvest*'Land Data'!N831)*EF_diesel+Cuttings_SRC*EF_SRC_cutting*Landconv_70stand_100y+Setts_SRC*EF_SRC_sett*Landconv_70stand_100y+Pesticides_SRC*EF_Pest*Landconv_70stand_100y)/Conv_te_kg","v":0.11892254424375},{"$f":"((Diesel_SRC*Landconv_70stand_100y+Diesel_SRC_harvest*'Land Data'!N831)*En_F_diesel+Cuttings_SRC*En_SRC_cutting*Landconv_70stand_100y+Setts_SRC*En_SRC_sett*Landconv_70stand_100y+Pesticides_SRC*En_F_Pest*Landconv_70stand_100y)/Conv_MWh_KWh","v":0.42804773347202957},{"$f":"((Diesel_SRC*Landconv_70stand_100y+Diesel_SRC_harvest*'Land Data'!N831)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting*Landconv_70stand_100y+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett*Landconv_70stand_100y+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect*Landconv_70stand_100y)/Conv_MWh_KWh","v":0.45094797218215438},0,0,0,"ADAS, 2011, Carbon Impacts of Using Biomass in Bioenergy and other Sectors, Energy Crops.",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"Lists!B22","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},{"$f":"'Transport Data'!A24","v":"North America (temperate dry region)"},0,{"$f":"A832&\":\"&B832&\":\"&C832","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation:North America (temperate dry region):0"},1,0,25,null,null,0,null,null,null,"N/A"]
[{"$f":"A832","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},"North America (temperate dry region)",20,"Newly Established Intensively managed SRF Conifer, 25 years rotation:North America (temperate dry region):20",1,0,25,0.68,0.27,53.222999999999999,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 25 year rotation.",0,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L833","v":0},0.6,0.4,{"$f":"O833+P833","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_25stand_20y","v":9.1893975903614464},{"$f":"(N833*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G833+Fert_applications*Landconv_25stand_20y*Loblolly_fertiliser_diesel*EF_diesel/G833+Loblolly_herbicide*EF_Pest*Landconv_25stand_20y/G833+(Loblolly_Phosphorus*Landconv_25stand_20y)*EF_Pfert)/Conv_te_kg","v":5.2446607618935104E-2},{"$f":"(N833*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G833+Fert_applications*Landconv_25stand_20y*Loblolly_fertiliser_diesel*En_F_diesel/G833+Loblolly_herbicide*En_F_Pest*Landconv_25stand_20y/G833+(Loblolly_Phosphorus*Landconv_25stand_20y+0*(1-Landconv_25stand_20y))*En_F_Pfert)/Conv_MWh_KWh","v":0.16912963103240819},{"$f":"(N833*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G833+Fert_applications*Landconv_25stand_20y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G833+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_25stand_20y/G833+(Loblolly_Phosphorus*Landconv_25stand_20y+0*(1-Landconv_25stand_20y))*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.18008984366153438},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A833","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},"North America (temperate dry region)",40,"Newly Established Intensively managed SRF Conifer, 25 years rotation:North America (temperate dry region):40",1,0,25,0.68,0.27,80.923000000000002,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 25 year rotation.",2.2170000000000001,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L834","v":2.2170000000000001},0.6,0.4,{"$f":"O834+P834","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_25stand_40y","v":15.794277108433736},{"$f":"(N834*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G834+Fert_applications*Landconv_25stand_40y*Loblolly_fertiliser_diesel*EF_diesel/G834+Loblolly_herbicide*EF_Pest*Landconv_25stand_40y/G834+(Loblolly_Phosphorus*Landconv_25stand_40y)*EF_Pfert)/Conv_te_kg","v":8.2468202373044697E-2},{"$f":"(N834*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G834+Fert_applications*Landconv_25stand_40y*Loblolly_fertiliser_diesel*En_F_diesel/G834+Loblolly_herbicide*En_F_Pest*Landconv_25stand_40y/G834+(Loblolly_Phosphorus*Landconv_25stand_40y)*En_F_Pfert)/Conv_MWh_KWh","v":0.26703797197772827},{"$f":"(N834*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G834+Fert_applications*Landconv_25stand_40y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G834+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_25stand_40y/G834+(Loblolly_Phosphorus*Landconv_25stand_40y+0*(1-Landconv_25stand_40y))*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.28414912599481562},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A834","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},"North America (temperate dry region)",100,"Newly Established Intensively managed SRF Conifer, 25 years rotation:North America (temperate dry region):100",1,0,25,0.68,0.27,80.923000000000002,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 25 year rotation.",4.4349999999999996,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L835","v":4.4349999999999996},0.6,0.4,{"$f":"O835+P835","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_25stand_100y","v":20.101807228915664},{"$f":"(N835*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G835+Fert_applications*Landconv_25stand_100y*Loblolly_fertiliser_diesel*EF_diesel/G835+Loblolly_herbicide*EF_Pest*Landconv_25stand_100y/G835+(Loblolly_Phosphorus*Landconv_25stand_100y)*EF_Pfert)/Conv_te_kg","v":0.11059857298642052},{"$f":"(N835*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G835+Fert_applications*Landconv_25stand_100y*Loblolly_fertiliser_diesel*En_F_diesel/G835+Loblolly_herbicide*En_F_Pest*Landconv_25stand_100y/G835+(Loblolly_Phosphorus*Landconv_25stand_100y)*En_F_Pfert)/Conv_MWh_KWh","v":0.35724682322319878},{"$f":"(N835*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G835+Fert_applications*Landconv_25stand_100y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G835+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_25stand_100y/G835+(Loblolly_Phosphorus*Landconv_25stand_100y+0*(1-Landconv_25stand_100y))*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.38029341848921822},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A835","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},{"$f":"'Transport Data'!$A$28","v":"North America (tropical moist region)"},0,{"$f":"A836&\":\"&B836&\":\"&C836","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation:North America (tropical moist region):0"},1,0,25,null,null,0,null,null,null,"N/A"]
[{"$f":"A836","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},{"$f":"'Transport Data'!$A$28","v":"North America (tropical moist region)"},20,"Newly Established Intensively managed SRF Conifer, 25 years rotation:North America (tropical moist region):20",1,0,25,1.36,0.54,53.222999999999999,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 25 year rotation.",0,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L837","v":0},0.6,0.4,{"$f":"O837+P837","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_25stand_20y","v":9.1893975903614464},{"$f":"(N837*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G837+Fert_applications*Landconv_25stand_20y*Loblolly_fertiliser_diesel*EF_diesel/G837+Loblolly_herbicide*EF_Pest*Landconv_25stand_20y/G837+(Loblolly_Phosphorus*Landconv_25stand_20y)*EF_Pfert)/Conv_te_kg","v":5.2446607618935104E-2},{"$f":"(N837*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G837+Fert_applications*Landconv_25stand_20y*Loblolly_fertiliser_diesel*En_F_diesel/G837+Loblolly_herbicide*En_F_Pest*Landconv_25stand_20y/G837+(Loblolly_Phosphorus*Landconv_25stand_20y+0*(1-Landconv_25stand_20y))*En_F_Pfert)/Conv_MWh_KWh","v":0.16912963103240819},{"$f":"(N837*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G837+Fert_applications*Landconv_25stand_20y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G837+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_25stand_20y/G837+(Loblolly_Phosphorus*Landconv_25stand_20y+0*(1-Landconv_25stand_20y))*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.18008984366153438},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A837","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},{"$f":"'Transport Data'!$A$28","v":"North America (tropical moist region)"},40,"Newly Established Intensively managed SRF Conifer, 25 years rotation:North America (tropical moist region):40",1,0,25,1.36,0.54,80.923000000000002,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 25 year rotation.",2.2170000000000001,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L838","v":2.2170000000000001},0.6,0.4,{"$f":"O838+P838","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_25stand_40y","v":15.794277108433736},{"$f":"(N838*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G838+Fert_applications*Landconv_25stand_40y*Loblolly_fertiliser_diesel*EF_diesel/G838+Loblolly_herbicide*EF_Pest*Landconv_25stand_40y/G838+(Loblolly_Phosphorus*Landconv_25stand_40y)*EF_Pfert)/Conv_te_kg","v":8.2468202373044697E-2},{"$f":"(N838*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G838+Fert_applications*Landconv_25stand_40y*Loblolly_fertiliser_diesel*En_F_diesel/G838+Loblolly_herbicide*En_F_Pest*Landconv_25stand_40y/G838+(Loblolly_Phosphorus*Landconv_25stand_40y)*En_F_Pfert)/Conv_MWh_KWh","v":0.26703797197772827},{"$f":"(N838*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G838+Fert_applications*Landconv_25stand_40y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G838+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_25stand_40y/G838+(Loblolly_Phosphorus*Landconv_25stand_40y+0*(1-Landconv_25stand_40y))*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.28414912599481562},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A838","v":"Newly Established Intensively managed SRF Conifer, 25 years rotation"},{"$f":"'Transport Data'!$A$28","v":"North America (tropical moist region)"},100,"Newly Established Intensively managed SRF Conifer, 25 years rotation:North America (tropical moist region):100",1,0,25,1.36,0.54,80.923000000000002,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 25 year rotation.",4.4349999999999996,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L839","v":4.4349999999999996},0.6,0.4,{"$f":"O839+P839","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_25stand_100y","v":20.101807228915664},{"$f":"(N839*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G839+Fert_applications*Landconv_25stand_100y*Loblolly_fertiliser_diesel*EF_diesel/G839+Loblolly_herbicide*EF_Pest*Landconv_25stand_100y/G839+(Loblolly_Phosphorus*Landconv_25stand_100y)*EF_Pfert)/Conv_te_kg","v":0.11059857298642052},{"$f":"(N839*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G839+Fert_applications*Landconv_25stand_100y*Loblolly_fertiliser_diesel*En_F_diesel/G839+Loblolly_herbicide*En_F_Pest*Landconv_25stand_100y/G839+(Loblolly_Phosphorus*Landconv_25stand_100y)*En_F_Pfert)/Conv_MWh_KWh","v":0.35724682322319878},{"$f":"(N839*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G839+Fert_applications*Landconv_25stand_100y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G839+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_25stand_100y/G839+(Loblolly_Phosphorus*Landconv_25stand_100y+0*(1-Landconv_25stand_100y))*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.38029341848921822},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!B21","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"'Transport Data'!A24","v":"North America (temperate dry region)"},0,"Newly Established Intensively managed SRF Conifer, 20 years rotation:North America (temperate dry region):0",1,0,20,null,null,0,null,"N/A",null,"N/A"]
[{"$f":"A840","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},"North America (temperate dry region)",20,{"$f":"A841&\":\"&B841&\":\"&C841","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation:North America (temperate dry region):20"},1,0,20,0.68,0.27,66.53,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 20 year rotation.",0,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L841","v":0},0,1,{"$f":"O841+P841","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_20stand_20y","v":11.486746987951808},{"$f":"(N841*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G841+Fert_applications*Landconv_20stand_20y*Loblolly_fertiliser_diesel*EF_diesel/G841+Loblolly_herbicide*EF_Pest*Landconv_20stand_20y/G841+(Loblolly_Phosphorus*Landconv_20stand_20y)*EF_Pfert)/Conv_te_kg","v":6.6791406323668867E-2},{"$f":"(N841*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G841+Fert_applications*Landconv_20stand_20y*Loblolly_fertiliser_diesel*En_F_diesel/G841+Loblolly_herbicide*En_F_Pest*Landconv_20stand_20y/G841+(Loblolly_Phosphorus*Landconv_20stand_20y)*En_F_Pfert)/Conv_MWh_KWh","v":0.21529366554347681},{"$f":"(N841*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G841+Fert_applications*Landconv_20stand_20y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G841+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_20stand_20y/G841+(Loblolly_Phosphorus*Landconv_20stand_20y)*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.22926642119396226},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
["Newly Established Intensively managed SRF Conifer, 20 years rotation","North America (temperate dry region)",40,"Newly Established Intensively managed SRF Conifer, 20 years rotation:North America (temperate dry region):40",1,0,20,0.68,0.27,66.53,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 20 year rotation.",2.87,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L842","v":2.87},0,1,{"$f":"O842+P842","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_20stand_40y","v":17.230120481927713},{"$f":"(N842*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G842+Fert_applications*Landconv_20stand_40y*Loblolly_fertiliser_diesel*EF_diesel/G842+Loblolly_herbicide*EF_Pest*Landconv_20stand_40y/G842+(Loblolly_Phosphorus*Landconv_20stand_40y)*EF_Pfert)/Conv_te_kg","v":0.1039479549655033},{"$f":"(N842*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G842+Fert_applications*Landconv_20stand_40y*Loblolly_fertiliser_diesel*En_F_diesel/G842+Loblolly_herbicide*En_F_Pest*Landconv_20stand_40y/G842+(Loblolly_Phosphorus*Landconv_20stand_40y)*En_F_Pfert)/Conv_MWh_KWh","v":0.33453194685890453},{"$f":"(N842*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G842+Fert_applications*Landconv_20stand_40y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G842+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_20stand_40y/G842+(Loblolly_Phosphorus*Landconv_20stand_40y)*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.35633725607832201},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
["Newly Established Intensively managed SRF Conifer, 20 years rotation","North America (temperate dry region)",100,"Newly Established Intensively managed SRF Conifer, 20 years rotation:North America (temperate dry region):100",1,0,20,0.68,0.27,66.53,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 20 year rotation.",4.5919999999999996,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L843","v":4.5919999999999996},0,1,{"$f":"O843+P843","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_20stand_100y","v":20.676144578313256},{"$f":"(N843*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G843+Fert_applications*Landconv_20stand_100y*Loblolly_fertiliser_diesel*EF_diesel/G843+Loblolly_herbicide*EF_Pest*Landconv_25stand_100y/G843+(Loblolly_Phosphorus*Landconv_20stand_100y)*EF_Pfert)/Conv_te_kg","v":0.12623636915060396},{"$f":"(N843*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G843+Fert_applications*Landconv_20stand_100y*Loblolly_fertiliser_diesel*En_F_diesel/G843+Loblolly_herbicide*En_F_Pest*Landconv_20stand_100y/G843+(Loblolly_Phosphorus*Landconv_20stand_100y)*En_F_Pfert)/Conv_MWh_KWh","v":0.40607491564816112},{"$f":"(N843*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G843+Fert_applications*Landconv_20stand_100y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G843+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_20stand_100y/G843+(Loblolly_Phosphorus*Landconv_20stand_100y)*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.4325797570089378},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A843","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"'Transport Data'!$A$28","v":"North America (tropical moist region)"},0,{"$f":"A844&\":\"&B844&\":\"&C844","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation:North America (tropical moist region):0"},1,0,20,null,null,0,null,"N/A",null,"N/A"]
[{"$f":"A844","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"'Transport Data'!$A$28","v":"North America (tropical moist region)"},20,{"$f":"A845&\":\"&B845&\":\"&C845","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation:North America (tropical moist region):20"},1,0,20,1.36,0.54,66.53,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 20 year rotation.",0,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L845","v":0},0,1,{"$f":"O845+P845","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_20stand_20y","v":11.486746987951808},{"$f":"(N845*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G845+Fert_applications*Landconv_20stand_20y*Loblolly_fertiliser_diesel*EF_diesel/G845+Loblolly_herbicide*EF_Pest*Landconv_20stand_20y/G845+(Loblolly_Phosphorus*Landconv_20stand_20y)*EF_Pfert)/Conv_te_kg","v":6.6791406323668867E-2},{"$f":"(N845*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G845+Fert_applications*Landconv_20stand_20y*Loblolly_fertiliser_diesel*En_F_diesel/G845+Loblolly_herbicide*En_F_Pest*Landconv_20stand_20y/G845+(Loblolly_Phosphorus*Landconv_20stand_20y)*En_F_Pfert)/Conv_MWh_KWh","v":0.21529366554347681},{"$f":"(N845*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G845+Fert_applications*Landconv_20stand_20y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G845+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_20stand_20y/G845+(Loblolly_Phosphorus*Landconv_20stand_20y)*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.22926642119396226},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A845","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"'Transport Data'!$A$28","v":"North America (tropical moist region)"},40,{"$f":"A846&\":\"&B846&\":\"&C846","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation:North America (tropical moist region):40"},1,0,20,1.36,0.54,66.53,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 20 year rotation.",2.87,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L846","v":2.87},0,1,{"$f":"O846+P846","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_20stand_40y","v":17.230120481927713},{"$f":"(N846*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G846+Fert_applications*Landconv_20stand_40y*Loblolly_fertiliser_diesel*EF_diesel/G846+Loblolly_herbicide*EF_Pest*Landconv_20stand_40y/G846+(Loblolly_Phosphorus*Landconv_20stand_40y)*EF_Pfert)/Conv_te_kg","v":0.1039479549655033},{"$f":"(N846*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G846+Fert_applications*Landconv_20stand_40y*Loblolly_fertiliser_diesel*En_F_diesel/G846+Loblolly_herbicide*En_F_Pest*Landconv_20stand_40y/G846+(Loblolly_Phosphorus*Landconv_20stand_40y)*En_F_Pfert)/Conv_MWh_KWh","v":0.33453194685890453},{"$f":"(N846*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G846+Fert_applications*Landconv_20stand_40y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G846+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_20stand_40y/G846+(Loblolly_Phosphorus*Landconv_20stand_40y)*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.35633725607832201},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"A846","v":"Newly Established Intensively managed SRF Conifer, 20 years rotation"},{"$f":"'Transport Data'!$A$28","v":"North America (tropical moist region)"},100,"Newly Established Intensively managed SRF Conifer, 20 years rotation:North America (tropical moist region):100",1,0,20,1.36,0.54,66.53,"Smith et al., 2006. Converted to intensively managed Loblolly Pine with a 20 year rotation.",4.5919999999999996,"Intensively managed plantation. Smith et al., 2006.",{"$f":"L847","v":4.5919999999999996},0,1,{"$f":"O847+P847","v":1},0,0,0,0,0,0,{"$f":"Loblolly_Nitrogen*Landconv_20stand_100y","v":20.676144578313256},{"$f":"(N847*Loblolly_harvest*EF_diesel+Loblolly_landprep*EF_diesel/G847+Fert_applications*Landconv_20stand_100y*Loblolly_fertiliser_diesel*EF_diesel/G847+Loblolly_herbicide*EF_Pest*Landconv_25stand_100y/G847+(Loblolly_Phosphorus*Landconv_20stand_100y)*EF_Pfert)/Conv_te_kg","v":0.12623636915060396},{"$f":"(N847*Loblolly_harvest*En_F_diesel+Loblolly_landprep*En_F_diesel/G847+Fert_applications*Landconv_20stand_100y*Loblolly_fertiliser_diesel*En_F_diesel/G847+Loblolly_herbicide*En_F_Pest*Landconv_20stand_100y/G847+(Loblolly_Phosphorus*Landconv_20stand_100y)*En_F_Pfert)/Conv_MWh_KWh","v":0.40607491564816112},{"$f":"(N847*Loblolly_harvest*En_F_diesel*Prim_En_Diesel+Loblolly_landprep*En_F_diesel*Prim_En_Diesel/G847+Fert_applications*Landconv_20stand_100y*Loblolly_fertiliser_diesel*En_F_diesel*Prim_En_Diesel/G847+Loblolly_herbicide*En_F_Pest*Prim_En_CropProtect*Landconv_20stand_100y/G847+(Loblolly_Phosphorus*Landconv_20stand_100y)*En_F_Pfert*Prim_En_Pfert)/Conv_MWh_KWh","v":0.4325797570089378},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_softwood/Conv_kwh_MJ","v":5.333333333333333}]
[{"$f":"Lists!B40","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"Lists!L110","v":"UK"},0,"LRF Broadleaf for wood products and bioenergy:UK:0",1,0,150,null,null,123.07,null,"N/A",null,"N/A"]
[{"$f":"Lists!B40","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"Lists!L110","v":"UK"},20,"LRF Broadleaf for wood products and bioenergy:UK:20",1,0,150,null,null,123.07,"Forest Research C-SORT model. Modelled as Oak, Yield Class 6, Management Table Thinning, 150 year rotation",2.7879999999999998,"Planted forest. Forest Research C-SORT model. ",{"$f":"L849","v":2.7879999999999998},0.56779999999999997,0.3412,{"$f":"O849+P849","v":0.90900000000000003},9.0999999999999998E-2,0,0,0,0,0,0,{"$f":"(L849*Q849/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G849)/Conv_te_kg","v":4.157142702156788E-2},{"$f":"(L849*Q849/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G849)/Conv_MWh_KWh","v":0.12825598249828288},{"$f":"(L849*Q849/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G849)/Conv_MWh_KWh","v":0.13700765922065752},{"$f":"L849*R849*LCA_brash*EF_diesel/Conv_te_kg","v":3.2862289823999999E-3},{"$f":"L849*R849*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.0128614524271844E-2},{"$f":"L849*R849*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.086800338454369E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A849","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"B849","v":"UK"},40,"LRF Broadleaf for wood products and bioenergy:UK:40",1,0,150,null,null,123.07,"Forest Research C-SORT model. Modelled as Oak, Yield Class 6, Management Table Thinning, 150 year rotation",2.7879999999999998,"Planted forest. Forest Research C-SORT model. ",{"$f":"L850","v":2.7879999999999998},0.56779999999999997,0.3412,{"$f":"O850+P850","v":0.90900000000000003},9.0999999999999998E-2,0,0,0,0,0,0,{"$f":"(L850*Q850/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G850)/Conv_te_kg","v":4.157142702156788E-2},{"$f":"(L850*Q850/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G850)/Conv_MWh_KWh","v":0.12825598249828288},{"$f":"(L850*Q850/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G850)/Conv_MWh_KWh","v":0.13700765922065752},{"$f":"L850*R850*LCA_brash*EF_diesel/Conv_te_kg","v":3.2862289823999999E-3},{"$f":"L850*R850*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.0128614524271844E-2},{"$f":"L850*R850*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.086800338454369E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A850","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"B849","v":"UK"},100,"LRF Broadleaf for wood products and bioenergy:UK:100",1,0,150,null,null,123.07,"Forest Research C-SORT model. Modelled as Oak, Yield Class 6, Management Table Thinning, 150 year rotation",2.7879999999999998,"Planted forest. Forest Research C-SORT model. ",{"$f":"L851","v":2.7879999999999998},0.56779999999999997,0.3412,{"$f":"O851+P851","v":0.90900000000000003},9.0999999999999998E-2,0,0,0,0,0,0,{"$f":"(L851*Q851/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G851)/Conv_te_kg","v":4.157142702156788E-2},{"$f":"(L851*Q851/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G851)/Conv_MWh_KWh","v":0.12825598249828288},{"$f":"(L851*Q851/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G851)/Conv_MWh_KWh","v":0.13700765922065752},{"$f":"L851*R851*LCA_brash*EF_diesel/Conv_te_kg","v":3.2862289823999999E-3},{"$f":"L851*R851*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.0128614524271844E-2},{"$f":"L851*R851*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.086800338454369E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A848","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"Lists!L111","v":"North-East USA"},0,"LRF Broadleaf for wood products and bioenergy:North-East USA:0",1,0,100,null,null,61.12,null,"N/A",null,"N/A"]
[{"$f":"A851","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"Lists!L111","v":"North-East USA"},20,"LRF Broadleaf for wood products and bioenergy:North-East USA:20",1,0,100,null,null,61.12,"Forest Research C-SORT model. Modelled as Sycamore, Yield Class 4, Management Table Thinning, 100 year rotation",1.5429999999999999,"Planted forest. Forest Research C-SORT model. ",{"$f":"L853","v":1.5429999999999999},0.3327,0.4763,{"$f":"O853+P853","v":0.80899999999999994},0.191,0,0,0,0,0,0,{"$f":"(L853*Q853/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G853)/Conv_te_kg","v":2.3627402019751435E-2},{"$f":"(L853*Q853/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G853)/Conv_MWh_KWh","v":7.3013536044849545E-2},{"$f":"(L853*Q853/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G853)/Conv_MWh_KWh","v":7.7427009176123565E-2},{"$f":"L853*R853*LCA_brash*EF_diesel/Conv_te_kg","v":3.8173585463999998E-3},{"$f":"L853*R853*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.1765629669902914E-2},{"$f":"L853*R853*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.2624520635805827E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A853","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"B853","v":"North-East USA"},40,"LRF Broadleaf for wood products and bioenergy:North-East USA:40",1,0,100,null,null,61.12,"Forest Research C-SORT model. Modelled as Sycamore, Yield Class 4, Management Table Thinning, 100 year rotation",1.5429999999999999,"Planted forest. Forest Research C-SORT model. ",{"$f":"L854","v":1.5429999999999999},0.3327,0.4763,{"$f":"O854+P854","v":0.80899999999999994},0.191,0,0,0,0,0,0,{"$f":"(L854*Q854/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G854)/Conv_te_kg","v":2.3627402019751435E-2},{"$f":"(L854*Q854/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G854)/Conv_MWh_KWh","v":7.3013536044849545E-2},{"$f":"(L854*Q854/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G854)/Conv_MWh_KWh","v":7.7427009176123565E-2},{"$f":"L854*R854*LCA_brash*EF_diesel/Conv_te_kg","v":3.8173585463999998E-3},{"$f":"L854*R854*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.1765629669902914E-2},{"$f":"L854*R854*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.2624520635805827E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A854","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"B853","v":"North-East USA"},100,"LRF Broadleaf for wood products and bioenergy:North-East USA:100",1,0,100,null,null,61.12,"Forest Research C-SORT model. Modelled as Sycamore, Yield Class 4, Management Table Thinning, 100 year rotation",1.5429999999999999,"Planted forest. Forest Research C-SORT model. ",{"$f":"L855","v":1.5429999999999999},0.3327,0.4763,{"$f":"O855+P855","v":0.80899999999999994},0.191,0,0,0,0,0,0,{"$f":"(L855*Q855/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G855)/Conv_te_kg","v":2.3627402019751435E-2},{"$f":"(L855*Q855/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G855)/Conv_MWh_KWh","v":7.3013536044849545E-2},{"$f":"(L855*Q855/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G855)/Conv_MWh_KWh","v":7.7427009176123565E-2},{"$f":"L855*R855*LCA_brash*EF_diesel/Conv_te_kg","v":3.8173585463999998E-3},{"$f":"L855*R855*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.1765629669902914E-2},{"$f":"L855*R855*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.2624520635805827E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A848","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"Lists!L112","v":"North USA"},0,"LRF Broadleaf for wood products and bioenergy:North USA:0",1,0,40,null,null,75.2,null,"N/A",null,"N/A"]
[{"$f":"A855","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"Lists!L112","v":"North USA"},20,"LRF Broadleaf for wood products and bioenergy:North USA:20",1,0,40,null,null,75.2,"Forest Research C-SORT model. Modelled as Poplar, Yield Class 14, No thinning, 40 year rotation",4.0990000000000002,"Planted forest. Forest Research C-SORT model. ",{"$f":"L857","v":4.0990000000000002},0.23300000000000001,0.61809999999999998,{"$f":"O857+P857","v":0.85109999999999997},0.1489,0,0,0,0,0,0,{"$f":"(L857*Q857/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G857)/Conv_te_kg","v":6.4649950960709371E-2},{"$f":"(L857*Q857/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G857)/Conv_MWh_KWh","v":0.1997366322567711},{"$f":"(L857*Q857/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G857)/Conv_MWh_KWh","v":0.21202611891151535},{"$f":"L857*R857*LCA_brash*EF_diesel/Conv_te_kg","v":7.9056262000800018E-3},{"$f":"L857*R857*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":2.4366238866019421E-2},{"$f":"L857*R857*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":2.6144974303238838E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A857","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"B857","v":"North USA"},40,"LRF Broadleaf for wood products and bioenergy:North USA:40",1,0,40,null,null,75.2,"Forest Research C-SORT model. Modelled as Poplar, Yield Class 14, No thinning, 40 year rotation",4.0990000000000002,"Planted forest. Forest Research C-SORT model. ",{"$f":"L858","v":4.0990000000000002},0.23300000000000001,0.61809999999999998,{"$f":"O858+P858","v":0.85109999999999997},0.1489,0,0,0,0,0,0,{"$f":"(L858*Q858/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G858)/Conv_te_kg","v":6.4649950960709371E-2},{"$f":"(L858*Q858/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G858)/Conv_MWh_KWh","v":0.1997366322567711},{"$f":"(L858*Q858/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G858)/Conv_MWh_KWh","v":0.21202611891151535},{"$f":"L858*R858*LCA_brash*EF_diesel/Conv_te_kg","v":7.9056262000800018E-3},{"$f":"L858*R858*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":2.4366238866019421E-2},{"$f":"L858*R858*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":2.6144974303238838E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A858","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"B857","v":"North USA"},100,"LRF Broadleaf for wood products and bioenergy:North USA:100",1,0,40,null,null,75.2,"Forest Research C-SORT model. Modelled as Poplar, Yield Class 14, No thinning, 40 year rotation",4.0990000000000002,"Planted forest. Forest Research C-SORT model. ",{"$f":"L859","v":4.0990000000000002},0.23300000000000001,0.61809999999999998,{"$f":"O859+P859","v":0.85109999999999997},0.1489,0,0,0,0,0,0,{"$f":"(L859*Q859/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G859)/Conv_te_kg","v":6.4649950960709371E-2},{"$f":"(L859*Q859/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G859)/Conv_MWh_KWh","v":0.1997366322567711},{"$f":"(L859*Q859/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G859)/Conv_MWh_KWh","v":0.21202611891151535},{"$f":"L859*R859*LCA_brash*EF_diesel/Conv_te_kg","v":7.9056262000800018E-3},{"$f":"L859*R859*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":2.4366238866019421E-2},{"$f":"L859*R859*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":2.6144974303238838E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A848","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"Lists!L113","v":"East Canada"},0,"LRF Broadleaf for wood products and bioenergy:East Canada:0",1,0,100,null,null,84.98,null,"N/A",null,"N/A"]
[{"$f":"A859","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"Lists!L113","v":"East Canada"},20,"LRF Broadleaf for wood products and bioenergy:East Canada:20",1,0,100,null,null,84.98,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, No thinning, 100 year rotation",1.591,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L861","v":1.591},1.06E-2,0.79090000000000005,{"$f":"O861+P861","v":0.8015000000000001},0.19850000000000001,0,0,0,0,0,0,{"$f":"(L861*Q861/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":1.9343798976166351E-2},{"$f":"(L861*Q861/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":5.9620277319051784E-2},{"$f":"(L861*Q861/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":6.3972557563342566E-2},{"$f":"L861*R861*LCA_brash*EF_diesel/Conv_te_kg","v":4.0906691028000011E-3},{"$f":"L861*R861*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.2608010796116505E-2},{"$f":"L861*R861*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.352839558423301E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A861","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"B861","v":"East Canada"},40,"LRF Broadleaf for wood products and bioenergy:East Canada:40",1,0,100,null,null,84.98,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, No thinning, 100 year rotation",1.591,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L862","v":1.591},1.06E-2,0.79090000000000005,{"$f":"O862+P862","v":0.8015000000000001},0.19850000000000001,0,0,0,0,0,0,{"$f":"(L862*Q862/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":1.9343798976166351E-2},{"$f":"(L862*Q862/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":5.9620277319051784E-2},{"$f":"(L862*Q862/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":6.3972557563342566E-2},{"$f":"L862*R862*LCA_brash*EF_diesel/Conv_te_kg","v":4.0906691028000011E-3},{"$f":"L862*R862*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.2608010796116505E-2},{"$f":"L862*R862*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.352839558423301E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A862","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"B861","v":"East Canada"},100,"LRF Broadleaf for wood products and bioenergy:East Canada:100",1,0,100,null,null,84.98,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, No thinning, 100 year rotation",1.591,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L863","v":1.591},1.06E-2,0.79090000000000005,{"$f":"O863+P863","v":0.8015000000000001},0.19850000000000001,0,0,0,0,0,0,{"$f":"(L863*Q863/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":1.9343798976166351E-2},{"$f":"(L863*Q863/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":5.9620277319051784E-2},{"$f":"(L863*Q863/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":6.3972557563342566E-2},{"$f":"L863*R863*LCA_brash*EF_diesel/Conv_te_kg","v":4.0906691028000011E-3},{"$f":"L863*R863*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.2608010796116505E-2},{"$f":"L863*R863*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.352839558423301E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A863","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"'Transport Data'!A9","v":"South USA"},0,"LRF Broadleaf for wood products and bioenergy:South USA:0",1,0,70,null,null,84.42,null,null,null,"N/A"]
[{"$f":"A864","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"B864","v":"South USA"},20,"LRF Broadleaf for wood products and bioenergy:South USA:20",1,0,70,null,null,84.42,"Smith et al., 2006. Modelled as naturally regenerated Oak-Hickory broadleaf forest, which is harvested every 70 years.",{"$f":"1.508/0.8","v":1.885},"Naturally regenerated forest. Smith et al., 2006.",{"$f":"L865","v":1.885},0.4,0.4,{"$f":"O865+P865","v":0.8},0.2,0,0,0,0,0,0,{"$f":"(L865*Q865/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.2875437323135756E-2},{"$f":"(L865*Q865/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.050527761792498E-2},{"$f":"(L865*Q865/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":7.565216288403348E-2},{"$f":"L865*R865*LCA_brash*EF_diesel/Conv_te_kg","v":4.8832056E-3},{"$f":"L865*R865*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.5050718446601942E-2},{"$f":"L865*R865*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.6149420893203884E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A865","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"B865","v":"South USA"},40,"LRF Broadleaf for wood products and bioenergy:South USA:40",1,0,70,null,null,84.42,"Smith et al., 2006. Modelled as naturally regenerated Oak-Hickory broadleaf forest, which is harvested every 70 years.",{"$f":"1.508/0.8","v":1.885},"Naturally regenerated forest. Smith et al., 2006.",{"$f":"L866","v":1.885},0.4,0.4,{"$f":"O866+P866","v":0.8},0.2,0,0,0,0,0,0,{"$f":"(L866*Q866/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.2875437323135756E-2},{"$f":"(L866*Q866/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.050527761792498E-2},{"$f":"(L866*Q866/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":7.565216288403348E-2},{"$f":"L866*R866*LCA_brash*EF_diesel/Conv_te_kg","v":4.8832056E-3},{"$f":"L866*R866*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.5050718446601942E-2},{"$f":"L866*R866*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.6149420893203884E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A866","v":"LRF Broadleaf for wood products and bioenergy"},{"$f":"B866","v":"South USA"},100,"LRF Broadleaf for wood products and bioenergy:South USA:100",1,0,70,null,null,84.42,"Smith et al., 2006. Modelled as naturally regenerated Oak-Hickory broadleaf forest, which is harvested every 70 years.",{"$f":"1.508/0.8","v":1.885},"Naturally regenerated forest. Smith et al., 2006.",{"$f":"L867","v":1.885},0.4,0.4,{"$f":"O867+P867","v":0.8},0.2,0,0,0,0,0,0,{"$f":"(L867*Q867/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.2875437323135756E-2},{"$f":"(L867*Q867/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.050527761792498E-2},{"$f":"(L867*Q867/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":7.565216288403348E-2},{"$f":"L867*R867*LCA_brash*EF_diesel/Conv_te_kg","v":4.8832056E-3},{"$f":"L867*R867*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.5050718446601942E-2},{"$f":"L867*R867*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.6149420893203884E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$380","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$381","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$382","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"Lists!B42","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"Lists!L111","v":"North-East USA"},0,"LRF Broadleaf for bioenergy, residues unused:North-East USA:0",1,0,100,null,null,61.12,null,"N/A",null,"N/A"]
[{"$f":"Lists!B42","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"Lists!L111","v":"North-East USA"},20,"LRF Broadleaf for bioenergy, residues unused:North-East USA:20",1,0,100,null,null,61.12,"Forest Research C-SORT model. Modelled as Sycamore, Yield Class 4, Management Table Thinning, 100 year rotation",1.248,"Planted forest. Forest Research C-SORT model. ",{"$f":"L869","v":1.248},0.4113,0.5887,{"$f":"O869+P869","v":1},0,0,0,0,0,0,0,{"$f":"(L869*Q869/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G869)/Conv_te_kg","v":2.362304840535373E-2},{"$f":"(L869*Q869/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G869)/Conv_MWh_KWh","v":7.300011760010397E-2},{"$f":"(L869*Q869/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G869)/Conv_MWh_KWh","v":7.7412611184911551E-2},{"$f":"L869*R869*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L869*R869*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L869*R869*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A869","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"B869","v":"North-East USA"},40,"LRF Broadleaf for bioenergy, residues unused:North-East USA:40",1,0,100,null,null,61.12,"Forest Research C-SORT model. Modelled as Sycamore, Yield Class 4, Management Table Thinning, 100 year rotation",1.248,"Planted forest. Forest Research C-SORT model. ",{"$f":"L870","v":1.248},0.4113,0.5887,{"$f":"O870+P870","v":1},0,0,0,0,0,0,0,{"$f":"(L870*Q870/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G870)/Conv_te_kg","v":2.362304840535373E-2},{"$f":"(L870*Q870/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G870)/Conv_MWh_KWh","v":7.300011760010397E-2},{"$f":"(L870*Q870/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G870)/Conv_MWh_KWh","v":7.7412611184911551E-2},{"$f":"L870*R870*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L870*R870*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L870*R870*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A870","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"B870","v":"North-East USA"},100,"LRF Broadleaf for bioenergy, residues unused:North-East USA:100",1,0,100,null,null,61.12,"Forest Research C-SORT model. Modelled as Sycamore, Yield Class 4, Management Table Thinning, 100 year rotation",1.248,"Planted forest. Forest Research C-SORT model. ",{"$f":"L871","v":1.248},0.4113,0.5887,{"$f":"O871+P871","v":1},0,0,0,0,0,0,0,{"$f":"(L871*Q871/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G871)/Conv_te_kg","v":2.362304840535373E-2},{"$f":"(L871*Q871/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G871)/Conv_MWh_KWh","v":7.300011760010397E-2},{"$f":"(L871*Q871/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G871)/Conv_MWh_KWh","v":7.7412611184911551E-2},{"$f":"L871*R871*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L871*R871*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L871*R871*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A871","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"Lists!L112","v":"North USA"},0,"LRF Broadleaf for bioenergy, residues unused:North USA:0",1,0,40,null,null,75.2,null,"N/A",null,"N/A"]
[{"$f":"A871","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"Lists!L112","v":"North USA"},20,"LRF Broadleaf for bioenergy, residues unused:North USA:20",1,0,40,null,null,75.2,"Forest Research C-SORT model. Modelled as Poplar, Yield Class 14, No thinning, 40 year rotation",3.488,"Planted forest. Forest Research C-SORT model. ",{"$f":"L873","v":3.488},0.27379999999999999,0.72619999999999996,{"$f":"O873+P873","v":1},0,0,0,0,0,0,0,{"$f":"(L873*Q873/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G873)/Conv_te_kg","v":6.4639955850860423E-2},{"$f":"(L873*Q873/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G873)/Conv_MWh_KWh","v":0.19970582593885167},{"$f":"(L873*Q873/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G873)/Conv_MWh_KWh","v":0.21199306373238783},{"$f":"L873*R873*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L873*R873*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L873*R873*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A873","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"B873","v":"North USA"},40,"LRF Broadleaf for bioenergy, residues unused:North USA:40",1,0,40,null,null,75.2,"Forest Research C-SORT model. Modelled as Poplar, Yield Class 14, No thinning, 40 year rotation",3.488,"Planted forest. Forest Research C-SORT model. ",{"$f":"L874","v":3.488},0.27379999999999999,0.72619999999999996,{"$f":"O874+P874","v":1},0,0,0,0,0,0,0,{"$f":"(L874*Q874/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G874)/Conv_te_kg","v":6.4639955850860423E-2},{"$f":"(L874*Q874/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G874)/Conv_MWh_KWh","v":0.19970582593885167},{"$f":"(L874*Q874/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G874)/Conv_MWh_KWh","v":0.21199306373238783},{"$f":"L874*R874*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L874*R874*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L874*R874*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A874","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"B874","v":"North USA"},100,"LRF Broadleaf for bioenergy, residues unused:North USA:100",1,0,40,null,null,75.2,"Forest Research C-SORT model. Modelled as Poplar, Yield Class 14, No thinning, 40 year rotation",3.488,"Planted forest. Forest Research C-SORT model. ",{"$f":"L875","v":3.488},0.27379999999999999,0.72619999999999996,{"$f":"O875+P875","v":1},0,0,0,0,0,0,0,{"$f":"(L875*Q875/density_HW*(LCA_En_Woodharvest*EF_diesel)+(LCA_En_landprep*EF_diesel+Seedling_No/1000*EF_Seedlings+Herbicide_quantity*EF_Pest)/G875)/Conv_te_kg","v":6.4639955850860423E-2},{"$f":"(L875*Q875/density_HW*(LCA_En_Woodharvest*En_F_diesel)+(LCA_En_landprep*En_F_diesel+Seedling_No/1000*En_Seedlings+Herbicide_quantity*En_F_Pest)/G875)/Conv_MWh_KWh","v":0.19970582593885167},{"$f":"(L875*Q875/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel)+(LCA_En_landprep*En_F_diesel*Prim_En_Diesel+Seedling_No/1000*En_Seedlings*Prim_En_Seedlings+Herbicide_quantity*En_F_Pest*Prim_En_CropProtect)/G875)/Conv_MWh_KWh","v":0.21199306373238783},{"$f":"L875*R875*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L875*R875*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L875*R875*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A875","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"Lists!L113","v":"East Canada"},0,{"$f":"A876&\":\"&B876&\":\"&C876","v":"LRF Broadleaf for bioenergy, residues unused:East Canada:0"},1,0,100,null,null,84.98,null,"N/A",null,"N/A"]
[{"$f":"A875","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"Lists!L113","v":"East Canada"},20,"LRF Broadleaf for bioenergy, residues unused:East Canada:20",1,0,100,null,null,84.98,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, No thinning, 100 year rotation",1.2749999999999999,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L877","v":1.2749999999999999},1.32E-2,0.98680000000000001,{"$f":"O877+P877","v":1},0,0,0,0,0,0,0,{"$f":"(L877*Q877/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":1.9340969885277247E-2},{"$f":"(L877*Q877/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":5.9611557667675293E-2},{"$f":"(L877*Q877/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":6.3963201377415582E-2},{"$f":"L877*R877*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L877*R877*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L877*R877*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A877","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"B877","v":"East Canada"},40,"LRF Broadleaf for bioenergy, residues unused:East Canada:40",1,0,100,null,null,84.98,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, No thinning, 100 year rotation",1.2749999999999999,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L878","v":1.2749999999999999},1.32E-2,0.98680000000000001,{"$f":"O878+P878","v":1},0,0,0,0,0,0,0,{"$f":"(L878*Q878/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":1.9340969885277247E-2},{"$f":"(L878*Q878/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":5.9611557667675293E-2},{"$f":"(L878*Q878/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":6.3963201377415582E-2},{"$f":"L878*R878*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L878*R878*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L878*R878*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A878","v":"LRF Broadleaf for bioenergy, residues unused"},{"$f":"B878","v":"East Canada"},100,"LRF Broadleaf for bioenergy, residues unused:East Canada:100",1,0,100,null,null,84.98,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, No thinning, 100 year rotation",1.2749999999999999,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L879","v":1.2749999999999999},1.32E-2,0.98680000000000001,{"$f":"O879+P879","v":1},0,0,0,0,0,0,0,{"$f":"(L879*Q879/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":1.9340969885277247E-2},{"$f":"(L879*Q879/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":5.9611557667675293E-2},{"$f":"(L879*Q879/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":6.3963201377415582E-2},{"$f":"L879*R879*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L879*R879*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L879*R879*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$374","v":"All the wood harvested over the rotation (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"Lists!B44","v":"LRF Broadleaf, rotation length reduced to 50y"},{"$f":"Lists!$L$113","v":"East Canada"},0,"LRF Broadleaf, rotation length reduced to 50y:East Canada:0",1,0,50,null,null,80.72,null,"N/A",null,"N/A"]
[{"$f":"A880","v":"LRF Broadleaf, rotation length reduced to 50y"},{"$f":"B880","v":"East Canada"},20,"LRF Broadleaf, rotation length reduced to 50y:East Canada:20",1,0,50,null,null,58.41,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, 50 year rotation. ",3.2349999999999999,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L881","v":3.2349999999999999},3.8E-3,0.79190000000000005,{"$f":"O881+P881","v":0.79570000000000007},0.20430000000000001,0,0,0,0,0,0,{"$f":"(L881/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":4.9072970650095596E-2},{"$f":"(L881/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.15124971690582711},{"$f":"(L881/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.16229094623995249},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$377","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A881","v":"LRF Broadleaf, rotation length reduced to 50y"},{"$f":"B881","v":"East Canada"},40,"LRF Broadleaf, rotation length reduced to 50y:East Canada:40",1,0,50,null,null,43.53,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, 50 year rotation. ",3.0680000000000001,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L882","v":3.0680000000000001},2.0999999999999999E-3,0.78290000000000004,{"$f":"O882+P882","v":0.78500000000000003},0.215,0,0,0,0,0,0,{"$f":"(L882/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":4.6539682829827927E-2},{"$f":"(L882/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.14344177170543357},{"$f":"(L882/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.15391302103993021},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$377","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A882","v":"LRF Broadleaf, rotation length reduced to 50y"},{"$f":"B881","v":"East Canada"},100,"LRF Broadleaf, rotation length reduced to 50y:East Canada:100",1,0,50,null,null,41.84,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, 50 year rotation. ",2.61,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L883","v":2.61},1E-3,0.73780000000000001,{"$f":"O883+P883","v":0.73880000000000001},0.26119999999999999,0,0,0,0,0,0,{"$f":"(L883/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.9592103059273423E-2},{"$f":"(L883/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":0.12202836510794707},{"$f":"(L883/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.13093643576082717},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$377","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"Lists!$B$46","v":"LRF Broadleaf, rotation length reduced to 80y"},{"$f":"Lists!$L$113","v":"East Canada"},0,"LRF Broadleaf, rotation length reduced to 80y:East Canada:0",1,0,80,null,null,80.72,null,"N/A",null,"N/A"]
[{"$f":"Lists!$B$46","v":"LRF Broadleaf, rotation length reduced to 80y"},{"$f":"B884","v":"East Canada"},20,"LRF Broadleaf, rotation length reduced to 80y:East Canada:20",1,0,80,null,null,75.02,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, 80 year rotation. ",2.0609999999999999,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L885","v":2.0609999999999999},6.7999999999999996E-3,0.79179999999999995,{"$f":"O885+P885","v":0.79859999999999998},0.2014,0,0,0,0,0,0,{"$f":"(L885/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.1264108967495222E-2},{"$f":"(L885/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":9.6360329688689239E-2},{"$f":"(L885/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.10339463375596354},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$377","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"Lists!$B$46","v":"LRF Broadleaf, rotation length reduced to 80y"},{"$f":"B885","v":"East Canada"},40,"LRF Broadleaf, rotation length reduced to 80y:East Canada:40",1,0,80,null,null,70.77,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, 80 year rotation. ",2.044,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L886","v":2.044},5.7000000000000002E-3,0.79149999999999998,{"$f":"O886+P886","v":0.79720000000000002},0.20280000000000001,0,0,0,0,0,0,{"$f":"(L886/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.1006229369024859E-2},{"$f":"(L886/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":9.5565508919786907E-2},{"$f":"(L886/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":0.10254179107093134},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$377","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"Lists!$B$46","v":"LRF Broadleaf, rotation length reduced to 80y"},{"$f":"B885","v":"East Canada"},100,"LRF Broadleaf, rotation length reduced to 80y:East Canada:100",1,0,80,null,null,68.78,"Forest Research C-SORT model. Modelled as Birch, Yield Class 4, 80 year rotation. ",1.992,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L887","v":1.992},3.2000000000000002E-3,0.7893,{"$f":"O887+P887","v":0.79249999999999998},0.20749999999999999,0,0,0,0,0,0,{"$f":"(L887/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":3.0217421185468454E-2},{"$f":"(L887/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":9.3134292450203285E-2},{"$f":"(L887/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":9.9933095799068117E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$377","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"Lists!$B$45","v":"LRF Broadleaf, rotation length reduced to 60y"},{"$f":"'Transport Data'!A9","v":"South USA"},0,"LRF Broadleaf, rotation length reduced to 60y:South USA:0",1,0,60,null,null,84.42,null,"N/A",null,"N/A"]
[{"$f":"Lists!$B$45","v":"LRF Broadleaf, rotation length reduced to 60y"},{"$f":"B888","v":"South USA"},20,"LRF Broadleaf, rotation length reduced to 60y:South USA:20",1,0,60,null,null,78.7,"Smith et al., 2006. Modelled as naturally regenerated Oak-Hickory broadleaf forest, with time between harvest reducing from every 70 years to every 60 years.",1.7135,"Naturally regenerated forest. Smith et al., 2006.",{"$f":"L889","v":1.7135},0.5,0.5,{"$f":"O889+P889","v":1},0,0,0,0,0,0,0,{"$f":"(L889/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5992746586998086E-2},{"$f":"(L889/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":8.011325808906794E-2},{"$f":"(L889/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.596152592956989E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$377","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"Lists!$B$45","v":"LRF Broadleaf, rotation length reduced to 60y"},{"$f":"B889","v":"South USA"},40,"LRF Broadleaf, rotation length reduced to 60y:South USA:40",1,0,60,null,null,75.2,"Smith et al., 2006. Modelled as naturally regenerated Oak-Hickory broadleaf forest, with time between harvest reducing from every 70 years to every 60 years.",1.6675,"Naturally regenerated forest. Smith et al., 2006.",{"$f":"L890","v":1.6675},0.5,0.5,{"$f":"O890+P890","v":1},0,0,0,0,0,0,0,{"$f":"(L890/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.5294954732313572E-2},{"$f":"(L890/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.7962566596743971E-2},{"$f":"(L890/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":8.3653833958306265E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$377","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"Lists!$B$45","v":"LRF Broadleaf, rotation length reduced to 60y"},{"$f":"B890","v":"South USA"},100,"LRF Broadleaf, rotation length reduced to 60y:South USA:100",1,0,60,null,null,74.02,"Smith et al., 2006. Modelled as naturally regenerated Oak-Hickory broadleaf forest, with time between harvest reducing from every 70 years to every 60 years.",1.5629,"Naturally regenerated forest. Smith et al., 2006.",{"$f":"L891","v":1.5629},0.5,0.5,{"$f":"O891+P891","v":1},0,0,0,0,0,0,0,{"$f":"(L891/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.3708236732313575E-2},{"$f":"(L891/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.3072081159850769E-2},{"$f":"(L891/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":7.8406343084519867E-2},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$377","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"Lists!B39","v":"LRF Broadleaf for wood products and bioenergy; rotation stays the same"},{"$f":"'Transport Data'!A9","v":"South USA"},0,{"$f":"A892&\":\"&B892&\":\"&C892","v":"LRF Broadleaf for wood products and bioenergy; rotation stays the same:South USA:0"},1,0,70,null,null,84.42,null,null,null,"N/A"]
[{"$f":"A892","v":"LRF Broadleaf for wood products and bioenergy; rotation stays the same"},"South USA",20,"LRF Broadleaf for wood products and bioenergy; rotation stays the same:South USA:20",1,0,70,null,null,84.42,"Smith et al., 2006. Modelled as naturally regenerated Oak-Hickory broadleaf forest, which is harvested every 70 years.",1.508,"Naturally regenerated forest. Smith et al., 2006.",{"$f":"L893","v":1.508},0.5,0.5,{"$f":"O893+P893","v":1},0,0,0,0,0,0,0,{"$f":"(L893*Q893/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.2875437323135756E-2},{"$f":"(L893*Q893/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.050527761792498E-2},{"$f":"(L893*Q893/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":7.565216288403348E-2},{"$f":"L893*R893*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L893*R893*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L893*R893*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["LRF Broadleaf for wood products and bioenergy; rotation stays the same","South USA",40,"LRF Broadleaf for wood products and bioenergy; rotation stays the same:South USA:40",1,0,70,null,null,84.42,"Smith et al., 2006. Modelled as naturally regenerated Oak-Hickory broadleaf forest, which is harvested every 70 years.",1.508,"Naturally regenerated forest. Smith et al., 2006.",{"$f":"L894","v":1.508},0.5,0.5,{"$f":"O894+P894","v":1},0,0,0,0,0,0,0,{"$f":"(L894*Q894/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.2875437323135756E-2},{"$f":"(L894*Q894/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.050527761792498E-2},{"$f":"(L894*Q894/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":7.565216288403348E-2},{"$f":"L894*R894*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L894*R894*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L894*R894*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["LRF Broadleaf for wood products and bioenergy; rotation stays the same","South USA",100,"LRF Broadleaf for wood products and bioenergy; rotation stays the same:South USA:100",1,0,70,null,null,84.42,"Smith et al., 2006. Modelled as naturally regenerated Oak-Hickory broadleaf forest, which is harvested every 70 years.",1.508,"Naturally regenerated forest. Smith et al., 2006.",{"$f":"L895","v":1.508},0.5,0.5,{"$f":"O895+P895","v":1},0,0,0,0,0,0,0,{"$f":"(L895*Q895/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.2875437323135756E-2},{"$f":"(L895*Q895/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.050527761792498E-2},{"$f":"(L895*Q895/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":7.565216288403348E-2},{"$f":"L895*R895*LCA_brash*EF_diesel/Conv_te_kg","v":0},{"$f":"L895*R895*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":0},{"$f":"L895*R895*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":0},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"Lists!B48","v":"Newly Managed LRF Broadleaf"},{"$f":"'Transport Data'!A8","v":"UK"},0,"Newly Managed LRF Broadleaf:UK:0",1,0,150,null,null,100,null,"N/A",null,"N/A"]
[{"$f":"Lists!B48","v":"Newly Managed LRF Broadleaf"},{"$f":"'Transport Data'!A8","v":"UK"},20,"Newly Managed LRF Broadleaf:UK:20",1,0,150,null,null,86.2,"Forest Research Carbon Impacts Report. C-SORT model. Modelled as mixed broadleaf trees",2.2999999999999998,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L897","v":2.2999999999999998},0,0.68,{"$f":"O897+P897","v":0.68},0.32,0,0,0,0,0,0,{"$f":"(L897*Q897/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":2.3724923059273425E-2},{"$f":"(L897*Q897/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":7.3123510739015032E-2},{"$f":"(L897*Q897/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":7.8461527022963121E-2},{"$f":"L897*R897*LCA_brash*EF_diesel/Conv_te_kg","v":9.5332607999999985E-3},{"$f":"L897*R897*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":2.9382834951456313E-2},{"$f":"L897*R897*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":3.1527781902912624E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$378","v":"All additional wood created by new management (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A897","v":"Newly Managed LRF Broadleaf"},{"$f":"B897","v":"UK"},40,"Newly Managed LRF Broadleaf:UK:40",1,0,150,null,null,75.239999999999995,"Forest Research Carbon Impacts Report. C-SORT model. Modelled as mixed broadleaf trees",1.6,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L898","v":1.6},0,0.68,{"$f":"O898+P898","v":0.68},0.32,0,0,0,0,0,0,{"$f":"(L898*Q898/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":1.6504294302103255E-2},{"$f":"(L898*Q898/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":5.0868529209749595E-2},{"$f":"(L898*Q898/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":5.458193184206131E-2},{"$f":"L898*R898*LCA_brash*EF_diesel/Conv_te_kg","v":6.6318336000000004E-3},{"$f":"L898*R898*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":2.0440233009708743E-2},{"$f":"L898*R898*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":2.1932370019417481E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$378","v":"All additional wood created by new management (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A898","v":"Newly Managed LRF Broadleaf"},{"$f":"B898","v":"UK"},100,"Newly Managed LRF Broadleaf:UK:100",1,0,150,null,null,46.27,"Forest Research Carbon Impacts Report. C-SORT model. Modelled as mixed broadleaf trees",1.1000000000000001,"Naturally regenerated forest. Forest Research C-SORT model. ",{"$f":"L899","v":1.1000000000000001},0.05,0.64,{"$f":"O899+P899","v":0.69000000000000006},0.31,0,0,0,0,0,0,{"$f":"(L899*Q899/density_HW*(LCA_En_Woodharvest*EF_diesel))/Conv_te_kg","v":1.1513565602294457E-2},{"$f":"(L899*Q899/density_HW*(LCA_En_Woodharvest*En_F_diesel))/Conv_MWh_KWh","v":3.5486409623345538E-2},{"$f":"(L899*Q899/density_HW*(LCA_En_Woodharvest*En_F_diesel*Prim_En_Diesel))/Conv_MWh_KWh","v":3.8076917525849761E-2},{"$f":"L899*R899*LCA_brash*EF_diesel/Conv_te_kg","v":4.4169048000000004E-3},{"$f":"L899*R899*LCA_brash*En_F_diesel/Conv_MWh_KWh","v":1.3613514563106799E-2},{"$f":"L899*R899*LCA_brash*En_F_diesel*Prim_En_Diesel/Conv_MWh_KWh","v":1.4607301126213595E-2},"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$134/Conv_te_kg","v":1.1439999999999998E-3},{"$f":"'Reference Data'!$E$134/Conv_te_kg","v":1.5839999999999999E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$158","v":-3.613504E-3},{"$f":"'Reference Data'!$E$158","v":1.806752E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$378","v":"All additional wood created by new management (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"Lists!B72","v":"SRC Willow Plantation"},{"$f":"'Transport Data'!A8","v":"UK"},0,"SRC Willow Plantation:UK:0",1,0,3,null,null,null,null,"N/A",null,"N/A"]
[{"$f":"A900","v":"SRC Willow Plantation"},{"$f":"B900","v":"UK"},20,"SRC Willow Plantation:UK:20",1,0,3,0.68,0.27,{"$f":"L901*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":11.549250000000001},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10.85,"ADAS, 2011. Typical UK Yield of 10-11.7 odt/ha/y, therefore use average of 10.85 odt/ha/y. \nand other sectors: energy crops",{"$f":"L901*Yield_factor_20y_SRC","v":10.307499999999999},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N901)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.169715179125},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N901)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.61771949838187712},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N901)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.64997110509708755},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"A900","v":"SRC Willow Plantation"},{"$f":"B900","v":"UK"},40,"SRC Willow Plantation:UK:40",1,0,3,0.68,0.27,{"$f":"L902*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":11.549250000000001},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10.85,"ADAS, 2011. Typical UK Yield of 10-11.7 odt/ha/y, therefore use average of 10.85 odt/ha/y. \nand other sectors: energy crops",{"$f":"L902*Yield_factor_40y_SRC","v":10.578749999999999},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N902)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.17243920724999998},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N902)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.62611533171521039},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N902)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.65897983426375406},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"A900","v":"SRC Willow Plantation"},{"$f":"B900","v":"UK"},100,"SRC Willow Plantation:UK:100",1,0,3,0.68,0.27,{"$f":"L903*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":11.549250000000001},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10.85,"ADAS, 2011. Typical UK Yield of 10-11.7 odt/ha/y, therefore use average of 10.85 odt/ha/y. \nand other sectors: energy crops",{"$f":"L903*Yield_factor_100y_SRC","v":10.7415},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N903)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.17407362412499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N903)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.63115283171521042},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N903)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.66438507176375405},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"A901","v":"SRC Willow Plantation"},{"$f":"'Transport Data'!A9","v":"South USA"},0,"SRC Willow Plantation:South USA:0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B904","v":"South USA"},20,"SRC Willow Plantation:South USA:20",1,0,3,0.68,0.27,{"$f":"L905*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L905*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N905)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N905)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N905)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B904","v":"South USA"},40,"SRC Willow Plantation:South USA:40",1,0,3,0.68,0.27,{"$f":"L906*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L906*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N906)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N906)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N906)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B904","v":"South USA"},100,"SRC Willow Plantation:South USA:100",1,0,3,0.68,0.27,{"$f":"L907*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L907*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N907)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N907)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N907)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!A10","v":"North West USA"},0,"SRC Willow Plantation:North West USA:0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B908","v":"North West USA"},20,"SRC Willow Plantation:North West USA:20",1,0,3,0.68,0.27,{"$f":"L909*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L909*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N909)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N909)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N909)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B908","v":"North West USA"},40,"SRC Willow Plantation:North West USA:40",1,0,3,0.68,0.27,{"$f":"L910*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L910*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N910)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N910)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N910)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B908","v":"North West USA"},100,"SRC Willow Plantation:North West USA:100",1,0,3,0.68,0.27,{"$f":"L911*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L911*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N911)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N911)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N911)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!A11","v":"North-East USA"},0,"SRC Willow Plantation:North-East USA:0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B912","v":"North-East USA"},20,"SRC Willow Plantation:North-East USA:20",1,0,3,0.68,0.27,{"$f":"L913*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L913*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N913)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N913)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N913)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B912","v":"North-East USA"},40,"SRC Willow Plantation:North-East USA:40",1,0,3,0.68,0.27,{"$f":"L914*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L914*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N914)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N914)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N914)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B912","v":"North-East USA"},100,"SRC Willow Plantation:North-East USA:100",1,0,3,0.68,0.27,{"$f":"L915*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L915*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N915)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N915)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N915)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!A12","v":"North USA"},0,"SRC Willow Plantation:North USA:0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B916","v":"North USA"},20,"SRC Willow Plantation:North USA:20",1,0,3,0.68,0.27,{"$f":"L917*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L917*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N917)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N917)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N917)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B916","v":"North USA"},40,"SRC Willow Plantation:North USA:40",1,0,3,0.68,0.27,{"$f":"L918*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L918*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N918)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N918)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N918)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B916","v":"North USA"},100,"SRC Willow Plantation:North USA:100",1,0,3,0.68,0.27,{"$f":"L919*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L919*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N919)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N919)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N919)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!A13","v":"Pacific Canada"},0,"SRC Willow Plantation:Pacific Canada:0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B920","v":"Pacific Canada"},20,"SRC Willow Plantation:Pacific Canada:20",1,0,3,0.68,0.27,{"$f":"L921*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L921*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N921)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N921)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N921)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B920","v":"Pacific Canada"},40,"SRC Willow Plantation:Pacific Canada:40",1,0,3,0.68,0.27,{"$f":"L922*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L922*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N922)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N922)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N922)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B920","v":"Pacific Canada"},100,"SRC Willow Plantation:Pacific Canada:100",1,0,3,0.68,0.27,{"$f":"L923*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L923*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N923)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N923)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N923)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!A14","v":"Interior Canada"},0,"SRC Willow Plantation:Interior Canada:0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B924","v":"Interior Canada"},20,"SRC Willow Plantation:Interior Canada:20",1,0,3,0.16,0.08,{"$f":"L925*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L925*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N925)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N925)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N925)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B924","v":"Interior Canada"},40,"SRC Willow Plantation:Interior Canada:40",1,0,3,0.16,0.08,{"$f":"L926*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L926*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N926)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N926)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N926)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B924","v":"Interior Canada"},100,"SRC Willow Plantation:Interior Canada:100",1,0,3,0.16,0.08,{"$f":"L927*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L927*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N927)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N927)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N927)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!A15","v":"Boreal North Canada"},0,"SRC Willow Plantation:Boreal North Canada:0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B928","v":"Boreal North Canada"},20,"SRC Willow Plantation:Boreal North Canada:20",1,0,3,0.16,0.08,{"$f":"L929*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L929*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N929)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N929)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N929)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B928","v":"Boreal North Canada"},40,"SRC Willow Plantation:Boreal North Canada:40",1,0,3,0.16,0.08,{"$f":"L930*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L930*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N930)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N930)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N930)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B928","v":"Boreal North Canada"},100,"SRC Willow Plantation:Boreal North Canada:100",1,0,3,0.16,0.08,{"$f":"L931*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L931*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N931)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N931)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N931)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!A16","v":"East Canada"},0,"SRC Willow Plantation:East Canada:0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B932","v":"East Canada"},20,"SRC Willow Plantation:East Canada:20",1,0,3,0.68,0.27,{"$f":"L933*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L933*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N933)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N933)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N933)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B932","v":"East Canada"},40,"SRC Willow Plantation:East Canada:40",1,0,3,0.68,0.27,{"$f":"L934*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L934*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N934)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N934)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N934)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B932","v":"East Canada"},100,"SRC Willow Plantation:East Canada:100",1,0,3,0.68,0.27,{"$f":"L935*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L935*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N935)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N935)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N935)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$23","v":"North America (boreal region)"},0,"SRC Willow Plantation:North America (boreal region):0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B936","v":"North America (boreal region)"},20,"SRC Willow Plantation:North America (boreal region):20",1,0,3,0.16,0.08,{"$f":"L937*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L937*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N937)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N937)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N937)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B936","v":"North America (boreal region)"},40,"SRC Willow Plantation:North America (boreal region):40",1,0,3,0.16,0.08,{"$f":"L938*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L938*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N938)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N938)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N938)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B936","v":"North America (boreal region)"},100,"SRC Willow Plantation:North America (boreal region):100",1,0,3,0.16,0.08,{"$f":"L939*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L939*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N939)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N939)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N939)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$24","v":"North America (temperate dry region)"},0,"SRC Willow Plantation:North America (temperate dry region):0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B940","v":"North America (temperate dry region)"},20,"SRC Willow Plantation:North America (temperate dry region):20",1,0,3,0.68,0.27,{"$f":"L941*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L941*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N941)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N941)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N941)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B941","v":"North America (temperate dry region)"},40,"SRC Willow Plantation:North America (temperate dry region):40",1,0,3,0.68,0.27,{"$f":"L942*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L942*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N942)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N942)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N942)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B942","v":"North America (temperate dry region)"},100,"SRC Willow Plantation:North America (temperate dry region):100",1,0,3,0.68,0.27,{"$f":"L943*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L943*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N943)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N943)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N943)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$25","v":"North America (temperate moist region)"},0,{"$f":"A944&\":\"&B944&\":\"&C944","v":"SRC Willow Plantation:North America (temperate moist region):0"},1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B944","v":"North America (temperate moist region)"},20,"SRC Willow Plantation:North America (temperate moist region):20",1,0,3,0.68,0.27,{"$f":"L945*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L945*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N945)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N945)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N945)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B945","v":"North America (temperate moist region)"},40,"SRC Willow Plantation:North America (temperate moist region):40",1,0,3,0.68,0.27,{"$f":"L946*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L946*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N946)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N946)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N946)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B946","v":"North America (temperate moist region)"},100,"SRC Willow Plantation:North America (temperate moist region):100",1,0,3,0.68,0.27,{"$f":"L947*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L947*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N947)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N947)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N947)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"A947","v":"SRC Willow Plantation"},{"$f":"'Transport Data'!$A$26","v":"North America (tropical montane region)"},0,"SRC Willow Plantation:North America (tropical montane region):0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$26","v":"North America (tropical montane region)"},20,"SRC Willow Plantation:North America (tropical montane region):20",1,0,3,1.36,0.54,{"$f":"L949*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L949*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N949)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N949)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N949)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$26","v":"North America (tropical montane region)"},40,"SRC Willow Plantation:North America (tropical montane region):40",1,0,3,1.36,0.54,{"$f":"L950*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L950*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N950)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N950)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N950)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$26","v":"North America (tropical montane region)"},100,"SRC Willow Plantation:North America (tropical montane region):100",1,0,3,1.36,0.54,{"$f":"L951*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L951*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N951)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N951)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N951)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$28","v":"North America (tropical moist region)"},0,"SRC Willow Plantation:North America (tropical moist region):0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$28","v":"North America (tropical moist region)"},20,"SRC Willow Plantation:North America (tropical moist region):20",1,0,3,1.36,0.54,{"$f":"L953*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L953*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N953)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N953)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N953)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$28","v":"North America (tropical moist region)"},40,"SRC Willow Plantation:North America (tropical moist region):40",1,0,3,1.36,0.54,{"$f":"L954*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L954*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N954)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N954)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N954)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$28","v":"North America (tropical moist region)"},100,"SRC Willow Plantation:North America (tropical moist region):100",1,0,3,1.36,0.54,{"$f":"L955*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L955*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N955)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N955)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N955)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$49","v":"Europe (boreal region)"},0,"SRC Willow Plantation:Europe (boreal region):0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
[{"$f":"A946","v":"SRC Willow Plantation"},{"$f":"B956","v":"Europe (boreal region)"},20,"SRC Willow Plantation:Europe (boreal region):20",1,0,3,0.16,0.08,{"$f":"L957*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L957*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N957)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N957)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N957)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"A947","v":"SRC Willow Plantation"},{"$f":"B957","v":"Europe (boreal region)"},40,"SRC Willow Plantation:Europe (boreal region):40",1,0,3,0.16,0.08,{"$f":"L958*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L958*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N958)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N958)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N958)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"A956","v":"SRC Willow Plantation"},{"$f":"B958","v":"Europe (boreal region)"},100,"SRC Willow Plantation:Europe (boreal region):100",1,0,3,0.16,0.08,{"$f":"L959*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L959*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N959)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N959)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N959)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$50","v":"Europe (temperate dry region)"},0,"SRC Willow Plantation:Europe (temperate dry region):0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B960","v":"Europe (temperate dry region)"},20,"SRC Willow Plantation:Europe (temperate dry region):20",1,0,3,0.68,0.27,{"$f":"L961*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L961*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N961)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N961)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N961)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B961","v":"Europe (temperate dry region)"},40,"SRC Willow Plantation:Europe (temperate dry region):40",1,0,3,0.68,0.27,{"$f":"L962*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L962*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N962)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N962)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N962)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B962","v":"Europe (temperate dry region)"},100,"SRC Willow Plantation:Europe (temperate dry region):100",1,0,3,0.68,0.27,{"$f":"L963*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L963*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N963)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N963)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N963)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$51","v":"Europe (temperate moist region)"},0,"SRC Willow Plantation:Europe (temperate moist region):0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B964","v":"Europe (temperate moist region)"},20,"SRC Willow Plantation:Europe (temperate moist region):20",1,0,3,0.68,0.27,{"$f":"L965*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L965*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N965)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N965)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N965)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B965","v":"Europe (temperate moist region)"},40,"SRC Willow Plantation:Europe (temperate moist region):40",1,0,3,0.68,0.27,{"$f":"L966*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L966*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N966)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N966)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N966)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B966","v":"Europe (temperate moist region)"},100,"SRC Willow Plantation:Europe (temperate moist region):100",1,0,3,0.68,0.27,{"$f":"L967*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L967*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N967)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N967)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N967)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$53","v":"New Zealand (temperate dry region)"},0,"SRC Willow Plantation:New Zealand (temperate dry region):0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B968","v":"New Zealand (temperate dry region)"},20,"SRC Willow Plantation:New Zealand (temperate dry region):20",1,0,3,0.68,0.27,{"$f":"L969*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L969*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N969)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N969)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N969)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B969","v":"New Zealand (temperate dry region)"},40,"SRC Willow Plantation:New Zealand (temperate dry region):40",1,0,3,0.68,0.27,{"$f":"L970*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L970*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N970)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N970)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N970)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B970","v":"New Zealand (temperate dry region)"},100,"SRC Willow Plantation:New Zealand (temperate dry region):100",1,0,3,0.68,0.27,{"$f":"L971*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L971*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N971)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N971)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N971)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$54","v":"New Zealand (temperate moist region)"},0,"SRC Willow Plantation:New Zealand (temperate moist region):0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B972","v":"New Zealand (temperate moist region)"},20,"SRC Willow Plantation:New Zealand (temperate moist region):20",1,0,3,0.68,0.27,{"$f":"L973*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L973*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N973)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N973)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N973)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"A973","v":"SRC Willow Plantation"},{"$f":"B973","v":"New Zealand (temperate moist region)"},40,"SRC Willow Plantation:New Zealand (temperate moist region):40",1,0,3,0.68,0.27,{"$f":"L974*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L974*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N974)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N974)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N974)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B974","v":"New Zealand (temperate moist region)"},100,"SRC Willow Plantation:New Zealand (temperate moist region):100",1,0,3,0.68,0.27,{"$f":"L975*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L975*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N975)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N975)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N975)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$31","v":"South America (temperate dry region)"},0,"SRC Willow Plantation:South America (temperate dry region):0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B976","v":"South America (temperate dry region)"},20,"SRC Willow Plantation:South America (temperate dry region):20",1,0,3,0.68,0.27,{"$f":"L977*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L977*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N977)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N977)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N977)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B977","v":"South America (temperate dry region)"},40,"SRC Willow Plantation:South America (temperate dry region):40",1,0,3,0.68,0.27,{"$f":"L978*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L978*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N978)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N978)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N978)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B978","v":"South America (temperate dry region)"},100,"SRC Willow Plantation:South America (temperate dry region):100",1,0,3,0.68,0.27,{"$f":"L979*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L979*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N979)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N979)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N979)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$32","v":"South America (temperate moist region)"},0,"SRC Willow Plantation:South America (temperate moist region):0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B980","v":"South America (temperate moist region)"},20,"SRC Willow Plantation:South America (temperate moist region):20",1,0,3,0.68,0.27,{"$f":"L981*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L981*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N981)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N981)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N981)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B981","v":"South America (temperate moist region)"},40,"SRC Willow Plantation:South America (temperate moist region):40",1,0,3,0.68,0.27,{"$f":"L982*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L982*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N982)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N982)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N982)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B982","v":"South America (temperate moist region)"},100,"SRC Willow Plantation:South America (temperate moist region):100",1,0,3,0.68,0.27,{"$f":"L983*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L983*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N983)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N983)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N983)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"'Transport Data'!$A$38","v":"Asia Continental (boreal region)"},0,"SRC Willow Plantation:Asia Continental (boreal region):0",1,0,3,null,null,null,null,"N/A",null,"N/A",0,0,0,0,1,0,0,0,0]
["SRC Willow Plantation",{"$f":"B984","v":"Asia Continental (boreal region)"},20,"SRC Willow Plantation:Asia Continental (boreal region):20",1,0,3,0.16,0.08,{"$f":"L985*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L985*Yield_factor_20y_SRC","v":9.5},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N985)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16160586037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N985)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.59272545076282945},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N985)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.6231524920018493},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B984","v":"Asia Continental (boreal region)"},40,"SRC Willow Plantation:Asia Continental (boreal region):40",1,0,3,0.16,0.08,{"$f":"L986*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L986*Yield_factor_40y_SRC","v":9.75},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N986)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16411648537499995},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N986)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60046354600092466},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N986)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63145546819232545},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
["SRC Willow Plantation",{"$f":"B984","v":"Asia Continental (boreal region)"},100,"SRC Willow Plantation:Asia Continental (boreal region):100",1,0,3,0.16,0.08,{"$f":"L987*C_biomass*Rotation_SRC*Average_Cstock_time_SRC+C_roots_SRC","v":10.95},"Accounts for root C stock (average value for mature SRC coppice system from Zan et al., 2001) and average above ground biomass (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L987*Yield_factor_100y_SRC","v":9.9},0,0,0,0,1,0,0,0,0,8,{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N987)*EF_diesel+Cuttings_SRC*EF_SRC_cutting+Setts_SRC*EF_SRC_sett+Pesticides_SRC*EF_Pest)/Conv_te_kg","v":0.16562286037499999},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N987)*En_F_diesel+Cuttings_SRC*En_SRC_cutting+Setts_SRC*En_SRC_sett+Pesticides_SRC*En_F_Pest)/Conv_MWh_KWh","v":0.60510640314378183},{"$f":"((Diesel_SRC+Diesel_SRC_harvest*'Land Data'!N987)*En_F_diesel*Prim_En_Diesel+Cuttings_SRC*En_SRC_cutting*Prim_En_SRC_cutting+Setts_SRC*En_SRC_sett*Prim_En_SRC_sett+Pesticides_SRC*En_F_Pest*Prim_En_CropProtect)/Conv_MWh_KWh","v":0.63643725390661121},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$386","v":"SRC Chips (50 wt% moisture)"},null,null,null,{"$f":"LHV_SRC/Conv_kwh_MJ","v":5.1111111111111107}]
[{"$f":"Lists!B76","v":"Miscanthus Plantation"},{"$f":"'Transport Data'!A8","v":"UK"},0,"Miscanthus Plantation:UK:0",1,0,1,null,null,null,null,"N/A",null,"N/A",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,"See constants tab for assumptions of energy requirements"]
[{"$f":"A988","v":"Miscanthus Plantation"},{"$f":"B988","v":"UK"},20,"Miscanthus Plantation:UK:20",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",11.5,"ADAS, 2011. Typical UK Yield of 11-12 odt/ha/y, therefore use average of 11.5 odt/ha/y. ",{"$f":"L989*Yield_factor_20y_Miscanthus","v":11.5},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N989)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.52288465437499987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N989)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.9511233333333335},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N989)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":2.0471709541666665},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
[{"$f":"A989","v":"Miscanthus Plantation"},{"$f":"B988","v":"UK"},40,"Miscanthus Plantation:UK:40",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",11.5,"ADAS, 2011. Typical UK Yield of 11-12 odt/ha/y, therefore use average of 11.5 odt/ha/y. ",{"$f":"L990*Yield_factor_40y_Miscanthus","v":11.5},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N990)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.52288465437499987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N990)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.9511233333333335},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N990)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":2.0471709541666665},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B988","v":"UK"},100,"Miscanthus Plantation:UK:100",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",11.5,"ADAS, 2011. Typical UK Yield of 11-12 odt/ha/y, therefore use average of 11.5 odt/ha/y. ",{"$f":"L991*Yield_factor_100y_Miscanthus","v":11.5},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N991)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.52288465437499987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N991)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.9511233333333335},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N991)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":2.0471709541666665},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!A9","v":"South USA"},0,"Miscanthus Plantation:South USA:0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B992","v":"South USA"},20,"Miscanthus Plantation:South USA:20",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L993*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N993)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N993)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N993)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B992","v":"South USA"},40,"Miscanthus Plantation:South USA:40",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L994*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N994)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N994)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N994)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B992","v":"South USA"},100,"Miscanthus Plantation:South USA:100",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L995*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N995)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N995)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N995)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!A10","v":"North West USA"},0,"Miscanthus Plantation:North West USA:0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B996","v":"North West USA"},20,"Miscanthus Plantation:North West USA:20",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L997*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N997)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N997)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N997)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B996","v":"North West USA"},40,"Miscanthus Plantation:North West USA:40",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L998*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N998)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N998)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N998)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B996","v":"North West USA"},100,"Miscanthus Plantation:North West USA:100",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L999*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N999)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N999)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N999)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!A11","v":"North-East USA"},0,"Miscanthus Plantation:North-East USA:0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1000","v":"North-East USA"},20,"Miscanthus Plantation:North-East USA:20",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1001*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1001)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1001)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1001)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1000","v":"North-East USA"},40,"Miscanthus Plantation:North-East USA:40",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1002*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1002)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1002)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1002)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1000","v":"North-East USA"},100,"Miscanthus Plantation:North-East USA:100",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1003*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1003)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1003)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1003)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!A12","v":"North USA"},0,"Miscanthus Plantation:North USA:0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1004","v":"North USA"},20,"Miscanthus Plantation:North USA:20",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1005*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1005)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1005)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1005)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1004","v":"North USA"},40,"Miscanthus Plantation:North USA:40",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1006*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1006)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1006)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1006)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1004","v":"North USA"},100,"Miscanthus Plantation:North USA:100",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1007*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1007)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1007)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1007)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!A13","v":"Pacific Canada"},0,{"$f":"A1008&\":\"&B1008&\":\"&C1008","v":"Miscanthus Plantation:Pacific Canada:0"},1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1008","v":"Pacific Canada"},20,"Miscanthus Plantation:Pacific Canada:20",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1009*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1009)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1009)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1009)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1008","v":"Pacific Canada"},40,"Miscanthus Plantation:Pacific Canada:40",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1010*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1010)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1010)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1010)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1008","v":"Pacific Canada"},100,"Miscanthus Plantation:Pacific Canada:100",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1011*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1011)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1011)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1011)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!A14","v":"Interior Canada"},0,"Miscanthus Plantation:Interior Canada:0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1012","v":"Interior Canada"},20,"Miscanthus Plantation:Interior Canada:20",1,0,1,0.16,0.08,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1013*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1013)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1013)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1013)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1012","v":"Interior Canada"},40,"Miscanthus Plantation:Interior Canada:40",1,0,1,0.16,0.08,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1014*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1014)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1014)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1014)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1012","v":"Interior Canada"},100,"Miscanthus Plantation:Interior Canada:100",1,0,1,0.16,0.08,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1015*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1015)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1015)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1015)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!A15","v":"Boreal North Canada"},0,"Miscanthus Plantation:Boreal North Canada:0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1016","v":"Boreal North Canada"},20,"Miscanthus Plantation:Boreal North Canada:20",1,0,1,0.16,0.08,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1017*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1017)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1017)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1017)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1016","v":"Boreal North Canada"},40,"Miscanthus Plantation:Boreal North Canada:40",1,0,1,0.16,0.08,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1018*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1018)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1018)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1018)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1016","v":"Boreal North Canada"},100,"Miscanthus Plantation:Boreal North Canada:100",1,0,1,0.16,0.08,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1019*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1019)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1019)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1019)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!A16","v":"East Canada"},0,"Miscanthus Plantation:East Canada:0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1020","v":"East Canada"},20,"Miscanthus Plantation:East Canada:20",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1021*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1021)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1021)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1021)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
[{"$f":"A1021","v":"Miscanthus Plantation"},{"$f":"B1020","v":"East Canada"},40,"Miscanthus Plantation:East Canada:40",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1022*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1022)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1022)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1022)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1020","v":"East Canada"},100,"Miscanthus Plantation:East Canada:100",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1023*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1023)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1023)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1023)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!$A$23","v":"North America (boreal region)"},0,"Miscanthus Plantation:North America (boreal region):0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1024","v":"North America (boreal region)"},20,"Miscanthus Plantation:North America (boreal region):20",1,0,1,0.16,0.08,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1025*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1025)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1025)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1025)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1024","v":"North America (boreal region)"},40,"Miscanthus Plantation:North America (boreal region):40",1,0,1,0.16,0.08,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1026*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1026)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1026)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1026)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1024","v":"North America (boreal region)"},100,"Miscanthus Plantation:North America (boreal region):100",1,0,1,0.16,0.08,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1027*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1027)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1027)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1027)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!$A$24","v":"North America (temperate dry region)"},0,"Miscanthus Plantation:North America (temperate dry region):0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1028","v":"North America (temperate dry region)"},20,"Miscanthus Plantation:North America (temperate dry region):20",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1029*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1029)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1029)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1029)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1029","v":"North America (temperate dry region)"},40,"Miscanthus Plantation:North America (temperate dry region):40",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1030*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1030)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1030)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1030)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1030","v":"North America (temperate dry region)"},100,"Miscanthus Plantation:North America (temperate dry region):100",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1031*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1031)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1031)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1031)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!$A$25","v":"North America (temperate moist region)"},0,"Miscanthus Plantation:North America (temperate moist region):0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1032","v":"North America (temperate moist region)"},20,"Miscanthus Plantation:North America (temperate moist region):20",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1033*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1033)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1033)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1033)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1033","v":"North America (temperate moist region)"},40,"Miscanthus Plantation:North America (temperate moist region):40",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1034*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1034)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1034)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1034)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1034","v":"North America (temperate moist region)"},100,"Miscanthus Plantation:North America (temperate moist region):100",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1035*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1035)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1035)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1035)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!$A$49","v":"Europe (boreal region)"},0,"Miscanthus Plantation:Europe (boreal region):0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1036","v":"Europe (boreal region)"},20,"Miscanthus Plantation:Europe (boreal region):20",1,0,1,0.16,0.08,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1037*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1037)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1037)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1037)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1037","v":"Europe (boreal region)"},40,"Miscanthus Plantation:Europe (boreal region):40",1,0,1,0.16,0.08,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1038*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1038)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1038)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1038)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1038","v":"Europe (boreal region)"},100,"Miscanthus Plantation:Europe (boreal region):100",1,0,1,0.16,0.08,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1039*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1039)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1039)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1039)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!$A$50","v":"Europe (temperate dry region)"},0,"Miscanthus Plantation:Europe (temperate dry region):0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1040","v":"Europe (temperate dry region)"},20,"Miscanthus Plantation:Europe (temperate dry region):20",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1041*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1041)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1041)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1041)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1041","v":"Europe (temperate dry region)"},40,"Miscanthus Plantation:Europe (temperate dry region):40",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1042*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1042)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1042)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1042)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1042","v":"Europe (temperate dry region)"},100,"Miscanthus Plantation:Europe (temperate dry region):100",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1043*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1043)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1043)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1043)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!$A$51","v":"Europe (temperate moist region)"},0,"Miscanthus Plantation:Europe (temperate moist region):0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1044","v":"Europe (temperate moist region)"},20,"Miscanthus Plantation:Europe (temperate moist region):20",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1045*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1045)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1045)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1045)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1045","v":"Europe (temperate moist region)"},40,"Miscanthus Plantation:Europe (temperate moist region):40",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1046*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1046)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1046)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1046)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1046","v":"Europe (temperate moist region)"},100,"Miscanthus Plantation:Europe (temperate moist region):100",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1047*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1047)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1047)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1047)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!$A$53","v":"New Zealand (temperate dry region)"},0,"Miscanthus Plantation:New Zealand (temperate dry region):0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1048","v":"New Zealand (temperate dry region)"},20,"Miscanthus Plantation:New Zealand (temperate dry region):20",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1049*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1049)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1049)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1049)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1049","v":"New Zealand (temperate dry region)"},40,"Miscanthus Plantation:New Zealand (temperate dry region):40",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1050*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1050)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1050)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1050)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1050","v":"New Zealand (temperate dry region)"},100,"Miscanthus Plantation:New Zealand (temperate dry region):100",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1051*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1051)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1051)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1051)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!$A$54","v":"New Zealand (temperate moist region)"},0,"Miscanthus Plantation:New Zealand (temperate moist region):0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1052","v":"New Zealand (temperate moist region)"},20,"Miscanthus Plantation:New Zealand (temperate moist region):20",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1053*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1053)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1053)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1053)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
[{"$f":"A1053","v":"Miscanthus Plantation"},{"$f":"B1053","v":"New Zealand (temperate moist region)"},40,"Miscanthus Plantation:New Zealand (temperate moist region):40",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1054*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1054)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1054)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1054)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1054","v":"New Zealand (temperate moist region)"},100,"Miscanthus Plantation:New Zealand (temperate moist region):100",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1055*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1055)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1055)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1055)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!$A$31","v":"South America (temperate dry region)"},0,"Miscanthus Plantation:South America (temperate dry region):0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1056","v":"South America (temperate dry region)"},20,"Miscanthus Plantation:South America (temperate dry region):20",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1057*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1057)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1057)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1057)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1057","v":"South America (temperate dry region)"},40,"Miscanthus Plantation:South America (temperate dry region):40",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1058*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1058)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1058)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1058)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1058","v":"South America (temperate dry region)"},100,"Miscanthus Plantation:South America (temperate dry region):100",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1059*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1059)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1059)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1059)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!$A$32","v":"South America (temperate moist region)"},0,"Miscanthus Plantation:South America (temperate moist region):0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1060","v":"South America (temperate moist region)"},20,"Miscanthus Plantation:South America (temperate moist region):20",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1061*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1061)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1061)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1061)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1061","v":"South America (temperate moist region)"},40,"Miscanthus Plantation:South America (temperate moist region):40",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1062*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1062)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1062)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1062)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1062","v":"South America (temperate moist region)"},100,"Miscanthus Plantation:South America (temperate moist region):100",1,0,1,0.68,0.27,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1063*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1063)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1063)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1063)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"'Transport Data'!$A$38","v":"Asia Continental (boreal region)"},0,"Miscanthus Plantation:Asia Continental (boreal region):0",1,0,1,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,1,0,0,0]
["Miscanthus Plantation",{"$f":"B1064","v":"Asia Continental (boreal region)"},20,"Miscanthus Plantation:Asia Continental (boreal region):20",1,0,1,0.16,0.08,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1065*Yield_factor_20y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1065)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1065)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1065)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1064","v":"Asia Continental (boreal region)"},40,"Miscanthus Plantation:Asia Continental (boreal region):40",1,0,1,0.16,0.08,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1066*Yield_factor_40y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1066)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1066)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1066)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
["Miscanthus Plantation",{"$f":"B1064","v":"Asia Continental (boreal region)"},100,"Miscanthus Plantation:Asia Continental (boreal region):100",1,0,1,0.16,0.08,{"$f":"C_roots_Miscanthus","v":10},"Only roots C stocks considered (taken from European Commission, 2010), as Miscanthus is annually cropped therefore assume the land is planted with miscanthus all at once (no staggered planting), and all the above ground biomass (approx) is harvested to get the yield.  ",10,"CCC, 2011. The literature suggests an average global yield of around 10 tonnes (dry matter)/ ha with a range from 5 tonnes/ha for low quality land and up to 15 tonnes/ha on high quality agricultural land.",{"$f":"L1067*Yield_factor_100y_Miscanthus","v":10},0,0,0,0,0,1,0,0,0,4,{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1067)*EF_diesel+P2O5_Miscanthus*EF_Pfert+K2O_Miscanthus*EF_Kfert+Lime_Miscanthus*EF_lime+Manganese_Miscanthus*EF_Manganese+Pesticides_Miscanthus*EF_Pest+Rhizomes_Miscanthus*EF_Rhizomes)/Conv_te_kg","v":0.47953948624999987},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1067)*En_F_diesel+P2O5_Miscanthus*En_F_Pfert+K2O_Miscanthus*En_F_Kfert+Lime_Miscanthus*En_lime+Manganese_Miscanthus*En_Manganese+Pesticides_Miscanthus*En_F_Pest+Rhizomes_Miscanthus*En_Rhizomes)/Conv_MWh_KWh","v":1.8175275},{"$f":"((Diesel_Miscanthus+Diesel_Miscanthus_harvest*'Land Data'!N1067)*En_F_diesel*Prim_En_Diesel+P2O5_Miscanthus*En_F_Pfert*Prim_En_Pfert+K2O_Miscanthus*En_F_Kfert*Prim_En_Kfert+Lime_Miscanthus*En_lime*Prim_En_Lime+Manganese_Miscanthus*En_Manganese*Prim_En_Manganese+Pesticides_Miscanthus*En_F_Pest*Prim_En_CropProtect+Rhizomes_Miscanthus*En_Rhizomes*Prim_En_Rhizomes)/Conv_MWh_KWh","v":1.9038226249999999},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$144/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$144/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$168","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$168","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$387","v":"Miscanthus Chips (30 wt% moisture)"},null,null,null,{"$f":"LHV_grasses/Conv_kwh_MJ","v":4.8888888888888893}]
[{"$f":"Lists!B73","v":"SRF Eucalyptus Plantation"},{"$f":"'Transport Data'!A18","v":"Africa (tropical dry region)"},0,"SRF Eucalyptus Plantation:Africa (tropical dry region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
[{"$f":"A1068","v":"SRF Eucalyptus Plantation"},"Africa (tropical dry region)",20,"SRF Eucalyptus Plantation:Africa (tropical dry region):20",1,0,6,1.36,0.54,{"$f":"L1069*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":38.07},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation). ",20,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1069*Yield_factor_20y_Eucalyptus","v":17.5},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1069)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.29986244049999999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1069)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.0337244234088456},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1069)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.0926645123732472},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation","Africa (tropical dry region)",40,"SRF Eucalyptus Plantation:Africa (tropical dry region):40",1,0,6,1.36,0.54,{"$f":"L1070*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":38.07},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation). ",20,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1070*Yield_factor_40y_Eucalyptus","v":18.75},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1070)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.31398953424999998},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1070)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.0772660900755122},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1070)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.1393847207065801},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation","Africa (tropical dry region)",100,"SRF Eucalyptus Plantation:Africa (tropical dry region):100",1,0,6,1.36,0.54,{"$f":"L1071*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":38.07},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation). ",20,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1071*Yield_factor_100y_Eucalyptus","v":19.5},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1071)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.3224657904999999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1071)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.1033910900755122},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1071)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.1674168457065801},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A1071","v":"SRF Eucalyptus Plantation"},{"$f":"'Transport Data'!A19","v":"Africa (tropical moist region)"},0,{"$f":"A1072&\":\"&B1072&\":\"&C1072","v":"SRF Eucalyptus Plantation:Africa (tropical moist region):0"},1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1072","v":"Africa (tropical moist region)"},20,"SRF Eucalyptus Plantation:Africa (tropical moist region):20",1,0,6,1.36,0.54,{"$f":"L1073*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation). ",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1073*Yield_factor_20y_Eucalyptus","v":26.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1073)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.39875209675000001},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1073)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.3385160900755124},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1073)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4197059707065804},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1073","v":"Africa (tropical moist region)"},40,"SRF Eucalyptus Plantation:Africa (tropical moist region):40",1,0,6,1.36,0.54,{"$f":"L1074*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation). ",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1074*Yield_factor_40y_Eucalyptus","v":28.125},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1074)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.41994273737499999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1074)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4038285900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1074)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4897862832065805},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1074","v":"Africa (tropical moist region)"},100,"SRF Eucalyptus Plantation:Africa (tropical moist region):100",1,0,6,1.36,0.54,{"$f":"L1075*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation). ",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1075*Yield_factor_100y_Eucalyptus","v":29.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1075)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.43265712175000004},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1075)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4430160900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1075)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.5318344707065803},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!A20","v":"Africa (tropical wet region)"},0,"SRF Eucalyptus Plantation:Africa (tropical wet region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1076","v":"Africa (tropical wet region)"},20,"SRF Eucalyptus Plantation:Africa (tropical wet region):20",1,0,6,1.36,0.54,{"$f":"L1077*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1077*Yield_factor_20y_Eucalyptus","v":26.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1077)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.39875209675000001},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1077)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.3385160900755124},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1077)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4197059707065804},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1077","v":"Africa (tropical wet region)"},40,"SRF Eucalyptus Plantation:Africa (tropical wet region):40",1,0,6,1.36,0.54,{"$f":"L1078*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1078*Yield_factor_40y_Eucalyptus","v":28.125},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1078)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.41994273737499999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1078)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4038285900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1078)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4897862832065805},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1078","v":"Africa (tropical wet region)"},100,"SRF Eucalyptus Plantation:Africa (tropical wet region):100",1,0,6,1.36,0.54,{"$f":"L1079*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1079*Yield_factor_100y_Eucalyptus","v":29.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1079)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.43265712175000004},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1079)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4430160900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1079)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.5318344707065803},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!A21","v":"Africa (tropical montane region)"},0,"SRF Eucalyptus Plantation:Africa (tropical montane region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1080","v":"Africa (tropical montane region)"},20,"SRF Eucalyptus Plantation:Africa (tropical montane region):20",1,0,6,1.36,0.54,{"$f":"L1081*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1081*Yield_factor_20y_Eucalyptus","v":26.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1081)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.39875209675000001},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1081)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.3385160900755124},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1081)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4197059707065804},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1081","v":"Africa (tropical montane region)"},40,"SRF Eucalyptus Plantation:Africa (tropical montane region):40",1,0,6,1.36,0.54,{"$f":"L1082*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1082*Yield_factor_40y_Eucalyptus","v":28.125},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1082)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.41994273737499999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1082)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4038285900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1082)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4897862832065805},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1082","v":"Africa (tropical montane region)"},100,"SRF Eucalyptus Plantation:Africa (tropical montane region):100",1,0,6,1.36,0.54,{"$f":"L1083*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1083*Yield_factor_100y_Eucalyptus","v":29.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1083)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.43265712175000004},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1083)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4430160900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1083)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.5318344707065803},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!A26","v":"North America (tropical montane region)"},0,"SRF Eucalyptus Plantation:North America (tropical montane region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1084","v":"North America (tropical montane region)"},20,"SRF Eucalyptus Plantation:North America (tropical montane region):20",1,0,6,1.36,0.54,{"$f":"L1085*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1085*Yield_factor_20y_Eucalyptus","v":26.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1085)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.39875209675000001},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1085)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.3385160900755124},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1085)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4197059707065804},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1085","v":"North America (tropical montane region)"},40,"SRF Eucalyptus Plantation:North America (tropical montane region):40",1,0,6,1.36,0.54,{"$f":"L1086*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1086*Yield_factor_40y_Eucalyptus","v":28.125},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1086)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.41994273737499999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1086)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4038285900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1086)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4897862832065805},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1086","v":"North America (tropical montane region)"},100,"SRF Eucalyptus Plantation:North America (tropical montane region):100",1,0,6,1.36,0.54,{"$f":"L1087*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1087*Yield_factor_100y_Eucalyptus","v":29.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1087)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.43265712175000004},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1087)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4430160900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1087)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.5318344707065803},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!A27","v":"North America (tropical dry region)"},0,"SRF Eucalyptus Plantation:North America (tropical dry region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1088","v":"North America (tropical dry region)"},20,"SRF Eucalyptus Plantation:North America (tropical dry region):20",1,0,6,1.36,0.54,{"$f":"L1089*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":38.07},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",20,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1089*Yield_factor_20y_Eucalyptus","v":17.5},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1089)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.29986244049999999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1089)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.0337244234088456},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1089)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.0926645123732472},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1089","v":"North America (tropical dry region)"},40,"SRF Eucalyptus Plantation:North America (tropical dry region):40",1,0,6,1.36,0.54,{"$f":"L1090*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":38.07},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",20,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1090*Yield_factor_40y_Eucalyptus","v":18.75},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1090)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.31398953424999998},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1090)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.0772660900755122},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1090)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.1393847207065801},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1090","v":"North America (tropical dry region)"},100,"SRF Eucalyptus Plantation:North America (tropical dry region):100",1,0,6,1.36,0.54,{"$f":"L1091*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":38.07},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",20,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1091*Yield_factor_100y_Eucalyptus","v":19.5},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1091)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.3224657904999999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1091)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.1033910900755122},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1091)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.1674168457065801},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!A28","v":"North America (tropical moist region)"},0,"SRF Eucalyptus Plantation:North America (tropical moist region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1092","v":"North America (tropical moist region)"},20,"SRF Eucalyptus Plantation:North America (tropical moist region):20",1,0,6,1.36,0.54,{"$f":"L1093*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1093*Yield_factor_20y_Eucalyptus","v":26.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1093)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.39875209675000001},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1093)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.3385160900755124},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1093)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4197059707065804},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1093","v":"North America (tropical moist region)"},40,"SRF Eucalyptus Plantation:North America (tropical moist region):40",1,0,6,1.36,0.54,{"$f":"L1094*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1094*Yield_factor_40y_Eucalyptus","v":28.125},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1094)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.41994273737499999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1094)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4038285900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1094)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4897862832065805},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1094","v":"North America (tropical moist region)"},100,"SRF Eucalyptus Plantation:North America (tropical moist region):100",1,0,6,1.36,0.54,{"$f":"L1095*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1095*Yield_factor_100y_Eucalyptus","v":29.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1095)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.43265712175000004},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1095)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4430160900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1095)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.5318344707065803},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!A29","v":"North America (tropical wet region)"},0,"SRF Eucalyptus Plantation:North America (tropical wet region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1096","v":"North America (tropical wet region)"},20,"SRF Eucalyptus Plantation:North America (tropical wet region):20",1,0,6,1.36,0.54,{"$f":"L1097*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1097*Yield_factor_20y_Eucalyptus","v":26.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1097)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.39875209675000001},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1097)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.3385160900755124},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1097)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4197059707065804},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1097","v":"North America (tropical wet region)"},40,"SRF Eucalyptus Plantation:North America (tropical wet region):40",1,0,6,1.36,0.54,{"$f":"L1098*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1098*Yield_factor_40y_Eucalyptus","v":28.125},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1098)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.41994273737499999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1098)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4038285900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1098)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4897862832065805},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1098","v":"North America (tropical wet region)"},100,"SRF Eucalyptus Plantation:North America (tropical wet region):100",1,0,6,1.36,0.54,{"$f":"L1099*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1099*Yield_factor_100y_Eucalyptus","v":29.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1099)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.43265712175000004},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1099)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4430160900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1099)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.5318344707065803},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!A33","v":"South America (tropical montane region)"},0,"SRF Eucalyptus Plantation:South America (tropical montane region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1100","v":"South America (tropical montane region)"},20,"SRF Eucalyptus Plantation:South America (tropical montane region):20",1,0,6,1.36,0.54,{"$f":"L1101*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1101*Yield_factor_20y_Eucalyptus","v":26.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1101)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.39875209675000001},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1101)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.3385160900755124},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1101)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4197059707065804},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1101","v":"South America (tropical montane region)"},40,"SRF Eucalyptus Plantation:South America (tropical montane region):40",1,0,6,1.36,0.54,{"$f":"L1102*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1102*Yield_factor_40y_Eucalyptus","v":28.125},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1102)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.41994273737499999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1102)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4038285900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1102)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4897862832065805},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1102","v":"South America (tropical montane region)"},100,"SRF Eucalyptus Plantation:South America (tropical montane region):100",1,0,6,1.36,0.54,{"$f":"L1103*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1103*Yield_factor_100y_Eucalyptus","v":29.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1103)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.43265712175000004},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1103)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4430160900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1103)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.5318344707065803},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A1103","v":"SRF Eucalyptus Plantation"},{"$f":"'Transport Data'!A34","v":"South America (tropical dry region)"},0,"SRF Eucalyptus Plantation:South America (tropical dry region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1104","v":"South America (tropical dry region)"},20,"SRF Eucalyptus Plantation:South America (tropical dry region):20",1,0,6,1.36,0.54,{"$f":"L1105*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":38.07},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",20,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1105*Yield_factor_20y_Eucalyptus","v":17.5},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1105)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.29986244049999999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1105)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.0337244234088456},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1105)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.0926645123732472},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1105","v":"South America (tropical dry region)"},40,"SRF Eucalyptus Plantation:South America (tropical dry region):40",1,0,6,1.36,0.54,{"$f":"L1106*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":38.07},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",20,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1106*Yield_factor_40y_Eucalyptus","v":18.75},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1106)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.31398953424999998},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1106)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.0772660900755122},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1106)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.1393847207065801},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1106","v":"South America (tropical dry region)"},100,"SRF Eucalyptus Plantation:South America (tropical dry region):100",1,0,6,1.36,0.54,{"$f":"L1107*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":38.07},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",20,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1107*Yield_factor_100y_Eucalyptus","v":19.5},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1107)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.3224657904999999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1107)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.1033910900755122},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1107)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.1674168457065801},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!A35","v":"South America (tropical moist region)"},0,"SRF Eucalyptus Plantation:South America (tropical moist region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1108","v":"South America (tropical moist region)"},20,"SRF Eucalyptus Plantation:South America (tropical moist region):20",1,0,6,1.36,0.54,{"$f":"L1109*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1109*Yield_factor_20y_Eucalyptus","v":26.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1109)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.39875209675000001},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1109)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.3385160900755124},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1109)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4197059707065804},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1109","v":"South America (tropical moist region)"},40,"SRF Eucalyptus Plantation:South America (tropical moist region):40",1,0,6,1.36,0.54,{"$f":"L1110*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1110*Yield_factor_40y_Eucalyptus","v":28.125},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1110)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.41994273737499999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1110)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4038285900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1110)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4897862832065805},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1110","v":"South America (tropical moist region)"},100,"SRF Eucalyptus Plantation:South America (tropical moist region):100",1,0,6,1.36,0.54,{"$f":"L1111*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1111*Yield_factor_100y_Eucalyptus","v":29.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1111)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.43265712175000004},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1111)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4430160900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1111)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.5318344707065803},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!A36","v":"South America (tropical wet region)"},0,"SRF Eucalyptus Plantation:South America (tropical wet region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1112","v":"South America (tropical wet region)"},20,"SRF Eucalyptus Plantation:South America (tropical wet region):20",1,0,6,1.36,0.54,{"$f":"L1113*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1113*Yield_factor_20y_Eucalyptus","v":26.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1113)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.39875209675000001},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1113)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.3385160900755124},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1113)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4197059707065804},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1113","v":"South America (tropical wet region)"},40,"SRF Eucalyptus Plantation:South America (tropical wet region):40",1,0,6,1.36,0.54,{"$f":"L1114*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1114*Yield_factor_40y_Eucalyptus","v":28.125},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1114)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.41994273737499999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1114)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4038285900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1114)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4897862832065805},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1114","v":"South America (tropical wet region)"},100,"SRF Eucalyptus Plantation:South America (tropical wet region):100",1,0,6,1.36,0.54,{"$f":"L1115*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1115*Yield_factor_100y_Eucalyptus","v":29.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1115)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.43265712175000004},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1115)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4430160900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1115)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.5318344707065803},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!A39","v":"Asia Continental (tropical dry region)"},0,"SRF Eucalyptus Plantation:Asia Continental (tropical dry region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1116","v":"Asia Continental (tropical dry region)"},20,"SRF Eucalyptus Plantation:Asia Continental (tropical dry region):20",1,0,6,1.36,0.54,{"$f":"L1117*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":38.07},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",20,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1117*Yield_factor_20y_Eucalyptus","v":17.5},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1117)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.29986244049999999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1117)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.0337244234088456},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1117)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.0926645123732472},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1117","v":"Asia Continental (tropical dry region)"},40,"SRF Eucalyptus Plantation:Asia Continental (tropical dry region):40",1,0,6,1.36,0.54,{"$f":"L1118*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":38.07},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",20,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1118*Yield_factor_40y_Eucalyptus","v":18.75},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1118)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.31398953424999998},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1118)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.0772660900755122},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1118)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.1393847207065801},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1118","v":"Asia Continental (tropical dry region)"},100,"SRF Eucalyptus Plantation:Asia Continental (tropical dry region):100",1,0,6,1.36,0.54,{"$f":"L1119*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":38.07},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",20,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1119*Yield_factor_100y_Eucalyptus","v":19.5},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1119)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.3224657904999999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1119)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.1033910900755122},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1119)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.1674168457065801},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!A40","v":"Asia Continental (tropical wet region)"},0,"SRF Eucalyptus Plantation:Asia Continental (tropical wet region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1120","v":"Asia Continental (tropical wet region)"},20,"SRF Eucalyptus Plantation:Asia Continental (tropical wet region):20",1,0,6,1.36,0.54,{"$f":"L1121*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1121*Yield_factor_20y_Eucalyptus","v":26.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1121)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.39875209675000001},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1121)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.3385160900755124},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1121)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4197059707065804},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1121","v":"Asia Continental (tropical wet region)"},40,"SRF Eucalyptus Plantation:Asia Continental (tropical wet region):40",1,0,6,1.36,0.54,{"$f":"L1122*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1122*Yield_factor_40y_Eucalyptus","v":28.125},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1122)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.41994273737499999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1122)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4038285900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1122)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4897862832065805},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1122","v":"Asia Continental (tropical wet region)"},100,"SRF Eucalyptus Plantation:Asia Continental (tropical wet region):100",1,0,6,1.36,0.54,{"$f":"L1123*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1123*Yield_factor_100y_Eucalyptus","v":29.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1123)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.43265712175000004},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1123)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4430160900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1123)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.5318344707065803},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!A41","v":"Asia Continental (tropical moist region)"},0,"SRF Eucalyptus Plantation:Asia Continental (tropical moist region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1124","v":"Asia Continental (tropical moist region)"},20,"SRF Eucalyptus Plantation:Asia Continental (tropical moist region):20",1,0,6,1.36,0.54,{"$f":"L1125*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1125*Yield_factor_20y_Eucalyptus","v":26.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1125)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.39875209675000001},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1125)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.3385160900755124},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1125)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4197059707065804},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1125","v":"Asia Continental (tropical moist region)"},40,"SRF Eucalyptus Plantation:Asia Continental (tropical moist region):40",1,0,6,1.36,0.54,{"$f":"L1126*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1126*Yield_factor_40y_Eucalyptus","v":28.125},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1126)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.41994273737499999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1126)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4038285900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1126)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4897862832065805},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1126","v":"Asia Continental (tropical moist region)"},100,"SRF Eucalyptus Plantation:Asia Continental (tropical moist region):100",1,0,6,1.36,0.54,{"$f":"L1127*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1127*Yield_factor_100y_Eucalyptus","v":29.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1127)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.43265712175000004},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1127)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4430160900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1127)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.5318344707065803},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!A42","v":"Asia Continental (tropical montane region)"},0,"SRF Eucalyptus Plantation:Asia Continental (tropical montane region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1128","v":"Asia Continental (tropical montane region)"},20,"SRF Eucalyptus Plantation:Asia Continental (tropical montane region):20",1,0,6,1.36,0.54,{"$f":"L1129*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1129*Yield_factor_20y_Eucalyptus","v":26.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1129)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.39875209675000001},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1129)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.3385160900755124},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1129)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4197059707065804},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1129","v":"Asia Continental (tropical montane region)"},40,"SRF Eucalyptus Plantation:Asia Continental (tropical montane region):40",1,0,6,1.36,0.54,{"$f":"L1130*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1130*Yield_factor_40y_Eucalyptus","v":28.125},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1130)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.41994273737499999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1130)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4038285900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1130)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4897862832065805},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1130","v":"Asia Continental (tropical montane region)"},100,"SRF Eucalyptus Plantation:Asia Continental (tropical montane region):100",1,0,6,1.36,0.54,{"$f":"L1131*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1131*Yield_factor_100y_Eucalyptus","v":29.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1131)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.43265712175000004},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1131)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4430160900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1131)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.5318344707065803},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!$A$44","v":"Asia Insular (tropical dry region)"},0,"SRF Eucalyptus Plantation:Asia Insular (tropical dry region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1132","v":"Asia Insular (tropical dry region)"},20,"SRF Eucalyptus Plantation:Asia Insular (tropical dry region):20",1,0,6,1.36,0.54,{"$f":"L1133*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":38.07},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",20,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1133*Yield_factor_20y_Eucalyptus","v":17.5},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1133)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.29986244049999999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1133)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.0337244234088456},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1133)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.0926645123732472},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1133","v":"Asia Insular (tropical dry region)"},40,"SRF Eucalyptus Plantation:Asia Insular (tropical dry region):40",1,0,6,1.36,0.54,{"$f":"L1134*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":38.07},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",20,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1134*Yield_factor_40y_Eucalyptus","v":18.75},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1134)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.31398953424999998},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1134)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.0772660900755122},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1134)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.1393847207065801},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1134","v":"Asia Insular (tropical dry region)"},100,"SRF Eucalyptus Plantation:Asia Insular (tropical dry region):100",1,0,6,1.36,0.54,{"$f":"L1135*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":38.07},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",20,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1135*Yield_factor_100y_Eucalyptus","v":19.5},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1135)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.3224657904999999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1135)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.1033910900755122},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1135)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.1674168457065801},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"A1135","v":"SRF Eucalyptus Plantation"},{"$f":"'Transport Data'!A45","v":"Asia Insular (tropical moist region)"},0,{"$f":"A1136&\":\"&B1136&\":\"&C1136","v":"SRF Eucalyptus Plantation:Asia Insular (tropical moist region):0"},1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1136","v":"Asia Insular (tropical moist region)"},20,"SRF Eucalyptus Plantation:Asia Insular (tropical moist region):20",1,0,6,1.36,0.54,{"$f":"L1137*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1137*Yield_factor_20y_Eucalyptus","v":26.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1137)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.39875209675000001},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1137)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.3385160900755124},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1137)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4197059707065804},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1137","v":"Asia Insular (tropical moist region)"},40,"SRF Eucalyptus Plantation:Asia Insular (tropical moist region):40",1,0,6,1.36,0.54,{"$f":"L1138*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1138*Yield_factor_40y_Eucalyptus","v":28.125},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1138)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.41994273737499999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1138)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4038285900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1138)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4897862832065805},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1138","v":"Asia Insular (tropical moist region)"},100,"SRF Eucalyptus Plantation:Asia Insular (tropical moist region):100",1,0,6,1.36,0.54,{"$f":"L1139*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1139*Yield_factor_100y_Eucalyptus","v":29.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1139)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.43265712175000004},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1139)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4430160900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1139)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.5318344707065803},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!A46","v":"Asia Insular (tropical wet region)"},0,"SRF Eucalyptus Plantation:Asia Insular (tropical wet region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1140","v":"Asia Insular (tropical wet region)"},20,"SRF Eucalyptus Plantation:Asia Insular (tropical wet region):20",1,0,6,1.36,0.54,{"$f":"L1141*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1141*Yield_factor_20y_Eucalyptus","v":26.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1141)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.39875209675000001},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1141)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.3385160900755124},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1141)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4197059707065804},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1141","v":"Asia Insular (tropical wet region)"},40,"SRF Eucalyptus Plantation:Asia Insular (tropical wet region):40",1,0,6,1.36,0.54,{"$f":"L1142*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1142*Yield_factor_40y_Eucalyptus","v":28.125},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1142)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.41994273737499999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1142)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4038285900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1142)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4897862832065805},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1142","v":"Asia Insular (tropical wet region)"},100,"SRF Eucalyptus Plantation:Asia Insular (tropical wet region):100",1,0,6,1.36,0.54,{"$f":"L1143*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1143*Yield_factor_100y_Eucalyptus","v":29.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1143)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.43265712175000004},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1143)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4430160900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1143)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.5318344707065803},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"'Transport Data'!A47","v":"Asia Insular (tropical montane region)"},0,"SRF Eucalyptus Plantation:Asia Insular (tropical montane region):0",1,0,6,null,null,null,null,"N/A",null,"N/A",0,0,0,0,0,0,0,0,1]
["SRF Eucalyptus Plantation",{"$f":"B1144","v":"Asia Insular (tropical montane region)"},20,"SRF Eucalyptus Plantation:Asia Insular (tropical montane region):20",1,0,6,1.36,0.54,{"$f":"L1145*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1145*Yield_factor_20y_Eucalyptus","v":26.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1145)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.39875209675000001},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1145)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.3385160900755124},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1145)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4197059707065804},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1145","v":"Asia Insular (tropical montane region)"},40,"SRF Eucalyptus Plantation:Asia Insular (tropical montane region):40",1,0,6,1.36,0.54,{"$f":"L1146*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1146*Yield_factor_40y_Eucalyptus","v":28.125},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1146)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.41994273737499999},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1146)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4038285900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1146)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.4897862832065805},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
["SRF Eucalyptus Plantation",{"$f":"B1146","v":"Asia Insular (tropical montane region)"},100,"SRF Eucalyptus Plantation:Asia Insular (tropical montane region):100",1,0,6,1.36,0.54,{"$f":"L1147*C_biomass*Rotation_Eucalyptus*Average_Cstock_time_Eucalyptus*(1+Root_Shoot_Eucalyptus)","v":57.104999999999997},"Accounts for average above and below ground biomass, using IPCC 2006 root:shoot value for Eucalyptus plantation (simplified assumption that the time averaged carbon stock is half way through the crop rotation)",30,"FAO, 2013. Short Rotation Eucalyptus plantations typically produce usable biomass at a rate of 5 - 35 m3/ha/y, corresponding to ~ 2.5 – 17.5 dry t/ha/y, although productivities of up to 80 m3/ha/y (40 dry t/ha/y) have been reported for genetically improved species which have been managed intensively. Assume that in wet/moist regions yields of 30 odt/ha/y are achieved, and in dry regions 20 odt/ha/y. ",{"$f":"L1147*Yield_factor_100y_Eucalyptus","v":29.25},0,0,0,0,0,0,0,0,1,4,{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1147)*EF_diesel+Pesticides_Ecalyp*EF_Pest+P2O5_Eucalyp*EF_Pfert+K2O_Eucalyp*EF_Kfert+Lime_Eucalyp*EF_lime)/Conv_te_kg","v":0.43265712175000004},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1147)*En_F_diesel+Pesticides_Ecalyp*En_F_Pest+P2O5_Eucalyp*En_F_Pfert+K2O_Eucalyp*En_F_Kfert+Lime_Eucalyp*En_lime)/Conv_MWh_KWh","v":1.4430160900755125},{"$f":"((Diesel_Eucalyp+Diesel_Eucalyp_harvest*'Land Data'!N1147)*En_F_diesel*Prim_En_Diesel+Pesticides_Ecalyp*En_F_Pest*Prim_En_CropProtect+P2O5_Eucalyp*En_F_Pfert*Prim_En_Pfert+K2O_Eucalyp*En_F_Kfert*Prim_En_Kfert+Lime_Eucalyp*En_lime*Prim_En_Lime)/Conv_MWh_KWh","v":1.5318344707065803},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$136/Conv_te_kg","v":1.276E-3},{"$f":"'Reference Data'!$E$136/Conv_te_kg","v":1.188E-3},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$160","v":-3.02944E-3},{"$f":"'Reference Data'!$E$160","v":1.51472E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$388","v":"Eucalyptus Roundwood (50 wt% moisture)"},null,null,null,{"$f":"LHV_hardwood/Conv_kwh_MJ","v":5.2777777777777777}]
[{"$f":"Lists!B74","v":"Palm Plantation"},{"$f":"'Transport Data'!A18","v":"Africa (tropical dry region)"},0,"Palm Plantation:Africa (tropical dry region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
[{"$f":"A1148","v":"Palm Plantation"},"Africa (tropical dry region)",20,"Palm Plantation:Africa (tropical dry region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1149","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1149*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1149*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1149*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation","Africa (tropical dry region)",40,"Palm Plantation:Africa (tropical dry region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1150","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1150*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1150*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1150*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation","Africa (tropical dry region)",100,"Palm Plantation:Africa (tropical dry region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1151","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1151*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1151*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1151*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
[{"$f":"A1151","v":"Palm Plantation"},{"$f":"'Transport Data'!A19","v":"Africa (tropical moist region)"},0,"Palm Plantation:Africa (tropical moist region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1152","v":"Africa (tropical moist region)"},20,"Palm Plantation:Africa (tropical moist region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1153","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1153*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1153*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1153*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1153","v":"Africa (tropical moist region)"},40,"Palm Plantation:Africa (tropical moist region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1154","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1154*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1154*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1154*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1154","v":"Africa (tropical moist region)"},100,"Palm Plantation:Africa (tropical moist region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1155","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1155*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1155*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1155*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A20","v":"Africa (tropical wet region)"},0,"Palm Plantation:Africa (tropical wet region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1156","v":"Africa (tropical wet region)"},20,"Palm Plantation:Africa (tropical wet region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1157","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1157*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1157*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1157*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1157","v":"Africa (tropical wet region)"},40,"Palm Plantation:Africa (tropical wet region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1158","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1158*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1158*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1158*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1158","v":"Africa (tropical wet region)"},100,"Palm Plantation:Africa (tropical wet region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1159","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1159*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1159*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1159*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A21","v":"Africa (tropical montane region)"},0,"Palm Plantation:Africa (tropical montane region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1160","v":"Africa (tropical montane region)"},20,"Palm Plantation:Africa (tropical montane region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1161","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1161*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1161*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1161*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1161","v":"Africa (tropical montane region)"},40,"Palm Plantation:Africa (tropical montane region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1162","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1162*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1162*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1162*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1162","v":"Africa (tropical montane region)"},100,"Palm Plantation:Africa (tropical montane region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1163","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1163*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1163*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1163*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A26","v":"North America (tropical montane region)"},0,"Palm Plantation:North America (tropical montane region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1164","v":"North America (tropical montane region)"},20,"Palm Plantation:North America (tropical montane region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1165","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1165*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1165*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1165*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1165","v":"North America (tropical montane region)"},40,"Palm Plantation:North America (tropical montane region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1166","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1166*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1166*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1166*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1166","v":"North America (tropical montane region)"},100,"Palm Plantation:North America (tropical montane region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1167","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1167*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1167*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1167*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A27","v":"North America (tropical dry region)"},0,"Palm Plantation:North America (tropical dry region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1168","v":"North America (tropical dry region)"},20,"Palm Plantation:North America (tropical dry region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1169","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1169*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1169*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1169*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1169","v":"North America (tropical dry region)"},40,"Palm Plantation:North America (tropical dry region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1170","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1170*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1170*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1170*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1170","v":"North America (tropical dry region)"},100,"Palm Plantation:North America (tropical dry region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1171","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1171*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1171*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1171*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A28","v":"North America (tropical moist region)"},0,"Palm Plantation:North America (tropical moist region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1172","v":"North America (tropical moist region)"},20,"Palm Plantation:North America (tropical moist region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1173","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1173*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1173*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1173*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1173","v":"North America (tropical moist region)"},40,"Palm Plantation:North America (tropical moist region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1174","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1174*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1174*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1174*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1174","v":"North America (tropical moist region)"},100,"Palm Plantation:North America (tropical moist region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1175","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1175*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1175*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1175*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A29","v":"North America (tropical wet region)"},0,"Palm Plantation:North America (tropical wet region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1176","v":"North America (tropical wet region)"},20,"Palm Plantation:North America (tropical wet region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1177","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1177*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1177*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1177*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1177","v":"North America (tropical wet region)"},40,"Palm Plantation:North America (tropical wet region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1178","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1178*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1178*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1178*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1178","v":"North America (tropical wet region)"},100,"Palm Plantation:North America (tropical wet region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1179","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1179*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1179*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1179*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A33","v":"South America (tropical montane region)"},0,"Palm Plantation:South America (tropical montane region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1180","v":"South America (tropical montane region)"},20,"Palm Plantation:South America (tropical montane region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1181","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1181*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1181*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1181*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1181","v":"South America (tropical montane region)"},40,"Palm Plantation:South America (tropical montane region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1182","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1182*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1182*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1182*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1182","v":"South America (tropical montane region)"},100,"Palm Plantation:South America (tropical montane region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1183","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1183*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1183*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1183*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
[{"$f":"A1183","v":"Palm Plantation"},{"$f":"'Transport Data'!A34","v":"South America (tropical dry region)"},0,"Palm Plantation:South America (tropical dry region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1184","v":"South America (tropical dry region)"},20,"Palm Plantation:South America (tropical dry region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1185","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1185*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1185*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1185*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1185","v":"South America (tropical dry region)"},40,"Palm Plantation:South America (tropical dry region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1186","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1186*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1186*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1186*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1186","v":"South America (tropical dry region)"},100,"Palm Plantation:South America (tropical dry region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1187","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1187*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1187*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1187*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A35","v":"South America (tropical moist region)"},0,"Palm Plantation:South America (tropical moist region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1188","v":"South America (tropical moist region)"},20,"Palm Plantation:South America (tropical moist region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1189","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1189*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1189*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1189*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1189","v":"South America (tropical moist region)"},40,"Palm Plantation:South America (tropical moist region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1190","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1190*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1190*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1190*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1190","v":"South America (tropical moist region)"},100,"Palm Plantation:South America (tropical moist region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1191","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1191*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1191*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1191*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A36","v":"South America (tropical wet region)"},0,"Palm Plantation:South America (tropical wet region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1192","v":"South America (tropical wet region)"},20,"Palm Plantation:South America (tropical wet region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1193","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1193*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1193*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1193*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1193","v":"South America (tropical wet region)"},40,"Palm Plantation:South America (tropical wet region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1194","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1194*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1194*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1194*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1194","v":"South America (tropical wet region)"},100,"Palm Plantation:South America (tropical wet region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1195","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1195*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1195*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1195*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A39","v":"Asia Continental (tropical dry region)"},0,"Palm Plantation:Asia Continental (tropical dry region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1196","v":"Asia Continental (tropical dry region)"},20,"Palm Plantation:Asia Continental (tropical dry region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1197","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1197*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1197*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1197*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1197","v":"Asia Continental (tropical dry region)"},40,"Palm Plantation:Asia Continental (tropical dry region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1198","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1198*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1198*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1198*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1198","v":"Asia Continental (tropical dry region)"},100,"Palm Plantation:Asia Continental (tropical dry region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1199","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1199*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1199*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1199*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A40","v":"Asia Continental (tropical wet region)"},0,{"$f":"A1200&\":\"&B1200&\":\"&C1200","v":"Palm Plantation:Asia Continental (tropical wet region):0"},1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1200","v":"Asia Continental (tropical wet region)"},20,"Palm Plantation:Asia Continental (tropical wet region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1201","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1201*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1201*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1201*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1201","v":"Asia Continental (tropical wet region)"},40,"Palm Plantation:Asia Continental (tropical wet region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1202","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1202*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1202*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1202*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1202","v":"Asia Continental (tropical wet region)"},100,"Palm Plantation:Asia Continental (tropical wet region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1203","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1203*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1203*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1203*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A41","v":"Asia Continental (tropical moist region)"},0,"Palm Plantation:Asia Continental (tropical moist region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1204","v":"Asia Continental (tropical moist region)"},20,"Palm Plantation:Asia Continental (tropical moist region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1205","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1205*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1205*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1205*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1205","v":"Asia Continental (tropical moist region)"},40,"Palm Plantation:Asia Continental (tropical moist region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1206","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1206*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1206*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1206*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1206","v":"Asia Continental (tropical moist region)"},100,"Palm Plantation:Asia Continental (tropical moist region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1207","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1207*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1207*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1207*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A42","v":"Asia Continental (tropical montane region)"},0,"Palm Plantation:Asia Continental (tropical montane region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1208","v":"Asia Continental (tropical montane region)"},20,"Palm Plantation:Asia Continental (tropical montane region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1209","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1209*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1209*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1209*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1209","v":"Asia Continental (tropical montane region)"},40,"Palm Plantation:Asia Continental (tropical montane region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1210","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1210*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1210*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1210*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1210","v":"Asia Continental (tropical montane region)"},100,"Palm Plantation:Asia Continental (tropical montane region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1211","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1211*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1211*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1211*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A44","v":"Asia Insular (tropical dry region)"},0,"Palm Plantation:Asia Insular (tropical dry region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1212","v":"Asia Insular (tropical dry region)"},20,"Palm Plantation:Asia Insular (tropical dry region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1213","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1213*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1213*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1213*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1213","v":"Asia Insular (tropical dry region)"},40,"Palm Plantation:Asia Insular (tropical dry region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1214","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1214*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1214*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1214*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1214","v":"Asia Insular (tropical dry region)"},100,"Palm Plantation:Asia Insular (tropical dry region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1215","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1215*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1215*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1215*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
[{"$f":"A1215","v":"Palm Plantation"},{"$f":"'Transport Data'!A45","v":"Asia Insular (tropical moist region)"},0,"Palm Plantation:Asia Insular (tropical moist region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1216","v":"Asia Insular (tropical moist region)"},20,"Palm Plantation:Asia Insular (tropical moist region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1217","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1217*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1217*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1217*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1217","v":"Asia Insular (tropical moist region)"},40,"Palm Plantation:Asia Insular (tropical moist region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1218","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1218*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1218*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1218*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1218","v":"Asia Insular (tropical moist region)"},100,"Palm Plantation:Asia Insular (tropical moist region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1219","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1219*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1219*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1219*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A46","v":"Asia Insular (tropical wet region)"},0,"Palm Plantation:Asia Insular (tropical wet region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1220","v":"Asia Insular (tropical wet region)"},20,"Palm Plantation:Asia Insular (tropical wet region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1221","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1221*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1221*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1221*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1221","v":"Asia Insular (tropical wet region)"},40,"Palm Plantation:Asia Insular (tropical wet region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1222","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1222*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1222*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1222*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1222","v":"Asia Insular (tropical wet region)"},100,"Palm Plantation:Asia Insular (tropical wet region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1223","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1223*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1223*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1223*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"'Transport Data'!A47","v":"Asia Insular (tropical montane region)"},0,"Palm Plantation:Asia Insular (tropical montane region):0",1,0,1,null,null,null,null,null,null,null,0,0,0,0,0,0,0,1,0]
["Palm Plantation",{"$f":"B1224","v":"Asia Insular (tropical montane region)"},20,"Palm Plantation:Asia Insular (tropical montane region):20",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1225","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1225*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1225*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1225*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1225","v":"Asia Insular (tropical montane region)"},40,"Palm Plantation:Asia Insular (tropical montane region):40",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1226","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1226*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1226*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1226*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
["Palm Plantation",{"$f":"B1226","v":"Asia Insular (tropical montane region)"},100,"Palm Plantation:Asia Insular (tropical montane region):100",1,0,1,1.36,0.54,{"$f":"C_roots_aboveground_palm","v":60},"European Commission, 2010. Assume time averaged carbon store, as carbon accumulates in palm tree, whilst kernels are grown.",12.5,"Ofgem, 2013.",{"$f":"L1227","v":12.5},0,0,0,0,0,0,0,1,0,128,{"$f":"((Diesel_palm+N1227*Diesel_palm_harvest)*EF_diesel+Pesticides_palm*EF_Pest+P2O5_palm*EF_Pfert+K2O_palm*EF_Kfert)/Conv_te_kg","v":0.45351518749999997},{"$f":"((Diesel_palm+N1227*Diesel_palm_harvest)*En_F_diesel+Pesticides_palm*En_F_Pest+P2O5_palm*En_F_Pfert+K2O_palm*En_F_Kfert)/Conv_MWh_KWh","v":2.1008978425026972},{"$f":"((Diesel_palm+N1227*Diesel_palm_harvest)*En_F_diesel*Prim_En_Diesel+Pesticides_palm*En_F_Pest*Prim_En_CropProtect+P2O5_palm*En_F_Pfert*Prim_En_Pfert+K2O_palm*En_F_Kfert*Prim_En_Kfert)/Conv_MWh_KWh","v":2.136016768338727},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$389","v":"Palm Fruit (34 wt% moisture)"},null,null,null,{"$f":"(0.38*LHV_fat+0.62*LHV_biomass)/Conv_kwh_MJ","v":7.4944444444444436}]
[{"$f":"Lists!B75","v":"Maize Cropland"},{"$f":"'Transport Data'!A8","v":"UK"},0,"Maize Cropland:UK:0",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
[{"$f":"A1228","v":"Maize Cropland"},"UK",20,"Maize Cropland:UK:20",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1229","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1229*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1229*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1229*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,{"$f":"LHV_biomass/Conv_kwh_MJ","v":5.2777777777777777}]
["Maize Cropland","UK",40,"Maize Cropland:UK:40",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1230","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1230*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1230*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1230*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland","UK",100,"Maize Cropland:UK:100",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1231","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1231*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1231*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1231*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
[{"$f":"A1231","v":"Maize Cropland"},{"$f":"'Transport Data'!A9","v":"South USA"},0,"Maize Cropland:South USA:0",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1232","v":"South USA"},20,"Maize Cropland:South USA:20",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1233","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1233*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1233*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1233*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1233","v":"South USA"},40,"Maize Cropland:South USA:40",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1234","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1234*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1234*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1234*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1234","v":"South USA"},100,"Maize Cropland:South USA:100",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1235","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1235*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1235*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1235*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A10","v":"North West USA"},0,"Maize Cropland:North West USA:0",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1236","v":"North West USA"},20,"Maize Cropland:North West USA:20",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1237","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1237*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1237*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1237*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1237","v":"North West USA"},40,"Maize Cropland:North West USA:40",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1238","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1238*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1238*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1238*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1238","v":"North West USA"},100,"Maize Cropland:North West USA:100",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1239","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1239*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1239*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1239*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A11","v":"North-East USA"},0,"Maize Cropland:North-East USA:0",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1240","v":"North-East USA"},20,"Maize Cropland:North-East USA:20",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1241","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1241*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1241*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1241*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1241","v":"North-East USA"},40,"Maize Cropland:North-East USA:40",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1242","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1242*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1242*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1242*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1242","v":"North-East USA"},100,"Maize Cropland:North-East USA:100",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1243","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1243*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1243*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1243*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A12","v":"North USA"},0,"Maize Cropland:North USA:0",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1244","v":"North USA"},20,"Maize Cropland:North USA:20",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1245","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1245*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1245*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1245*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1245","v":"North USA"},40,"Maize Cropland:North USA:40",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1246","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1246*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1246*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1246*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1246","v":"North USA"},100,"Maize Cropland:North USA:100",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1247","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1247*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1247*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1247*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A13","v":"Pacific Canada"},0,"Maize Cropland:Pacific Canada:0",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1248","v":"Pacific Canada"},20,"Maize Cropland:Pacific Canada:20",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1249","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1249*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1249*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1249*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1249","v":"Pacific Canada"},40,"Maize Cropland:Pacific Canada:40",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1250","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1250*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1250*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1250*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1250","v":"Pacific Canada"},100,"Maize Cropland:Pacific Canada:100",{"$f":"'Reference Data'!$B$26","v":0.69},{"$f":"'Reference Data'!$C$26","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1251","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1251*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1251*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1251*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A14","v":"Interior Canada"},0,"Maize Cropland:Interior Canada:0",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1252","v":"Interior Canada"},20,"Maize Cropland:Interior Canada:20",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1253","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1253*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1253*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1253*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1253","v":"Interior Canada"},40,"Maize Cropland:Interior Canada:40",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1254","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1254*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1254*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1254*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1254","v":"Interior Canada"},100,"Maize Cropland:Interior Canada:100",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1255","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1255*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1255*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1255*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A15","v":"Boreal North Canada"},0,"Maize Cropland:Boreal North Canada:0",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1256","v":"Boreal North Canada"},20,"Maize Cropland:Boreal North Canada:20",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1257","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1257*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1257*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1257*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1257","v":"Boreal North Canada"},40,"Maize Cropland:Boreal North Canada:40",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1258","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1258*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1258*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1258*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1258","v":"Boreal North Canada"},100,"Maize Cropland:Boreal North Canada:100",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1259","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1259*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1259*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1259*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A16","v":"East Canada"},0,"Maize Cropland:East Canada:0",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1260","v":"East Canada"},20,"Maize Cropland:East Canada:20",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1261","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1261*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1261*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1261*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,{"$f":"LHV_biomass/Conv_kwh_MJ","v":5.2777777777777777}]
["Maize Cropland",{"$f":"B1261","v":"East Canada"},40,"Maize Cropland:East Canada:40",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1262","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1262*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1262*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1262*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1262","v":"East Canada"},100,"Maize Cropland:East Canada:100",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1263","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1263*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1263*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1263*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
[{"$f":"A1263","v":"Maize Cropland"},{"$f":"'Transport Data'!A18","v":"Africa (tropical dry region)"},0,{"$f":"A1264&\":\"&B1264&\":\"&C1264","v":"Maize Cropland:Africa (tropical dry region):0"},{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1264","v":"Africa (tropical dry region)"},20,"Maize Cropland:Africa (tropical dry region):20",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1265","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1265*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1265*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1265*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1265","v":"Africa (tropical dry region)"},40,"Maize Cropland:Africa (tropical dry region):40",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1266","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1266*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1266*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1266*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1266","v":"Africa (tropical dry region)"},100,"Maize Cropland:Africa (tropical dry region):100",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1267","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1267*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1267*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1267*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A19","v":"Africa (tropical moist region)"},0,"Maize Cropland:Africa (tropical moist region):0",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1268","v":"Africa (tropical moist region)"},20,"Maize Cropland:Africa (tropical moist region):20",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1269","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1269*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1269*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1269*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1269","v":"Africa (tropical moist region)"},40,"Maize Cropland:Africa (tropical moist region):40",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1270","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1270*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1270*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1270*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1270","v":"Africa (tropical moist region)"},100,"Maize Cropland:Africa (tropical moist region):100",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1271","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1271*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1271*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1271*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A20","v":"Africa (tropical wet region)"},0,"Maize Cropland:Africa (tropical wet region):0",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1272","v":"Africa (tropical wet region)"},20,"Maize Cropland:Africa (tropical wet region):20",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1273","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1273*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1273*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1273*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1273","v":"Africa (tropical wet region)"},40,"Maize Cropland:Africa (tropical wet region):40",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1274","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1274*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1274*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1274*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1274","v":"Africa (tropical wet region)"},100,"Maize Cropland:Africa (tropical wet region):100",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1275","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1275*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1275*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1275*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A21","v":"Africa (tropical montane region)"},0,"Maize Cropland:Africa (tropical montane region):0",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1276","v":"Africa (tropical montane region)"},20,"Maize Cropland:Africa (tropical montane region):20",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1277","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1277*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1277*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1277*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1277","v":"Africa (tropical montane region)"},40,"Maize Cropland:Africa (tropical montane region):40",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1278","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1278*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1278*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1278*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1278","v":"Africa (tropical montane region)"},100,"Maize Cropland:Africa (tropical montane region):100",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1279","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1279*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1279*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1279*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A23","v":"North America (boreal region)"},0,"Maize Cropland:North America (boreal region):0",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1280","v":"North America (boreal region)"},20,"Maize Cropland:North America (boreal region):20",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1281","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1281*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1281*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1281*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1281","v":"North America (boreal region)"},40,"Maize Cropland:North America (boreal region):40",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1282","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1282*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1282*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1282*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1282","v":"North America (boreal region)"},100,"Maize Cropland:North America (boreal region):100",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1283","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1283*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1283*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1283*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A24","v":"North America (temperate dry region)"},0,"Maize Cropland:North America (temperate dry region):0",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1284","v":"North America (temperate dry region)"},20,"Maize Cropland:North America (temperate dry region):20",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1285","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1285*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1285*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1285*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1285","v":"North America (temperate dry region)"},40,"Maize Cropland:North America (temperate dry region):40",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1286","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1286*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1286*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1286*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1286","v":"North America (temperate dry region)"},100,"Maize Cropland:North America (temperate dry region):100",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1287","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1287*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1287*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1287*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A25","v":"North America (temperate moist region)"},0,"Maize Cropland:North America (temperate moist region):0",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1288","v":"North America (temperate moist region)"},20,"Maize Cropland:North America (temperate moist region):20",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1289","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1289*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1289*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1289*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1289","v":"North America (temperate moist region)"},40,"Maize Cropland:North America (temperate moist region):40",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1290","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1290*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1290*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1290*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1290","v":"North America (temperate moist region)"},100,"Maize Cropland:North America (temperate moist region):100",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1291","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1291*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1291*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1291*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A26","v":"North America (tropical montane region)"},0,"Maize Cropland:North America (tropical montane region):0",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1292","v":"North America (tropical montane region)"},20,"Maize Cropland:North America (tropical montane region):20",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1293","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1293*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1293*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1293*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,{"$f":"LHV_biomass/Conv_kwh_MJ","v":5.2777777777777777}]
["Maize Cropland",{"$f":"B1293","v":"North America (tropical montane region)"},40,"Maize Cropland:North America (tropical montane region):40",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1294","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1294*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1294*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1294*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1294","v":"North America (tropical montane region)"},100,"Maize Cropland:North America (tropical montane region):100",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1295","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1295*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1295*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1295*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
[{"$f":"A1295","v":"Maize Cropland"},{"$f":"'Transport Data'!A27","v":"North America (tropical dry region)"},0,"Maize Cropland:North America (tropical dry region):0",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1296","v":"North America (tropical dry region)"},20,"Maize Cropland:North America (tropical dry region):20",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1297","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1297*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1297*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1297*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1297","v":"North America (tropical dry region)"},40,"Maize Cropland:North America (tropical dry region):40",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1298","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1298*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1298*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1298*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1298","v":"North America (tropical dry region)"},100,"Maize Cropland:North America (tropical dry region):100",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1299","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1299*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1299*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1299*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A28","v":"North America (tropical moist region)"},0,"Maize Cropland:North America (tropical moist region):0",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1300","v":"North America (tropical moist region)"},20,"Maize Cropland:North America (tropical moist region):20",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1301","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1301*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1301*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1301*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1301","v":"North America (tropical moist region)"},40,"Maize Cropland:North America (tropical moist region):40",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1302","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1302*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1302*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1302*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1302","v":"North America (tropical moist region)"},100,"Maize Cropland:North America (tropical moist region):100",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1303","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1303*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1303*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1303*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A29","v":"North America (tropical wet region)"},0,"Maize Cropland:North America (tropical wet region):0",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1304","v":"North America (tropical wet region)"},20,"Maize Cropland:North America (tropical wet region):20",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1305","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1305*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1305*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1305*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1305","v":"North America (tropical wet region)"},40,"Maize Cropland:North America (tropical wet region):40",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1306","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1306*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1306*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1306*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1306","v":"North America (tropical wet region)"},100,"Maize Cropland:North America (tropical wet region):100",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1307","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1307*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1307*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1307*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A31","v":"South America (temperate dry region)"},0,"Maize Cropland:South America (temperate dry region):0",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1308","v":"South America (temperate dry region)"},20,"Maize Cropland:South America (temperate dry region):20",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1309","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1309*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1309*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1309*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1309","v":"South America (temperate dry region)"},40,"Maize Cropland:South America (temperate dry region):40",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1310","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1310*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1310*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1310*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1310","v":"South America (temperate dry region)"},100,"Maize Cropland:South America (temperate dry region):100",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1311","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1311*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1311*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1311*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A32","v":"South America (temperate moist region)"},0,"Maize Cropland:South America (temperate moist region):0",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1312","v":"South America (temperate moist region)"},20,"Maize Cropland:South America (temperate moist region):20",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1313","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1313*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1313*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1313*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1313","v":"South America (temperate moist region)"},40,"Maize Cropland:South America (temperate moist region):40",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1314","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1314*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1314*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1314*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1314","v":"South America (temperate moist region)"},100,"Maize Cropland:South America (temperate moist region):100",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1315","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1315*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1315*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1315*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A33","v":"South America (tropical montane region)"},0,"Maize Cropland:South America (tropical montane region):0",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1316","v":"South America (tropical montane region)"},20,"Maize Cropland:South America (tropical montane region):20",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1317","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1317*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1317*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1317*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1317","v":"South America (tropical montane region)"},40,"Maize Cropland:South America (tropical montane region):40",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1318","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1318*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1318*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1318*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1318","v":"South America (tropical montane region)"},100,"Maize Cropland:South America (tropical montane region):100",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1319","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1319*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1319*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1319*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A34","v":"South America (tropical dry region)"},0,"Maize Cropland:South America (tropical dry region):0",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1320","v":"South America (tropical dry region)"},20,"Maize Cropland:South America (tropical dry region):20",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1321","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1321*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1321*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1321*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1321","v":"South America (tropical dry region)"},40,"Maize Cropland:South America (tropical dry region):40",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1322","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1322*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1322*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1322*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1322","v":"South America (tropical dry region)"},100,"Maize Cropland:South America (tropical dry region):100",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1323","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1323*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1323*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1323*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A35","v":"South America (tropical moist region)"},0,"Maize Cropland:South America (tropical moist region):0",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1324","v":"South America (tropical moist region)"},20,"Maize Cropland:South America (tropical moist region):20",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1325","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1325*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1325*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1325*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,{"$f":"LHV_biomass/Conv_kwh_MJ","v":5.2777777777777777}]
["Maize Cropland",{"$f":"B1325","v":"South America (tropical moist region)"},40,"Maize Cropland:South America (tropical moist region):40",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1326","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1326*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1326*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1326*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1326","v":"South America (tropical moist region)"},100,"Maize Cropland:South America (tropical moist region):100",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1327","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1327*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1327*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1327*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
[{"$f":"A1327","v":"Maize Cropland"},{"$f":"'Transport Data'!A36","v":"South America (tropical wet region)"},0,{"$f":"A1328&\":\"&B1328&\":\"&C1328","v":"Maize Cropland:South America (tropical wet region):0"},{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1328","v":"South America (tropical wet region)"},20,"Maize Cropland:South America (tropical wet region):20",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1329","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1329*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1329*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1329*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1329","v":"South America (tropical wet region)"},40,"Maize Cropland:South America (tropical wet region):40",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1330","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1330*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1330*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1330*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1330","v":"South America (tropical wet region)"},100,"Maize Cropland:South America (tropical wet region):100",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1331","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1331*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1331*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1331*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A38","v":"Asia Continental (boreal region)"},0,"Maize Cropland:Asia Continental (boreal region):0",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1332","v":"Asia Continental (boreal region)"},20,"Maize Cropland:Asia Continental (boreal region):20",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1333","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1333*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1333*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1333*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1333","v":"Asia Continental (boreal region)"},40,"Maize Cropland:Asia Continental (boreal region):40",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1334","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1334*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1334*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1334*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1334","v":"Asia Continental (boreal region)"},100,"Maize Cropland:Asia Continental (boreal region):100",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1335","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1335*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1335*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1335*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A39","v":"Asia Continental (tropical dry region)"},0,"Maize Cropland:Asia Continental (tropical dry region):0",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1336","v":"Asia Continental (tropical dry region)"},20,"Maize Cropland:Asia Continental (tropical dry region):20",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1337","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1337*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1337*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1337*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1337","v":"Asia Continental (tropical dry region)"},40,"Maize Cropland:Asia Continental (tropical dry region):40",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1338","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1338*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1338*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1338*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1338","v":"Asia Continental (tropical dry region)"},100,"Maize Cropland:Asia Continental (tropical dry region):100",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1339","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1339*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1339*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1339*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A40","v":"Asia Continental (tropical wet region)"},0,"Maize Cropland:Asia Continental (tropical wet region):0",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1340","v":"Asia Continental (tropical wet region)"},20,"Maize Cropland:Asia Continental (tropical wet region):20",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1341","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1341*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1341*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1341*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1341","v":"Asia Continental (tropical wet region)"},40,"Maize Cropland:Asia Continental (tropical wet region):40",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1342","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1342*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1342*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1342*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1342","v":"Asia Continental (tropical wet region)"},100,"Maize Cropland:Asia Continental (tropical wet region):100",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1343","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1343*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1343*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1343*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A41","v":"Asia Continental (tropical moist region)"},0,"Maize Cropland:Asia Continental (tropical moist region):0",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1344","v":"Asia Continental (tropical moist region)"},20,"Maize Cropland:Asia Continental (tropical moist region):20",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1345","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1345*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1345*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1345*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1345","v":"Asia Continental (tropical moist region)"},40,"Maize Cropland:Asia Continental (tropical moist region):40",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1346","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1346*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1346*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1346*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1346","v":"Asia Continental (tropical moist region)"},100,"Maize Cropland:Asia Continental (tropical moist region):100",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1347","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1347*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1347*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1347*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A42","v":"Asia Continental (tropical montane region)"},0,"Maize Cropland:Asia Continental (tropical montane region):0",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1348","v":"Asia Continental (tropical montane region)"},20,"Maize Cropland:Asia Continental (tropical montane region):20",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1349","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1349*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1349*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1349*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1349","v":"Asia Continental (tropical montane region)"},40,"Maize Cropland:Asia Continental (tropical montane region):40",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1350","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1350*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1350*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1350*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1350","v":"Asia Continental (tropical montane region)"},100,"Maize Cropland:Asia Continental (tropical montane region):100",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1351","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1351*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1351*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1351*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A44","v":"Asia Insular (tropical dry region)"},0,"Maize Cropland:Asia Insular (tropical dry region):0",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1352","v":"Asia Insular (tropical dry region)"},20,"Maize Cropland:Asia Insular (tropical dry region):20",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1353","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1353*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1353*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1353*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1353","v":"Asia Insular (tropical dry region)"},40,"Maize Cropland:Asia Insular (tropical dry region):40",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1354","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1354*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1354*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1354*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1354","v":"Asia Insular (tropical dry region)"},100,"Maize Cropland:Asia Insular (tropical dry region):100",{"$f":"'Reference Data'!$B$27","v":0.57999999999999996},{"$f":"'Reference Data'!$C$27","v":0.30499999999999999},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1355","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1355*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1355*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1355*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A45","v":"Asia Insular (tropical moist region)"},0,"Maize Cropland:Asia Insular (tropical moist region):0",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1356","v":"Asia Insular (tropical moist region)"},20,"Maize Cropland:Asia Insular (tropical moist region):20",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1357","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1357*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1357*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1357*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,{"$f":"LHV_biomass/Conv_kwh_MJ","v":5.2777777777777777}]
["Maize Cropland",{"$f":"B1357","v":"Asia Insular (tropical moist region)"},40,"Maize Cropland:Asia Insular (tropical moist region):40",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1358","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1358*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1358*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1358*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1358","v":"Asia Insular (tropical moist region)"},100,"Maize Cropland:Asia Insular (tropical moist region):100",{"$f":"'Reference Data'!$B$28","v":0.48},{"$f":"'Reference Data'!$C$28","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1359","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1359*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1359*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1359*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
[{"$f":"A1359","v":"Maize Cropland"},{"$f":"'Transport Data'!A46","v":"Asia Insular (tropical wet region)"},0,"Maize Cropland:Asia Insular (tropical wet region):0",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1360","v":"Asia Insular (tropical wet region)"},20,"Maize Cropland:Asia Insular (tropical wet region):20",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1361","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1361*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1361*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1361*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1361","v":"Asia Insular (tropical wet region)"},40,"Maize Cropland:Asia Insular (tropical wet region):40",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1362","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1362*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1362*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1362*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1362","v":"Asia Insular (tropical wet region)"},100,"Maize Cropland:Asia Insular (tropical wet region):100",{"$f":"'Reference Data'!$B$29","v":0.48},{"$f":"'Reference Data'!$C$29","v":0.23},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1363","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1363*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1363*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1363*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A47","v":"Asia Insular (tropical montane region)"},0,"Maize Cropland:Asia Insular (tropical montane region):0",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1364","v":"Asia Insular (tropical montane region)"},20,"Maize Cropland:Asia Insular (tropical montane region):20",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1365","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1365*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1365*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1365*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1365","v":"Asia Insular (tropical montane region)"},40,"Maize Cropland:Asia Insular (tropical montane region):40",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1366","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1366*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1366*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1366*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1366","v":"Asia Insular (tropical montane region)"},100,"Maize Cropland:Asia Insular (tropical montane region):100",{"$f":"'Reference Data'!$B$30","v":0.64},{"$f":"'Reference Data'!$C$30","v":0.25},1,1.36,0.54,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1367","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1367*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1367*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1367*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A49","v":"Europe (boreal region)"},0,"Maize Cropland:Europe (boreal region):0",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1368","v":"Europe (boreal region)"},20,"Maize Cropland:Europe (boreal region):20",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1369","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1369*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1369*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1369*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1369","v":"Europe (boreal region)"},40,"Maize Cropland:Europe (boreal region):40",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1370","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1370*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1370*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1370*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1370","v":"Europe (boreal region)"},100,"Maize Cropland:Europe (boreal region):100",{"$f":"'Reference Data'!$B$22","v":0.8},{"$f":"'Reference Data'!$C$22","v":4.4999999999999998E-2},1,0.16,0.08,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1371","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1371*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1371*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1371*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A50","v":"Europe (temperate dry region)"},0,"Maize Cropland:Europe (temperate dry region):0",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1372","v":"Europe (temperate dry region)"},20,"Maize Cropland:Europe (temperate dry region):20",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1373","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1373*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1373*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1373*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1373","v":"Europe (temperate dry region)"},40,"Maize Cropland:Europe (temperate dry region):40",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1374","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1374*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1374*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1374*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1374","v":"Europe (temperate dry region)"},100,"Maize Cropland:Europe (temperate dry region):100",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1375","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1375*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1375*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1375*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A51","v":"Europe (temperate moist region)"},0,"Maize Cropland:Europe (temperate moist region):0",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1376","v":"Europe (temperate moist region)"},20,"Maize Cropland:Europe (temperate moist region):20",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1377","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1377*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1377*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1377*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1377","v":"Europe (temperate moist region)"},40,"Maize Cropland:Europe (temperate moist region):40",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1378","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1378*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1378*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1378*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1378","v":"Europe (temperate moist region)"},100,"Maize Cropland:Europe (temperate moist region):100",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1379","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1379*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1379*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1379*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A53","v":"New Zealand (temperate dry region)"},0,"Maize Cropland:New Zealand (temperate dry region):0",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1380","v":"New Zealand (temperate dry region)"},20,"Maize Cropland:New Zealand (temperate dry region):20",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1381","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1381*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1381*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1381*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1381","v":"New Zealand (temperate dry region)"},40,"Maize Cropland:New Zealand (temperate dry region):40",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1382","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1382*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1382*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1382*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1382","v":"New Zealand (temperate dry region)"},100,"Maize Cropland:New Zealand (temperate dry region):100",{"$f":"'Reference Data'!$B$23","v":0.8},{"$f":"'Reference Data'!$C$23","v":4.4999999999999998E-2},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1383","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1383*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1383*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1383*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"'Transport Data'!A54","v":"New Zealand (temperate moist region)"},0,"Maize Cropland:New Zealand (temperate moist region):0",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,null,null,null,null,null,null,null,0,0,0,0,0,0,1,0,0]
["Maize Cropland",{"$f":"B1384","v":"New Zealand (temperate moist region)"},20,"Maize Cropland:New Zealand (temperate moist region):20",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1385","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1385*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1385*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1385*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1385","v":"New Zealand (temperate moist region)"},40,"Maize Cropland:New Zealand (temperate moist region):40",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1386","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1386*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1386*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1386*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["Maize Cropland",{"$f":"B1386","v":"New Zealand (temperate moist region)"},100,"Maize Cropland:New Zealand (temperate moist region):100",{"$f":"'Reference Data'!$B$24","v":0.69},{"$f":"'Reference Data'!$C$24","v":0.06},1,0.68,0.27,0,"Annual Crop, no permenant carbon.",17,"Ofgem, 2013.",{"$f":"L1387","v":17},0,0,0,0,0,0,1,0,0,27,{"$f":"((N1387*Diesel_maize_harvest+Diesel_maize)*EF_diesel+Pesticide_maize*EF_Pest+P2O5_maize*EF_Pfert+K2O_maize*EF_Kfert+Seeds_maize*EF_Maizeseed)/Conv_te_kg","v":0.39122864999999996},{"$f":"((N1387*Diesel_maize_harvest+Diesel_maize)*En_F_diesel+Pesticide_maize*En_F_Pest+P2O5_maize*En_F_Pfert+K2O_maize*En_F_Kfert+Seeds_maize*En_Maizeseed)/Conv_MWh_KWh","v":1.3919021763754045},{"$f":"((N1387*Diesel_maize_harvest+Diesel_maize)*En_F_diesel*Prim_En_Diesel+Pesticide_maize*En_F_Pest*Prim_En_CropProtect+P2O5_maize*En_F_Pfert*Prim_En_Pfert+K2O_maize*En_F_Kfert*Prim_En_Kfert+Seeds_maize*En_Maizeseed*Prim_En_Maizeseed)/Conv_MWh_KWh","v":1.4605099860841424},0,0,0,"See constants tab for assumptions of energy requirements",{"$f":"'Reference Data'!$D$142/Conv_te_kg","v":5.2800000000000004E-4},{"$f":"'Reference Data'!$E$142/Conv_te_kg","v":7.0399999999999998E-4},"Anderson-Teixei and Delucia, 2011. Includes N2O emissions from residues and debris. ",{"$f":"'Reference Data'!$D$166","v":-2.0075200000000001E-3},{"$f":"'Reference Data'!$E$166","v":1.00376E-3},"Anderson-Teixei and Delucia, 2011.",{"$f":"Lists!$A$390","v":"Maize Whole Crop (70 wt% moisture)"},null,null,null,5.2777777777777777]
["New type add here, then insert rows above"]
[]
[]
["Irrigation Energy Requirement"]
["Selected Data for New Land Use (selected from Land Table 3)","Mean","Units","Error"]
["Chosen total dynamic head",{"$f":"INDEX('Land Data'!B1398:B1399,MATCH(Results_Biopathways!$C$44,'Land Data'!$A$1398:$A$1399,0))","v":150},"m",{"$f":"INDEX('Land Data'!C1398:C1399,MATCH(Results_Biopathways!$C$44,'Land Data'!$A$1398:$A$1399,0))","v":75}]
["Chosen efficiency",{"$f":"INDEX('Land Data'!$B$1401:$B$1402,MATCH(Chosen_irrigation_power,'Land Data'!$A$1401:$A$1402,0))","v":0.85},null,{"$f":"INDEX('Land Data'!$C$1401:$C$1402,MATCH(Chosen_irrigation_power,'Land Data'!$A$1401:$A$1402,0))","v":8.5000000000000006E-2}]
[]
["Land Data Table 3. Irrigation Parameters"]
[null,"Mean Total Dynamic Head","Error","Reference"]
[{"$f":"Lists!A411","v":"Rivers/lakes"},75,{"$f":"Error_pump_head*B1398","v":37.5},"Stephenson et al., 2010, . Specific to South Africa, so more data required to back this up."]
[{"$f":"Lists!A412","v":"Ground Water"},150,{"$f":"Error_pump_head*B1399","v":75},"Stephenson et al., 2010, . Specific to South Africa, so more data required to back this up."]
[null,"Efficiency","Error"]
[{"$f":"Lists!A415","v":"Diesel Pump"},0.4,{"$f":"B1401*Error_pump_efficiency","v":4.0000000000000008E-2}]
[{"$f":"Lists!A416","v":"Electrical Pump"},0.85,{"$f":"B1402*Error_pump_efficiency","v":8.5000000000000006E-2}]
[]
[]
["N2O from Fertilisers and Crop Residues"]
["Note: IPCC Tier 1 Accounts for increased nitrification, denitrofication, leaching, run off"]
["Note: Manure from livestock is not included"]
[]
["Land Data Table 4. Nitrous Oxide Parameters"]
[null,"Applicable to inputs to soil from:","Fraction F","Upper Error in range","Emissions Factor EF","Upper Error in range","kg N2O/kg N ","kg N2O/kg N (in form of fertilsier or crop residue)"]
["Direct N2O (N volatilisation from soils)","N Fertiliser and crop residues",1,0,0.01,{"$f":"0.03-E1411","v":1.9999999999999997E-2},{"$f":"C1411*E1411*MM_N2O/MM_N2","v":1.5714285714285715E-2},{"$f":"G1411*((D1411/C1411)^2+(F1411/E1411)^2)^0.5","v":3.1428571428571424E-2}]
["Indirect Volatilisation","N Fertiliser only",0.1,0.2,0.01,{"$f":"0.05-E1412","v":0.04},{"$f":"C1412*E1412*MM_N2O/MM_N2","v":1.5714285714285713E-3},{"$f":"G1412*((D1412/C1412)^2+(F1412/E1412)^2)^0.5","v":7.0276422149993384E-3}]
["Indirect Leaching","N Fertiliser and crop residues",0.3,0.5,7.4999999999999997E-3,{"$f":"0.025-E1413","v":1.7500000000000002E-2},{"$f":"C1413*E1413*MM_N2O/MM_N2","v":3.5357142857142853E-3},{"$f":"G1413*((D1413/C1413)^2+(F1413/E1413)^2)^0.5","v":1.0138454779014523E-2}]
[]
["Aggregated N2O Emissions","Mean","Error","Unit","Name"]
["Land Conversion N Fertiliser to N2O",{"$f":"G1411+G1412+G1413","v":2.0821428571428571E-2},{"$f":"(H1411^2+H1412^2+H1413^2)^0.5","v":3.37628660283599E-2},"kg N2O/kg N Fertiliser applied","Conv_Nfert_N2O"]
["Lnad Conversion N Residue to N2O",{"$f":"G1411+G1413","v":1.925E-2},{"$f":"(H1411^2+H1413^2)^0.5","v":3.3023376074334657E-2},"kg N2O/kg N in crop residue","Conv_Nres_N2O"]
[]
["Decay Function of Forest Residues"]
["Exponential decay function coarse residues",{"$f":"'Land Data'!B26","v":2.8000000000000001E-2},"y-1",null,{"$f":"'Land Data'!E26","v":"Chambers et al., 2000. Specific to forests in Pacific North USA. No data for UK, therefore assume similar to Pacific North West USA, as both temperate climtes. "}]
["Exponential decay function fine residues",{"$f":"'Land Data'!B27","v":0.185},"y-1",null,{"$f":"'Land Data'!E27","v":"Mattson, 1987. Specific to South East USA, however, decay rate of fine residues not shown to vary with location in temperate regions. "}]
["User selected decay function",{"$f":"Results_Biopathways!C34","v":0.185}]
[]
["Land Data Table 5. The table below calculates the reduction in carbon stored on the land caused by increased removal of forest residues."]
["time","Total Residue out over Time Horizon, assuming 1 odt/ha/y removed","Reduction in carbon stored on land continuous removal of residues over time frame","Reduction in C Stock per odt residues harvested over time horizon","Proportion of total residue harvested over time frame that would remain if left in the forest","Total Residues out over Time Horizon, assuming 1 odt/ha/y removed for 15 y only","Reduction in carbon stored on land from removal of residues for 15y","Reduction in C Stock per odt residues harvested over time horizon","Proportion of total residues harvested over time frame that would remain if left in the forest"]
["year","odt/ha","t C/ha","t CO2/odt residues","%","odt/ha","t C/ha","t CO2/odt residues","%"]
[0,1,{"$f":"(-1/$B$1422)*(EXP(-$B$1422*A1428)-EXP(-$B$1422*$A$1427))*C_biomass","v":0.42908641399730235},{"$f":"C1427*MM_CO2/MM_C/B1427","v":1.5733168513234419},{"$f":"C1427/C_biomass/B1427","v":0.91294981701553701},1,{"$f":"(-1/$B$1422)*(EXP(-$B$1422*A1428)-EXP(-$B$1422*$A$1427))*C_biomass","v":0.42908641399730235},{"$f":"G1427*MM_CO2/MM_C/F1427","v":1.5733168513234419},{"$f":"G1427/C_biomass/F1427","v":0.91294981701553701}]
[{"$f":"A1427+1","v":1},{"$f":"$B$1427*(A1428+1)","v":2},{"$f":"(-1/$B$1422)*(EXP(-$B$1422*A1429)-EXP(-$B$1422*$A$1427))*C_biomass","v":0.78570197081320692},{"$f":"C1428*MM_CO2/MM_C/B1428","v":1.4404536131575461},{"$f":"C1428/C_biomass/B1428","v":0.83585316043958191},{"$f":"$F$1427*(A1428+1)","v":2},0.78570197081320692,1.4404536131575461,0.83585316043958191]
[2,3,{"$f":"(-1/$B$1422)*(EXP(-$B$1422*A1430)-EXP(-$B$1422*$A$1427))*C_biomass","v":1.0820866877712163},{"$f":"C1429*MM_CO2/MM_C/B1429","v":1.32255039616482},{"$f":"C1429/C_biomass/B1429","v":0.76743736721362865},3,1.0820866877712163,1.32255039616482,0.76743736721362865]
[3,4,1.3284132957033177,1.2177121877280412,0.70660281686346693,4,1.3284132957033177,1.2177121877280412,0.70660281686346693]
[4,5,1.5331363947824503,1.1243000228404634,0.65239846586487249,5,1.5331363947824503,1.1243000228404634,0.65239846586487249]
[5,6,1.7032826394306004,1.0408949463187003,0.60400093596829807,6,1.7032826394306004,1.0408949463187003,0.60400093596829807]
[6,7,1.84469191223903,0.96626719212520629,0.56069662985988755,7,1.84469191223903,0.96626719212520629,0.56069662985988755]
[7,8,1.9622177646465297,0.8993498087963262,0.52186642676769412,8,1.9622177646465297,0.8993498087963262,0.52186642676769412]
[8,9,2.0598940040457756,0.83921607572235302,0.48697257778859943,9,2.0598940040457756,0.83921607572235302,0.48697257778859943]
[9,10,2.1410731450410543,{"$f":"C1436*MM_CO2/MM_C/B1436","v":0.78506015318171984},{"$f":"C1436/C_biomass/B1436","v":0.45554747766830939},10,2.1410731450410543,0.78506015318171984,0.45554747766830939]
[10,11,2.208541476881666,0.73618049229388871,0.42718403808156019,11,2.208541476881666,0.73618049229388871,0.42718403808156019]
[11,12,2.264614696498755,0.69196560170795296,0.40152742845722611,12,2.264614696498755,0.69196560170795296,0.40152742845722611]
[12,13,2.3112173895318988,0.65188182781668935,0.37826798519343685,13,2.3112173895318988,0.65188182781668935,0.37826798519343685]
[13,14,2.3499490873507907,0.61546285621092134,0.3571351196581749,14,2.3499490873507907,0.61546285621092134,0.3571351196581749]
[14,15,2.3821391673289378,0.58230068534707369,0.33789208047218977,15,{"$f":"(-1/$B$1422)*(EXP(-$B$1422*A1442)-EXP(-$B$1422*A1427))*C_biomass","v":2.3821391673289378},0.58230068534707369,0.33789208047218977]
[15,16,2.4088924806963181,0.5520378601595729,0.32033144690110615,{"$f":"F1441","v":15},1.9798060666990156,0.4839525940819816,0.2808235555601441]
[16,17,2.4311272740431864,0.52436078459755009,0.30427124831579305,15,1.6454253032299793,0.40221507412288388,0.23339366003262116]
[17,18,2.4496067060443347,0.49899395863866075,0.28955162009980318,15,1.3675200182731186,0.33428267113342902,0.1939744706770381]
[18,19,2.4649650411436439,0.47569500794000147,0.27603191950096795,15,1.1365517454403258,0.27782375999652409,0.1612130135376349]
[19,20,2.4777294192375159,0.4542503935268779,0.26358823608909743,15,0.94459302445506554,0.23090051708901602,0.13398482616383908]
[20,21,2.4883379485520409,0.43447170530273727,0.25211124098804877,15,0.78505530912144061,0.19190240889635216,0.11135536299594903]
[21,22,2.4971547427107144,0.41619245711845243,0.24150432714803813,15,0.65246283047168407,0.15949091411530056,9.2547919215841726E-2]
[22,23,2.5044824181058294,0.39926531303136409,0.23168199982477608,15,0.54226465345929986,0.13255358195671774,7.6916972121886515E-2]
[23,24,2.5105724805173875,0.38355968452348971,0.22256848231537127,15,0.45067847647161247,0.11016584980417193,6.3926025031434394E-2]
[24,25,2.5156339574765605,0.3689596470965622,0.21409650701928176,15,0.37456081243550648,9.1559309706457134E-2,5.3129193253263339E-2]
[25,26,2.5198405726599482,0.35536213204178757,0.20620626617511853,15,0.31129909577828196,7.6095334523580027E-2,4.4155900110394608E-2]
[26,27,2.5233367085593783,0.34267535548337236,0.19884450028048686,15,0.25872201206062345,6.3243158503707958E-2,3.669815773909553E-2]
[27,28,2.5262423620823244,0.33081745217744724,0.1919637053254046,15,0.21502497255042544,5.2561659956770659E-2,3.0499996106443328E-2]
[28,29,2.5286572631726352,0.31971528614826422,0.1855214426392249,15,0.17870817582184434,4.3684220756450842E-2,2.5348677421538204E-2]
[29,30,2.5306642978138711,0.30930341417725088,0.17947973743360787,15,0.14852513048493365,3.6306143007428224E-2,2.106739439502605E-2]
[30,31,2.5323323529020421,0.29952318152604801,0.17380455407701045,15,0.1234398722057243,3.0174190983621497E-2,1.7509201731308415E-2]
[31,32,2.5337186806315226,0.29032193215569529,0.16846533780794698,15,0.1025914065883364,2.5077899388260012E-2,1.4551972565721476E-2]
[32,33,{"$f":"(-1/$B$1422)*(EXP(-$B$1422*A1460)-EXP(-$B$1422*$A$1427))*C_biomass","v":2.5348708635463169},{"$f":"C1459*MM_CO2/MM_C/B1459","v":0.28165231817181297},{"$f":"C1459/C_biomass/B1459","v":0.16343461402619708},15,8.5264157501981547E-2,{"$f":"G1459*MM_CO2/MM_C/F1459","v":2.0842349611595489E-2},{"$f":"G1459/C_biomass/F1459","v":1.2094206737869725E-2}]
[{"$f":"A1459+1","v":33},{"$f":"$B$1427*(A1460+1)","v":34},2.5358284477025834,0.27347169534047466,0.15868763752832188,15,7.0863406558939232E-2,1.7322166047740704E-2,1.005154702963677E-2]
[34,35,2.5366242999970057,0.26574159333301967,0.15420208510620095,15,5.8894880759489211E-2,1.4396526407875141E-2,8.3538837956722289E-3]
[35,36,2.5372857362482129,0.25842725091416985,0.14995778583027264,15,4.8947787696171641E-2,1.1965014770175288E-2,6.9429486093860486E-3]
[36,37,2.5378354587500866,0.2514972076238825,0.14593648411443857,15,4.0680716039372587E-2,9.9441750318466325E-3,5.7703143318258996E-3]
[37,38,2.5382923354763243,0.2449229446512243,0.14212163132566205,15,3.3809917370494456E-2,8.2646464683430888E-3,4.7957329603538238E-3]
[38,39,2.5386720476806919,0.23867856858536415,0.13849820227390572,15,2.8099567163304352E-2,6.8687830843632862E-3,3.985754207560901E-3]
[39,40,2.5389876281203732,{"$f":"C1466*MM_CO2/MM_C/B1466","v":0.23274053257770086},0.13505253341065815,15,2.3353670643812757E-2,5.7086750462653404E-3,3.3125773962854972E-3]
[40,41,2.5392499083756923,0.22708739017993998,0.13177217998835974,15,1.9409335715744418E-2,4.7445042860708581E-3,2.7530972646445987E-3]
[41,42,2.5394678906194579,0.22169957775249238,0.12864578979835148,15,1.6131182060079245E-2,3.9431778369082597E-3,2.2881109305076942E-3]
[42,43,2.5396490565960552,0.21655922188028379,0.12566299141989387,15,1.3406694513730421E-2,3.277191992245214E-3,1.9016587962738187E-3]
[43,44,2.5397996244152932,0.21164996870127439,0.12281429518449194,15,1.1142361242658138E-2,2.7236883037608781E-3,1.5804767720082465E-3]
[44,45,2.5399247619748722,0.20695683245721183,0.12009100529432019,15,9.2604641610010748E-3,2.263669017133596E-3,1.3135410157448335E-3]
[45,46,2.5400287643367094,0.20246606092538991,0.11748514173620304,15,7.6964114346670708E-3,1.8813450173630617E-3,1.091689565201003E-3]
[46,47,2.5401152011451629,0.19816501569217582,0.11498937080783897,15,{"$f":"(-1/$B$1422)*(EXP(-$B$1422*A1474)-EXP(-$B$1422*A1459))*C_biomass","v":6.3965205136402893E-3},1.5635939033342928E-3,9.073078742752184E-4]
[47,48,2.540187039146951,0.19404206549039207,0.1125969432245989,{"$f":"F1473","v":15},5.3161756006344452E-3,1.2995095912661976E-3,7.5406746108290003E-4]
[48,49,2.5402467440179808,0.19008649104896458,0.11030163890655582,15,4.4182963153974325E-3,1.0800279882082614E-3,6.2670869721949396E-4]
[49,50,2.5402963649920598,0.18628840009941772,0.10809771765923661,15,3.6720649950548706E-3,8.9761588768007955E-4,5.2086028298650657E-4]
[50,51,2.5403376051961866,0.1826386513539742,0.1059798750603332,15,3.0518689479735357E-3,7.4601240950464222E-4,4.3288921247851568E-4]
[51,52,2.5403718801065027,0.17912878641776622,0.10394320295034791,15,2.5364213564160868E-3,6.2001410934615453E-4,3.5977607892426764E-4]
[52,53,2.5404003661312955,0.17575096872606447,0.10198315399965056,15,2.1080306549714277E-3,5.1529638232634901E-4,2.9901144042147909E-4]
[53,54,2.5404240409885301,0.17249792870909772,0.100095509889225,15,1.7519933078383567E-3,4.2826503080493162E-4,2.485096890550861E-4]
[54,55,2.5404437172637979,0.1693629144842532,9.8276352698792965E-2,15,1.4560891434247133E-3,3.5593290172604105E-4,2.0653746715244161E-4]
[55,56,2.5404600703004632,0.16633964746014937,9.6522039145154379E-2,15,1.2101619247708519E-3,2.958173593884305E-4,1.71654173726362E-4]
[56,57,2.54047366137929,0.16342228231094849,9.4829177356449787E-2,15,1.0057707598317893E-3,2.4585507462554848E-4,1.4266251912507653E-4]
[57,58,2.5404849569831245,0.16060537084376075,9.3194605905470448E-2,15,8.3590038706940711E-4,2.0433120572807727E-4,1.1856743078998683E-4]
[58,59,2.5404943448078603,0.15788382933834161,9.1615374857838452E-2,15,6.9472039256703369E-4,1.6982054040527492E-4,9.8541899654898407E-5]
[59,60,2.5405021470692142,0.15525290898756308,9.0088728619475686E-2,15,5.7738509434189305E-4,1.411385786169072E-4,8.1898594942112496E-5]
[60,61,2.5405086315620493,0.15270816911028712,8.861209039281652E-2,15,4.7986722533991083E-4,1.1730087730531155E-4,6.8066273097859697E-5]
[61,62,2.5405140208518229,0.15024545284607554,8.7183048073157965E-2,15,3.9881970666023295E-4,9.7489261628056934E-5,5.6570171157479854E-5]
[62,63,2.5405184999136412,0.1478608650743389,8.5799341435786602E-2,15,3.3146076668996813E-4,8.1023742968658886E-5,4.7015711587229526E-5]
[63,64,2.5405222224811057,0.14555075232964668,8.4458850481419739E-2,15,2.7547846312494243E-4,6.7339179874985932E-5,3.9074959308502473E-5]
[64,65,{"$f":"(-1/$B$1422)*(EXP(-$B$1422*A1492)-EXP(-$B$1422*$A$1427))*C_biomass","v":2.540525316322872},{"$f":"C1491*MM_CO2/MM_C/B1491","v":0.14331168451052098},{"$f":"C1491/C_biomass/B1491","v":8.3159584822352611E-2},15,2.2895133081213932E-4,{"$f":"G1491*MM_CO2/MM_C/F1491","v":5.5965880865189618E-5},{"$f":"G1491/C_biomass/F1491","v":3.2475366072643874E-5}]
[{"$f":"A1491+1","v":65},{"$f":"$B$1427*(A1492+1)","v":66},2.5405278876280182,0.14114043820155656,8.1899674004771716E-2,15,1.9028243183161407E-4,4.651348333661677E-5,2.6990415862640294E-5]
[66,67,2.5405300246507401,0.13903398144854795,8.0677358674205779E-2,15,1.5814454423705471E-4,3.8657555257946704E-5,2.2431850246390742E-5]
[67,68,2.5405318007394784,0.1369894598437954,7.9490982501235249E-2,15,1.3143460818325811E-4,3.2128459778129762E-5,1.8643206834504697E-5]
[68,69,2.5405332768544375,0.13500418379419715,7.8338984793538013E-2,15,1.0923586590753142E-4,2.6702100555174348E-5,1.5494449064898075E-5]
[69,70,2.5405345036599041,0.13307561685837591,7.7219893728264571E-2,15,9.0786396106045663E-5,2.2192230159255607E-5,1.2877502993765344E-5]
[70,71,2.5405355232631823,0.13120136505115026,7.6132320145735163E-2,15,7.5452962719230611E-5,1.8444057553589703E-5,1.0702547903436968E-5]
[71,72,2.5405363706598352,0.12937916702434346,7.5074951851649974E-2,15,6.270928054528725E-5,1.5328935244403551E-5,8.8949334106790426E-6]
[72,73,2.5405370749348228,0.12760688504238837,7.4046548380496152E-2,15,5.2117951698472974E-5,1.2739943748515615E-5,7.3926172621947493E-6]
[73,74,2.5405376602607825,0.12588249667958834,7.3045936177710824E-2,15,4.3315452922199109E-5,1.0588221825426448E-5,6.1440358754892358E-6]
[74,75,2.5405381467276951,0.12420408717335399,7.207200416248781E-2,15,3.5999658480634743E-5,8.7999165174884914E-6,5.106334536260248E-6]
[75,76,2.5405385510324296,0.12256984237437162,7.1123699636966117E-2,15,2.9919470380469021E-5,7.3136483152257612E-6,4.2438965078679465E-6]
[76,77,2.5405388870518268,0.12097804224056317,7.0200024510965103E-2,15,2.4866200003794578E-5,6.0784044453720084E-6,3.527120567914125E-6]
[77,78,2.5405391663189874,0.11942705482696095,6.9300031814484103E-2,15,2.0666405346277446E-5,5.0517879735344871E-6,2.9314050136563754E-6]
[78,79,2.5405393984191207,0.11791533072831362,6.8422822472909262E-2,15,{"$f":"(-1/$B$1422)*(EXP(-$B$1422*A1506)-EXP(-$B$1422*A1491))*C_biomass","v":1.7175938015115648E-5},4.1985626259171581E-6,2.4363032645554112E-6]
[79,80,2.5405395913185358,0.11644139793543289,6.7567542322301485E-2,{"$f":"F1505","v":15},1.4274995663541183E-5,3.4894433844211781E-6,2.0248220799349196E-6]
[80,81,2.5405397516380659,0.11500385707003591,6.6733379344314836E-2,15,1.1864010047939609E-5,2.9000913450519043E-6,1.682838304672285E-6]
[81,82,2.5405398848803142,0.11360137696619292,6.5919561102239607E-2,15,9.8602295745072694E-6,2.4102783404351105E-6,1.3986141240435843E-6]
[82,83,2.5405399956185173,0.11223269056949274,6.5125352361407776E-2,15,8.1948790391384085E-6,2.0031926540116111E-6,1.1623941899487106E-6]
[83,84,2.5405400876535129,0.11089659112773272,6.4350052878761735E-2,15,6.8107990750779188E-6,1.664861996130158E-6,9.6607079079119429E-7]
[84,85,2.5405401641441916,0.1095919286493573,6.3592995347789533E-2,15,5.6604842877533618E-6,1.3836739370063773E-6,8.0290557273097341E-7]
[85,86,2.540540227715923,0.10831760660804322,6.2853543486292004E-2,15,4.704452740229466E-6,1.1499773365005363E-6,6.6729826102545619E-7]
[86,87,2.5405402805506605,0.10707257887378263,6.2131090255579863E-2,15,3.9098908255845769E-6,9.5575109069845199E-7,5.5459444334533005E-7]
[87,88,2.5405403244618374,0.10585584685257655,6.142505620072141E-2,15,3.2495270145374716E-6,7.943288257758264E-7,4.6092581766488958E-7]
[88,89,2.5405403609566046,0.10466645681843691,6.0734887902381178E-2,15,2.700695822275299E-6,6.6017008988951755E-7,3.8307742159933322E-7]
[89,90,2.5405403912875624,0.10350349742282661,6.0060056531620859E-2,15,2.2445598672745389E-6,5.4867018977822063E-7,3.1837728613823252E-7]
[90,91,2.5405404164957508,0.10236609736796065,5.9400056499783742E-2,15,1.8654633210544272E-6,4.5600214514663777E-7,2.6460472639069889E-7]
[91,92,2.5405404374463845,0.10125342323155881,5.8754404196262364E-2,15,1.5503945574973497E-6,3.7898533627712991E-7,2.1991412163082973E-7]
[92,93,2.5405404548585455,0.10016467743169893,5.8122636807562245E-2,15,1.2885395583970672E-6,3.1497633649706088E-7,1.827715685669599E-7]
[93,94,2.5405404693298674,9.9099096321377797E-2,5.7504311211631229E-2,15,1.0709107468967284E-6,2.6177818257475582E-7,1.5190223360237283E-7]
[94,95,2.5405404813570449,9.8055948403254364E-2,5.6899002941927103E-2,15,8.9003850936914986E-7,2.1756496895690328E-7,1.2624659707363829E-7]
[95,96,2.5405404913528837,9.7034532655839292E-2,5.6306305216154345E-2,15,7.3971481793006171E-7,1.808191777162373E-7,1.0492408764965416E-7]
[96,97,2.5405404996604681,{"$f":"C1523*MM_CO2/MM_C/B1523","v":9.6034176963110493E-2},5.5725828025015751E-2,15,6.1478015401056931E-7,{"$f":"G1523*MM_CO2/MM_C/F1523","v":1.502795932025836E-7},8.7202858724903453E-8]
[97,{"$f":"$B$1427*(A1524+1)","v":98},2.5405405065649376,9.5054236640184739E-2,5.5157197276702943E-2,15,5.1094641962545335E-7,1.2489801368622195E-7,7.2474669450418924E-8]
[98,99,2.5405405123032709,9.4094093048269295E-2,5.4600053993193023E-2,15,4.2464975816962073E-7,1.0380327421924062E-7,6.0234008251010033E-8]
[99,100,{"$f":"(-1/$B$1422)*(EXP(-$B$1422*A1527)-EXP(-$B$1422*$A$1427))*C_biomass","v":2.5405405170724249},9.3153152292655583E-2,5.4054053554732445E-2,15,3.5292823315154078E-7,8.6271345881487746E-8,5.006074229099869E-8]
[100,101,2.540540521036089,9.2230843998009834E-2,5.3518864989173985E-2,15,2.933201664646071E-7,7.1700485135792841E-8,4.1605697370866257E-8]
[101]
[]
[]
[]
["Time-average proportion of Land as plantations during land type conversions, at different time horizons."]
[]
["Land Data Table 6. Time-average proportion of Land as plantations during land type conversions, at different time horizons."]
[null,null,"Land area converted per year",null,"Time (years)"]
[null,"Time to convert (y)","Ha/y",20,40,100]
["Land converted to a plantation, 1 stand at a time, over 20 years",20,{"$f":"1/B1537","v":0.05},{"$f":"(C1537/2)*($D$1536^2)/$D$1536","v":0.5},{"$f":"((C1537/2)*(B1537^2)+($E$1536-B1537)*1)/$E$1536","v":0.75},{"$f":"((C1537/2)*(B1537^2)+($F$1536-B1537)*1)/$F$1536","v":0.9}]
["Land converted to a plantation, 1 stand at a time, over 25 years",25,{"$f":"1/B1538","v":0.04},{"$f":"(C1538/2)*($D$1536^2)/$D$1536","v":0.4},{"$f":"((C1538/2)*(B1538^2)+($E$1536-B1538)*1)/$E$1536","v":0.6875},{"$f":"((C1538/2)*(B1538^2)+($F$1536-B1538)*1)/$F$1536","v":0.875}]
["Land converted to a plantation, 1 stand at a time, over 50 years",50,0.02,{"$f":"(C1539/2)*($D$1536^2)/$D$1536","v":0.2},{"$f":"(C1539/2)*($E$1536^2)/$E$1536","v":0.4},{"$f":"((C1539/2)*(B1539^2)+($F$1536-B1539)*1)/$F$1536","v":0.75}]
["Land converted to a plantation, 1 stand at a time, over 70 years",70,{"$f":"1/B1540","v":1.4285714285714285E-2},{"$f":"(C1540/2)*($D$1536^2)/$D$1536","v":0.14285714285714285},{"$f":"(C1540/2)*($E$1536^2)/$E$1536","v":0.2857142857142857},{"$f":"((C1540/2)*(B1540^2)+($F$1536-B1540)*1)/$F$1536","v":0.65}]

{"sheet":"Transport Data","index":9,"n_rows":472,"n_cols":12,"rows_kept":472,"cut":false,"hidden":false,"merged":[]}
["Transport Distances"]
["Selected Data for Default Transport Distances (selected from Transport Data Table 1)"]
["Default distance farm/forest to pellet facility",{"$f":"INDEX(Default_leg1,MATCH(Chosen_region_biopathways,Countries_regions,0))","v":50},"km"]
["Default shipping distance ",{"$f":"INDEX(sea_distances,MATCH(Chosen_region_biopathways,Countries_regions,0))","v":0},"km"]
[]
["Transport Data Table 1: Default Transport Distances"]
["Countries/Regions","Default Distances by Ship (km) http://sea-distances.com/",null,"Distance by truck, leg 1 to transport trees to pellet plant (km)"]
["UK",0,"Assume biomass from UK and no shipping required",50]
["South USA",7200,"From Savannah, Georgia to London",50]
["North West USA",16000,"From Portland, Oregon to London",50]
["North-East USA",5800,"From Portland, Maine to London",50]
["North USA",5800,"From Portland, Maine to London",50]
["Pacific Canada",16300,"From Vancouver to London",50]
["Interior Canada",16300,"From Vancouver to London",50]
["Boreal North Canada",4900,"From Corner Brook, New Foundland, to London",50]
["East Canada",4900,"From Corner Brook, New Foundland, to London",50]
["Africa",13400,"From Beira, Mozambique, to London",50]
["Africa (tropical dry region)",13400,"From Beira, Mozambique, to London",50]
["Africa (tropical moist region)",8400,"From Douala, Cameroon, to London",50]
["Africa (tropical wet region)",8400,"From Douala, Cameroon, to London",50]
["Africa (tropical montane region)",8400,"From Douala, Cameroon, to London",50]
["North America",7200,"From Savannah, Georgia to London",50]
["North America (boreal region)",4900,"From Corner Brook, New Foundland, to London",50]
["North America (temperate dry region)",5800,"From Portland, Maine to London",50]
["North America (temperate moist region)",7200,"From Savannah, Georgia to London",50]
["North America (tropical montane region)",9400,"From Veracruz, Mexico, to London",50]
["North America (tropical dry region)",9400,"From Veracruz, Mexico, to London",50]
["North America (tropical moist region)",7200,"From Savannah, Georgia to London",50]
["North America (tropical wet region)",9400,"From Veracruz, Mexico, to London",50]
["South America",7700,"From Belem, Brazil to London",50]
["South America (temperate dry region)",11700,"From Buenos Aires, Argentina, to London",50]
["South America (temperate moist region)",13300,"From Santa Barabra, Chile to London",50]
["South America (tropical montane region)",7800,"From Palua, Venezula, to London",50]
["South America (tropical dry region)",13300,"From Santa Barabra, Chile to London",50]
["South America (tropical moist region)",7700,"From Belem, Brazil to London",50]
["South America (tropical wet region)",7700,"From Belem, Brazil to London",50]
["Asia Continental",18000,"From Hong Kong to London",50]
["Asia Continental (boreal region)",20800,"From Vladivostok, Russia, to London",50]
["Asia Continental (tropical dry region)",18000,"From Hong Kong to London",50]
["Asia Continental (tropical wet region)",18000,"From Hong Kong to London",50]
["Asia Continental (tropical moist region)",18000,"From Hong Kong to London",50]
["Asia Continental (tropical montane region)",18000,"From Hong Kong to London",50]
["Asia Insular",15100,"From Dumai, Indonesia, to London",50]
["Asia Insular (tropical dry region)",16800,"From Bankok, Thailand, to London",50]
["Asia Insular (tropical moist region)",15100,"From Dumai, Indonesia, to London",50]
["Asia Insular (tropical wet region)",15100,"From Dumai, Indonesia, to London",50]
["Asia Insular (tropical montane region)",15100,"From Dumai, Indonesia, to London",50]
["Europe",2700,"From Skelleftwa, Sweden, to London",50]
["Europe (boreal region)",2700,"From Skelleftwa, Sweden, to London",50]
["Europe (temperate dry region)",3200,"From Valencia, Spain to London",50]
["Europe (temperate moist region)",0,"Assume biomass from UK and no shipping required",50]
["New Zealand",21000,"From Aukland, New Zealand, to London",50]
["New Zealand (temperate dry region)",21000,"From Aukland, New Zealand, to London",50]
["New Zealand (temperate moist region)",21000,"From Aukland, New Zealand, to London",50]
[]
[]
["Transport Emissions and Energy Use"]
["Transport Data Table 2: Predicted reductions in transport emissions and energy use"]
[null,"Emission Reductions",null,"Energy Reduction"]
[null,2020,2030,2020,2030,"Reference"]
[{"$f":"Lists!$A$516","v":"Truck"},0.12352941176470589,0.3,0.12352941176470589,0.3,"ETI, 2012a. Assume linear reduction in emissions from 2013 to 2030"]
[{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},0.2,0.3,0.1,0.15,"NNFCC, 2013. Assume the GHG reduction is 50% from energy reduction, 50% from fuel substitution"]
[{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},0.2,0.3,0.1,0.15,"NNFCC, 2013. Assume the GHG reduction is 50% from energy reduction, 50% from fuel substitution"]
[{"$f":"Lists!$A$519","v":"Rail"},0.15,0.3,7.4999999999999997E-2,0.15,"NNFCC, 2013. Assume the GHG reduction is 50% from energy reduction, 50% from fuel substitution"]
[]
[]
["Selected data from Transport Data Table 3:"]
["Transport leg 1"]
["Lookup Name",{"$f":"Calculations!B301&\":\"&Results_Biopathways!$C$66&\":\"&Results_Biopathways!$C$67","v":"Small Roundwood (50 wt% moisture):Predicted transport GHG emissions 2020:Truck"}]
["External Direct Energy Required for transport",{"$f":"INDEX(lookup_transport_externalenergy_biopathways,MATCH('Transport Data'!B69,lookup_transport_name_biopathways,0))","v":0.29702614379084963},"kwh/t km"]
["Primary Energy Required for transport",{"$f":"INDEX(lookup_transport_PrimEn,MATCH('Transport Data'!B69,lookup_transport_name_biopathways,0))","v":0.31870905228758162},"kwh/t km"]
["GHG emissions from transport",{"$f":"INDEX(lookup_transport_CO2_biopathways,MATCH('Transport Data'!B69,lookup_transport_name_biopathways,0))","v":9.637013235294116E-2},"kg CO2e/t km"]
["Primary Energy from Biomass Required for Transport",{"$f":"INDEX(lookup_transport_biomass_biopathways,MATCH('Transport Data'!B69,lookup_transport_name_biopathways,0))","v":0},"kwh/t km"]
["Losses",{"$f":"INDEX(Losses_transport,MATCH('Transport Data'!B69,lookup_transport_name_biopathways,0))","v":1E-3}]
[]
["Transport leg 2"]
["Lookup Name",{"$f":"Calculations!B336&\":\"&Results_Biopathways!$C$66&\":\"&Results_Biopathways!$C$71","v":"Wood Chips (25 wt% moisture):Predicted transport GHG emissions 2020:Truck"}]
["External Direct Energy Required for transport",{"$f":"INDEX(lookup_transport_externalenergy_biopathways,MATCH('Transport Data'!B77,lookup_transport_name_biopathways,0))","v":0.29702614379084963},"kwh/t km"]
["Primary Energy Required for transport",{"$f":"INDEX(lookup_transport_PrimEn,MATCH('Transport Data'!B77,lookup_transport_name_biopathways,0))","v":0.31870905228758162},"kwh/t km"]
["GHG emissions from transport",{"$f":"INDEX(lookup_transport_CO2_biopathways,MATCH('Transport Data'!B77,lookup_transport_name_biopathways,0))","v":9.637013235294116E-2},"kg CO2e/t km"]
["Primary Energy from Biomass Required for Transport",{"$f":"INDEX(lookup_transport_biomass_biopathways,MATCH('Transport Data'!B77,lookup_transport_name_biopathways,0))","v":0},"kwh/t km"]
["Losses",{"$f":"INDEX(Losses_transport,MATCH('Transport Data'!B77,lookup_transport_name_biopathways,0))","v":1E-3}]
[]
["Transport leg 3"]
["Lookup Name",{"$f":"Calculations!B354&\":\"&Results_Biopathways!$C$66&\":\"&Results_Biopathways!$C$73","v":"Wood Chips (25 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker"}]
["External Direct Energy Required for transport",{"$f":"INDEX(lookup_transport_externalenergy_biopathways,MATCH('Transport Data'!B85,lookup_transport_name_biopathways,0))","v":2.7074999999999998E-2},"kwh/t km"]
["Primary Energy Required for transport",{"$f":"INDEX(lookup_transport_PrimEn,MATCH('Transport Data'!B85,lookup_transport_name_biopathways,0))","v":3.005325E-2},"kwh/t km"]
["GHG emissions from transport",{"$f":"INDEX(lookup_transport_CO2_biopathways,MATCH('Transport Data'!B85,lookup_transport_name_biopathways,0))","v":8.1768906666666655E-3},"kg CO2e/t km"]
["Primary Energy from Biomass Required for Transport",{"$f":"INDEX(lookup_transport_biomass_biopathways,MATCH('Transport Data'!B85,lookup_transport_name_biopathways,0))","v":0},"kwh/t km"]
["Losses",{"$f":"INDEX(Losses_transport,MATCH('Transport Data'!B85,lookup_transport_name_biopathways,0))","v":1E-3}]
[]
["Transport leg 4"]
["Lookup Name",{"$f":"Calculations!B372&\":\"&Results_Biopathways!$C$66&\":\"&Results_Biopathways!$C$77","v":"Wood Chips (25 wt% moisture):Predicted transport GHG emissions 2020:Truck"}]
["External Direct Energy Required for transport",{"$f":"INDEX(lookup_transport_externalenergy_biopathways,MATCH('Transport Data'!B93,lookup_transport_name_biopathways,0))","v":0.29702614379084963},"kwh/t km"]
["Primary Energy Required for transport",{"$f":"INDEX(lookup_transport_PrimEn,MATCH('Transport Data'!B93,lookup_transport_name_biopathways,0))","v":0.31870905228758162},"kwh/t km"]
["GHG emissions from transport",{"$f":"INDEX(lookup_transport_CO2_biopathways,MATCH('Transport Data'!B93,lookup_transport_name_biopathways,0))","v":9.637013235294116E-2},"kg CO2e/t km"]
["Primary Energy from Biomass Required for Transport",{"$f":"INDEX(lookup_transport_biomass_biopathways,MATCH('Transport Data'!B93,lookup_transport_name_biopathways,0))","v":0},"kwh/t km"]
["Losses",{"$f":"INDEX(Losses_transport,MATCH('Transport Data'!B93,lookup_transport_name_biopathways,0))","v":1E-3}]
[]
["Transport Data Table 3: Transport Emissionand Energy Data"]
[]
["Transport","Emission Scenario","Mode","Lookup Name","External Direct Energy Requirement 2013","Reference","External Direct Energy Requirement","Primary Energy Requirement","Emissions","Biomass Requirement","Losses in Transport","Reference"]
[null,null,null,null,"MJ/te km",null,"kwh/tekm","kwh/tekm","kg CO2e/te km","kwh/tekm","%"]
[{"$f":"'Technology Data'!A7","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},{"$f":"A104&\":\"&B104&\":\"&C104","v":"All the wood harvested over the rotation (50 wt% moisture):Transport GHG emissions 2013:Truck"},1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E104/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G104*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E104/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A104","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"B104","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All the wood harvested over the rotation (50 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E105/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G105*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E105/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A105","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"B104","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All the wood harvested over the rotation (50 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E106/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G106*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E106/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All the wood harvested over the rotation (50 wt% moisture)",{"$f":"B104","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"All the wood harvested over the rotation (50 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"US National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E107/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G107*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E107/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All the wood harvested over the rotation (50 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"All the wood harvested over the rotation (50 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G104*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G108*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I104*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All the wood harvested over the rotation (50 wt% moisture)",{"$f":"B108","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All the wood harvested over the rotation (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G105*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G109*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I105*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All the wood harvested over the rotation (50 wt% moisture)",{"$f":"B108","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All the wood harvested over the rotation (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G106*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G110*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I106*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All the wood harvested over the rotation (50 wt% moisture)",{"$f":"B108","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"All the wood harvested over the rotation (50 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G107*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G111*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I107*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All the wood harvested over the rotation (50 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"All the wood harvested over the rotation (50 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G104*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G112*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I104*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All the wood harvested over the rotation (50 wt% moisture)",{"$f":"B112","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All the wood harvested over the rotation (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G105*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G113*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I105*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All the wood harvested over the rotation (50 wt% moisture)",{"$f":"B112","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All the wood harvested over the rotation (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G106*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G114*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I106*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All the wood harvested over the rotation (50 wt% moisture)",{"$f":"B112","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"All the wood harvested over the rotation (50 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G107*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G115*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I107*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All the wood harvested over the rotation (50 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"All the wood harvested over the rotation (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G116*Prim_En_Diesel","v":0},{"$f":"G116*EF_diesel_LHVenergybasis","v":0},{"$f":"G104/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All the wood harvested over the rotation (50 wt% moisture)",{"$f":"B116","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All the wood harvested over the rotation (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G117*Prim_En_Fueloil","v":0},{"$f":"G117*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G105/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All the wood harvested over the rotation (50 wt% moisture)",{"$f":"B117","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All the wood harvested over the rotation (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G118*Prim_En_Fueloil","v":0},{"$f":"G118*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G106/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All the wood harvested over the rotation (50 wt% moisture)",{"$f":"B118","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"All the wood harvested over the rotation (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G119*Prim_En_Diesel","v":0},{"$f":"G119*EF_diesel_LHVenergybasis","v":0},{"$f":"G107/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A8","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"All additional wood compared to counterfactual (50 wt% moisture):Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E120/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G120*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E120/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A120","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"B120","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional wood compared to counterfactual (50 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E121/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G121*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E121/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A121","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"B120","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional wood compared to counterfactual (50 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E122/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G122*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E122/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"B120","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"All additional wood compared to counterfactual (50 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E123/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G123*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E123/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"All additional wood compared to counterfactual (50 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G120*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G124*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I120*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"B124","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional wood compared to counterfactual (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G121*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G125*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I121*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"B124","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional wood compared to counterfactual (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G122*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G126*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I122*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"B124","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"All additional wood compared to counterfactual (50 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G123*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G127*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I123*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"All additional wood compared to counterfactual (50 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G120*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G128*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I120*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"B128","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional wood compared to counterfactual (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G121*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G129*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I121*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"B128","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional wood compared to counterfactual (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G122*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G130*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I122*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"B128","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"All additional wood compared to counterfactual (50 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G123*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G131*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I123*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"All additional wood compared to counterfactual (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G132*Prim_En_Diesel","v":0},{"$f":"G132*EF_diesel_LHVenergybasis","v":0},{"$f":"G120/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"B132","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional wood compared to counterfactual (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G133*Prim_En_Fueloil","v":0},{"$f":"G133*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G121/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"B133","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional wood compared to counterfactual (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G134*Prim_En_Fueloil","v":0},{"$f":"G134*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G122/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood compared to counterfactual (50 wt% moisture)",{"$f":"B134","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"All additional wood compared to counterfactual (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G135*Prim_En_Diesel","v":0},{"$f":"G135*EF_diesel_LHVenergybasis","v":0},{"$f":"G123/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A9","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E136/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G136*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E136/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A136","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},{"$f":"B136","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E137/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G137*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E137/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A137","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},{"$f":"B136","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E138/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G138*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E138/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).",{"$f":"B136","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E139/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G139*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E139/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G136*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G140*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I136*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).",{"$f":"B140","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G137*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G141*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I137*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).",{"$f":"B140","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G138*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G142*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I138*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).",{"$f":"B140","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G139*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G143*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I139*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G136*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G144*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I136*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).",{"$f":"B144","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G137*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G145*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I137*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).",{"$f":"B144","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G138*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G146*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I138*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).",{"$f":"B144","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G139*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G147*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I139*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G148*Prim_En_Diesel","v":0},{"$f":"G148*EF_diesel_LHVenergybasis","v":0},{"$f":"G136/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).",{"$f":"B148","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G149*Prim_En_Fueloil","v":0},{"$f":"G149*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G137/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).",{"$f":"B149","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G150*Prim_En_Fueloil","v":0},{"$f":"G150*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G138/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).",{"$f":"B150","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G151*Prim_En_Diesel","v":0},{"$f":"G151*EF_diesel_LHVenergybasis","v":0},{"$f":"G139/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A10","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E152/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G152*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E152/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A152","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},{"$f":"B152","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E153/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G153*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E153/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A153","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},{"$f":"B152","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E154/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G154*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E154/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"B152","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E155/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G155*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E155/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G152*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G156*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I152*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"B156","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G153*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G157*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I153*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"B156","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G154*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G158*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I154*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"B156","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G155*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G159*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I155*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G152*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G160*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I152*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"B160","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G153*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G161*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I153*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"B160","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G154*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G162*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I154*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"B160","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G155*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G163*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I155*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G164*Prim_En_Diesel","v":0},{"$f":"G164*EF_diesel_LHVenergybasis","v":0},{"$f":"G152/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"B164","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G165*Prim_En_Fueloil","v":0},{"$f":"G165*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G153/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"B165","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G166*Prim_En_Fueloil","v":0},{"$f":"G166*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G154/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).",{"$f":"B166","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G167*Prim_En_Diesel","v":0},{"$f":"G167*EF_diesel_LHVenergybasis","v":0},{"$f":"G155/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A11","v":"All additional wood created by new management (50 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},{"$f":"A168&\":\"&B168&\":\"&C168","v":"All additional wood created by new management (50 wt% moisture):Transport GHG emissions 2013:Truck"},1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E168/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G168*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E168/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A168","v":"All additional wood created by new management (50 wt% moisture)"},{"$f":"B168","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional wood created by new management (50 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E169/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G169*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E169/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A169","v":"All additional wood created by new management (50 wt% moisture)"},{"$f":"B168","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional wood created by new management (50 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E170/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G170*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E170/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood created by new management (50 wt% moisture)",{"$f":"B168","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"All additional wood created by new management (50 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E171/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G171*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E171/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood created by new management (50 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"All additional wood created by new management (50 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G168*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G172*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I168*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood created by new management (50 wt% moisture)",{"$f":"B172","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional wood created by new management (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G169*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G173*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I169*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood created by new management (50 wt% moisture)",{"$f":"B172","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional wood created by new management (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G170*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G174*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I170*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood created by new management (50 wt% moisture)",{"$f":"B172","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"All additional wood created by new management (50 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G171*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G175*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I171*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood created by new management (50 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"All additional wood created by new management (50 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G168*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G176*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I168*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood created by new management (50 wt% moisture)",{"$f":"B176","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional wood created by new management (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G169*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G177*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I169*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood created by new management (50 wt% moisture)",{"$f":"B176","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional wood created by new management (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G170*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G178*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I170*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood created by new management (50 wt% moisture)",{"$f":"B176","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"All additional wood created by new management (50 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G171*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G179*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I171*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood created by new management (50 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"All additional wood created by new management (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G180*Prim_En_Diesel","v":0},{"$f":"G180*EF_diesel_LHVenergybasis","v":0},{"$f":"G168/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood created by new management (50 wt% moisture)",{"$f":"B180","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"All additional wood created by new management (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G181*Prim_En_Fueloil","v":0},{"$f":"G181*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G169/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood created by new management (50 wt% moisture)",{"$f":"B181","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"All additional wood created by new management (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G182*Prim_En_Fueloil","v":0},{"$f":"G182*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G170/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["All additional wood created by new management (50 wt% moisture)",{"$f":"B182","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"All additional wood created by new management (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G183*Prim_En_Diesel","v":0},{"$f":"G183*EF_diesel_LHVenergybasis","v":0},{"$f":"G171/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A12","v":"Biomass from Land Clearance (50 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"Biomass from Land Clearance (50 wt% moisture):Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E184/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G184*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E184/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A184","v":"Biomass from Land Clearance (50 wt% moisture)"},{"$f":"B184","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Biomass from Land Clearance (50 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E185/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G185*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E185/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A185","v":"Biomass from Land Clearance (50 wt% moisture)"},{"$f":"B184","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Biomass from Land Clearance (50 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E186/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G186*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E186/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Biomass from Land Clearance (50 wt% moisture)",{"$f":"B184","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"Biomass from Land Clearance (50 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E187/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G187*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E187/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Biomass from Land Clearance (50 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"Biomass from Land Clearance (50 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G184*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G188*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I184*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Biomass from Land Clearance (50 wt% moisture)",{"$f":"B188","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Biomass from Land Clearance (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G185*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G189*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I185*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Biomass from Land Clearance (50 wt% moisture)",{"$f":"B188","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Biomass from Land Clearance (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G186*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G190*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I186*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Biomass from Land Clearance (50 wt% moisture)",{"$f":"B188","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"Biomass from Land Clearance (50 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G187*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G191*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I187*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Biomass from Land Clearance (50 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"Biomass from Land Clearance (50 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G184*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G192*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I184*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Biomass from Land Clearance (50 wt% moisture)",{"$f":"B192","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Biomass from Land Clearance (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G185*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G193*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I185*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Biomass from Land Clearance (50 wt% moisture)",{"$f":"B192","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Biomass from Land Clearance (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G186*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G194*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I186*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Biomass from Land Clearance (50 wt% moisture)",{"$f":"B192","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"Biomass from Land Clearance (50 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G187*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G195*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I187*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Biomass from Land Clearance (50 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"Biomass from Land Clearance (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G196*Prim_En_Diesel","v":0},{"$f":"G196*EF_diesel_LHVenergybasis","v":0},{"$f":"G184/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Biomass from Land Clearance (50 wt% moisture)",{"$f":"B196","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Biomass from Land Clearance (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G197*Prim_En_Fueloil","v":0},{"$f":"G197*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G185/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Biomass from Land Clearance (50 wt% moisture)",{"$f":"B197","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Biomass from Land Clearance (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G198*Prim_En_Fueloil","v":0},{"$f":"G198*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G186/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Biomass from Land Clearance (50 wt% moisture)",{"$f":"B198","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"Biomass from Land Clearance (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G199*Prim_En_Diesel","v":0},{"$f":"G199*EF_diesel_LHVenergybasis","v":0},{"$f":"G187/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A13","v":"Saw logs (50 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"Saw logs (50 wt% moisture):Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E200/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G200*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E200/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A200","v":"Saw logs (50 wt% moisture)"},{"$f":"B200","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Saw logs (50 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E201/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G201*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E201/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A201","v":"Saw logs (50 wt% moisture)"},{"$f":"B200","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Saw logs (50 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E202/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G202*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E202/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Saw logs (50 wt% moisture)",{"$f":"B200","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"Saw logs (50 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E203/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G203*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E203/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Saw logs (50 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"Saw logs (50 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G200*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G204*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I200*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Saw logs (50 wt% moisture)",{"$f":"B204","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Saw logs (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G201*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G205*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I201*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Saw logs (50 wt% moisture)",{"$f":"B204","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Saw logs (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G202*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G206*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I202*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Saw logs (50 wt% moisture)",{"$f":"B204","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"Saw logs (50 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G203*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G207*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I203*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Saw logs (50 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"Saw logs (50 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G200*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G208*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I200*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Saw logs (50 wt% moisture)",{"$f":"B208","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Saw logs (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G201*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G209*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I201*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Saw logs (50 wt% moisture)",{"$f":"B208","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Saw logs (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G202*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G210*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I202*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Saw logs (50 wt% moisture)",{"$f":"B208","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"Saw logs (50 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G203*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G211*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I203*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Saw logs (50 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"Saw logs (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G212*Prim_En_Diesel","v":0},{"$f":"G212*EF_diesel_LHVenergybasis","v":0},{"$f":"G200/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Saw logs (50 wt% moisture)",{"$f":"B212","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Saw logs (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G213*Prim_En_Fueloil","v":0},{"$f":"G213*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G201/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Saw logs (50 wt% moisture)",{"$f":"B213","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Saw logs (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G214*Prim_En_Fueloil","v":0},{"$f":"G214*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G202/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Saw logs (50 wt% moisture)",{"$f":"B214","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"Saw logs (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G215*Prim_En_Diesel","v":0},{"$f":"G215*EF_diesel_LHVenergybasis","v":0},{"$f":"G203/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A14","v":"Small Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"Small Roundwood (50 wt% moisture):Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E216/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G216*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E216/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A216","v":"Small Roundwood (50 wt% moisture)"},{"$f":"B216","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Small Roundwood (50 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E217/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G217*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E217/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A217","v":"Small Roundwood (50 wt% moisture)"},{"$f":"B216","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Small Roundwood (50 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E218/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G218*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E218/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Small Roundwood (50 wt% moisture)",{"$f":"B216","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"Small Roundwood (50 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E219/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G219*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E219/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Small Roundwood (50 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"Small Roundwood (50 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G216*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G220*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I216*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Small Roundwood (50 wt% moisture)",{"$f":"B220","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Small Roundwood (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G217*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G221*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I217*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Small Roundwood (50 wt% moisture)",{"$f":"B220","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Small Roundwood (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G218*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G222*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I218*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Small Roundwood (50 wt% moisture)",{"$f":"B220","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"Small Roundwood (50 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G219*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G223*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I219*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Small Roundwood (50 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"Small Roundwood (50 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G216*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G224*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I216*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Small Roundwood (50 wt% moisture)",{"$f":"B224","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Small Roundwood (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G217*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G225*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I217*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Small Roundwood (50 wt% moisture)",{"$f":"B224","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Small Roundwood (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G218*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G226*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I218*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Small Roundwood (50 wt% moisture)",{"$f":"B224","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"Small Roundwood (50 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G219*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G227*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I219*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Small Roundwood (50 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"Small Roundwood (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G228*Prim_En_Diesel","v":0},{"$f":"G228*EF_diesel_LHVenergybasis","v":0},{"$f":"G216/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Small Roundwood (50 wt% moisture)",{"$f":"B228","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Small Roundwood (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G229*Prim_En_Fueloil","v":0},{"$f":"G229*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G217/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Small Roundwood (50 wt% moisture)",{"$f":"B229","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Small Roundwood (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G230*Prim_En_Fueloil","v":0},{"$f":"G230*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G218/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Small Roundwood (50 wt% moisture)",{"$f":"B230","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"Small Roundwood (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G231*Prim_En_Diesel","v":0},{"$f":"G231*EF_diesel_LHVenergybasis","v":0},{"$f":"G219/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A15","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},{"$f":"A232&\":\"&B232&\":\"&C232","v":"Woody Debris (25 wt% moisture). Continuous removal.:Transport GHG emissions 2013:Truck"},1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E232/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G232*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E232/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A232","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"B232","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Woody Debris (25 wt% moisture). Continuous removal.:Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E233/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G233*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E233/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A233","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"B232","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Woody Debris (25 wt% moisture). Continuous removal.:Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E234/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G234*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E234/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"B232","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"Woody Debris (25 wt% moisture). Continuous removal.:Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E235/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G235*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E235/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"Woody Debris (25 wt% moisture). Continuous removal.:Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G232*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G236*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I232*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"B236","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Woody Debris (25 wt% moisture). Continuous removal.:Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G233*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G237*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I233*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"B236","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Woody Debris (25 wt% moisture). Continuous removal.:Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G234*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G238*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I234*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"B236","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"Woody Debris (25 wt% moisture). Continuous removal.:Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G235*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G239*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I235*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"Woody Debris (25 wt% moisture). Continuous removal.:Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G232*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G240*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I232*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"B240","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Woody Debris (25 wt% moisture). Continuous removal.:Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G233*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G241*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I233*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"B240","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Woody Debris (25 wt% moisture). Continuous removal.:Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G234*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G242*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I234*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"B240","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"Woody Debris (25 wt% moisture). Continuous removal.:Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G235*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G243*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I235*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"Woody Debris (25 wt% moisture). Continuous removal.:Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G244*Prim_En_Diesel","v":0},{"$f":"G244*EF_diesel_LHVenergybasis","v":0},{"$f":"G232/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"B244","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Woody Debris (25 wt% moisture). Continuous removal.:Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G245*Prim_En_Fueloil","v":0},{"$f":"G245*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G233/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"B245","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Woody Debris (25 wt% moisture). Continuous removal.:Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G246*Prim_En_Fueloil","v":0},{"$f":"G246*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G234/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Continuous removal.",{"$f":"B246","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"Woody Debris (25 wt% moisture). Continuous removal.:Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G247*Prim_En_Diesel","v":0},{"$f":"G247*EF_diesel_LHVenergybasis","v":0},{"$f":"G235/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A16","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E248/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G248*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E248/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A248","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"B248","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E249/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G249*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E249/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A249","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"B248","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E250/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G250*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E250/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"B248","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E251/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G251*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E251/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G248*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G252*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I248*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"B252","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G249*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G253*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I249*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"B252","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G250*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G254*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I250*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"B252","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G251*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G255*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I251*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G248*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G256*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I248*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"B256","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G249*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G257*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I249*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"B256","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G250*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G258*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I250*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"B256","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G251*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G259*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I251*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G260*Prim_En_Diesel","v":0},{"$f":"G260*EF_diesel_LHVenergybasis","v":0},{"$f":"G248/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"B260","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G261*Prim_En_Fueloil","v":0},{"$f":"G261*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G249/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"B261","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G262*Prim_En_Fueloil","v":0},{"$f":"G262*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G250/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Woody Debris (25 wt% moisture). Remove for 15 years only.",{"$f":"B262","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"Woody Debris (25 wt% moisture). Remove for 15 years only.:Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G263*Prim_En_Diesel","v":0},{"$f":"G263*EF_diesel_LHVenergybasis","v":0},{"$f":"G251/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A17","v":"SRC Chips (50 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"SRC Chips (50 wt% moisture):Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E264/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G264*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E264/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A264","v":"SRC Chips (50 wt% moisture)"},{"$f":"B264","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"SRC Chips (50 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E265/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G265*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E265/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A265","v":"SRC Chips (50 wt% moisture)"},{"$f":"B264","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"SRC Chips (50 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E266/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G266*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E266/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (50 wt% moisture)",{"$f":"B264","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"SRC Chips (50 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E267/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G267*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E267/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (50 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"SRC Chips (50 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G264*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G268*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I264*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (50 wt% moisture)",{"$f":"B268","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"SRC Chips (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G265*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G269*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I265*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (50 wt% moisture)",{"$f":"B268","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"SRC Chips (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G266*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G270*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I266*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (50 wt% moisture)",{"$f":"B268","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"SRC Chips (50 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G267*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G271*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I267*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (50 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"SRC Chips (50 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G264*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G272*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I264*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (50 wt% moisture)",{"$f":"B272","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"SRC Chips (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G265*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G273*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I265*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (50 wt% moisture)",{"$f":"B272","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"SRC Chips (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G266*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G274*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I266*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (50 wt% moisture)",{"$f":"B272","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"SRC Chips (50 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G267*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G275*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I267*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (50 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"SRC Chips (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G276*Prim_En_Diesel","v":0},{"$f":"G276*EF_diesel_LHVenergybasis","v":0},{"$f":"G264/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (50 wt% moisture)",{"$f":"B276","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"SRC Chips (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G277*Prim_En_Fueloil","v":0},{"$f":"G277*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G265/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (50 wt% moisture)",{"$f":"B277","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"SRC Chips (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G278*Prim_En_Fueloil","v":0},{"$f":"G278*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G266/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (50 wt% moisture)",{"$f":"B278","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"SRC Chips (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G279*Prim_En_Diesel","v":0},{"$f":"G279*EF_diesel_LHVenergybasis","v":0},{"$f":"G267/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A18","v":"Miscanthus Chips (30 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"Miscanthus Chips (30 wt% moisture):Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E280/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G280*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E280/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A280","v":"Miscanthus Chips (30 wt% moisture)"},{"$f":"B280","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Miscanthus Chips (30 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E281/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G281*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E281/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A281","v":"Miscanthus Chips (30 wt% moisture)"},{"$f":"B280","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Miscanthus Chips (30 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E282/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G282*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E282/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (30 wt% moisture)",{"$f":"B280","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"Miscanthus Chips (30 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E283/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G283*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E283/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (30 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"Miscanthus Chips (30 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G280*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G284*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I280*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (30 wt% moisture)",{"$f":"B284","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Miscanthus Chips (30 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G281*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G285*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I281*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (30 wt% moisture)",{"$f":"B284","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Miscanthus Chips (30 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G282*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G286*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I282*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (30 wt% moisture)",{"$f":"B284","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"Miscanthus Chips (30 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G283*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G287*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I283*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (30 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"Miscanthus Chips (30 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G280*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G288*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I280*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (30 wt% moisture)",{"$f":"B288","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Miscanthus Chips (30 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G281*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G289*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I281*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (30 wt% moisture)",{"$f":"B288","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Miscanthus Chips (30 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G282*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G290*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I282*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (30 wt% moisture)",{"$f":"B288","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"Miscanthus Chips (30 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G283*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G291*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I283*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (30 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"Miscanthus Chips (30 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G292*Prim_En_Diesel","v":0},{"$f":"G292*EF_diesel_LHVenergybasis","v":0},{"$f":"G280/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (30 wt% moisture)",{"$f":"B292","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Miscanthus Chips (30 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G293*Prim_En_Fueloil","v":0},{"$f":"G293*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G281/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (30 wt% moisture)",{"$f":"B293","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Miscanthus Chips (30 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G294*Prim_En_Fueloil","v":0},{"$f":"G294*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G282/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (30 wt% moisture)",{"$f":"B294","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"Miscanthus Chips (30 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G295*Prim_En_Diesel","v":0},{"$f":"G295*EF_diesel_LHVenergybasis","v":0},{"$f":"G283/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A19","v":"Eucalyptus Roundwood (50 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},{"$f":"A296&\":\"&B296&\":\"&C296","v":"Eucalyptus Roundwood (50 wt% moisture):Transport GHG emissions 2013:Truck"},1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E296/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G296*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E296/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A296","v":"Eucalyptus Roundwood (50 wt% moisture)"},{"$f":"B296","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Eucalyptus Roundwood (50 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E297/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G297*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E297/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A297","v":"Eucalyptus Roundwood (50 wt% moisture)"},{"$f":"B296","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Eucalyptus Roundwood (50 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E298/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G298*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E298/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Eucalyptus Roundwood (50 wt% moisture)",{"$f":"B296","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"Eucalyptus Roundwood (50 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E299/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G299*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E299/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Eucalyptus Roundwood (50 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"Eucalyptus Roundwood (50 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G296*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G300*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I296*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Eucalyptus Roundwood (50 wt% moisture)",{"$f":"B300","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Eucalyptus Roundwood (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G297*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G301*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I297*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Eucalyptus Roundwood (50 wt% moisture)",{"$f":"B300","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Eucalyptus Roundwood (50 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G298*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G302*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I298*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Eucalyptus Roundwood (50 wt% moisture)",{"$f":"B300","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"Eucalyptus Roundwood (50 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G299*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G303*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I299*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Eucalyptus Roundwood (50 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"Eucalyptus Roundwood (50 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G296*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G304*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I296*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Eucalyptus Roundwood (50 wt% moisture)",{"$f":"B304","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Eucalyptus Roundwood (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G297*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G305*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I297*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Eucalyptus Roundwood (50 wt% moisture)",{"$f":"B304","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Eucalyptus Roundwood (50 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G298*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G306*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I298*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Eucalyptus Roundwood (50 wt% moisture)",{"$f":"B304","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"Eucalyptus Roundwood (50 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G299*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G307*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I299*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Eucalyptus Roundwood (50 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"Eucalyptus Roundwood (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G308*Prim_En_Diesel","v":0},{"$f":"G308*EF_diesel_LHVenergybasis","v":0},{"$f":"G296/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Eucalyptus Roundwood (50 wt% moisture)",{"$f":"B308","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Eucalyptus Roundwood (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G309*Prim_En_Fueloil","v":0},{"$f":"G309*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G297/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Eucalyptus Roundwood (50 wt% moisture)",{"$f":"B309","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Eucalyptus Roundwood (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G310*Prim_En_Fueloil","v":0},{"$f":"G310*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G298/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Eucalyptus Roundwood (50 wt% moisture)",{"$f":"B310","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"Eucalyptus Roundwood (50 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G311*Prim_En_Diesel","v":0},{"$f":"G311*EF_diesel_LHVenergybasis","v":0},{"$f":"G299/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A25","v":"SRC Chips (25 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"SRC Chips (25 wt% moisture):Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E312/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G312*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E312/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A312","v":"SRC Chips (25 wt% moisture)"},{"$f":"B312","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"SRC Chips (25 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E313/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G313*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E313/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A313","v":"SRC Chips (25 wt% moisture)"},{"$f":"B312","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"SRC Chips (25 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E314/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G314*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E314/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (25 wt% moisture)",{"$f":"B312","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"SRC Chips (25 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E315/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G315*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E315/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (25 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"SRC Chips (25 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G312*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G316*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I312*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (25 wt% moisture)",{"$f":"B316","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"SRC Chips (25 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G313*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G317*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I313*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (25 wt% moisture)",{"$f":"B316","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"SRC Chips (25 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G314*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G318*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I314*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (25 wt% moisture)",{"$f":"B316","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"SRC Chips (25 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G315*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G319*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I315*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (25 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"SRC Chips (25 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G312*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G320*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I312*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (25 wt% moisture)",{"$f":"B320","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"SRC Chips (25 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G313*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G321*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I313*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (25 wt% moisture)",{"$f":"B320","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"SRC Chips (25 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G314*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G322*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I314*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (25 wt% moisture)",{"$f":"B320","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"SRC Chips (25 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G315*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G323*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I315*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (25 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"SRC Chips (25 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G324*Prim_En_Diesel","v":0},{"$f":"G324*EF_diesel_LHVenergybasis","v":0},{"$f":"G312/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (25 wt% moisture)",{"$f":"B324","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"SRC Chips (25 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G325*Prim_En_Fueloil","v":0},{"$f":"G325*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G313/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (25 wt% moisture)",{"$f":"B325","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"SRC Chips (25 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G326*Prim_En_Fueloil","v":0},{"$f":"G326*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G314/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Chips (25 wt% moisture)",{"$f":"B326","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"SRC Chips (25 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G327*Prim_En_Diesel","v":0},{"$f":"G327*EF_diesel_LHVenergybasis","v":0},{"$f":"G315/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A26","v":"SRC Pellets (10% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"SRC Pellets (10% moisture):Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E328/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G328*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E328/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A328","v":"SRC Pellets (10% moisture)"},{"$f":"B328","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"SRC Pellets (10% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",6.4399999999999999E-2,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 84% loading for pelletised wood. (650 kg/m3 pellet density).",{"$f":"E329/Conv_kwh_MJ","v":1.7888888888888888E-2},{"$f":"G329*Prim_En_Fueloil","v":1.9856666666666668E-2},{"$f":"E329/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":6.0779288888888885E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A329","v":"SRC Pellets (10% moisture)"},{"$f":"B328","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"SRC Pellets (10% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E330/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G330*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E330/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Pellets (10% moisture)",{"$f":"B328","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"SRC Pellets (10% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E331/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G331*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E331/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Pellets (10% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"SRC Pellets (10% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G328*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G332*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I328*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Pellets (10% moisture)",{"$f":"B332","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"SRC Pellets (10% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G329*(1-Ship_energy_reduction_2020)","v":1.61E-2},{"$f":"G333*Prim_En_Fueloil","v":1.7871000000000001E-2},{"$f":"I329*(1-Ship_reduction_2020)","v":4.8623431111111115E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Pellets (10% moisture)",{"$f":"B332","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"SRC Pellets (10% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G330*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G334*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I330*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Pellets (10% moisture)",{"$f":"B332","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"SRC Pellets (10% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G331*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G335*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I331*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Pellets (10% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"SRC Pellets (10% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G328*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G336*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I328*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Pellets (10% moisture)",{"$f":"B336","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"SRC Pellets (10% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G329*(1-Ship_energy_reduction_2030)","v":1.5205555555555554E-2},{"$f":"G337*Prim_En_Fueloil","v":1.6878166666666666E-2},{"$f":"I329*(1-Ship_reduction_2030)","v":4.2545502222222217E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Pellets (10% moisture)",{"$f":"B336","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"SRC Pellets (10% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G330*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G338*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I330*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Pellets (10% moisture)",{"$f":"B336","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"SRC Pellets (10% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G331*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G339*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I331*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Pellets (10% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"SRC Pellets (10% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G340*Prim_En_Diesel","v":0},{"$f":"G340*EF_diesel_LHVenergybasis","v":0},{"$f":"G328/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Pellets (10% moisture)",{"$f":"B340","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"SRC Pellets (10% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G341*Prim_En_Fueloil","v":0},{"$f":"G341*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G329/'Technology Data'!$D$215","v":3.8061465721040189E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Pellets (10% moisture)",{"$f":"B341","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"SRC Pellets (10% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G342*Prim_En_Fueloil","v":0},{"$f":"G342*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G330/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["SRC Pellets (10% moisture)",{"$f":"B342","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"SRC Pellets (10% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G343*Prim_En_Diesel","v":0},{"$f":"G343*EF_diesel_LHVenergybasis","v":0},{"$f":"G331/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A27","v":"Miscanthus Chips (10 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"Miscanthus Chips (10 wt% moisture):Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E344/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G344*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E344/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A344","v":"Miscanthus Chips (10 wt% moisture)"},{"$f":"B344","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Miscanthus Chips (10 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E345/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G345*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E345/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A345","v":"Miscanthus Chips (10 wt% moisture)"},{"$f":"B344","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Miscanthus Chips (10 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E346/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G346*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E346/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"B344","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"Miscanthus Chips (10 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E347/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G347*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E347/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"Miscanthus Chips (10 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G344*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G348*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I344*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"B348","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Miscanthus Chips (10 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G345*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G349*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I345*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"B348","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Miscanthus Chips (10 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G346*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G350*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I346*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"B348","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"Miscanthus Chips (10 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G347*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G351*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I347*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"Miscanthus Chips (10 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G344*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G352*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I344*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"B352","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Miscanthus Chips (10 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G345*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G353*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I345*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"B352","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Miscanthus Chips (10 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G346*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G354*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I346*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"B352","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"Miscanthus Chips (10 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G347*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G355*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I347*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"Miscanthus Chips (10 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G356*Prim_En_Diesel","v":0},{"$f":"G356*EF_diesel_LHVenergybasis","v":0},{"$f":"G344/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"B356","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Miscanthus Chips (10 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G357*Prim_En_Fueloil","v":0},{"$f":"G357*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G345/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"B357","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Miscanthus Chips (10 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G358*Prim_En_Fueloil","v":0},{"$f":"G358*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G346/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"B358","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"Miscanthus Chips (10 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G359*Prim_En_Diesel","v":0},{"$f":"G359*EF_diesel_LHVenergybasis","v":0},{"$f":"G347/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A28","v":"Miscanthus Pellets (10% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},{"$f":"A360&\":\"&B360&\":\"&C360","v":"Miscanthus Pellets (10% moisture):Transport GHG emissions 2013:Truck"},1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E360/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G360*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E360/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A360","v":"Miscanthus Pellets (10% moisture)"},{"$f":"B360","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Miscanthus Pellets (10% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",6.4399999999999999E-2,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 84% loading for pelletised wood. (650 kg/m3 pellet density).",{"$f":"E361/Conv_kwh_MJ","v":1.7888888888888888E-2},{"$f":"G361*Prim_En_Fueloil","v":1.9856666666666668E-2},{"$f":"E361/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":6.0779288888888885E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A361","v":"Miscanthus Pellets (10% moisture)"},{"$f":"B360","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Miscanthus Pellets (10% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E362/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G362*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E362/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Pellets (10% moisture)",{"$f":"B360","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"Miscanthus Pellets (10% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E363/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G363*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E363/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Pellets (10% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"Miscanthus Pellets (10% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G360*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G364*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I360*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Pellets (10% moisture)",{"$f":"B364","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Miscanthus Pellets (10% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G361*(1-Ship_energy_reduction_2020)","v":1.61E-2},{"$f":"G365*Prim_En_Fueloil","v":1.7871000000000001E-2},{"$f":"I361*(1-Ship_reduction_2020)","v":4.8623431111111115E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Pellets (10% moisture)",{"$f":"B364","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Miscanthus Pellets (10% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G362*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G366*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I362*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Pellets (10% moisture)",{"$f":"B364","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"Miscanthus Pellets (10% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G363*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G367*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I363*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Pellets (10% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"Miscanthus Pellets (10% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G360*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G368*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I360*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Pellets (10% moisture)",{"$f":"B368","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Miscanthus Pellets (10% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G361*(1-Ship_energy_reduction_2030)","v":1.5205555555555554E-2},{"$f":"G369*Prim_En_Fueloil","v":1.6878166666666666E-2},{"$f":"I361*(1-Ship_reduction_2030)","v":4.2545502222222217E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Pellets (10% moisture)",{"$f":"B368","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Miscanthus Pellets (10% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G362*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G370*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I362*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Pellets (10% moisture)",{"$f":"B368","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"Miscanthus Pellets (10% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G363*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G371*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I363*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Pellets (10% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"Miscanthus Pellets (10% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G372*Prim_En_Diesel","v":0},{"$f":"G372*EF_diesel_LHVenergybasis","v":0},{"$f":"G360/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Pellets (10% moisture)",{"$f":"B372","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Miscanthus Pellets (10% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G373*Prim_En_Fueloil","v":0},{"$f":"G373*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G361/'Technology Data'!$D$215","v":3.8061465721040189E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Pellets (10% moisture)",{"$f":"B373","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Miscanthus Pellets (10% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G374*Prim_En_Fueloil","v":0},{"$f":"G374*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G362/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Miscanthus Pellets (10% moisture)",{"$f":"B374","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"Miscanthus Pellets (10% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G375*Prim_En_Diesel","v":0},{"$f":"G375*EF_diesel_LHVenergybasis","v":0},{"$f":"G363/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A20","v":"Palm Fruit (34 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"Palm Fruit (34 wt% moisture):Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E376/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G376*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E376/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A376","v":"Palm Fruit (34 wt% moisture)"},{"$f":"B376","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Palm Fruit (34 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E377/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G377*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E377/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A377","v":"Palm Fruit (34 wt% moisture)"},{"$f":"B376","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Palm Fruit (34 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E378/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G378*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E378/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Fruit (34 wt% moisture)",{"$f":"B376","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"Palm Fruit (34 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E379/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G379*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E379/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Fruit (34 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"Palm Fruit (34 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G376*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G380*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I376*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Fruit (34 wt% moisture)",{"$f":"B380","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Palm Fruit (34 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G377*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G381*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I377*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Fruit (34 wt% moisture)",{"$f":"B380","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Palm Fruit (34 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G378*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G382*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I378*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Fruit (34 wt% moisture)",{"$f":"B380","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"Palm Fruit (34 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G379*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G383*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I379*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Fruit (34 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"Palm Fruit (34 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G376*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G384*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I376*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Fruit (34 wt% moisture)",{"$f":"B384","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Palm Fruit (34 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G377*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G385*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I377*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Fruit (34 wt% moisture)",{"$f":"B384","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Palm Fruit (34 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G378*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G386*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I378*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Fruit (34 wt% moisture)",{"$f":"B384","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"Palm Fruit (34 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G379*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G387*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I379*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Fruit (34 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"Palm Fruit (34 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G388*Prim_En_Diesel","v":0},{"$f":"G388*EF_diesel_LHVenergybasis","v":0},{"$f":"G376/'Technology Data'!$D$272","v":0.34300494826810612},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Fruit (34 wt% moisture)",{"$f":"B388","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Palm Fruit (34 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G389*Prim_En_Fueloil","v":0},{"$f":"G389*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G377/'Technology Data'!$D$272","v":3.0448717948717945E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Fruit (34 wt% moisture)",{"$f":"B389","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Palm Fruit (34 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G390*Prim_En_Fueloil","v":0},{"$f":"G390*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G378/'Technology Data'!$D$272","v":8.9968511021142603E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Fruit (34 wt% moisture)",{"$f":"B390","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"Palm Fruit (34 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G391*Prim_En_Diesel","v":0},{"$f":"G391*EF_diesel_LHVenergybasis","v":0},{"$f":"G379/'Technology Data'!$D$272","v":5.4543409806567703E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A21","v":"Maize Whole Crop (70 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"Maize Whole Crop (70 wt% moisture):Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E392/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G392*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E392/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A392","v":"Maize Whole Crop (70 wt% moisture)"},{"$f":"B392","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Maize Whole Crop (70 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E393/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G393*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E393/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A393","v":"Maize Whole Crop (70 wt% moisture)"},{"$f":"B392","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Maize Whole Crop (70 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E394/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G394*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E394/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Whole Crop (70 wt% moisture)",{"$f":"B392","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"Maize Whole Crop (70 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E395/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G395*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E395/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Whole Crop (70 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"Maize Whole Crop (70 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G392*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G396*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I392","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Whole Crop (70 wt% moisture)",{"$f":"B396","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Maize Whole Crop (70 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G393*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G397*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I393*0.8","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Whole Crop (70 wt% moisture)",{"$f":"B396","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Maize Whole Crop (70 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G394*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G398*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I394*0.8","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Whole Crop (70 wt% moisture)",{"$f":"B396","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"Maize Whole Crop (70 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G395*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G399*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I395*0.85","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Whole Crop (70 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"Maize Whole Crop (70 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G392*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G400*Prim_En_Diesel","v":0.25453944444444437},{"$f":"G400*EF_diesel_LHVenergybasis","v":7.6966749999999973E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Whole Crop (70 wt% moisture)",{"$f":"B400","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Maize Whole Crop (70 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G393*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G401*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I393*0.7","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Whole Crop (70 wt% moisture)",{"$f":"B400","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Maize Whole Crop (70 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G394*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G402*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I394*0.7","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Whole Crop (70 wt% moisture)",{"$f":"B400","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"Maize Whole Crop (70 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G395*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G403*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I395*0.7","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Whole Crop (70 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"Maize Whole Crop (70 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G404*Prim_En_Diesel","v":0},{"$f":"G404*EF_diesel_LHVenergybasis","v":0},{"$f":"G392/'Technology Data'!$D$270","v":0.78811369509043916},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Whole Crop (70 wt% moisture)",{"$f":"B404","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Maize Whole Crop (70 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G405*Prim_En_Fueloil","v":0},{"$f":"G405*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G393/'Technology Data'!$D$270","v":6.9961240310077513E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Whole Crop (70 wt% moisture)",{"$f":"B405","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Maize Whole Crop (70 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G406*Prim_En_Fueloil","v":0},{"$f":"G406*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G394/'Technology Data'!$D$270","v":0.20671834625322999},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Whole Crop (70 wt% moisture)",{"$f":"B406","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"Maize Whole Crop (70 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G407*Prim_En_Diesel","v":0},{"$f":"G407*EF_diesel_LHVenergybasis","v":0},{"$f":"G395/'Technology Data'!$D$270","v":0.12532299741602068},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A22","v":"Maize Sillage (67 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"Maize Sillage (67 wt% moisture):Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E408/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G408*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E408/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A408","v":"Maize Sillage (67 wt% moisture)"},{"$f":"B408","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Maize Sillage (67 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E409/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G409*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E409/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A409","v":"Maize Sillage (67 wt% moisture)"},{"$f":"B408","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Maize Sillage (67 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E410/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G410*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E410/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Sillage (67 wt% moisture)",{"$f":"B408","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"Maize Sillage (67 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E411/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G411*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E411/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Sillage (67 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"Maize Sillage (67 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G408*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G412*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I408*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Sillage (67 wt% moisture)",{"$f":"B412","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Maize Sillage (67 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G409*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G413*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I409*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Sillage (67 wt% moisture)",{"$f":"B412","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Maize Sillage (67 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G410*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G414*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I410*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Sillage (67 wt% moisture)",{"$f":"B412","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"Maize Sillage (67 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G411*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G415*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I411*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Sillage (67 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"Maize Sillage (67 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G408*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G416*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I408*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Sillage (67 wt% moisture)",{"$f":"B416","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Maize Sillage (67 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G409*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G417*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I409*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Sillage (67 wt% moisture)",{"$f":"B416","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Maize Sillage (67 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G410*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G418*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I410*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Sillage (67 wt% moisture)",{"$f":"B416","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"Maize Sillage (67 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G411*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G419*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I411*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Sillage (67 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"Maize Sillage (67 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G420*Prim_En_Diesel","v":0},{"$f":"G420*EF_diesel_LHVenergybasis","v":0},{"$f":"G408/'Technology Data'!$D$270","v":0.78811369509043916},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Sillage (67 wt% moisture)",{"$f":"B420","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Maize Sillage (67 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G421*Prim_En_Fueloil","v":0},{"$f":"G421*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G409/'Technology Data'!$D$270","v":6.9961240310077513E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Sillage (67 wt% moisture)",{"$f":"B421","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Maize Sillage (67 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G422*Prim_En_Fueloil","v":0},{"$f":"G422*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G410/'Technology Data'!$D$270","v":0.20671834625322999},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Maize Sillage (67 wt% moisture)",{"$f":"B422","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"Maize Sillage (67 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G423*Prim_En_Diesel","v":0},{"$f":"G423*EF_diesel_LHVenergybasis","v":0},{"$f":"G411/'Technology Data'!$D$270","v":0.12532299741602068},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A23","v":"Palm Oil"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},{"$f":"A424&\":\"&B424&\":\"&C424","v":"Palm Oil:Transport GHG emissions 2013:Truck"},1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E424/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G424*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E424/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A424","v":"Palm Oil"},{"$f":"B424","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Palm Oil:Transport GHG emissions 2013:Shipping - Product Tanker",6.4399999999999999E-2,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 84% loading for pelletised wood. (650 kg/m3 pellet density).",{"$f":"E425/Conv_kwh_MJ","v":1.7888888888888888E-2},{"$f":"G425*Prim_En_Fueloil","v":1.9856666666666668E-2},{"$f":"E425/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":6.0779288888888885E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A425","v":"Palm Oil"},{"$f":"B424","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Palm Oil:Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E426/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G426*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E426/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Oil",{"$f":"B424","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"Palm Oil:Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E427/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G427*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E427/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Oil",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"Palm Oil:Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G424*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G428*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I424*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Oil",{"$f":"B428","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Palm Oil:Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G425*(1-Ship_energy_reduction_2020)","v":1.61E-2},{"$f":"G429*Prim_En_Fueloil","v":1.7871000000000001E-2},{"$f":"I425*(1-Ship_reduction_2020)","v":4.8623431111111115E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Oil",{"$f":"B428","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Palm Oil:Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G426*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G430*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I426*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Oil",{"$f":"B428","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"Palm Oil:Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G427*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G431*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I427*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Oil",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"Palm Oil:Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G424*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G432*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I424*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Oil",{"$f":"B432","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Palm Oil:Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G425*(1-Ship_energy_reduction_2030)","v":1.5205555555555554E-2},{"$f":"G433*Prim_En_Fueloil","v":1.6878166666666666E-2},{"$f":"I425*(1-Ship_reduction_2030)","v":4.2545502222222217E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Oil",{"$f":"B432","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Palm Oil:Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G426*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G434*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I426*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Oil",{"$f":"B432","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"Palm Oil:Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G427*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G435*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I427*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Oil",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"Palm Oil:Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G436*Prim_En_Diesel","v":0},{"$f":"G436*EF_diesel_LHVenergybasis","v":0},{"$f":"G424/'Technology Data'!$D$272","v":0.34300494826810612},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Oil",{"$f":"B436","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Palm Oil:Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G437*Prim_En_Fueloil","v":0},{"$f":"G437*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G425/'Technology Data'!$D$272","v":1.8106162843004949E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Oil",{"$f":"B437","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Palm Oil:Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G438*Prim_En_Fueloil","v":0},{"$f":"G438*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G426/'Technology Data'!$D$272","v":8.9968511021142603E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Palm Oil",{"$f":"B438","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"Palm Oil:Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G439*Prim_En_Diesel","v":0},{"$f":"G439*EF_diesel_LHVenergybasis","v":0},{"$f":"G427/'Technology Data'!$D$272","v":5.4543409806567703E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A29","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"Wood Chips (25 wt% moisture):Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E440/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G440*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E440/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A440","v":"Wood Chips (25 wt% moisture)"},{"$f":"B440","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Wood Chips (25 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",0.10829999999999999,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 50% loading for non-pelletised wood.",{"$f":"E441/Conv_kwh_MJ","v":3.008333333333333E-2},{"$f":"G441*Prim_En_Fueloil","v":3.3392499999999999E-2},{"$f":"E441/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":1.0221113333333332E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A441","v":"Wood Chips (25 wt% moisture)"},{"$f":"B440","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Wood Chips (25 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E442/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G442*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E442/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Chips (25 wt% moisture)",{"$f":"B440","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"Wood Chips (25 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E443/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G443*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E443/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Chips (25 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"Wood Chips (25 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G440*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G444*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I440*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Chips (25 wt% moisture)",{"$f":"B444","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Wood Chips (25 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G441*(1-Ship_energy_reduction_2020)","v":2.7074999999999998E-2},{"$f":"G445*Prim_En_Fueloil","v":3.005325E-2},{"$f":"I441*(1-Ship_reduction_2020)","v":8.1768906666666655E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Chips (25 wt% moisture)",{"$f":"B444","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Wood Chips (25 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G442*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G446*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I442*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Chips (25 wt% moisture)",{"$f":"B444","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"Wood Chips (25 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G443*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G447*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I443*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Chips (25 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"Wood Chips (25 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G440*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G448*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I440*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Chips (25 wt% moisture)",{"$f":"B448","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Wood Chips (25 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G441*(1-Ship_energy_reduction_2030)","v":2.5570833333333331E-2},{"$f":"G449*Prim_En_Fueloil","v":2.8383624999999999E-2},{"$f":"I441*(1-Ship_reduction_2030)","v":7.1547793333333314E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Chips (25 wt% moisture)",{"$f":"B448","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Wood Chips (25 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G442*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G450*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I442*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Chips (25 wt% moisture)",{"$f":"B448","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"Wood Chips (25 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G443*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G451*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I443*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Chips (25 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"Wood Chips (25 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G452*Prim_En_Diesel","v":0},{"$f":"G452*EF_diesel_LHVenergybasis","v":0},{"$f":"G440/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Chips (25 wt% moisture)",{"$f":"B452","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Wood Chips (25 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G453*Prim_En_Fueloil","v":0},{"$f":"G453*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G441/'Technology Data'!$D$215","v":6.4007092198581556E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Chips (25 wt% moisture)",{"$f":"B453","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Wood Chips (25 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G454*Prim_En_Fueloil","v":0},{"$f":"G454*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G442/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Chips (25 wt% moisture)",{"$f":"B454","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"Wood Chips (25 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G455*Prim_En_Diesel","v":0},{"$f":"G455*EF_diesel_LHVenergybasis","v":0},{"$f":"G443/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"'Technology Data'!A30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$522","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$516","v":"Truck"},"Wood Pellets (7 wt% moisture):Transport GHG emissions 2013:Truck",1.22,"Oakridge (2013), typical fuel consumption of US Class 8 combination trucks of 6.5 US gallons per thousand US ton miles (equal to 1.22 MJ/t km assuming a 50% load factor). Corresponds to data from US National Transport Statistics, 2013. Table 04_14. Based on US combination truck fuel consumption, which was 5.8 miles per gallon in 2012, with a typical payload of 22 metric tonnes, 50% Capacity factor (1.32 MJ/t km)",{"$f":"E456/Conv_kwh_MJ","v":0.33888888888888885},{"$f":"G456*Prim_En_Diesel","v":0.36362777777777772},{"$f":"E456/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":0.10995249999999998},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A456","v":"Wood Pellets (7 wt% moisture)"},{"$f":"B456","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Wood Pellets (7 wt% moisture):Transport GHG emissions 2013:Shipping - Product Tanker",6.4399999999999999E-2,"MAN Diesel and Turbo, 2014. Modelled on a 35kte Handysize ship, with a 45267 m3 volume capacity, resulting in 84% loading for pelletised wood. (650 kg/m3 pellet density).",{"$f":"E457/Conv_kwh_MJ","v":1.7888888888888888E-2},{"$f":"G457*Prim_En_Fueloil","v":1.9856666666666668E-2},{"$f":"E457/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":6.0779288888888885E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
[{"$f":"A457","v":"Wood Pellets (7 wt% moisture)"},{"$f":"B456","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Wood Pellets (7 wt% moisture):Transport GHG emissions 2013:Shipping - Inland bulk carrier",0.32,"Ofgem, 2013.",{"$f":"E458/Conv_kwh_MJ","v":8.8888888888888892E-2},{"$f":"G458*Prim_En_Fueloil","v":9.866666666666668E-2},{"$f":"E458/Conv_kwh_MJ*EF_heavyfueloil_LHVbasis","v":3.0200888888888892E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Pellets (7 wt% moisture)",{"$f":"B456","v":"Transport GHG emissions 2013"},{"$f":"Lists!$A$519","v":"Rail"},"Wood Pellets (7 wt% moisture):Transport GHG emissions 2013:Rail",0.19400000000000001,"National Transport Statistics, 2013a. Table 04_17. Assuming 476 ton miles/gallon for US train. ",{"$f":"E459/Conv_kwh_MJ","v":5.3888888888888889E-2},{"$f":"G459*Prim_En_Diesel","v":5.7822777777777778E-2},{"$f":"E459/Conv_kwh_MJ*EF_diesel_LHVenergybasis","v":1.7484249999999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Pellets (7 wt% moisture)",{"$f":"Lists!$A$523","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$516","v":"Truck"},"Wood Pellets (7 wt% moisture):Predicted transport GHG emissions 2020:Truck","-",null,{"$f":"G456*(1-Truck_energy_reduction_2020)","v":0.29702614379084963},{"$f":"G460*Prim_En_Diesel","v":0.31870905228758162},{"$f":"I456*(1-Truck_reduction_2020)","v":9.637013235294116E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Pellets (7 wt% moisture)",{"$f":"B460","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Wood Pellets (7 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Product Tanker","-",null,{"$f":"G457*(1-Ship_energy_reduction_2020)","v":1.61E-2},{"$f":"G461*Prim_En_Fueloil","v":1.7871000000000001E-2},{"$f":"I457*(1-Ship_reduction_2020)","v":4.8623431111111115E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Pellets (7 wt% moisture)",{"$f":"B460","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Wood Pellets (7 wt% moisture):Predicted transport GHG emissions 2020:Shipping - Inland bulk carrier","-",null,{"$f":"G458*(1-Barge_energy_reduction_2020)","v":0.08},{"$f":"G462*Prim_En_Fueloil","v":8.8800000000000004E-2},{"$f":"I458*(1-Barge_reduction_2020)","v":2.4160711111111115E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Pellets (7 wt% moisture)",{"$f":"B460","v":"Predicted transport GHG emissions 2020"},{"$f":"Lists!$A$519","v":"Rail"},"Wood Pellets (7 wt% moisture):Predicted transport GHG emissions 2020:Rail","-",null,{"$f":"G459*(1-Rail_energy_reduction_2020)","v":4.9847222222222223E-2},{"$f":"G463*Prim_En_Diesel","v":5.3486069444444444E-2},{"$f":"I459*(1-Rail_reduction_2020)","v":1.4861612499999996E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Pellets (7 wt% moisture)",{"$f":"Lists!$A$524","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$516","v":"Truck"},"Wood Pellets (7 wt% moisture):Predicted transport GHG emissions 2030:Truck","-",null,{"$f":"G456*(1-Truck_energy_reduction_2030)","v":0.23722222222222217},{"$f":"G464*Prim_En_Diesel","v":0.25453944444444437},{"$f":"I456*(1-Truck_reduction_2030)","v":7.6966749999999987E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Pellets (7 wt% moisture)",{"$f":"B464","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Wood Pellets (7 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Product Tanker","-",null,{"$f":"G457*(1-Ship_energy_reduction_2030)","v":1.5205555555555554E-2},{"$f":"G465*Prim_En_Fueloil","v":1.6878166666666666E-2},{"$f":"I457*(1-Ship_reduction_2030)","v":4.2545502222222217E-3},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Pellets (7 wt% moisture)",{"$f":"B464","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Wood Pellets (7 wt% moisture):Predicted transport GHG emissions 2030:Shipping - Inland bulk carrier","-",null,{"$f":"G458*(1-Barge_energy_reduction_2030)","v":7.5555555555555556E-2},{"$f":"G466*Prim_En_Fueloil","v":8.3866666666666673E-2},{"$f":"I458*(1-Barge_reduction_2030)","v":2.1140622222222225E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Pellets (7 wt% moisture)",{"$f":"B464","v":"Predicted transport GHG emissions 2030"},{"$f":"Lists!$A$519","v":"Rail"},"Wood Pellets (7 wt% moisture):Predicted transport GHG emissions 2030:Rail","-",null,{"$f":"G459*(1-Rail_energy_reduction_2030)","v":4.5805555555555558E-2},{"$f":"G467*Prim_En_Diesel","v":4.9149361111111109E-2},{"$f":"I459*(1-Rail_reduction_2030)","v":1.2238974999999997E-2},0,1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Pellets (7 wt% moisture)",{"$f":"Lists!$A$525","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$516","v":"Truck"},"Wood Pellets (7 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Truck","-",null,0,{"$f":"G468*Prim_En_Diesel","v":0},{"$f":"G468*EF_diesel_LHVenergybasis","v":0},{"$f":"G456/'Technology Data'!$D$215","v":0.72104018912529544},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Pellets (7 wt% moisture)",{"$f":"B468","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$517","v":"Shipping - Product Tanker"},"Wood Pellets (7 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Product Tanker","-",null,0,{"$f":"G469*Prim_En_Fueloil","v":0},{"$f":"G469*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G457/'Technology Data'!$D$215","v":3.8061465721040189E-2},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Pellets (7 wt% moisture)",{"$f":"B469","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$518","v":"Shipping - Inland bulk carrier"},"Wood Pellets (7 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Shipping - Inland bulk carrier","-",null,0,{"$f":"G470*Prim_En_Fueloil","v":0},{"$f":"G470*EF_heavyfueloil_LHVbasis","v":0},{"$f":"G458/'Technology Data'!$D$215","v":0.18912529550827425},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Wood Pellets (7 wt% moisture)",{"$f":"B470","v":"Energy provided by proportion of biomass converted to bioliquids"},{"$f":"Lists!$A$519","v":"Rail"},"Wood Pellets (7 wt% moisture):Energy provided by proportion of biomass converted to bioliquids:Rail","-",null,0,{"$f":"G471*Prim_En_Diesel","v":0},{"$f":"G471*EF_diesel_LHVenergybasis","v":0},{"$f":"G459/'Technology Data'!$D$215","v":0.11465721040189127},1E-3,"Discussion with pellet facilities. Further data required to confirm."]
["Insert above here"]

{"sheet":"Technology Data","index":10,"n_rows":305,"n_cols":36,"rows_kept":305,"cut":false,"hidden":false,"merged":[]}
["Biomass Forms and Calorific Value"]
[]
["Selected Dry Calorific value from Technology Data Table 1",{"$f":"'Land Data'!B707","v":5.333333333333333},"kWh/kg"]
["Technology Data Table 1 - Calorific Values"]
[null,"Moisture Content","Net Calorific Value"]
[null,"wt%","kwh/kg"]
[{"$f":"Lists!A374","v":"All the wood harvested over the rotation (50 wt% moisture)"},0.5,{"$f":"$B$3*(1-B7)-Vapourisation_H2O*(B7)","v":2.3271666666666664}]
[{"$f":"Lists!A375","v":"All additional wood compared to counterfactual (50 wt% moisture)"},0.5,2.3271666666666664]
[{"$f":"Lists!A376","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},0.5,2.3271666666666664]
[{"$f":"Lists!A377","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},0.5,2.3271666666666664]
[{"$f":"Lists!A378","v":"All additional wood created by new management (50 wt% moisture)"},0.5,2.3271666666666664]
[{"$f":"Lists!A379","v":"Biomass from Land Clearance (50 wt% moisture)"},0.5,2.3271666666666664]
[{"$f":"Lists!A380","v":"Saw logs (50 wt% moisture)"},0.5,2.3271666666666664]
[{"$f":"Lists!A381","v":"Small Roundwood (50 wt% moisture)"},0.5,2.3271666666666664]
[{"$f":"Lists!A382","v":"Woody Debris (25 wt% moisture). Continuous removal."},0.25,3.8302499999999999,"The residues undergo roadside drying before being collected"]
[{"$f":"Lists!A383","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},0.25,3.8302499999999999]
[{"$f":"Lists!A386","v":"SRC Chips (50 wt% moisture)"},0.5,2.3271666666666664]
[{"$f":"Lists!A387","v":"Miscanthus Chips (30 wt% moisture)"},0.3,3.529633333333333]
[{"$f":"Lists!A388","v":"Eucalyptus Roundwood (50 wt% moisture)"},0.5,2.3271666666666664]
[{"$f":"Lists!A389","v":"Palm Fruit (34 wt% moisture)"},0.34,{"$f":"(Palm_fat*LHV_fat+Palm_proteincarb*LHV_carb_protein)/Conv_kwh_MJ*(1-B20)-Vapourisation_H2O*(B20)","v":4.4001399999999995}]
[{"$f":"Lists!A390","v":"Maize Whole Crop (70 wt% moisture)"},0.7,{"$f":"LHV_biomass/Conv_kwh_MJ*(1-B21)-Vapourisation_H2O*(B21)","v":1.1080333333333334}]
[{"$f":"Lists!A392","v":"Maize Sillage (67 wt% moisture)"},0.67,{"$f":"LHV_biomass/Conv_kwh_MJ*(1-B22)-Vapourisation_H2O*(B22)","v":1.2867366666666664}]
[{"$f":"Lists!A393","v":"Palm Oil"},0,{"$f":"LHV_fat/Conv_kwh_MJ","v":11.111111111111111}]
[{"$f":"Lists!A394","v":"Palm Biodiesel"},0,{"$f":"LHV_fat/Conv_kwh_MJ","v":11.111111111111111}]
[{"$f":"Lists!A395","v":"SRC Chips (25 wt% moisture)"},0.25,{"$f":"$B$3*(1-B25)-Vapourisation_H2O*(B25)","v":3.8302499999999999}]
[{"$f":"Lists!A396","v":"SRC Pellets (10% moisture)"},0.1,{"$f":"$B$3*(1-B26)-Vapourisation_H2O*(B26)","v":4.7321}]
[{"$f":"Lists!A397","v":"Miscanthus Chips (10 wt% moisture)"},0.1,4.7321]
[{"$f":"Lists!A398","v":"Miscanthus Pellets (10% moisture)"},0.1,4.7321]
[{"$f":"Lists!A399","v":"Wood Chips (25 wt% moisture)"},0.25,3.8302499999999999]
[{"$f":"Lists!A400","v":"Wood Pellets (7 wt% moisture)"},7.0000000000000007E-2,4.912469999999999]
["Add above "]
[]
["Pelletiser Electricity Requirement"]
["Selected Pellet Electricity Requirement from Technology Data Table 2.",{"$f":"INDEX('Technology Data'!B37:B40,MATCH(Chosen_Pellet_Energy,Pelletiser_Energy,0))","v":684},"MJ/t pellets"]
["Technology Data Table 2 - Pelletisation enegy"]
["Descriptor","Value (MJ/t pellets)","Reference"]
["Low",360,"NNFCC, 2013"]
["Medium",530,"NNFCC, 2013"]
["Default 2014",{"$f":"190*3.6","v":684},"Discussion with pellet companies"]
["High",860,"NNFCC, 2013"]
[]
[]
["Emission Factors for Electricity Generation "]
["Selected Electricity Factors from Technology Data Table 3.",{"$f":"Results_Biopathways!C58","v":244},{"$f":"INDEX(lookup_EF_country_powerEFs_error, MATCH(Results_Biopathways!C25,lookup_EF_countries,0))*B44","v":61},{"$f":"Calculations!C263","v":"kg CO2e/MWh power"}]
["Primary Energy Requirement",{"$f":"Results_Biopathways!C59","v":1.9988716374796893},{"$f":"Error_grid_PrimEn*B45","v":0.49971790936992233},"MWh primary energy/MWh electricity"]
["Decarbonised grid primary energy requirement",1.25,null,"Default assumption. Represents a scenario of high renewables, with a ratio close to 1. User can vary."]
[]
["Technology Data Table 3 - Emission Factors"]
["Country",2013,"MWh primary energy/MWh electricity 2012","Predicted EF 2020","MWh primary energy/MWh electricity 2020","Predicted EF 2030","MWh primary energy/MWh electricity 2030",null,"Reference "]
[null,"kg CO2/MWh","MWh/MWh","kg CO2/MWh","MWh/MWh","kg CO2/MWh","MWh/MWh","error in Efs"]
["Global Average",612,{"$f":"1/0.29","v":3.4482758620689657},587,{"$f":"Decarbon_grid_primaryenergy*(B51-D51)/B51+C51*(1-(B51-D51)/B51)","v":3.3584770114942533},535,{"$f":"Decarbon_grid_primaryenergy*(B51-F51)/B51+C51*(1-(B51-F51)/B51)","v":3.1716954022988508},1,"GHG: IEA, 2013. Energy: 2013 assumed global average grid at 29% efficiency (based on US: Raugei et al., 2012). Assumed that decarbonation would result in primary energy requirement being 1MWh/MWh. Progress towards decarbonisation used to determine how primary energy requirement changes over time."]
[{"$f":"'Transport Data'!A8","v":"UK"},553.90000000000009,2.95,244,1.9988716374796893,100,1.5569146055244629,0.25,"GHG: Defra, 2013 for current emission factors.Includes 445.48 kgCO2/MWh for direct emissions, 38.09 kg CO2/MWh for transmission and distribution losses, and 70.33 kg CO2/MWh for indirect emissions. DECC, 2013 for future projections. Energy: average efficiency 2013 ~ 34%"]
[{"$f":"'Transport Data'!A9","v":"South USA"},520,{"$f":"1/0.29","v":3.4482758620689657},439,3.1058521220159152,358,2.7634283819628651,0.25,"GHG: NNFCC, 2013. Energy: current grid efficiency 29% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A10","v":"North West USA"},520,{"$f":"1/0.29","v":3.4482758620689657},439,3.1058521220159152,358,2.7634283819628651,0.25,"GHG: NNFCC, 2013. Energy: current grid efficiency 29% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A11","v":"North-East USA"},520,3.4482758620689657,439,3.1058521220159152,358,2.7634283819628651,0.25,"GHG: NNFCC, 2013. Energy: current grid efficiency 29% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A12","v":"North USA"},520,3.4482758620689657,439,3.1058521220159152,358,2.7634283819628651,0.25,"GHG: NNFCC, 2013. Energy: current grid efficiency 29% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A13","v":"Pacific Canada"},180,1.5,148,1.4555555555555557,117,1.4125000000000001,0.25,"GHG: NNFCC, 2013. Energy: Estimation, based on high hydroelectric %."]
[{"$f":"'Transport Data'!A14","v":"Interior Canada"},180,1.5,148,1.4555555555555557,117,1.4125000000000001,0.25,"GHG: NNFCC, 2013. Energy: Estimation, based on high hydroelectric %."]
[{"$f":"'Transport Data'!A15","v":"Boreal North Canada"},180,1.5,148,1.4555555555555557,117,1.4125000000000001,0.25,"GHG: NNFCC, 2013. Energy: Estimation, based on high hydroelectric %."]
[{"$f":"'Transport Data'!A16","v":"East Canada"},180,1.5,148,1.4555555555555557,117,1.4125000000000001,0.25,"GHG: NNFCC, 2013. Energy: Estimation, based on high hydroelectric %."]
[{"$f":"'Transport Data'!A17","v":"Africa"},683,{"$f":"1/0.29","v":3.4482758620689657},683,3.4482758620689657,683,3.4482758620689657,0.25,"GHG US DOE, 2010. Average for Africa. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A18","v":"Africa (tropical dry region)"},683,{"$f":"1/0.29","v":3.4482758620689657},683,3.4482758620689657,683,3.4482758620689657,0.25,"GHG US DOE, 2010. Average for Africa. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A19","v":"Africa (tropical moist region)"},683,3.4482758620689657,683,3.4482758620689657,683,3.4482758620689657,0.25,"GHG US DOE, 2010. Average for Africa. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A20","v":"Africa (tropical wet region)"},683,3.4482758620689657,683,3.4482758620689657,683,3.4482758620689657,0.25,"GHG US DOE, 2010. Average for Africa. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A21","v":"Africa (tropical montane region)"},683,3.4482758620689657,683,3.4482758620689657,683,3.4482758620689657,0.25,"GHG US DOE, 2010. Average for Africa. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A22","v":"North America"},520,{"$f":"1/0.29","v":3.4482758620689657},439,3.1058521220159152,358,2.7634283819628651,0.25,"Based on USA. GHG: NNFCC, 2013. Energy: current grid efficiency 29% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A23","v":"North America (boreal region)"},520,{"$f":"1/0.29","v":3.4482758620689657},439,3.1058521220159152,358,2.7634283819628651,0.25,"Based on USA. GHG: NNFCC, 2013. Energy: current grid efficiency 29% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A24","v":"North America (temperate dry region)"},520,3.4482758620689657,439,3.1058521220159152,358,2.7634283819628651,0.25,"Based on USA. GHG: NNFCC, 2013. Energy: current grid efficiency 29% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A25","v":"North America (temperate moist region)"},520,3.4482758620689657,439,3.1058521220159152,358,2.7634283819628651,0.25,"Based on USA. GHG: NNFCC, 2013. Energy: current grid efficiency 29% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A26","v":"North America (tropical montane region)"},520,3.4482758620689657,439,3.1058521220159152,358,2.7634283819628651,0.25,"Based on USA. GHG: NNFCC, 2013. Energy: current grid efficiency 29% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A27","v":"North America (tropical dry region)"},520,3.4482758620689657,439,3.1058521220159152,358,2.7634283819628651,0.25,"Based on USA. GHG: NNFCC, 2013. Energy: current grid efficiency 29% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A28","v":"North America (tropical moist region)"},520,3.4482758620689657,439,3.1058521220159152,358,2.7634283819628651,0.25,"Based on USA. GHG: NNFCC, 2013. Energy: current grid efficiency 29% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A29","v":"North America (tropical wet region)"},520,3.4482758620689657,439,3.1058521220159152,358,2.7634283819628651,0.25,"Based on USA. GHG: NNFCC, 2013. Energy: current grid efficiency 29% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A30","v":"South America"},94,1.5,94,1.5,94,1.5,0.25,"GHG: US DOE, 2010, modelled on Brazil. Energy: Estimation, based on high hydroelectrity %."]
[{"$f":"'Transport Data'!A31","v":"South America (temperate dry region)"},94,1.5,94,1.5,94,1.5,0.25,"GHG: US DOE, 2010, modelled on Brazil. Energy: Estimation, based on high hydroelectrity %."]
[{"$f":"'Transport Data'!A32","v":"South America (temperate moist region)"},94,1.5,94,1.5,94,1.5,0.25,"GHG: US DOE, 2010, modelled on Brazil. Energy: Estimation, based on high hydroelectrity %."]
[{"$f":"'Transport Data'!A33","v":"South America (tropical montane region)"},94,1.5,94,1.5,94,1.5,0.25,"GHG: US DOE, 2010, modelled on Brazil. Energy: Estimation, based on high hydroelectrity %."]
[{"$f":"'Transport Data'!A34","v":"South America (tropical dry region)"},94,1.5,94,1.5,94,1.5,0.25,"GHG: US DOE, 2010, modelled on Brazil. Energy: Estimation, based on high hydroelectrity %."]
[{"$f":"'Transport Data'!A35","v":"South America (tropical moist region)"},94,1.5,94,1.5,94,1.5,0.25,"GHG: US DOE, 2010, modelled on Brazil. Energy: Estimation, based on high hydroelectrity %."]
[{"$f":"'Transport Data'!A36","v":"South America (tropical wet region)"},94,1.5,94,1.5,94,1.5,0.25,"GHG: US DOE, 2010, modelled on Brazil. Energy: Estimation, based on high hydroelectrity %."]
[{"$f":"'Transport Data'!A37","v":"Asia Continental"},839,{"$f":"1/0.29","v":3.4482758620689657},839,3.4482758620689657,839,3.4482758620689657,0.25,"GHG: US DOE, 2010, modelled on China. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A38","v":"Asia Continental (boreal region)"},839,3.4482758620689657,839,3.4482758620689657,839,3.4482758620689657,0.25,"GHG: US DOE, 2010, modelled on China. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A39","v":"Asia Continental (tropical dry region)"},839,3.4482758620689657,839,3.4482758620689657,839,3.4482758620689657,0.25,"GHG: US DOE, 2010, modelled on China. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A40","v":"Asia Continental (tropical wet region)"},839,3.4482758620689657,839,3.4482758620689657,839,3.4482758620689657,0.25,"GHG: US DOE, 2010, modelled on China. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A41","v":"Asia Continental (tropical moist region)"},839,3.4482758620689657,839,3.4482758620689657,839,3.4482758620689657,0.25,"GHG: US DOE, 2010, modelled on China. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A42","v":"Asia Continental (tropical montane region)"},839,3.4482758620689657,839,3.4482758620689657,839,3.4482758620689657,0.25,"GHG: US DOE, 2010, modelled on China. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A43","v":"Asia Insular"},{"$f":"AVERAGE(528,722)","v":625},3.4482758620689657,{"$f":"AVERAGE(528,722)","v":625},3.4482758620689657,{"$f":"AVERAGE(528,722)","v":625},3.4482758620689657,0.25,"GHG: US DOE, 2010, modelled on average of Indonesia and Malaysia. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A44","v":"Asia Insular (tropical dry region)"},{"$f":"AVERAGE(528,722)","v":625},3.4482758620689657,{"$f":"AVERAGE(528,722)","v":625},3.4482758620689657,{"$f":"AVERAGE(528,722)","v":625},3.4482758620689657,0.25,"GHG: US DOE, 2010, modelled on average of Indonesia and Malaysia. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A45","v":"Asia Insular (tropical moist region)"},{"$f":"AVERAGE(528,722)","v":625},3.4482758620689657,{"$f":"AVERAGE(528,722)","v":625},3.4482758620689657,{"$f":"AVERAGE(528,722)","v":625},3.4482758620689657,0.25,"GHG: US DOE, 2010, modelled on average of Indonesia and Malaysia. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A46","v":"Asia Insular (tropical wet region)"},{"$f":"AVERAGE(528,722)","v":625},3.4482758620689657,{"$f":"AVERAGE(528,722)","v":625},3.4482758620689657,{"$f":"AVERAGE(528,722)","v":625},3.4482758620689657,0.25,"GHG: US DOE, 2010, modelled on average of Indonesia and Malaysia. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A47","v":"Asia Insular (tropical montane region)"},{"$f":"AVERAGE(528,722)","v":625},3.4482758620689657,{"$f":"AVERAGE(528,722)","v":625},3.4482758620689657,{"$f":"AVERAGE(528,722)","v":625},3.4482758620689657,0.25,"GHG: US DOE, 2010, modelled on average of Indonesia and Malaysia. Energy: Assume grid efficiency of 29% (based on US: Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A48","v":"Europe"},350,{"$f":"1/0.31","v":3.2258064516129035},282,2.8419354838709681,213,2.4524193548387099,0.25,"GHG: NNFCC, 2013. Energy: current EU grid efficiency 31% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A49","v":"Europe (boreal region)"},350,{"$f":"1/0.31","v":3.2258064516129035},282,2.8419354838709681,213,2.4524193548387099,0.25,"GHG: NNFCC, 2013. Energy: current EU grid efficiency 31% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A50","v":"Europe (temperate dry region)"},350,{"$f":"1/0.31","v":3.2258064516129035},282,2.8419354838709681,213,2.4524193548387099,0.25,"GHG: NNFCC, 2013. Energy: current EU grid efficiency 31% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A51","v":"Europe (temperate moist region)"},350,{"$f":"1/0.31","v":3.2258064516129035},282,2.8419354838709681,213,2.4524193548387099,0.25,"GHG: NNFCC, 2013. Energy: current EU grid efficiency 31% (Raugei et al., 2012)"]
[{"$f":"'Transport Data'!A52","v":"New Zealand"},159,1.5,159,1.5,159,1.5,0.25,"GHG: US DOE, 2010, modelled on New Zealand. Energy: Estimation, based on high hydroelectricity %."]
[{"$f":"'Transport Data'!A53","v":"New Zealand (temperate dry region)"},159,1.5,159,1.5,159,1.5,0.25,"GHG: US DOE, 2010, modelled on New Zealand. Energy: Estimation, based on high hydroelectricity %."]
[{"$f":"'Transport Data'!A54","v":"New Zealand (temperate moist region)"},159,1.5,159,1.5,159,1.5,0.25,"GHG: US DOE, 2010, modelled on New Zealand. Energy: Estimation, based on high hydroelectricity %."]
["Add more countries above here"]
[]
["Pretreatment Parameters"]
[]
["Pretreatment lookup name",{"$f":"Results_Biopathways!C48&\":\"&Chosen_biomass_form_biopathways&\":\"&Results_Biopathways!C49","v":"Natural dry and chip:Small Roundwood (50 wt% moisture):Natural or No Drying"}]
["Selected Pretreatment Parameters from Technology Data Table 4."]
["External Direct Energy Requirement",{"$f":"INDEX(Pretreatment_ExternalEnergy_Biopathways,MATCH(B103,lookup_pretreatment_biopathways,0))","v":1.013888888888889E-2},"MWh/wet t in"]
["Primary Energy Requirement",{"$f":"INDEX(Pretreatment_PrimEnergy,MATCH(B103,lookup_pretreatment_biopathways,0))","v":1.0879027777777779E-2},"MWh/wet t in"]
["GHG emissions",{"$f":"INDEX(Pretreatment_Emissions_Biopathways,MATCH(Lookupname_pretreatment,lookup_pretreatment_biopathways,0))","v":3.2895624999999995E-3},"t CO2e/wet t in"]
["Primary Energy from Biomass Required for Processing",{"$f":"INDEX(Pretreatment_Biomass_Required_Biopathways,MATCH(Lookupname_pretreatment,lookup_pretreatment_biopathways,0))","v":0},"MWh/ wet t in"]
["Energy produced",{"$f":"INDEX(Pretreatment_Energy_Out_Biopathways,MATCH(Lookupname_pretreatment,lookup_pretreatment_biopathways,0))","v":2.5534999999999997},"MWh out/wet t in"]
["Output Material",{"$f":"INDEX(Biomass_forms_output_biopathways,MATCH(Lookupname_pretreatment,lookup_pretreatment_biopathways,0))","v":"Wood Chips (25 wt% moisture)"}]
[]
["Technology Data Table 4 - Pretreatment Parameters"]
[null,null,null,null,null,"Chipping",null,null,null,null,"Drying",null,null,null,null,null,null,null,null,null,null,null,null,"Processing (pelletising/sillage etc.)",null,null,null,null,"Overall",null,null,null,null,null,null,"Reference"]
["Pretreatment Process","Input Material","Output Material","Drying Method","Lookup Name","Mass Output","Diesel Requirement","CO2 emission factor","External Direct Energy Factor","Primary Energy Factor","Input Moisture","Output Moisture","Material Losses","Mass Output","Diesel Requirement","Electrical Requirement","Natural Gas Energy Requirement","Biomass Energy Requirement","CO2 emission factor","Biomass Energy Required","External Direct Energy Factor","Primary Energy Factor","Final Moisture Content ","Mass Output","Electrical Requirement","CO2 emission factor","External Direct Energy Factor","Primary Energy Factor","Mass Out","Energy Out","Emissions","External Direct Energy Factor","Primary Energy Factor","Total electricity requirement","Biomass required"]
[null,null,null,null,null,"t out/t in","MJ/t output","t CO2e/t out","MWh/t out","MWh/t out","wt%","wt%","wt% of input","t out/t in","MJ/t output","MJ/t output","MJ/t output","MJ/t output","t CO2e/t out","MWh/t out","MWh/t out","MWh/t out","wt%","t out/t in","MJ/t output","t CO2e/t out","MWh/t out","MWh/t out","t output/wet t in","MWh out/wet t in","t CO2e/ wet t in","MWh/ wet t in","MWh/ wet t in","MWhe/wet t in","MWh/ wet t in"]
[{"$f":"Lists!A498","v":"Dry"},{"$f":"Lists!N528","v":"SRC Chips (50 wt% moisture)"},{"$f":"'Technology Data'!A25","v":"SRC Chips (25 wt% moisture)"},{"$f":"Lists!A538","v":"Natural or No Drying"},{"$f":"A116&\":\"&B116&\":\"&D116","v":"Dry:SRC Chips (50 wt% moisture):Natural or No Drying"},1,0,{"$f":"G116/Conv_kwh_MJ*EF_diesel_LHVenergybasis/Conv_te_kg","v":0},{"$f":"(G116/Conv_kwh_MJ)/Conv_MWh_KWh","v":0},{"$f":"I116*Prim_En_Diesel","v":0},{"$f":"INDEX(Biomass_forms_moisture_biopathways,MATCH(B116,Biomass_forms_total_biopathways,0))","v":0.5},0.25,0,{"$f":"(1/(1-L116))/(1/(1-K116))*(1-M116)","v":0.66666666666666663},0,0,0,0,{"$f":"(O116/Conv_kwh_MJ*EF_diesel_LHVenergybasis+P116/Conv_kwh_MJ/Conv_MWh_KWh*$B$44+Q116/Conv_kwh_MJ*EF_NaturalGas_LHVbasis)/Conv_te_kg","v":0},{"$f":"R116/Conv_kwh_MJ/Conv_MWh_KWh","v":0},{"$f":"(O116+P116+Q116)/Conv_kwh_MJ/Conv_MWh_KWh","v":0},{"$f":"(O116*Prim_En_Diesel+P116*Chosen_Grid_Prim_Energy+Q116*Prim_En_Natgas)/Conv_kwh_MJ/Conv_MWh_KWh","v":0},{"$f":"INDEX(Biomass_forms_moisture_biopathways,MATCH(C116,Biomass_forms_total_biopathways,0))","v":0.25},{"$f":"(1/(1-W116))/(1/(1-L116))","v":1},0,{"$f":"Y116/Conv_kwh_MJ/Conv_MWh_KWh*$B$44/Conv_te_kg","v":0},{"$f":"Y116/Conv_kwh_MJ/Conv_MWh_KWh","v":0},{"$f":"AA116*Chosen_Grid_Prim_Energy","v":0},{"$f":"1*F116*N116*X116","v":0.66666666666666663},{"$f":"AC116*INDEX('Technology Data'!$C$7:$C$31,MATCH(C116,Biomass_forms_total_biopathways,0))","v":2.5534999999999997},{"$f":"1*F116*H116+1*F116*N116*S116+1*F116*N116*X116*Z116","v":0},{"$f":"1*F116*I116+1*F116*N116*U116+1*F116*N116*X116*AA116","v":0},{"$f":"1*F116*J116+1*F116*N116*V116+1*F116*N116*X116*AB116","v":0},0,{"$f":"1*F116*N116*T116+IF(Chosen_grid_intensity=Lists!$A$513,AH116/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A116","v":"Dry"},{"$f":"Lists!O528","v":"Miscanthus Chips (30 wt% moisture)"},{"$f":"'Technology Data'!A27","v":"Miscanthus Chips (10 wt% moisture)"},{"$f":"Lists!A537","v":"Electricity "},"Dry:Miscanthus Chips (30 wt% moisture):Electricity ",1,0,0,{"$f":"(G117/Conv_kwh_MJ)/Conv_MWh_KWh","v":0},0,{"$f":"INDEX(Biomass_forms_moisture_biopathways,MATCH(B117,Biomass_forms_total_biopathways,0))","v":0.3},0.1,0.11,{"$f":"(1/(1-L117))/(1/(1-K117))*(1-M117)","v":0.69222222222222229},0,545.4,0,0,{"$f":"(O117/Conv_kwh_MJ*EF_diesel_LHVenergybasis+P117/Conv_kwh_MJ/Conv_MWh_KWh*$B$44+Q117/Conv_kwh_MJ*EF_NaturalGas_LHVbasis)/Conv_te_kg","v":3.6965999999999999E-2},{"$f":"R117/Conv_kwh_MJ/Conv_MWh_KWh","v":0},{"$f":"(O117+P117+Q117)/Conv_kwh_MJ/Conv_MWh_KWh","v":0.1515},0.30282905307817287,0.1,{"$f":"(1/(1-W117))/(1/(1-L117))","v":1},0,{"$f":"Y117/Conv_kwh_MJ/Conv_MWh_KWh*$B$44/Conv_te_kg","v":0},{"$f":"Y117/Conv_kwh_MJ/Conv_MWh_KWh","v":0},0,0.69222222222222229,{"$f":"AC117*INDEX('Technology Data'!$C$7:$C$31,MATCH(C117,Biomass_forms_total_biopathways,0))","v":3.2756647777777781},2.5588686666666669E-2,0.10487166666666667,0.20962500007522414,{"$f":"(1*F117*N117*P117+F117*N117*X117*Y117)/Conv_kwh_MJ/Conv_MWh_KWh","v":0.10487166666666667},{"$f":"1*F117*N117*T117+IF(Chosen_grid_intensity=Lists!$A$513,AH117/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A116","v":"Dry"},{"$f":"B117","v":"Miscanthus Chips (30 wt% moisture)"},"Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!A538","v":"Natural or No Drying"},"Dry:Miscanthus Chips (30 wt% moisture):Natural or No Drying",1,0,0,0,0,{"$f":"INDEX(Biomass_forms_moisture_biopathways,MATCH(B118,Biomass_forms_total_biopathways,0))","v":0.3},0.1,0.11,0.69222222222222229,0,0,0,0,0,{"$f":"R118/Conv_kwh_MJ/Conv_MWh_KWh","v":0},{"$f":"(O118+P118+Q118)/Conv_kwh_MJ/Conv_MWh_KWh","v":0},0,0.1,1,0,0,0,0,0.69222222222222229,{"$f":"AC118*INDEX('Technology Data'!$C$7:$C$31,MATCH(C118,Biomass_forms_total_biopathways,0))","v":3.2756647777777781},0,0,0,0,{"$f":"1*F118*N118*T118+IF(Chosen_grid_intensity=Lists!$A$513,AH118/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A116","v":"Dry"},"Miscanthus Chips (30 wt% moisture)","Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!A539","v":"Biomass"},"Dry:Miscanthus Chips (30 wt% moisture):Biomass",1,0,0,0,0,0.3,0.1,0.11,{"$f":"(1/(1-L119))/(1/(1-K119))*(1-M119)","v":0.69222222222222229},0,12.1,0,668,8.2011111111111098E-4,{"$f":"R119/Conv_kwh_MJ/Conv_MWh_KWh","v":0.18555555555555553},{"$f":"(O119+P119+Q119)/Conv_kwh_MJ/Conv_MWh_KWh","v":3.3611111111111107E-3},6.7184296704178442E-3,0.1,1,0,{"$f":"Y119/Conv_kwh_MJ/Conv_MWh_KWh*$B$44/Conv_te_kg","v":0},0,0,0.69222222222222229,{"$f":"AC119*INDEX('Technology Data'!$C$7:$C$31,MATCH(C119,Biomass_forms_total_biopathways,0))","v":3.2756647777777781},5.6769913580246906E-4,2.3266358024691359E-3,4.6506463163003527E-3,2.3266358024691359E-3,{"$f":"1*F119*N119*T119+IF(Chosen_grid_intensity=Lists!$A$513,AH119/'Technology Data'!$D$221,0)","v":0.12844567901234569},"Ofgem, 2013"]
[{"$f":"A116","v":"Dry"},"Miscanthus Chips (30 wt% moisture)","Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!A540","v":"Diesel"},"Dry:Miscanthus Chips (30 wt% moisture):Diesel",1,0,0,0,0,0.3,0.1,0.11,0.69222222222222229,793,37.4,0,0,7.4004013888888873E-2,0,{"$f":"(O120+P120+Q120)/Conv_kwh_MJ/Conv_MWh_KWh","v":0.23066666666666666},0.25712411090048348,0.1,1,0,0,0,0,0.69222222222222229,{"$f":"AC120*INDEX('Technology Data'!$C$7:$C$31,MATCH(C120,Biomass_forms_total_biopathways,0))","v":3.2756647777777781},5.1227222947530855E-2,0.15967259259259262,0.17798702343444581,7.1914197530864197E-3,{"$f":"1*F120*N120*T120+IF(Chosen_grid_intensity=Lists!$A$513,AH120/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A116","v":"Dry"},"Miscanthus Chips (30 wt% moisture)","Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!A541","v":"Natural Gas"},"Dry:Miscanthus Chips (30 wt% moisture):Natural Gas",1,0,0,0,0,0.3,0.1,0.11,0.69222222222222229,0,12.1,684,0,4.5544211111111108E-2,0,{"$f":"(O121+P121+Q121)/Conv_kwh_MJ/Conv_MWh_KWh","v":0.19336111111111112},0.21761842967041786,0.1,1,0,0,0,0,0.69222222222222229,{"$f":"AC121*INDEX('Technology Data'!$C$7:$C$31,MATCH(C121,Biomass_forms_total_biopathways,0))","v":3.2756647777777781},3.1526715024691357E-2,0.13384885802469138,0.15064031298296704,2.3266358024691359E-3,{"$f":"1*F121*N121*T121+IF(Chosen_grid_intensity=Lists!$A$513,AH121/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"Lists!A499","v":"Dry and pelletise"},{"$f":"Lists!N528","v":"SRC Chips (50 wt% moisture)"},{"$f":"'Technology Data'!A26","v":"SRC Pellets (10% moisture)"},{"$f":"Lists!A537","v":"Electricity "},"Dry and pelletise:SRC Chips (50 wt% moisture):Electricity ",1,0,0,0,0,0.5,0.1,0,0.55555555555555558,0,1505,0,0,0.10200555555555556,0,{"$f":"(O122+P122+Q122)/Conv_kwh_MJ/Conv_MWh_KWh","v":0.41805555555555557},{"$f":"(O122*Prim_En_Diesel+P122*Chosen_Grid_Prim_Energy+Q122*Prim_En_Natgas)/Conv_kwh_MJ/Conv_MWh_KWh","v":0.83563939289081457},0.1,1,{"$f":"Chosen_pellet_electricity","v":684},4.6359999999999998E-2,0.19,0.37978561112114095,0.55555555555555558,{"$f":"AC122*INDEX('Technology Data'!$C$7:$C$31,MATCH(C122,Biomass_forms_total_biopathways,0))","v":2.6289444444444445},8.2425308641975309E-2,0.33780864197530863,0.67523611333997535,0.33780864197530874,{"$f":"1*F122*N122*T122+IF(Chosen_grid_intensity=Lists!$A$513,AH122/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A122","v":"Dry and pelletise"},"SRC Chips (50 wt% moisture)","SRC Pellets (10% moisture)",{"$f":"Lists!A539","v":"Biomass"},"Dry and pelletise:SRC Chips (50 wt% moisture):Biomass",1,0,0,0,0,0.5,0.1,0,{"$f":"(1/(1-L123))/(1/(1-K123))*(1-M123)","v":0.55555555555555558},0,12.1,0,1870,8.2011111111111098E-4,0.51944444444444449,3.3611111111111107E-3,6.7184296704178442E-3,0.1,1,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.55555555555555558,{"$f":"AC123*INDEX('Technology Data'!$C$7:$C$31,MATCH(C123,Biomass_forms_total_biopathways,0))","v":2.6289444444444445},2.6211172839506174E-2,0.10742283950617285,0.21472446710642157,0.10742283950617283,{"$f":"1*F123*N123*T123+IF(Chosen_grid_intensity=Lists!$A$513,AH123/'Technology Data'!$D$221,0)","v":0.28858024691358031},"Ofgem, 2013"]
["Dry and pelletise","SRC Chips (50 wt% moisture)","SRC Pellets (10% moisture)",{"$f":"Lists!A540","v":"Diesel"},"Dry and pelletise:SRC Chips (50 wt% moisture):Diesel",1,0,0,0,0,0.5,0.1,0,0.55555555555555558,1914,12.1,0,0,0.17331936111111107,0,0.53502777777777777,0.57719676300375111,0.1,1,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.55555555555555558,{"$f":"AC124*INDEX('Technology Data'!$C$7:$C$31,MATCH(C124,Biomass_forms_total_biopathways,0))","v":2.6289444444444445},0.12204408950617282,0.40279320987654321,0.53165687451382893,0.10742283950617283,{"$f":"1*F124*N124*T124+IF(Chosen_grid_intensity=Lists!$A$513,AH124/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
["Dry and pelletise","SRC Chips (50 wt% moisture)","SRC Pellets (10% moisture)",{"$f":"Lists!A541","v":"Natural Gas"},"Dry and pelletise:SRC Chips (50 wt% moisture):Natural Gas",1,0,0,0,0,0.5,0.1,0,0.55555555555555558,0,12.1,1914,0,0.12596912777777777,0,0.53502777777777777,0.59686842967041787,0.1,1,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.55555555555555558,{"$f":"AC125*INDEX('Technology Data'!$C$7:$C$31,MATCH(C125,Biomass_forms_total_biopathways,0))","v":2.6289444444444445},9.5738404320987652E-2,0.40279320987654321,0.54258557821753273,0.10742283950617283,{"$f":"1*F125*N125*T125+IF(Chosen_grid_intensity=Lists!$A$513,AH125/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A122","v":"Dry and pelletise"},{"$f":"Lists!O528","v":"Miscanthus Chips (30 wt% moisture)"},{"$f":"'Technology Data'!A28","v":"Miscanthus Pellets (10% moisture)"},{"$f":"Lists!A537","v":"Electricity "},"Dry and pelletise:Miscanthus Chips (30 wt% moisture):Electricity ",1,0,0,0,0,0.3,0.1,0.11,0.69222222222222229,0,545.4,0,0,3.6965999999999999E-2,0,0.1515,0.30282905307817287,0.1,1,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.69222222222222229,{"$f":"AC126*INDEX('Technology Data'!$C$7:$C$31,MATCH(C126,Biomass_forms_total_biopathways,0))","v":3.2756647777777781},5.7680108888888887E-2,0.2363938888888889,0.47252103977352511,0.23639388888888888,{"$f":"1*F126*N126*T126+IF(Chosen_grid_intensity=Lists!$A$513,AH126/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A123","v":"Dry and pelletise"},{"$f":"B126","v":"Miscanthus Chips (30 wt% moisture)"},"Miscanthus Pellets (10% moisture)",{"$f":"Lists!A539","v":"Biomass"},"Dry and pelletise:Miscanthus Chips (30 wt% moisture):Biomass",1,0,0,0,0,0.3,0.1,0.11,0.69222222222222229,0,12.1,0,668,8.2011111111111098E-4,0.18555555555555553,3.3611111111111107E-3,6.7184296704178442E-3,0.1,1,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.69222222222222229,{"$f":"AC127*INDEX('Technology Data'!$C$7:$C$31,MATCH(C127,Biomass_forms_total_biopathways,0))","v":3.2756647777777781},3.2659121358024693E-2,0.13384885802469138,0.2675466860146013,0.13384885802469138,{"$f":"1*F127*N127*T127+IF(Chosen_grid_intensity=Lists!$A$513,AH127/'Technology Data'!$D$221,0)","v":0.12844567901234569},"Ofgem, 2013"]
[{"$f":"A124","v":"Dry and pelletise"},"Miscanthus Chips (30 wt% moisture)","Miscanthus Pellets (10% moisture)",{"$f":"Lists!A540","v":"Diesel"},"Dry and pelletise:Miscanthus Chips (30 wt% moisture):Diesel",1,0,0,0,0,0.3,0.1,0.11,0.69222222222222229,793,37.4,0,0,7.4004013888888873E-2,0,0.23066666666666666,0.25712411090048348,0.1,1,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.69222222222222229,{"$f":"AC128*INDEX('Technology Data'!$C$7:$C$31,MATCH(C128,Biomass_forms_total_biopathways,0))","v":3.2756647777777781},8.3318645169753069E-2,0.29119481481481485,0.44088306313274672,0.13871364197530867,{"$f":"1*F128*N128*T128+IF(Chosen_grid_intensity=Lists!$A$513,AH128/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A125","v":"Dry and pelletise"},"Miscanthus Chips (30 wt% moisture)","Miscanthus Pellets (10% moisture)",{"$f":"Lists!A541","v":"Natural Gas"},"Dry and pelletise:Miscanthus Chips (30 wt% moisture):Natural Gas",1,0,0,0,0,0.3,0.1,0.11,0.69222222222222229,0,12.1,684,0,4.5544211111111108E-2,0,0.19336111111111112,0.21761842967041786,0.1,1,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.69222222222222229,{"$f":"AC129*INDEX('Technology Data'!$C$7:$C$31,MATCH(C129,Biomass_forms_total_biopathways,0))","v":3.2756647777777781},6.3618137246913578E-2,0.26537108024691358,0.41353635268126798,0.13384885802469138,{"$f":"1*F129*N129*T129+IF(Chosen_grid_intensity=Lists!$A$513,AH129/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A126","v":"Dry and pelletise"},{"$f":"'Technology Data'!$A$13","v":"Saw logs (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$537","v":"Electricity "},"Dry and pelletise:Saw logs (50 wt% moisture):Electricity ",1,0,{"$f":"G130/Conv_kwh_MJ*EF_diesel_LHVenergybasis/Conv_te_kg","v":0},0,0,0.5,0.1,0,{"$f":"(1/(1-L130))/(1/(1-K130))*(1-M130)","v":0.55555555555555558},0,1505,0,0,{"$f":"(O130/Conv_kwh_MJ*EF_diesel_LHVenergybasis+P130/Conv_kwh_MJ/Conv_MWh_KWh*$B$44+Q130/Conv_kwh_MJ*EF_NaturalGas_LHVbasis)/Conv_te_kg","v":0.10200555555555556},{"$f":"R130/Conv_kwh_MJ/Conv_MWh_KWh","v":0},{"$f":"(O130+P130+Q130)/Conv_kwh_MJ/Conv_MWh_KWh","v":0.41805555555555557},0.83563939289081457,7.0000000000000007E-2,0.96774193548387111,684,{"$f":"Y130/Conv_kwh_MJ/Conv_MWh_KWh*$B$44/Conv_te_kg","v":4.6359999999999998E-2},0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC130*INDEX('Technology Data'!$C$7:$C$31,MATCH(C130,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},8.159448426921545E-2,0.33440362405416169,0.6684299195922847,0.33440362405416174,{"$f":"1*F130*N130*T130+IF(Chosen_grid_intensity=Lists!$A$513,AH130/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
["Dry and pelletise",{"$f":"'Technology Data'!$A$13","v":"Saw logs (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$539","v":"Biomass"},"Dry and pelletise:Saw logs (50 wt% moisture):Biomass",1,0,0,0,0,0.5,0.1,0,0.55555555555555558,0,12.1,0,1870,8.2011111111111098E-4,0.51944444444444449,3.3611111111111107E-3,6.7184296704178442E-3,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC131*INDEX('Technology Data'!$C$7:$C$31,MATCH(C131,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},2.5380348466746319E-2,0.10401782158502591,0.20791827335873089,0.1040178215850259,{"$f":"1*F131*N131*T131+IF(Chosen_grid_intensity=Lists!$A$513,AH131/'Technology Data'!$D$221,0)","v":0.28858024691358031},"Ofgem, 2013"]
["Dry and pelletise",{"$f":"'Technology Data'!$A$13","v":"Saw logs (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$540","v":"Diesel"},"Dry and pelletise:Saw logs (50 wt% moisture):Diesel",1,0,0,0,0,0.5,0.1,0,0.55555555555555558,1914,12.1,0,0,0.17331936111111107,0,0.53502777777777777,0.57719676300375111,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC132*INDEX('Technology Data'!$C$7:$C$31,MATCH(C132,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},0.12121326513341296,0.39938819195539627,0.52485068076613828,0.1040178215850259,{"$f":"1*F132*N132*T132+IF(Chosen_grid_intensity=Lists!$A$513,AH132/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
["Dry and pelletise",{"$f":"'Technology Data'!$A$13","v":"Saw logs (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$541","v":"Natural Gas"},"Dry and pelletise:Saw logs (50 wt% moisture):Natural Gas",1,0,0,0,0,0.5,0.1,0,0.55555555555555558,0,12.1,1914,0,0.12596912777777777,0,0.53502777777777777,0.59686842967041787,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC133*INDEX('Technology Data'!$C$7:$C$31,MATCH(C133,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},9.4907579948227794E-2,0.39938819195539627,0.53577938446984197,0.1040178215850259,{"$f":"1*F133*N133*T133+IF(Chosen_grid_intensity=Lists!$A$513,AH133/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"Lists!A501","v":"Natural dry and chip"},{"$f":"Lists!H528","v":"Saw logs (50 wt% moisture)"},{"$f":"'Technology Data'!A29","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!A538","v":"Natural or No Drying"},"Natural dry and chip:Saw logs (50 wt% moisture):Natural or No Drying",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.25,0,0.66666666666666663,0,0,0,0,0,0,0,0,0.25,1,0,0,0,0,0.66666666666666663,{"$f":"AC134*INDEX('Technology Data'!$C$7:$C$31,MATCH(C134,Biomass_forms_total_biopathways,0))","v":2.5534999999999997},3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0,{"$f":"1*F134*N134*T134+IF(Chosen_grid_intensity=Lists!$A$513,AH134/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A134","v":"Natural dry and chip"},{"$f":"Lists!K528","v":"Small Roundwood (50 wt% moisture)"},{"$f":"'Technology Data'!A29","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!A538","v":"Natural or No Drying"},"Natural dry and chip:Small Roundwood (50 wt% moisture):Natural or No Drying",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.25,0,0.66666666666666663,0,0,0,0,0,0,0,0,0.25,1,0,0,0,0,0.66666666666666663,{"$f":"AC135*INDEX('Technology Data'!$C$7:$C$31,MATCH(C135,Biomass_forms_total_biopathways,0))","v":2.5534999999999997},3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0,{"$f":"1*F135*N135*T135+IF(Chosen_grid_intensity=Lists!$A$513,AH135/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A135","v":"Natural dry and chip"},{"$f":"Lists!L528","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"'Technology Data'!A29","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!A538","v":"Natural or No Drying"},"Natural dry and chip:Woody Debris (25 wt% moisture). Continuous removal.:Natural or No Drying",1,{"$f":"Residue_chipping*'LCA _data'!$B$282*(1-K136)","v":90.004893203883512},8.1116910000000007E-3,2.5001359223300972E-2,2.682645844660194E-2,0.25,0.25,0,1,0,0,0,0,0,0,0,0,0.25,1,0,0,0,0,1,{"$f":"AC136*INDEX('Technology Data'!$C$7:$C$31,MATCH(C136,Biomass_forms_total_biopathways,0))","v":3.8302499999999999},8.1116910000000007E-3,2.5001359223300972E-2,2.682645844660194E-2,0,{"$f":"1*F136*N136*T136+IF(Chosen_grid_intensity=Lists!$A$513,AH136/'Technology Data'!$D$221,0)","v":0},"Timmons and Mejia, 2010 (for chipping); Ofgem, 2013"]
[{"$f":"A136","v":"Natural dry and chip"},{"$f":"Lists!M528","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"'Technology Data'!A29","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!A538","v":"Natural or No Drying"},"Natural dry and chip:Woody Debris (25 wt% moisture). Remove for 15 years only.:Natural or No Drying",1,{"$f":"Residue_chipping*'LCA _data'!$B$282*(1-K137)","v":90.004893203883512},8.1116910000000007E-3,2.5001359223300972E-2,2.682645844660194E-2,0.25,0.25,0,1,0,0,0,0,0,0,0,0,0.25,1,0,0,0,0,1,{"$f":"AC137*INDEX('Technology Data'!$C$7:$C$31,MATCH(C137,Biomass_forms_total_biopathways,0))","v":3.8302499999999999},8.1116910000000007E-3,2.5001359223300972E-2,2.682645844660194E-2,0,{"$f":"1*F137*N137*T137+IF(Chosen_grid_intensity=Lists!$A$513,AH137/'Technology Data'!$D$221,0)","v":0},"Timmons and Mejia, 2010 (for chipping); Ofgem, 2013"]
[{"$f":"A136","v":"Natural dry and chip"},{"$f":"Lists!P528","v":"Eucalyptus Roundwood (50 wt% moisture)"},{"$f":"'Technology Data'!A29","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!A538","v":"Natural or No Drying"},"Natural dry and chip:Eucalyptus Roundwood (50 wt% moisture):Natural or No Drying",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.25,0,0.66666666666666663,0,0,0,0,0,0,0,0,0.25,1,0,0,0,0,0.66666666666666663,{"$f":"AC138*INDEX('Technology Data'!$C$7:$C$31,MATCH(C138,Biomass_forms_total_biopathways,0))","v":2.5534999999999997},3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0,{"$f":"1*F138*N138*T138+IF(Chosen_grid_intensity=Lists!$A$513,AH138/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A134","v":"Natural dry and chip"},{"$f":"Lists!B528","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"'Technology Data'!$A$29","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!$A$538","v":"Natural or No Drying"},"Natural dry and chip:All the wood harvested over the rotation (50 wt% moisture):Natural or No Drying",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.25,0,0.66666666666666663,0,0,0,0,0,0,0,0,0.25,1,0,0,0,0,0.66666666666666663,{"$f":"AC139*INDEX('Technology Data'!$C$7:$C$31,MATCH(C139,Biomass_forms_total_biopathways,0))","v":2.5534999999999997},3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0,{"$f":"1*F139*N139*T139+IF(Chosen_grid_intensity=Lists!$A$513,AH139/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A135","v":"Natural dry and chip"},{"$f":"Lists!C528","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"'Technology Data'!$A$29","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!$A$538","v":"Natural or No Drying"},"Natural dry and chip:All additional wood compared to counterfactual (50 wt% moisture):Natural or No Drying",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.25,0,0.66666666666666663,0,0,0,0,0,0,0,0,0.25,1,0,0,0,0,0.66666666666666663,{"$f":"AC140*INDEX('Technology Data'!$C$7:$C$31,MATCH(C140,Biomass_forms_total_biopathways,0))","v":2.5534999999999997},3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0,{"$f":"1*F140*N140*T140+IF(Chosen_grid_intensity=Lists!$A$513,AH140/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A136","v":"Natural dry and chip"},{"$f":"Lists!D528","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},{"$f":"'Technology Data'!$A$29","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!$A$538","v":"Natural or No Drying"},"Natural dry and chip:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Natural or No Drying",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.25,0,0.66666666666666663,0,0,0,0,0,0,0,0,0.25,1,0,0,0,0,0.66666666666666663,{"$f":"AC141*INDEX('Technology Data'!$C$7:$C$31,MATCH(C141,Biomass_forms_total_biopathways,0))","v":2.5534999999999997},3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0,{"$f":"1*F141*N141*T141+IF(Chosen_grid_intensity=Lists!$A$513,AH141/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A138","v":"Natural dry and chip"},{"$f":"Lists!E528","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},{"$f":"'Technology Data'!$A$29","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!$A$538","v":"Natural or No Drying"},"Natural dry and chip:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Natural or No Drying",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.25,0,0.66666666666666663,0,0,0,0,0,0,0,0,0.25,1,0,0,0,0,0.66666666666666663,{"$f":"AC142*INDEX('Technology Data'!$C$7:$C$31,MATCH(C142,Biomass_forms_total_biopathways,0))","v":2.5534999999999997},3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0,{"$f":"1*F142*N142*T142+IF(Chosen_grid_intensity=Lists!$A$513,AH142/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A136","v":"Natural dry and chip"},{"$f":"Lists!F528","v":"All additional wood created by new management (50 wt% moisture)"},{"$f":"'Technology Data'!$A$29","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!$A$538","v":"Natural or No Drying"},"Natural dry and chip:All additional wood created by new management (50 wt% moisture):Natural or No Drying",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.25,0,0.66666666666666663,0,0,0,0,0,0,0,0,0.25,1,0,0,0,0,0.66666666666666663,{"$f":"AC143*INDEX('Technology Data'!$C$7:$C$31,MATCH(C143,Biomass_forms_total_biopathways,0))","v":2.5534999999999997},3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0,{"$f":"1*F143*N143*T143+IF(Chosen_grid_intensity=Lists!$A$513,AH143/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A138","v":"Natural dry and chip"},{"$f":"Lists!G528","v":"Biomass from Land Clearance (50 wt% moisture)"},{"$f":"'Technology Data'!$A$29","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!$A$538","v":"Natural or No Drying"},"Natural dry and chip:Biomass from Land Clearance (50 wt% moisture):Natural or No Drying",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.25,0,0.66666666666666663,0,0,0,0,0,0,0,0,0.25,1,0,0,0,0,0.66666666666666663,{"$f":"AC144*INDEX('Technology Data'!$C$7:$C$31,MATCH(C144,Biomass_forms_total_biopathways,0))","v":2.5534999999999997},3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0,{"$f":"1*F144*N144*T144+IF(Chosen_grid_intensity=Lists!$A$513,AH144/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"Lists!A502","v":"Chip, dry and pelletise"},{"$f":"Lists!H528","v":"Saw logs (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$537","v":"Electricity "},"Chip, dry and pelletise:Saw logs (50 wt% moisture):Electricity ",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,1505,0,0,0.10200555555555556,0,0.41805555555555557,0.83563939289081457,7.0000000000000007E-2,0.96774193548387111,{"$f":"Chosen_pellet_electricity","v":684},4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC145*INDEX('Technology Data'!$C$7:$C$31,MATCH(C145,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},8.488404676921546E-2,0.34454251294305061,0.67930894737006242,0.33440362405416174,{"$f":"1*F145*N145*T145+IF(Chosen_grid_intensity=Lists!$A$513,AH145/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A145","v":"Chip, dry and pelletise"},{"$f":"B145","v":"Saw logs (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$539","v":"Biomass"},"Chip, dry and pelletise:Saw logs (50 wt% moisture):Biomass",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,12.1,0,1870,8.2011111111111098E-4,0.51944444444444449,3.3611111111111107E-3,6.7184296704178442E-3,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC146*INDEX('Technology Data'!$C$7:$C$31,MATCH(C146,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},2.8669910966746318E-2,0.11415671047391479,0.21879730113650867,0.1040178215850259,{"$f":"1*F146*N146*T146+IF(Chosen_grid_intensity=Lists!$A$513,AH146/'Technology Data'!$D$221,0)","v":0.28858024691358031},"Ofgem, 2013"]
[{"$f":"A145","v":"Chip, dry and pelletise"},{"$f":"B146","v":"Saw logs (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!A540","v":"Diesel"},"Chip, dry and pelletise:Saw logs (50 wt% moisture):Diesel",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,1914,12.1,0,0,0.17331936111111107,0,0.53502777777777777,0.57719676300375111,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC147*INDEX('Technology Data'!$C$7:$C$31,MATCH(C147,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},0.12450282763341296,0.40952708084428513,0.53572970854391611,0.1040178215850259,{"$f":"1*F147*N147*T147+IF(Chosen_grid_intensity=Lists!$A$513,AH147/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A145","v":"Chip, dry and pelletise"},{"$f":"B146","v":"Saw logs (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$541","v":"Natural Gas"},"Chip, dry and pelletise:Saw logs (50 wt% moisture):Natural Gas",1,36.5,3.2895624999999995E-3,{"$f":"(G148/Conv_kwh_MJ)/Conv_MWh_KWh","v":1.013888888888889E-2},{"$f":"I148*Prim_En_Diesel","v":1.0879027777777779E-2},{"$f":"INDEX(Biomass_forms_moisture_biopathways,MATCH(B148,Biomass_forms_total_biopathways,0))","v":0.5},0.1,0,0.55555555555555558,0,12.2,1914,0,0.12597590555555555,0,0.53505555555555551,{"$f":"(O148*Prim_En_Diesel+P148*Chosen_Grid_Prim_Energy+Q148*Prim_En_Natgas)/Conv_kwh_MJ/Conv_MWh_KWh","v":0.59692395388257002},{"$f":"INDEX(Biomass_forms_moisture_biopathways,MATCH(C148,Biomass_forms_total_biopathways,0))","v":7.0000000000000007E-2},0.96774193548387111,684,4.6359999999999998E-2,{"$f":"Y148/Conv_kwh_MJ/Conv_MWh_KWh","v":0.19},{"$f":"AA148*Chosen_Grid_Prim_Energy","v":0.37978561112114095},{"$f":"1*F148*N148*X148","v":0.53763440860215062},{"$f":"AC148*INDEX('Technology Data'!$C$7:$C$31,MATCH(C148,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},{"$f":"1*F148*H148+1*F148*N148*S148+1*F148*N148*X148*Z148","v":9.8200907880326552E-2},{"$f":"1*F148*I148+1*F148*N148*U148+1*F148*N148*X148*AA148","v":0.40954251294305055},{"$f":"1*F148*J148+1*F148*N148*V148+1*F148*N148*X148*AB148","v":0.54668925903214882},0.10403325368379134,{"$f":"1*F148*N148*T148+IF(Chosen_grid_intensity=Lists!$A$513,AH148/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A146","v":"Chip, dry and pelletise"},{"$f":"Lists!K528","v":"Small Roundwood (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$537","v":"Electricity "},"Chip, dry and pelletise:Small Roundwood (50 wt% moisture):Electricity ",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,1505,0,0,0.10200555555555556,0,0.41805555555555557,0.83563939289081457,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC149*INDEX('Technology Data'!$C$7:$C$31,MATCH(C149,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},8.488404676921546E-2,0.34454251294305061,0.67930894737006242,{"$f":"(1*F149*N149*P149+F149*N149*X149*Y149)/Conv_kwh_MJ/Conv_MWh_KWh","v":0.33440362405416174},{"$f":"1*F149*N149*T149+IF(Chosen_grid_intensity=Lists!$A$513,AH149/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A148","v":"Chip, dry and pelletise"},{"$f":"B149","v":"Small Roundwood (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$539","v":"Biomass"},"Chip, dry and pelletise:Small Roundwood (50 wt% moisture):Biomass",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,12.1,0,1870,8.2011111111111098E-4,0.51944444444444449,3.3611111111111107E-3,6.7184296704178442E-3,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC150*INDEX('Technology Data'!$C$7:$C$31,MATCH(C150,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},2.8669910966746318E-2,0.11415671047391479,0.21879730113650867,0.1040178215850259,{"$f":"1*F150*N150*T150+IF(Chosen_grid_intensity=Lists!$A$513,AH150/'Technology Data'!$D$221,0)","v":0.28858024691358031},"Ofgem, 2013"]
[{"$f":"A145","v":"Chip, dry and pelletise"},{"$f":"B150","v":"Small Roundwood (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!A540","v":"Diesel"},"Chip, dry and pelletise:Small Roundwood (50 wt% moisture):Diesel",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,1914,12.1,0,0,0.17331936111111107,0,0.53502777777777777,0.57719676300375111,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC151*INDEX('Technology Data'!$C$7:$C$31,MATCH(C151,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},0.12450282763341296,0.40952708084428513,0.53572970854391611,0.1040178215850259,{"$f":"1*F151*N151*T151+IF(Chosen_grid_intensity=Lists!$A$513,AH151/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A149","v":"Chip, dry and pelletise"},{"$f":"B150","v":"Small Roundwood (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$541","v":"Natural Gas"},{"$f":"A152&\":\"&B152&\":\"&D152","v":"Chip, dry and pelletise:Small Roundwood (50 wt% moisture):Natural Gas"},1,36.5,{"$f":"G152/Conv_kwh_MJ*EF_diesel_LHVenergybasis/Conv_te_kg","v":3.2895624999999995E-3},1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,{"$f":"(1/(1-L152))/(1/(1-K152))*(1-M152)","v":0.55555555555555558},0,12.2,1914,0,{"$f":"(O152/Conv_kwh_MJ*EF_diesel_LHVenergybasis+P152/Conv_kwh_MJ/Conv_MWh_KWh*$B$44+Q152/Conv_kwh_MJ*EF_NaturalGas_LHVbasis)/Conv_te_kg","v":0.12597590555555555},0,0.53505555555555551,0.59692395388257002,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC152*INDEX('Technology Data'!$C$7:$C$31,MATCH(C152,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},9.8200907880326552E-2,0.40954251294305055,0.54668925903214882,0.10403325368379134,{"$f":"1*F152*N152*T152+IF(Chosen_grid_intensity=Lists!$A$513,AH152/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A150","v":"Chip, dry and pelletise"},{"$f":"Lists!L528","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$537","v":"Electricity "},"Chip, dry and pelletise:Woody Debris (25 wt% moisture). Continuous removal.:Electricity ",1,{"$f":"Residue_chipping*'LCA _data'!$B$282*(1-K153)","v":90.004893203883512},8.1116910000000007E-3,2.5001359223300972E-2,2.682645844660194E-2,0.25,0.1,0,0.83333333333333337,0,417,0,0,2.8263333333333331E-2,{"$f":"R153/Conv_kwh_MJ/Conv_MWh_KWh","v":0},{"$f":"(O153+P153+Q153)/Conv_kwh_MJ/Conv_MWh_KWh","v":0.11583333333333333},0.23153596467473064,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.80645161290322598,{"$f":"AC153*INDEX('Technology Data'!$C$7:$C$31,MATCH(C153,Biomass_forms_total_biopathways,0))","v":3.9616693548387096},6.9051565551971339E-2,0.27475494345269169,0.52605181432162562,0.2497535842293907,{"$f":"1*F153*N153*T153+IF(Chosen_grid_intensity=Lists!$A$513,AH153/'Technology Data'!$D$221,0)","v":0},"Timmons and Mejia, 2010 (for chipping); Ofgem, 2013"]
[{"$f":"A152","v":"Chip, dry and pelletise"},{"$f":"B153","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$539","v":"Biomass"},"Chip, dry and pelletise:Woody Debris (25 wt% moisture). Continuous removal.:Biomass",1,{"$f":"Residue_chipping*'LCA _data'!$B$282*(1-K154)","v":90.004893203883512},8.1116910000000007E-3,2.5001359223300972E-2,2.682645844660194E-2,0.25,0.1,0,0.83333333333333337,0,2.4,0,468,1.6266666666666665E-4,0.13,6.6666666666666664E-4,1.3325810916531263E-3,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.80645161290322598,{"$f":"AC154*INDEX('Technology Data'!$C$7:$C$31,MATCH(C154,Biomass_forms_total_biopathways,0))","v":3.9616693548387096},4.5634343329749111E-2,0.17878272123046945,0.33421566133572767,0.15378136200716849,{"$f":"1*F154*N154*T154+IF(Chosen_grid_intensity=Lists!$A$513,AH154/'Technology Data'!$D$221,0)","v":0.10833333333333334},"Timmons and Mejia, 2010 (for chipping); Ofgem, 2013"]
[{"$f":"A154","v":"Chip, dry and pelletise"},{"$f":"B154","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$540","v":"Diesel"},"Chip, dry and pelletise:Woody Debris (25 wt% moisture). Continuous removal.:Diesel",1,{"$f":"Residue_chipping*'LCA _data'!$B$282*(1-K155)","v":90.004893203883512},8.1116910000000007E-3,2.5001359223300972E-2,2.682645844660194E-2,0.25,0.1,0,0.83333333333333337,479,2.4,0,0,4.3332541666666655E-2,0,0.13372222222222219,0.14410119220276421,7.0000000000000007E-2,0.96774193548387111,684,{"$f":"Y155/Conv_kwh_MJ/Conv_MWh_KWh*$B$44/Conv_te_kg","v":4.6359999999999998E-2},0.19,0.37978561112114095,0.80645161290322598,{"$f":"AC155*INDEX('Technology Data'!$C$7:$C$31,MATCH(C155,Biomass_forms_total_biopathways,0))","v":3.9616693548387096},8.1609239163082437E-2,0.28966235086009906,0.45318950392832025,0.15378136200716849,{"$f":"1*F155*N155*T155+IF(Chosen_grid_intensity=Lists!$A$513,AH155/'Technology Data'!$D$221,0)","v":0},"Timmons and Mejia, 2010 (for chipping); Ofgem, 2014"]
[{"$f":"A153","v":"Chip, dry and pelletise"},{"$f":"B154","v":"Woody Debris (25 wt% moisture). Continuous removal."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$541","v":"Natural Gas"},"Chip, dry and pelletise:Woody Debris (25 wt% moisture). Continuous removal.:Natural Gas",1,{"$f":"Residue_chipping*'LCA _data'!$B$282*(1-K156)","v":90.004893203883512},8.1116910000000007E-3,2.5001359223300972E-2,2.682645844660194E-2,0.25,0.1,0,0.83333333333333337,0,2.4,479,0,3.1482613888888886E-2,0,0.13372222222222219,0.14902424775831979,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.80645161290322598,{"$f":"AC156*INDEX('Technology Data'!$C$7:$C$31,MATCH(C156,Biomass_forms_total_biopathways,0))","v":3.9616693548387096},7.1734299348267638E-2,0.28966235086009906,0.45729205022461661,0.15378136200716849,{"$f":"1*F156*N156*T156+IF(Chosen_grid_intensity=Lists!$A$513,AH156/'Technology Data'!$D$221,0)","v":0},"Timmons and Mejia, 2010 (for chipping); Ofgem, 2015"]
[{"$f":"A154","v":"Chip, dry and pelletise"},{"$f":"Lists!M528","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$537","v":"Electricity "},"Chip, dry and pelletise:Woody Debris (25 wt% moisture). Remove for 15 years only.:Electricity ",1,{"$f":"Residue_chipping*'LCA _data'!$B$282*(1-K157)","v":90.004893203883512},8.1116910000000007E-3,2.5001359223300972E-2,2.682645844660194E-2,0.25,0.1,0,0.83333333333333337,0,417,0,0,2.8263333333333331E-2,0,0.11583333333333333,0.23153596467473064,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.80645161290322598,{"$f":"AC157*INDEX('Technology Data'!$C$7:$C$31,MATCH(C157,Biomass_forms_total_biopathways,0))","v":3.9616693548387096},6.9051565551971339E-2,0.27475494345269169,0.52605181432162562,0.2497535842293907,{"$f":"1*F157*N157*T157+IF(Chosen_grid_intensity=Lists!$A$513,AH157/'Technology Data'!$D$221,0)","v":0},"Timmons and Mejia, 2010 (for chipping); Ofgem, 2013"]
[{"$f":"A155","v":"Chip, dry and pelletise"},{"$f":"B157","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$539","v":"Biomass"},"Chip, dry and pelletise:Woody Debris (25 wt% moisture). Remove for 15 years only.:Biomass",1,{"$f":"Residue_chipping*'LCA _data'!$B$282*(1-K158)","v":90.004893203883512},8.1116910000000007E-3,2.5001359223300972E-2,2.682645844660194E-2,0.25,0.1,0,0.83333333333333337,0,2.4,0,468,1.6266666666666665E-4,0.13,6.6666666666666664E-4,1.3325810916531263E-3,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.80645161290322598,{"$f":"AC158*INDEX('Technology Data'!$C$7:$C$31,MATCH(C158,Biomass_forms_total_biopathways,0))","v":3.9616693548387096},4.5634343329749111E-2,0.17878272123046945,0.33421566133572767,0.15378136200716849,{"$f":"1*F158*N158*T158+IF(Chosen_grid_intensity=Lists!$A$513,AH158/'Technology Data'!$D$221,0)","v":0.10833333333333334},"Timmons and Mejia, 2010 (for chipping); Ofgem, 2013"]
[{"$f":"A156","v":"Chip, dry and pelletise"},{"$f":"B158","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$540","v":"Diesel"},"Chip, dry and pelletise:Woody Debris (25 wt% moisture). Remove for 15 years only.:Diesel",1,{"$f":"Residue_chipping*'LCA _data'!$B$282*(1-K159)","v":90.004893203883512},8.1116910000000007E-3,2.5001359223300972E-2,2.682645844660194E-2,0.25,0.1,0,0.83333333333333337,479,2.4,0,0,4.3332541666666655E-2,0,0.13372222222222219,0.14410119220276421,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.80645161290322598,{"$f":"AC159*INDEX('Technology Data'!$C$7:$C$31,MATCH(C159,Biomass_forms_total_biopathways,0))","v":3.9616693548387096},8.1609239163082437E-2,0.28966235086009906,0.45318950392832025,0.15378136200716849,{"$f":"1*F159*N159*T159+IF(Chosen_grid_intensity=Lists!$A$513,AH159/'Technology Data'!$D$221,0)","v":0},"Timmons and Mejia, 2010 (for chipping); Ofgem, 2014"]
[{"$f":"A157","v":"Chip, dry and pelletise"},{"$f":"B158","v":"Woody Debris (25 wt% moisture). Remove for 15 years only."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$541","v":"Natural Gas"},"Chip, dry and pelletise:Woody Debris (25 wt% moisture). Remove for 15 years only.:Natural Gas",1,{"$f":"Residue_chipping*'LCA _data'!$B$282*(1-K160)","v":90.004893203883512},8.1116910000000007E-3,2.5001359223300972E-2,2.682645844660194E-2,0.25,0.1,0,0.83333333333333337,0,2.4,479,0,3.1482613888888886E-2,0,0.13372222222222219,0.14902424775831979,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.80645161290322598,{"$f":"AC160*INDEX('Technology Data'!$C$7:$C$31,MATCH(C160,Biomass_forms_total_biopathways,0))","v":3.9616693548387096},7.1734299348267638E-2,0.28966235086009906,0.45729205022461661,0.15378136200716849,{"$f":"1*F160*N160*T160+IF(Chosen_grid_intensity=Lists!$A$513,AH160/'Technology Data'!$D$221,0)","v":0},"Timmons and Mejia, 2010 (for chipping); Ofgem, 2015"]
[{"$f":"A154","v":"Chip, dry and pelletise"},{"$f":"Lists!P528","v":"Eucalyptus Roundwood (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$537","v":"Electricity "},"Chip, dry and pelletise:Eucalyptus Roundwood (50 wt% moisture):Electricity ",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,1505,0,0,0.10200555555555556,0,0.41805555555555557,0.83563939289081457,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC161*INDEX('Technology Data'!$C$7:$C$31,MATCH(C161,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},8.488404676921546E-2,0.34454251294305061,0.67930894737006242,0.33440362405416174,{"$f":"1*F161*N161*T161+IF(Chosen_grid_intensity=Lists!$A$513,AH161/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A156","v":"Chip, dry and pelletise"},{"$f":"B161","v":"Eucalyptus Roundwood (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$539","v":"Biomass"},"Chip, dry and pelletise:Eucalyptus Roundwood (50 wt% moisture):Biomass",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,12.1,0,1870,8.2011111111111098E-4,0.51944444444444449,3.3611111111111107E-3,6.7184296704178442E-3,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC162*INDEX('Technology Data'!$C$7:$C$31,MATCH(C162,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},2.8669910966746318E-2,0.11415671047391479,0.21879730113650867,0.1040178215850259,{"$f":"1*F162*N162*T162+IF(Chosen_grid_intensity=Lists!$A$513,AH162/'Technology Data'!$D$221,0)","v":0.28858024691358031},"Ofgem, 2013"]
[{"$f":"A162","v":"Chip, dry and pelletise"},{"$f":"B161","v":"Eucalyptus Roundwood (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!A540","v":"Diesel"},"Chip, dry and pelletise:Eucalyptus Roundwood (50 wt% moisture):Diesel",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,1914,12.1,0,0,0.17331936111111107,0,0.53502777777777777,0.57719676300375111,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC163*INDEX('Technology Data'!$C$7:$C$31,MATCH(C163,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},0.12450282763341296,0.40952708084428513,0.53572970854391611,0.1040178215850259,{"$f":"1*F163*N163*T163+IF(Chosen_grid_intensity=Lists!$A$513,AH163/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A161","v":"Chip, dry and pelletise"},{"$f":"B162","v":"Eucalyptus Roundwood (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$541","v":"Natural Gas"},"Chip, dry and pelletise:Eucalyptus Roundwood (50 wt% moisture):Natural Gas",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,12.2,1914,0,0.12597590555555555,0,0.53505555555555551,0.59692395388257002,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC164*INDEX('Technology Data'!$C$7:$C$31,MATCH(C164,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},9.8200907880326552E-2,0.40954251294305055,0.54668925903214882,0.10403325368379134,{"$f":"1*F164*N164*T164+IF(Chosen_grid_intensity=Lists!$A$513,AH164/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A162","v":"Chip, dry and pelletise"},{"$f":"Lists!B528","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$537","v":"Electricity "},"Chip, dry and pelletise:All the wood harvested over the rotation (50 wt% moisture):Electricity ",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,1505,0,0,0.10200555555555556,0,0.41805555555555557,0.83563939289081457,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC165*INDEX('Technology Data'!$C$7:$C$31,MATCH(C165,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},8.488404676921546E-2,0.34454251294305061,0.67930894737006242,0.33440362405416174,{"$f":"1*F165*N165*T165+IF(Chosen_grid_intensity=Lists!$A$513,AH165/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A164","v":"Chip, dry and pelletise"},{"$f":"B165","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$539","v":"Biomass"},"Chip, dry and pelletise:All the wood harvested over the rotation (50 wt% moisture):Biomass",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,12.1,0,1870,8.2011111111111098E-4,0.51944444444444449,3.3611111111111107E-3,6.7184296704178442E-3,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC166*INDEX('Technology Data'!$C$7:$C$31,MATCH(C166,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},2.8669910966746318E-2,0.11415671047391479,0.21879730113650867,0.1040178215850259,{"$f":"1*F166*N166*T166+IF(Chosen_grid_intensity=Lists!$A$513,AH166/'Technology Data'!$D$221,0)","v":0.28858024691358031},"Ofgem, 2013"]
[{"$f":"A166","v":"Chip, dry and pelletise"},{"$f":"B165","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!A540","v":"Diesel"},"Chip, dry and pelletise:All the wood harvested over the rotation (50 wt% moisture):Diesel",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,1914,12.1,0,0,0.17331936111111107,0,0.53502777777777777,0.57719676300375111,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC167*INDEX('Technology Data'!$C$7:$C$31,MATCH(C167,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},0.12450282763341296,0.40952708084428513,0.53572970854391611,0.1040178215850259,{"$f":"1*F167*N167*T167+IF(Chosen_grid_intensity=Lists!$A$513,AH167/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A165","v":"Chip, dry and pelletise"},{"$f":"B166","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$541","v":"Natural Gas"},"Chip, dry and pelletise:All the wood harvested over the rotation (50 wt% moisture):Natural Gas",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,12.2,1914,0,0.12597590555555555,0,0.53505555555555551,0.59692395388257002,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC168*INDEX('Technology Data'!$C$7:$C$31,MATCH(C168,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},9.8200907880326552E-2,0.40954251294305055,0.54668925903214882,0.10403325368379134,{"$f":"1*F168*N168*T168+IF(Chosen_grid_intensity=Lists!$A$513,AH168/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A166","v":"Chip, dry and pelletise"},{"$f":"Lists!C528","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$537","v":"Electricity "},"Chip, dry and pelletise:All additional wood compared to counterfactual (50 wt% moisture):Electricity ",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,{"$f":"(1/(1-L169))/(1/(1-K169))*(1-M169)","v":0.55555555555555558},0,1505,0,0,0.10200555555555556,0,0.41805555555555557,0.83563939289081457,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC169*INDEX('Technology Data'!$C$7:$C$31,MATCH(C169,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},8.488404676921546E-2,0.34454251294305061,0.67930894737006242,0.33440362405416174,{"$f":"1*F169*N169*T169+IF(Chosen_grid_intensity=Lists!$A$513,AH169/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A168","v":"Chip, dry and pelletise"},{"$f":"B169","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$539","v":"Biomass"},"Chip, dry and pelletise:All additional wood compared to counterfactual (50 wt% moisture):Biomass",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,12.1,0,1870,8.2011111111111098E-4,0.51944444444444449,3.3611111111111107E-3,6.7184296704178442E-3,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC170*INDEX('Technology Data'!$C$7:$C$31,MATCH(C170,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},2.8669910966746318E-2,0.11415671047391479,0.21879730113650867,0.1040178215850259,{"$f":"1*F170*N170*T170+IF(Chosen_grid_intensity=Lists!$A$513,AH170/'Technology Data'!$D$221,0)","v":0.28858024691358031},"Ofgem, 2013"]
[{"$f":"A170","v":"Chip, dry and pelletise"},{"$f":"B169","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$540","v":"Diesel"},"Chip, dry and pelletise:All additional wood compared to counterfactual (50 wt% moisture):Diesel",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,1914,12.1,0,0,0.17331936111111107,0,0.53502777777777777,0.57719676300375111,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC171*INDEX('Technology Data'!$C$7:$C$31,MATCH(C171,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},0.12450282763341296,0.40952708084428513,0.53572970854391611,0.1040178215850259,{"$f":"1*F171*N171*T171+IF(Chosen_grid_intensity=Lists!$A$513,AH171/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A169","v":"Chip, dry and pelletise"},{"$f":"B170","v":"All additional wood compared to counterfactual (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$541","v":"Natural Gas"},"Chip, dry and pelletise:All additional wood compared to counterfactual (50 wt% moisture):Natural Gas",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,12.2,1914,0,0.12597590555555555,0,0.53505555555555551,0.59692395388257002,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC172*INDEX('Technology Data'!$C$7:$C$31,MATCH(C172,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},9.8200907880326552E-2,0.40954251294305055,0.54668925903214882,0.10403325368379134,{"$f":"1*F172*N172*T172+IF(Chosen_grid_intensity=Lists!$A$513,AH172/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
["Chip, dry and pelletise",{"$f":"Lists!D528","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$537","v":"Electricity "},"Chip, dry and pelletise:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Electricity ",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,1505,0,0,0.10200555555555556,0,0.41805555555555557,0.83563939289081457,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC173*INDEX('Technology Data'!$C$7:$C$31,MATCH(C173,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},8.488404676921546E-2,0.34454251294305061,0.67930894737006242,0.33440362405416174,{"$f":"1*F173*N173*T173+IF(Chosen_grid_intensity=Lists!$A$513,AH173/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
["Chip, dry and pelletise",{"$f":"B173","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$539","v":"Biomass"},"Chip, dry and pelletise:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Biomass",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,12.1,0,1870,8.2011111111111098E-4,0.51944444444444449,3.3611111111111107E-3,6.7184296704178442E-3,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC174*INDEX('Technology Data'!$C$7:$C$31,MATCH(C174,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},2.8669910966746318E-2,0.11415671047391479,0.21879730113650867,0.1040178215850259,{"$f":"1*F174*N174*T174+IF(Chosen_grid_intensity=Lists!$A$513,AH174/'Technology Data'!$D$221,0)","v":0.28858024691358031},"Ofgem, 2013"]
["Chip, dry and pelletise",{"$f":"B173","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$540","v":"Diesel"},"Chip, dry and pelletise:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Diesel",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,1914,12.1,0,0,0.17331936111111107,0,0.53502777777777777,0.57719676300375111,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC175*INDEX('Technology Data'!$C$7:$C$31,MATCH(C175,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},0.12450282763341296,0.40952708084428513,0.53572970854391611,0.1040178215850259,{"$f":"1*F175*N175*T175+IF(Chosen_grid_intensity=Lists!$A$513,AH175/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
["Chip, dry and pelletise",{"$f":"B174","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring)."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$541","v":"Natural Gas"},"Chip, dry and pelletise:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (flooring).:Natural Gas",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,12.2,1914,0,0.12597590555555555,0,0.53505555555555551,0.59692395388257002,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC176*INDEX('Technology Data'!$C$7:$C$31,MATCH(C176,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},9.8200907880326552E-2,0.40954251294305055,0.54668925903214882,0.10403325368379134,{"$f":"1*F176*N176*T176+IF(Chosen_grid_intensity=Lists!$A$513,AH176/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
["Chip, dry and pelletise",{"$f":"Lists!E528","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$537","v":"Electricity "},"Chip, dry and pelletise:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Electricity ",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,1505,0,0,0.10200555555555556,0,0.41805555555555557,0.83563939289081457,7.0000000000000007E-2,0.96774193548387111,{"$f":"Chosen_pellet_electricity","v":684},4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC177*INDEX('Technology Data'!$C$7:$C$31,MATCH(C177,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},8.488404676921546E-2,0.34454251294305061,0.67930894737006242,0.33440362405416174,{"$f":"1*F177*N177*T177+IF(Chosen_grid_intensity=Lists!$A$513,AH177/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
["Chip, dry and pelletise",{"$f":"B177","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$539","v":"Biomass"},"Chip, dry and pelletise:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Biomass",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,12.1,0,1870,8.2011111111111098E-4,0.51944444444444449,3.3611111111111107E-3,6.7184296704178442E-3,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC178*INDEX('Technology Data'!$C$7:$C$31,MATCH(C178,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},2.8669910966746318E-2,0.11415671047391479,0.21879730113650867,0.1040178215850259,{"$f":"1*F178*N178*T178+IF(Chosen_grid_intensity=Lists!$A$513,AH178/'Technology Data'!$D$221,0)","v":0.28858024691358031},"Ofgem, 2013"]
["Chip, dry and pelletise",{"$f":"B177","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$540","v":"Diesel"},"Chip, dry and pelletise:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Diesel",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,1914,12.1,0,0,0.17331936111111107,0,0.53502777777777777,0.57719676300375111,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC179*INDEX('Technology Data'!$C$7:$C$31,MATCH(C179,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},0.12450282763341296,0.40952708084428513,0.53572970854391611,0.1040178215850259,{"$f":"1*F179*N179*T179+IF(Chosen_grid_intensity=Lists!$A$513,AH179/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
["Chip, dry and pelletise",{"$f":"B178","v":"All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame)."},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$541","v":"Natural Gas"},"Chip, dry and pelletise:All additional non-saw log wood compared to counterfactual (50 wt% moisture). Saw logs to construction (window frame).:Natural Gas",1,36.5,3.2895624999999995E-3,{"$f":"(G180/Conv_kwh_MJ)/Conv_MWh_KWh","v":1.013888888888889E-2},{"$f":"I180*Prim_En_Diesel","v":1.0879027777777779E-2},{"$f":"INDEX(Biomass_forms_moisture_biopathways,MATCH(B180,Biomass_forms_total_biopathways,0))","v":0.5},0.1,0,0.55555555555555558,0,12.2,1914,0,0.12597590555555555,0,0.53505555555555551,{"$f":"(O180*Prim_En_Diesel+P180*Chosen_Grid_Prim_Energy+Q180*Prim_En_Natgas)/Conv_kwh_MJ/Conv_MWh_KWh","v":0.59692395388257002},{"$f":"INDEX(Biomass_forms_moisture_biopathways,MATCH(C180,Biomass_forms_total_biopathways,0))","v":7.0000000000000007E-2},0.96774193548387111,684,4.6359999999999998E-2,{"$f":"Y180/Conv_kwh_MJ/Conv_MWh_KWh","v":0.19},{"$f":"AA180*Chosen_Grid_Prim_Energy","v":0.37978561112114095},{"$f":"1*F180*N180*X180","v":0.53763440860215062},{"$f":"AC180*INDEX('Technology Data'!$C$7:$C$31,MATCH(C180,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},{"$f":"1*F180*H180+1*F180*N180*S180+1*F180*N180*X180*Z180","v":9.8200907880326552E-2},{"$f":"1*F180*I180+1*F180*N180*U180+1*F180*N180*X180*AA180","v":0.40954251294305055},{"$f":"1*F180*J180+1*F180*N180*V180+1*F180*N180*X180*AB180","v":0.54668925903214882},0.10403325368379134,{"$f":"1*F180*N180*T180+IF(Chosen_grid_intensity=Lists!$A$513,AH180/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A170","v":"Chip, dry and pelletise"},{"$f":"Lists!F528","v":"All additional wood created by new management (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$537","v":"Electricity "},"Chip, dry and pelletise:All additional wood created by new management (50 wt% moisture):Electricity ",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,1505,0,0,0.10200555555555556,0,0.41805555555555557,0.83563939289081457,7.0000000000000007E-2,{"$f":"(1/(1-W181))/(1/(1-L181))","v":0.96774193548387111},684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC181*INDEX('Technology Data'!$C$7:$C$31,MATCH(C181,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},8.488404676921546E-2,0.34454251294305061,0.67930894737006242,{"$f":"(1*F181*N181*P181+F181*N181*X181*Y181)/Conv_kwh_MJ/Conv_MWh_KWh","v":0.33440362405416174},{"$f":"1*F181*N181*T181+IF(Chosen_grid_intensity=Lists!$A$513,AH181/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A172","v":"Chip, dry and pelletise"},{"$f":"B181","v":"All additional wood created by new management (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$539","v":"Biomass"},"Chip, dry and pelletise:All additional wood created by new management (50 wt% moisture):Biomass",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,12.1,0,1870,8.2011111111111098E-4,0.51944444444444449,3.3611111111111107E-3,6.7184296704178442E-3,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC182*INDEX('Technology Data'!$C$7:$C$31,MATCH(C182,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},2.8669910966746318E-2,0.11415671047391479,0.21879730113650867,0.1040178215850259,{"$f":"1*F182*N182*T182+IF(Chosen_grid_intensity=Lists!$A$513,AH182/'Technology Data'!$D$221,0)","v":0.28858024691358031},"Ofgem, 2013"]
[{"$f":"A182","v":"Chip, dry and pelletise"},{"$f":"B181","v":"All additional wood created by new management (50 wt% moisture)"},{"$f":"C181","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!A540","v":"Diesel"},"Chip, dry and pelletise:All additional wood created by new management (50 wt% moisture):Diesel",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,1914,12.1,0,0,0.17331936111111107,0,0.53502777777777777,0.57719676300375111,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC183*INDEX('Technology Data'!$C$7:$C$31,MATCH(C183,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},0.12450282763341296,0.40952708084428513,0.53572970854391611,0.1040178215850259,{"$f":"1*F183*N183*T183+IF(Chosen_grid_intensity=Lists!$A$513,AH183/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A181","v":"Chip, dry and pelletise"},{"$f":"B182","v":"All additional wood created by new management (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$541","v":"Natural Gas"},{"$f":"A184&\":\"&B184&\":\"&D184","v":"Chip, dry and pelletise:All additional wood created by new management (50 wt% moisture):Natural Gas"},1,36.5,{"$f":"G184/Conv_kwh_MJ*EF_diesel_LHVenergybasis/Conv_te_kg","v":3.2895624999999995E-3},1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,{"$f":"(1/(1-L184))/(1/(1-K184))*(1-M184)","v":0.55555555555555558},0,12.2,1914,0,{"$f":"(O184/Conv_kwh_MJ*EF_diesel_LHVenergybasis+P184/Conv_kwh_MJ/Conv_MWh_KWh*$B$44+Q184/Conv_kwh_MJ*EF_NaturalGas_LHVbasis)/Conv_te_kg","v":0.12597590555555555},0,0.53505555555555551,0.59692395388257002,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC184*INDEX('Technology Data'!$C$7:$C$31,MATCH(C184,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},9.8200907880326552E-2,0.40954251294305055,0.54668925903214882,0.10403325368379134,{"$f":"1*F184*N184*T184+IF(Chosen_grid_intensity=Lists!$A$513,AH184/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A182","v":"Chip, dry and pelletise"},{"$f":"Lists!G528","v":"Biomass from Land Clearance (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$537","v":"Electricity "},"Chip, dry and pelletise:Biomass from Land Clearance (50 wt% moisture):Electricity ",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,1505,0,0,0.10200555555555556,{"$f":"R185/Conv_kwh_MJ/Conv_MWh_KWh","v":0},{"$f":"(O185+P185+Q185)/Conv_kwh_MJ/Conv_MWh_KWh","v":0.41805555555555557},0.83563939289081457,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC185*INDEX('Technology Data'!$C$7:$C$31,MATCH(C185,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},8.488404676921546E-2,0.34454251294305061,0.67930894737006242,0.33440362405416174,{"$f":"1*F185*N185*T185+IF(Chosen_grid_intensity=Lists!$A$513,AH185/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A184","v":"Chip, dry and pelletise"},{"$f":"B185","v":"Biomass from Land Clearance (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$539","v":"Biomass"},"Chip, dry and pelletise:Biomass from Land Clearance (50 wt% moisture):Biomass",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,12.1,0,1870,8.2011111111111098E-4,0.51944444444444449,3.3611111111111107E-3,6.7184296704178442E-3,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC186*INDEX('Technology Data'!$C$7:$C$31,MATCH(C186,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},2.8669910966746318E-2,0.11415671047391479,0.21879730113650867,0.1040178215850259,{"$f":"1*F186*N186*T186+IF(Chosen_grid_intensity=Lists!$A$513,AH186/'Technology Data'!$D$221,0)","v":0.28858024691358031},"Ofgem, 2013"]
[{"$f":"A186","v":"Chip, dry and pelletise"},{"$f":"B185","v":"Biomass from Land Clearance (50 wt% moisture)"},{"$f":"C185","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$540","v":"Diesel"},"Chip, dry and pelletise:Biomass from Land Clearance (50 wt% moisture):Diesel",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,1914,12.1,0,0,0.17331936111111107,0,0.53502777777777777,0.57719676300375111,7.0000000000000007E-2,0.96774193548387111,684,{"$f":"Y187/Conv_kwh_MJ/Conv_MWh_KWh*$B$44/Conv_te_kg","v":4.6359999999999998E-2},0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC187*INDEX('Technology Data'!$C$7:$C$31,MATCH(C187,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},0.12450282763341296,0.40952708084428513,0.53572970854391611,0.1040178215850259,{"$f":"1*F187*N187*T187+IF(Chosen_grid_intensity=Lists!$A$513,AH187/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"A185","v":"Chip, dry and pelletise"},{"$f":"B186","v":"Biomass from Land Clearance (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$541","v":"Natural Gas"},"Chip, dry and pelletise:Biomass from Land Clearance (50 wt% moisture):Natural Gas",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,12.2,1914,0,0.12597590555555555,0,0.53505555555555551,0.59692395388257002,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC188*INDEX('Technology Data'!$C$7:$C$31,MATCH(C188,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},9.8200907880326552E-2,0.40954251294305055,0.54668925903214882,0.10403325368379134,{"$f":"1*F188*N188*T188+IF(Chosen_grid_intensity=Lists!$A$513,AH188/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"Lists!A504","v":"Pelletise only (no drying)"},{"$f":"'Technology Data'!A13","v":"Saw logs (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!A538","v":"Natural or No Drying"},"Pelletise only (no drying):Saw logs (50 wt% moisture):Natural or No Drying",1,0,0,0,0,0.5,0.1,0,0.55555555555555558,0,0,0,0,0,0,0,0,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC189*INDEX('Technology Data'!$C$7:$C$31,MATCH(C189,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},2.4924731182795701E-2,0.10215053763440862,0.20418581243072098,0.10215053763440862,{"$f":"1*F189*N189*T189+IF(Chosen_grid_intensity=Lists!$A$513,AH189/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"Lists!$A$500","v":"Natural dry, dry and pelletise"},{"$f":"'Technology Data'!$A$13","v":"Saw logs (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$537","v":"Electricity "},"Natural dry, dry and pelletise:Saw logs (50 wt% moisture):Electricity ",1,0,0,0,0,0.5,0.1,0,0.55555555555555558,0,417,0,0,2.8263333333333331E-2,0,0.11583333333333333,0.23153596467473064,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC190*INDEX('Technology Data'!$C$7:$C$31,MATCH(C190,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},4.0626583034647556E-2,0.16650238948626048,0.33281690391668245,0.16650238948626048,{"$f":"1*F190*N190*T190+IF(Chosen_grid_intensity=Lists!$A$513,AH190/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"Lists!$A$500","v":"Natural dry, dry and pelletise"},{"$f":"'Technology Data'!$A$13","v":"Saw logs (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$539","v":"Biomass"},"Natural dry, dry and pelletise:Saw logs (50 wt% moisture):Biomass",1,0,0,0,0,0.5,0.1,0,0.55555555555555558,0,2.4,0,468,1.6266666666666665E-4,0.13,6.6666666666666664E-4,1.3325810916531263E-3,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC191*INDEX('Technology Data'!$C$7:$C$31,MATCH(C191,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},2.501510155316607E-2,0.10252090800477899,0.20492613525941716,0.10252090800477899,{"$f":"1*F191*N191*T191+IF(Chosen_grid_intensity=Lists!$A$513,AH191/'Technology Data'!$D$221,0)","v":7.2222222222222229E-2},"Ofgem, 2013"]
[{"$f":"Lists!$A$500","v":"Natural dry, dry and pelletise"},{"$f":"'Technology Data'!$A$13","v":"Saw logs (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$540","v":"Diesel"},"Natural dry, dry and pelletise:Saw logs (50 wt% moisture):Diesel",1,0,0,0,0,0.5,0.1,0,0.55555555555555558,479,2.4,0,0,4.3332541666666655E-2,0,0.13372222222222219,0.14410119220276421,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC192*INDEX('Technology Data'!$C$7:$C$31,MATCH(C192,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},4.899836544205495E-2,0.17644066109119871,0.28424203032114553,0.10252090800477899,{"$f":"1*F192*N192*T192+IF(Chosen_grid_intensity=Lists!$A$513,AH192/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"Lists!$A$500","v":"Natural dry, dry and pelletise"},{"$f":"'Technology Data'!$A$13","v":"Saw logs (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$541","v":"Natural Gas"},"Natural dry, dry and pelletise:Saw logs (50 wt% moisture):Natural Gas",1,0,0,0,0,0.5,0.1,0,0.55555555555555558,0,2.4,479,0,3.1482613888888886E-2,0,0.13372222222222219,0.14902424775831979,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC193*INDEX('Technology Data'!$C$7:$C$31,MATCH(C193,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},4.2415072232178413E-2,0.17644066109119871,0.28697706118534311,0.10252090800477899,{"$f":"1*F193*N193*T193+IF(Chosen_grid_intensity=Lists!$A$513,AH193/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"Lists!$A$503","v":"Chip, natural dry, dry, pelletise"},{"$f":"Lists!$B$528","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$537","v":"Electricity "},"Chip, natural dry, dry, pelletise:All the wood harvested over the rotation (50 wt% moisture):Electricity ",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,417,0,0,2.8263333333333331E-2,0,0.11583333333333333,0.23153596467473064,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC194*INDEX('Technology Data'!$C$7:$C$31,MATCH(C194,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},4.3916145534647552E-2,0.17664127837514937,0.34369593169446022,0.16650238948626048,{"$f":"1*F194*N194*T194+IF(Chosen_grid_intensity=Lists!$A$513,AH194/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"Lists!$A$503","v":"Chip, natural dry, dry, pelletise"},{"$f":"Lists!$B$528","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$539","v":"Biomass"},"Chip, natural dry, dry, pelletise:All the wood harvested over the rotation (50 wt% moisture):Biomass",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,2.4,0,468,1.6266666666666665E-4,0.13,6.6666666666666664E-4,1.3325810916531263E-3,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC195*INDEX('Technology Data'!$C$7:$C$31,MATCH(C195,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},2.8304664053166069E-2,0.11265979689366788,0.21580516303719494,0.10252090800477899,{"$f":"1*F195*N195*T195+IF(Chosen_grid_intensity=Lists!$A$513,AH195/'Technology Data'!$D$221,0)","v":7.2222222222222229E-2},"Ofgem, 2013"]
[{"$f":"Lists!$A$503","v":"Chip, natural dry, dry, pelletise"},{"$f":"Lists!$B$528","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$540","v":"Diesel"},"Chip, natural dry, dry, pelletise:All the wood harvested over the rotation (50 wt% moisture):Diesel",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,479,2.4,0,0,4.3332541666666655E-2,0,0.13372222222222219,0.14410119220276421,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC196*INDEX('Technology Data'!$C$7:$C$31,MATCH(C196,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},5.2287927942054953E-2,0.18657954998008763,0.29512105809892331,0.10252090800477899,{"$f":"1*F196*N196*T196+IF(Chosen_grid_intensity=Lists!$A$513,AH196/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"Lists!$A$503","v":"Chip, natural dry, dry, pelletise"},{"$f":"Lists!$B$528","v":"All the wood harvested over the rotation (50 wt% moisture)"},{"$f":"'Technology Data'!$A$30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$541","v":"Natural Gas"},"Chip, natural dry, dry, pelletise:All the wood harvested over the rotation (50 wt% moisture):Natural Gas",1,36.5,3.2895624999999995E-3,1.013888888888889E-2,1.0879027777777779E-2,0.5,0.1,0,0.55555555555555558,0,2.4,479,0,3.1482613888888886E-2,0,0.13372222222222219,0.14902424775831979,7.0000000000000007E-2,0.96774193548387111,684,4.6359999999999998E-2,0.19,0.37978561112114095,0.53763440860215062,{"$f":"AC197*INDEX('Technology Data'!$C$7:$C$31,MATCH(C197,Biomass_forms_total_biopathways,0))","v":2.6411129032258063},4.5704634732178416E-2,0.18657954998008763,0.29785608896312088,0.10252090800477899,{"$f":"1*F197*N197*T197+IF(Chosen_grid_intensity=Lists!$A$513,AH197/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"Lists!A505","v":"Sillage "},{"$f":"'Technology Data'!A21","v":"Maize Whole Crop (70 wt% moisture)"},{"$f":"'Technology Data'!A22","v":"Maize Sillage (67 wt% moisture)"},{"$f":"Lists!A538","v":"Natural or No Drying"},"Sillage :Maize Whole Crop (70 wt% moisture):Natural or No Drying",1,0,0,0,0,0.7,{"$f":"INDEX(Biomass_forms_moisture_biopathways,MATCH(C198,Biomass_forms_total_biopathways,0))","v":0.67},0,0.90909090909090928,0,0,0,0,0,0,0,0,0.67,0.80500000000000005,0,{"$f":"Sillage_diesel_input/Conv_kwh_MJ*EF_diesel_LHVenergybasis/Conv_te_kg","v":6.5881374999999989E-3},{"$f":"Sillage_diesel_input/Conv_kwh_MJ/Conv_MWh_KWh","v":2.0305555555555552E-2},4.0588199083268127E-2,0.73181818181818203,{"$f":"AC198*INDEX('Technology Data'!$C$7:$C$31,MATCH(C198,Biomass_forms_total_biopathways,0))","v":0.941657287878788},4.8213188068181824E-3,1.485997474747475E-2,2.9703182056391685E-2,0,{"$f":"1*F198*N198*T198+IF(Chosen_grid_intensity=Lists!$A$513,AH198/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
[{"$f":"Lists!A506","v":"Oil Extraction "},{"$f":"'Technology Data'!A20","v":"Palm Fruit (34 wt% moisture)"},{"$f":"'Technology Data'!A23","v":"Palm Oil"},{"$f":"Lists!A538","v":"Natural or No Drying"},"Oil Extraction :Palm Fruit (34 wt% moisture):Natural or No Drying",1,0,0,0,0,0.34,0,0,1,0,0,0,0,0,0,0,0,0,0.21792,{"$f":"Palm_oil_extraction_electricity","v":28.28},{"$f":"Palm_oil_extraction_electricity/Conv_kwh_MJ/Conv_MWh_KWh*$B$44/Conv_te_kg+Palm_oil_extraction_gas/Conv_kwh_MJ*EF_NaturalGas_LHVbasis/Conv_te_kg+Palm_oil_extraction_Fearth*EF_FullerEarth/Conv_te_kg","v":2.5250409651111107E-2},{"$f":"Palm_oil_extraction_electricity/Conv_kwh_MJ/Conv_MWh_KWh+Palm_oil_extraction_gas/Conv_kwh_MJ/Conv_MWh_KWh+Palm_oil_extraction_Fearth*En_FullerEarth/Conv_MWh_KWh","v":0.10611486111111111},0.21210998619009647,0.21792,{"$f":"AC199*INDEX('Technology Data'!$C$7:$C$31,MATCH(C199,Biomass_forms_total_biopathways,0))","v":2.4213333333333331},5.5025692711701329E-3,2.3124550533333333E-2,4.6223008190545825E-2,1.7118826666666666E-3,{"$f":"1*F199*N199*T199+IF(Chosen_grid_intensity=Lists!$A$513,AH199/'Technology Data'!$D$221,0)","v":0},"Ofgem, 2013"]
["Insert Above "]
[]
["Biomass Technology"]
["Lookup Name for Technology",{"$f":"B110&\":\"&Results_Biopathways!C60","v":"Wood Chips (25 wt% moisture):Heat from Biomass Boiler"}]
["Selected Biomass Technology Parameters from Technology Data Table 5."]
[" Conversion Energy Efficiency (based on LHV)",{"$f":"Results_Biopathways!C63","v":0.85}]
["External Direct Energy Requirement",{"$f":"INDEX(Technologies_En_biopathways,MATCH(Lookupname_technology,Lookup_technologies,0))","v":0},"MWh/MWh delivered energy"]
["Primary Energy Requirement",{"$f":"INDEX(lookup_technologies_PrimEn,MATCH(Lookupname_technology,Lookup_technologies,0))","v":0},"MWh/MWh delivered energy"]
["Processing Emissions",{"$f":"INDEX(Technologies_CO2_biopathways,MATCH(Lookupname_technology,Lookup_technologies,0))","v":39.471905882352949},"kg CO2e/MWh delivered energy"]
["CCS carbon capture efficiency",0.9]
[]
["Technology Data Table 5 - Biomass Technology"]
["Biomass Form","Technology","Lookup Name","Conversion Energy Efficiency based on LHV (Delivered Energy/Feedstock Energy in biomass from farm)","Reference","Direct Energy Requirement ","Primary Energy Requirement",null,null,"Assumption/Reference","CO2e emissions from Technology","Assumption /Reference"]
[null,null,null,null,null,"MWh/MWh delivered","MWh/MWh delivered",null,null,null,"kg CO2e/MWh delivered"]
[{"$f":"'Technology Data'!A25","v":"SRC Chips (25 wt% moisture)"},{"$f":"Lists!$A$554","v":"BioSNG"},{"$f":"A214&\":\"&B214","v":"SRC Chips (25 wt% moisture):BioSNG"},0.65,"Progressive Energy, 2010.",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_fossilmethane+Combustion_N2O_fossilmethane)*Conv_MWh_KWh","v":0.42},"Assume combustion emissions similar to combustion of fossil methane. See constants tab for references."]
[{"$f":"A214","v":"SRC Chips (25 wt% moisture)"},{"$f":"Lists!$A$555","v":"BtL"},"SRC Chips (25 wt% moisture):BtL",0.47,"North Energy and NNFCC, 2009",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"Combustion_CH4_FTdiesel*Conv_MWh_KWh+Combustion_N2O_FTdiesel*Conv_MWh_KWh","v":6.9800400000000007},"See constants tab for references"]
["SRC Chips (25 wt% moisture)",{"$f":"Lists!$A$556","v":"Ethanol"},"SRC Chips (25 wt% moisture):Ethanol",0.34,"Based on 70 dry wt% sugar, 80% hydrolysis, 0.4 te ethanol per te sugar. SD is an estimate. Assume energy requirement (e.g. Distillation) provided by lignin and unconverted sugars. ",0,0,null,null,"Assume all inputs provided by proportion of biomass",0,"Assumes no methane or N2O emissions from combustion."]
["SRC Chips (25 wt% moisture)",{"$f":"Lists!$A$557","v":"Gas from Slow Pyrolysis (Biochar co-product)"},"SRC Chips (25 wt% moisture):Gas from Slow Pyrolysis (Biochar co-product)",0.35,"Powell and Lenton, 2012.",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"-1*C_biomass*50%*MM_CO2/MM_C/(LHV_biomass*D217/Conv_kwh_MJ)*Conv_te_kg","v":-466.46616541353387},"Assuming 50% carbon capture efficiency, Powell and Lenton, 2012. Assumes no methane or N2O emissions from combustion of syn gas."]
["SRC Chips (25 wt% moisture)",{"$f":"Lists!$A$558","v":"CHP"},"SRC Chips (25 wt% moisture):CHP",0.85,"Estimate",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D218","v":8.8189647058823528},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["SRC Chips (25 wt% moisture)",{"$f":"Lists!$A$559","v":"Heat from Biomass Boiler"},"SRC Chips (25 wt% moisture):Heat from Biomass Boiler",0.85,"Estimate",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_smallscale+Combustion_N2O_wood_smallscale)*Conv_MWh_KWh/D219","v":39.471905882352949},"Assume combustion emissions similar to those from residential scale wood burning. See constant tab for references."]
["SRC Chips (25 wt% moisture)",{"$f":"Lists!$A$560","v":"Co-fire Bioelectricity"},"SRC Chips (25 wt% moisture):Co-fire Bioelectricity",0.4,"RWE Npower, Private communication",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D220","v":18.740300000000001},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["SRC Chips (25 wt% moisture)",{"$f":"Lists!$A$561","v":"Dedicated Bioelectricity"},"SRC Chips (25 wt% moisture):Dedicated Bioelectricity",0.35499999999999998,"DECC modelling assumption",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D221","v":21.115830985915494},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["SRC Chips (25 wt% moisture)",{"$f":"Lists!$A$562","v":"Dedicated Bioelectricity with CCS"},"SRC Chips (25 wt% moisture):Dedicated Bioelectricity with CCS",0.23,"ETI, 2012. Electrical efficiency dedicated biopower with amine scrubbing to capture the CO2",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"-1*C_biomass*MM_CO2/MM_C/D222/'Technology Data'!$B$3*Conv_MWh_KWh*B209+(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D222","v":-1231.8103478260873},"Assuming 90% CO2 capture efficiency (ETI, 2012). Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
[{"$f":"'Technology Data'!A26","v":"SRC Pellets (10% moisture)"},{"$f":"Lists!$A$554","v":"BioSNG"},"SRC Pellets (10% moisture):BioSNG",0.65,"Progressive Energy, 2010.",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_fossilmethane+Combustion_N2O_fossilmethane)*Conv_MWh_KWh","v":0.42},"Assume combustion emissions similar to combustion of fossil methane. See constants tab for references."]
[{"$f":"A223","v":"SRC Pellets (10% moisture)"},{"$f":"Lists!$A$555","v":"BtL"},"SRC Pellets (10% moisture):BtL",0.47,"North Energy and NNFCC, 2009",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"Combustion_CH4_FTdiesel*Conv_MWh_KWh+Combustion_N2O_FTdiesel*Conv_MWh_KWh","v":6.9800400000000007},"See constants tab for references"]
["SRC Pellets (10% moisture)",{"$f":"Lists!$A$556","v":"Ethanol"},"SRC Pellets (10% moisture):Ethanol",0.34,"Based on 70 dry wt% sugar, 80% hydrolysis, 0.4 te ethanol per te sugar. SD is an estimate. Assume energy requirement (e.g. Distillation) provided by lignin and unconverted sugars. ",0,0,null,null,"Assume all inputs provided by proportion of biomass",0,"Assumes no methane or N2O emissions from combustion."]
["SRC Pellets (10% moisture)",{"$f":"Lists!$A$557","v":"Gas from Slow Pyrolysis (Biochar co-product)"},"SRC Pellets (10% moisture):Gas from Slow Pyrolysis (Biochar co-product)",0.35,"Powell and Lenton, 2012.",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"-1*C_biomass*50%*MM_CO2/MM_C/(LHV_biomass*D226/Conv_kwh_MJ)*Conv_te_kg","v":-466.46616541353387},"Assuming 50% carbon capture efficiency, Powell and Lenton, 2012. Assumes no methane or N2O emissions from combustion of syn gas."]
["SRC Pellets (10% moisture)",{"$f":"Lists!$A$558","v":"CHP"},"SRC Pellets (10% moisture):CHP",0.85,"Estimate",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D227","v":8.8189647058823528},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["SRC Pellets (10% moisture)",{"$f":"Lists!$A$559","v":"Heat from Biomass Boiler"},"SRC Pellets (10% moisture):Heat from Biomass Boiler",0.85,"Estimate",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_smallscale+Combustion_N2O_wood_smallscale)*Conv_MWh_KWh/D228","v":39.471905882352949},"Assume combustion emissions similar to those from residential scale wood burning. See constant tab for references."]
["SRC Pellets (10% moisture)",{"$f":"Lists!$A$560","v":"Co-fire Bioelectricity"},"SRC Pellets (10% moisture):Co-fire Bioelectricity",0.4,"RWE Npower, Private communication",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D229","v":18.740300000000001},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["SRC Pellets (10% moisture)",{"$f":"Lists!$A$561","v":"Dedicated Bioelectricity"},"SRC Pellets (10% moisture):Dedicated Bioelectricity",0.35499999999999998,"DECC modelling assumption",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D230","v":21.115830985915494},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["SRC Pellets (10% moisture)",{"$f":"Lists!$A$562","v":"Dedicated Bioelectricity with CCS"},"SRC Pellets (10% moisture):Dedicated Bioelectricity with CCS",0.23,"ETI, 2012. Electrical efficiency dedicated biopower with amine scrubbing to capture the CO2",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"-1*C_biomass*MM_CO2/MM_C/D231/'Technology Data'!$B$3*Conv_MWh_KWh*B209+(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D231","v":-1231.8103478260873},"Assuming 90% CO2 capture efficiency (ETI, 2012). Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
[{"$f":"'Technology Data'!A27","v":"Miscanthus Chips (10 wt% moisture)"},{"$f":"Lists!$A$554","v":"BioSNG"},"Miscanthus Chips (10 wt% moisture):BioSNG",0.65,"Progressive Energy, 2010.",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_fossilmethane+Combustion_N2O_fossilmethane)*Conv_MWh_KWh","v":0.42},"Assume combustion emissions similar to combustion of fossil methane. See constants tab for references."]
[{"$f":"A232","v":"Miscanthus Chips (10 wt% moisture)"},{"$f":"Lists!$A$555","v":"BtL"},"Miscanthus Chips (10 wt% moisture):BtL",0.47,"North Energy and NNFCC, 2009",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"Combustion_CH4_FTdiesel*Conv_MWh_KWh+Combustion_N2O_FTdiesel*Conv_MWh_KWh","v":6.9800400000000007},"See constants tab for references"]
["Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!$A$556","v":"Ethanol"},"Miscanthus Chips (10 wt% moisture):Ethanol",0.34,"Based on 70 dry wt% sugar, 80% hydrolysis, 0.4 te ethanol per te sugar. SD is an estimate. Assume energy requirement (e.g. Distillation) provided by lignin and unconverted sugars. ",0,0,null,null,"Assume all inputs provided by proportion of biomass",0,"Assumes no methane or N2O emissions from combustion."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!$A$557","v":"Gas from Slow Pyrolysis (Biochar co-product)"},"Miscanthus Chips (10 wt% moisture):Gas from Slow Pyrolysis (Biochar co-product)",0.35,"Powell and Lenton, 2012.",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"-1*C_biomass*50%*MM_CO2/MM_C/(LHV_biomass*D235/Conv_kwh_MJ)*Conv_te_kg","v":-466.46616541353387},"Assuming 50% carbon capture efficiency, Powell and Lenton, 2012. Assumes no methane or N2O emissions from combustion of syn gas."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!$A$558","v":"CHP"},"Miscanthus Chips (10 wt% moisture):CHP",0.85,"Estimate",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D236","v":8.8189647058823528},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!$A$559","v":"Heat from Biomass Boiler"},"Miscanthus Chips (10 wt% moisture):Heat from Biomass Boiler",0.85,"Estimate",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_smallscale+Combustion_N2O_wood_smallscale)*Conv_MWh_KWh/D237","v":39.471905882352949},"Assume combustion emissions similar to those from residential scale wood burning. See constant tab for references."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!$A$560","v":"Co-fire Bioelectricity"},"Miscanthus Chips (10 wt% moisture):Co-fire Bioelectricity",0.4,"RWE Npower, Private communication",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D238","v":18.740300000000001},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!$A$561","v":"Dedicated Bioelectricity"},"Miscanthus Chips (10 wt% moisture):Dedicated Bioelectricity",0.35499999999999998,"DECC modelling assumption",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D239","v":21.115830985915494},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["Miscanthus Chips (10 wt% moisture)",{"$f":"Lists!$A$562","v":"Dedicated Bioelectricity with CCS"},"Miscanthus Chips (10 wt% moisture):Dedicated Bioelectricity with CCS",0.23,"ETI, 2012. Electrical efficiency dedicated biopower with amine scrubbing to capture the CO2",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"-1*C_biomass*MM_CO2/MM_C/D240/'Technology Data'!$B$3*Conv_MWh_KWh*B209+(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D240","v":-1231.8103478260873},"Assuming 90% CO2 capture efficiency (ETI, 2012). Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
[{"$f":"'Technology Data'!A28","v":"Miscanthus Pellets (10% moisture)"},{"$f":"Lists!$A$554","v":"BioSNG"},"Miscanthus Pellets (10% moisture):BioSNG",0.65,"Progressive Energy, 2010.",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_fossilmethane+Combustion_N2O_fossilmethane)*Conv_MWh_KWh","v":0.42},"Assume combustion emissions similar to combustion of fossil methane. See constants tab for references."]
[{"$f":"A241","v":"Miscanthus Pellets (10% moisture)"},{"$f":"Lists!$A$555","v":"BtL"},"Miscanthus Pellets (10% moisture):BtL",0.47,"North Energy and NNFCC, 2009",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"Combustion_CH4_FTdiesel*Conv_MWh_KWh+Combustion_N2O_FTdiesel*Conv_MWh_KWh","v":6.9800400000000007},"See constants tab for references"]
["Miscanthus Pellets (10% moisture)",{"$f":"Lists!$A$556","v":"Ethanol"},"Miscanthus Pellets (10% moisture):Ethanol",0.34,"Based on 70 dry wt% sugar, 80% hydrolysis, 0.4 te ethanol per te sugar. SD is an estimate. Assume energy requirement (e.g. Distillation) provided by lignin and unconverted sugars. ",0,0,null,null,"Assume all inputs provided by proportion of biomass",0,"Assumes no methane or N2O emissions from combustion."]
["Miscanthus Pellets (10% moisture)",{"$f":"Lists!$A$557","v":"Gas from Slow Pyrolysis (Biochar co-product)"},"Miscanthus Pellets (10% moisture):Gas from Slow Pyrolysis (Biochar co-product)",0.35,"Powell and Lenton, 2012.",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"-1*C_biomass*50%*MM_CO2/MM_C/(LHV_biomass*D244/Conv_kwh_MJ)*Conv_te_kg","v":-466.46616541353387},"Assuming 50% carbon capture efficiency, Powell and Lenton, 2012. Assumes no methane or N2O emissions from combustion of syn gas."]
["Miscanthus Pellets (10% moisture)",{"$f":"Lists!$A$558","v":"CHP"},"Miscanthus Pellets (10% moisture):CHP",0.85,"Estimate",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D245","v":8.8189647058823528},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["Miscanthus Pellets (10% moisture)",{"$f":"Lists!$A$559","v":"Heat from Biomass Boiler"},{"$f":"A246&\":\"&B246","v":"Miscanthus Pellets (10% moisture):Heat from Biomass Boiler"},0.85,"Estimate",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_smallscale+Combustion_N2O_wood_smallscale)*Conv_MWh_KWh/D246","v":39.471905882352949},"Assume combustion emissions similar to those from residential scale wood burning. See constant tab for references."]
["Miscanthus Pellets (10% moisture)",{"$f":"Lists!$A$560","v":"Co-fire Bioelectricity"},"Miscanthus Pellets (10% moisture):Co-fire Bioelectricity",0.4,"RWE Npower, Private communication",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D247","v":18.740300000000001},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["Miscanthus Pellets (10% moisture)",{"$f":"Lists!$A$561","v":"Dedicated Bioelectricity"},"Miscanthus Pellets (10% moisture):Dedicated Bioelectricity",0.35499999999999998,"DECC modelling assumption",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D248","v":21.115830985915494},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["Miscanthus Pellets (10% moisture)",{"$f":"Lists!$A$562","v":"Dedicated Bioelectricity with CCS"},"Miscanthus Pellets (10% moisture):Dedicated Bioelectricity with CCS",0.23,"ETI, 2012. Electrical efficiency dedicated biopower with amine scrubbing to capture the CO2",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"-1*C_biomass*MM_CO2/MM_C/D249/'Technology Data'!$B$3*Conv_MWh_KWh*B209+(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D249","v":-1231.8103478260873},"Assuming 90% CO2 capture efficiency (ETI, 2012). Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
[{"$f":"'Technology Data'!A29","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!$A$554","v":"BioSNG"},"Wood Chips (25 wt% moisture):BioSNG",0.65,"Progressive Energy, 2010.",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_fossilmethane+Combustion_N2O_fossilmethane)*Conv_MWh_KWh","v":0.42},"Assume combustion emissions similar to combustion of fossil methane. See constants tab for references."]
[{"$f":"A250","v":"Wood Chips (25 wt% moisture)"},{"$f":"Lists!$A$555","v":"BtL"},"Wood Chips (25 wt% moisture):BtL",0.47,"North Energy and NNFCC, 2009",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"Combustion_CH4_FTdiesel*Conv_MWh_KWh+Combustion_N2O_FTdiesel*Conv_MWh_KWh","v":6.9800400000000007},"See constants tab for references"]
["Wood Chips (25 wt% moisture)",{"$f":"Lists!$A$556","v":"Ethanol"},"Wood Chips (25 wt% moisture):Ethanol",0.34,"Based on 70 dry wt% sugar, 80% hydrolysis, 0.4 te ethanol per te sugar. SD is an estimate. Assume energy requirement (e.g. Distillation) provided by lignin and unconverted sugars. ",0,0,null,null,"Assume all inputs provided by proportion of biomass",0,"Assumes no methane or N2O emissions from combustion."]
["Wood Chips (25 wt% moisture)",{"$f":"Lists!$A$557","v":"Gas from Slow Pyrolysis (Biochar co-product)"},"Wood Chips (25 wt% moisture):Gas from Slow Pyrolysis (Biochar co-product)",0.35,"Powell and Lenton, 2012.",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"-1*C_biomass*50%*MM_CO2/MM_C/(LHV_biomass*D253/Conv_kwh_MJ)*Conv_te_kg","v":-466.46616541353387},"Assuming 50% carbon capture efficiency, Powell and Lenton, 2012. Assumes no methane or N2O emissions from combustion of syn gas."]
["Wood Chips (25 wt% moisture)",{"$f":"Lists!$A$558","v":"CHP"},"Wood Chips (25 wt% moisture):CHP",0.85,"Estimate",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D254","v":8.8189647058823528},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["Wood Chips (25 wt% moisture)",{"$f":"Lists!$A$559","v":"Heat from Biomass Boiler"},"Wood Chips (25 wt% moisture):Heat from Biomass Boiler",0.85,"Estimate",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_smallscale+Combustion_N2O_wood_smallscale)*Conv_MWh_KWh/D255","v":39.471905882352949},"Assume combustion emissions similar to those from residential scale wood burning. See constant tab for references."]
["Wood Chips (25 wt% moisture)",{"$f":"Lists!$A$560","v":"Co-fire Bioelectricity"},"Wood Chips (25 wt% moisture):Co-fire Bioelectricity",0.4,"RWE Npower, Private communication",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D256","v":18.740300000000001},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["Wood Chips (25 wt% moisture)",{"$f":"Lists!$A$561","v":"Dedicated Bioelectricity"},"Wood Chips (25 wt% moisture):Dedicated Bioelectricity",0.35499999999999998,"DECC modelling assumption",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D257","v":21.115830985915494},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["Wood Chips (25 wt% moisture)",{"$f":"Lists!$A$562","v":"Dedicated Bioelectricity with CCS"},"Wood Chips (25 wt% moisture):Dedicated Bioelectricity with CCS",0.23,"ETI, 2012. Electrical efficiency dedicated biopower with amine scrubbing to capture the CO2",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"-1*C_biomass*MM_CO2/MM_C/D258/'Technology Data'!$B$3*Conv_MWh_KWh*$B$209+(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D258","v":-1231.8103478260873},"Assuming 90% CO2 capture efficiency (ETI, 2012). Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
[{"$f":"'Technology Data'!A30","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$554","v":"BioSNG"},"Wood Pellets (7 wt% moisture):BioSNG",0.65,"Progressive Energy, 2010.",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_fossilmethane+Combustion_N2O_fossilmethane)*Conv_MWh_KWh","v":0.42},"Assume combustion emissions similar to combustion of fossil methane. See constants tab for references."]
[{"$f":"A259","v":"Wood Pellets (7 wt% moisture)"},{"$f":"Lists!$A$555","v":"BtL"},"Wood Pellets (7 wt% moisture):BtL",0.47,"North Energy and NNFCC, 2009",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"Combustion_CH4_FTdiesel*Conv_MWh_KWh+Combustion_N2O_FTdiesel*Conv_MWh_KWh","v":6.9800400000000007},"See constants tab for references"]
["Wood Pellets (7 wt% moisture)",{"$f":"Lists!$A$556","v":"Ethanol"},"Wood Pellets (7 wt% moisture):Ethanol",0.34,"Based on 70 dry wt% sugar, 80% hydrolysis, 0.4 te ethanol per te sugar. SD is an estimate. Assume energy requirement (e.g. Distillation) provided by lignin and unconverted sugars. ",0,0,null,null,"Assume all inputs provided by proportion of biomass",0,"Assumes no methane or N2O emissions from combustion."]
["Wood Pellets (7 wt% moisture)",{"$f":"Lists!$A$557","v":"Gas from Slow Pyrolysis (Biochar co-product)"},"Wood Pellets (7 wt% moisture):Gas from Slow Pyrolysis (Biochar co-product)",0.35,"Powell and Lenton, 2012.",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"-1*C_biomass*50%*MM_CO2/MM_C/(LHV_biomass*D262/Conv_kwh_MJ)*Conv_te_kg","v":-466.46616541353387},"Assuming 50% carbon capture efficiency, Powell and Lenton, 2012. Assumes no methane or N2O emissions from combustion of syn gas."]
["Wood Pellets (7 wt% moisture)",{"$f":"Lists!$A$558","v":"CHP"},"Wood Pellets (7 wt% moisture):CHP",0.85,"Estimate",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D263","v":8.8189647058823528},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["Wood Pellets (7 wt% moisture)",{"$f":"Lists!$A$559","v":"Heat from Biomass Boiler"},"Wood Pellets (7 wt% moisture):Heat from Biomass Boiler",0.85,"Estimate",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_smallscale+Combustion_N2O_wood_smallscale)*Conv_MWh_KWh/D264","v":39.471905882352949},"Assume combustion emissions similar to those from residential scale wood burning. See constant tab for references."]
["Wood Pellets (7 wt% moisture)",{"$f":"Lists!$A$560","v":"Co-fire Bioelectricity"},"Wood Pellets (7 wt% moisture):Co-fire Bioelectricity",0.4,"RWE Npower, Private communication",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D265","v":18.740300000000001},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["Wood Pellets (7 wt% moisture)",{"$f":"Lists!$A$561","v":"Dedicated Bioelectricity"},"Wood Pellets (7 wt% moisture):Dedicated Bioelectricity",0.35499999999999998,"DECC modelling assumption",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D266","v":21.115830985915494},"Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
["Wood Pellets (7 wt% moisture)",{"$f":"Lists!$A$562","v":"Dedicated Bioelectricity with CCS"},"Wood Pellets (7 wt% moisture):Dedicated Bioelectricity with CCS",0.23,"ETI, 2012. Electrical efficiency dedicated biopower with amine scrubbing to capture the CO2",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"-1*C_biomass*MM_CO2/MM_C/D267/'Technology Data'!$B$3*Conv_MWh_KWh*$B$209+(Combustion_CH4_wood_ind_scale+Combustion_N2O_ind_scale)*Conv_MWh_KWh/D267","v":-1231.8103478260873},"Assuming 90% CO2 capture efficiency (ETI, 2012). Assume combustion emissions similar to those from industrial scale wood burning. See constant tab for references."]
[{"$f":"'Technology Data'!A22","v":"Maize Sillage (67 wt% moisture)"},{"$f":"Lists!A565","v":"Anaerobic digestion, electricity from biogas"},"Maize Sillage (67 wt% moisture):Anaerobic digestion, electricity from biogas",{"$f":"Energy_conversion_sillage*Energy_conversion_biogas_electricity","v":0.219},"Ofgem 2013.  Assume 30% efficiency of power generation. ",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"Biogas_CH4_release*Conv_MWh_KWh/Energy_conversion_biogas_electricity","v":60.000000000000014},"See constants tab for references"]
[{"$f":"A268","v":"Maize Sillage (67 wt% moisture)"},{"$f":"Lists!A566","v":"Anaerobic digestion, CHP from biogas"},"Maize Sillage (67 wt% moisture):Anaerobic digestion, CHP from biogas",{"$f":"Energy_conversion_sillage*Energy_conversion_biogas_CHP","v":0.58399999999999996}," Ofgem, 2013. Assume 80% efficiency of heat and power generation. ",0,0,null,null,"Assume all inputs provided by proportion of biomass",{"$f":"Biogas_CH4_release*Conv_MWh_KWh/Energy_conversion_biogas_CHP","v":22.500000000000004},"See constants tab for references"]
[{"$f":"A269","v":"Maize Sillage (67 wt% moisture)"},{"$f":"Lists!A556","v":"Ethanol"},"Maize Sillage (67 wt% moisture):Ethanol",0.43,"Based on 80 dry wt% sugar, 90% hydrolysis, 0.4 te ethanol per te sugar. SD is an estimate. Assume energy requirement (e.g. Distillation) provided by lignin and unconverted sugars",0,0,null,null,"Assume all inputs provided by proportion of biomass",0,"Assumes no methane or N2O emissions from combustion."]
[{"$f":"'Technology Data'!A23","v":"Palm Oil"},{"$f":"Lists!A563","v":"Electricity from Vegetable Oil"},"Palm Oil:Electricity from Vegetable Oil",0.4,"Estimate",0,0,null,null,"Assume all inputs provided by proportion of biomass",0,"Assumes no methane or N2O emissions from combustion."]
[{"$f":"A271","v":"Palm Oil"},{"$f":"Lists!A564","v":"Biodiesel"},"Palm Oil:Biodiesel",{"$f":"98.8%","v":0.98799999999999999},"Ofgem, 2013.",{"$f":"(Biodiesel_electricity/Conv_kwh_MJ+Biodiesel_natgas/Conv_kwh_MJ+Biodiesel_methanol*En_methanol+Biodiesel_PhosAcid*En_Phosphoricacid+Biodiesel_HCl*En_Hcl+Biodiesel_NaCarbonate*En_NaCarbonate+Biodiesel_NaOH*En_NaOH)/'Technology Data'!C24/Conv_MWh_KWh","v":0.21102757},{"$f":"(Biodiesel_electricity/Conv_kwh_MJ*Chosen_Grid_Prim_Energy+Biodiesel_natgas*Prim_En_Natgas/Conv_kwh_MJ+Biodiesel_methanol*En_methanol*Prim_En_Methanol+Biodiesel_PhosAcid*En_Phosphoricacid*Prim_En_Phosphoricacid+Biodiesel_HCl*En_Hcl*Prim_En_HCl+Biodiesel_NaCarbonate*En_NaCarbonate*Prim_En_NaCarbonate+Biodiesel_NaOH*En_NaOH*Prim_En_NaOH)/'Technology Data'!C24/Conv_MWh_KWh","v":0.22322676564677738},null,null,"Ofgem UK Carbon Calculator. Biodiesel processing requires methanol, acid, alkaline",{"$f":"(Biodiesel_electricity/Conv_kwh_MJ/Conv_MWh_KWh*'Technology Data'!B44+Biodiesel_natgas/Conv_kwh_MJ*EF_NaturalGas_LHVbasis+Biodiesel_methanol*EF_Methanol+Biodiesel_PhosAcid*EF_Phosphoricacid+Biodiesel_HCl*EF_Hcl+Biodiesel_NaCarbonate*EF_NaCarbonate+Biodiesel_NaOH*EF_NaOH)/'Technology Data'!C24","v":48.472381730000002},"See constants tab for references"]
[{"$f":"A272","v":"Palm Oil"},{"$f":"Lists!A558","v":"CHP"},"Palm Oil:CHP",0.85,"Estimate",0,0,null,null,"Assume all inputs provided by proportion of biomass",0,"Assumes no methane or N2O emissions from combustion."]
[null,"Insert above here"]
[]
["Technology Data Table 6 - Fossil Fuel Comparator Efficiencies","Efficiency","Reference"]
["Electricity from Natural Gas CCGT",0.48499999999999999,"Dukes 2013. Average UK fleet efficiency, based on HHV. "]
["Electricity from Coal",0.35699999999999998,"Dukes 2013. Average UK fleet efficiency, based on HHV. "]
["Heat from Natural Gas",0.9,"Based on LHV"]
["Heat Pump COP",3]
["Heat from Burning Oil",0.9,"Based on LHV"]
["CHP using Natural Gas (treating power and heat equally)",0.9,"Based on LHV"]
[]
["Technology Data Table 7. Emission Standards","Value (kg CO2e/MWh)","Reference"]
["RED Biofuel Sust. Std. 2013",196,"DfT, 2012"]
["Bioheat Sust. Std. 2013",125.28,"DECC, 2013b"]
["Co-fire Sust. Std. 2013",285,"DECC, 2013a"]
["Dedicated Biopower Sust. Std. 2013",240,"DECC, 2013a"]
[]
["Technology Data Table 7 - GHG Emission Comparitors"]
["Carbon and Sustainability reporting within the Renewable Transport Fuel Obligation, Technical Guidance Part One,Renewable Fuels Agency,May 2012"]
["Fuel","Standard","Standard Value","Comparitor 2","Comparitor 2 Value. kg CO2e/MWh","Comparitor 3","Comparitor 3 Value. kg CO2e/MWh","Comparitor 4",null,null,"Comparitor 4 Value. kg CO2e/MWh"]
[{"$f":"Lists!A554","v":"BioSNG"},null,null,"Natural Gas",{"$f":"EF_NaturalGas_LHVbasis*Conv_te_kg","v":235.39}]
[{"$f":"Lists!A555","v":"BtL"},"RED Biofuel Sust. Std. 2013",{"$f":"B285","v":196},"100% mineral diesel",{"$f":"EF_diesel_LHVenergybasis*Conv_te_kg","v":324.45}]
[{"$f":"Lists!A556","v":"Ethanol"},"RED Biofuel Sust. Std. 2013",{"$f":"B285","v":196},"100% mineral petrol ",{"$f":"EF_petrol_LHVenergybasis*Conv_te_kg","v":304.18999999999994}]
[{"$f":"Lists!A557","v":"Gas from Slow Pyrolysis (Biochar co-product)"},null,null,"Natural Gas",{"$f":"EF_NaturalGas_LHVbasis*Conv_te_kg","v":235.39}]
[{"$f":"Lists!A558","v":"CHP"},null,null,"CHP using Natural Gas",{"$f":"EF_NaturalGas_LHVbasis/B282*Conv_te_kg","v":261.54444444444442}]
[{"$f":"Lists!A559","v":"Heat from Biomass Boiler"},"Bioheat Sust. Std. 2013",{"$f":"B286","v":125.28},"Heat from Natural Gas",{"$f":"EF_NaturalGas_LHVbasis/B279*Conv_te_kg","v":261.54444444444442},"Heat Pump using 2013 UK power, COP=3",{"$f":"EF_UK/B280","v":184.63333333333335},"Heat from Burning Oil",null,null,{"$f":"EF_heavyfueloil_LHVbasis/B281*Conv_te_kg","v":377.51111111111112}]
[{"$f":"Lists!A560","v":"Co-fire Bioelectricity"},"Co-fire Sust. Std. 2013",{"$f":"B287","v":285},"Electricity from Coal",{"$f":"EF_Coal_HHVbasis/B278*Conv_te_kg","v":1018.0112044817928},"Electricity from Natural Gas CCGT",{"$f":"EF_NaturalGas_HHVbasis/$B$277*Conv_te_kg","v":437.40206185567013},"UK Average Grid 2013",null,null,{"$f":"EF_UK","v":553.90000000000009}]
[{"$f":"Lists!A561","v":"Dedicated Bioelectricity"},"Dedicated Biopower Sust. Std. 2013",{"$f":"B288","v":240},"Electricity from Coal",{"$f":"EF_Coal_HHVbasis/B278*Conv_te_kg","v":1018.0112044817928},"Electricity from Natural Gas CCGT",{"$f":"EF_NaturalGas_HHVbasis/$B$277*Conv_te_kg","v":437.40206185567013},"UK Average Grid 2013",null,null,{"$f":"EF_UK","v":553.90000000000009}]
[{"$f":"Lists!A562","v":"Dedicated Bioelectricity with CCS"},"Dedicated Biopower Sust. Std. 2013",{"$f":"B288","v":240},"Electricity from Coal",{"$f":"EF_Coal_HHVbasis/B278*Conv_te_kg","v":1018.0112044817928},"Electricity from Natural Gas CCGT",{"$f":"EF_NaturalGas_HHVbasis/$B$277*Conv_te_kg","v":437.40206185567013},"UK Average Grid 2013",null,null,{"$f":"EF_UK","v":553.90000000000009}]
[{"$f":"Lists!A563","v":"Electricity from Vegetable Oil"},"Dedicated Biopower Sust. Std. 2013",{"$f":"B288","v":240},"Electricity from Coal",{"$f":"EF_Coal_HHVbasis/B278*Conv_te_kg","v":1018.0112044817928},"Electricity from Natural Gas CCGT",{"$f":"EF_NaturalGas_HHVbasis/$B$277*Conv_te_kg","v":437.40206185567013},"UK Average Grid 2013",null,null,{"$f":"EF_UK","v":553.90000000000009}]
[{"$f":"Lists!A564","v":"Biodiesel"},"RED Biofuel Sust. Std. 2013",{"$f":"B285","v":196},"100% mineral diesel",{"$f":"EF_diesel_LHVenergybasis*Conv_te_kg","v":324.45}]
[{"$f":"Lists!A565","v":"Anaerobic digestion, electricity from biogas"},"Dedicated Biopower Sust. Std. 2013",{"$f":"B288","v":240},"Electricity from Coal",{"$f":"EF_Coal_HHVbasis/B278*Conv_te_kg","v":1018.0112044817928},"Electricity from Natural Gas CCGT",{"$f":"EF_NaturalGas_HHVbasis/$B$277*Conv_te_kg","v":437.40206185567013},"UK Average Grid 2013",null,null,{"$f":"EF_UK","v":553.90000000000009}]
[{"$f":"Lists!A566","v":"Anaerobic digestion, CHP from biogas"},null,null,"CHP using Natural Gas (treating power and heat equally)",{"$f":"EF_NaturalGas_LHVbasis/B282*Conv_te_kg","v":261.54444444444442}]

{"sheet":"Reversion_Data","index":11,"n_rows":298,"n_cols":40,"rows_kept":298,"cut":false,"hidden":false,"merged":[[113,57,113,59],[113,60,113,61]]}
["1. Reversion Factors for Abandoned Land"]
[]
["When land is abandoned, it takes time for the land the recover and seeds to spread, so that the native vegetation can regrow."]
["The land is re-seeded by seed dispersal, either from the wind or from animals"]
["Seed dispersion by wind can be limited to within 10m of a forest edge, therefore large sites will regernerate slower (Aide et al., 1995)."]
[]
["Data from Papers and Experiments:"]
[]
["Data from Rothamsted Research, UK. "]
["2 sites which were previously arable since Roman times and hence were severaly degraded with low SOC (Post and Kwon, 2000)"]
["Broadbalk (0.2 ha) was used for wheat and was heavily chalked, therefore it is still calcareus. It is now woodland with ash, sycamore and hawthorn. The ground is covered with Ivy. Little litter."]
["The Geescroft (1.3 ha) site was used to grow beans and was less heavily chalked, therefore ph reduced to 4.4 by 1999. Trees are mainly oak and ash. As the soil is acidic, therefore are few ground core species. Permanent litter layer."]
["Geescroft is larger, therefore less edge effects and light inception per uit area, therefore more preresentative of large scale reversion."]
[]
["The increase in carbon is shown below:"]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
["It can be seen that the SOC increases steadily over the time frame. There is an initial recovery period before the woodland started to regenerate."]
[null,null,null,"Carbon Sequestration in te C/ha/y"]
[null,null,"New land type","SOC","Litter","Root","Above Ground Biomass"]
["Initial recovery","0-21 years","Scrub Land",0.33300000000000002,0,0.48,0.17]
["Woodland Reversion","21-116 years","Woodland",0.20599999999999999,0.18,0.36,1.56]
["Overall average","116 years",null,0.23,0.15,0.38,1.28]
[]
["Data from Aide et al., 1995."]
["This paper considers the reversion of abandoned pasture lands in Peuto Rica, where the land is reverting to tropical moist forests."]
["Land areas varied, between 1 and 54 ha."]
["Here, forest regeneration is slower than expected, and the paper mention this is due to:"]
["1) lack of seed disersion"]
["2) ferns and grasses competing with dispersed seeds"]
["3) poor, degraded soils with high compation."]
[]
["It can be seen from the graph below that recovery of woody biomass started about 10 years after abandonment."]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
["Other Papers"]
["Uhl et al., 1988"]
["The rate of carbon sequestration depends how the land was previously land use intensity. "]
["Land where bulldozers used to remove trees slower recovery than that used with intermediate intensity (where recvery similar to slash and burn techniques)"]
[]
["Richter et al., 1999"]
["The rate of SOC and above ground carbon for abandoned soils in South Carolina, USA, Calhoun forest. Previously used for cotton and arable crops for 100 years."]
["SOC slow to recover over 40 years, but tree and forest floor biomass accumulated 180 te C/ha, equivalent to 10.9 te biomass/ha/y, over 33 years."]
["This compares to IPCC tropical moist North America forests of 7 odt above biomass/ha/y (~9 total biomass)"]
[]
["Johnson, 1992"]
["SOC reaches new equilibrium faster for temperate soils than tropical soils. Suggests new equilibrium reaches in 50 years for temperate soils and 30 years for tropical."]
[]
["Modelling, based on above papers"]
["Use IPCC data for growth rates of different land types and changes in soil organic carbon, assuming an initial recovery period, where the land reverts to a scrub land."]
[]
["SOC Recovery"]
["The time it takes for the SOC to reach a new equilibrium state depends on the climate, with tropical climates reaching equilibrium sooner"]
[null,"Time (years)"]
["Boreal",100]
["Cold Temperate Dry",75]
["Cold Temperate Moist",75]
["Warm Temperate Dry",75]
["Warm Temperate Moist",75]
["Tropical Dry",50]
["Tropical Moist",50]
["Tropical Wet",50]
["Tropical Montane",50]
[]
[]
["Biomass Recovery"]
["It is evident that recovery varies, depending on ability for seeds to disperse easily, and previous intensity of management"]
["Assumed that land reverts to grassland over varying time frames, depending on the user's choice. "]
[null,"Initial recover period (depends on seed dispersal)","Woody Biomass growth","Message"]
[null,"time for scrub to form and woody biomas to start to form (years)","Percent of IPCC natural regrowth"]
["Fast Recovery",5,1,"Previously well managed land, with little soil compaction and degradation. Seeds easily dispersed on land."]
["Standard Recovery",10,1,"Previously managed using standard practices. Moderate soil degradation."]
["Slow Recovery",20,1,"Previously intensively managed land, with soil compaction and degradation. Seeds disperse slowly on land."]
[]
[]
["How fast is the land's recovery (depending on whether the land is degraded, size of land etc.","Standard Recovery",{"$f":"INDEX(Reversion_Data!D105:D107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":"Previously managed using standard practices. Moderate soil degradation."}]
[null,"(keep the default figure of Standard Recovery)"]
["Data for Abandoned Agricultural Land",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,"Above and below ground biomass Phase 1 - Recovery to Scrub land",null,null,null,null,null,"Above and Below Ground biomass Phase 2 - Initial exponential growth phase of natural forest < 20 years",null,null,null,null,null,null,null,"Above and below ground biomass Phase 3 - Growth of natural forest > 20 years old until max carbon stock reached",null,null,null,null,null,null,null,"Litter"]
["Native Land State","Climate","Continent","Time Frame (years)","Name for search","Time taken for soils to reach new equilibrium","Proportion of overall increase in SOC achieved by end of time frame","Above ground biomass at end of time frame. IPCC data gives average carbon stocks, so account for any reductions in carbon stock from natural disturbances.","Below ground biomass at end of time frame","Litter at end of time frame","Reversion Factor ",null,"Above Ground Biomass when ecosystem fully established","Below Ground Biomass when fully established","Litter when ecosystem fully established","Root to shoot ratio of final ecosystem","Initial Recovery Period","Above Ground Biomass Increase","Below Ground biomass increase","Initial Regrowth Rate","Final above ground biomass Phase 1","Reference","Second time interval ","IPCC Above Ground Biomass Increase ","Modelled Above Ground Biomass Increase ","Below Ground biomass increase","Regrowth Rate","Final above ground biomass Phase 2","Time to reach final phase value","Reference","Third time interval","IPCC Above Ground Biomass Increase ","Modelled Above Ground Biomass Increase ","Below Ground biomass increase","Regrowth Rate","Final above ground biomass Phase 2","Time to reach final phase value","Reference","Time to reach equilibrium litter value","Litter Carbon Accumulation"]
[null,null,null,null,null,null,null,null,null,null,null,{"$f":"Error_forgone_sequestration","v":0.5},null,null,null,null,"X","t>Y years",null,null,null,null,"Y","t>Y years","t>Y years",null,"t>Y years",null,"years",null,"Z",null,"t>Z years",null,"t>Z years"]
[null,null,null,null,null,null,null,null,null,null,"mean","error"]
[null,null,null,null,null,"years",null,"te dm/ha","te dm/ha","te dm/ha","te CO2/ha/y","te CO2/ha/y","te dm/ha","te dm/ha","te dm/ha",null,"years after abandonment","te dm/ha/y","te dm/ha/y","teCO2/ha/y","te dm/ha",null,"years after abandonment","te dm/ha/y","te dm/ha/y","te dm/ha/y","te CO2/ha/y","te dm/ha",null,null,"years after abandonment",null,"te dm/ha/y","te dm/ha/y","te CO2/ha/y","te dm/ha",null,null,"years","tedm/ha/y"]
["Tropical","Tropical Rainforest","Africa",20,{"$f":"B117&\":\"&C117&\":\"&D117","v":"Tropical Rainforest:Africa:20"},{"$f":"$B$96","v":50},{"$f":"IF(D117>F117,1,D117/F117)","v":0.4},{"$f":"IF((IF(D117<=Q117,D117*R117,IF(D117<=W117,Q117*R117+(D117-Q117)*Y117,IF(D117<=AE117,Q117*R117+(W117-Q117)*Y117+(D117-W117)*AG117))))<M117,(IF(D117<=Q117,D117*R117,IF(D117<=W117,Q117*R117+(D117-Q117)*Y117,IF(D117<=AE117,Q117*R117+(W117-Q117)*Y117+(D117-W117)*AG117)))),M117)","v":105.58725988457232},{"$f":"IF((IF(D117<=Q117,D117*S117,IF(D117<=W117,Q117*S117+(D117-Q117)*Z117,IF(D117<=AE117,Q117*S117+(W117-Q117)*Z117+(D117-W117)*AH117))))<N117,(IF(D117<=Q117,D117*S117,IF(D117<=W117,Q117*S117+(D117-Q117)*Z117,IF(D117<=AE117,Q117*S117+(W117-Q117)*Z117+(D117-W117)*AH117)))),N117)","v":46.678697562236195},{"$f":"IF((D117-Q117)*AN117<O117,(D117-Q117)*AN117,O117)","v":2.373513513513509},{"$f":"((H117+I117)*C_biomass+J117*C_litter)/D117*MM_CO2/MM_C","v":13.281253333333332},{"$f":"K117*$L$114","v":6.640626666666666},{"$f":"'Reference Data'!E37","v":310},{"$f":"M117*P117","v":114.7},{"$f":"'Reference Data'!K37","v":11.867567567567544},0.37,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q117","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q117","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q117*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q117*R117","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q117","v":30},10,{"$f":"X117*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":10},{"$f":"Y117*P117","v":3.7},{"$f":"Y117*(1+P117)*C_biomass*MM_CO2/MM_C","v":23.609666666666669},{"$f":"IF(U117+(W117-Q117)*Y117<M117,U117+(W117-Q117)*Y117,M117)","v":205.58725988457232},{"$f":"(AB117-U117)/Y117+Q117","v":30},"Table 4.9, IPCC, 2006.",100,3.1,{"$f":"AF117*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":3.1},{"$f":"AG117*P117","v":1.147},{"$f":"AG117*(1+P117)*C_biomass*MM_CO2/MM_C","v":7.318996666666667},{"$f":"IF(AB117+(AE117-W117)*AG117<M117,AB117+(AE117-W117)*AG117,M117)","v":310},{"$f":"(AJ117-AB117)/AG117+AC117","v":63.681529069492797},"IPCC 2006",50,{"$f":"O117/AM117","v":0.23735135135135088}]
[null,"Tropical Rainforest","Africa",40,{"$f":"B118&\":\"&C118&\":\"&D118","v":"Tropical Rainforest:Africa:40"},{"$f":"$B$96","v":50},{"$f":"IF(D118>F118,1,D118/F118)","v":0.8},{"$f":"IF((IF(D118<=Q117,D118*R117,IF(D118<=W117,Q117*R117+(D118-Q117)*Y117,IF(D118<=AE117,Q117*R117+(W117-Q117)*Y117+(D118-W117)*AG117))))<M117,(IF(D118<=Q117,D118*R117,IF(D118<=W117,Q117*R117+(D118-Q117)*Y117,IF(D118<=AE117,Q117*R117+(W117-Q117)*Y117+(D118-W117)*AG117)))),M117)","v":236.58725988457232},{"$f":"IF((IF(D118<=Q117,D118*S117,IF(D118<=W117,Q117*S117+(D118-Q117)*Z117,IF(D118<=AE117,Q117*S117+(W117-Q117)*Z117+(D118-W117)*AH117))))<N117,(IF(D118<=Q117,D118*S117,IF(D118<=W117,Q117*S117+(D118-Q117)*Z117,IF(D118<=AE117,Q117*S117+(W117-Q117)*Z117+(D118-W117)*AH117)))),N117)","v":95.148697562236194},{"$f":"IF((D118-Q117)*AN117<O117,(D118-Q117)*AN117,O117)","v":7.1205405405405262},{"$f":"((H118+I118)*C_biomass+J118*C_litter)/D118*MM_CO2/MM_C","v":14.533795833333334},{"$f":"K118*$L$114","v":7.2668979166666672}]
[null,"Tropical Rainforest","Africa",100,"Tropical Rainforest:Africa:100",{"$f":"$B$96","v":50},1,{"$f":"IF((IF(D119<=Q117,D119*R117,IF(D119<=W117,Q117*R117+(D119-Q117)*Y117,IF(D119<=AE117,Q117*R117+(W117-Q117)*Y117+(D119-W117)*AG117))))<M117,(IF(D119<=Q117,D119*R117,IF(D119<=W117,Q117*R117+(D119-Q117)*Y117,IF(D119<=AE117,Q117*R117+(W117-Q117)*Y117+(D119-W117)*AG117)))),M117)","v":310},{"$f":"IF((IF(D119<=Q117,D119*S117,IF(D119<=W117,Q117*S117+(D119-Q117)*Z117,IF(D119<=AE117,Q117*S117+(W117-Q117)*Z117+(D119-W117)*AH117))))<N117,(IF(D119<=Q117,D119*S117,IF(D119<=W117,Q117*S117+(D119-Q117)*Z117,IF(D119<=AE117,Q117*S117+(W117-Q117)*Z117+(D119-W117)*AH117)))),N117)","v":114.7},{"$f":"IF((D119-Q117)*AN117<O117,(D119-Q117)*AN117,O117)","v":11.867567567567544},7.4799999999999978,{"$f":"K119*$L$114","v":3.7399999999999989}]
[null,"Tropical Rainforest","North America",20,"Tropical Rainforest:North America:20",50,0.4,{"$f":"IF((IF(D120<=Q120,D120*R120,IF(D120<=W120,Q120*R120+(D120-Q120)*Y120,IF(D120<=AE120,Q120*R120+(W120-Q120)*Y120+(D120-W120)*AG120))))<M120,(IF(D120<=Q120,D120*R120,IF(D120<=W120,Q120*R120+(D120-Q120)*Y120,IF(D120<=AE120,Q120*R120+(W120-Q120)*Y120+(D120-W120)*AG120)))),M120)","v":115.58725988457232},{"$f":"IF((IF(D120<=Q120,D120*S120,IF(D120<=W120,Q120*S120+(D120-Q120)*Z120,IF(D120<=AE120,Q120*S120+(W120-Q120)*Z120+(D120-W120)*AH120))))<N120,(IF(D120<=Q120,D120*S120,IF(D120<=W120,Q120*S120+(D120-Q120)*Z120,IF(D120<=AE120,Q120*S120+(W120-Q120)*Z120+(D120-W120)*AH120)))),N120)","v":50.378697562236198},{"$f":"IF((D120-Q120)*AN120<O120,(D120-Q120)*AN120,O120)","v":2.6108108108108024},14.477833333333335,7.2389166666666673,{"$f":"'Reference Data'!E38","v":300},{"$f":"M120*P120","v":111},{"$f":"'Reference Data'!K38","v":13.054054054054012},0.37,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q120","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q120","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q120*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q120*R120","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q120","v":30},11,{"$f":"X120*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":11},{"$f":"Y120*P120","v":4.07},{"$f":"Y120*(1+P120)*C_biomass*MM_CO2/MM_C","v":25.970633333333328},{"$f":"IF(U120+(W120-Q120)*Y120<M120,U120+(W120-Q120)*Y120,M120)","v":225.58725988457232},{"$f":"(AB120-U120)/Y120+Q120","v":30},"Table 4.9, IPCC 2006, Vol 4",100,3.1,{"$f":"AF120*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":3.1},{"$f":"AG120*P120","v":1.147},{"$f":"AG120*(1+P120)*C_biomass*MM_CO2/MM_C","v":7.318996666666667},{"$f":"IF(AB120+(AE120-W120)*AG120<M120,AB120+(AE120-W120)*AG120,M120)","v":300},{"$f":"(AJ120-AB120)/AG120+AC120","v":54.004109714654092},"IPCC 2006",50,{"$f":"O120/AM120","v":0.26108108108108025}]
[null,"Tropical Rainforest","North America",40,"Tropical Rainforest:North America:40",50,0.8,{"$f":"IF((IF(D121<=Q120,D121*R120,IF(D121<=W120,Q120*R120+(D121-Q120)*Y120,IF(D121<=AE120,Q120*R120+(W120-Q120)*Y120+(D121-W120)*AG120))))<M120,(IF(D121<=Q120,D121*R120,IF(D121<=W120,Q120*R120+(D121-Q120)*Y120,IF(D121<=AE120,Q120*R120+(W120-Q120)*Y120+(D121-W120)*AG120)))),M120)","v":256.58725988457229},{"$f":"IF((IF(D121<=Q120,D121*S120,IF(D121<=W120,Q120*S120+(D121-Q120)*Z120,IF(D121<=AE120,Q120*S120+(W120-Q120)*Z120+(D121-W120)*AH120))))<N120,(IF(D121<=Q120,D121*S120,IF(D121<=W120,Q120*S120+(D121-Q120)*Z120,IF(D121<=AE120,Q120*S120+(W120-Q120)*Z120+(D121-W120)*AH120)))),N120)","v":102.5486975622362},{"$f":"IF((D121-Q120)*AN120<O120,(D121-Q120)*AN120,O120)","v":7.8324324324324071},15.738424166666663,7.8692120833333314]
[null,"Tropical Rainforest","North America",100,"Tropical Rainforest:North America:100",50,1,{"$f":"IF((IF(D122<=Q120,D122*R120,IF(D122<=W120,Q120*R120+(D122-Q120)*Y120,IF(D122<=AE120,Q120*R120+(W120-Q120)*Y120+(D122-W120)*AG120))))<M120,(IF(D122<=Q120,D122*R120,IF(D122<=W120,Q120*R120+(D122-Q120)*Y120,IF(D122<=AE120,Q120*R120+(W120-Q120)*Y120+(D122-W120)*AG120)))),M120)","v":300},{"$f":"IF((IF(D122<=Q120,D122*S120,IF(D122<=W120,Q120*S120+(D122-Q120)*Z120,IF(D122<=AE120,Q120*S120+(W120-Q120)*Z120+(D122-W120)*AH120))))<N120,(IF(D122<=Q120,D122*S120,IF(D122<=W120,Q120*S120+(D122-Q120)*Z120,IF(D122<=AE120,Q120*S120+(W120-Q120)*Z120+(D122-W120)*AH120)))),N120)","v":111},{"$f":"IF((D122-Q120)*AN120<O120,(D122-Q120)*AN120,O120)","v":13.054054054054012},7.2599999999999989,3.6299999999999994]
[null,"Tropical Rainforest","South America",20,"Tropical Rainforest:South America:20",50,0.4,{"$f":"IF((IF(D123<=Q123,D123*R123,IF(D123<=W123,Q123*R123+(D123-Q123)*Y123,IF(D123<=AE123,Q123*R123+(W123-Q123)*Y123+(D123-W123)*AG123))))<M123,(IF(D123<=Q123,D123*R123,IF(D123<=W123,Q123*R123+(D123-Q123)*Y123,IF(D123<=AE123,Q123*R123+(W123-Q123)*Y123+(D123-W123)*AG123)))),M123)","v":115.58725988457232},{"$f":"IF((IF(D123<=Q123,D123*S123,IF(D123<=W123,Q123*S123+(D123-Q123)*Z123,IF(D123<=AE123,Q123*S123+(W123-Q123)*Z123+(D123-W123)*AH123))))<N123,(IF(D123<=Q123,D123*S123,IF(D123<=W123,Q123*S123+(D123-Q123)*Z123,IF(D123<=AE123,Q123*S123+(W123-Q123)*Z123+(D123-W123)*AH123)))),N123)","v":50.378697562236198},{"$f":"IF((D123-Q123)*AN123<O123,(D123-Q123)*AN123,O123)","v":2.6108108108108024},14.477833333333335,7.2389166666666673,{"$f":"'Reference Data'!E38","v":300},{"$f":"M123*P123","v":111},{"$f":"'Reference Data'!K38","v":13.054054054054012},0.37,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q123","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q123","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q123*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q123*R123","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q123","v":30},11,{"$f":"X123*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":11},{"$f":"Y123*P123","v":4.07},{"$f":"Y123*(1+P123)*C_biomass*MM_CO2/MM_C","v":25.970633333333328},{"$f":"IF(U123+(W123-Q123)*Y123<M123,U123+(W123-Q123)*Y123,M123)","v":225.58725988457232},{"$f":"(AB123-U123)/Y123+Q123","v":30},"Table 4.9, IPCC 2006, Vol 4",100,3.1,{"$f":"AF123*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":3.1},{"$f":"AG123*P123","v":1.147},{"$f":"AG123*(1+P123)*C_biomass*MM_CO2/MM_C","v":7.318996666666667},{"$f":"IF(AB123+(AE123-W123)*AG123<M123,AB123+(AE123-W123)*AG123,M123)","v":300},{"$f":"(AJ123-AB123)/AG123+AC123","v":54.004109714654092},"IPCC 2006",50,{"$f":"O123/AM123","v":0.26108108108108025}]
[null,"Tropical Rainforest","South America",40,"Tropical Rainforest:South America:40",50,0.8,{"$f":"IF((IF(D124<=Q123,D124*R123,IF(D124<=W123,Q123*R123+(D124-Q123)*Y123,IF(D124<=AE123,Q123*R123+(W123-Q123)*Y123+(D124-W123)*AG123))))<M123,(IF(D124<=Q123,D124*R123,IF(D124<=W123,Q123*R123+(D124-Q123)*Y123,IF(D124<=AE123,Q123*R123+(W123-Q123)*Y123+(D124-W123)*AG123)))),M123)","v":256.58725988457229},{"$f":"IF((IF(D124<=Q123,D124*S123,IF(D124<=W123,Q123*S123+(D124-Q123)*Z123,IF(D124<=AE123,Q123*S123+(W123-Q123)*Z123+(D124-W123)*AH123))))<N123,(IF(D124<=Q123,D124*S123,IF(D124<=W123,Q123*S123+(D124-Q123)*Z123,IF(D124<=AE123,Q123*S123+(W123-Q123)*Z123+(D124-W123)*AH123)))),N123)","v":102.5486975622362},{"$f":"IF((D124-Q123)*AN123<O123,(D124-Q123)*AN123,O123)","v":7.8324324324324071},15.738424166666663,7.8692120833333314]
[null,"Tropical Rainforest","South America",100,"Tropical Rainforest:South America:100",50,1,{"$f":"IF((IF(D125<=Q123,D125*R123,IF(D125<=W123,Q123*R123+(D125-Q123)*Y123,IF(D125<=AE123,Q123*R123+(W123-Q123)*Y123+(D125-W123)*AG123))))<M123,(IF(D125<=Q123,D125*R123,IF(D125<=W123,Q123*R123+(D125-Q123)*Y123,IF(D125<=AE123,Q123*R123+(W123-Q123)*Y123+(D125-W123)*AG123)))),M123)","v":300},{"$f":"IF((IF(D125<=Q123,D125*S123,IF(D125<=W123,Q123*S123+(D125-Q123)*Z123,IF(D125<=AE123,Q123*S123+(W123-Q123)*Z123+(D125-W123)*AH123))))<N123,(IF(D125<=Q123,D125*S123,IF(D125<=W123,Q123*S123+(D125-Q123)*Z123,IF(D125<=AE123,Q123*S123+(W123-Q123)*Z123+(D125-W123)*AH123)))),N123)","v":111},{"$f":"IF((D125-Q123)*AN123<O123,(D125-Q123)*AN123,O123)","v":13.054054054054012},7.2599999999999989,3.6299999999999994]
[null,"Tropical Rainforest","Asia Continental",20,"Tropical Rainforest:Asia Continental:20",50,0.4,{"$f":"IF((IF(D126<=Q126,D126*R126,IF(D126<=W126,Q126*R126+(D126-Q126)*Y126,IF(D126<=AE126,Q126*R126+(W126-Q126)*Y126+(D126-W126)*AG126))))<M126,(IF(D126<=Q126,D126*R126,IF(D126<=W126,Q126*R126+(D126-Q126)*Y126,IF(D126<=AE126,Q126*R126+(W126-Q126)*Y126+(D126-W126)*AG126)))),M126)","v":75.587259884572319},{"$f":"IF((IF(D126<=Q126,D126*S126,IF(D126<=W126,Q126*S126+(D126-Q126)*Z126,IF(D126<=AE126,Q126*S126+(W126-Q126)*Z126+(D126-W126)*AH126))))<N126,(IF(D126<=Q126,D126*S126,IF(D126<=W126,Q126*S126+(D126-Q126)*Z126,IF(D126<=AE126,Q126*S126+(W126-Q126)*Z126+(D126-W126)*AH126)))),N126)","v":35.578697562236194},{"$f":"IF((D126-Q126)*AN126<O126,(D126-Q126)*AN126,O126)","v":2.5448648648648642},9.7514266666666654,4.8757133333333327,{"$f":"'Reference Data'!E39","v":280},{"$f":"M126*P126","v":103.6},{"$f":"'Reference Data'!K39","v":12.72432432432432},0.37,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q126","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q126","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q126*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q126*R126","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q126","v":30},7,{"$f":"X126*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":7},{"$f":"Y126*P126","v":2.59},{"$f":"Y126*(1+P126)*C_biomass*MM_CO2/MM_C","v":16.526766666666667},{"$f":"IF(U126+(W126-Q126)*Y126<M126,U126+(W126-Q126)*Y126,M126)","v":145.58725988457232},{"$f":"(AB126-U126)/Y126+Q126","v":30},"Table 4.9, IPCC 2006, Vol 4",100,2.2000000000000002,{"$f":"AF126*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":2.2000000000000002},{"$f":"AG126*P126","v":0.81400000000000006},{"$f":"AG126*(1+P126)*C_biomass*MM_CO2/MM_C","v":5.1941266666666674},{"$f":"IF(AB126+(AE126-W126)*AG126<M126,AB126+(AE126-W126)*AG126,M126)","v":280},{"$f":"(AJ126-AB126)/AG126+AC126","v":91.096700052467128},"IPCC 2006",50,{"$f":"O126/AM126","v":0.25448648648648642}]
[null,"Tropical Rainforest","Asia Continental",40,"Tropical Rainforest:Asia Continental:40",50,0.8,{"$f":"IF((IF(D127<=Q126,D127*R126,IF(D127<=W126,Q126*R126+(D127-Q126)*Y126,IF(D127<=AE126,Q126*R126+(W126-Q126)*Y126+(D127-W126)*AG126))))<M126,(IF(D127<=Q126,D127*R126,IF(D127<=W126,Q126*R126+(D127-Q126)*Y126,IF(D127<=AE126,Q126*R126+(W126-Q126)*Y126+(D127-W126)*AG126)))),M126)","v":167.58725988457232},{"$f":"IF((IF(D127<=Q126,D127*S126,IF(D127<=W126,Q126*S126+(D127-Q126)*Z126,IF(D127<=AE126,Q126*S126+(W126-Q126)*Z126+(D127-W126)*AH126))))<N126,(IF(D127<=Q126,D127*S126,IF(D127<=W126,Q126*S126+(D127-Q126)*Z126,IF(D127<=AE126,Q126*S126+(W126-Q126)*Z126+(D127-W126)*AH126)))),N126)","v":69.618697562236193},{"$f":"IF((D127-Q126)*AN126<O126,(D127-Q126)*AN126,O126)","v":7.6345945945945921},10.478563333333332,5.2392816666666659]
[null,"Tropical Rainforest","Asia Continental",100,{"$f":"B128&\":\"&C128&\":\"&D128","v":"Tropical Rainforest:Asia Continental:100"},50,1,{"$f":"IF((IF(D128<=Q126,D128*R126,IF(D128<=W126,Q126*R126+(D128-Q126)*Y126,IF(D128<=AE126,Q126*R126+(W126-Q126)*Y126+(D128-W126)*AG126))))<M126,(IF(D128<=Q126,D128*R126,IF(D128<=W126,Q126*R126+(D128-Q126)*Y126,IF(D128<=AE126,Q126*R126+(W126-Q126)*Y126+(D128-W126)*AG126)))),M126)","v":280},{"$f":"IF((IF(D128<=Q126,D128*S126,IF(D128<=W126,Q126*S126+(D128-Q126)*Z126,IF(D128<=AE126,Q126*S126+(W126-Q126)*Z126+(D128-W126)*AH126))))<N126,(IF(D128<=Q126,D128*S126,IF(D128<=W126,Q126*S126+(D128-Q126)*Z126,IF(D128<=AE126,Q126*S126+(W126-Q126)*Z126+(D128-W126)*AH126)))),N126)","v":103.6},{"$f":"IF((D128-Q126)*AN126<O126,(D128-Q126)*AN126,O126)","v":12.72432432432432},6.7833333333333341,3.3916666666666671]
[null,"Tropical Rainforest","Asia Insular",20,"Tropical Rainforest:Asia Insular:20",50,0.4,{"$f":"IF((IF(D129<=Q129,D129*R129,IF(D129<=W129,Q129*R129+(D129-Q129)*Y129,IF(D129<=AE129,Q129*R129+(W129-Q129)*Y129+(D129-W129)*AG129))))<M129,(IF(D129<=Q129,D129*R129,IF(D129<=W129,Q129*R129+(D129-Q129)*Y129,IF(D129<=AE129,Q129*R129+(W129-Q129)*Y129+(D129-W129)*AG129)))),M129)","v":135.58725988457232},{"$f":"IF((IF(D129<=Q129,D129*S129,IF(D129<=W129,Q129*S129+(D129-Q129)*Z129,IF(D129<=AE129,Q129*S129+(W129-Q129)*Z129+(D129-W129)*AH129))))<N129,(IF(D129<=Q129,D129*S129,IF(D129<=W129,Q129*S129+(D129-Q129)*Z129,IF(D129<=AE129,Q129*S129+(W129-Q129)*Z129+(D129-W129)*AH129)))),N129)","v":57.778697562236189},{"$f":"IF((D129-Q129)*AN129<O129,(D129-Q129)*AN129,O129)","v":2.5054054054054009},{"$f":"((H129+I129)*C_biomass+J129*C_litter)/D129*MM_CO2/MM_C","v":16.83165},8.4158249999999999,{"$f":"'Reference Data'!E40","v":350},{"$f":"M129*P129","v":129.5},{"$f":"'Reference Data'!K40","v":12.527027027027003},0.37,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q129","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q129","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q129*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q129*R129","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q129","v":30},13,{"$f":"X129*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":13},{"$f":"Y129*P129","v":4.8099999999999996},{"$f":"Y129*(1+P129)*C_biomass*MM_CO2/MM_C","v":30.692566666666668},{"$f":"IF(U129+(W129-Q129)*Y129<M129,U129+(W129-Q129)*Y129,M129)","v":265.58725988457229},{"$f":"(AB129-U129)/Y129+Q129","v":30},"Table 4.9, IPCC 2006, Vol 4",100,3.4,{"$f":"AF129*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":3.4},{"$f":"AG129*P129","v":1.258},{"$f":"AG129*(1+P129)*C_biomass*MM_CO2/MM_C","v":8.0272866666666669},{"$f":"IF(AB129+(AE129-W129)*AG129<M129,AB129+(AE129-W129)*AG129,M129)","v":350},{"$f":"(AJ129-AB129)/AG129+AC129","v":54.827276504537565},"IPCC 2006",50,{"$f":"O129/AM129","v":0.25054054054054009}]
[null,"Tropical Rainforest","Asia Insular",40,"Tropical Rainforest:Asia Insular:40",50,0.8,{"$f":"IF((IF(D130<=Q129,D130*R129,IF(D130<=W129,Q129*R129+(D130-Q129)*Y129,IF(D130<=AE129,Q129*R129+(W129-Q129)*Y129+(D130-W129)*AG129))))<M129,(IF(D130<=Q129,D130*R129,IF(D130<=W129,Q129*R129+(D130-Q129)*Y129,IF(D130<=AE129,Q129*R129+(W129-Q129)*Y129+(D130-W129)*AG129)))),M129)","v":299.58725988457229},{"$f":"IF((IF(D130<=Q129,D130*S129,IF(D130<=W129,Q129*S129+(D130-Q129)*Z129,IF(D130<=AE129,Q129*S129+(W129-Q129)*Z129+(D130-W129)*AH129))))<N129,(IF(D130<=Q129,D130*S129,IF(D130<=W129,Q129*S129+(D130-Q129)*Z129,IF(D130<=AE129,Q129*S129+(W129-Q129)*Z129+(D130-W129)*AH129)))),N129)","v":118.45869756223618},{"$f":"IF((D130-Q129)*AN129<O129,(D130-Q129)*AN129,O129)","v":7.5162162162162023},18.265738333333328,9.1328691666666639]
[null,"Tropical Rainforest","Asia Insular",100,"Tropical Rainforest:Asia Insular:100",50,1,{"$f":"IF((IF(D131<=Q129,D131*R129,IF(D131<=W129,Q129*R129+(D131-Q129)*Y129,IF(D131<=AE129,Q129*R129+(W129-Q129)*Y129+(D131-W129)*AG129))))<M129,(IF(D131<=Q129,D131*R129,IF(D131<=W129,Q129*R129+(D131-Q129)*Y129,IF(D131<=AE129,Q129*R129+(W129-Q129)*Y129+(D131-W129)*AG129)))),M129)","v":350},{"$f":"IF((IF(D131<=Q129,D131*S129,IF(D131<=W129,Q129*S129+(D131-Q129)*Z129,IF(D131<=AE129,Q129*S129+(W129-Q129)*Z129+(D131-W129)*AH129))))<N129,(IF(D131<=Q129,D131*S129,IF(D131<=W129,Q129*S129+(D131-Q129)*Z129,IF(D131<=AE129,Q129*S129+(W129-Q129)*Z129+(D131-W129)*AH129)))),N129)","v":129.5},{"$f":"IF((D131-Q129)*AN129<O129,(D131-Q129)*AN129,O129)","v":12.527027027027003},8.4333333333333318,4.2166666666666659]
[null,"Tropical Moist Deciduous Forest","Africa",20,{"$f":"B132&\":\"&C132&\":\"&D132","v":"Tropical Moist Deciduous Forest:Africa:20"},{"$f":"$B$95","v":50},0.4,{"$f":"IF((IF(D132<=Q132,D132*R132,IF(D132<=W132,Q132*R132+(D132-Q132)*Y132,IF(D132<=AE132,Q132*R132+(W132-Q132)*Y132+(D132-W132)*AG132))))<M132,(IF(D132<=Q132,D132*R132,IF(D132<=W132,Q132*R132+(D132-Q132)*Y132,IF(D132<=AE132,Q132*R132+(W132-Q132)*Y132+(D132-W132)*AG132)))),M132)","v":55.587259884572312},{"$f":"IF((IF(D132<=Q132,D132*S132,IF(D132<=W132,Q132*S132+(D132-Q132)*Z132,IF(D132<=AE132,Q132*S132+(W132-Q132)*Z132+(D132-W132)*AH132))))<N132,(IF(D132<=Q132,D132*S132,IF(D132<=W132,Q132*S132+(D132-Q132)*Z132,IF(D132<=AE132,Q132*S132+(W132-Q132)*Z132+(D132-W132)*AH132)))),N132)","v":21.678697562236195},{"$f":"IF((D132-Q132)*AN132<O132,(D132-Q132)*AN132,O132)","v":2.4172972972973019},6.821723333333332,3.410861666666666,{"$f":"'Reference Data'!E41","v":260},{"$f":"M132*P132","v":62.4},{"$f":"'Reference Data'!K41","v":12.086486486486509},0.24,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q132","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q132","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q132*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q132*R132","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q132","v":30},5,{"$f":"X132*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":5},{"$f":"Y132*P132","v":1.2},{"$f":"Y132*(1+P132)*C_biomass*MM_CO2/MM_C","v":10.684666666666665},{"$f":"IF(U132+(W132-Q132)*Y132<M132,U132+(W132-Q132)*Y132,M132)","v":105.58725988457232},{"$f":"(AB132-U132)/Y132+Q132","v":30},"Table 4.9, IPCC 2006, Vol 4",100,1.3,{"$f":"AF132*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.3},{"$f":"AG132*P132","v":0.312},{"$f":"AG132*(1+P132)*C_biomass*MM_CO2/MM_C","v":2.7780133333333334},{"$f":"IF(AB132+(AE132-W132)*AG132<M132,AB132+(AE132-W132)*AG132,M132)","v":196.58725988457232},{"$f":"(AJ132-AB132)/AG132+AC132","v":100},"IPCC 2006",50,{"$f":"O132/AM132","v":0.24172972972973017}]
[null,"Tropical Moist Deciduous Forest","Africa",40,"Tropical Moist Deciduous Forest:Africa:40",{"$f":"$B$95","v":50},{"$f":"IF(D133>F133,1,D133/F133)","v":0.8},{"$f":"IF((IF(D133<=Q132,D133*R132,IF(D133<=W132,Q132*R132+(D133-Q132)*Y132,IF(D133<=AE132,Q132*R132+(W132-Q132)*Y132+(D133-W132)*AG132))))<M132,(IF(D133<=Q132,D133*R132,IF(D133<=W132,Q132*R132+(D133-Q132)*Y132,IF(D133<=AE132,Q132*R132+(W132-Q132)*Y132+(D133-W132)*AG132)))),M132)","v":118.58725988457232},{"$f":"IF((IF(D133<=Q132,D133*S132,IF(D133<=W132,Q132*S132+(D133-Q132)*Z132,IF(D133<=AE132,Q132*S132+(W132-Q132)*Z132+(D133-W132)*AH132))))<N132,(IF(D133<=Q132,D133*S132,IF(D133<=W132,Q132*S132+(D133-Q132)*Z132,IF(D133<=AE132,Q132*S132+(W132-Q132)*Z132+(D133-W132)*AH132)))),N132)","v":36.798697562236192},{"$f":"IF((D133-Q132)*AN132<O132,(D133-Q132)*AN132,O132)","v":7.2518918918919049},6.940504999999999,3.4702524999999995]
[null,"Tropical Moist Deciduous Forest","Africa",100,"Tropical Moist Deciduous Forest:Africa:100",50,1,{"$f":"IF((IF(D134<=Q132,D134*R132,IF(D134<=W132,Q132*R132+(D134-Q132)*Y132,IF(D134<=AE132,Q132*R132+(W132-Q132)*Y132+(D134-W132)*AG132))))<M132,(IF(D134<=Q132,D134*R132,IF(D134<=W132,Q132*R132+(D134-Q132)*Y132,IF(D134<=AE132,Q132*R132+(W132-Q132)*Y132+(D134-W132)*AG132)))),M132)","v":196.58725988457232},{"$f":"IF((IF(D134<=Q132,D134*S132,IF(D134<=W132,Q132*S132+(D134-Q132)*Z132,IF(D134<=AE132,Q132*S132+(W132-Q132)*Z132+(D134-W132)*AH132))))<N132,(IF(D134<=Q132,D134*S132,IF(D134<=W132,Q132*S132+(D134-Q132)*Z132,IF(D134<=AE132,Q132*S132+(W132-Q132)*Z132+(D134-W132)*AH132)))),N132)","v":55.518697562236198},{"$f":"IF((D134-Q132)*AN132<O132,(D134-Q132)*AN132,O132)","v":12.086486486486509},4.5085993333333336,2.2542996666666668]
[" ","Tropical Moist Deciduous Forest","North America",20,"Tropical Moist Deciduous Forest:North America:20",50,0.4,{"$f":"IF((IF(D135<=Q135,D135*R135,IF(D135<=W135,Q135*R135+(D135-Q135)*Y135,IF(D135<=AE135,Q135*R135+(W135-Q135)*Y135+(D135-W135)*AG135))))<M135,(IF(D135<=Q135,D135*R135,IF(D135<=W135,Q135*R135+(D135-Q135)*Y135,IF(D135<=AE135,Q135*R135+(W135-Q135)*Y135+(D135-W135)*AG135)))),M135)","v":75.587259884572319},{"$f":"IF((IF(D135<=Q135,D135*S135,IF(D135<=W135,Q135*S135+(D135-Q135)*Z135,IF(D135<=AE135,Q135*S135+(W135-Q135)*Z135+(D135-W135)*AH135))))<N135,(IF(D135<=Q135,D135*S135,IF(D135<=W135,Q135*S135+(D135-Q135)*Z135,IF(D135<=AE135,Q135*S135+(W135-Q135)*Z135+(D135-W135)*AH135)))),N135)","v":26.478697562236199},{"$f":"IF((D135-Q135)*AN135<O135,(D135-Q135)*AN135,O135)","v":2.5859459459459417},{"$f":"((H135+I135)*C_biomass+J135*C_litter)/D135*MM_CO2/MM_C","v":8.9700966666666666},4.4850483333333333,{"$f":"'Reference Data'!E42","v":220},{"$f":"M135*P135","v":52.8},{"$f":"'Reference Data'!K42","v":12.929729729729708},0.24,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q135","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q135","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q135*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q135*R135","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q135","v":30},7,{"$f":"X135*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":7},{"$f":"Y135*P135","v":1.68},{"$f":"Y135*(1+P135)*C_biomass*MM_CO2/MM_C","v":14.95853333333333},{"$f":"IF(U135+(W135-Q135)*Y135<M135,U135+(W135-Q135)*Y135,M135)","v":145.58725988457232},{"$f":"(AB135-U135)/Y135+Q135","v":30},"Table 4.9, IPCC 2006, Vol 4",100,2,{"$f":"AF135*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":2},{"$f":"AG135*P135","v":0.48},{"$f":"AG135*(1+P135)*C_biomass*MM_CO2/MM_C","v":4.2738666666666667},{"$f":"IF(AB135+(AE135-W135)*AG135<M135,AB135+(AE135-W135)*AG135,M135)","v":220},{"$f":"(AJ135-AB135)/AG135+AC135","v":67.206370057713841},"IPCC 2006",50,{"$f":"O135/AM135","v":0.25859459459459416}]
[null,"Tropical Moist Deciduous Forest","North America",40,"Tropical Moist Deciduous Forest:North America:40",50,0.8,{"$f":"IF((IF(D136<=Q135,D136*R135,IF(D136<=W135,Q135*R135+(D136-Q135)*Y135,IF(D136<=AE135,Q135*R135+(W135-Q135)*Y135+(D136-W135)*AG135))))<M135,(IF(D136<=Q135,D136*R135,IF(D136<=W135,Q135*R135+(D136-Q135)*Y135,IF(D136<=AE135,Q135*R135+(W135-Q135)*Y135+(D136-W135)*AG135)))),M135)","v":165.58725988457232},{"$f":"IF((IF(D136<=Q135,D136*S135,IF(D136<=W135,Q135*S135+(D136-Q135)*Z135,IF(D136<=AE135,Q135*S135+(W135-Q135)*Z135+(D136-W135)*AH135))))<N135,(IF(D136<=Q135,D136*S135,IF(D136<=W135,Q135*S135+(D136-Q135)*Z135,IF(D136<=AE135,Q135*S135+(W135-Q135)*Z135+(D136-W135)*AH135)))),N135)","v":48.078697562236194},{"$f":"IF((D136-Q135)*AN135<O135,(D136-Q135)*AN135,O135)","v":7.7578378378378252},{"$f":"((H136+I136)*C_biomass+J136*C_litter)/D136*MM_CO2/MM_C","v":9.4685616666666643},4.7342808333333322,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,{"$f":"AJ135*(1+P135)*C_biomass+O135*C_litter","v":133}]
[null,"Tropical Moist Deciduous Forest","North America",100,"Tropical Moist Deciduous Forest:North America:100",50,1,{"$f":"IF((IF(D137<=Q135,D137*R135,IF(D137<=W135,Q135*R135+(D137-Q135)*Y135,IF(D137<=AE135,Q135*R135+(W135-Q135)*Y135+(D137-W135)*AG135))))<M135,(IF(D137<=Q135,D137*R135,IF(D137<=W135,Q135*R135+(D137-Q135)*Y135,IF(D137<=AE135,Q135*R135+(W135-Q135)*Y135+(D137-W135)*AG135)))),M135)","v":220},{"$f":"IF((IF(D137<=Q135,D137*S135,IF(D137<=W135,Q135*S135+(D137-Q135)*Z135,IF(D137<=AE135,Q135*S135+(W135-Q135)*Z135+(D137-W135)*AH135))))<N135,(IF(D137<=Q135,D137*S135,IF(D137<=W135,Q135*S135+(D137-Q135)*Z135,IF(D137<=AE135,Q135*S135+(W135-Q135)*Z135+(D137-W135)*AH135)))),N135)","v":52.8},{"$f":"IF((D137-Q135)*AN135<O135,(D137-Q135)*AN135,O135)","v":12.929729729729708},4.8766666666666669,2.4383333333333335]
[null,"Tropical Moist Deciduous Forest","South America",20,"Tropical Moist Deciduous Forest:South America:20",50,0.4,{"$f":"IF((IF(D138<=Q138,D138*R138,IF(D138<=W138,Q138*R138+(D138-Q138)*Y138,IF(D138<=AE138,Q138*R138+(W138-Q138)*Y138+(D138-W138)*AG138))))<M138,(IF(D138<=Q138,D138*R138,IF(D138<=W138,Q138*R138+(D138-Q138)*Y138,IF(D138<=AE138,Q138*R138+(W138-Q138)*Y138+(D138-W138)*AG138)))),M138)","v":75.587259884572319},{"$f":"IF((IF(D138<=Q138,D138*S138,IF(D138<=W138,Q138*S138+(D138-Q138)*Z138,IF(D138<=AE138,Q138*S138+(W138-Q138)*Z138+(D138-W138)*AH138))))<N138,(IF(D138<=Q138,D138*S138,IF(D138<=W138,Q138*S138+(D138-Q138)*Z138,IF(D138<=AE138,Q138*S138+(W138-Q138)*Z138+(D138-W138)*AH138)))),N138)","v":26.478697562236199},{"$f":"IF((D138-Q138)*AN138<O138,(D138-Q138)*AN138,O138)","v":2.5859459459459417},8.9700966666666666,4.4850483333333333,{"$f":"'Reference Data'!E42","v":220},{"$f":"M138*P138","v":52.8},{"$f":"'Reference Data'!K42","v":12.929729729729708},0.24,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q138","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q138","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q138*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q138*R138","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q138","v":30},7,{"$f":"X138*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":7},{"$f":"Y138*P138","v":1.68},{"$f":"Y138*(1+P138)*C_biomass*MM_CO2/MM_C","v":14.95853333333333},{"$f":"IF(U138+(W138-Q138)*Y138<M138,U138+(W138-Q138)*Y138,M138)","v":145.58725988457232},{"$f":"(AB138-U138)/Y138+Q138","v":30},"Table 4.9, IPCC 2006, Vol 4",100,2,{"$f":"AF138*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":2},{"$f":"AG138*P138","v":0.48},{"$f":"AG138*(1+P138)*C_biomass*MM_CO2/MM_C","v":4.2738666666666667},{"$f":"IF(AB138+(AE138-W138)*AG138<M138,AB138+(AE138-W138)*AG138,M138)","v":220},{"$f":"(AJ138-AB138)/AG138+AC138","v":67.206370057713841},"IPCC 2006",50,{"$f":"O138/AM138","v":0.25859459459459416}]
[null,"Tropical Moist Deciduous Forest","South America",40,"Tropical Moist Deciduous Forest:South America:40",50,0.8,{"$f":"IF((IF(D139<=Q138,D139*R138,IF(D139<=W138,Q138*R138+(D139-Q138)*Y138,IF(D139<=AE138,Q138*R138+(W138-Q138)*Y138+(D139-W138)*AG138))))<M138,(IF(D139<=Q138,D139*R138,IF(D139<=W138,Q138*R138+(D139-Q138)*Y138,IF(D139<=AE138,Q138*R138+(W138-Q138)*Y138+(D139-W138)*AG138)))),M138)","v":165.58725988457232},{"$f":"IF((IF(D139<=Q138,D139*S138,IF(D139<=W138,Q138*S138+(D139-Q138)*Z138,IF(D139<=AE138,Q138*S138+(W138-Q138)*Z138+(D139-W138)*AH138))))<N138,(IF(D139<=Q138,D139*S138,IF(D139<=W138,Q138*S138+(D139-Q138)*Z138,IF(D139<=AE138,Q138*S138+(W138-Q138)*Z138+(D139-W138)*AH138)))),N138)","v":48.078697562236194},{"$f":"IF((D139-Q138)*AN138<O138,(D139-Q138)*AN138,O138)","v":7.7578378378378252},9.4685616666666643,4.7342808333333322]
[null,"Tropical Moist Deciduous Forest","South America",100,"Tropical Moist Deciduous Forest:South America:100",50,1,{"$f":"IF((IF(D140<=Q138,D140*R138,IF(D140<=W138,Q138*R138+(D140-Q138)*Y138,IF(D140<=AE138,Q138*R138+(W138-Q138)*Y138+(D140-W138)*AG138))))<M138,(IF(D140<=Q138,D140*R138,IF(D140<=W138,Q138*R138+(D140-Q138)*Y138,IF(D140<=AE138,Q138*R138+(W138-Q138)*Y138+(D140-W138)*AG138)))),M138)","v":220},{"$f":"IF((IF(D140<=Q138,D140*S138,IF(D140<=W138,Q138*S138+(D140-Q138)*Z138,IF(D140<=AE138,Q138*S138+(W138-Q138)*Z138+(D140-W138)*AH138))))<N138,(IF(D140<=Q138,D140*S138,IF(D140<=W138,Q138*S138+(D140-Q138)*Z138,IF(D140<=AE138,Q138*S138+(W138-Q138)*Z138+(D140-W138)*AH138)))),N138)","v":52.8},{"$f":"IF((D140-Q138)*AN138<O138,(D140-Q138)*AN138,O138)","v":12.929729729729708},4.8766666666666669,2.4383333333333335]
[null,"Tropical Moist Deciduous Forest","Asia Continental",20,"Tropical Moist Deciduous Forest:Asia Continental:20",50,0.4,{"$f":"IF((IF(D141<=Q141,D141*R141,IF(D141<=W141,Q141*R141+(D141-Q141)*Y141,IF(D141<=AE141,Q141*R141+(W141-Q141)*Y141+(D141-W141)*AG141))))<M141,(IF(D141<=Q141,D141*R141,IF(D141<=W141,Q141*R141+(D141-Q141)*Y141,IF(D141<=AE141,Q141*R141+(W141-Q141)*Y141+(D141-W141)*AG141)))),M141)","v":95.587259884572319},{"$f":"IF((IF(D141<=Q141,D141*S141,IF(D141<=W141,Q141*S141+(D141-Q141)*Z141,IF(D141<=AE141,Q141*S141+(W141-Q141)*Z141+(D141-W141)*AH141))))<N141,(IF(D141<=Q141,D141*S141,IF(D141<=W141,Q141*S141+(D141-Q141)*Z141,IF(D141<=AE141,Q141*S141+(W141-Q141)*Z141+(D141-W141)*AH141)))),N141)","v":31.278697562236196},{"$f":"IF((D141-Q141)*AN141<O141,(D141-Q141)*AN141,O141)","v":2.7545945945946042},11.118470000000002,5.559235000000001,{"$f":"'Reference Data'!E43","v":180},{"$f":"M141*P141","v":43.199999999999996},{"$f":"'Reference Data'!K43","v":13.772972972973021},0.24,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q141","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q141","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q141*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q141*R141","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q141","v":30},9,{"$f":"X141*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":9},{"$f":"Y141*P141","v":2.16},{"$f":"Y141*(1+P141)*C_biomass*MM_CO2/MM_C","v":19.232399999999998},{"$f":"IF(U141+(W141-Q141)*Y141<M141,U141+(W141-Q141)*Y141,M141)","v":180},{"$f":"(AB141-U141)/Y141+Q141","v":29.37919334615863},"Table 4.9, IPCC 2006, Vol 4",100,2,{"$f":"AF141*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":2},{"$f":"AG141*P141","v":0.48},{"$f":"AG141*(1+P141)*C_biomass*MM_CO2/MM_C","v":4.2738666666666667},{"$f":"IF(AB141+(AE141-W141)*AG141<M141,AB141+(AE141-W141)*AG141,M141)","v":180},{"$f":"(AJ141-AB141)/AG141+AC141","v":29.37919334615863},"IPCC 2006",50,{"$f":"O141/AM141","v":0.27545945945946043}]
[null,"Tropical Moist Deciduous Forest","Asia Continental",40,"Tropical Moist Deciduous Forest:Asia Continental:40",50,0.8,{"$f":"IF((IF(D142<=Q141,D142*R141,IF(D142<=W141,Q141*R141+(D142-Q141)*Y141,IF(D142<=AE141,Q141*R141+(W141-Q141)*Y141+(D142-W141)*AG141))))<M141,(IF(D142<=Q141,D142*R141,IF(D142<=W141,Q141*R141+(D142-Q141)*Y141,IF(D142<=AE141,Q141*R141+(W141-Q141)*Y141+(D142-W141)*AG141)))),M141)","v":180},{"$f":"IF((IF(D142<=Q141,D142*S141,IF(D142<=W141,Q141*S141+(D142-Q141)*Z141,IF(D142<=AE141,Q141*S141+(W141-Q141)*Z141+(D142-W141)*AH141))))<N141,(IF(D142<=Q141,D142*S141,IF(D142<=W141,Q141*S141+(D142-Q141)*Z141,IF(D142<=AE141,Q141*S141+(W141-Q141)*Z141+(D142-W141)*AH141)))),N141)","v":43.199999999999996},{"$f":"IF((D142-Q141)*AN141<O141,(D142-Q141)*AN141,O141)","v":8.2637837837838131},9.8964799999999986,4.9482399999999993]
[null,"Tropical Moist Deciduous Forest","Asia Continental",100,"Tropical Moist Deciduous Forest:Asia Continental:100",50,1,{"$f":"IF((IF(D143<=Q141,D143*R141,IF(D143<=W141,Q141*R141+(D143-Q141)*Y141,IF(D143<=AE141,Q141*R141+(W141-Q141)*Y141+(D143-W141)*AG141))))<M141,(IF(D143<=Q141,D143*R141,IF(D143<=W141,Q141*R141+(D143-Q141)*Y141,IF(D143<=AE141,Q141*R141+(W141-Q141)*Y141+(D143-W141)*AG141)))),M141)","v":180},{"$f":"IF((IF(D143<=Q141,D143*S141,IF(D143<=W141,Q141*S141+(D143-Q141)*Z141,IF(D143<=AE141,Q141*S141+(W141-Q141)*Z141+(D143-W141)*AH141))))<N141,(IF(D143<=Q141,D143*S141,IF(D143<=W141,Q141*S141+(D143-Q141)*Z141,IF(D143<=AE141,Q141*S141+(W141-Q141)*Z141+(D143-W141)*AH141)))),N141)","v":43.199999999999996},{"$f":"IF((D143-Q141)*AN141<O141,(D143-Q141)*AN141,O141)","v":13.772972972973021},4.0333333333333341,2.0166666666666671]
[null,"Tropical Moist Deciduous Forest","Asia Insular",20,"Tropical Moist Deciduous Forest:Asia Insular:20",50,0.4,{"$f":"IF((IF(D144<=Q144,D144*R144,IF(D144<=W144,Q144*R144+(D144-Q144)*Y144,IF(D144<=AE144,Q144*R144+(W144-Q144)*Y144+(D144-W144)*AG144))))<M144,(IF(D144<=Q144,D144*R144,IF(D144<=W144,Q144*R144+(D144-Q144)*Y144,IF(D144<=AE144,Q144*R144+(W144-Q144)*Y144+(D144-W144)*AG144)))),M144)","v":115.58725988457232},{"$f":"IF((IF(D144<=Q144,D144*S144,IF(D144<=W144,Q144*S144+(D144-Q144)*Z144,IF(D144<=AE144,Q144*S144+(W144-Q144)*Z144+(D144-W144)*AH144))))<N144,(IF(D144<=Q144,D144*S144,IF(D144<=W144,Q144*S144+(D144-Q144)*Z144,IF(D144<=AE144,Q144*S144+(W144-Q144)*Z144+(D144-W144)*AH144)))),N144)","v":36.078697562236194},{"$f":"IF((D144-Q144)*AN144<O144,(D144-Q144)*AN144,O144)","v":2.6962162162162158},13.251443333333333,6.6257216666666663,{"$f":"'Reference Data'!E44","v":290},{"$f":"M144*P144","v":69.599999999999994},{"$f":"'Reference Data'!K44","v":13.481081081081079},0.24,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q144","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q144","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q144*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q144*R144","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q144","v":30},11,{"$f":"X144*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":11},{"$f":"Y144*P144","v":2.6399999999999997},{"$f":"Y144*(1+P144)*C_biomass*MM_CO2/MM_C","v":23.506266666666665},{"$f":"IF(U144+(W144-Q144)*Y144<M144,U144+(W144-Q144)*Y144,M144)","v":225.58725988457232},{"$f":"(AB144-U144)/Y144+Q144","v":30},"Table 4.9, IPCC 2006, Vol 4",100,3,{"$f":"AF144*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":3},{"$f":"AG144*P144","v":0.72},{"$f":"AG144*(1+P144)*C_biomass*MM_CO2/MM_C","v":6.4107999999999992},{"$f":"IF(AB144+(AE144-W144)*AG144<M144,AB144+(AE144-W144)*AG144,M144)","v":290},{"$f":"(AJ144-AB144)/AG144+AC144","v":51.470913371809232},"IPCC 2006",50,{"$f":"O144/AM144","v":0.26962162162162157}]
[null,"Tropical Moist Deciduous Forest","Asia Insular",40,"Tropical Moist Deciduous Forest:Asia Insular:40",50,0.8,{"$f":"IF((IF(D145<=Q144,D145*R144,IF(D145<=W144,Q144*R144+(D145-Q144)*Y144,IF(D145<=AE144,Q144*R144+(W144-Q144)*Y144+(D145-W144)*AG144))))<M144,(IF(D145<=Q144,D145*R144,IF(D145<=W144,Q144*R144+(D145-Q144)*Y144,IF(D145<=AE144,Q144*R144+(W144-Q144)*Y144+(D145-W144)*AG144)))),M144)","v":255.58725988457232},{"$f":"IF((IF(D145<=Q144,D145*S144,IF(D145<=W144,Q144*S144+(D145-Q144)*Z144,IF(D145<=AE144,Q144*S144+(W144-Q144)*Z144+(D145-W144)*AH144))))<N144,(IF(D145<=Q144,D145*S144,IF(D145<=W144,Q144*S144+(D145-Q144)*Z144,IF(D145<=AE144,Q144*S144+(W144-Q144)*Z144+(D145-W144)*AH144)))),N144)","v":69.599999999999994},{"$f":"IF((D145-Q144)*AN144<O144,(D145-Q144)*AN144,O144)","v":8.0886486486486469},14.284491113360323,7.1422455566801615]
[null,"Tropical Moist Deciduous Forest","Asia Insular",100,"Tropical Moist Deciduous Forest:Asia Insular:100",50,1,{"$f":"IF((IF(D146<=Q144,D146*R144,IF(D146<=W144,Q144*R144+(D146-Q144)*Y144,IF(D146<=AE144,Q144*R144+(W144-Q144)*Y144+(D146-W144)*AG144))))<M144,(IF(D146<=Q144,D146*R144,IF(D146<=W144,Q144*R144+(D146-Q144)*Y144,IF(D146<=AE144,Q144*R144+(W144-Q144)*Y144+(D146-W144)*AG144)))),M144)","v":290},{"$f":"IF((IF(D146<=Q144,D146*S144,IF(D146<=W144,Q144*S144+(D146-Q144)*Z144,IF(D146<=AE144,Q144*S144+(W144-Q144)*Z144+(D146-W144)*AH144))))<N144,(IF(D146<=Q144,D146*S144,IF(D146<=W144,Q144*S144+(D146-Q144)*Z144,IF(D146<=AE144,Q144*S144+(W144-Q144)*Z144+(D146-W144)*AH144)))),N144)","v":69.599999999999994},{"$f":"IF((D146-Q144)*AN144<O144,(D146-Q144)*AN144,O144)","v":13.481081081081079},6.38,3.19]
[null,"Tropical Dry Forest","Africa",20,{"$f":"B147&\":\"&C147&\":\"&D147","v":"Tropical Dry Forest:Africa:20"},{"$f":"$B$94","v":50},0.4,{"$f":"IF((IF(D147<=Q147,D147*R147,IF(D147<=W147,Q147*R147+(D147-Q147)*Y147,IF(D147<=AE147,Q147*R147+(W147-Q147)*Y147+(D147-W147)*AG147))))<M147,(IF(D147<=Q147,D147*R147,IF(D147<=W147,Q147*R147+(D147-Q147)*Y147,IF(D147<=AE147,Q147*R147+(W147-Q147)*Y147+(D147-W147)*AG147)))),M147)","v":29.587259884572312},{"$f":"IF((IF(D147<=Q147,D147*S147,IF(D147<=W147,Q147*S147+(D147-Q147)*Z147,IF(D147<=AE147,Q147*S147+(W147-Q147)*Z147+(D147-W147)*AH147))))<N147,(IF(D147<=Q147,D147*S147,IF(D147<=W147,Q147*S147+(D147-Q147)*Z147,IF(D147<=AE147,Q147*S147+(W147-Q147)*Z147+(D147-W147)*AH147)))),N147)","v":16.398697562236197},{"$f":"IF((D147-Q147)*AN147<O147,(D147-Q147)*AN147,O147)","v":2.5989189189189226},4.1387499999999999,2.069375,{"$f":"'Reference Data'!E45","v":120},{"$f":"M147*P147","v":33.6},{"$f":"'Reference Data'!K45","v":12.994594594594613},0.28000000000000003,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q147","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q147","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q147*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q147*R147","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q147","v":30},2.4,{"$f":"X147*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":2.4},{"$f":"Y147*P147","v":0.67200000000000004},{"$f":"Y147*(1+P147)*C_biomass*MM_CO2/MM_C","v":5.2940800000000001},{"$f":"IF(U147+(W147-Q147)*Y147<M147,U147+(W147-Q147)*Y147,M147)","v":53.587259884572312},{"$f":"(AB147-U147)/Y147+Q147","v":30},"Table 4.9, IPCC 2006, Vol 4",100,1.8,{"$f":"AF147*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.8},{"$f":"AG147*P147","v":0.50400000000000011},{"$f":"AG147*(1+P147)*C_biomass*MM_CO2/MM_C","v":3.9705600000000003},{"$f":"IF(AB147+(AE147-W147)*AG147<M147,AB147+(AE147-W147)*AG147,M147)","v":120},{"$f":"(AJ147-AB147)/AG147+AC147","v":66.895966730793162},"IPCC 2006",50,{"$f":"O147/AM147","v":0.25989189189189227}]
[null,"Tropical Dry Forest","Africa",40,"Tropical Dry Forest:Africa:40",{"$f":"$B$94","v":50},{"$f":"IF(D148>F148,1,D148/F148)","v":0.8},{"$f":"IF((IF(D148<=Q147,D148*R147,IF(D148<=W147,Q147*R147+(D148-Q147)*Y147,IF(D148<=AE147,Q147*R147+(W147-Q147)*Y147+(D148-W147)*AG147))))<M147,(IF(D148<=Q147,D148*R147,IF(D148<=W147,Q147*R147+(D148-Q147)*Y147,IF(D148<=AE147,Q147*R147+(W147-Q147)*Y147+(D148-W147)*AG147)))),M147)","v":71.587259884572319},{"$f":"IF((IF(D148<=Q147,D148*S147,IF(D148<=W147,Q147*S147+(D148-Q147)*Z147,IF(D148<=AE147,Q147*S147+(W147-Q147)*Z147+(D148-W147)*AH147))))<N147,(IF(D148<=Q147,D148*S147,IF(D148<=W147,Q147*S147+(D148-Q147)*Z147,IF(D148<=AE147,Q147*S147+(W147-Q147)*Z147+(D148-W147)*AH147)))),N147)","v":28.158697562236199},{"$f":"IF((D148-Q147)*AN147<O147,(D148-Q147)*AN147,O147)","v":7.7967567567567677},4.5618283333333336,2.2809141666666668]
[null,"Tropical Dry Forest","Africa",100,"Tropical Dry Forest:Africa:100",50,1,{"$f":"IF((IF(D149<=Q147,D149*R147,IF(D149<=W147,Q147*R147+(D149-Q147)*Y147,IF(D149<=AE147,Q147*R147+(W147-Q147)*Y147+(D149-W147)*AG147))))<M147,(IF(D149<=Q147,D149*R147,IF(D149<=W147,Q147*R147+(D149-Q147)*Y147,IF(D149<=AE147,Q147*R147+(W147-Q147)*Y147+(D149-W147)*AG147)))),M147)","v":120},{"$f":"IF((IF(D149<=Q147,D149*S147,IF(D149<=W147,Q147*S147+(D149-Q147)*Z147,IF(D149<=AE147,Q147*S147+(W147-Q147)*Z147+(D149-W147)*AH147))))<N147,(IF(D149<=Q147,D149*S147,IF(D149<=W147,Q147*S147+(D149-Q147)*Z147,IF(D149<=AE147,Q147*S147+(W147-Q147)*Z147+(D149-W147)*AH147)))),N147)","v":33.6},{"$f":"IF((D149-Q147)*AN147<O147,(D149-Q147)*AN147,O147)","v":12.994594594594613},{"$f":"((H149+I149)*C_biomass+J149*C_litter)/D149*MM_CO2/MM_C","v":2.8233333333333337},{"$f":"K149*$L$114","v":1.4116666666666668}]
[null,"Tropical Dry Forest","North America",20,"Tropical Dry Forest:North America:20",50,0.4,{"$f":"IF((IF(D150<=Q150,D150*R150,IF(D150<=W150,Q150*R150+(D150-Q150)*Y150,IF(D150<=AE150,Q150*R150+(W150-Q150)*Y150+(D150-W150)*AG150))))<M150,(IF(D150<=Q150,D150*R150,IF(D150<=W150,Q150*R150+(D150-Q150)*Y150,IF(D150<=AE150,Q150*R150+(W150-Q150)*Y150+(D150-W150)*AG150)))),M150)","v":45.587259884572312},{"$f":"IF((IF(D150<=Q150,D150*S150,IF(D150<=W150,Q150*S150+(D150-Q150)*Z150,IF(D150<=AE150,Q150*S150+(W150-Q150)*Z150+(D150-W150)*AH150))))<N150,(IF(D150<=Q150,D150*S150,IF(D150<=W150,Q150*S150+(D150-Q150)*Z150,IF(D150<=AE150,Q150*S150+(W150-Q150)*Z150+(D150-W150)*AH150)))),N150)","v":20.878697562236198},{"$f":"IF((D150-Q150)*AN150<O150,(D150-Q150)*AN150,O150)","v":2.521081081081082},5.8981633333333336,2.9490816666666668,{"$f":"'Reference Data'!E46","v":210},{"$f":"M150*P150","v":58.800000000000004},{"$f":"'Reference Data'!K46","v":12.60540540540541},0.28000000000000003,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q150","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q150","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q150*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q150*R150","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q150","v":30},4,{"$f":"X150*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":4},{"$f":"Y150*P150","v":1.1200000000000001},{"$f":"Y150*(1+P150)*C_biomass*MM_CO2/MM_C","v":8.8234666666666666},{"$f":"IF(U150+(W150-Q150)*Y150<M150,U150+(W150-Q150)*Y150,M150)","v":85.587259884572319},{"$f":"(AB150-U150)/Y150+Q150","v":30},"Table 4.9, IPCC 2006, Vol 4",100,1,{"$f":"AF150*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1},{"$f":"AG150*P150","v":0.28000000000000003},{"$f":"AG150*(1+P150)*C_biomass*MM_CO2/MM_C","v":2.2058666666666666},{"$f":"IF(AB150+(AE150-W150)*AG150<M150,AB150+(AE150-W150)*AG150,M150)","v":155.58725988457232},{"$f":"(AJ150-AB150)/AG150+AC150","v":100},"IPCC 2006",50,{"$f":"O150/AM150","v":0.25210810810810819}]
[null,"Tropical Dry Forest","North America",40,"Tropical Dry Forest:North America:40",50,0.8,{"$f":"IF((IF(D151<=Q150,D151*R150,IF(D151<=W150,Q150*R150+(D151-Q150)*Y150,IF(D151<=AE150,Q150*R150+(W150-Q150)*Y150+(D151-W150)*AG150))))<M150,(IF(D151<=Q150,D151*R150,IF(D151<=W150,Q150*R150+(D151-Q150)*Y150,IF(D151<=AE150,Q150*R150+(W150-Q150)*Y150+(D151-W150)*AG150)))),M150)","v":95.587259884572319},{"$f":"IF((IF(D151<=Q150,D151*S150,IF(D151<=W150,Q150*S150+(D151-Q150)*Z150,IF(D151<=AE150,Q150*S150+(W150-Q150)*Z150+(D151-W150)*AH150))))<N150,(IF(D151<=Q150,D151*S150,IF(D151<=W150,Q150*S150+(D151-Q150)*Z150,IF(D151<=AE150,Q150*S150+(W150-Q150)*Z150+(D151-W150)*AH150)))),N150)","v":34.878697562236198},{"$f":"IF((D151-Q150)*AN150<O150,(D151-Q150)*AN150,O150)","v":7.5632432432432459},5.8774283333333335,2.9387141666666667]
[null,"Tropical Dry Forest","North America",100,"Tropical Dry Forest:North America:100",50,1,{"$f":"IF((IF(D152<=Q150,D152*R150,IF(D152<=W150,Q150*R150+(D152-Q150)*Y150,IF(D152<=AE150,Q150*R150+(W150-Q150)*Y150+(D152-W150)*AG150))))<M150,(IF(D152<=Q150,D152*R150,IF(D152<=W150,Q150*R150+(D152-Q150)*Y150,IF(D152<=AE150,Q150*R150+(W150-Q150)*Y150+(D152-W150)*AG150)))),M150)","v":155.58725988457232},{"$f":"IF((IF(D152<=Q150,D152*S150,IF(D152<=W150,Q150*S150+(D152-Q150)*Z150,IF(D152<=AE150,Q150*S150+(W150-Q150)*Z150+(D152-W150)*AH150))))<N150,(IF(D152<=Q150,D152*S150,IF(D152<=W150,Q150*S150+(D152-Q150)*Z150,IF(D152<=AE150,Q150*S150+(W150-Q150)*Z150+(D152-W150)*AH150)))),N150)","v":51.678697562236202},{"$f":"IF((D152-Q150)*AN150<O150,(D152-Q150)*AN150,O150)","v":12.60540540540541},3.7428966666666668,1.8714483333333334]
[null,"Tropical Dry Forest","South America",20,"Tropical Dry Forest:South America:20",50,0.4,{"$f":"IF((IF(D153<=Q153,D153*R153,IF(D153<=W153,Q153*R153+(D153-Q153)*Y153,IF(D153<=AE153,Q153*R153+(W153-Q153)*Y153+(D153-W153)*AG153))))<M153,(IF(D153<=Q153,D153*R153,IF(D153<=W153,Q153*R153+(D153-Q153)*Y153,IF(D153<=AE153,Q153*R153+(W153-Q153)*Y153+(D153-W153)*AG153)))),M153)","v":45.587259884572312},{"$f":"IF((IF(D153<=Q153,D153*S153,IF(D153<=W153,Q153*S153+(D153-Q153)*Z153,IF(D153<=AE153,Q153*S153+(W153-Q153)*Z153+(D153-W153)*AH153))))<N153,(IF(D153<=Q153,D153*S153,IF(D153<=W153,Q153*S153+(D153-Q153)*Z153,IF(D153<=AE153,Q153*S153+(W153-Q153)*Z153+(D153-W153)*AH153)))),N153)","v":20.878697562236198},{"$f":"IF((D153-Q153)*AN153<O153,(D153-Q153)*AN153,O153)","v":2.521081081081082},5.8981633333333336,2.9490816666666668,{"$f":"'Reference Data'!E46","v":210},{"$f":"M153*P153","v":58.800000000000004},{"$f":"'Reference Data'!K46","v":12.60540540540541},0.28000000000000003,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q153","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q153","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q153*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q153*R153","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q153","v":30},4,{"$f":"X153*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":4},{"$f":"Y153*P153","v":1.1200000000000001},{"$f":"Y153*(1+P153)*C_biomass*MM_CO2/MM_C","v":8.8234666666666666},{"$f":"IF(U153+(W153-Q153)*Y153<M153,U153+(W153-Q153)*Y153,M153)","v":85.587259884572319},{"$f":"(AB153-U153)/Y153+Q153","v":30},"Table 4.9, IPCC 2006, Vol 4",100,1,{"$f":"AF153*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1},{"$f":"AG153*P153","v":0.28000000000000003},{"$f":"AG153*(1+P153)*C_biomass*MM_CO2/MM_C","v":2.2058666666666666},{"$f":"IF(AB153+(AE153-W153)*AG153<M153,AB153+(AE153-W153)*AG153,M153)","v":155.58725988457232},{"$f":"(AJ153-AB153)/AG153+AC153","v":100},"IPCC 2006",50,{"$f":"O153/AM153","v":0.25210810810810819}]
[null,"Tropical Dry Forest","South America",40,"Tropical Dry Forest:South America:40",50,0.8,{"$f":"IF((IF(D154<=Q153,D154*R153,IF(D154<=W153,Q153*R153+(D154-Q153)*Y153,IF(D154<=AE153,Q153*R153+(W153-Q153)*Y153+(D154-W153)*AG153))))<M153,(IF(D154<=Q153,D154*R153,IF(D154<=W153,Q153*R153+(D154-Q153)*Y153,IF(D154<=AE153,Q153*R153+(W153-Q153)*Y153+(D154-W153)*AG153)))),M153)","v":95.587259884572319},{"$f":"IF((IF(D154<=Q153,D154*S153,IF(D154<=W153,Q153*S153+(D154-Q153)*Z153,IF(D154<=AE153,Q153*S153+(W153-Q153)*Z153+(D154-W153)*AH153))))<N153,(IF(D154<=Q153,D154*S153,IF(D154<=W153,Q153*S153+(D154-Q153)*Z153,IF(D154<=AE153,Q153*S153+(W153-Q153)*Z153+(D154-W153)*AH153)))),N153)","v":34.878697562236198},{"$f":"IF((D154-Q153)*AN153<O153,(D154-Q153)*AN153,O153)","v":7.5632432432432459},5.8774283333333335,2.9387141666666667]
[null,"Tropical Dry Forest","South America",100,"Tropical Dry Forest:South America:100",50,1,{"$f":"IF((IF(D155<=Q153,D155*R153,IF(D155<=W153,Q153*R153+(D155-Q153)*Y153,IF(D155<=AE153,Q153*R153+(W153-Q153)*Y153+(D155-W153)*AG153))))<M153,(IF(D155<=Q153,D155*R153,IF(D155<=W153,Q153*R153+(D155-Q153)*Y153,IF(D155<=AE153,Q153*R153+(W153-Q153)*Y153+(D155-W153)*AG153)))),M153)","v":155.58725988457232},{"$f":"IF((IF(D155<=Q153,D155*S153,IF(D155<=W153,Q153*S153+(D155-Q153)*Z153,IF(D155<=AE153,Q153*S153+(W153-Q153)*Z153+(D155-W153)*AH153))))<N153,(IF(D155<=Q153,D155*S153,IF(D155<=W153,Q153*S153+(D155-Q153)*Z153,IF(D155<=AE153,Q153*S153+(W153-Q153)*Z153+(D155-W153)*AH153)))),N153)","v":51.678697562236202},{"$f":"IF((D155-Q153)*AN153<O153,(D155-Q153)*AN153,O153)","v":12.60540540540541},3.7428966666666668,1.8714483333333334]
[null,"Tropical Dry Forest","Asia Continental",20,"Tropical Dry Forest:Asia Continental:20",50,0.4,{"$f":"IF((IF(D156<=Q156,D156*R156,IF(D156<=W156,Q156*R156+(D156-Q156)*Y156,IF(D156<=AE156,Q156*R156+(W156-Q156)*Y156+(D156-W156)*AG156))))<M156,(IF(D156<=Q156,D156*R156,IF(D156<=W156,Q156*R156+(D156-Q156)*Y156,IF(D156<=AE156,Q156*R156+(W156-Q156)*Y156+(D156-W156)*AG156)))),M156)","v":65.587259884572319},{"$f":"IF((IF(D156<=Q156,D156*S156,IF(D156<=W156,Q156*S156+(D156-Q156)*Z156,IF(D156<=AE156,Q156*S156+(W156-Q156)*Z156+(D156-W156)*AH156))))<N156,(IF(D156<=Q156,D156*S156,IF(D156<=W156,Q156*S156+(D156-Q156)*Z156,IF(D156<=AE156,Q156*S156+(W156-Q156)*Z156+(D156-W156)*AH156)))),N156)","v":26.478697562236199},{"$f":"IF((D156-Q156)*AN156<O156,(D156-Q156)*AN156,O156)","v":2.5902702702702713},8.108723333333332,4.054361666666666,{"$f":"'Reference Data'!E47","v":130},{"$f":"M156*P156","v":36.400000000000006},{"$f":"'Reference Data'!K47","v":12.951351351351356},0.28000000000000003,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q156","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q156","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q156*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q156*R156","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q156","v":30},6,{"$f":"X156*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":6},{"$f":"Y156*P156","v":1.6800000000000002},{"$f":"Y156*(1+P156)*C_biomass*MM_CO2/MM_C","v":13.235199999999999},{"$f":"IF(U156+(W156-Q156)*Y156<M156,U156+(W156-Q156)*Y156,M156)","v":125.58725988457232},{"$f":"(AB156-U156)/Y156+Q156","v":30},"Table 4.9, IPCC 2006, Vol 4",100,1.5,{"$f":"AF156*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.5},{"$f":"AG156*P156","v":0.42000000000000004},{"$f":"AG156*(1+P156)*C_biomass*MM_CO2/MM_C","v":3.3087999999999997},{"$f":"IF(AB156+(AE156-W156)*AG156<M156,AB156+(AE156-W156)*AG156,M156)","v":130},{"$f":"(AJ156-AB156)/AG156+AC156","v":32.941826743618456},"IPCC 2006",50,{"$f":"O156/AM156","v":0.25902702702702712}]
[null,"Tropical Dry Forest","Asia Continental",40,"Tropical Dry Forest:Asia Continental:40",50,0.8,{"$f":"IF((IF(D157<=Q156,D157*R156,IF(D157<=W156,Q156*R156+(D157-Q156)*Y156,IF(D157<=AE156,Q156*R156+(W156-Q156)*Y156+(D157-W156)*AG156))))<M156,(IF(D157<=Q156,D157*R156,IF(D157<=W156,Q156*R156+(D157-Q156)*Y156,IF(D157<=AE156,Q156*R156+(W156-Q156)*Y156+(D157-W156)*AG156)))),M156)","v":130},{"$f":"IF((IF(D157<=Q156,D157*S156,IF(D157<=W156,Q156*S156+(D157-Q156)*Z156,IF(D157<=AE156,Q156*S156+(W156-Q156)*Z156+(D157-W156)*AH156))))<N156,(IF(D157<=Q156,D157*S156,IF(D157<=W156,Q156*S156+(D157-Q156)*Z156,IF(D157<=AE156,Q156*S156+(W156-Q156)*Z156+(D157-W156)*AH156)))),N156)","v":36.400000000000006},{"$f":"IF((D157-Q156)*AN156<O156,(D157-Q156)*AN156,O156)","v":7.770810810810814},7.4326266666666676,3.7163133333333338]
[null,"Tropical Dry Forest","Asia Continental",100,"Tropical Dry Forest:Asia Continental:100",50,1,{"$f":"IF((IF(D158<=Q156,D158*R156,IF(D158<=W156,Q156*R156+(D158-Q156)*Y156,IF(D158<=AE156,Q156*R156+(W156-Q156)*Y156+(D158-W156)*AG156))))<M156,(IF(D158<=Q156,D158*R156,IF(D158<=W156,Q156*R156+(D158-Q156)*Y156,IF(D158<=AE156,Q156*R156+(W156-Q156)*Y156+(D158-W156)*AG156)))),M156)","v":130},{"$f":"IF((IF(D158<=Q156,D158*S156,IF(D158<=W156,Q156*S156+(D158-Q156)*Z156,IF(D158<=AE156,Q156*S156+(W156-Q156)*Z156+(D158-W156)*AH156))))<N156,(IF(D158<=Q156,D158*S156,IF(D158<=W156,Q156*S156+(D158-Q156)*Z156,IF(D158<=AE156,Q156*S156+(W156-Q156)*Z156+(D158-W156)*AH156)))),N156)","v":36.400000000000006},{"$f":"IF((D158-Q156)*AN156<O156,(D158-Q156)*AN156,O156)","v":12.951351351351356},3.043333333333333,1.5216666666666665]
[null,"Tropical Dry Forest","Asia Insular",20,"Tropical Dry Forest:Asia Insular:20",50,0.4,{"$f":"IF((IF(D159<=Q159,D159*R159,IF(D159<=W159,Q159*R159+(D159-Q159)*Y159,IF(D159<=AE159,Q159*R159+(W159-Q159)*Y159+(D159-W159)*AG159))))<M159,(IF(D159<=Q159,D159*R159,IF(D159<=W159,Q159*R159+(D159-Q159)*Y159,IF(D159<=AE159,Q159*R159+(W159-Q159)*Y159+(D159-W159)*AG159)))),M159)","v":75.587259884572319},{"$f":"IF((IF(D159<=Q159,D159*S159,IF(D159<=W159,Q159*S159+(D159-Q159)*Z159,IF(D159<=AE159,Q159*S159+(W159-Q159)*Z159+(D159-W159)*AH159))))<N159,(IF(D159<=Q159,D159*S159,IF(D159<=W159,Q159*S159+(D159-Q159)*Z159,IF(D159<=AE159,Q159*S159+(W159-Q159)*Z159+(D159-W159)*AH159)))),N159)","v":29.278697562236196},{"$f":"IF((D159-Q159)*AN159<O159,(D159-Q159)*AN159,O159)","v":2.5643243243243239},9.2098966666666673,4.6049483333333336,{"$f":"'Reference Data'!E48","v":160},{"$f":"M159*P159","v":44.800000000000004},{"$f":"'Reference Data'!K48","v":12.82162162162162},0.28000000000000003,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q159","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q159","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q159*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q159*R159","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q159","v":30},7,{"$f":"X159*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":7},{"$f":"Y159*P159","v":1.9600000000000002},{"$f":"Y159*(1+P159)*C_biomass*MM_CO2/MM_C","v":15.441066666666666},{"$f":"IF(U159+(W159-Q159)*Y159<M159,U159+(W159-Q159)*Y159,M159)","v":145.58725988457232},{"$f":"(AB159-U159)/Y159+Q159","v":30},"Table 4.9, IPCC 2006, Vol 4",100,2,{"$f":"AF159*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":2},{"$f":"AG159*P159","v":0.56000000000000005},{"$f":"AG159*(1+P159)*C_biomass*MM_CO2/MM_C","v":4.4117333333333333},{"$f":"IF(AB159+(AE159-W159)*AG159<M159,AB159+(AE159-W159)*AG159,M159)","v":160},{"$f":"(AJ159-AB159)/AG159+AC159","v":37.206370057713841},"IPCC 2006",50,{"$f":"O159/AM159","v":0.25643243243243241}]
[null,"Tropical Dry Forest","Asia Insular",40,"Tropical Dry Forest:Asia Insular:40",50,0.8,{"$f":"IF((IF(D160<=Q159,D160*R159,IF(D160<=W159,Q159*R159+(D160-Q159)*Y159,IF(D160<=AE159,Q159*R159+(W159-Q159)*Y159+(D160-W159)*AG159))))<M159,(IF(D160<=Q159,D160*R159,IF(D160<=W159,Q159*R159+(D160-Q159)*Y159,IF(D160<=AE159,Q159*R159+(W159-Q159)*Y159+(D160-W159)*AG159)))),M159)","v":160},{"$f":"IF((IF(D160<=Q159,D160*S159,IF(D160<=W159,Q159*S159+(D160-Q159)*Z159,IF(D160<=AE159,Q159*S159+(W159-Q159)*Z159+(D160-W159)*AH159))))<N159,(IF(D160<=Q159,D160*S159,IF(D160<=W159,Q159*S159+(D160-Q159)*Z159,IF(D160<=AE159,Q159*S159+(W159-Q159)*Z159+(D160-W159)*AH159)))),N159)","v":44.800000000000004},{"$f":"IF((D160-Q159)*AN159<O159,(D160-Q159)*AN159,O159)","v":7.6929729729729726},9.0843866666666671,4.5421933333333335]
[null,"Tropical Dry Forest","Asia Insular",100,"Tropical Dry Forest:Asia Insular:100",50,1,{"$f":"IF((IF(D161<=Q159,D161*R159,IF(D161<=W159,Q159*R159+(D161-Q159)*Y159,IF(D161<=AE159,Q159*R159+(W159-Q159)*Y159+(D161-W159)*AG159))))<M159,(IF(D161<=Q159,D161*R159,IF(D161<=W159,Q159*R159+(D161-Q159)*Y159,IF(D161<=AE159,Q159*R159+(W159-Q159)*Y159+(D161-W159)*AG159)))),M159)","v":160},{"$f":"IF((IF(D161<=Q159,D161*S159,IF(D161<=W159,Q159*S159+(D161-Q159)*Z159,IF(D161<=AE159,Q159*S159+(W159-Q159)*Z159+(D161-W159)*AH159))))<N159,(IF(D161<=Q159,D161*S159,IF(D161<=W159,Q159*S159+(D161-Q159)*Z159,IF(D161<=AE159,Q159*S159+(W159-Q159)*Z159+(D161-W159)*AH159)))),N159)","v":44.800000000000004},{"$f":"IF((D161-Q159)*AN159<O159,(D161-Q159)*AN159,O159)","v":12.82162162162162},3.7033333333333331,1.8516666666666666]
[null,"Tropical Mountain System","Africa",20,{"$f":"B162&\":\"&C162&\":\"&D162","v":"Tropical Mountain System:Africa:20"},{"$f":"$B$97","v":50},0.4,{"$f":"IF((IF(D162<=Q162,D162*R162,IF(D162<=W162,Q162*R162+(D162-Q162)*Y162,IF(D162<=AE162,Q162*R162+(W162-Q162)*Y162+(D162-W162)*AG162))))<M162,(IF(D162<=Q162,D162*R162,IF(D162<=W162,Q162*R162+(D162-Q162)*Y162,IF(D162<=AE162,Q162*R162+(W162-Q162)*Y162+(D162-W162)*AG162)))),M162)","v":40.587259884572312},{"$f":"IF((IF(D162<=Q162,D162*S162,IF(D162<=W162,Q162*S162+(D162-Q162)*Z162,IF(D162<=AE162,Q162*S162+(W162-Q162)*Z162+(D162-W162)*AH162))))<N162,(IF(D162<=Q162,D162*S162,IF(D162<=W162,Q162*S162+(D162-Q162)*Z162,IF(D162<=AE162,Q162*S162+(W162-Q162)*Z162+(D162-W162)*AH162)))),N162)","v":19.128697562236198},{"$f":"IF((D162-Q162)*AN162<O162,(D162-Q162)*AN162,O162)","v":5.3935135135135184},5.5113850000000006,2.7556925000000003,{"$f":"'Reference Data'!E49","v":115},{"$f":"M162*P162","v":31.05},{"$f":"'Reference Data'!K49","v":26.967567567567592},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q162","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q162","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q162*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q162*R162","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q162","v":30},3.5,{"$f":"X162*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":3.5},{"$f":"Y162*P162","v":0.94500000000000006},{"$f":"Y162*(1+P162)*C_biomass*MM_CO2/MM_C","v":7.6602166666666669},{"$f":"IF(U162+(W162-Q162)*Y162<M162,U162+(W162-Q162)*Y162,M162)","v":75.587259884572319},{"$f":"(AB162-U162)/Y162+Q162","v":30},"Table 4.9, IPCC 2006, Vol 4",100,1.25,{"$f":"AF162*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.25},{"$f":"AG162*P162","v":0.33750000000000002},{"$f":"AG162*(1+P162)*C_biomass*MM_CO2/MM_C","v":2.7357916666666662},{"$f":"IF(AB162+(AE162-W162)*AG162<M162,AB162+(AE162-W162)*AG162,M162)","v":115},{"$f":"(AJ162-AB162)/AG162+AC162","v":61.530192092342148},"IPCC 2006",50,{"$f":"O162/AM162","v":0.53935135135135182}]
[null,"Tropical Mountain System","Africa",40,"Tropical Mountain System:Africa:40",{"$f":"$B$97","v":50},{"$f":"IF(D163>F163,1,D163/F163)","v":0.8},{"$f":"IF((IF(D163<=Q162,D163*R162,IF(D163<=W162,Q162*R162+(D163-Q162)*Y162,IF(D163<=AE162,Q162*R162+(W162-Q162)*Y162+(D163-W162)*AG162))))<M162,(IF(D163<=Q162,D163*R162,IF(D163<=W162,Q162*R162+(D163-Q162)*Y162,IF(D163<=AE162,Q162*R162+(W162-Q162)*Y162+(D163-W162)*AG162)))),M162)","v":88.087259884572319},{"$f":"IF((IF(D163<=Q162,D163*S162,IF(D163<=W162,Q162*S162+(D163-Q162)*Z162,IF(D163<=AE162,Q162*S162+(W162-Q162)*Z162+(D163-W162)*AH162))))<N162,(IF(D163<=Q162,D163*S162,IF(D163<=W162,Q162*S162+(D163-Q162)*Z162,IF(D163<=AE162,Q162*S162+(W162-Q162)*Z162+(D163-W162)*AH162)))),N162)","v":31.05},{"$f":"IF((D163-Q162)*AN162<O162,(D163-Q162)*AN162,O162)","v":16.180540540540555},5.6816202800269906,2.8408101400134953]
[null,"Tropical Mountain System","Africa",100,"Tropical Mountain System:Africa:100",50,1,{"$f":"IF((IF(D164<=Q162,D164*R162,IF(D164<=W162,Q162*R162+(D164-Q162)*Y162,IF(D164<=AE162,Q162*R162+(W162-Q162)*Y162+(D164-W162)*AG162))))<M162,(IF(D164<=Q162,D164*R162,IF(D164<=W162,Q162*R162+(D164-Q162)*Y162,IF(D164<=AE162,Q162*R162+(W162-Q162)*Y162+(D164-W162)*AG162)))),M162)","v":115},{"$f":"IF((IF(D164<=Q162,D164*S162,IF(D164<=W162,Q162*S162+(D164-Q162)*Z162,IF(D164<=AE162,Q162*S162+(W162-Q162)*Z162+(D164-W162)*AH162))))<N162,(IF(D164<=Q162,D164*S162,IF(D164<=W162,Q162*S162+(D164-Q162)*Z162,IF(D164<=AE162,Q162*S162+(W162-Q162)*Z162+(D164-W162)*AH162)))),N162)","v":31.05},{"$f":"IF((D164-Q162)*AN162<O162,(D164-Q162)*AN162,O162)","v":26.967567567567592},2.882788333333334,1.441394166666667]
[null,"Tropical Mountain System","North America",20,"Tropical Mountain System:North America:20",50,0.4,{"$f":"IF((IF(D165<=Q165,D165*R165,IF(D165<=W165,Q165*R165+(D165-Q165)*Y165,IF(D165<=AE165,Q165*R165+(W165-Q165)*Y165+(D165-W165)*AG165))))<M165,(IF(D165<=Q165,D165*R165,IF(D165<=W165,Q165*R165+(D165-Q165)*Y165,IF(D165<=AE165,Q165*R165+(W165-Q165)*Y165+(D165-W165)*AG165)))),M165)","v":39.587259884572312},{"$f":"IF((IF(D165<=Q165,D165*S165,IF(D165<=W165,Q165*S165+(D165-Q165)*Z165,IF(D165<=AE165,Q165*S165+(W165-Q165)*Z165+(D165-W165)*AH165))))<N165,(IF(D165<=Q165,D165*S165,IF(D165<=W165,Q165*S165+(D165-Q165)*Z165,IF(D165<=AE165,Q165*S165+(W165-Q165)*Z165+(D165-W165)*AH165)))),N165)","v":18.858697562236195},{"$f":"IF((D165-Q165)*AN165<O165,(D165-Q165)*AN165,O165)","v":5.1318918918918923},5.3842066666666666,2.6921033333333333,{"$f":"'Reference Data'!E50","v":145},{"$f":"M165*P165","v":39.150000000000006},{"$f":"'Reference Data'!K50","v":25.659459459459459},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q165","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q165","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q165*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q165*R165","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q165","v":30},3.4,{"$f":"X165*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":3.4},{"$f":"Y165*P165","v":0.91800000000000004},{"$f":"Y165*(1+P165)*C_biomass*MM_CO2/MM_C","v":7.4413533333333328},{"$f":"IF(U165+(W165-Q165)*Y165<M165,U165+(W165-Q165)*Y165,M165)","v":73.587259884572319},{"$f":"(AB165-U165)/Y165+Q165","v":30},"Table 4.9, IPCC 2006, Vol 4",100,0.9,{"$f":"AF165*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":0.9},{"$f":"AG165*P165","v":0.24300000000000002},{"$f":"AG165*(1+P165)*C_biomass*MM_CO2/MM_C","v":1.9697699999999998},{"$f":"IF(AB165+(AE165-W165)*AG165<M165,AB165+(AE165-W165)*AG165,M165)","v":136.58725988457232},{"$f":"(AJ165-AB165)/AG165+AC165","v":100},"IPCC 2006",50,{"$f":"O165/AM165","v":0.51318918918918921}]
[null,"Tropical Mountain System","North America",40,"Tropical Mountain System:North America:40",50,0.8,{"$f":"IF((IF(D166<=Q165,D166*R165,IF(D166<=W165,Q165*R165+(D166-Q165)*Y165,IF(D166<=AE165,Q165*R165+(W165-Q165)*Y165+(D166-W165)*AG165))))<M165,(IF(D166<=Q165,D166*R165,IF(D166<=W165,Q165*R165+(D166-Q165)*Y165,IF(D166<=AE165,Q165*R165+(W165-Q165)*Y165+(D166-W165)*AG165)))),M165)","v":82.587259884572319},{"$f":"IF((IF(D166<=Q165,D166*S165,IF(D166<=W165,Q165*S165+(D166-Q165)*Z165,IF(D166<=AE165,Q165*S165+(W165-Q165)*Z165+(D166-W165)*AH165))))<N165,(IF(D166<=Q165,D166*S165,IF(D166<=W165,Q165*S165+(D166-Q165)*Z165,IF(D166<=AE165,Q165*S165+(W165-Q165)*Z165+(D166-W165)*AH165)))),N165)","v":30.468697562236194},{"$f":"IF((D166-Q165)*AN165<O165,(D166-Q165)*AN165,O165)","v":15.395675675675676},5.3929974999999999,2.6964987499999999]
[null,"Tropical Mountain System","North America",100,"Tropical Mountain System:North America:100",50,1,{"$f":"IF((IF(D167<=Q165,D167*R165,IF(D167<=W165,Q165*R165+(D167-Q165)*Y165,IF(D167<=AE165,Q165*R165+(W165-Q165)*Y165+(D167-W165)*AG165))))<M165,(IF(D167<=Q165,D167*R165,IF(D167<=W165,Q165*R165+(D167-Q165)*Y165,IF(D167<=AE165,Q165*R165+(W165-Q165)*Y165+(D167-W165)*AG165)))),M165)","v":136.58725988457232},{"$f":"IF((IF(D167<=Q165,D167*S165,IF(D167<=W165,Q165*S165+(D167-Q165)*Z165,IF(D167<=AE165,Q165*S165+(W165-Q165)*Z165+(D167-W165)*AH165))))<N165,(IF(D167<=Q165,D167*S165,IF(D167<=W165,Q165*S165+(D167-Q165)*Z165,IF(D167<=AE165,Q165*S165+(W165-Q165)*Z165+(D167-W165)*AH165)))),N165)","v":39.150000000000006},{"$f":"IF((D167-Q165)*AN165<O165,(D167-Q165)*AN165,O165)","v":25.659459459459459},3.3766521120107966,1.6883260560053983]
[null,"Tropical Mountain System","South America",20,"Tropical Mountain System:South America:20",50,0.4,{"$f":"IF((IF(D168<=Q168,D168*R168,IF(D168<=W168,Q168*R168+(D168-Q168)*Y168,IF(D168<=AE168,Q168*R168+(W168-Q168)*Y168+(D168-W168)*AG168))))<M168,(IF(D168<=Q168,D168*R168,IF(D168<=W168,Q168*R168+(D168-Q168)*Y168,IF(D168<=AE168,Q168*R168+(W168-Q168)*Y168+(D168-W168)*AG168)))),M168)","v":39.587259884572312},{"$f":"IF((IF(D168<=Q168,D168*S168,IF(D168<=W168,Q168*S168+(D168-Q168)*Z168,IF(D168<=AE168,Q168*S168+(W168-Q168)*Z168+(D168-W168)*AH168))))<N168,(IF(D168<=Q168,D168*S168,IF(D168<=W168,Q168*S168+(D168-Q168)*Z168,IF(D168<=AE168,Q168*S168+(W168-Q168)*Z168+(D168-W168)*AH168)))),N168)","v":18.858697562236195},{"$f":"IF((D168-Q168)*AN168<O168,(D168-Q168)*AN168,O168)","v":5.1318918918918923},5.3842066666666666,2.6921033333333333,{"$f":"'Reference Data'!E50","v":145},{"$f":"M168*P168","v":39.150000000000006},{"$f":"'Reference Data'!K50","v":25.659459459459459},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q168","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q168","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q168*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q168*R168","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q168","v":30},3.4,{"$f":"X168*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":3.4},{"$f":"Y168*P168","v":0.91800000000000004},{"$f":"Y168*(1+P168)*C_biomass*MM_CO2/MM_C","v":7.4413533333333328},{"$f":"IF(U168+(W168-Q168)*Y168<M168,U168+(W168-Q168)*Y168,M168)","v":73.587259884572319},{"$f":"(AB168-U168)/Y168+Q168","v":30},"Table 4.9, IPCC 2006, Vol 4",100,0.9,{"$f":"AF168*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":0.9},{"$f":"AG168*P168","v":0.24300000000000002},{"$f":"AG168*(1+P168)*C_biomass*MM_CO2/MM_C","v":1.9697699999999998},{"$f":"IF(AB168+(AE168-W168)*AG168<M168,AB168+(AE168-W168)*AG168,M168)","v":136.58725988457232},{"$f":"(AJ168-AB168)/AG168+AC168","v":100},"IPCC 2006",50,{"$f":"O168/AM168","v":0.51318918918918921}]
[null,"Tropical Mountain System","South America",40,"Tropical Mountain System:South America:40",50,0.8,{"$f":"IF((IF(D169<=Q168,D169*R168,IF(D169<=W168,Q168*R168+(D169-Q168)*Y168,IF(D169<=AE168,Q168*R168+(W168-Q168)*Y168+(D169-W168)*AG168))))<M168,(IF(D169<=Q168,D169*R168,IF(D169<=W168,Q168*R168+(D169-Q168)*Y168,IF(D169<=AE168,Q168*R168+(W168-Q168)*Y168+(D169-W168)*AG168)))),M168)","v":82.587259884572319},{"$f":"IF((IF(D169<=Q168,D169*S168,IF(D169<=W168,Q168*S168+(D169-Q168)*Z168,IF(D169<=AE168,Q168*S168+(W168-Q168)*Z168+(D169-W168)*AH168))))<N168,(IF(D169<=Q168,D169*S168,IF(D169<=W168,Q168*S168+(D169-Q168)*Z168,IF(D169<=AE168,Q168*S168+(W168-Q168)*Z168+(D169-W168)*AH168)))),N168)","v":30.468697562236194},{"$f":"IF((D169-Q168)*AN168<O168,(D169-Q168)*AN168,O168)","v":15.395675675675676},5.3929974999999999,2.6964987499999999]
[null,"Tropical Mountain System","South America",100,"Tropical Mountain System:South America:100",50,1,{"$f":"IF((IF(D170<=Q168,D170*R168,IF(D170<=W168,Q168*R168+(D170-Q168)*Y168,IF(D170<=AE168,Q168*R168+(W168-Q168)*Y168+(D170-W168)*AG168))))<M168,(IF(D170<=Q168,D170*R168,IF(D170<=W168,Q168*R168+(D170-Q168)*Y168,IF(D170<=AE168,Q168*R168+(W168-Q168)*Y168+(D170-W168)*AG168)))),M168)","v":136.58725988457232},{"$f":"IF((IF(D170<=Q168,D170*S168,IF(D170<=W168,Q168*S168+(D170-Q168)*Z168,IF(D170<=AE168,Q168*S168+(W168-Q168)*Z168+(D170-W168)*AH168))))<N168,(IF(D170<=Q168,D170*S168,IF(D170<=W168,Q168*S168+(D170-Q168)*Z168,IF(D170<=AE168,Q168*S168+(W168-Q168)*Z168+(D170-W168)*AH168)))),N168)","v":39.150000000000006},{"$f":"IF((D170-Q168)*AN168<O168,(D170-Q168)*AN168,O168)","v":25.659459459459459},3.3766521120107966,1.6883260560053983]
[null,"Tropical Mountain System","Asia Continental",20,"Tropical Mountain System:Asia Continental:20",50,0.4,{"$f":"IF((IF(D171<=Q171,D171*R171,IF(D171<=W171,Q171*R171+(D171-Q171)*Y171,IF(D171<=AE171,Q171*R171+(W171-Q171)*Y171+(D171-W171)*AG171))))<M171,(IF(D171<=Q171,D171*R171,IF(D171<=W171,Q171*R171+(D171-Q171)*Y171,IF(D171<=AE171,Q171*R171+(W171-Q171)*Y171+(D171-W171)*AG171)))),M171)","v":35.587259884572312},{"$f":"IF((IF(D171<=Q171,D171*S171,IF(D171<=W171,Q171*S171+(D171-Q171)*Z171,IF(D171<=AE171,Q171*S171+(W171-Q171)*Z171+(D171-W171)*AH171))))<N171,(IF(D171<=Q171,D171*S171,IF(D171<=W171,Q171*S171+(D171-Q171)*Z171,IF(D171<=AE171,Q171*S171+(W171-Q171)*Z171+(D171-W171)*AH171)))),N171)","v":17.778697562236196},{"$f":"IF((D171-Q171)*AN171<O171,(D171-Q171)*AN171,O171)","v":5.0389189189189203},4.9401733333333331,2.4700866666666665,{"$f":"'Reference Data'!E51","v":135},{"$f":"M171*P171","v":36.450000000000003},{"$f":"'Reference Data'!K51","v":25.194594594594601},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q171","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q171","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q171*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q171*R171","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q171","v":30},3,{"$f":"X171*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":3},{"$f":"Y171*P171","v":0.81},{"$f":"Y171*(1+P171)*C_biomass*MM_CO2/MM_C","v":6.5659000000000001},{"$f":"IF(U171+(W171-Q171)*Y171<M171,U171+(W171-Q171)*Y171,M171)","v":65.587259884572319},{"$f":"(AB171-U171)/Y171+Q171","v":30.000000000000004},"Table 4.9, IPCC 2006, Vol 4",100,0.75,{"$f":"AF171*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":0.75},{"$f":"AG171*P171","v":0.20250000000000001},{"$f":"AG171*(1+P171)*C_biomass*MM_CO2/MM_C","v":1.641475},{"$f":"IF(AB171+(AE171-W171)*AG171<M171,AB171+(AE171-W171)*AG171,M171)","v":118.08725988457232},{"$f":"(AJ171-AB171)/AG171+AC171","v":100},"IPCC 2006",50,{"$f":"O171/AM171","v":0.50389189189189199}]
[null,"Tropical Mountain System","Asia Continental",40,"Tropical Mountain System:Asia Continental:40",50,0.8,{"$f":"IF((IF(D172<=Q171,D172*R171,IF(D172<=W171,Q171*R171+(D172-Q171)*Y171,IF(D172<=AE171,Q171*R171+(W171-Q171)*Y171+(D172-W171)*AG171))))<M171,(IF(D172<=Q171,D172*R171,IF(D172<=W171,Q171*R171+(D172-Q171)*Y171,IF(D172<=AE171,Q171*R171+(W171-Q171)*Y171+(D172-W171)*AG171)))),M171)","v":73.087259884572319},{"$f":"IF((IF(D172<=Q171,D172*S171,IF(D172<=W171,Q171*S171+(D172-Q171)*Z171,IF(D172<=AE171,Q171*S171+(W171-Q171)*Z171+(D172-W171)*AH171))))<N171,(IF(D172<=Q171,D172*S171,IF(D172<=W171,Q171*S171+(D172-Q171)*Z171,IF(D172<=AE171,Q171*S171+(W171-Q171)*Z171+(D172-W171)*AH171)))),N171)","v":27.903697562236196},{"$f":"IF((D172-Q171)*AN171<O171,(D172-Q171)*AN171,O171)","v":15.116756756756759},4.8637370833333335,2.4318685416666668]
[null,"Tropical Mountain System","Asia Continental",100,"Tropical Mountain System:Asia Continental:100",50,1,{"$f":"IF((IF(D173<=Q171,D173*R171,IF(D173<=W171,Q171*R171+(D173-Q171)*Y171,IF(D173<=AE171,Q171*R171+(W171-Q171)*Y171+(D173-W171)*AG171))))<M171,(IF(D173<=Q171,D173*R171,IF(D173<=W171,Q171*R171+(D173-Q171)*Y171,IF(D173<=AE171,Q171*R171+(W171-Q171)*Y171+(D173-W171)*AG171)))),M171)","v":118.08725988457232},{"$f":"IF((IF(D173<=Q171,D173*S171,IF(D173<=W171,Q171*S171+(D173-Q171)*Z171,IF(D173<=AE171,Q171*S171+(W171-Q171)*Z171+(D173-W171)*AH171))))<N171,(IF(D173<=Q171,D173*S171,IF(D173<=W171,Q171*S171+(D173-Q171)*Z171,IF(D173<=AE171,Q171*S171+(W171-Q171)*Z171+(D173-W171)*AH171)))),N171)","v":36.450000000000003},{"$f":"IF((D173-Q171)*AN171<O171,(D173-Q171)*AN171,O171)","v":25.194594594594601},3.004998778677463,1.5024993893387315]
[null,"Tropical Mountain System","Asia Insular",20,"Tropical Mountain System:Asia Insular:20",50,0.4,{"$f":"IF((IF(D174<=Q174,D174*R174,IF(D174<=W174,Q174*R174+(D174-Q174)*Y174,IF(D174<=AE174,Q174*R174+(W174-Q174)*Y174+(D174-W174)*AG174))))<M174,(IF(D174<=Q174,D174*R174,IF(D174<=W174,Q174*R174+(D174-Q174)*Y174,IF(D174<=AE174,Q174*R174+(W174-Q174)*Y174+(D174-W174)*AG174)))),M174)","v":80.587259884572319},{"$f":"IF((IF(D174<=Q174,D174*S174,IF(D174<=W174,Q174*S174+(D174-Q174)*Z174,IF(D174<=AE174,Q174*S174+(W174-Q174)*Z174+(D174-W174)*AH174))))<N174,(IF(D174<=Q174,D174*S174,IF(D174<=W174,Q174*S174+(D174-Q174)*Z174,IF(D174<=AE174,Q174*S174+(W174-Q174)*Z174+(D174-W174)*AH174)))),N174)","v":29.928697562236202},{"$f":"IF((D174-Q174)*AN174<O174,(D174-Q174)*AN174,O174)","v":5.689729729729736},9.9087450000000015,4.9543725000000007,{"$f":"'Reference Data'!E52","v":205},{"$f":"M174*P174","v":55.35},{"$f":"'Reference Data'!K52","v":28.448648648648678},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q174","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q174","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q174*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q174*R174","v":5.5872598845723136},"Reverting to IPCC default tropical shrubland C stock. Error estimated",{"$f":"20+Q174","v":30},7.5,{"$f":"X174*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":7.5},{"$f":"Y174*P174","v":2.0250000000000004},{"$f":"Y174*(1+P174)*C_biomass*MM_CO2/MM_C","v":16.414750000000002},{"$f":"IF(U174+(W174-Q174)*Y174<M174,U174+(W174-Q174)*Y174,M174)","v":155.58725988457232},{"$f":"(AB174-U174)/Y174+Q174","v":30},"Table 4.9, IPCC 2006, Vol 4",100,2,{"$f":"AF174*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":2},{"$f":"AG174*P174","v":0.54},{"$f":"AG174*(1+P174)*C_biomass*MM_CO2/MM_C","v":4.3772666666666664},{"$f":"IF(AB174+(AE174-W174)*AG174<M174,AB174+(AE174-W174)*AG174,M174)","v":205},{"$f":"(AJ174-AB174)/AG174+AC174","v":54.706370057713841},"IPCC 2006",50,{"$f":"O174/AM174","v":0.56897297297297356}]
[null,"Tropical Mountain System","Asia Insular",40,"Tropical Mountain System:Asia Insular:40",50,0.8,{"$f":"IF((IF(D175<=Q174,D175*R174,IF(D175<=W174,Q174*R174+(D175-Q174)*Y174,IF(D175<=AE174,Q174*R174+(W174-Q174)*Y174+(D175-W174)*AG174))))<M174,(IF(D175<=Q174,D175*R174,IF(D175<=W174,Q174*R174+(D175-Q174)*Y174,IF(D175<=AE174,Q174*R174+(W174-Q174)*Y174+(D175-W174)*AG174)))),M174)","v":175.58725988457232},{"$f":"IF((IF(D175<=Q174,D175*S174,IF(D175<=W174,Q174*S174+(D175-Q174)*Z174,IF(D175<=AE174,Q174*S174+(W174-Q174)*Z174+(D175-W174)*AH174))))<N174,(IF(D175<=Q174,D175*S174,IF(D175<=W174,Q174*S174+(D175-Q174)*Z174,IF(D175<=AE174,Q174*S174+(W174-Q174)*Z174+(D175-W174)*AH174)))),N174)","v":55.35},{"$f":"IF((D175-Q174)*AN174<O174,(D175-Q174)*AN174,O174)","v":17.069189189189206},10.528476946693656,5.2642384733468282]
[null,"Tropical Mountain System","Asia Insular",100,"Tropical Mountain System:Asia Insular:100",50,1,{"$f":"IF((IF(D176<=Q174,D176*R174,IF(D176<=W174,Q174*R174+(D176-Q174)*Y174,IF(D176<=AE174,Q174*R174+(W174-Q174)*Y174+(D176-W174)*AG174))))<M174,(IF(D176<=Q174,D176*R174,IF(D176<=W174,Q174*R174+(D176-Q174)*Y174,IF(D176<=AE174,Q174*R174+(W174-Q174)*Y174+(D176-W174)*AG174)))),M174)","v":205},{"$f":"IF((IF(D176<=Q174,D176*S174,IF(D176<=W174,Q174*S174+(D176-Q174)*Z174,IF(D176<=AE174,Q174*S174+(W174-Q174)*Z174+(D176-W174)*AH174))))<N174,(IF(D176<=Q174,D176*S174,IF(D176<=W174,Q174*S174+(D176-Q174)*Z174,IF(D176<=AE174,Q174*S174+(W174-Q174)*Z174+(D176-W174)*AH174)))),N174)","v":55.35},{"$f":"IF((D176-Q174)*AN174<O174,(D176-Q174)*AN174,O174)","v":28.448648648648678},4.872651666666667,2.4363258333333335]
[null,"Tropical Woody Savanna","Africa",20,{"$f":"B177&\":\"&C177&\":\"&D177","v":"Tropical Woody Savanna:Africa:20"},{"$f":"$B$94","v":50},0.4,{"$f":"IF((IF(D177<=Q177,D177*R177,IF(D177<=W177,Q177*R177+(D177-Q177)*Y177,IF(D177<=AE177,Q177*R177+(W177-Q177)*Y177+(D177-W177)*AG177))))<M177,(IF(D177<=Q177,D177*R177,IF(D177<=W177,Q177*R177+(D177-Q177)*Y177,IF(D177<=AE177,Q177*R177+(W177-Q177)*Y177+(D177-W177)*AG177)))),M177)","v":9},{"$f":"IF((IF(D177<=Q177,D177*S177,IF(D177<=W177,Q177*S177+(D177-Q177)*Z177,IF(D177<=AE177,Q177*S177+(W177-Q177)*Z177+(D177-W177)*AH177))))<N177,(IF(D177<=Q177,D177*S177,IF(D177<=W177,Q177*S177+(D177-Q177)*Z177,IF(D177<=AE177,Q177*S177+(W177-Q177)*Z177+(D177-W177)*AH177)))),N177)","v":3.5999999999999996},{"$f":"IF((D177-Q177)*AN177<O177,(D177-Q177)*AN177,O177)","v":0},1.0856999999999999,0.54284999999999994,{"$f":"'Reference Data'!E54","v":70},{"$f":"M177*P177","v":28},{"$f":"'Reference Data'!K54","v":0},0.4,20,{"$f":"0.5*(0.2+0.7)*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":0.44999999999999996},{"$f":"R177*P177","v":0.18},{"$f":"R177*(1+$P$177)*C_biomass*MM_CO2/MM_C","v":1.0856999999999997},{"$f":"Q177*R177","v":9},"IPCC 2006 Tropical Shrubland",100,0.9,{"$f":"X177*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":0.9},{"$f":"Y177*P177","v":0.36000000000000004},{"$f":"Y177*(1+P177)*C_biomass*MM_CO2/MM_C","v":2.1713999999999998},{"$f":"IF(U177+(W177-Q177)*Y177<M177,U177+(W177-Q177)*Y177,M177)","v":70},{"$f":"(AB177-U177)/Y177+Q177","v":87.777777777777771},"Table 4.9, IPCC 2006, Vol 4",null,null,null,null,null,null,null,null,50,{"$f":"O177/AM177","v":0}]
[null,"Tropical Woody Savanna","Africa",40,"Tropical Woody Savanna:Africa:40",50,{"$f":"IF(D178>F178,1,D178/F178)","v":0.8},{"$f":"IF((IF(D178<=Q177,D178*R177,IF(D178<=W177,Q177*R177+(D178-Q177)*Y177,IF(D178<=AE177,Q177*R177+(W177-Q177)*Y177+(D178-W177)*AG177))))<M177,(IF(D178<=Q177,D178*R177,IF(D178<=W177,Q177*R177+(D178-Q177)*Y177,IF(D178<=AE177,Q177*R177+(W177-Q177)*Y177+(D178-W177)*AG177)))),M177)","v":27},{"$f":"IF((IF(D178<=Q177,D178*S177,IF(D178<=W177,Q177*S177+(D178-Q177)*Z177,IF(D178<=AE177,Q177*S177+(W177-Q177)*Z177+(D178-W177)*AH177))))<N177,(IF(D178<=Q177,D178*S177,IF(D178<=W177,Q177*S177+(D178-Q177)*Z177,IF(D178<=AE177,Q177*S177+(W177-Q177)*Z177+(D178-W177)*AH177)))),N177)","v":10.8},{"$f":"IF((D178-Q177)*AN177<O177,(D178-Q177)*AN177,O177)","v":0},1.6285499999999997,0.81427499999999986]
[null,"Tropical Woody Savanna","Africa",100,"Tropical Woody Savanna:Africa:100",50,1,{"$f":"IF((IF(D179<=Q177,D179*R177,IF(D179<=W177,Q177*R177+(D179-Q177)*Y177,IF(D179<=AE177,Q177*R177+(W177-Q177)*Y177+(D179-W177)*AG177))))<M177,(IF(D179<=Q177,D179*R177,IF(D179<=W177,Q177*R177+(D179-Q177)*Y177,IF(D179<=AE177,Q177*R177+(W177-Q177)*Y177+(D179-W177)*AG177)))),M177)","v":70},{"$f":"IF((IF(D179<=Q177,D179*S177,IF(D179<=W177,Q177*S177+(D179-Q177)*Z177,IF(D179<=AE177,Q177*S177+(W177-Q177)*Z177+(D179-W177)*AH177))))<N177,(IF(D179<=Q177,D179*S177,IF(D179<=W177,Q177*S177+(D179-Q177)*Z177,IF(D179<=AE177,Q177*S177+(W177-Q177)*Z177+(D179-W177)*AH177)))),N177)","v":28},{"$f":"IF((D179-Q177)*AN177<O177,(D179-Q177)*AN177,O177)","v":0},1.6888666666666665,0.84443333333333326]
[null,"Tropical Woody Savanna","North America",20,"Tropical Woody Savanna:North America:20",50,0.4,{"$f":"IF((IF(D180<=Q180,D180*R180,IF(D180<=W180,Q180*R180+(D180-Q180)*Y180,IF(D180<=AE180,Q180*R180+(W180-Q180)*Y180+(D180-W180)*AG180))))<M180,(IF(D180<=Q180,D180*R180,IF(D180<=W180,Q180*R180+(D180-Q180)*Y180,IF(D180<=AE180,Q180*R180+(W180-Q180)*Y180+(D180-W180)*AG180)))),M180)","v":45.587259884572312},{"$f":"IF((IF(D180<=Q180,D180*S180,IF(D180<=W180,Q180*S180+(D180-Q180)*Z180,IF(D180<=AE180,Q180*S180+(W180-Q180)*Z180+(D180-W180)*AH180))))<N180,(IF(D180<=Q180,D180*S180,IF(D180<=W180,Q180*S180+(D180-Q180)*Z180,IF(D180<=AE180,Q180*S180+(W180-Q180)*Z180+(D180-W180)*AH180)))),N180)","v":25.678697562236195},{"$f":"IF((D180-Q180)*AN180<O180,(D180-Q180)*AN180,O180)","v":0},6.1407499999999979,3.070374999999999,{"$f":"'Reference Data'!E55","v":80},{"$f":"M180*P180","v":32},{"$f":"'Reference Data'!K55","v":0},0.4,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q180","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q180","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q180*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q180*R180","v":5.5872598845723136},"IPCC 2006 Tropical Shrubland",{"$f":"20+Q180","v":30},4,{"$f":"X180*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":4},{"$f":"Y180*P180","v":1.6},{"$f":"Y180*(1+P180)*C_biomass*MM_CO2/MM_C","v":9.6506666666666661},{"$f":"IF(U180+(W180-Q180)*Y180<M180,U180+(W180-Q180)*Y180,M180)","v":80},{"$f":"(AB180-U180)/Y180+Q180","v":28.60318502885692},"Table 4.9, IPCC 2006, Vol 4",100,1,{"$f":"AF180*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1},{"$f":"AG180*P180","v":0.4},{"$f":"AG180*(1+P180)*C_biomass*MM_CO2/MM_C","v":2.4126666666666665},{"$f":"IF(AB180+(AE180-W180)*AG180<M180,AB180+(AE180-W180)*AG180,M180)","v":80},{"$f":"(AJ180-AB180)/AG180+AC180","v":28.60318502885692},"IPCC 2006 Tropical Shrubland",50,{"$f":"O180/AM180","v":0}]
[null,"Tropical Woody Savanna","North America",40,"Tropical Woody Savanna:North America:40",50,0.8,{"$f":"IF((IF(D181<=Q180,D181*R180,IF(D181<=W180,Q180*R180+(D181-Q180)*Y180,IF(D181<=AE180,Q180*R180+(W180-Q180)*Y180+(D181-W180)*AG180))))<M180,(IF(D181<=Q180,D181*R180,IF(D181<=W180,Q180*R180+(D181-Q180)*Y180,IF(D181<=AE180,Q180*R180+(W180-Q180)*Y180+(D181-W180)*AG180)))),M180)","v":80},{"$f":"IF((IF(D181<=Q180,D181*S180,IF(D181<=W180,Q180*S180+(D181-Q180)*Z180,IF(D181<=AE180,Q180*S180+(W180-Q180)*Z180+(D181-W180)*AH180))))<N180,(IF(D181<=Q180,D181*S180,IF(D181<=W180,Q180*S180+(D181-Q180)*Z180,IF(D181<=AE180,Q180*S180+(W180-Q180)*Z180+(D181-W180)*AH180)))),N180)","v":32},{"$f":"IF((D181-Q180)*AN180<O180,(D181-Q180)*AN180,O180)","v":0},{"$f":"((H181+I181)*C_biomass+J181*C_litter)/D181*MM_CO2/MM_C","v":4.8253333333333339},{"$f":"K181*$L$114","v":2.412666666666667}]
[null,"Tropical Woody Savanna","North America",100,{"$f":"B182&\":\"&C182&\":\"&D182","v":"Tropical Woody Savanna:North America:100"},50,1,{"$f":"IF((IF(D182<=Q180,D182*R180,IF(D182<=W180,Q180*R180+(D182-Q180)*Y180,IF(D182<=AE180,Q180*R180+(W180-Q180)*Y180+(D182-W180)*AG180))))<M180,(IF(D182<=Q180,D182*R180,IF(D182<=W180,Q180*R180+(D182-Q180)*Y180,IF(D182<=AE180,Q180*R180+(W180-Q180)*Y180+(D182-W180)*AG180)))),M180)","v":80},{"$f":"IF((IF(D182<=Q180,D182*S180,IF(D182<=W180,Q180*S180+(D182-Q180)*Z180,IF(D182<=AE180,Q180*S180+(W180-Q180)*Z180+(D182-W180)*AH180))))<N180,(IF(D182<=Q180,D182*S180,IF(D182<=W180,Q180*S180+(D182-Q180)*Z180,IF(D182<=AE180,Q180*S180+(W180-Q180)*Z180+(D182-W180)*AH180)))),N180)","v":32},{"$f":"IF((D182-Q180)*AN180<O180,(D182-Q180)*AN180,O180)","v":0},1.9301333333333333,0.96506666666666663]
[null,"Tropical Woody Savanna","South America",20,"Tropical Woody Savanna:South America:20",50,0.4,{"$f":"IF((IF(D183<=Q183,D183*R183,IF(D183<=W183,Q183*R183+(D183-Q183)*Y183,IF(D183<=AE183,Q183*R183+(W183-Q183)*Y183+(D183-W183)*AG183))))<M183,(IF(D183<=Q183,D183*R183,IF(D183<=W183,Q183*R183+(D183-Q183)*Y183,IF(D183<=AE183,Q183*R183+(W183-Q183)*Y183+(D183-W183)*AG183)))),M183)","v":45.587259884572312},{"$f":"IF((IF(D183<=Q183,D183*S183,IF(D183<=W183,Q183*S183+(D183-Q183)*Z183,IF(D183<=AE183,Q183*S183+(W183-Q183)*Z183+(D183-W183)*AH183))))<N183,(IF(D183<=Q183,D183*S183,IF(D183<=W183,Q183*S183+(D183-Q183)*Z183,IF(D183<=AE183,Q183*S183+(W183-Q183)*Z183+(D183-W183)*AH183)))),N183)","v":25.678697562236195},{"$f":"IF((D183-Q183)*AN183<O183,(D183-Q183)*AN183,O183)","v":0},6.1407499999999979,3.070374999999999,{"$f":"'Reference Data'!E55","v":80},{"$f":"M183*P183","v":32},{"$f":"'Reference Data'!K55","v":0},0.4,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q183","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q183","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q183*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q183*R183","v":5.5872598845723136},"IPCC 2006 Tropical Shrubland",{"$f":"20+Q183","v":30},4,{"$f":"X183*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":4},{"$f":"Y183*P183","v":1.6},{"$f":"Y183*(1+P183)*C_biomass*MM_CO2/MM_C","v":9.6506666666666661},{"$f":"IF(U183+(W183-Q183)*Y183<M183,U183+(W183-Q183)*Y183,M183)","v":80},{"$f":"(AB183-U183)/Y183+Q183","v":28.60318502885692},"Table 4.9, IPCC 2006, Vol 4",100,1,{"$f":"AF183*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1},{"$f":"AG183*P183","v":0.4},{"$f":"AG183*(1+P183)*C_biomass*MM_CO2/MM_C","v":2.4126666666666665},{"$f":"IF(AB183+(AE183-W183)*AG183<M183,AB183+(AE183-W183)*AG183,M183)","v":80},{"$f":"(AJ183-AB183)/AG183+AC183","v":28.60318502885692},"IPCC 2006 Tropical Shrubland",50,{"$f":"O183/AM183","v":0}]
[null,"Tropical Woody Savanna","South America",40,"Tropical Woody Savanna:South America:40",50,0.8,{"$f":"IF((IF(D184<=Q183,D184*R183,IF(D184<=W183,Q183*R183+(D184-Q183)*Y183,IF(D184<=AE183,Q183*R183+(W183-Q183)*Y183+(D184-W183)*AG183))))<M183,(IF(D184<=Q183,D184*R183,IF(D184<=W183,Q183*R183+(D184-Q183)*Y183,IF(D184<=AE183,Q183*R183+(W183-Q183)*Y183+(D184-W183)*AG183)))),M183)","v":80},{"$f":"IF((IF(D184<=Q183,D184*S183,IF(D184<=W183,Q183*S183+(D184-Q183)*Z183,IF(D184<=AE183,Q183*S183+(W183-Q183)*Z183+(D184-W183)*AH183))))<N183,(IF(D184<=Q183,D184*S183,IF(D184<=W183,Q183*S183+(D184-Q183)*Z183,IF(D184<=AE183,Q183*S183+(W183-Q183)*Z183+(D184-W183)*AH183)))),N183)","v":32},{"$f":"IF((D184-Q183)*AN183<O183,(D184-Q183)*AN183,O183)","v":0},4.8253333333333339,2.412666666666667]
[null,"Tropical Woody Savanna","South America",100,"Tropical Woody Savanna:South America:100",50,1,{"$f":"IF((IF(D185<=Q183,D185*R183,IF(D185<=W183,Q183*R183+(D185-Q183)*Y183,IF(D185<=AE183,Q183*R183+(W183-Q183)*Y183+(D185-W183)*AG183))))<M183,(IF(D185<=Q183,D185*R183,IF(D185<=W183,Q183*R183+(D185-Q183)*Y183,IF(D185<=AE183,Q183*R183+(W183-Q183)*Y183+(D185-W183)*AG183)))),M183)","v":80},{"$f":"IF((IF(D185<=Q183,D185*S183,IF(D185<=W183,Q183*S183+(D185-Q183)*Z183,IF(D185<=AE183,Q183*S183+(W183-Q183)*Z183+(D185-W183)*AH183))))<N183,(IF(D185<=Q183,D185*S183,IF(D185<=W183,Q183*S183+(D185-Q183)*Z183,IF(D185<=AE183,Q183*S183+(W183-Q183)*Z183+(D185-W183)*AH183)))),N183)","v":32},{"$f":"IF((D185-Q183)*AN183<O183,(D185-Q183)*AN183,O183)","v":0},1.9301333333333333,0.96506666666666663]
[null,"Tropical Woody Savanna","Asia Continental",20,"Tropical Woody Savanna:Asia Continental:20",50,0.4,{"$f":"IF((IF(D186<=Q186,D186*R186,IF(D186<=W186,Q186*R186+(D186-Q186)*Y186,IF(D186<=AE186,Q186*R186+(W186-Q186)*Y186+(D186-W186)*AG186))))<M186,(IF(D186<=Q186,D186*R186,IF(D186<=W186,Q186*R186+(D186-Q186)*Y186,IF(D186<=AE186,Q186*R186+(W186-Q186)*Y186+(D186-W186)*AG186)))),M186)","v":55.587259884572312},{"$f":"IF((IF(D186<=Q186,D186*S186,IF(D186<=W186,Q186*S186+(D186-Q186)*Z186,IF(D186<=AE186,Q186*S186+(W186-Q186)*Z186+(D186-W186)*AH186))))<N186,(IF(D186<=Q186,D186*S186,IF(D186<=W186,Q186*S186+(D186-Q186)*Z186,IF(D186<=AE186,Q186*S186+(W186-Q186)*Z186+(D186-W186)*AH186)))),N186)","v":24},{"$f":"IF((D186-Q186)*AN186<O186,(D186-Q186)*AN186,O186)","v":0},6.8577688933873153,3.4288844466936577,{"$f":"'Reference Data'!E56","v":60},{"$f":"M186*P186","v":24},{"$f":"'Reference Data'!K56","v":0},0.4,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q186","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q186","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q186*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q186*R186","v":5.5872598845723136},"IPCC 2006 Tropical Shrubland",{"$f":"20+Q186","v":30},5,{"$f":"X186*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":5},{"$f":"Y186*P186","v":2},{"$f":"Y186*(1+P186)*C_biomass*MM_CO2/MM_C","v":12.063333333333333},{"$f":"IF(U186+(W186-Q186)*Y186<M186,U186+(W186-Q186)*Y186,M186)","v":60},{"$f":"(AB186-U186)/Y186+Q186","v":20.882548023085537},"Table 4.9, IPCC 2006, Vol 4",100,1.3,{"$f":"AF186*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.3},{"$f":"AG186*P186","v":0.52},{"$f":"AG186*(1+P186)*C_biomass*MM_CO2/MM_C","v":3.1364666666666658},{"$f":"IF(AB186+(AE186-W186)*AG186<M186,AB186+(AE186-W186)*AG186,M186)","v":60},{"$f":"(AJ186-AB186)/AG186+AC186","v":20.882548023085537},"IPCC 2006 Tropical Shrubland",50,{"$f":"O186/AM186","v":0}]
[null,"Tropical Woody Savanna","Asia Continental",40,"Tropical Woody Savanna:Asia Continental:40",50,0.8,{"$f":"IF((IF(D187<=Q186,D187*R186,IF(D187<=W186,Q186*R186+(D187-Q186)*Y186,IF(D187<=AE186,Q186*R186+(W186-Q186)*Y186+(D187-W186)*AG186))))<M186,(IF(D187<=Q186,D187*R186,IF(D187<=W186,Q186*R186+(D187-Q186)*Y186,IF(D187<=AE186,Q186*R186+(W186-Q186)*Y186+(D187-W186)*AG186)))),M186)","v":60},{"$f":"IF((IF(D187<=Q186,D187*S186,IF(D187<=W186,Q186*S186+(D187-Q186)*Z186,IF(D187<=AE186,Q186*S186+(W186-Q186)*Z186+(D187-W186)*AH186))))<N186,(IF(D187<=Q186,D187*S186,IF(D187<=W186,Q186*S186+(D187-Q186)*Z186,IF(D187<=AE186,Q186*S186+(W186-Q186)*Z186+(D187-W186)*AH186)))),N186)","v":24},{"$f":"IF((D187-Q186)*AN186<O186,(D187-Q186)*AN186,O186)","v":0},3.6189999999999998,1.8094999999999999]
[null,"Tropical Woody Savanna","Asia Continental",100,"Tropical Woody Savanna:Asia Continental:100",50,1,{"$f":"IF((IF(D188<=Q186,D188*R186,IF(D188<=W186,Q186*R186+(D188-Q186)*Y186,IF(D188<=AE186,Q186*R186+(W186-Q186)*Y186+(D188-W186)*AG186))))<M186,(IF(D188<=Q186,D188*R186,IF(D188<=W186,Q186*R186+(D188-Q186)*Y186,IF(D188<=AE186,Q186*R186+(W186-Q186)*Y186+(D188-W186)*AG186)))),M186)","v":60},{"$f":"IF((IF(D188<=Q186,D188*S186,IF(D188<=W186,Q186*S186+(D188-Q186)*Z186,IF(D188<=AE186,Q186*S186+(W186-Q186)*Z186+(D188-W186)*AH186))))<N186,(IF(D188<=Q186,D188*S186,IF(D188<=W186,Q186*S186+(D188-Q186)*Z186,IF(D188<=AE186,Q186*S186+(W186-Q186)*Z186+(D188-W186)*AH186)))),N186)","v":24},{"$f":"IF((D188-Q186)*AN186<O186,(D188-Q186)*AN186,O186)","v":0},1.4475999999999998,0.72379999999999989]
[null,"Tropical Woody Savanna","Asia Insular",20,"Tropical Woody Savanna:Asia Insular:20",50,0.4,{"$f":"IF((IF(D189<=Q189,D189*R189,IF(D189<=W189,Q189*R189+(D189-Q189)*Y189,IF(D189<=AE189,Q189*R189+(W189-Q189)*Y189+(D189-W189)*AG189))))<M189,(IF(D189<=Q189,D189*R189,IF(D189<=W189,Q189*R189+(D189-Q189)*Y189,IF(D189<=AE189,Q189*R189+(W189-Q189)*Y189+(D189-W189)*AG189)))),M189)","v":25.587259884572312},{"$f":"IF((IF(D189<=Q189,D189*S189,IF(D189<=W189,Q189*S189+(D189-Q189)*Z189,IF(D189<=AE189,Q189*S189+(W189-Q189)*Z189+(D189-W189)*AH189))))<N189,(IF(D189<=Q189,D189*S189,IF(D189<=W189,Q189*S189+(D189-Q189)*Z189,IF(D189<=AE189,Q189*S189+(W189-Q189)*Z189+(D189-W189)*AH189)))),N189)","v":17.678697562236195},{"$f":"IF((D189-Q189)*AN189<O189,(D189-Q189)*AN189,O189)","v":0},3.7280833333333327,1.8640416666666664,{"$f":"'Reference Data'!E57","v":70},{"$f":"M189*P189","v":28},{"$f":"'Reference Data'!K57","v":0},0.4,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$101)/Q189","v":0.55872598845723132},{"$f":"('Reference Data'!$D$101)/Q189","v":0.9678697562236197},{"$f":"('Reference Data'!$B$101+'Reference Data'!$D$101)*C_biomass/Q189*MM_CO2/MM_C","v":2.6308333333333334},{"$f":"Q189*R189","v":5.5872598845723136},"IPCC 2006 Tropical Shrubland",{"$f":"20+Q189","v":30},2,{"$f":"X189*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":2},{"$f":"Y189*P189","v":0.8},{"$f":"Y189*(1+P189)*C_biomass*MM_CO2/MM_C","v":4.825333333333333},{"$f":"IF(U189+(W189-Q189)*Y189<M189,U189+(W189-Q189)*Y189,M189)","v":45.587259884572312},{"$f":"(AB189-U189)/Y189+Q189","v":30},"Table 4.9, IPCC 2006, Vol 4",100,1,{"$f":"AF189*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1},{"$f":"AG189*P189","v":0.4},{"$f":"AG189*(1+P189)*C_biomass*MM_CO2/MM_C","v":2.4126666666666665},{"$f":"IF(AB189+(AE189-W189)*AG189<M189,AB189+(AE189-W189)*AG189,M189)","v":70},{"$f":"(AJ189-AB189)/AG189+AC189","v":54.412740115427688},"IPCC 2006 Tropical Shrubland",50,{"$f":"O189/AM189","v":0}]
[null,"Tropical Woody Savanna","Asia Insular",40,"Tropical Woody Savanna:Asia Insular:40",50,0.8,{"$f":"IF((IF(D190<=Q189,D190*R189,IF(D190<=W189,Q189*R189+(D190-Q189)*Y189,IF(D190<=AE189,Q189*R189+(W189-Q189)*Y189+(D190-W189)*AG189))))<M189,(IF(D190<=Q189,D190*R189,IF(D190<=W189,Q189*R189+(D190-Q189)*Y189,IF(D190<=AE189,Q189*R189+(W189-Q189)*Y189+(D190-W189)*AG189)))),M189)","v":55.587259884572312},{"$f":"IF((IF(D190<=Q189,D190*S189,IF(D190<=W189,Q189*S189+(D190-Q189)*Z189,IF(D190<=AE189,Q189*S189+(W189-Q189)*Z189+(D190-W189)*AH189))))<N189,(IF(D190<=Q189,D190*S189,IF(D190<=W189,Q189*S189+(D190-Q189)*Z189,IF(D190<=AE189,Q189*S189+(W189-Q189)*Z189+(D190-W189)*AH189)))),N189)","v":28},{"$f":"IF((D190-Q189)*AN189<O189,(D190-Q189)*AN189,O189)","v":0},3.6012177800269907,1.8006088900134953]
[null,"Tropical Woody Savanna","Asia Insular",100,"Tropical Woody Savanna:Asia Insular:100",50,1,{"$f":"IF((IF(D191<=Q189,D191*R189,IF(D191<=W189,Q189*R189+(D191-Q189)*Y189,IF(D191<=AE189,Q189*R189+(W189-Q189)*Y189+(D191-W189)*AG189))))<M189,(IF(D191<=Q189,D191*R189,IF(D191<=W189,Q189*R189+(D191-Q189)*Y189,IF(D191<=AE189,Q189*R189+(W189-Q189)*Y189+(D191-W189)*AG189)))),M189)","v":70},{"$f":"IF((IF(D191<=Q189,D191*S189,IF(D191<=W189,Q189*S189+(D191-Q189)*Z189,IF(D191<=AE189,Q189*S189+(W189-Q189)*Z189+(D191-W189)*AH189))))<N189,(IF(D191<=Q189,D191*S189,IF(D191<=W189,Q189*S189+(D191-Q189)*Z189,IF(D191<=AE189,Q189*S189+(W189-Q189)*Z189+(D191-W189)*AH189)))),N189)","v":28},{"$f":"IF((D191-Q189)*AN189<O189,(D191-Q189)*AN189,O189)","v":0},1.6888666666666665,0.84443333333333326]
["Temperate","Temperate Oceanic Forest","Europe",20,{"$f":"B192&\":\"&C192&\":\"&D192","v":"Temperate Oceanic Forest:Europe:20"},{"$f":"$B$91","v":75},0.26666666666666666,{"$f":"IF((IF(D192<=Q192,D192*R192,IF(D192<=W192,Q192*R192+(D192-Q192)*Y192,IF(D192<=AE192,Q192*R192+(W192-Q192)*Y192+(D192-W192)*AG192))))<M192,(IF(D192<=Q192,D192*R192,IF(D192<=W192,Q192*R192+(D192-Q192)*Y192,IF(D192<=AE192,Q192*R192+(W192-Q192)*Y192+(D192-W192)*AG192)))),M192)","v":27.143337066069428},{"$f":"IF((IF(D192<=Q192,D192*S192,IF(D192<=W192,Q192*S192+(D192-Q192)*Z192,IF(D192<=AE192,Q192*S192+(W192-Q192)*Z192+(D192-W192)*AH192))))<N192,(IF(D192<=Q192,D192*S192,IF(D192<=W192,Q192*S192+(D192-Q192)*Z192,IF(D192<=AE192,Q192*S192+(W192-Q192)*Z192+(D192-W192)*AH192)))),N192)","v":17.811343784994403},{"$f":"IF((D192-Q192)*AN192<O192,(D192-Q192)*AN192,O192)","v":6.6875675675675685},4.3272349999999991,2.1636174999999995,{"$f":"'Reference Data'!E60","v":120},{"$f":"M192*P192","v":32.400000000000006},{"$f":"'Reference Data'!K60","v":33.43783783783784},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"'Reference Data'!$B$99/Q192","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q192","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q192*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q192*R192","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q192","v":30},2.2999999999999998,{"$f":"X192*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":2.2999999999999998},{"$f":"Y192*P192","v":0.621},{"$f":"Y192*(1+P192)*C_biomass*MM_CO2/MM_C","v":5.033856666666666},{"$f":"IF(U192+(W192-Q192)*Y192<M192,U192+(W192-Q192)*Y192,M192)","v":50.143337066069428},{"$f":"(AB192-U192)/Y192+Q192","v":30},"Table 4.9, IPCC 2006, Vol 4",100,2.2999999999999998,{"$f":"AF192*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":2.2999999999999998},{"$f":"AG192*P192","v":0.621},{"$f":"AG192*(1+P192)*C_biomass*MM_CO2/MM_C","v":5.033856666666666},{"$f":"IF(AB192+(AE192-W192)*AG192<M192,AB192+(AE192-W192)*AG192,M192)","v":120},{"$f":"(AJ192-AB192)/AG192+AC192","v":60.372462145187214},"IPCC 2006",50,{"$f":"O192/AM192","v":0.66875675675675683}]
[null,"Temperate Oceanic Forest","Europe",40,{"$f":"B193&\":\"&C193&\":\"&D193","v":"Temperate Oceanic Forest:Europe:40"},{"$f":"$B$91","v":75},{"$f":"IF(D193>F193,1,D193/F193)","v":0.53333333333333333},{"$f":"IF((IF(D193<=Q192,D193*R192,IF(D193<=W192,Q192*R192+(D193-Q192)*Y192,IF(D193<=AE192,Q192*R192+(W192-Q192)*Y192+(D193-W192)*AG192))))<M192,(IF(D193<=Q192,D193*R192,IF(D193<=W192,Q192*R192+(D193-Q192)*Y192,IF(D193<=AE192,Q192*R192+(W192-Q192)*Y192+(D193-W192)*AG192)))),M192)","v":73.143337066069421},{"$f":"IF((IF(D193<=Q192,D193*S192,IF(D193<=W192,Q192*S192+(D193-Q192)*Z192,IF(D193<=AE192,Q192*S192+(W192-Q192)*Z192+(D193-W192)*AH192))))<N192,(IF(D193<=Q192,D193*S192,IF(D193<=W192,Q192*S192+(D193-Q192)*Z192,IF(D193<=AE192,Q192*S192+(W192-Q192)*Z192+(D193-W192)*AH192)))),N192)","v":30.231343784994401},{"$f":"IF((D193-Q192)*AN192<O192,(D193-Q192)*AN192,O192)","v":20.062702702702705},{"$f":"((H193+I193)*C_biomass+J193*C_litter)/D193*MM_CO2/MM_C","v":5.1341858333333334},2.5670929166666667]
[null,"Temperate Oceanic Forest","Europe",100,"Temperate Oceanic Forest:Europe:100",75,1,{"$f":"IF((IF(D194<=Q192,D194*R192,IF(D194<=W192,Q192*R192+(D194-Q192)*Y192,IF(D194<=AE192,Q192*R192+(W192-Q192)*Y192+(D194-W192)*AG192))))<M192,(IF(D194<=Q192,D194*R192,IF(D194<=W192,Q192*R192+(D194-Q192)*Y192,IF(D194<=AE192,Q192*R192+(W192-Q192)*Y192+(D194-W192)*AG192)))),M192)","v":120},{"$f":"IF((IF(D194<=Q192,D194*S192,IF(D194<=W192,Q192*S192+(D194-Q192)*Z192,IF(D194<=AE192,Q192*S192+(W192-Q192)*Z192+(D194-W192)*AH192))))<N192,(IF(D194<=Q192,D194*S192,IF(D194<=W192,Q192*S192+(D194-Q192)*Z192,IF(D194<=AE192,Q192*S192+(W192-Q192)*Z192+(D194-W192)*AH192)))),N192)","v":32.400000000000006},{"$f":"IF((D194-Q192)*AN192<O192,(D194-Q192)*AN192,O192)","v":33.43783783783784},3.08,1.54]
[null,"Temperate Oceanic Forest","North America",20,"Temperate Oceanic Forest:North America:20",75,0.26666666666666666,{"$f":"IF((IF(D195<=Q195,D195*R195,IF(D195<=W195,Q195*R195+(D195-Q195)*Y195,IF(D195<=AE195,Q195*R195+(W195-Q195)*Y195+(D195-W195)*AG195))))<M195,(IF(D195<=Q195,D195*R195,IF(D195<=W195,Q195*R195+(D195-Q195)*Y195,IF(D195<=AE195,Q195*R195+(W195-Q195)*Y195+(D195-W195)*AG195)))),M195)","v":154.14333706606942},{"$f":"IF((IF(D195<=Q195,D195*S195,IF(D195<=W195,Q195*S195+(D195-Q195)*Z195,IF(D195<=AE195,Q195*S195+(W195-Q195)*Z195+(D195-W195)*AH195))))<N195,(IF(D195<=Q195,D195*S195,IF(D195<=W195,Q195*S195+(D195-Q195)*Z195,IF(D195<=AE195,Q195*S195+(W195-Q195)*Z195+(D195-W195)*AH195)))),N195)","v":52.101343784994413},{"$f":"IF((D195-Q195)*AN195<O195,(D195-Q195)*AN195,O195)","v":6.5113513513513466},18.213103333333333,9.1065516666666664,{"$f":"'Reference Data'!E61","v":660},{"$f":"M195*P195","v":178.20000000000002},{"$f":"'Reference Data'!K61","v":32.556756756756734},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"'Reference Data'!$B$99/Q195","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q195","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q195*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q195*R195","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q195","v":30},15,{"$f":"X195*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":15},{"$f":"Y195*P195","v":4.0500000000000007},{"$f":"Y195*(1+P195)*C_biomass*MM_CO2/MM_C","v":32.829500000000003},{"$f":"IF(U195+(W195-Q195)*Y195<M195,U195+(W195-Q195)*Y195,M195)","v":304.14333706606942},{"$f":"(AB195-U195)/Y195+Q195","v":30},"Table 4.9, IPCC 2006, Vol 4",100,15,{"$f":"AF195*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":15},{"$f":"AG195*P195","v":4.0500000000000007},{"$f":"AG195*(1+P195)*C_biomass*MM_CO2/MM_C","v":32.829500000000003},{"$f":"IF(AB195+(AE195-W195)*AG195<M195,AB195+(AE195-W195)*AG195,M195)","v":660},{"$f":"(AJ195-AB195)/AG195+AC195","v":53.723777528928707},"IPCC 2006",50,{"$f":"O195/AM195","v":0.65113513513513466}]
[null,"Temperate Oceanic Forest","North America",40,"Temperate Oceanic Forest:North America:40",75,0.53333333333333333,{"$f":"IF((IF(D196<=Q195,D196*R195,IF(D196<=W195,Q195*R195+(D196-Q195)*Y195,IF(D196<=AE195,Q195*R195+(W195-Q195)*Y195+(D196-W195)*AG195))))<M195,(IF(D196<=Q195,D196*R195,IF(D196<=W195,Q195*R195+(D196-Q195)*Y195,IF(D196<=AE195,Q195*R195+(W195-Q195)*Y195+(D196-W195)*AG195)))),M195)","v":454.14333706606942},{"$f":"IF((IF(D196<=Q195,D196*S195,IF(D196<=W195,Q195*S195+(D196-Q195)*Z195,IF(D196<=AE195,Q195*S195+(W195-Q195)*Z195+(D196-W195)*AH195))))<N195,(IF(D196<=Q195,D196*S195,IF(D196<=W195,Q195*S195+(D196-Q195)*Z195,IF(D196<=AE195,Q195*S195+(W195-Q195)*Z195+(D196-W195)*AH195)))),N195)","v":133.10134378499441},{"$f":"IF((D196-Q195)*AN195<O195,(D196-Q195)*AN195,O195)","v":19.534054054054039},25.962988333333328,12.981494166666664]
[null,"Temperate Oceanic Forest","North America",100,"Temperate Oceanic Forest:North America:100",75,1,{"$f":"IF((IF(D197<=Q195,D197*R195,IF(D197<=W195,Q195*R195+(D197-Q195)*Y195,IF(D197<=AE195,Q195*R195+(W195-Q195)*Y195+(D197-W195)*AG195))))<M195,(IF(D197<=Q195,D197*R195,IF(D197<=W195,Q195*R195+(D197-Q195)*Y195,IF(D197<=AE195,Q195*R195+(W195-Q195)*Y195+(D197-W195)*AG195)))),M195)","v":660},{"$f":"IF((IF(D197<=Q195,D197*S195,IF(D197<=W195,Q195*S195+(D197-Q195)*Z195,IF(D197<=AE195,Q195*S195+(W195-Q195)*Z195+(D197-W195)*AH195))))<N195,(IF(D197<=Q195,D197*S195,IF(D197<=W195,Q195*S195+(D197-Q195)*Z195,IF(D197<=AE195,Q195*S195+(W195-Q195)*Z195+(D197-W195)*AH195)))),N195)","v":178.20000000000002},{"$f":"IF((D197-Q195)*AN195<O195,(D197-Q195)*AN195,O195)","v":32.556756756756734},14.886666666666665,7.4433333333333325]
[null,"Temperate Oceanic Forest","New Zealand",20,"Temperate Oceanic Forest:New Zealand:20",75,0.26666666666666666,{"$f":"IF((IF(D198<=Q198,D198*R198,IF(D198<=W198,Q198*R198+(D198-Q198)*Y198,IF(D198<=AE198,Q198*R198+(W198-Q198)*Y198+(D198-W198)*AG198))))<M198,(IF(D198<=Q198,D198*R198,IF(D198<=W198,Q198*R198+(D198-Q198)*Y198,IF(D198<=AE198,Q198*R198+(W198-Q198)*Y198+(D198-W198)*AG198)))),M198)","v":39.143337066069428},{"$f":"IF((IF(D198<=Q198,D198*S198,IF(D198<=W198,Q198*S198+(D198-Q198)*Z198,IF(D198<=AE198,Q198*S198+(W198-Q198)*Z198+(D198-W198)*AH198))))<N198,(IF(D198<=Q198,D198*S198,IF(D198<=W198,Q198*S198+(D198-Q198)*Z198,IF(D198<=AE198,Q198*S198+(W198-Q198)*Z198+(D198-W198)*AH198)))),N198)","v":21.051343784994401},{"$f":"IF((D198-Q198)*AN198<O198,(D198-Q198)*AN198,O198)","v":6.549189189189196},5.6310283333333331,2.8155141666666665,{"$f":"'Reference Data'!E62","v":360},{"$f":"M198*P198","v":97.2},{"$f":"'Reference Data'!K62","v":32.745945945945984},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"'Reference Data'!$B$99/Q198","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q198","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q198*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q198*R198","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q198","v":30},3.5,{"$f":"X198*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":3.5},{"$f":"Y198*P198","v":0.94500000000000006},{"$f":"Y198*(1+P198)*C_biomass*MM_CO2/MM_C","v":7.6602166666666669},{"$f":"IF(U198+(W198-Q198)*Y198<M198,U198+(W198-Q198)*Y198,M198)","v":74.143337066069435},{"$f":"(AB198-U198)/Y198+Q198","v":30},"Table 4.9, IPCC 2006, Vol 4",100,3.5,{"$f":"AF198*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":3.5},{"$f":"AG198*P198","v":0.94500000000000006},{"$f":"AG198*(1+P198)*C_biomass*MM_CO2/MM_C","v":7.6602166666666669},{"$f":"IF(AB198+(AE198-W198)*AG198<M198,AB198+(AE198-W198)*AG198,M198)","v":319.14333706606942},{"$f":"(AJ198-AB198)/AG198+AC198","v":100},"IPCC 2006",50,{"$f":"O198/AM198","v":0.65491891891891962}]
[null,"Temperate Oceanic Forest","New Zealand",40,"Temperate Oceanic Forest:New Zealand:40",75,0.53333333333333333,{"$f":"IF((IF(D199<=Q198,D199*R198,IF(D199<=W198,Q198*R198+(D199-Q198)*Y198,IF(D199<=AE198,Q198*R198+(W198-Q198)*Y198+(D199-W198)*AG198))))<M198,(IF(D199<=Q198,D199*R198,IF(D199<=W198,Q198*R198+(D199-Q198)*Y198,IF(D199<=AE198,Q198*R198+(W198-Q198)*Y198+(D199-W198)*AG198)))),M198)","v":109.14333706606944},{"$f":"IF((IF(D199<=Q198,D199*S198,IF(D199<=W198,Q198*S198+(D199-Q198)*Z198,IF(D199<=AE198,Q198*S198+(W198-Q198)*Z198+(D199-W198)*AH198))))<N198,(IF(D199<=Q198,D199*S198,IF(D199<=W198,Q198*S198+(D199-Q198)*Z198,IF(D199<=AE198,Q198*S198+(W198-Q198)*Z198+(D199-W198)*AH198)))),N198)","v":39.951343784994407},{"$f":"IF((D199-Q198)*AN198<O198,(D199-Q198)*AN198,O198)","v":19.647567567567588},7.0898758333333349,3.5449379166666675]
[null,"Temperate Oceanic Forest","New Zealand",100,"Temperate Oceanic Forest:New Zealand:100",75,1,{"$f":"IF((IF(D200<=Q198,D200*R198,IF(D200<=W198,Q198*R198+(D200-Q198)*Y198,IF(D200<=AE198,Q198*R198+(W198-Q198)*Y198+(D200-W198)*AG198))))<M198,(IF(D200<=Q198,D200*R198,IF(D200<=W198,Q198*R198+(D200-Q198)*Y198,IF(D200<=AE198,Q198*R198+(W198-Q198)*Y198+(D200-W198)*AG198)))),M198)","v":319.14333706606942},{"$f":"IF((IF(D200<=Q198,D200*S198,IF(D200<=W198,Q198*S198+(D200-Q198)*Z198,IF(D200<=AE198,Q198*S198+(W198-Q198)*Z198+(D200-W198)*AH198))))<N198,(IF(D200<=Q198,D200*S198,IF(D200<=W198,Q198*S198+(D200-Q198)*Z198,IF(D200<=AE198,Q198*S198+(W198-Q198)*Z198+(D200-W198)*AH198)))),N198)","v":96.65134378499441},{"$f":"IF((D200-Q198)*AN198<O198,(D200-Q198)*AN198,O198)","v":32.745945945945984},7.6097816666666667,3.8048908333333333]
[null,"Temperate Oceanic Forest","South America",20,"Temperate Oceanic Forest:South America:20",75,0.26666666666666666,{"$f":"IF((IF(D201<=Q201,D201*R201,IF(D201<=W201,Q201*R201+(D201-Q201)*Y201,IF(D201<=AE201,Q201*R201+(W201-Q201)*Y201+(D201-W201)*AG201))))<M201,(IF(D201<=Q201,D201*R201,IF(D201<=W201,Q201*R201+(D201-Q201)*Y201,IF(D201<=AE201,Q201*R201+(W201-Q201)*Y201+(D201-W201)*AG201)))),M201)","v":60.643337066069428},{"$f":"IF((IF(D201<=Q201,D201*S201,IF(D201<=W201,Q201*S201+(D201-Q201)*Z201,IF(D201<=AE201,Q201*S201+(W201-Q201)*Z201+(D201-W201)*AH201))))<N201,(IF(D201<=Q201,D201*S201,IF(D201<=W201,Q201*S201+(D201-Q201)*Z201,IF(D201<=AE201,Q201*S201+(W201-Q201)*Z201+(D201-W201)*AH201)))),N201)","v":26.856343784994404},{"$f":"IF((D201-Q201)*AN201<O201,(D201-Q201)*AN201,O201)","v":6.788108108108112},8.0000158333333342,4.0000079166666671,{"$f":"'Reference Data'!E63","v":180},{"$f":"M201*P201","v":48.6},{"$f":"'Reference Data'!K63","v":33.94054054054056},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"'Reference Data'!$B$99/Q201","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q201","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q201*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q201*R201","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q201","v":30},5.65,{"$f":"X201*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":5.65},{"$f":"Y201*P201","v":1.5255000000000003},{"$f":"Y201*(1+P201)*C_biomass*MM_CO2/MM_C","v":12.365778333333333},{"$f":"IF(U201+(W201-Q201)*Y201<M201,U201+(W201-Q201)*Y201,M201)","v":117.14333706606944},{"$f":"(AB201-U201)/Y201+Q201","v":30},"Table 4.9, IPCC 2006, Vol 4",100,5.65,{"$f":"AF201*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":5.65},{"$f":"AG201*P201","v":1.5255000000000003},{"$f":"AG201*(1+P201)*C_biomass*MM_CO2/MM_C","v":12.365778333333333},{"$f":"IF(AB201+(AE201-W201)*AG201<M201,AB201+(AE201-W201)*AG201,M201)","v":180},{"$f":"(AJ201-AB201)/AG201+AC201","v":41.125073085651422},"IPCC 2006",50,{"$f":"O201/AM201","v":0.67881081081081118}]
[null,"Temperate Oceanic Forest","South America",40,"Temperate Oceanic Forest:South America:40",75,0.53333333333333333,{"$f":"IF((IF(D202<=Q201,D202*R201,IF(D202<=W201,Q201*R201+(D202-Q201)*Y201,IF(D202<=AE201,Q201*R201+(W201-Q201)*Y201+(D202-W201)*AG201))))<M201,(IF(D202<=Q201,D202*R201,IF(D202<=W201,Q201*R201+(D202-Q201)*Y201,IF(D202<=AE201,Q201*R201+(W201-Q201)*Y201+(D202-W201)*AG201)))),M201)","v":173.64333706606942},{"$f":"IF((IF(D202<=Q201,D202*S201,IF(D202<=W201,Q201*S201+(D202-Q201)*Z201,IF(D202<=AE201,Q201*S201+(W201-Q201)*Z201+(D202-W201)*AH201))))<N201,(IF(D202<=Q201,D202*S201,IF(D202<=W201,Q201*S201+(D202-Q201)*Z201,IF(D202<=AE201,Q201*S201+(W201-Q201)*Z201+(D202-W201)*AH201)))),N201)","v":48.6},{"$f":"IF((D202-Q201)*AN201<O201,(D202-Q201)*AN201,O201)","v":20.364324324324336},10.265673771929825,5.1328368859649123]
[null,"Temperate Oceanic Forest","South America",100,"Temperate Oceanic Forest:South America:100",75,1,{"$f":"IF((IF(D203<=Q201,D203*R201,IF(D203<=W201,Q201*R201+(D203-Q201)*Y201,IF(D203<=AE201,Q201*R201+(W201-Q201)*Y201+(D203-W201)*AG201))))<M201,(IF(D203<=Q201,D203*R201,IF(D203<=W201,Q201*R201+(D203-Q201)*Y201,IF(D203<=AE201,Q201*R201+(W201-Q201)*Y201+(D203-W201)*AG201)))),M201)","v":180},{"$f":"IF((IF(D203<=Q201,D203*S201,IF(D203<=W201,Q201*S201+(D203-Q201)*Z201,IF(D203<=AE201,Q201*S201+(W201-Q201)*Z201+(D203-W201)*AH201))))<N201,(IF(D203<=Q201,D203*S201,IF(D203<=W201,Q201*S201+(D203-Q201)*Z201,IF(D203<=AE201,Q201*S201+(W201-Q201)*Z201+(D203-W201)*AH201)))),N201)","v":48.6},{"$f":"IF((D203-Q201)*AN201<O201,(D203-Q201)*AN201,O201)","v":33.94054054054056},4.3999999999999995,2.1999999999999997]
[null,"Temperate Continental Forest","Europe",20,{"$f":"B204&\":\"&C204&\":\"&D204","v":"Temperate Continental Forest:Europe:20"},{"$f":"$B$90","v":75},0.26666666666666666,{"$f":"IF((IF(D204<=Q204,D204*R204,IF(D204<=W204,Q204*R204+(D204-Q204)*Y204,IF(D204<=AE204,Q204*R204+(W204-Q204)*Y204+(D204-W204)*AG204))))<M204,(IF(D204<=Q204,D204*R204,IF(D204<=W204,Q204*R204+(D204-Q204)*Y204,IF(D204<=AE204,Q204*R204+(W204-Q204)*Y204+(D204-W204)*AG204)))),M204)","v":44.143337066069428},{"$f":"IF((IF(D204<=Q204,D204*S204,IF(D204<=W204,Q204*S204+(D204-Q204)*Z204,IF(D204<=AE204,Q204*S204+(W204-Q204)*Z204+(D204-W204)*AH204))))<N204,(IF(D204<=Q204,D204*S204,IF(D204<=W204,Q204*S204+(D204-Q204)*Z204,IF(D204<=AE204,Q204*S204+(W204-Q204)*Z204+(D204-W204)*AH204)))),N204)","v":22.401343784994403},{"$f":"IF((D204-Q204)*AN204<O204,(D204-Q204)*AN204,O204)","v":8.3091891891891887},6.2975733333333332,3.1487866666666666,{"$f":"'Reference Data'!E64","v":120},{"$f":"M204*P204","v":32.400000000000006},{"$f":"'Reference Data'!K64","v":41.545945945945945},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"'Reference Data'!$B$99/Q204","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q204","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q204*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q204*R204","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q204","v":30},4,{"$f":"X204*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":4},{"$f":"Y204*P204","v":1.08},{"$f":"Y204*(1+P204)*C_biomass*MM_CO2/MM_C","v":8.7545333333333328},{"$f":"IF(U204+(W204-Q204)*Y204<M204,U204+(W204-Q204)*Y204,M204)","v":84.143337066069435},{"$f":"(AB204-U204)/Y204+Q204","v":30},"Table 4.9, IPCC 2006, Vol 4",100,4,{"$f":"AF204*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":4},{"$f":"AG204*P204","v":1.08},{"$f":"AG204*(1+P204)*C_biomass*MM_CO2/MM_C","v":8.7545333333333328},{"$f":"IF(AB204+(AE204-W204)*AG204<M204,AB204+(AE204-W204)*AG204,M204)","v":120},{"$f":"(AJ204-AB204)/AG204+AC204","v":38.964165733482645},"IPCC 2006",50,{"$f":"O204/AM204","v":0.83091891891891889}]
[null,"Temperate Continental Forest","Europe",40,"Temperate Continental Forest:Europe:40",{"$f":"$B$90","v":75},{"$f":"IF(D205>F205,1,D205/F205)","v":0.53333333333333333},{"$f":"IF((IF(D205<=Q204,D205*R204,IF(D205<=W204,Q204*R204+(D205-Q204)*Y204,IF(D205<=AE204,Q204*R204+(W204-Q204)*Y204+(D205-W204)*AG204))))<M204,(IF(D205<=Q204,D205*R204,IF(D205<=W204,Q204*R204+(D205-Q204)*Y204,IF(D205<=AE204,Q204*R204+(W204-Q204)*Y204+(D205-W204)*AG204)))),M204)","v":120},{"$f":"IF((IF(D205<=Q204,D205*S204,IF(D205<=W204,Q204*S204+(D205-Q204)*Z204,IF(D205<=AE204,Q204*S204+(W204-Q204)*Z204+(D205-W204)*AH204))))<N204,(IF(D205<=Q204,D205*S204,IF(D205<=W204,Q204*S204+(D205-Q204)*Z204,IF(D205<=AE204,Q204*S204+(W204-Q204)*Z204+(D205-W204)*AH204)))),N204)","v":32.400000000000006},{"$f":"IF((D205-Q204)*AN204<O204,(D205-Q204)*AN204,O204)","v":24.927567567567568},7.4113599999999993,3.7056799999999996]
[null,"Temperate Continental Forest","Europe",100,"Temperate Continental Forest:Europe:100",75,1,{"$f":"IF((IF(D206<=Q204,D206*R204,IF(D206<=W204,Q204*R204+(D206-Q204)*Y204,IF(D206<=AE204,Q204*R204+(W204-Q204)*Y204+(D206-W204)*AG204))))<M204,(IF(D206<=Q204,D206*R204,IF(D206<=W204,Q204*R204+(D206-Q204)*Y204,IF(D206<=AE204,Q204*R204+(W204-Q204)*Y204+(D206-W204)*AG204)))),M204)","v":120},{"$f":"IF((IF(D206<=Q204,D206*S204,IF(D206<=W204,Q204*S204+(D206-Q204)*Z204,IF(D206<=AE204,Q204*S204+(W204-Q204)*Z204+(D206-W204)*AH204))))<N204,(IF(D206<=Q204,D206*S204,IF(D206<=W204,Q204*S204+(D206-Q204)*Z204,IF(D206<=AE204,Q204*S204+(W204-Q204)*Z204+(D206-W204)*AH204)))),N204)","v":32.400000000000006},{"$f":"IF((D206-Q204)*AN204<O204,(D206-Q204)*AN204,O204)","v":41.545945945945945},3.19,1.595]
[null,"Temperate Continental Forest","North America",20,"Temperate Continental Forest:North America:20",75,0.26666666666666666,{"$f":"IF((IF(D207<=Q207,D207*R207,IF(D207<=W207,Q207*R207+(D207-Q207)*Y207,IF(D207<=AE207,Q207*R207+(W207-Q207)*Y207+(D207-W207)*AG207))))<M207,(IF(D207<=Q207,D207*R207,IF(D207<=W207,Q207*R207+(D207-Q207)*Y207,IF(D207<=AE207,Q207*R207+(W207-Q207)*Y207+(D207-W207)*AG207)))),M207)","v":44.143337066069428},{"$f":"IF((IF(D207<=Q207,D207*S207,IF(D207<=W207,Q207*S207+(D207-Q207)*Z207,IF(D207<=AE207,Q207*S207+(W207-Q207)*Z207+(D207-W207)*AH207))))<N207,(IF(D207<=Q207,D207*S207,IF(D207<=W207,Q207*S207+(D207-Q207)*Z207,IF(D207<=AE207,Q207*S207+(W207-Q207)*Z207+(D207-W207)*AH207)))),N207)","v":22.401343784994403},{"$f":"IF((D207-Q207)*AN207<O207,(D207-Q207)*AN207,O207)","v":8.3259459459459499},6.2987099999999998,3.1493549999999999,{"$f":"'Reference Data'!E65","v":130},{"$f":"M207*P207","v":35.1},{"$f":"'Reference Data'!K65","v":41.629729729729746},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"'Reference Data'!$B$99/Q207","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q207","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q207*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q207*R207","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q207","v":30},4,{"$f":"X207*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":4},{"$f":"Y207*P207","v":1.08},{"$f":"Y207*(1+P207)*C_biomass*MM_CO2/MM_C","v":8.7545333333333328},{"$f":"IF(U207+(W207-Q207)*Y207<M207,U207+(W207-Q207)*Y207,M207)","v":84.143337066069435},{"$f":"(AB207-U207)/Y207+Q207","v":30},"Table 4.9, IPCC 2006, Vol 4",100,4,{"$f":"AF207*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":4},{"$f":"AG207*P207","v":1.08},{"$f":"AG207*(1+P207)*C_biomass*MM_CO2/MM_C","v":8.7545333333333328},{"$f":"IF(AB207+(AE207-W207)*AG207<M207,AB207+(AE207-W207)*AG207,M207)","v":130},{"$f":"(AJ207-AB207)/AG207+AC207","v":41.464165733482645},"IPCC 2006",50,{"$f":"O207/AM207","v":0.83259459459459495}]
[null,"Temperate Continental Forest","North America",40,"Temperate Continental Forest:North America:40",75,0.53333333333333333,{"$f":"IF((IF(D208<=Q207,D208*R207,IF(D208<=W207,Q207*R207+(D208-Q207)*Y207,IF(D208<=AE207,Q207*R207+(W207-Q207)*Y207+(D208-W207)*AG207))))<M207,(IF(D208<=Q207,D208*R207,IF(D208<=W207,Q207*R207+(D208-Q207)*Y207,IF(D208<=AE207,Q207*R207+(W207-Q207)*Y207+(D208-W207)*AG207)))),M207)","v":124.14333706606944},{"$f":"IF((IF(D208<=Q207,D208*S207,IF(D208<=W207,Q207*S207+(D208-Q207)*Z207,IF(D208<=AE207,Q207*S207+(W207-Q207)*Z207+(D208-W207)*AH207))))<N207,(IF(D208<=Q207,D208*S207,IF(D208<=W207,Q207*S207+(D208-Q207)*Z207,IF(D208<=AE207,Q207*S207+(W207-Q207)*Z207+(D208-W207)*AH207)))),N207)","v":35.1},{"$f":"IF((D208-Q207)*AN207<O207,(D208-Q207)*AN207,O207)","v":24.97783783783785},7.707898771929826,3.853949385964913]
[null,"Temperate Continental Forest","North America",100,"Temperate Continental Forest:North America:100",75,1,{"$f":"IF((IF(D209<=Q207,D209*R207,IF(D209<=W207,Q207*R207+(D209-Q207)*Y207,IF(D209<=AE207,Q207*R207+(W207-Q207)*Y207+(D209-W207)*AG207))))<M207,(IF(D209<=Q207,D209*R207,IF(D209<=W207,Q207*R207+(D209-Q207)*Y207,IF(D209<=AE207,Q207*R207+(W207-Q207)*Y207+(D209-W207)*AG207)))),M207)","v":130},{"$f":"IF((IF(D209<=Q207,D209*S207,IF(D209<=W207,Q207*S207+(D209-Q207)*Z207,IF(D209<=AE207,Q207*S207+(W207-Q207)*Z207+(D209-W207)*AH207))))<N207,(IF(D209<=Q207,D209*S207,IF(D209<=W207,Q207*S207+(D209-Q207)*Z207,IF(D209<=AE207,Q207*S207+(W207-Q207)*Z207+(D209-W207)*AH207)))),N207)","v":35.1},{"$f":"IF((D209-Q207)*AN207<O207,(D209-Q207)*AN207,O207)","v":41.629729729729746},3.41,1.7050000000000001]
[null,"Temperate Continental Forest","New Zealand",20,"Temperate Continental Forest:New Zealand:20",75,0.26666666666666666,{"$f":"IF((IF(D210<=Q210,D210*R210,IF(D210<=W210,Q210*R210+(D210-Q210)*Y210,IF(D210<=AE210,Q210*R210+(W210-Q210)*Y210+(D210-W210)*AG210))))<M210,(IF(D210<=Q210,D210*R210,IF(D210<=W210,Q210*R210+(D210-Q210)*Y210,IF(D210<=AE210,Q210*R210+(W210-Q210)*Y210+(D210-W210)*AG210)))),M210)","v":44.143337066069428},{"$f":"IF((IF(D210<=Q210,D210*S210,IF(D210<=W210,Q210*S210+(D210-Q210)*Z210,IF(D210<=AE210,Q210*S210+(W210-Q210)*Z210+(D210-W210)*AH210))))<N210,(IF(D210<=Q210,D210*S210,IF(D210<=W210,Q210*S210+(D210-Q210)*Z210,IF(D210<=AE210,Q210*S210+(W210-Q210)*Z210+(D210-W210)*AH210)))),N210)","v":22.401343784994403},{"$f":"IF((D210-Q210)*AN210<O210,(D210-Q210)*AN210,O210)","v":8.3091891891891887},6.2975733333333332,3.1487866666666666,{"$f":"'Reference Data'!E64","v":120},{"$f":"M210*P210","v":32.400000000000006},{"$f":"'Reference Data'!K64","v":41.545945945945945},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"'Reference Data'!$B$99/Q210","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q210","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q210*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q210*R210","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q210","v":30},4,{"$f":"X210*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":4},{"$f":"Y210*P210","v":1.08},{"$f":"Y210*(1+P210)*C_biomass*MM_CO2/MM_C","v":8.7545333333333328},{"$f":"IF(U210+(W210-Q210)*Y210<M210,U210+(W210-Q210)*Y210,M210)","v":84.143337066069435},{"$f":"(AB210-U210)/Y210+Q210","v":30},"Table 4.9, IPCC 2006, Vol 4",100,4,{"$f":"AF210*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":4},{"$f":"AG210*P210","v":1.08},{"$f":"AG210*(1+P210)*C_biomass*MM_CO2/MM_C","v":8.7545333333333328},{"$f":"IF(AB210+(AE210-W210)*AG210<M210,AB210+(AE210-W210)*AG210,M210)","v":120},{"$f":"(AJ210-AB210)/AG210+AC210","v":38.964165733482645},"IPCC 2006",50,{"$f":"O210/AM210","v":0.83091891891891889}]
[null,"Temperate Continental Forest","New Zealand",40,"Temperate Continental Forest:New Zealand:40",75,0.53333333333333333,{"$f":"IF((IF(D211<=Q210,D211*R210,IF(D211<=W210,Q210*R210+(D211-Q210)*Y210,IF(D211<=AE210,Q210*R210+(W210-Q210)*Y210+(D211-W210)*AG210))))<M210,(IF(D211<=Q210,D211*R210,IF(D211<=W210,Q210*R210+(D211-Q210)*Y210,IF(D211<=AE210,Q210*R210+(W210-Q210)*Y210+(D211-W210)*AG210)))),M210)","v":120},{"$f":"IF((IF(D211<=Q210,D211*S210,IF(D211<=W210,Q210*S210+(D211-Q210)*Z210,IF(D211<=AE210,Q210*S210+(W210-Q210)*Z210+(D211-W210)*AH210))))<N210,(IF(D211<=Q210,D211*S210,IF(D211<=W210,Q210*S210+(D211-Q210)*Z210,IF(D211<=AE210,Q210*S210+(W210-Q210)*Z210+(D211-W210)*AH210)))),N210)","v":32.400000000000006},{"$f":"IF((D211-Q210)*AN210<O210,(D211-Q210)*AN210,O210)","v":24.927567567567568},7.4113599999999993,3.7056799999999996]
[null,"Temperate Continental Forest","New Zealand",100,"Temperate Continental Forest:New Zealand:100",75,1,{"$f":"IF((IF(D212<=Q210,D212*R210,IF(D212<=W210,Q210*R210+(D212-Q210)*Y210,IF(D212<=AE210,Q210*R210+(W210-Q210)*Y210+(D212-W210)*AG210))))<M210,(IF(D212<=Q210,D212*R210,IF(D212<=W210,Q210*R210+(D212-Q210)*Y210,IF(D212<=AE210,Q210*R210+(W210-Q210)*Y210+(D212-W210)*AG210)))),M210)","v":120},{"$f":"IF((IF(D212<=Q210,D212*S210,IF(D212<=W210,Q210*S210+(D212-Q210)*Z210,IF(D212<=AE210,Q210*S210+(W210-Q210)*Z210+(D212-W210)*AH210))))<N210,(IF(D212<=Q210,D212*S210,IF(D212<=W210,Q210*S210+(D212-Q210)*Z210,IF(D212<=AE210,Q210*S210+(W210-Q210)*Z210+(D212-W210)*AH210)))),N210)","v":32.400000000000006},{"$f":"IF((D212-Q210)*AN210<O210,(D212-Q210)*AN210,O210)","v":41.545945945945945},3.19,1.595]
[null,"Temperate Continental Forest","South America",20,"Temperate Continental Forest:South America:20",75,0.26666666666666666,{"$f":"IF((IF(D213<=Q213,D213*R213,IF(D213<=W213,Q213*R213+(D213-Q213)*Y213,IF(D213<=AE213,Q213*R213+(W213-Q213)*Y213+(D213-W213)*AG213))))<M213,(IF(D213<=Q213,D213*R213,IF(D213<=W213,Q213*R213+(D213-Q213)*Y213,IF(D213<=AE213,Q213*R213+(W213-Q213)*Y213+(D213-W213)*AG213)))),M213)","v":44.143337066069428},{"$f":"IF((IF(D213<=Q213,D213*S213,IF(D213<=W213,Q213*S213+(D213-Q213)*Z213,IF(D213<=AE213,Q213*S213+(W213-Q213)*Z213+(D213-W213)*AH213))))<N213,(IF(D213<=Q213,D213*S213,IF(D213<=W213,Q213*S213+(D213-Q213)*Z213,IF(D213<=AE213,Q213*S213+(W213-Q213)*Z213+(D213-W213)*AH213)))),N213)","v":22.401343784994403},{"$f":"IF((D213-Q213)*AN213<O213,(D213-Q213)*AN213,O213)","v":8.3259459459459499},{"$f":"((H213+I213)*C_biomass+J213*C_litter)/D213*MM_CO2/MM_C","v":6.2987099999999998},{"$f":"K213*$L$114","v":3.1493549999999999},{"$f":"'Reference Data'!E65","v":130},{"$f":"M213*P213","v":35.1},{"$f":"'Reference Data'!K65","v":41.629729729729746},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"'Reference Data'!$B$99/Q213","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q213","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q213*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q213*R213","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q213","v":30},4,{"$f":"X213*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":4},{"$f":"Y213*P213","v":1.08},{"$f":"Y213*(1+P213)*C_biomass*MM_CO2/MM_C","v":8.7545333333333328},{"$f":"IF(U213+(W213-Q213)*Y213<M213,U213+(W213-Q213)*Y213,M213)","v":84.143337066069435},{"$f":"(AB213-U213)/Y213+Q213","v":30},"Table 4.9, IPCC 2006, Vol 4",100,4,{"$f":"AF213*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":4},{"$f":"AG213*P213","v":1.08},{"$f":"AG213*(1+P213)*C_biomass*MM_CO2/MM_C","v":8.7545333333333328},{"$f":"IF(AB213+(AE213-W213)*AG213<M213,AB213+(AE213-W213)*AG213,M213)","v":130},{"$f":"(AJ213-AB213)/AG213+AC213","v":41.464165733482645},"IPCC 2006",50,{"$f":"O213/AM213","v":0.83259459459459495}]
[null,"Temperate Continental Forest","South America",40,"Temperate Continental Forest:South America:40",75,0.53333333333333333,{"$f":"IF((IF(D214<=Q213,D214*R213,IF(D214<=W213,Q213*R213+(D214-Q213)*Y213,IF(D214<=AE213,Q213*R213+(W213-Q213)*Y213+(D214-W213)*AG213))))<M213,(IF(D214<=Q213,D214*R213,IF(D214<=W213,Q213*R213+(D214-Q213)*Y213,IF(D214<=AE213,Q213*R213+(W213-Q213)*Y213+(D214-W213)*AG213)))),M213)","v":124.14333706606944},{"$f":"IF((IF(D214<=Q213,D214*S213,IF(D214<=W213,Q213*S213+(D214-Q213)*Z213,IF(D214<=AE213,Q213*S213+(W213-Q213)*Z213+(D214-W213)*AH213))))<N213,(IF(D214<=Q213,D214*S213,IF(D214<=W213,Q213*S213+(D214-Q213)*Z213,IF(D214<=AE213,Q213*S213+(W213-Q213)*Z213+(D214-W213)*AH213)))),N213)","v":35.1},{"$f":"IF((D214-Q213)*AN213<O213,(D214-Q213)*AN213,O213)","v":24.97783783783785},7.707898771929826,3.853949385964913]
[null,"Temperate Continental Forest","South America",100,"Temperate Continental Forest:South America:100",75,1,{"$f":"IF((IF(D215<=Q213,D215*R213,IF(D215<=W213,Q213*R213+(D215-Q213)*Y213,IF(D215<=AE213,Q213*R213+(W213-Q213)*Y213+(D215-W213)*AG213))))<M213,(IF(D215<=Q213,D215*R213,IF(D215<=W213,Q213*R213+(D215-Q213)*Y213,IF(D215<=AE213,Q213*R213+(W213-Q213)*Y213+(D215-W213)*AG213)))),M213)","v":130},{"$f":"IF((IF(D215<=Q213,D215*S213,IF(D215<=W213,Q213*S213+(D215-Q213)*Z213,IF(D215<=AE213,Q213*S213+(W213-Q213)*Z213+(D215-W213)*AH213))))<N213,(IF(D215<=Q213,D215*S213,IF(D215<=W213,Q213*S213+(D215-Q213)*Z213,IF(D215<=AE213,Q213*S213+(W213-Q213)*Z213+(D215-W213)*AH213)))),N213)","v":35.1},{"$f":"IF((D215-Q213)*AN213<O213,(D215-Q213)*AN213,O213)","v":41.629729729729746},3.41,1.7050000000000001]
[null,"Temperate Mountain System","Europe",20,{"$f":"B216&\":\"&C216&\":\"&D216","v":"Temperate Mountain System:Europe:20"},{"$f":"$B$93","v":75},0.26666666666666666,{"$f":"IF((IF(D216<=Q216,D216*R216,IF(D216<=W216,Q216*R216+(D216-Q216)*Y216,IF(D216<=AE216,Q216*R216+(W216-Q216)*Y216+(D216-W216)*AG216))))<M216,(IF(D216<=Q216,D216*R216,IF(D216<=W216,Q216*R216+(D216-Q216)*Y216,IF(D216<=AE216,Q216*R216+(W216-Q216)*Y216+(D216-W216)*AG216)))),M216)","v":34.143337066069428},{"$f":"IF((IF(D216<=Q216,D216*S216,IF(D216<=W216,Q216*S216+(D216-Q216)*Z216,IF(D216<=AE216,Q216*S216+(W216-Q216)*Z216+(D216-W216)*AH216))))<N216,(IF(D216<=Q216,D216*S216,IF(D216<=W216,Q216*S216+(D216-Q216)*Z216,IF(D216<=AE216,Q216*S216+(W216-Q216)*Z216+(D216-W216)*AH216)))),N216)","v":19.701343784994403},{"$f":"IF((D216-Q216)*AN216<O216,(D216-Q216)*AN216,O216)","v":8.3259459459459499},{"$f":"((H216+I216)*C_biomass+J216*C_litter)/D216*MM_CO2/MM_C","v":5.204393333333333},2.6021966666666665,{"$f":"'Reference Data'!E66","v":130},{"$f":"M216*P216","v":35.1},{"$f":"'Reference Data'!K66","v":41.629729729729746},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"'Reference Data'!$B$99/Q216","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q216","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q216*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q216*R216","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q216","v":30},3,{"$f":"X216*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":3},{"$f":"Y216*P216","v":0.81},{"$f":"Y216*(1+P216)*C_biomass*MM_CO2/MM_C","v":6.5659000000000001},{"$f":"IF(U216+(W216-Q216)*Y216<M216,U216+(W216-Q216)*Y216,M216)","v":64.143337066069435},{"$f":"(AB216-U216)/Y216+Q216","v":30.000000000000004},"Table 4.9, IPCC 2006, Vol 4",100,3,{"$f":"AF216*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":3},{"$f":"AG216*P216","v":0.81},{"$f":"AG216*(1+P216)*C_biomass*MM_CO2/MM_C","v":6.5659000000000001},{"$f":"IF(AB216+(AE216-W216)*AG216<M216,AB216+(AE216-W216)*AG216,M216)","v":130},{"$f":"(AJ216-AB216)/AG216+AC216","v":51.952220977976857},"IPCC 2006",50,{"$f":"O216/AM216","v":0.83259459459459495}]
[null,"Temperate Mountain System","Europe",40,"Temperate Mountain System:Europe:40",{"$f":"$B$93","v":75},{"$f":"IF(D217>F217,1,D217/F217)","v":0.53333333333333333},{"$f":"IF((IF(D217<=Q216,D217*R216,IF(D217<=W216,Q216*R216+(D217-Q216)*Y216,IF(D217<=AE216,Q216*R216+(W216-Q216)*Y216+(D217-W216)*AG216))))<M216,(IF(D217<=Q216,D217*R216,IF(D217<=W216,Q216*R216+(D217-Q216)*Y216,IF(D217<=AE216,Q216*R216+(W216-Q216)*Y216+(D217-W216)*AG216)))),M216)","v":94.143337066069435},{"$f":"IF((IF(D217<=Q216,D217*S216,IF(D217<=W216,Q216*S216+(D217-Q216)*Z216,IF(D217<=AE216,Q216*S216+(W216-Q216)*Z216+(D217-W216)*AH216))))<N216,(IF(D217<=Q216,D217*S216,IF(D217<=W216,Q216*S216+(D217-Q216)*Z216,IF(D217<=AE216,Q216*S216+(W216-Q216)*Z216+(D217-W216)*AH216)))),N216)","v":35.1},{"$f":"IF((D217-Q216)*AN216<O216,(D217-Q216)*AN216,O216)","v":24.97783783783785},6.4153987719298255,3.2076993859649128]
[null,"Temperate Mountain System","Europe",100,"Temperate Mountain System:Europe:100",75,1,{"$f":"IF((IF(D218<=Q216,D218*R216,IF(D218<=W216,Q216*R216+(D218-Q216)*Y216,IF(D218<=AE216,Q216*R216+(W216-Q216)*Y216+(D218-W216)*AG216))))<M216,(IF(D218<=Q216,D218*R216,IF(D218<=W216,Q216*R216+(D218-Q216)*Y216,IF(D218<=AE216,Q216*R216+(W216-Q216)*Y216+(D218-W216)*AG216)))),M216)","v":130},{"$f":"IF((IF(D218<=Q216,D218*S216,IF(D218<=W216,Q216*S216+(D218-Q216)*Z216,IF(D218<=AE216,Q216*S216+(W216-Q216)*Z216+(D218-W216)*AH216))))<N216,(IF(D218<=Q216,D218*S216,IF(D218<=W216,Q216*S216+(D218-Q216)*Z216,IF(D218<=AE216,Q216*S216+(W216-Q216)*Z216+(D218-W216)*AH216)))),N216)","v":35.1},{"$f":"IF((D218-Q216)*AN216<O216,(D218-Q216)*AN216,O216)","v":41.629729729729746},3.41,1.7050000000000001]
[null,"Temperate Mountain System","North America",20,"Temperate Mountain System:North America:20",75,0.26666666666666666,{"$f":"IF((IF(D219<=Q219,D219*R219,IF(D219<=W219,Q219*R219+(D219-Q219)*Y219,IF(D219<=AE219,Q219*R219+(W219-Q219)*Y219+(D219-W219)*AG219))))<M219,(IF(D219<=Q219,D219*R219,IF(D219<=W219,Q219*R219+(D219-Q219)*Y219,IF(D219<=AE219,Q219*R219+(W219-Q219)*Y219+(D219-W219)*AG219)))),M219)","v":34.143337066069428},{"$f":"IF((IF(D219<=Q219,D219*S219,IF(D219<=W219,Q219*S219+(D219-Q219)*Z219,IF(D219<=AE219,Q219*S219+(W219-Q219)*Z219+(D219-W219)*AH219))))<N219,(IF(D219<=Q219,D219*S219,IF(D219<=W219,Q219*S219+(D219-Q219)*Z219,IF(D219<=AE219,Q219*S219+(W219-Q219)*Z219+(D219-W219)*AH219)))),N219)","v":19.701343784994403},{"$f":"IF((D219-Q219)*AN219<O219,(D219-Q219)*AN219,O219)","v":8.3259459459459499},5.204393333333333,2.6021966666666665,{"$f":"'Reference Data'!E67","v":130},{"$f":"M219*P219","v":35.1},{"$f":"'Reference Data'!K67","v":41.629729729729746},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"'Reference Data'!$B$99/Q219","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q219","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q219*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q219*R219","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q219","v":30},3,{"$f":"X219*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":3},{"$f":"Y219*P219","v":0.81},{"$f":"Y219*(1+P219)*C_biomass*MM_CO2/MM_C","v":6.5659000000000001},{"$f":"IF(U219+(W219-Q219)*Y219<M219,U219+(W219-Q219)*Y219,M219)","v":64.143337066069435},{"$f":"(AB219-U219)/Y219+Q219","v":30.000000000000004},"Table 4.9, IPCC 2006, Vol 4",100,3,{"$f":"AF219*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":3},{"$f":"AG219*P219","v":0.81},{"$f":"AG219*(1+P219)*C_biomass*MM_CO2/MM_C","v":6.5659000000000001},{"$f":"IF(AB219+(AE219-W219)*AG219<M219,AB219+(AE219-W219)*AG219,M219)","v":130},{"$f":"(AJ219-AB219)/AG219+AC219","v":51.952220977976857},"IPCC 2006",50,{"$f":"O219/AM219","v":0.83259459459459495}]
[null,"Temperate Mountain System","North America",40,"Temperate Mountain System:North America:40",75,0.53333333333333333,{"$f":"IF((IF(D220<=Q219,D220*R219,IF(D220<=W219,Q219*R219+(D220-Q219)*Y219,IF(D220<=AE219,Q219*R219+(W219-Q219)*Y219+(D220-W219)*AG219))))<M219,(IF(D220<=Q219,D220*R219,IF(D220<=W219,Q219*R219+(D220-Q219)*Y219,IF(D220<=AE219,Q219*R219+(W219-Q219)*Y219+(D220-W219)*AG219)))),M219)","v":94.143337066069435},{"$f":"IF((IF(D220<=Q219,D220*S219,IF(D220<=W219,Q219*S219+(D220-Q219)*Z219,IF(D220<=AE219,Q219*S219+(W219-Q219)*Z219+(D220-W219)*AH219))))<N219,(IF(D220<=Q219,D220*S219,IF(D220<=W219,Q219*S219+(D220-Q219)*Z219,IF(D220<=AE219,Q219*S219+(W219-Q219)*Z219+(D220-W219)*AH219)))),N219)","v":35.1},{"$f":"IF((D220-Q219)*AN219<O219,(D220-Q219)*AN219,O219)","v":24.97783783783785},6.4153987719298255,3.2076993859649128]
[null,"Temperate Mountain System","North America",100,"Temperate Mountain System:North America:100",75,1,{"$f":"IF((IF(D221<=Q219,D221*R219,IF(D221<=W219,Q219*R219+(D221-Q219)*Y219,IF(D221<=AE219,Q219*R219+(W219-Q219)*Y219+(D221-W219)*AG219))))<M219,(IF(D221<=Q219,D221*R219,IF(D221<=W219,Q219*R219+(D221-Q219)*Y219,IF(D221<=AE219,Q219*R219+(W219-Q219)*Y219+(D221-W219)*AG219)))),M219)","v":130},{"$f":"IF((IF(D221<=Q219,D221*S219,IF(D221<=W219,Q219*S219+(D221-Q219)*Z219,IF(D221<=AE219,Q219*S219+(W219-Q219)*Z219+(D221-W219)*AH219))))<N219,(IF(D221<=Q219,D221*S219,IF(D221<=W219,Q219*S219+(D221-Q219)*Z219,IF(D221<=AE219,Q219*S219+(W219-Q219)*Z219+(D221-W219)*AH219)))),N219)","v":35.1},{"$f":"IF((D221-Q219)*AN219<O219,(D221-Q219)*AN219,O219)","v":41.629729729729746},3.41,1.7050000000000001]
[null,"Temperate Mountain System","New Zealand",20,"Temperate Mountain System:New Zealand:20",75,0.26666666666666666,{"$f":"IF((IF(D222<=Q222,D222*R222,IF(D222<=W222,Q222*R222+(D222-Q222)*Y222,IF(D222<=AE222,Q222*R222+(W222-Q222)*Y222+(D222-W222)*AG222))))<M222,(IF(D222<=Q222,D222*R222,IF(D222<=W222,Q222*R222+(D222-Q222)*Y222,IF(D222<=AE222,Q222*R222+(W222-Q222)*Y222+(D222-W222)*AG222)))),M222)","v":34.143337066069428},{"$f":"IF((IF(D222<=Q222,D222*S222,IF(D222<=W222,Q222*S222+(D222-Q222)*Z222,IF(D222<=AE222,Q222*S222+(W222-Q222)*Z222+(D222-W222)*AH222))))<N222,(IF(D222<=Q222,D222*S222,IF(D222<=W222,Q222*S222+(D222-Q222)*Z222,IF(D222<=AE222,Q222*S222+(W222-Q222)*Z222+(D222-W222)*AH222)))),N222)","v":19.701343784994403},{"$f":"IF((D222-Q222)*AN222<O222,(D222-Q222)*AN222,O222)","v":8.3259459459459499},5.204393333333333,2.6021966666666665,{"$f":"'Reference Data'!E66","v":130},{"$f":"M222*P222","v":35.1},{"$f":"'Reference Data'!K66","v":41.629729729729746},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"'Reference Data'!$B$99/Q222","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q222","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q222*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q222*R222","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q222","v":30},3,{"$f":"X222*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":3},{"$f":"Y222*P222","v":0.81},{"$f":"Y222*(1+P222)*C_biomass*MM_CO2/MM_C","v":6.5659000000000001},{"$f":"IF(U222+(W222-Q222)*Y222<M222,U222+(W222-Q222)*Y222,M222)","v":64.143337066069435},{"$f":"(AB222-U222)/Y222+Q222","v":30.000000000000004},"Table 4.9, IPCC 2006, Vol 4",100,3,{"$f":"AF222*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":3},{"$f":"AG222*P222","v":0.81},{"$f":"AG222*(1+P222)*C_biomass*MM_CO2/MM_C","v":6.5659000000000001},{"$f":"IF(AB222+(AE222-W222)*AG222<M222,AB222+(AE222-W222)*AG222,M222)","v":130},{"$f":"(AJ222-AB222)/AG222+AC222","v":51.952220977976857},"IPCC 2006",50,{"$f":"O222/AM222","v":0.83259459459459495}]
[null,"Temperate Mountain System","New Zealand",40,"Temperate Mountain System:New Zealand:40",75,0.53333333333333333,{"$f":"IF((IF(D223<=Q222,D223*R222,IF(D223<=W222,Q222*R222+(D223-Q222)*Y222,IF(D223<=AE222,Q222*R222+(W222-Q222)*Y222+(D223-W222)*AG222))))<M222,(IF(D223<=Q222,D223*R222,IF(D223<=W222,Q222*R222+(D223-Q222)*Y222,IF(D223<=AE222,Q222*R222+(W222-Q222)*Y222+(D223-W222)*AG222)))),M222)","v":94.143337066069435},{"$f":"IF((IF(D223<=Q222,D223*S222,IF(D223<=W222,Q222*S222+(D223-Q222)*Z222,IF(D223<=AE222,Q222*S222+(W222-Q222)*Z222+(D223-W222)*AH222))))<N222,(IF(D223<=Q222,D223*S222,IF(D223<=W222,Q222*S222+(D223-Q222)*Z222,IF(D223<=AE222,Q222*S222+(W222-Q222)*Z222+(D223-W222)*AH222)))),N222)","v":35.1},{"$f":"IF((D223-Q222)*AN222<O222,(D223-Q222)*AN222,O222)","v":24.97783783783785},6.4153987719298255,3.2076993859649128]
[null,"Temperate Mountain System","New Zealand",100,"Temperate Mountain System:New Zealand:100",75,1,{"$f":"IF((IF(D224<=Q222,D224*R222,IF(D224<=W222,Q222*R222+(D224-Q222)*Y222,IF(D224<=AE222,Q222*R222+(W222-Q222)*Y222+(D224-W222)*AG222))))<M222,(IF(D224<=Q222,D224*R222,IF(D224<=W222,Q222*R222+(D224-Q222)*Y222,IF(D224<=AE222,Q222*R222+(W222-Q222)*Y222+(D224-W222)*AG222)))),M222)","v":130},{"$f":"IF((IF(D224<=Q222,D224*S222,IF(D224<=W222,Q222*S222+(D224-Q222)*Z222,IF(D224<=AE222,Q222*S222+(W222-Q222)*Z222+(D224-W222)*AH222))))<N222,(IF(D224<=Q222,D224*S222,IF(D224<=W222,Q222*S222+(D224-Q222)*Z222,IF(D224<=AE222,Q222*S222+(W222-Q222)*Z222+(D224-W222)*AH222)))),N222)","v":35.1},{"$f":"IF((D224-Q222)*AN222<O222,(D224-Q222)*AN222,O222)","v":41.629729729729746},3.41,1.7050000000000001]
[null,"Temperate Mountain System","South America",20,"Temperate Mountain System:South America:20",75,0.26666666666666666,{"$f":"IF((IF(D225<=Q225,D225*R225,IF(D225<=W225,Q225*R225+(D225-Q225)*Y225,IF(D225<=AE225,Q225*R225+(W225-Q225)*Y225+(D225-W225)*AG225))))<M225,(IF(D225<=Q225,D225*R225,IF(D225<=W225,Q225*R225+(D225-Q225)*Y225,IF(D225<=AE225,Q225*R225+(W225-Q225)*Y225+(D225-W225)*AG225)))),M225)","v":34.143337066069428},{"$f":"IF((IF(D225<=Q225,D225*S225,IF(D225<=W225,Q225*S225+(D225-Q225)*Z225,IF(D225<=AE225,Q225*S225+(W225-Q225)*Z225+(D225-W225)*AH225))))<N225,(IF(D225<=Q225,D225*S225,IF(D225<=W225,Q225*S225+(D225-Q225)*Z225,IF(D225<=AE225,Q225*S225+(W225-Q225)*Z225+(D225-W225)*AH225)))),N225)","v":19.701343784994403},{"$f":"IF((D225-Q225)*AN225<O225,(D225-Q225)*AN225,O225)","v":8.3259459459459499},5.204393333333333,2.6021966666666665,{"$f":"'Reference Data'!E67","v":130},{"$f":"M225*P225","v":35.1},{"$f":"'Reference Data'!K67","v":41.629729729729746},0.27,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"'Reference Data'!$B$99/Q225","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q225","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q225*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q225*R225","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q225","v":30},3,{"$f":"X225*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":3},{"$f":"Y225*P225","v":0.81},{"$f":"Y225*(1+P225)*C_biomass*MM_CO2/MM_C","v":6.5659000000000001},{"$f":"IF(U225+(W225-Q225)*Y225<M225,U225+(W225-Q225)*Y225,M225)","v":64.143337066069435},{"$f":"(AB225-U225)/Y225+Q225","v":30.000000000000004},"Table 4.9, IPCC 2006, Vol 4",100,3,{"$f":"AF225*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":3},{"$f":"AG225*P225","v":0.81},{"$f":"AG225*(1+P225)*C_biomass*MM_CO2/MM_C","v":6.5659000000000001},{"$f":"IF(AB225+(AE225-W225)*AG225<M225,AB225+(AE225-W225)*AG225,M225)","v":130},{"$f":"(AJ225-AB225)/AG225+AC225","v":51.952220977976857},"IPCC 2006",50,{"$f":"O225/AM225","v":0.83259459459459495}]
[null,"Temperate Mountain System","South America",40,"Temperate Mountain System:South America:40",75,0.53333333333333333,{"$f":"IF((IF(D226<=Q225,D226*R225,IF(D226<=W225,Q225*R225+(D226-Q225)*Y225,IF(D226<=AE225,Q225*R225+(W225-Q225)*Y225+(D226-W225)*AG225))))<M225,(IF(D226<=Q225,D226*R225,IF(D226<=W225,Q225*R225+(D226-Q225)*Y225,IF(D226<=AE225,Q225*R225+(W225-Q225)*Y225+(D226-W225)*AG225)))),M225)","v":94.143337066069435},{"$f":"IF((IF(D226<=Q225,D226*S225,IF(D226<=W225,Q225*S225+(D226-Q225)*Z225,IF(D226<=AE225,Q225*S225+(W225-Q225)*Z225+(D226-W225)*AH225))))<N225,(IF(D226<=Q225,D226*S225,IF(D226<=W225,Q225*S225+(D226-Q225)*Z225,IF(D226<=AE225,Q225*S225+(W225-Q225)*Z225+(D226-W225)*AH225)))),N225)","v":35.1},{"$f":"IF((D226-Q225)*AN225<O225,(D226-Q225)*AN225,O225)","v":24.97783783783785},6.4153987719298255,3.2076993859649128]
[null,"Temperate Mountain System","South America",100,"Temperate Mountain System:South America:100",75,1,{"$f":"IF((IF(D227<=Q225,D227*R225,IF(D227<=W225,Q225*R225+(D227-Q225)*Y225,IF(D227<=AE225,Q225*R225+(W225-Q225)*Y225+(D227-W225)*AG225))))<M225,(IF(D227<=Q225,D227*R225,IF(D227<=W225,Q225*R225+(D227-Q225)*Y225,IF(D227<=AE225,Q225*R225+(W225-Q225)*Y225+(D227-W225)*AG225)))),M225)","v":130},{"$f":"IF((IF(D227<=Q225,D227*S225,IF(D227<=W225,Q225*S225+(D227-Q225)*Z225,IF(D227<=AE225,Q225*S225+(W225-Q225)*Z225+(D227-W225)*AH225))))<N225,(IF(D227<=Q225,D227*S225,IF(D227<=W225,Q225*S225+(D227-Q225)*Z225,IF(D227<=AE225,Q225*S225+(W225-Q225)*Z225+(D227-W225)*AH225)))),N225)","v":35.1},{"$f":"IF((D227-Q225)*AN225<O225,(D227-Q225)*AN225,O225)","v":41.629729729729746},3.41,1.7050000000000001]
[null,"Temperate Shrub or Grassland","Europe",20,"Temperate Shrub or Grassland:Europe:20",{"$f":"$B$92","v":75},0.26666666666666666,{"$f":"IF((IF(D228<=Q228,D228*R228,IF(D228<=W228,Q228*R228+(D228-Q228)*Y228,IF(D228<=AE228,Q228*R228+(W228-Q228)*Y228+(D228-W228)*AG228))))<M228,(IF(D228<=Q228,D228*R228,IF(D228<=W228,Q228*R228+(D228-Q228)*Y228,IF(D228<=AE228,Q228*R228+(W228-Q228)*Y228+(D228-W228)*AG228)))),M228)","v":4.1433370660694298},{"$f":"IF((IF(D228<=Q228,D228*S228,IF(D228<=W228,Q228*S228+(D228-Q228)*Z228,IF(D228<=AE228,Q228*S228+(W228-Q228)*Z228+(D228-W228)*AH228))))<N228,(IF(D228<=Q228,D228*S228,IF(D228<=W228,Q228*S228+(D228-Q228)*Z228,IF(D228<=AE228,Q228*S228+(W228-Q228)*Z228+(D228-W228)*AH228)))),N228)","v":11.601343784994402},{"$f":"IF((D228-Q228)*AN228<O228,(D228-Q228)*AN228,O228)","v":0},{"$f":"((H228+I228)*C_biomass+J228*C_litter)/D228*MM_CO2/MM_C","v":1.3566666666666667},{"$f":"K228*$L$114","v":0.67833333333333334},{"$f":"'Reference Data'!$H$69/C_biomass/(1+$P$228)","v":4.1433370660694298},{"$f":"$M$228*$P$228","v":11.601343784994402},null,{"$f":"'Reference Data'!C69","v":2.8},10,{"$f":"'Reference Data'!$B$99/Q225","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q225","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q225*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q228*R228","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q228","v":30},0,{"$f":"X228*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":0},{"$f":"Y228*P228","v":0},{"$f":"Y228*(1+P228)*C_biomass*MM_CO2/MM_C","v":0},{"$f":"IF(U228+(W228-Q228)*Y228<M228,U228+(W228-Q228)*Y228,M228)","v":4.1433370660694298},{"$f":"IF(AB228=U228,0,(AB228-U228)/Y228+Q228)","v":0},null,100,0,{"$f":"AF228*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":0},{"$f":"AG228*P228","v":0},{"$f":"AG228*(1+P228)*C_biomass*MM_CO2/MM_C","v":0},{"$f":"IF(AB228+(AE228-W228)*AG228<M228,AB228+(AE228-W228)*AG228,M228)","v":4.1433370660694298},{"$f":"IF(AJ228=AB228,0,(AJ228-AB228)/AG228+AC228)","v":0},null,50,{"$f":"O228/AM228","v":0}]
[null,"Temperate Shrub or Grassland","Europe",40,"Temperate Shrub or Grassland:Europe:40",{"$f":"$B$92","v":75},{"$f":"IF(D229>F229,1,D229/F229)","v":0.53333333333333333},{"$f":"IF((IF(D229<=Q228,D229*R228,IF(D229<=W228,Q228*R228+(D229-Q228)*Y228,IF(D229<=AE228,Q228*R228+(W228-Q228)*Y228+(D229-W228)*AG228))))<M228,(IF(D229<=Q228,D229*R228,IF(D229<=W228,Q228*R228+(D229-Q228)*Y228,IF(D229<=AE228,Q228*R228+(W228-Q228)*Y228+(D229-W228)*AG228)))),M228)","v":4.1433370660694298},{"$f":"IF((IF(D229<=Q228,D229*S228,IF(D229<=W228,Q228*S228+(D229-Q228)*Z228,IF(D229<=AE228,Q228*S228+(W228-Q228)*Z228+(D229-W228)*AH228))))<N228,(IF(D229<=Q228,D229*S228,IF(D229<=W228,Q228*S228+(D229-Q228)*Z228,IF(D229<=AE228,Q228*S228+(W228-Q228)*Z228+(D229-W228)*AH228)))),N228)","v":11.601343784994402},{"$f":"IF((D229-Q228)*AN228<O228,(D229-Q228)*AN228,O228)","v":0},{"$f":"((H229+I229)*C_biomass+J229*C_litter)/D229*MM_CO2/MM_C","v":0.67833333333333334},0.33916666666666667]
[null,"Temperate Shrub or Grassland","Europe",100,"Temperate Shrub or Grassland:Europe:100",75,1,{"$f":"IF((IF(D230<=Q228,D230*R228,IF(D230<=W228,Q228*R228+(D230-Q228)*Y228,IF(D230<=AE228,Q228*R228+(W228-Q228)*Y228+(D230-W228)*AG228))))<M228,(IF(D230<=Q228,D230*R228,IF(D230<=W228,Q228*R228+(D230-Q228)*Y228,IF(D230<=AE228,Q228*R228+(W228-Q228)*Y228+(D230-W228)*AG228)))),M228)","v":4.1433370660694298},{"$f":"IF((IF(D230<=Q228,D230*S228,IF(D230<=W228,Q228*S228+(D230-Q228)*Z228,IF(D230<=AE228,Q228*S228+(W228-Q228)*Z228+(D230-W228)*AH228))))<N228,(IF(D230<=Q228,D230*S228,IF(D230<=W228,Q228*S228+(D230-Q228)*Z228,IF(D230<=AE228,Q228*S228+(W228-Q228)*Z228+(D230-W228)*AH228)))),N228)","v":11.601343784994402},{"$f":"IF((D230-Q228)*AN228<O228,(D230-Q228)*AN228,O228)","v":0},0.27133333333333337,0.13566666666666669]
[null,"Temperate Shrub or Grassland","North America",20,"Temperate Shrub or Grassland:North America:20",75,0.26666666666666666,{"$f":"IF((IF(D231<=Q231,D231*R231,IF(D231<=W231,Q231*R231+(D231-Q231)*Y231,IF(D231<=AE231,Q231*R231+(W231-Q231)*Y231+(D231-W231)*AG231))))<M231,(IF(D231<=Q231,D231*R231,IF(D231<=W231,Q231*R231+(D231-Q231)*Y231,IF(D231<=AE231,Q231*R231+(W231-Q231)*Y231+(D231-W231)*AG231)))),M231)","v":4.1433370660694298},{"$f":"IF((IF(D231<=Q231,D231*S231,IF(D231<=W231,Q231*S231+(D231-Q231)*Z231,IF(D231<=AE231,Q231*S231+(W231-Q231)*Z231+(D231-W231)*AH231))))<N231,(IF(D231<=Q231,D231*S231,IF(D231<=W231,Q231*S231+(D231-Q231)*Z231,IF(D231<=AE231,Q231*S231+(W231-Q231)*Z231+(D231-W231)*AH231)))),N231)","v":11.601343784994402},{"$f":"IF((D231-Q231)*AN231<O231,(D231-Q231)*AN231,O231)","v":0},1.3566666666666667,0.67833333333333334,{"$f":"'Reference Data'!$H$69/C_biomass/(1+$P$228)","v":4.1433370660694298},{"$f":"$M$228*$P$228","v":11.601343784994402},null,{"$f":"P228","v":2.8},10,{"$f":"'Reference Data'!$B$99/Q231","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q231","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q231*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q231*R231","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q231","v":30},0,{"$f":"X231*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":0},{"$f":"Y231*P231","v":0},{"$f":"Y231*(1+P231)*C_biomass*MM_CO2/MM_C","v":0},{"$f":"IF(U231+(W231-Q231)*Y231<M231,U231+(W231-Q231)*Y231,M231)","v":4.1433370660694298},{"$f":"IF(AB231=U231,0,(AB231-U231)/Y231+Q231)","v":0},null,100,0,{"$f":"AF231*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":0},{"$f":"AG231*P231","v":0},{"$f":"AG231*(1+P231)*C_biomass*MM_CO2/MM_C","v":0},{"$f":"IF(AB231+(AE231-W231)*AG231<M231,AB231+(AE231-W231)*AG231,M231)","v":4.1433370660694298},{"$f":"IF(AJ231=AB231,0,(AJ231-AB231)/AG231+AC231)","v":0},null,50,{"$f":"O231/AM231","v":0}]
[null,"Temperate Shrub or Grassland","North America",40,"Temperate Shrub or Grassland:North America:40",75,0.53333333333333333,{"$f":"IF((IF(D232<=Q231,D232*R231,IF(D232<=W231,Q231*R231+(D232-Q231)*Y231,IF(D232<=AE231,Q231*R231+(W231-Q231)*Y231+(D232-W231)*AG231))))<M231,(IF(D232<=Q231,D232*R231,IF(D232<=W231,Q231*R231+(D232-Q231)*Y231,IF(D232<=AE231,Q231*R231+(W231-Q231)*Y231+(D232-W231)*AG231)))),M231)","v":4.1433370660694298},{"$f":"IF((IF(D232<=Q231,D232*S231,IF(D232<=W231,Q231*S231+(D232-Q231)*Z231,IF(D232<=AE231,Q231*S231+(W231-Q231)*Z231+(D232-W231)*AH231))))<N231,(IF(D232<=Q231,D232*S231,IF(D232<=W231,Q231*S231+(D232-Q231)*Z231,IF(D232<=AE231,Q231*S231+(W231-Q231)*Z231+(D232-W231)*AH231)))),N231)","v":11.601343784994402},{"$f":"IF((D232-Q231)*AN231<O231,(D232-Q231)*AN231,O231)","v":0},0.67833333333333334,0.33916666666666667]
[null,"Temperate Shrub or Grassland","North America",100,"Temperate Shrub or Grassland:North America:100",75,1,{"$f":"IF((IF(D233<=Q231,D233*R231,IF(D233<=W231,Q231*R231+(D233-Q231)*Y231,IF(D233<=AE231,Q231*R231+(W231-Q231)*Y231+(D233-W231)*AG231))))<M231,(IF(D233<=Q231,D233*R231,IF(D233<=W231,Q231*R231+(D233-Q231)*Y231,IF(D233<=AE231,Q231*R231+(W231-Q231)*Y231+(D233-W231)*AG231)))),M231)","v":4.1433370660694298},{"$f":"IF((IF(D233<=Q231,D233*S231,IF(D233<=W231,Q231*S231+(D233-Q231)*Z231,IF(D233<=AE231,Q231*S231+(W231-Q231)*Z231+(D233-W231)*AH231))))<N231,(IF(D233<=Q231,D233*S231,IF(D233<=W231,Q231*S231+(D233-Q231)*Z231,IF(D233<=AE231,Q231*S231+(W231-Q231)*Z231+(D233-W231)*AH231)))),N231)","v":11.601343784994402},{"$f":"IF((D233-Q231)*AN231<O231,(D233-Q231)*AN231,O231)","v":0},0.27133333333333337,0.13566666666666669]
[null,"Temperate Shrub or Grassland","New Zealand",20,"Temperate Shrub or Grassland:New Zealand:20",75,0.26666666666666666,{"$f":"IF((IF(D234<=Q234,D234*R234,IF(D234<=W234,Q234*R234+(D234-Q234)*Y234,IF(D234<=AE234,Q234*R234+(W234-Q234)*Y234+(D234-W234)*AG234))))<M234,(IF(D234<=Q234,D234*R234,IF(D234<=W234,Q234*R234+(D234-Q234)*Y234,IF(D234<=AE234,Q234*R234+(W234-Q234)*Y234+(D234-W234)*AG234)))),M234)","v":4.1433370660694298},{"$f":"IF((IF(D234<=Q234,D234*S234,IF(D234<=W234,Q234*S234+(D234-Q234)*Z234,IF(D234<=AE234,Q234*S234+(W234-Q234)*Z234+(D234-W234)*AH234))))<N234,(IF(D234<=Q234,D234*S234,IF(D234<=W234,Q234*S234+(D234-Q234)*Z234,IF(D234<=AE234,Q234*S234+(W234-Q234)*Z234+(D234-W234)*AH234)))),N234)","v":11.601343784994402},{"$f":"IF((D234-Q234)*AN234<O234,(D234-Q234)*AN234,O234)","v":0},1.3566666666666667,0.67833333333333334,{"$f":"'Reference Data'!$H$69/C_biomass/(1+$P$228)","v":4.1433370660694298},{"$f":"$M$228*$P$228","v":11.601343784994402},null,{"$f":"P228","v":2.8},10,{"$f":"'Reference Data'!$B$99/Q234","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q234","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q234*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q234*R234","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q234","v":30},0,{"$f":"X234*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":0},{"$f":"Y234*P234","v":0},{"$f":"Y234*(1+P234)*C_biomass*MM_CO2/MM_C","v":0},{"$f":"IF(U234+(W234-Q234)*Y234<M234,U234+(W234-Q234)*Y234,M234)","v":4.1433370660694298},{"$f":"IF(AB234=U234,0,(AB234-U234)/Y234+Q234)","v":0},null,100,0,{"$f":"AF234*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":0},{"$f":"AG234*P234","v":0},{"$f":"AG234*(1+P234)*C_biomass*MM_CO2/MM_C","v":0},{"$f":"IF(AB234+(AE234-W234)*AG234<M234,AB234+(AE234-W234)*AG234,M234)","v":4.1433370660694298},{"$f":"IF(AJ234=AB234,0,(AJ234-AB234)/AG234+AC234)","v":0},null,50,{"$f":"O234/AM234","v":0}]
[null,"Temperate Shrub or Grassland","New Zealand",40,"Temperate Shrub or Grassland:New Zealand:40",75,0.53333333333333333,{"$f":"IF((IF(D235<=Q234,D235*R234,IF(D235<=W234,Q234*R234+(D235-Q234)*Y234,IF(D235<=AE234,Q234*R234+(W234-Q234)*Y234+(D235-W234)*AG234))))<M234,(IF(D235<=Q234,D235*R234,IF(D235<=W234,Q234*R234+(D235-Q234)*Y234,IF(D235<=AE234,Q234*R234+(W234-Q234)*Y234+(D235-W234)*AG234)))),M234)","v":4.1433370660694298},{"$f":"IF((IF(D235<=Q234,D235*S234,IF(D235<=W234,Q234*S234+(D235-Q234)*Z234,IF(D235<=AE234,Q234*S234+(W234-Q234)*Z234+(D235-W234)*AH234))))<N234,(IF(D235<=Q234,D235*S234,IF(D235<=W234,Q234*S234+(D235-Q234)*Z234,IF(D235<=AE234,Q234*S234+(W234-Q234)*Z234+(D235-W234)*AH234)))),N234)","v":11.601343784994402},{"$f":"IF((D235-Q234)*AN234<O234,(D235-Q234)*AN234,O234)","v":0},0.67833333333333334,0.33916666666666667]
[null,"Temperate Shrub or Grassland","New Zealand",100,"Temperate Shrub or Grassland:New Zealand:100",75,1,{"$f":"IF((IF(D236<=Q234,D236*R234,IF(D236<=W234,Q234*R234+(D236-Q234)*Y234,IF(D236<=AE234,Q234*R234+(W234-Q234)*Y234+(D236-W234)*AG234))))<M234,(IF(D236<=Q234,D236*R234,IF(D236<=W234,Q234*R234+(D236-Q234)*Y234,IF(D236<=AE234,Q234*R234+(W234-Q234)*Y234+(D236-W234)*AG234)))),M234)","v":4.1433370660694298},{"$f":"IF((IF(D236<=Q234,D236*S234,IF(D236<=W234,Q234*S234+(D236-Q234)*Z234,IF(D236<=AE234,Q234*S234+(W234-Q234)*Z234+(D236-W234)*AH234))))<N234,(IF(D236<=Q234,D236*S234,IF(D236<=W234,Q234*S234+(D236-Q234)*Z234,IF(D236<=AE234,Q234*S234+(W234-Q234)*Z234+(D236-W234)*AH234)))),N234)","v":11.601343784994402},{"$f":"IF((D236-Q234)*AN234<O234,(D236-Q234)*AN234,O234)","v":0},0.27133333333333337,0.13566666666666669]
[null,"Temperate Shrub or Grassland","South America",20,"Temperate Shrub or Grassland:South America:20",75,0.26666666666666666,{"$f":"IF((IF(D237<=Q237,D237*R237,IF(D237<=W237,Q237*R237+(D237-Q237)*Y237,IF(D237<=AE237,Q237*R237+(W237-Q237)*Y237+(D237-W237)*AG237))))<M237,(IF(D237<=Q237,D237*R237,IF(D237<=W237,Q237*R237+(D237-Q237)*Y237,IF(D237<=AE237,Q237*R237+(W237-Q237)*Y237+(D237-W237)*AG237)))),M237)","v":4.1433370660694298},{"$f":"IF((IF(D237<=Q237,D237*S237,IF(D237<=W237,Q237*S237+(D237-Q237)*Z237,IF(D237<=AE237,Q237*S237+(W237-Q237)*Z237+(D237-W237)*AH237))))<N237,(IF(D237<=Q237,D237*S237,IF(D237<=W237,Q237*S237+(D237-Q237)*Z237,IF(D237<=AE237,Q237*S237+(W237-Q237)*Z237+(D237-W237)*AH237)))),N237)","v":11.601343784994402},{"$f":"IF((D237-Q237)*AN237<O237,(D237-Q237)*AN237,O237)","v":0},1.3566666666666667,0.67833333333333334,{"$f":"'Reference Data'!$H$69/C_biomass/(1+$P$228)","v":4.1433370660694298},{"$f":"$M$228*$P$228","v":11.601343784994402},null,{"$f":"P228","v":2.8},10,{"$f":"'Reference Data'!$B$99/Q237","v":0.41433370660694296},{"$f":"('Reference Data'!$D$99)/Q237","v":1.1601343784994402},{"$f":"('Reference Data'!$B$99+'Reference Data'!$D$99)*C_biomass/Q237*MM_CO2/MM_C","v":2.7133333333333334},{"$f":"Q237*R237","v":4.1433370660694298},"Reverting to IPCC default temerate shrubland carbon stock. Error estimated",{"$f":"20+Q237","v":30},0,{"$f":"X237*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":0},{"$f":"Y237*P237","v":0},{"$f":"Y237*(1+P237)*C_biomass*MM_CO2/MM_C","v":0},{"$f":"IF(U237+(W237-Q237)*Y237<M237,U237+(W237-Q237)*Y237,M237)","v":4.1433370660694298},{"$f":"IF(AB237=U237,0,(AB237-U237)/Y237+Q237)","v":0},null,100,0,{"$f":"AF237*INDEX($C$105:$C$107,MATCH(Chosen_regeneration_speed,Reversion_Data!$A$105:$A$107,0))","v":0},{"$f":"AG237*P237","v":0},{"$f":"AG237*(1+P237)*C_biomass*MM_CO2/MM_C","v":0},{"$f":"IF(AB237+(AE237-W237)*AG237<M237,AB237+(AE237-W237)*AG237,M237)","v":4.1433370660694298},{"$f":"IF(AJ237=AB237,0,(AJ237-AB237)/AG237+AC237)","v":0},null,50,{"$f":"O237/AM237","v":0}]
[null,"Temperate Shrub or Grassland","South America",40,"Temperate Shrub or Grassland:South America:40",75,0.53333333333333333,{"$f":"IF((IF(D238<=Q237,D238*R237,IF(D238<=W237,Q237*R237+(D238-Q237)*Y237,IF(D238<=AE237,Q237*R237+(W237-Q237)*Y237+(D238-W237)*AG237))))<M237,(IF(D238<=Q237,D238*R237,IF(D238<=W237,Q237*R237+(D238-Q237)*Y237,IF(D238<=AE237,Q237*R237+(W237-Q237)*Y237+(D238-W237)*AG237)))),M237)","v":4.1433370660694298},{"$f":"IF((IF(D238<=Q237,D238*S237,IF(D238<=W237,Q237*S237+(D238-Q237)*Z237,IF(D238<=AE237,Q237*S237+(W237-Q237)*Z237+(D238-W237)*AH237))))<N237,(IF(D238<=Q237,D238*S237,IF(D238<=W237,Q237*S237+(D238-Q237)*Z237,IF(D238<=AE237,Q237*S237+(W237-Q237)*Z237+(D238-W237)*AH237)))),N237)","v":11.601343784994402},{"$f":"IF((D238-Q237)*AN237<O237,(D238-Q237)*AN237,O237)","v":0},0.67833333333333334,0.33916666666666667]
[null,"Temperate Shrub or Grassland","South America",100,"Temperate Shrub or Grassland:South America:100",75,1,{"$f":"IF((IF(D239<=Q237,D239*R237,IF(D239<=W237,Q237*R237+(D239-Q237)*Y237,IF(D239<=AE237,Q237*R237+(W237-Q237)*Y237+(D239-W237)*AG237))))<M237,(IF(D239<=Q237,D239*R237,IF(D239<=W237,Q237*R237+(D239-Q237)*Y237,IF(D239<=AE237,Q237*R237+(W237-Q237)*Y237+(D239-W237)*AG237)))),M237)","v":4.1433370660694298},{"$f":"IF((IF(D239<=Q237,D239*S237,IF(D239<=W237,Q237*S237+(D239-Q237)*Z237,IF(D239<=AE237,Q237*S237+(W237-Q237)*Z237+(D239-W237)*AH237))))<N237,(IF(D239<=Q237,D239*S237,IF(D239<=W237,Q237*S237+(D239-Q237)*Z237,IF(D239<=AE237,Q237*S237+(W237-Q237)*Z237+(D239-W237)*AH237)))),N237)","v":11.601343784994402},{"$f":"IF((D239-Q237)*AN237<O237,(D239-Q237)*AN237,O237)","v":0},0.27133333333333337,0.13566666666666669]
[null,"UK Broadleaf Forest","Europe",20,"UK Broadleaf Forest:Europe:20",{"$f":"$B$91","v":75},0.26666666666666666,{"$f":"IF((IF(D240<=Q240,D240*R240,IF(D240<=W240,Q240*R240+(D240-Q240)*Y240,IF(D240<=AE240,Q240*R240+(W240-Q240)*Y240+(D240-W240)*AG240))))<M240,(IF(D240<=Q240,D240*R240,IF(D240<=W240,Q240*R240+(D240-Q240)*Y240,IF(D240<=AE240,Q240*R240+(W240-Q240)*Y240+(D240-W240)*AG240)))),M240)","v":7.2340425531914896},{"$f":"IF((IF(D240<=Q240,D240*S240,IF(D240<=W240,Q240*S240+(D240-Q240)*Z240,IF(D240<=AE240,Q240*S240+(W240-Q240)*Z240+(D240-W240)*AH240))))<N240,(IF(D240<=Q240,D240*S240,IF(D240<=W240,Q240*S240+(D240-Q240)*Z240,IF(D240<=AE240,Q240*S240+(W240-Q240)*Z240+(D240-W240)*AH240)))),N240)","v":144.68085106382978},{"$f":"IF((D240-Q240)*AN240<O240,(D240-Q240)*AN240,O240)","v":0},{"$f":"((H240+I240)*C_biomass+J240*C_litter)/D240*MM_CO2/MM_C","v":13.089999999999998},6.544999999999999,{"$f":"400/C_biomass","v":851.06382978723411},{"$f":"M240*P240","v":229.78723404255322},40,0.27,20,{"$f":"(G39)/C_biomass","v":0.36170212765957449},{"$f":"R240*Q240","v":7.2340425531914896},{"$f":"(F39+G39)*MM_CO2/MM_C","v":2.3833333333333333},{"$f":"Q240*R240","v":7.2340425531914896},"Rothamsted data. Estimate or Error",100,null,{"$f":"G40/C_biomass","v":3.3191489361702131},{"$f":"Y240*P240","v":0.89617021276595765},{"$f":"Y240*(1+P240)*C_biomass*MM_CO2/MM_C","v":7.2644000000000011},{"$f":"IF(U240+(W240-Q240)*Y240<M240,U240+(W240-Q240)*Y240,M240)","v":272.76595744680856},{"$f":"(AB240-U240)/Y240+Q240","v":100},"Rothamsted data. Estimate or Error. ",null,null,null,null,null,null,null,null,50,{"$f":"O240/AM240","v":0.8}]
[null,"UK Broadleaf Forest","Europe",40,"UK Broadleaf Forest:Europe:40",{"$f":"$B$91","v":75},{"$f":"IF(D241>F241,1,D241/F241)","v":0.53333333333333333},{"$f":"IF((IF(D241<=Q240,D241*R240,IF(D241<=W240,Q240*R240+(D241-Q240)*Y240,IF(D241<=AE240,Q240*R240+(W240-Q240)*Y240+(D241-W240)*AG240))))<M240,(IF(D241<=Q240,D241*R240,IF(D241<=W240,Q240*R240+(D241-Q240)*Y240,IF(D241<=AE240,Q240*R240+(W240-Q240)*Y240+(D241-W240)*AG240)))),M240)","v":73.61702127659575},{"$f":"IF((IF(D241<=Q240,D241*S240,IF(D241<=W240,Q240*S240+(D241-Q240)*Z240,IF(D241<=AE240,Q240*S240+(W240-Q240)*Z240+(D241-W240)*AH240))))<N240,(IF(D241<=Q240,D241*S240,IF(D241<=W240,Q240*S240+(D241-Q240)*Z240,IF(D241<=AE240,Q240*S240+(W240-Q240)*Z240+(D241-W240)*AH240)))),N240)","v":162.60425531914893},{"$f":"IF((D241-Q240)*AN240<O240,(D241-Q240)*AN240,O240)","v":16},10.719866666666666,5.3599333333333332,"(estimation of where graph for Geescroft above will reach)"]
[null,"UK Broadleaf Forest","Europe",100,"UK Broadleaf Forest:Europe:100",{"$f":"$B$91","v":75},{"$f":"IF(D242>F242,1,D242/F242)","v":1},{"$f":"IF((IF(D242<=Q240,D242*R240,IF(D242<=W240,Q240*R240+(D242-Q240)*Y240,IF(D242<=AE240,Q240*R240+(W240-Q240)*Y240+(D242-W240)*AG240))))<M240,(IF(D242<=Q240,D242*R240,IF(D242<=W240,Q240*R240+(D242-Q240)*Y240,IF(D242<=AE240,Q240*R240+(W240-Q240)*Y240+(D242-W240)*AG240)))),M240)","v":272.76595744680856},{"$f":"IF((IF(D242<=Q240,D242*S240,IF(D242<=W240,Q240*S240+(D242-Q240)*Z240,IF(D242<=AE240,Q240*S240+(W240-Q240)*Z240+(D242-W240)*AH240))))<N240,(IF(D242<=Q240,D242*S240,IF(D242<=W240,Q240*S240+(D242-Q240)*Z240,IF(D242<=AE240,Q240*S240+(W240-Q240)*Z240+(D242-W240)*AH240)))),N240)","v":216.3744680851064},{"$f":"IF((D242-Q240)*AN240<O240,(D242-Q240)*AN240,O240)","v":40},8.9721866666666674,4.4860933333333337]
["Boreal","Boreal Coniferous Forest","Europe",20,"Boreal Coniferous Forest:Europe:20",{"$f":"$B$89","v":100},{"$f":"IF(D243>F243,1,D243/F243)","v":0.2},{"$f":"IF((IF(D243<=Q243,D243*R243,IF(D243<=W243,Q243*R243+(D243-Q243)*Y243,IF(D243<=AE243,Q243*R243+(W243-Q243)*Y243+(D243-W243)*AG243))))<M243,(IF(D243<=Q243,D243*R243,IF(D243<=W243,Q243*R243+(D243-Q243)*Y243,IF(D243<=AE243,Q243*R243+(W243-Q243)*Y243+(D243-W243)*AG243)))),M243)","v":12.829787234042552},{"$f":"IF((IF(D243<=Q243,D243*S243,IF(D243<=W243,Q243*S243+(D243-Q243)*Z243,IF(D243<=AE243,Q243*S243+(W243-Q243)*Z243+(D243-W243)*AH243))))<N243,(IF(D243<=Q243,D243*S243,IF(D243<=W243,Q243*S243+(D243-Q243)*Z243,IF(D243<=AE243,Q243*S243+(W243-Q243)*Z243+(D243-W243)*AH243)))),N243)","v":11.609148936170213},{"$f":"IF((D243-Q243)*AN243<O243,(D243-Q243)*AN243,O243)","v":12.8972972972973},2.9806883333333332,1.4903441666666666,{"$f":"'Reference Data'!E70","v":50},{"$f":"M243*P243","v":19.5},{"$f":"'Reference Data'!K70","v":64.486486486486498},0.39,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$103)/Q243","v":0.18297872340425531},{"$f":"('Reference Data'!$D$103)/Q243","v":0.73191489361702122},{"$f":"('Reference Data'!$B$103+'Reference Data'!$D$103)*C_biomass*MM_CO2/MM_C/Q243","v":1.5766666666666667},{"$f":"Q243*R243","v":1.8297872340425529},"Reverting to IPCC default boreal grassland carbon stock. Error estimated",{"$f":"20+Q243","v":30},1.1000000000000001,{"$f":"X243*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.1000000000000001},{"$f":"Y243*P243","v":0.42900000000000005},{"$f":"Y243*(1+P243)*C_biomass*MM_CO2/MM_C","v":2.6349766666666672},{"$f":"IF(U243+(W243-Q243)*Y243<M243,U243+(W243-Q243)*Y243,M243)","v":23.829787234042552},{"$f":"(AB243-U243)/Y243+Q243","v":30},"Table 4.9, IPCC 2006, Vol 4",100,1.1000000000000001,{"$f":"AF243*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.1000000000000001},{"$f":"AG243*P243","v":0.42900000000000005},{"$f":"AG243*(1+P243)*C_biomass*MM_CO2/MM_C","v":2.6349766666666672},{"$f":"IF(AB243+(AE243-W243)*AG243<M243,AB243+(AE243-W243)*AG243,M243)","v":50},{"$f":"(AJ243-AB243)/AG243+AC243","v":53.791102514506768},"IPCC 2006",50,{"$f":"O243/AM243","v":1.2897297297297299}]
[null,"Boreal Coniferous Forest","Europe",40,"Boreal Coniferous Forest:Europe:40",{"$f":"$B$89","v":100},{"$f":"IF(D244>F244,1,D244/F244)","v":0.4},{"$f":"IF((IF(D244<=Q243,D244*R243,IF(D244<=W243,Q243*R243+(D244-Q243)*Y243,IF(D244<=AE243,Q243*R243+(W243-Q243)*Y243+(D244-W243)*AG243))))<M243,(IF(D244<=Q243,D244*R243,IF(D244<=W243,Q243*R243+(D244-Q243)*Y243,IF(D244<=AE243,Q243*R243+(W243-Q243)*Y243+(D244-W243)*AG243)))),M243)","v":34.829787234042556},{"$f":"IF((IF(D244<=Q243,D244*S243,IF(D244<=W243,Q243*S243+(D244-Q243)*Z243,IF(D244<=AE243,Q243*S243+(W243-Q243)*Z243+(D244-W243)*AH243))))<N243,(IF(D244<=Q243,D244*S243,IF(D244<=W243,Q243*S243+(D244-Q243)*Z243,IF(D244<=AE243,Q243*S243+(W243-Q243)*Z243+(D244-W243)*AH243)))),N243)","v":19.5},{"$f":"IF((D244-Q243)*AN243<O243,(D244-Q243)*AN243,O243)","v":38.691891891891899},3.6530083333333336,1.8265041666666668]
[null,"Boreal Coniferous Forest","Europe",100,"Boreal Coniferous Forest:Europe:100",100,1,{"$f":"IF((IF(D245<=Q243,D245*R243,IF(D245<=W243,Q243*R243+(D245-Q243)*Y243,IF(D245<=AE243,Q243*R243+(W243-Q243)*Y243+(D245-W243)*AG243))))<M243,(IF(D245<=Q243,D245*R243,IF(D245<=W243,Q243*R243+(D245-Q243)*Y243,IF(D245<=AE243,Q243*R243+(W243-Q243)*Y243+(D245-W243)*AG243)))),M243)","v":50},{"$f":"IF((IF(D245<=Q243,D245*S243,IF(D245<=W243,Q243*S243+(D245-Q243)*Z243,IF(D245<=AE243,Q243*S243+(W243-Q243)*Z243+(D245-W243)*AH243))))<N243,(IF(D245<=Q243,D245*S243,IF(D245<=W243,Q243*S243+(D245-Q243)*Z243,IF(D245<=AE243,Q243*S243+(W243-Q243)*Z243+(D245-W243)*AH243)))),N243)","v":19.5},{"$f":"IF((D245-Q243)*AN243<O243,(D245-Q243)*AN243,O243)","v":64.486486486486498},2.0725833333333337,{"$f":"K245*$L$114","v":1.0362916666666668}]
[null,"Boreal Coniferous Forest","North America",20,"Boreal Coniferous Forest:North America:20",100,0.2,{"$f":"IF((IF(D246<=Q246,D246*R246,IF(D246<=W246,Q246*R246+(D246-Q246)*Y246,IF(D246<=AE246,Q246*R246+(W246-Q246)*Y246+(D246-W246)*AG246))))<M246,(IF(D246<=Q246,D246*R246,IF(D246<=W246,Q246*R246+(D246-Q246)*Y246,IF(D246<=AE246,Q246*R246+(W246-Q246)*Y246+(D246-W246)*AG246)))),M246)","v":12.829787234042552},{"$f":"IF((IF(D246<=Q246,D246*S246,IF(D246<=W246,Q246*S246+(D246-Q246)*Z246,IF(D246<=AE246,Q246*S246+(W246-Q246)*Z246+(D246-W246)*AH246))))<N246,(IF(D246<=Q246,D246*S246,IF(D246<=W246,Q246*S246+(D246-Q246)*Z246,IF(D246<=AE246,Q246*S246+(W246-Q246)*Z246+(D246-W246)*AH246)))),N246)","v":11.609148936170213},{"$f":"IF((D246-Q246)*AN246<O246,(D246-Q246)*AN246,O246)","v":12.8972972972973},2.9806883333333332,1.4903441666666666,{"$f":"'Reference Data'!E70","v":50},{"$f":"M246*P246","v":19.5},{"$f":"'Reference Data'!K70","v":64.486486486486498},0.39,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$103)/Q246","v":0.18297872340425531},{"$f":"('Reference Data'!$D$103)/Q246","v":0.73191489361702122},{"$f":"('Reference Data'!$B$103+'Reference Data'!$D$103)*C_biomass*MM_CO2/MM_C/Q246","v":1.5766666666666667},{"$f":"Q246*R246","v":1.8297872340425529},"Reverting to IPCC default boreal grassland carbon stock. Error estimated",{"$f":"20+Q246","v":30},1.1000000000000001,{"$f":"X246*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.1000000000000001},{"$f":"Y246*P246","v":0.42900000000000005},{"$f":"Y246*(1+P246)*C_biomass*MM_CO2/MM_C","v":2.6349766666666672},{"$f":"IF(U246+(W246-Q246)*Y246<M246,U246+(W246-Q246)*Y246,M246)","v":23.829787234042552},{"$f":"(AB246-U246)/Y246+Q246","v":30},"Table 4.9, IPCC 2006, Vol 4",100,1.1000000000000001,{"$f":"AF246*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.1000000000000001},{"$f":"AG246*P246","v":0.42900000000000005},{"$f":"AG246*(1+P246)*C_biomass*MM_CO2/MM_C","v":2.6349766666666672},{"$f":"IF(AB246+(AE246-W246)*AG246<M246,AB246+(AE246-W246)*AG246,M246)","v":50},{"$f":"(AJ246-AB246)/AG246+AC246","v":53.791102514506768},"IPCC 2006",50,{"$f":"O246/AM246","v":1.2897297297297299}]
[null,"Boreal Coniferous Forest","North America",40,"Boreal Coniferous Forest:North America:40",100,0.4,{"$f":"IF((IF(D247<=Q246,D247*R246,IF(D247<=W246,Q246*R246+(D247-Q246)*Y246,IF(D247<=AE246,Q246*R246+(W246-Q246)*Y246+(D247-W246)*AG246))))<M246,(IF(D247<=Q246,D247*R246,IF(D247<=W246,Q246*R246+(D247-Q246)*Y246,IF(D247<=AE246,Q246*R246+(W246-Q246)*Y246+(D247-W246)*AG246)))),M246)","v":34.829787234042556},{"$f":"IF((IF(D247<=Q246,D247*S246,IF(D247<=W246,Q246*S246+(D247-Q246)*Z246,IF(D247<=AE246,Q246*S246+(W246-Q246)*Z246+(D247-W246)*AH246))))<N246,(IF(D247<=Q246,D247*S246,IF(D247<=W246,Q246*S246+(D247-Q246)*Z246,IF(D247<=AE246,Q246*S246+(W246-Q246)*Z246+(D247-W246)*AH246)))),N246)","v":19.5},{"$f":"IF((D247-Q246)*AN246<O246,(D247-Q246)*AN246,O246)","v":38.691891891891899},3.6530083333333336,1.8265041666666668]
[null,"Boreal Coniferous Forest","North America",100,"Boreal Coniferous Forest:North America:100",100,1,{"$f":"IF((IF(D248<=Q246,D248*R246,IF(D248<=W246,Q246*R246+(D248-Q246)*Y246,IF(D248<=AE246,Q246*R246+(W246-Q246)*Y246+(D248-W246)*AG246))))<M246,(IF(D248<=Q246,D248*R246,IF(D248<=W246,Q246*R246+(D248-Q246)*Y246,IF(D248<=AE246,Q246*R246+(W246-Q246)*Y246+(D248-W246)*AG246)))),M246)","v":50},{"$f":"IF((IF(D248<=Q246,D248*S246,IF(D248<=W246,Q246*S246+(D248-Q246)*Z246,IF(D248<=AE246,Q246*S246+(W246-Q246)*Z246+(D248-W246)*AH246))))<N246,(IF(D248<=Q246,D248*S246,IF(D248<=W246,Q246*S246+(D248-Q246)*Z246,IF(D248<=AE246,Q246*S246+(W246-Q246)*Z246+(D248-W246)*AH246)))),N246)","v":19.5},{"$f":"IF((D248-Q246)*AN246<O246,(D248-Q246)*AN246,O246)","v":64.486486486486498},2.0725833333333337,1.0362916666666668]
[null,"Boreal Coniferous Forest","Asia Continental",20,"Boreal Coniferous Forest:Asia Continental:20",100,0.2,{"$f":"IF((IF(D249<=Q249,D249*R249,IF(D249<=W249,Q249*R249+(D249-Q249)*Y249,IF(D249<=AE249,Q249*R249+(W249-Q249)*Y249+(D249-W249)*AG249))))<M249,(IF(D249<=Q249,D249*R249,IF(D249<=W249,Q249*R249+(D249-Q249)*Y249,IF(D249<=AE249,Q249*R249+(W249-Q249)*Y249+(D249-W249)*AG249)))),M249)","v":12.829787234042552},{"$f":"IF((IF(D249<=Q249,D249*S249,IF(D249<=W249,Q249*S249+(D249-Q249)*Z249,IF(D249<=AE249,Q249*S249+(W249-Q249)*Z249+(D249-W249)*AH249))))<N249,(IF(D249<=Q249,D249*S249,IF(D249<=W249,Q249*S249+(D249-Q249)*Z249,IF(D249<=AE249,Q249*S249+(W249-Q249)*Z249+(D249-W249)*AH249)))),N249)","v":11.609148936170213},{"$f":"IF((D249-Q249)*AN249<O249,(D249-Q249)*AN249,O249)","v":12.8972972972973},2.9806883333333332,1.4903441666666666,{"$f":"'Reference Data'!E70","v":50},{"$f":"M249*P249","v":19.5},{"$f":"'Reference Data'!K70","v":64.486486486486498},0.39,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$103)/Q249","v":0.18297872340425531},{"$f":"('Reference Data'!$D$103)/Q249","v":0.73191489361702122},{"$f":"('Reference Data'!$B$103+'Reference Data'!$D$103)*C_biomass*MM_CO2/MM_C/Q249","v":1.5766666666666667},{"$f":"Q249*R249","v":1.8297872340425529},"Reverting to IPCC default boreal grassland carbon stock. Error estimated",{"$f":"20+Q249","v":30},1.1000000000000001,{"$f":"X249*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.1000000000000001},{"$f":"Y249*P249","v":0.42900000000000005},{"$f":"Y249*(1+P249)*C_biomass*MM_CO2/MM_C","v":2.6349766666666672},{"$f":"IF(U249+(W249-Q249)*Y249<M249,U249+(W249-Q249)*Y249,M249)","v":23.829787234042552},{"$f":"(AB249-U249)/Y249+Q249","v":30},"Table 4.9, IPCC 2006, Vol 4",100,1.1000000000000001,{"$f":"AF249*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.1000000000000001},{"$f":"AG249*P249","v":0.42900000000000005},{"$f":"AG249*(1+P249)*C_biomass*MM_CO2/MM_C","v":2.6349766666666672},{"$f":"IF(AB249+(AE249-W249)*AG249<M249,AB249+(AE249-W249)*AG249,M249)","v":50},{"$f":"(AJ249-AB249)/AG249+AC249","v":53.791102514506768},"IPCC 2006",50,{"$f":"O249/AM249","v":1.2897297297297299}]
[null,"Boreal Coniferous Forest","Asia Continental",40,"Boreal Coniferous Forest:Asia Continental:40",100,0.4,{"$f":"IF((IF(D250<=Q249,D250*R249,IF(D250<=W249,Q249*R249+(D250-Q249)*Y249,IF(D250<=AE249,Q249*R249+(W249-Q249)*Y249+(D250-W249)*AG249))))<M249,(IF(D250<=Q249,D250*R249,IF(D250<=W249,Q249*R249+(D250-Q249)*Y249,IF(D250<=AE249,Q249*R249+(W249-Q249)*Y249+(D250-W249)*AG249)))),M249)","v":34.829787234042556},{"$f":"IF((IF(D250<=Q249,D250*S249,IF(D250<=W249,Q249*S249+(D250-Q249)*Z249,IF(D250<=AE249,Q249*S249+(W249-Q249)*Z249+(D250-W249)*AH249))))<N249,(IF(D250<=Q249,D250*S249,IF(D250<=W249,Q249*S249+(D250-Q249)*Z249,IF(D250<=AE249,Q249*S249+(W249-Q249)*Z249+(D250-W249)*AH249)))),N249)","v":19.5},{"$f":"IF((D250-Q249)*AN249<O249,(D250-Q249)*AN249,O249)","v":38.691891891891899},3.6530083333333336,1.8265041666666668]
[null,"Boreal Coniferous Forest","Asia Continental",100,"Boreal Coniferous Forest:Asia Continental:100",100,1,{"$f":"IF((IF(D251<=Q249,D251*R249,IF(D251<=W249,Q249*R249+(D251-Q249)*Y249,IF(D251<=AE249,Q249*R249+(W249-Q249)*Y249+(D251-W249)*AG249))))<M249,(IF(D251<=Q249,D251*R249,IF(D251<=W249,Q249*R249+(D251-Q249)*Y249,IF(D251<=AE249,Q249*R249+(W249-Q249)*Y249+(D251-W249)*AG249)))),M249)","v":50},{"$f":"IF((IF(D251<=Q249,D251*S249,IF(D251<=W249,Q249*S249+(D251-Q249)*Z249,IF(D251<=AE249,Q249*S249+(W249-Q249)*Z249+(D251-W249)*AH249))))<N249,(IF(D251<=Q249,D251*S249,IF(D251<=W249,Q249*S249+(D251-Q249)*Z249,IF(D251<=AE249,Q249*S249+(W249-Q249)*Z249+(D251-W249)*AH249)))),N249)","v":19.5},{"$f":"IF((D251-Q249)*AN249<O249,(D251-Q249)*AN249,O249)","v":64.486486486486498},2.0725833333333337,1.0362916666666668]
[null,"Boreal Tundra","Europe",20,"Boreal Tundra:Europe:20",{"$f":"$B$89","v":100},0.2,{"$f":"IF((IF(D252<=Q252,D252*R252,IF(D252<=W252,Q252*R252+(D252-Q252)*Y252,IF(D252<=AE252,Q252*R252+(W252-Q252)*Y252+(D252-W252)*AG252))))<M252,(IF(D252<=Q252,D252*R252,IF(D252<=W252,Q252*R252+(D252-Q252)*Y252,IF(D252<=AE252,Q252*R252+(W252-Q252)*Y252+(D252-W252)*AG252)))),M252)","v":7},{"$f":"IF((IF(D252<=Q252,D252*S252,IF(D252<=W252,Q252*S252+(D252-Q252)*Z252,IF(D252<=AE252,Q252*S252+(W252-Q252)*Z252+(D252-W252)*AH252))))<N252,(IF(D252<=Q252,D252*S252,IF(D252<=W252,Q252*S252+(D252-Q252)*Z252,IF(D252<=AE252,Q252*S252+(W252-Q252)*Z252+(D252-W252)*AH252)))),N252)","v":2.7299999999999995},{"$f":"IF(D252*AN252<O252,D252*AN252,O252)","v":26.811891891891896},2.657141666666667,1.3285708333333335,{"$f":"'Reference Data'!E71","v":17.5},{"$f":"M252*P252","v":6.8250000000000002},{"$f":"'Reference Data'!K71","v":67.029729729729738},0.39,100,{"$f":"0.5*(0.2+0.5)*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":0.35},{"$f":"R252*P252","v":0.13649999999999998},{"$f":"R252*(1+$P$252)*C_biomass*MM_CO2/MM_C","v":0.83840166666666649},{"$f":"IF(Q252*R252<M252,Q252*R252,M252)","v":17.5},"IPCC 2006",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,50,{"$f":"O252/AM252","v":1.3405945945945947}]
[null,"Boreal Tundra","Europe",40,"Boreal Tundra:Europe:40",{"$f":"$B$89","v":100},{"$f":"IF(D253>F253,1,D253/F253)","v":0.4},{"$f":"IF((IF(D253<=Q252,D253*R252,IF(D253<=W252,Q252*R252+(D253-Q252)*Y252,IF(D253<=AE252,Q252*R252+(W252-Q252)*Y252+(D253-W252)*AG252))))<M252,(IF(D253<=Q252,D253*R252,IF(D253<=W252,Q252*R252+(D253-Q252)*Y252,IF(D253<=AE252,Q252*R252+(W252-Q252)*Y252+(D253-W252)*AG252)))),M252)","v":14},{"$f":"IF((IF(D253<=Q252,D253*S252,IF(D253<=W252,Q252*S252+(D253-Q252)*Z252,IF(D253<=AE252,Q252*S252+(W252-Q252)*Z252+(D253-W252)*AH252))))<N252,(IF(D253<=Q252,D253*S252,IF(D253<=W252,Q252*S252+(D253-Q252)*Z252,IF(D253<=AE252,Q252*S252+(W252-Q252)*Z252+(D253-W252)*AH252)))),N252)","v":5.4599999999999991},{"$f":"IF(D253*AN252<O252,D253*AN252,O252)","v":53.623783783783793},2.657141666666667,1.3285708333333335]
[null,"Boreal Tundra","Europe",100,"Boreal Tundra:Europe:100",100,1,{"$f":"IF((IF(D254<=Q252,D254*R252,IF(D254<=W252,Q252*R252+(D254-Q252)*Y252,IF(D254<=AE252,Q252*R252+(W252-Q252)*Y252+(D254-W252)*AG252))))<M252,(IF(D254<=Q252,D254*R252,IF(D254<=W252,Q252*R252+(D254-Q252)*Y252,IF(D254<=AE252,Q252*R252+(W252-Q252)*Y252+(D254-W252)*AG252)))),M252)","v":17.5},{"$f":"IF((IF(D254<=Q252,D254*S252,IF(D254<=W252,Q252*S252+(D254-Q252)*Z252,IF(D254<=AE252,Q252*S252+(W252-Q252)*Z252+(D254-W252)*AH252))))<N252,(IF(D254<=Q252,D254*S252,IF(D254<=W252,Q252*S252+(D254-Q252)*Z252,IF(D254<=AE252,Q252*S252+(W252-Q252)*Z252+(D254-W252)*AH252)))),N252)","v":6.8250000000000002},{"$f":"IF(D254*AN252<O252,D254*AN252,O252)","v":67.029729729729738},1.3285708333333333,0.66428541666666663]
[null,"Boreal Tundra","North America",20,"Boreal Tundra:North America:20",100,0.2,{"$f":"IF((IF(D255<=Q255,D255*R255,IF(D255<=W255,Q255*R255+(D255-Q255)*Y255,IF(D255<=AE255,Q255*R255+(W255-Q255)*Y255+(D255-W255)*AG255))))<M255,(IF(D255<=Q255,D255*R255,IF(D255<=W255,Q255*R255+(D255-Q255)*Y255,IF(D255<=AE255,Q255*R255+(W255-Q255)*Y255+(D255-W255)*AG255)))),M255)","v":7},{"$f":"IF((IF(D255<=Q255,D255*S255,IF(D255<=W255,Q255*S255+(D255-Q255)*Z255,IF(D255<=AE255,Q255*S255+(W255-Q255)*Z255+(D255-W255)*AH255))))<N255,(IF(D255<=Q255,D255*S255,IF(D255<=W255,Q255*S255+(D255-Q255)*Z255,IF(D255<=AE255,Q255*S255+(W255-Q255)*Z255+(D255-W255)*AH255)))),N255)","v":2.7299999999999995},{"$f":"IF(D255*AN255<O255,D255*AN255,O255)","v":26.811891891891896},2.657141666666667,1.3285708333333335,{"$f":"'Reference Data'!E71","v":17.5},{"$f":"M255*P255","v":6.8250000000000002},{"$f":"'Reference Data'!K71","v":67.029729729729738},0.39,100,{"$f":"0.5*(0.2+0.5)*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":0.35},{"$f":"R255*P255","v":0.13649999999999998},{"$f":"R255*(1+$P$252)*C_biomass*MM_CO2/MM_C","v":0.83840166666666649},{"$f":"IF(Q255*R255<M255,Q255*R255,M255)","v":17.5},"IPCC 2006",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,50,{"$f":"O255/AM255","v":1.3405945945945947}]
[null,"Boreal Tundra","North America",40,"Boreal Tundra:North America:40",100,0.4,{"$f":"IF((IF(D256<=Q255,D256*R255,IF(D256<=W255,Q255*R255+(D256-Q255)*Y255,IF(D256<=AE255,Q255*R255+(W255-Q255)*Y255+(D256-W255)*AG255))))<M255,(IF(D256<=Q255,D256*R255,IF(D256<=W255,Q255*R255+(D256-Q255)*Y255,IF(D256<=AE255,Q255*R255+(W255-Q255)*Y255+(D256-W255)*AG255)))),M255)","v":14},{"$f":"IF((IF(D256<=Q255,D256*S255,IF(D256<=W255,Q255*S255+(D256-Q255)*Z255,IF(D256<=AE255,Q255*S255+(W255-Q255)*Z255+(D256-W255)*AH255))))<N255,(IF(D256<=Q255,D256*S255,IF(D256<=W255,Q255*S255+(D256-Q255)*Z255,IF(D256<=AE255,Q255*S255+(W255-Q255)*Z255+(D256-W255)*AH255)))),N255)","v":5.4599999999999991},{"$f":"IF(D256*AN255<O255,D256*AN255,O255)","v":53.623783783783793},2.657141666666667,1.3285708333333335]
[null,"Boreal Tundra","North America",100,{"$f":"B257&\":\"&C257&\":\"&D257","v":"Boreal Tundra:North America:100"},100,1,{"$f":"IF((IF(D257<=Q255,D257*R255,IF(D257<=W255,Q255*R255+(D257-Q255)*Y255,IF(D257<=AE255,Q255*R255+(W255-Q255)*Y255+(D257-W255)*AG255))))<M255,(IF(D257<=Q255,D257*R255,IF(D257<=W255,Q255*R255+(D257-Q255)*Y255,IF(D257<=AE255,Q255*R255+(W255-Q255)*Y255+(D257-W255)*AG255)))),M255)","v":17.5},{"$f":"IF((IF(D257<=Q255,D257*S255,IF(D257<=W255,Q255*S255+(D257-Q255)*Z255,IF(D257<=AE255,Q255*S255+(W255-Q255)*Z255+(D257-W255)*AH255))))<N255,(IF(D257<=Q255,D257*S255,IF(D257<=W255,Q255*S255+(D257-Q255)*Z255,IF(D257<=AE255,Q255*S255+(W255-Q255)*Z255+(D257-W255)*AH255)))),N255)","v":6.8250000000000002},{"$f":"IF(D257*AN255<O255,D257*AN255,O255)","v":67.029729729729738},1.3285708333333333,0.66428541666666663]
[null,"Boreal Tundra","Asia Continental",20,"Boreal Tundra:Asia Continental:20",100,0.2,{"$f":"IF((IF(D258<=Q258,D258*R258,IF(D258<=W258,Q258*R258+(D258-Q258)*Y258,IF(D258<=AE258,Q258*R258+(W258-Q258)*Y258+(D258-W258)*AG258))))<M258,(IF(D258<=Q258,D258*R258,IF(D258<=W258,Q258*R258+(D258-Q258)*Y258,IF(D258<=AE258,Q258*R258+(W258-Q258)*Y258+(D258-W258)*AG258)))),M258)","v":7},{"$f":"IF((IF(D258<=Q258,D258*S258,IF(D258<=W258,Q258*S258+(D258-Q258)*Z258,IF(D258<=AE258,Q258*S258+(W258-Q258)*Z258+(D258-W258)*AH258))))<N258,(IF(D258<=Q258,D258*S258,IF(D258<=W258,Q258*S258+(D258-Q258)*Z258,IF(D258<=AE258,Q258*S258+(W258-Q258)*Z258+(D258-W258)*AH258)))),N258)","v":2.7299999999999995},{"$f":"IF(D258*AN258<O258,D258*AN258,O258)","v":26.811891891891896},2.657141666666667,1.3285708333333335,{"$f":"'Reference Data'!E71","v":17.5},{"$f":"M258*P258","v":6.8250000000000002},{"$f":"'Reference Data'!K71","v":67.029729729729738},0.39,100,{"$f":"0.5*(0.2+0.5)*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":0.35},{"$f":"R258*P258","v":0.13649999999999998},{"$f":"R258*(1+$P$252)*C_biomass*MM_CO2/MM_C","v":0.83840166666666649},{"$f":"IF(Q258*R258<M258,Q258*R258,M258)","v":17.5},"IPCC 2006",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,50,{"$f":"O258/AM258","v":1.3405945945945947}]
[null,"Boreal Tundra","Asia Continental",40,"Boreal Tundra:Asia Continental:40",100,0.4,{"$f":"IF((IF(D259<=Q258,D259*R258,IF(D259<=W258,Q258*R258+(D259-Q258)*Y258,IF(D259<=AE258,Q258*R258+(W258-Q258)*Y258+(D259-W258)*AG258))))<M258,(IF(D259<=Q258,D259*R258,IF(D259<=W258,Q258*R258+(D259-Q258)*Y258,IF(D259<=AE258,Q258*R258+(W258-Q258)*Y258+(D259-W258)*AG258)))),M258)","v":14},{"$f":"IF((IF(D259<=Q258,D259*S258,IF(D259<=W258,Q258*S258+(D259-Q258)*Z258,IF(D259<=AE258,Q258*S258+(W258-Q258)*Z258+(D259-W258)*AH258))))<N258,(IF(D259<=Q258,D259*S258,IF(D259<=W258,Q258*S258+(D259-Q258)*Z258,IF(D259<=AE258,Q258*S258+(W258-Q258)*Z258+(D259-W258)*AH258)))),N258)","v":5.4599999999999991},{"$f":"IF(D259*AN258<O258,D259*AN258,O258)","v":53.623783783783793},2.657141666666667,1.3285708333333335]
[null,"Boreal Tundra","Asia Continental",100,"Boreal Tundra:Asia Continental:100",100,1,{"$f":"IF((IF(D260<=Q258,D260*R258,IF(D260<=W258,Q258*R258+(D260-Q258)*Y258,IF(D260<=AE258,Q258*R258+(W258-Q258)*Y258+(D260-W258)*AG258))))<M258,(IF(D260<=Q258,D260*R258,IF(D260<=W258,Q258*R258+(D260-Q258)*Y258,IF(D260<=AE258,Q258*R258+(W258-Q258)*Y258+(D260-W258)*AG258)))),M258)","v":17.5},{"$f":"IF((IF(D260<=Q258,D260*S258,IF(D260<=W258,Q258*S258+(D260-Q258)*Z258,IF(D260<=AE258,Q258*S258+(W258-Q258)*Z258+(D260-W258)*AH258))))<N258,(IF(D260<=Q258,D260*S258,IF(D260<=W258,Q258*S258+(D260-Q258)*Z258,IF(D260<=AE258,Q258*S258+(W258-Q258)*Z258+(D260-W258)*AH258)))),N258)","v":6.8250000000000002},{"$f":"IF(D260*AN258<O258,D260*AN258,O258)","v":67.029729729729738},1.3285708333333333,0.66428541666666663]
[null,"Boreal Mountain System","Europe",20,"Boreal Mountain System:Europe:20",{"$f":"$B$89","v":100},0.2,{"$f":"IF((IF(D261<=Q261,D261*R261,IF(D261<=W261,Q261*R261+(D261-Q261)*Y261,IF(D261<=AE261,Q261*R261+(W261-Q261)*Y261+(D261-W261)*AG261))))<M261,(IF(D261<=Q261,D261*R261,IF(D261<=W261,Q261*R261+(D261-Q261)*Y261,IF(D261<=AE261,Q261*R261+(W261-Q261)*Y261+(D261-W261)*AG261)))),M261)","v":12.329787234042552},{"$f":"IF((IF(D261<=Q261,D261*S261,IF(D261<=W261,Q261*S261+(D261-Q261)*Z261,IF(D261<=AE261,Q261*S261+(W261-Q261)*Z261+(D261-W261)*AH261))))<N261,(IF(D261<=Q261,D261*S261,IF(D261<=W261,Q261*S261+(D261-Q261)*Z261,IF(D261<=AE261,Q261*S261+(W261-Q261)*Z261+(D261-W261)*AH261)))),N261)","v":11.414148936170212},{"$f":"IF((D261-Q261)*AN261<O261,(D261-Q261)*AN261,O261)","v":14.472432432432436},3.0276491666666661,1.513824583333333,{"$f":"'Reference Data'!E72","v":45},{"$f":"M261*P261","v":17.55},{"$f":"'Reference Data'!K72","v":72.362162162162178},0.39,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$103)/Q261","v":0.18297872340425531},{"$f":"('Reference Data'!$D$103)/Q261","v":0.73191489361702122},{"$f":"('Reference Data'!$B$103+'Reference Data'!$D$103)*C_biomass*MM_CO2/MM_C/Q261","v":1.5766666666666667},{"$f":"Q261*R261","v":1.8297872340425529},"Reverting to IPCC default boreal grassland carbon stock. Error estimated",{"$f":"20+Q261","v":30},1.05,{"$f":"X261*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.05},{"$f":"Y261*P261","v":0.40950000000000003},{"$f":"Y261*(1+P261)*C_biomass*MM_CO2/MM_C","v":2.5152050000000004},{"$f":"IF(U261+(W261-Q261)*Y261<M261,U261+(W261-Q261)*Y261,M261)","v":22.829787234042552},{"$f":"(AB261-U261)/Y261+Q261","v":30},"Table 4.9, IPCC 2006, Vol 4",100,1.3,{"$f":"AF261*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.3},{"$f":"AG261*P261","v":0.50700000000000001},{"$f":"AG261*(1+P261)*C_biomass*MM_CO2/MM_C","v":3.1140633333333336},{"$f":"IF(AB261+(AE261-W261)*AG261<M261,AB261+(AE261-W261)*AG261,M261)","v":45},{"$f":"(AJ261-AB261)/AG261+AC261","v":47.054009819967263},"IPCC 2006",50,{"$f":"O261/AM261","v":1.4472432432432436}]
[null,"Boreal Mountain System","Europe",40,"Boreal Mountain System:Europe:40",{"$f":"$B$89","v":100},{"$f":"IF(D262>F262,1,D262/F262)","v":0.4},{"$f":"IF((IF(D262<=Q261,D262*R261,IF(D262<=W261,Q261*R261+(D262-Q261)*Y261,IF(D262<=AE261,Q261*R261+(W261-Q261)*Y261+(D262-W261)*AG261))))<M261,(IF(D262<=Q261,D262*R261,IF(D262<=W261,Q261*R261+(D262-Q261)*Y261,IF(D262<=AE261,Q261*R261+(W261-Q261)*Y261+(D262-W261)*AG261)))),M261)","v":35.829787234042556},{"$f":"IF((IF(D262<=Q261,D262*S261,IF(D262<=W261,Q261*S261+(D262-Q261)*Z261,IF(D262<=AE261,Q261*S261+(W261-Q261)*Z261+(D262-W261)*AH261))))<N261,(IF(D262<=Q261,D262*S261,IF(D262<=W261,Q261*S261+(D262-Q261)*Z261,IF(D262<=AE261,Q261*S261+(W261-Q261)*Z261+(D262-W261)*AH261)))),N261)","v":17.55},{"$f":"IF((D262-Q261)*AN261<O261,(D262-Q261)*AN261,O261)","v":43.41729729729731},3.7723491666666664,1.8861745833333332]
[null,"Boreal Mountain System","Europe",100,"Boreal Mountain System:Europe:100",100,1,{"$f":"IF((IF(D263<=Q261,D263*R261,IF(D263<=W261,Q261*R261+(D263-Q261)*Y261,IF(D263<=AE261,Q261*R261+(W261-Q261)*Y261+(D263-W261)*AG261))))<M261,(IF(D263<=Q261,D263*R261,IF(D263<=W261,Q261*R261+(D263-Q261)*Y261,IF(D263<=AE261,Q261*R261+(W261-Q261)*Y261+(D263-W261)*AG261)))),M261)","v":45},{"$f":"IF((IF(D263<=Q261,D263*S261,IF(D263<=W261,Q261*S261+(D263-Q261)*Z261,IF(D263<=AE261,Q261*S261+(W261-Q261)*Z261+(D263-W261)*AH261))))<N261,(IF(D263<=Q261,D263*S261,IF(D263<=W261,Q261*S261+(D263-Q261)*Z261,IF(D263<=AE261,Q261*S261+(W261-Q261)*Z261+(D263-W261)*AH261)))),N261)","v":17.55},{"$f":"IF((D263-Q261)*AN261<O261,(D263-Q261)*AN261,O261)","v":72.362162162162178},2.0596583333333336,1.0298291666666668]
[null,"Boreal Mountain System","North America",20,"Boreal Mountain System:North America:20",100,0.2,{"$f":"IF((IF(D264<=Q264,D264*R264,IF(D264<=W264,Q264*R264+(D264-Q264)*Y264,IF(D264<=AE264,Q264*R264+(W264-Q264)*Y264+(D264-W264)*AG264))))<M264,(IF(D264<=Q264,D264*R264,IF(D264<=W264,Q264*R264+(D264-Q264)*Y264,IF(D264<=AE264,Q264*R264+(W264-Q264)*Y264+(D264-W264)*AG264)))),M264)","v":12.329787234042552},{"$f":"IF((IF(D264<=Q264,D264*S264,IF(D264<=W264,Q264*S264+(D264-Q264)*Z264,IF(D264<=AE264,Q264*S264+(W264-Q264)*Z264+(D264-W264)*AH264))))<N264,(IF(D264<=Q264,D264*S264,IF(D264<=W264,Q264*S264+(D264-Q264)*Z264,IF(D264<=AE264,Q264*S264+(W264-Q264)*Z264+(D264-W264)*AH264)))),N264)","v":11.414148936170212},{"$f":"IF((D264-Q264)*AN264<O264,(D264-Q264)*AN264,O264)","v":14.472432432432436},3.0276491666666661,1.513824583333333,{"$f":"'Reference Data'!E72","v":45},{"$f":"M264*P264","v":17.55},{"$f":"'Reference Data'!K72","v":72.362162162162178},0.39,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$103)/Q264","v":0.18297872340425531},{"$f":"('Reference Data'!$D$103)/Q264","v":0.73191489361702122},{"$f":"('Reference Data'!$B$103+'Reference Data'!$D$103)*C_biomass*MM_CO2/MM_C/Q264","v":1.5766666666666667},{"$f":"Q264*R264","v":1.8297872340425529},"Reverting to IPCC default boreal grassland carbon stock. Error estimated",{"$f":"20+Q264","v":30},1.05,{"$f":"X264*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.05},{"$f":"Y264*P264","v":0.40950000000000003},{"$f":"Y264*(1+P264)*C_biomass*MM_CO2/MM_C","v":2.5152050000000004},{"$f":"IF(U264+(W264-Q264)*Y264<M264,U264+(W264-Q264)*Y264,M264)","v":22.829787234042552},{"$f":"(AB264-U264)/Y264+Q264","v":30},"Table 4.9, IPCC 2006, Vol 4",100,1.3,{"$f":"AF264*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.3},{"$f":"AG264*P264","v":0.50700000000000001},{"$f":"AG264*(1+P264)*C_biomass*MM_CO2/MM_C","v":3.1140633333333336},{"$f":"IF(AB264+(AE264-W264)*AG264<M264,AB264+(AE264-W264)*AG264,M264)","v":45},{"$f":"(AJ264-AB264)/AG264+AC264","v":47.054009819967263},"IPCC 2006",50,{"$f":"O264/AM264","v":1.4472432432432436}]
[null,"Boreal Mountain System","North America",40,"Boreal Mountain System:North America:40",100,0.4,{"$f":"IF((IF(D265<=Q264,D265*R264,IF(D265<=W264,Q264*R264+(D265-Q264)*Y264,IF(D265<=AE264,Q264*R264+(W264-Q264)*Y264+(D265-W264)*AG264))))<M264,(IF(D265<=Q264,D265*R264,IF(D265<=W264,Q264*R264+(D265-Q264)*Y264,IF(D265<=AE264,Q264*R264+(W264-Q264)*Y264+(D265-W264)*AG264)))),M264)","v":35.829787234042556},{"$f":"IF((IF(D265<=Q264,D265*S264,IF(D265<=W264,Q264*S264+(D265-Q264)*Z264,IF(D265<=AE264,Q264*S264+(W264-Q264)*Z264+(D265-W264)*AH264))))<N264,(IF(D265<=Q264,D265*S264,IF(D265<=W264,Q264*S264+(D265-Q264)*Z264,IF(D265<=AE264,Q264*S264+(W264-Q264)*Z264+(D265-W264)*AH264)))),N264)","v":17.55},{"$f":"IF((D265-Q264)*AN264<O264,(D265-Q264)*AN264,O264)","v":43.41729729729731},3.7723491666666664,1.8861745833333332]
[null,"Boreal Mountain System","North America",100,"Boreal Mountain System:North America:100",100,1,{"$f":"IF((IF(D266<=Q264,D266*R264,IF(D266<=W264,Q264*R264+(D266-Q264)*Y264,IF(D266<=AE264,Q264*R264+(W264-Q264)*Y264+(D266-W264)*AG264))))<M264,(IF(D266<=Q264,D266*R264,IF(D266<=W264,Q264*R264+(D266-Q264)*Y264,IF(D266<=AE264,Q264*R264+(W264-Q264)*Y264+(D266-W264)*AG264)))),M264)","v":45},{"$f":"IF((IF(D266<=Q264,D266*S264,IF(D266<=W264,Q264*S264+(D266-Q264)*Z264,IF(D266<=AE264,Q264*S264+(W264-Q264)*Z264+(D266-W264)*AH264))))<N264,(IF(D266<=Q264,D266*S264,IF(D266<=W264,Q264*S264+(D266-Q264)*Z264,IF(D266<=AE264,Q264*S264+(W264-Q264)*Z264+(D266-W264)*AH264)))),N264)","v":17.55},{"$f":"IF((D266-Q264)*AN264<O264,(D266-Q264)*AN264,O264)","v":72.362162162162178},2.0596583333333336,1.0298291666666668]
[null,"Boreal Mountain System","Asia Continental",20,"Boreal Mountain System:Asia Continental:20",100,0.2,{"$f":"IF((IF(D267<=Q267,D267*R267,IF(D267<=W267,Q267*R267+(D267-Q267)*Y267,IF(D267<=AE267,Q267*R267+(W267-Q267)*Y267+(D267-W267)*AG267))))<M267,(IF(D267<=Q267,D267*R267,IF(D267<=W267,Q267*R267+(D267-Q267)*Y267,IF(D267<=AE267,Q267*R267+(W267-Q267)*Y267+(D267-W267)*AG267)))),M267)","v":12.329787234042552},{"$f":"IF((IF(D267<=Q267,D267*S267,IF(D267<=W267,Q267*S267+(D267-Q267)*Z267,IF(D267<=AE267,Q267*S267+(W267-Q267)*Z267+(D267-W267)*AH267))))<N267,(IF(D267<=Q267,D267*S267,IF(D267<=W267,Q267*S267+(D267-Q267)*Z267,IF(D267<=AE267,Q267*S267+(W267-Q267)*Z267+(D267-W267)*AH267)))),N267)","v":11.414148936170212},{"$f":"IF((D267-Q267)*AN267<O267,(D267-Q267)*AN267,O267)","v":14.472432432432436},3.0276491666666661,1.513824583333333,{"$f":"'Reference Data'!E72","v":45},{"$f":"M267*P267","v":17.55},{"$f":"'Reference Data'!K72","v":72.362162162162178},0.39,{"$f":"INDEX($B$105:$B$107,MATCH(Reversion_Data!$B$110,Reversion_Data!$A$105:$A$107,0))","v":10},{"$f":"('Reference Data'!$B$103)/Q267","v":0.18297872340425531},{"$f":"('Reference Data'!$D$103)/Q267","v":0.73191489361702122},{"$f":"('Reference Data'!$B$103+'Reference Data'!$D$103)*C_biomass*MM_CO2/MM_C/Q267","v":1.5766666666666667},{"$f":"Q267*R267","v":1.8297872340425529},"Reverting to IPCC default boreal grassland carbon stock. Error estimated",{"$f":"20+Q267","v":30},1.05,{"$f":"X267*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.05},{"$f":"Y267*P267","v":0.40950000000000003},{"$f":"Y267*(1+P267)*C_biomass*MM_CO2/MM_C","v":2.5152050000000004},{"$f":"IF(U267+(W267-Q267)*Y267<M267,U267+(W267-Q267)*Y267,M267)","v":22.829787234042552},{"$f":"(AB267-U267)/Y267+Q267","v":30},"Table 4.9, IPCC 2006, Vol 4",100,1.3,{"$f":"AF267*INDEX(C105:C107,MATCH(Chosen_regeneration_speed,Reversion_Data!A105:A107,0))","v":1.3},{"$f":"AG267*P267","v":0.50700000000000001},{"$f":"AG267*(1+P267)*C_biomass*MM_CO2/MM_C","v":3.1140633333333336},{"$f":"IF(AB267+(AE267-W267)*AG267<M267,AB267+(AE267-W267)*AG267,M267)","v":45},{"$f":"(AJ267-AB267)/AG267+AC267","v":47.054009819967263},"IPCC 2006",50,{"$f":"O267/AM267","v":1.4472432432432436}]
[null,"Boreal Mountain System","Asia Continental",40,"Boreal Mountain System:Asia Continental:40",100,0.4,{"$f":"IF((IF(D268<=Q267,D268*R267,IF(D268<=W267,Q267*R267+(D268-Q267)*Y267,IF(D268<=AE267,Q267*R267+(W267-Q267)*Y267+(D268-W267)*AG267))))<M267,(IF(D268<=Q267,D268*R267,IF(D268<=W267,Q267*R267+(D268-Q267)*Y267,IF(D268<=AE267,Q267*R267+(W267-Q267)*Y267+(D268-W267)*AG267)))),M267)","v":35.829787234042556},{"$f":"IF((IF(D268<=Q267,D268*S267,IF(D268<=W267,Q267*S267+(D268-Q267)*Z267,IF(D268<=AE267,Q267*S267+(W267-Q267)*Z267+(D268-W267)*AH267))))<N267,(IF(D268<=Q267,D268*S267,IF(D268<=W267,Q267*S267+(D268-Q267)*Z267,IF(D268<=AE267,Q267*S267+(W267-Q267)*Z267+(D268-W267)*AH267)))),N267)","v":17.55},{"$f":"IF((D268-Q267)*AN267<O267,(D268-Q267)*AN267,O267)","v":43.41729729729731},3.7723491666666664,1.8861745833333332]
[null,"Boreal Mountain System","Asia Continental",100,"Boreal Mountain System:Asia Continental:100",100,1,{"$f":"IF((IF(D269<=Q267,D269*R267,IF(D269<=W267,Q267*R267+(D269-Q267)*Y267,IF(D269<=AE267,Q267*R267+(W267-Q267)*Y267+(D269-W267)*AG267))))<M267,(IF(D269<=Q267,D269*R267,IF(D269<=W267,Q267*R267+(D269-Q267)*Y267,IF(D269<=AE267,Q267*R267+(W267-Q267)*Y267+(D269-W267)*AG267)))),M267)","v":45},{"$f":"IF((IF(D269<=Q267,D269*S267,IF(D269<=W267,Q267*S267+(D269-Q267)*Z267,IF(D269<=AE267,Q267*S267+(W267-Q267)*Z267+(D269-W267)*AH267))))<N267,(IF(D269<=Q267,D269*S267,IF(D269<=W267,Q267*S267+(D269-Q267)*Z267,IF(D269<=AE267,Q267*S267+(W267-Q267)*Z267+(D269-W267)*AH267)))),N267)","v":17.55},{"$f":"IF((D269-Q267)*AN267<O267,(D269-Q267)*AN267,O267)","v":72.362162162162178},2.0596583333333336,1.0298291666666668]
[]
[]
[]
[]
[]
["Comparison between Rothamsted data and IPCC data for temperate Oceanic Forest"]
["SOC change"]
["The SOC increase can be compared to that calculated by the IPCC default method, assuming the SOC increases over 100 years, and HAC soils in a temperate moist climate."]
[null,"IPCC, 2006","Rothamsted Data"]
[null,{"$f":"'Reference Data'!B11*(1-'Reference Data'!B24)/100","v":0.29450000000000004},{"$f":"D41","v":0.23},"te C/ha/y"]
["Above Ground Biomass"]
["The above ground woodland carbon increase can be compared to that from the IPCC 2006 guidelines for the growth over the initial 20 years (after a scrub has formed) and the following time after the initial establishment of a natural forest"]
[null,"IPCC, 2006","Rothamsted Data",null,"Difference"]
["<20 years",{"$f":"R192*C_biomass","v":0.19473684210526318},{"$f":"G39","v":0.17},"te C/ha/y",{"$f":"(B283-C283)/B283","v":0.12702702702702706}]
["> 20 years",{"$f":"(Y192*0.2+AG192*0.8)*C_biomass","v":1.081},{"$f":"G40","v":1.56},"te C/ha/y",{"$f":"(B284-C284)/B284","v":-0.44310823311748393}]
["It can seen that the Rothamsted data  above ground biomass increase is greater than the IPCC data, therefore IPCC figures may be seen as conservative."]
["The high value could be because the land area is small, therefore side effects important."]
[]
[]
[]
["Comparison Aide et al.1995 with IPCC data for Tropical wet forest"]
["Maximum above ground biomass",100,"te biomass"]
["Time",35,"years after abandonment"]
[null,25,"years after end of recovery period"]
["Rate of increase of above ground biomass","IPCC, 2006","Aide et al., 1995",null,"Difference"]
[null,{"$f":"Y138","v":7},{"$f":"B291/B293","v":4},"te dry matter per hectare per year",{"$f":"(B295-C295)/B295","v":0.42857142857142855}]
[]
["Therefore the biomass rate of increase is lower than that expected by the IPCC data. "]
["The paper mentions that the rate of increase in lower than expected, backing this up."]

{"sheet":"Wood Product Data","index":12,"n_rows":42,"n_cols":28,"rows_kept":42,"cut":false,"hidden":false,"merged":[[2,26,2,27]]}
["Wood Product Data Table 1: Savings from using wood for construction"]
["Forest Research, 2012"]
["Wood Use","Moisture Content (if data required)","Wood required for wooden product","Unit","Note","Processing and transport emissions","Unit","Note","Carbon from forest stored in product","Unit","Note","Lifespan","End of Life Emissions. Assume all the stored carbon is released on disposal.",null,"Emissions from processing and disposal",null,"Counterfactuals","Counterfactual GHG emissions","Unit","Amount of counterfactual per unit of wood","Unit","Note","Avoided emissions","Unit","Avoided emissions","Unit","Overall Savings in Emissions from using wood product rather than counterfactual"]
["Softwood sawn timber for construction",0.18,{"$f":"1-B4","v":0.82000000000000006},"odt wood/t sawn timber","Excluding offcuts, only considering moisture at 20 wt%.",71,"kg CO2e/t sawn timber",null,{"$f":"C_biomass*(1-B4)*MM_CO2/MM_C*Conv_te_kg","v":1413.1333333333334},"kg CO2e/t sawn timber",null,99,{"$f":"IF(Chosen_Time_frame_biopathways>L4,I4,0)","v":0},"kg CO2e/t sawn timber",{"$f":"(M4+F4-I4)/C4","v":-1636.7479674796748},"kgCO2e/odt wood going to product","Concrete screed floor",425,"kg CO2e/m3",8,"m3/t wood for construction",null,{"$f":"R4*T4","v":3400},"kg CO2e/t timber gound flooring",{"$f":"W4/C4","v":4146.3414634146338},"kg CO2e/t wood to sawn timber",{"$f":"Y4-O4","v":5783.0894308943089},"kgCO2e/odt wood going to product"]
["Hardwood sawn timber for construction",0.18,{"$f":"1-B5","v":0.82000000000000006},"odt wood/t sawn timber","Excluding offcuts, only considering moisture at 20 wt%.",71,"kg CO2e/t sawn timber",null,{"$f":"C_biomass*(1-B5)*MM_CO2/MM_C*Conv_te_kg","v":1413.1333333333334},"kg CO2e/t sawn timber",null,99,0,"kg CO2e/t sawn timber",-1636.7479674796748,"kgCO2e/odt wood going to product","upvc window frame",1200,"kg CO2e/te",0.49399999999999999,"t upvc/t wood",null,592.79999999999995,"kg CO2e/t timber window",722.92682926829252,"kg CO2e/t wood to sawn timber",2359.6747967479673,"kgCO2e/odt wood going to product"]
["Wood for particleboard (75% recycled)",null,0.21,"odt virgin wood/m3 particle board","As 75% of the particleboard is recycled, only a small mass of virgin wood is required per m3 particleboard",403,"kg CO2e/m3 particle board","364 kgCO2e/m3 for processing, 344 kg CO2e for transport of 8.2m3",{"$f":"0.672*C_biomass*MM_CO2/MM_C*Conv_te_kg","v":1158.08},"kg CO2/m3 particle board","0.672 odt/m3 particleboard.Includes carbon in recycled wood",99,0,"kg CO2e/m3 particleboard",-3595.6190476190473,"kgCO2e/odt wood going to product","Blockwork external wall",49,"kg CO2e/m2",41.7,"m2 blockwork/m3 wood particleboard",null,2043.3000000000002,"kg CO2e/m3 particleboard",9730.0000000000018,"kg CO2e/t wood to particle board",13325.61904761905,"kgCO2e/odt wood going to product"]
["Wood for MDF",null,1.54,"odt wood/m3 MDF","1.029 odt/m3 MDF, and additional 33% of wood required to power the MDF plant and to account for losses",790,"kg CO2e/m3 MDF","Accounting for fossil fuels used in processing, manufacturing of other componenet used for MDF, plant manufacture and and transport. All MDF processing produces 630 kgco2/m3 MDF whilst transport 160 kg CO2e/m3.",{"$f":"1.029*C_biomass*MM_CO2/MM_C*Conv_te_kg","v":1773.3099999999997},"kg CO2/m3 MDF","Density = 1.029 oven dry te wood/m3 MDF",99,0,"kg CO2e/m3 MDF",-638.51298701298686,"kgCO2e/odt wood going to product","Plasterboard partitioning",4,"kg CO2e/m2",80,"m2 plasterboard/m3 MDF","80 m2/m3 based on correspondance with Matthew Brander, Senior Research Fellow, University of Edinburgh.",{"$f":"R7*T7","v":320},"kg CO2e/m3 MDF",207.79220779220779,"kg CO2e/t wood to MDF",846.30519480519467,"kgCO2e/odt wood going to product"]
["Wood for pallets",0.18,{"$f":"1-B8","v":0.82000000000000006},"odt wood/t pallet","Excluding offcuts, only considering moisture.",62,"kg CO2e/t pallet",null,{"$f":"C_biomass*(1-B8)*MM_CO2/MM_C*Conv_te_kg","v":1413.1333333333334},"kg CO2e/t wood pallet",null,5,1413.1333333333334,"kg CO2e/t wood pallet",75.609756097560975,"kgCO2e/odt wood going to product","Plastic pallets",183,"kg CO2e/te",0.2,"t plastic/t wood pallet","Based on an estimated life of 100 trips for plastic pallets and 25 for wood and a weight for plastic pallets of 17kg (1000kg capacity) and a EUR medium wood pallet of 21kg (1000kg capacity). ",36.6,"kg CO2e/t wood pallet",44.634146341463413,"kg CO2e/t wood to pallet",-30.975609756097562,"kgCO2e/odt wood going to product"]
["Wood fencing",0.18,{"$f":"1-B9","v":0.82000000000000006},"odt wood/t wooden fence","Excluding offcuts, only considering moisture.",75.5,"kg CO2e/t fence",null,{"$f":"C_biomass*(1-B9)*MM_CO2/MM_C*Conv_te_kg","v":1413.1333333333334},"kg CO2e/t wood fence",null,30,1413.1333333333334,"kg CO2e/t wood fence",92.073170731707307,"kgCO2e/odt wood going to product","Concrete fencing",252,"kgCO2e/m2",0.99,"m2 per t fencing","Based on an assumed life for concrete fence of 60y and wood fence of 20y and a mass for m2 concrete fence of 236kg and m2 wooden fence of 78kg",249.48,"kg CO2e/t wooden fence ",304.24390243902434,"kg CO2e/odt wood to fencing",212.17073170731703,"kgCO2e/odt wood going to product"]
[]
[]
["Proportions"]
["Proportion of saw logs which are converted to construction products",0.6]
["Proportion of small roundwood which is converted to pallets (remaining offcuts)",0.5]
["Proportion of small roundwood which is converted to fencing (remaining offcuts)",0.5]
[]
["Wood Product Counterfactuals"]
["Chosen Counterfactual data from Wood Product Table 2",{"$f":"INDEX(lookup_counterfactuals,MATCH(Chosen_counterfactual,lookup_counterfactual_names,0))","v":-846.30519480519467},{"$f":"INDEX(lookup_counterfactual_errors,MATCH(Chosen_counterfactual,lookup_counterfactual_names,0))","v":423.15259740259734},"kg CO2e/odt wood"]
["Wood Product Data Table 1: Counterfactuals"]
["Counterfactual Name","Emissions from using Wood Product rather than Counterfactual (negative = saving)","Error (estimate)"]
[{"$f":"Lists!A419","v":"Sawn Timber (replacing concrete flooring), off cuts to particle board (replacing breeze blocks)"},{"$f":"-(Sawlog_construction*'Wood Product Data'!AA4+(1-Sawlog_construction)*'Wood Product Data'!AA6)","v":-8800.1012775842046},{"$f":"ABS(B21*50%)","v":4400.0506387921023},"kg CO2e/odt wood"]
[{"$f":"Lists!A420","v":"Sawn Timber (replacing concrete flooring), off cuts to MDF (replacing plasterwork)"},{"$f":"-(Sawlog_construction*'Wood Product Data'!AA4+(1-Sawlog_construction)*'Wood Product Data'!AA7)","v":-3808.3757364586627},{"$f":"ABS(B22*50%)","v":1904.1878682293313},"kg CO2e/odt wood"]
[{"$f":"Lists!A421","v":"Displacing imported wood products"},"N/A"]
[{"$f":"Lists!A422","v":"Particle board (replacing breeze blocks)"},{"$f":"-'Wood Product Data'!AA6","v":-13325.61904761905},{"$f":"ABS(B24*50%)","v":6662.8095238095248},"kg CO2e/odt wood"]
[{"$f":"Lists!A423","v":"MDF (replacing plasterwork)"},{"$f":"-'Wood Product Data'!AA7","v":-846.30519480519467},{"$f":"ABS(B25*50%)","v":423.15259740259734},"kg CO2e/odt wood"]
[{"$f":"Lists!A424","v":"Paper and Card (replacing imported paper and card)"},"N/A"]
[{"$f":"Lists!A425","v":"Pallets (replacing recycled plastic pallets), off cuts Particle Board (replacing breeze blocks)"},{"$f":"-(SRW_Pallets*'Wood Product Data'!AA8+(1-SRW_Pallets)*'Wood Product Data'!AA6)","v":-6647.3217189314764},{"$f":"ABS(B27*50%)","v":3323.6608594657382},"kg CO2e/odt wood"]
[{"$f":"Lists!A426","v":"Pallets (replacing recycled plastic pallets), off cuts MDF (replacing plaster work)"},{"$f":"-(SRW_Pallets*'Wood Product Data'!AA8+(1-SRW_Pallets)*'Wood Product Data'!AA7)","v":-407.66479252454855},{"$f":"ABS(B28*50%)","v":203.83239626227427},"kg CO2e/odt wood"]
[{"$f":"Lists!A427","v":"Fencing (replacing concrete fencing), off cuts Particle Board (replacing breeze blocks)"},{"$f":"-(SRW_Fencing*'Wood Product Data'!AA9+(1-SRW_Fencing)*'Wood Product Data'!AA6)","v":-6768.8948896631837},{"$f":"ABS(B29*50%)","v":3384.4474448315918},"kg CO2e/odt wood"]
[{"$f":"Lists!A428","v":"Fencing (replacing concrete fencing), off cuts MDF (replacing plaster work)"},{"$f":"-(SRW_Fencing*'Wood Product Data'!AA9+(1-SRW_Fencing)*'Wood Product Data'!AA7)","v":-529.23796325625585},{"$f":"ABS(B30*50%)","v":264.61898162812793},"kg CO2e/odt wood"]
[{"$f":"Lists!A429","v":"Displacing imported wood products"},"N/A"]
[{"$f":"Lists!A430","v":"Sawn Timber (replacing upvc window), off cuts to particle board (replacing breeze blocks)"},{"$f":"-(Sawlog_construction*'Wood Product Data'!AA5+(1-Sawlog_construction)*'Wood Product Data'!AA6)","v":-6746.0524970964007},{"$f":"ABS(B32*50%)","v":3373.0262485482003},"kg CO2e/odt wood"]
[{"$f":"Lists!A431","v":"Sawn Timber (replacing upvc window), off cuts to MDF (replacing plasterwork)"},{"$f":"-(Sawlog_construction*'Wood Product Data'!AA5+(1-Sawlog_construction)*'Wood Product Data'!AA7)","v":-1754.3269559708583},{"$f":"ABS(B33*50%)","v":877.16347798542915},"kg CO2e/odt wood"]
[{"$f":"Lists!A432","v":"Harvest the forest less frequently for over 100 years, owing to reduced wood demand"},0,0,"kg CO2e/odt wood"]
[{"$f":"Lists!A433","v":"Harvest the forest less frequently for 15 years, owing to reduced wood demand"},0,0,"kg CO2e/odt wood"]
[{"$f":"Lists!A434","v":"Convert to cotton plantation (stand by stand)"},0,0,"kg CO2e/odt wood"]
[{"$f":"Lists!A435","v":"Leave residues to decay in forest"},0,0,"kg CO2e/odt wood"]
[{"$f":"Lists!A436","v":"Leave dead trees to decay in forest"},0,0,"kg CO2e/odt wood"]
[{"$f":"Lists!A437","v":"Remove from land and burn"},0,{"$f":"B39*50%","v":0},"kg CO2e/odt wood"]
[{"$f":"Lists!A438","v":"Leave the land unharvested/unmanaged"},0,{"$f":"B40*50%","v":0},"kg CO2e/odt wood"]
[{"$f":"Lists!A439","v":"Leave forest in previous management"},0,{"$f":"B41*50%","v":0},"kg CO2e/odt wood"]
["Add new counterfactual here"]

{"sheet":"LCA _data","index":13,"n_rows":309,"n_cols":11,"rows_kept":309,"cut":false,"hidden":false,"merged":[]}
[null,"Value","Unit","Name",null,"Reference/Assumption details"]
["LCA Data for LRF forestry"]
["Land preparation UK forests (ploughing)",21,"l diesel/ha","LCA_En_landprep",null,"Forestry Commission, 2012. Applicable to plantations only."]
["Land preparation UK forests (excavator)",190,"l diesel/ha","LCA_En_excavator",null,"Forestry Commission, 2012. Applicable to plantations only. 0.588 tCO2/ha"]
["Land preparation UK forests (scarifier)",69,"l diesel/ha","LCA_En_scarifier",null,"Forestry Commission, 2012. Applicable to plantations only. 0.214 tCO2/ha"]
["Timber harvesting and forwarding to roadside",2.4500000000000002,"l diesel/m3 wood","LCA_En_Woodharvest",null,"Forestry Commission, 2012. 1.55 l/m3 for felling and 0.9 l/m3 for extraction."]
["Typical seedling requirement per hectare (including 20% restocking)",3000,"seedlings/ha","Seedling_No",null,"Forestry Commission, 2012. Applicable to plantations only."]
["Crop Protect Chemicals",{"$f":"1.62+0.48","v":2.1},"kg AI/ha","Herbicide_quantity",null,"Forestry Commission, 2012. Applicable to plantations only."]
["Urea for stump treatment",{"$f":"2.5*0.37*0.4665","v":0.43151250000000002},"kg N Urea/basal area","Urea_stumptreat",null,"Forestry Commission, 2012. Applicable to plantations only."]
["Fencing wood requirement",1.9,"kg/ha/y","Fencing_wood",null,"BEAT2, 2011"]
["Fencing steel wire requirement",2.73,"kg/ha/y","Fencing_steel",null,"BEAT2, 2011"]
["Fencing Wood Preservative",0.62,"kg/ha/y","Fencing_Preserve",null,"BEAT2, 2011"]
[]
["Residue Data"]
["Residue Chipping",{"$f":"1.67*2","v":3.34},"l diesel/odt residue","LCA_chipping",null,"Timmons and Mejia, 2010. 1.67 l diesel per green metric ton, assume 50 wt% moisture in green wood"]
["Brash Extraction",4,"l diesel/odt residue","LCA_brash",null,"Forestry Commission, 2012"]
[]
["LCA Data for SRF plantations (SRF Pine in Southeast USA)"]
["Site preparation, high intensity",346.16,"l diesel/ha","Loblolly_landprep",null,"Divivedi et al., 2011. Includes chopping, piling, burning, disking, bedding, herbicide application and planting."]
["Site preparation, medium intensity plantation",130.9,"l diesel/ha","Loblolly_landprep_low",null,"Less intense site preparation involving burning, bedding, herbicide application and planting. Using diesel requirement for each operation from Divivedi et al., 2011"]
["Crop protect chemicals",0.4,"kg AI/ha","Loblolly_herbicide",null,"Divivedi et al., 2011. "]
["Harvesting (Felling, skidding, loading)",3.42,"l diesel/odt wood","Loblolly_harvest",null,"Timmons and Mejia, 2010"]
["Fertiliser application diesel requirement",18.7,"l diesel/ha","Loblolly_fertiliser_diesel",null,"Divivedi et al., 2011. "]
["P requirement, intensive plantation",{"$f":"(50+3*25)*Conv_lb_kg*((MM_P*2+MM_O*5)/(MM_P*2))/Conv_acre_ha/25","v":12.527788573649438},"kg P205/ha/y","Loblolly_Phosphorus",null,"Fox et al., 2007; NC Forestry Service, 2012. Application of  50 lb P per acre at planting, then 25 lb at ages 7, 14 and 21 years. "]
["N requirement, intensive plantation",{"$f":"(3*175)*Conv_lb_kg/Conv_acre_ha/25","v":22.973493975903615},"kg N/ha/y","Loblolly_Nitrogen",null,"Fox et al., 2007; NC Forestry Service, 2012. Application of 175 lb N per acre at ages 7, 14 and 21 years. "]
["Number of fertiliser sprays, intensive plantation",4,null,"Fert_applications",null,"Fox et al., 2007; NC Forestry Service, 2012."]
["P requirement, medium intensity plantation",{"$f":"2*25*Conv_lb_kg*((MM_P*2+MM_O*5)/(MM_P*2))/Conv_acre_ha/25","v":5.0111154294597746},"kg P205/ha/y","Loblolly_Phosphorus_Low",null,"Fox et al., 2007. Application of  25 lb P per acre at planting, then 1 mid-rotation application of 25lb."]
["N requirement, medium intensity plantation",{"$f":"175*Conv_lb_kg/Conv_acre_ha/25","v":7.6578313253012054},"kg N/ha/y","Loblolly_Nitrogen_Low",null,"Fox et al., 2007. 1 application of 175 lb N per acre during mid-rotation."]
["Number of fertiliser sprays, medium intensity plantation",2,null,"Fert_applications_Low",null,"Fox et al., 2007; NC Forestry Service, 2012."]
[]
[]
["LCA Data for SRC"]
["SRC establishment",12.3,"l diesel/ha/y","Diesel_SRC",null,"BEAT2, 2011"]
["SRC harvesting and chipping",{"$f":"780/7/Conv_kwh_MJ/En_F_diesel","v":3.1012599592366126},"l diesel/odt","Diesel_SRC_harvest",null,"Ofgem, 2013"]
["SRC Cutting requirements",250,"kg cuttings/ha/y","Cuttings_SRC",null,"Ofgem, 2013"]
["SRC Setts",12.5,"kg Setts/ha/y","Setts_SRC",null,"Ofgem, 2013"]
["Crop Protect Chemicals",2.25,"kg AI/ha/y","Pesticides_SRC",null,"BEAT2, 2011"]
["Rotation time",3,"years","Rotation_SRC",null,"Biomass Energy Centre, 2013. "]
["Time during rotation when biomass C stock equals average over the rotation",0.5,null,"Average_Cstock_time_SRC",null,"Simplified assumption, that growth rate is linear, therefore average non-soil carbon stock of an even aged SRC plantation is equal to the non-soil carbon stock half way through the cycle."]
["Yield factor over 20 years, from staggering planting over rotation time causing a reduced yield",{"$f":"(1/Rotation_SRC+2/Rotation_SRC+20-(Rotation_SRC-1))/20","v":0.95},null,"Yield_factor_20y_SRC",null,"If planting is staggered over 3 years, there is 1 year where only 1/3 of the land has SRC, and 2 years when 2/3 of the land has SRC. This will slightly reduce the overall average yield over the time frames."]
["Yield factor over 40 years, from staggering planting over rotation time causing a reduced yield",{"$f":"(1/Rotation_SRC+2/Rotation_SRC+40-(Rotation_SRC-1))/40","v":0.97499999999999998},null,"Yield_factor_40y_SRC",null,"If planting is staggered over 3 years, there is 1 year where only 1/3 of the land has SRC, and 2 years when 2/3 of the land has SRC. This will slightly reduce the overall average yield over the time frames."]
["Yield factor over 100 years, from staggering planting over rotation time causing a reduced yield",{"$f":"(1/Rotation_SRC+2/Rotation_SRC+100-(Rotation_SRC-1))/100","v":0.99},null,"Yield_factor_100y_SRC",null,"If planting is staggered over 3 years, there is 1 year where only 1/3 of the land has SRC, and 2 years when 2/3 of the land has SRC. This will slightly reduce the overall average yield over the time frames."]
["Average C stored in roots of a mature SRC plantation",3.9,"t C/ha","C_roots_SRC",null,"Zan et al., 2001. Converted from C to above ground biomass,"]
[]
["LCA Data for Miscanthus"]
["Miscanthus establishment",1049.3499999999999,"MJ diesel/ha/y",null,null,"BEAT2, 2011"]
[null,{"$f":"B46/Conv_kwh_MJ/En_F_diesel","v":29.205320471249454},"l diesel/ha/y","Diesel_Miscanthus"]
["Miscanthus harvest and chipping",320.63,"MJ diesel/odt",null,null,"BEAT2, 2011. 4040 MJ diesel to produce 12.6 odt miscanthus. "]
[null,{"$f":"B48/Conv_kwh_MJ/En_F_diesel","v":8.9237164937310833},"l diesel/odt","Diesel_Miscanthus_harvest"]
["P2O5 fertiliser",6.13,"kg P2O5/ha/y","P2O5_Miscanthus",null,"BEAT2, 2011"]
["K2O fertiliser",6.4,"kg K2O/ha/y","K2O_Miscanthus",null,"BEAT2, 2011"]
["Lime",200,"kg/ha/y","Lime_Miscanthus",null,"BEAT2, 2011"]
["Manganese",4,"l/ha/y","Manganese_Miscanthus",null,"BEAT2, 2011",null,null,null,null," "]
["Crop Protect Chemicals",4.6399999999999997,"kg AI/ha/y","Pesticides_Miscanthus",null,"BEAT2, 2011"]
["Rhizomes",93.33,"kg/ha/y","Rhizomes_Miscanthus",null,"BEAT2, 2011"]
["Rotation time",1,"years","Rotation_Miscanthus",null,"Natural England, 2007"]
["Time during rotation when biomass C stock equals average over the rotation",0.5,null,"Average_Cstock_time_Miscanthus",null,"Simplified assumption, that growth rate is linear, therefore average non-soil carbon stock of an even aged SRC plantation is equal to the non-soil carbon stock half way through the cycle."]
["Yield factor over 20 years, from staggering planting over rotation time causing a reduced yield",1,null,"Yield_factor_20y_Miscanthus",null,"Miscanthus is harvested annually, therefore staggered planting is not necessary. Natural England, 2007."]
["Yield factor over 40 years, from staggering planting over rotation time causing a reduced yield",1,null,"Yield_factor_40y_Miscanthus",null,"Miscanthus is harvested annually, therefore staggered planting is not necessary. Natural England, 2007."]
["Yield factor over 100 years, from staggering planting over rotation time causing a reduced yield",1,null,"Yield_factor_100y_Miscanthus",null,"Miscanthus is harvested annually, therefore staggered planting is not necessary. Natural England, 2007."]
["Average C stored in roots of a mature Miscanthus plantation",10,"t C/ha","C_roots_Miscanthus",null,"European Commission, 2010"]
[]
["LCA Data for SRF Eucalyptus"]
["Eucalyptus establishment",19.82,"l/ha/y","Diesel_Eucalyp",null,"Ofgem, 2013."]
["Eucalyptus harvest and chipping",125.4,"MJ diesel/odt",null,null,"Ofgem, 2013. 62.7 MJ diesel to produce 0.5 odt Eucalyptus. "]
[null,{"$f":"B65/Conv_kwh_MJ/En_F_diesel","v":3.4901102464332037},"l diesel/odt","Diesel_Eucalyp_harvest"]
["Crop Protect Chemicals",2,"kg AI/ha/y","Pesticides_Ecalyp",null,"Ofgem, 2013"]
["P2O5 fertiliser",13.06,"kg P2O5/ha/y","P2O5_Eucalyp",null,"Ofgem, 2013"]
["K2O fertiliser",11.944000000000001,"kg K2O/ha/y","K2O_Eucalyp",null,"Ofgem, 2013"]
["Lime",7.78,"kg/ha/y","Lime_Eucalyp",null,"Ofgem, 2013"]
["Rotation time",6,"years","Rotation_Eucalyptus",null,"FAO, 2013. Generally, Eucalyptus is harvested (by coppicing) every 5-10 y. "]
["Time during rotation when biomass C stock equals average over the rotation",0.5,null,"Average_Cstock_time_Eucalyptus",null,"Simplified assumption, that growth rate is linear, therefore average non-soil carbon stock of an even aged SRC plantation is equal to the non-soil carbon stock half way through the cycle."]
["Yield factor over 20 years, from staggering planting over rotation time causing a reduced yield",{"$f":"(1/Rotation_Eucalyptus+2/Rotation_Eucalyptus+3/Rotation_Eucalyptus+4/Rotation_Eucalyptus+5/Rotation_Eucalyptus+20-(Rotation_Eucalyptus-1))/20","v":0.875},null,"Yield_factor_20y_Eucalyptus",null,"If planting is staggered over 6 years, there is 1 year where only 1/6 of the land has SRC, and 2 years when 2/6 of the land has SRC etc.. This will slightly reduce the overall average yield over the time frames."]
["Yield factor over 40 years, from staggering planting over rotation time causing a reduced yield",{"$f":"(1/Rotation_Eucalyptus+2/Rotation_Eucalyptus+3/Rotation_Eucalyptus+4/Rotation_Eucalyptus+5/Rotation_Eucalyptus+40-(Rotation_Eucalyptus-1))/40","v":0.9375},null,"Yield_factor_40y_Eucalyptus",null,"If planting is staggered over 6 years, there is 1 year where only 1/6 of the land has SRC, and 2 years when 2/6 of the land has SRC etc.. This will slightly reduce the overall average yield over the time frames."]
["Yield factor over 100 years, from staggering planting over rotation time causing a reduced yield",{"$f":"(1/Rotation_Eucalyptus+2/Rotation_Eucalyptus+3/Rotation_Eucalyptus+4/Rotation_Eucalyptus+5/Rotation_Eucalyptus+100-(Rotation_Eucalyptus-1))/100","v":0.97499999999999998},null,"Yield_factor_100y_Eucalyptus",null,"If planting is staggered over 6 years, there is 1 year where only 1/6 of the land has SRC, and 2 years when 2/6 of the land has SRC etc.. This will slightly reduce the overall average yield over the time frames."]
["Root:Shoot Ratio",0.35,null,"Root_Shoot_Eucalyptus",null,"IPCC, 2006"]
[]
["LCA Data for Palm"]
["Palm establishment",23,"l/ha/y","Diesel_palm",null,"Ofgem, 2013"]
["Palm harvest",72.44,"MJ diesel/odt",null,null,"Ofgem, 2013. 65.2 MJ diesel to produce 0.9 odt palm. "]
[null,{"$f":"B80/Conv_kwh_MJ/En_F_diesel","v":2.016137051448335},"l diesel/odt","Diesel_palm_harvest"]
["Crop Protect Chemicals",8.36,"kg AI/ha/y","Pesticides_palm",null,"Ofgem, 2013"]
["P2O5 fertiliser",143.80000000000001,"kg P2O5/ha/y","P2O5_palm",null,"Ofgem, 2013"]
["K2O fertiliser",199.8,"kg K2O/ha/y","K2O_palm",null,"Ofgem, 2013"]
["Palm Fruit oil content",0.33,"dry wt%","Palm_fat",null,"FAO, 2013a"]
["Palm Fruit protein and carbohydrate content",0.67,"dry wt%","Palm_proteincarb",null,"FAO, 2013a"]
["Palm oil extraction electricity requirement",28.28,"MJ/t oil","Palm_oil_extraction_electricity",null,"Ofgem, 2013"]
["Palm oil extraction natural gas requirement",338,"MJ/t oil","Palm_oil_extraction_gas",null,"Ofgem, 2013"]
["Palm oil extraction fuller's earth requirement",6.17,"kg/t oil","Palm_oil_extraction_Fearth",null,"Ofgem, 2013"]
["Average C stored in roots and above ground of a mature Palm plantation",60,"t C/ha","C_roots_aboveground_palm",null,"European Commission, 2010 "]
[]
["LCA Data for Maize"]
["Maize establishement",60.1,"l/ha/y","Diesel_maize",null,"Ofgem, 2013"]
["Maize harvest",72,null,null,null,"Ofgem, 2013. 21.6 MJ diesel to produce 0.3 odt palm. "]
[null,{"$f":"B94/Conv_kwh_MJ/En_F_diesel","v":2.0038910505836576},"l diesel/odt","Diesel_maize_harvest"]
["Crop protect chemicals",0.56999999999999995,"kg AI/ha/y","Pesticide_maize",null,"Ofgem, 2013"]
["P2O5 fertiliser",41.33,"kg P2O5/ha/y","P2O5_maize",null,"Ofgem, 2013"]
["K2O fertiliser",82.5,"kg K2O/ha/y","K2O_maize",null,"Ofgem, 2013"]
["Maize Seeds",29,"kg/ha","Seeds_maize",null,"Ofgem, 2013"]
["Maize sillage diesel requirement",73.099999999999994,"MJ/t sillage","Sillage_diesel_input",null,"Ofgem, 2013"]
["Maize sillage energy conversion to biogas",0.73,"%","Energy_conversion_sillage",null,"Ofgem, 2013"]
[]
["Anaerobic Digestion"]
["Biogas energy conversion to electricity",0.3,null,"Energy_conversion_biogas_electricity",null,"Estimated"]
["Biogas energy conversion to heat and power (CHP)",0.8,null,"Energy_conversion_biogas_CHP",null,"Estimated"]
[]
["Biodiesel Production"]
["Electricity ",161.44999999999999,"MJ/t biodiesel","Biodiesel_electricity",null,"Ofgem, 2013"]
["Natural gas",2970,"MJ/t biodiesel","Biodiesel_natgas",null,"Ofgem, 2013"]
["Methanol ",109,"kg/t biodiesel","Biodiesel_methanol",null,"Ofgem, 2013"]
["Phosphoric acid ",1.7,"kg/t biodiesel","Biodiesel_PhosAcid",null,"Ofgem, 2013"]
["HCl",20,"kg/t biodiesel","Biodiesel_HCl",null,"Ofgem, 2013"]
["Sodium Carbonate",2.5,"kg/t biodiesel","Biodiesel_NaCarbonate",null,"Ofgem, 2013"]
["Sodium Hydroxide",6.72,"kg/t biodiesel","Biodiesel_NaOH",null,"Ofgem, 2013"]
[]
["Combustion Methane Emissions"]
["Fossil derived methane",2.9999999999999997E-4,"kg CO2e/kWh (based on LHV)","Combustion_CH4_fossilmethane",null,"Defra, 2013"]
["FT diesel",7.1000000000000005E-5,"kg CH4/MJ (based on LHV)",null,null,"Holgrem and Hagberg, 2009"]
[null,{"$f":"B118*Conv_kwh_MJ*GWP_CH4","v":6.3900000000000007E-3},"kg CO2e/kWh (based on LHV)","Combustion_CH4_FTdiesel"]
["Industrial wood combustion",0.03,"kg CH4/GJ (based on HHV)",null,null,"EPA, 2008"]
[null,{"$f":"B120*HHVtoLHV/Conv_GJ_MJ*Conv_kwh_MJ*GWP_CH4","v":2.895E-3},"kg CO2e/kWh (based on LHV)","Combustion_CH4_wood_ind_scale"]
["Residential wood combustion",0.3,"kg CH4/GJ (based on HHV)",null,null,"EPA, 2008"]
[null,{"$f":"B122*HHVtoLHV/Conv_GJ_MJ*Conv_kwh_MJ*GWP_CH4","v":2.895E-2},"kg CO2e/kWh (based on LHV)","Combustion_CH4_wood_smallscale"]
["Biogas methane release from AD",2.0000000000000001E-4,"kg CH4/MJ (based on LHV)",null,null,"Ofgem, 2013"]
[null,{"$f":"B124*Conv_kwh_MJ*GWP_CH4","v":1.8000000000000002E-2},"kg CO2e/kWh (based on LHV)","Biogas_CH4_release"]
[]
["Combustion Nitrous Oxide Emissions"]
["Fossil derived methane",1.2E-4,"kg CO2e/kWh (based on LHV)","Combustion_N2O_fossilmethane",null,"Defra, 2013"]
["FT diesel",5.5000000000000003E-7,"kg N2O/MJ (based on LHV)",null,null,"Holgrem and Hagberg, 2009"]
[null,{"$f":"B129*Conv_kwh_MJ*GWP_N2O","v":5.9004000000000001E-4},"kg CO2e/kWh (based on LHV)","Combustion_N2O_FTdiesel"]
["Industrial wood combustion",4.0000000000000001E-3,"kg N2O/GJ (based on HHV)"]
[null,{"$f":"B131*HHVtoLHV/Conv_GJ_MJ*Conv_kwh_MJ*GWP_N2O","v":4.6011200000000002E-3},"kg CO2e/kWh (based on LHV)","Combustion_N2O_wood_ind_scale",null,"EPA, 2008"]
["Residential wood combustion",4.0000000000000001E-3,"kg N2O/GJ (based on HHV)"]
[null,{"$f":"B133*HHVtoLHV/Conv_GJ_MJ*Conv_kwh_MJ*GWP_N2O","v":4.6011200000000002E-3},"kg CO2e/kWh (based on LHV)","Combustion_N2O_wood_smallscale",null,"EPA, 2008"]
[]
["Emission Factors (Fossil Fuels) "]
["Diesel (volume based)"]
["Direct Emissions",2.6705000000000001,"kg CO2e/l",null,null,"Defra, 2013"]
["Indirect Emissions",0.56769999999999998,"kg CO2e/l",null,null,"Defra, 2013"]
["Total ",{"$f":"B139+B138","v":3.2382},"kg CO2e/l","EF_diesel"]
["Diesel (LHV basis)"]
["Direct Emissions",0.26756999999999997,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Indirect Emissions",5.688E-2,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Total ",{"$f":"B143+B142","v":0.32444999999999996},"kg CO2/KWh ","EF_diesel_LHVenergybasis"]
["Diesel (HHV basis)"]
["Direct Emissions",0.25117,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Indirect Emissions",5.339E-2,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Total ",{"$f":"B147+B146","v":0.30456},"kg CO2/KWh ","EF_diesel_HHVenergybasis"]
["Petrol (LHV basis)"]
["Direct Emissions",0.25342999999999999,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Indirect Emissions",5.076E-2,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Total ",{"$f":"B151+B150","v":0.30418999999999996},"kg CO2/KWh ","EF_petrol_LHVenergybasis"]
["Petrol (HHV basis)"]
["Direct Emissions",0.24051,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Indirect Emissions",4.8169999999999998E-2,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Total ",{"$f":"B155+B154","v":0.28867999999999999},"kg CO2/KWh ","EF_petrol_HHVenergybasis"]
["Natural Gas (LHV basis)",null,null,null,null,"Defra, 2013"]
["Direct Emissions",0.20421,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Indirect Emissions",3.1179999999999999E-2,"kg CO2/KWh "]
["Total ",{"$f":"B158+B159","v":0.23538999999999999},"kg CO2/KWh ","EF_NaturalGas_LHVbasis"]
["Natural Gas (HHV basis)"]
["Direct Emissions",0.18404000000000001,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Indirect Emissions",2.81E-2,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Total ",{"$f":"B162+B163","v":0.21214},"kg CO2/KWh ","EF_NaturalGas_HHVbasis"]
["Coal (LHV basis)",null,null,null,null,"Defra, 2013"]
["Direct Emissions",0.32782,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Indirect Emissions",5.3620000000000001E-2,"kg CO2/KWh "]
["Total ",{"$f":"B166+B167","v":0.38144},"kg CO2/KWh ","EF_Coal_LHVbasis"]
["Coal (HHV basis)"]
["Direct Emissions",0.31234000000000001,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Indirect Emissions",5.1090000000000003E-2,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Total ",{"$f":"B170+B171","v":0.36343000000000003},"kg CO2/KWh ","EF_Coal_HHVbasis"]
["Heavy Fuel Oil (LHV energy basis)"]
["Direct Emissions",0.28594000000000003,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Indirect Emissions",5.382E-2,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Total ",{"$f":"B174+B175","v":0.33976000000000001},"kg CO2/KWh ","EF_heavyfueloil_LHVbasis"]
["Heavy Fuel Oil (HHV energy basis)"]
["Direct Emissions",0.26876,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Indirect Emissions",5.0590000000000003E-2,"kg CO2/KWh ",null,null,"Defra, 2013"]
["Total ",{"$f":"B178+B179","v":0.31935000000000002},"kg CO2/KWh ","EF_heavyfueloil_HHVbasis"]
[]
[]
[]
["Emission Factors (Production GHG emissions) "]
["N Fertiliser",6.22,"kg CO2e/kg N","EF_Nfert",null,"EFMA European Union, 2006"]
["Urea",1.581,"kg CO2e/kg N","EF_Urea",null,"EFMA European Union, 2006"]
["P Fertiliser",0.73099999999999998,"kg CO2e/kg P2O5","EF_Pfert",null,"EFMA European Union, 2006"]
["K Fertiliser",0.501,"kg CO2e/kg K2O","EF_Kfert",null,"EFMA European Union, 2006"]
["Crop Protect Chemicals",11.03,"kg CO2e/kg Active Ingradient","EF_Pest",null,"Bio Grace, 2013"]
["Lime",0.04,"kg CO2e/kg","EF_lime",null,"Bio Grace, 2013"]
["Fuller's Earth"]
["CO2 emissions",0.19700000000000001,"kg CO2/kg",null,null,"BEAT2, 2011"]
["CH4 emissions",3.6999999999999998E-5,"kg CH4/kg",null,null,"BEAT2, 2011"]
["N2O emissions",6.4999999999999996E-6,"kg N2O/kg",null,null,"BEAT2, 2011"]
["Total GHG emissions",{"$f":"B192+B193*GWP_CH4+B194*GWP_N2O","v":0.19986200000000001},"kg CO2e/kg","EF_Fuller's Earth"]
["Methanol"]
["CO2 emissions",2.722,"kg CO2/kg",null,null,"BEAT2, 2011"]
["CH4 emissions",1.2999999999999999E-3,"kg CH4/kg",null,null,"BEAT2, 2011"]
["N2O emissions",1.5E-5,"kg N2O/kg",null,null,"BEAT2, 2011"]
["Total GHG emissions",{"$f":"B197+B198*GWP_CH4+B199*GWP_N2O","v":2.7589700000000001},"kg CO2e/kg","EF_Methanol"]
["Phosphoric Acid"]
["CO2 emissions",0.78600000000000003,"kg CO2/kg",null,null,"BEAT2, 2011"]
["CH4 emissions",1.23E-3,"kg CH4/kg",null,null,"BEAT2, 2011"]
["N2O emissions",2.0000000000000002E-5,"kg N2O/kg",null,null,"BEAT2, 2011"]
["Total GHG emissions",{"$f":"B202+B203*GWP_CH4+B204*GWP_N2O","v":0.82271000000000005},"kg CO2e/kg","EF_Phosphoricacid"]
["Hydrochloric acid"]
["CO2 emissions",0.15,"kg CO2/kg",null,null,"BEAT2, 2011"]
["CH4 emissions",0.01,"kg CH4/kg",null,null,"BEAT2, 2011"]
["N2O emissions",2.9999999999999997E-4,"kg N2O/kg",null,null,"BEAT2, 2011"]
["Total GHG emissions",{"$f":"B207+B208*GWP_CH4+B209*GWP_N2O","v":0.4894},"kg CO2e/kg","EF_Hcl"]
["Sodium Hydroxide (100% conc)"]
["CO2 emissions",2.2400000000000002,"kg CO2/kg ",null,null,"BEAT2, 2011. 1.12 kg CO2/kg for 50% concentration. "]
["CH4 emissions",6.4999999999999997E-3,"kg CH4/kg ",null,null,"BEAT2, 2011. 0.00325 kg CH4/kg for 50% concentration. "]
["N2O emissions",0,"kg N2O/kg ",null,null,"BEAT2, 2011"]
["Total GHG emissions",{"$f":"B212+B213*GWP_CH4+B214*GWP_N2O","v":2.4025000000000003},"kg CO2e/kg","EF_NaOH"]
["Sodium Carbonate"]
["CO2 emissions",2.13,"kg CO2/kg ",null,null,"BEAT2, 2011"]
["CH4 emissions",7.2000000000000005E-4,"kg CH4/kg ",null,null,"BEAT2, 2011"]
["N2O emissions",1.8E-5,"kg N2O/kg ",null,null,"BEAT2, 2011"]
["Total GHG emissions",{"$f":"B217+B218*GWP_CH4+B219*GWP_N2O","v":2.1533639999999998},"kg CO2e/kg","EF_NaCarbonate"]
["Forestry Seedlings",126,"kg CO2e/1000 seedlings","EF_Seedlings",null,"Forestry Commission, 2012"]
["Fencing wood",4.1000000000000002E-2,"kg CO2e/kg","EF_fence_wood",null,"BEAT2, 2011"]
["Fencing steel",6.31,"kg CO2e/kg","EF_fence_wire",null,"BEAT2, 2011"]
["Fencing Wood Preservative",1.41,"kg CO2e/kg","EF_Fence_Preserve",null,"BEAT2, 2011"]
["SRC cutting"]
["CO2 emissions",4.3E-3,"kg CO2/kg ",null,null,"BEAT2, 2011"]
["CH4 emissions",8.5099999999999998E-7,"kg CH4/kg ",null,null,"BEAT2, 2011"]
["N2O emissions",3.4000000000000001E-6,"kg N2O/kg ",null,null,"BEAT2, 2011"]
["Total GHG emissions",{"$f":"B226+B227*GWP_CH4+B228*GWP_N2O","v":5.334475E-3},"kg CO2e/kg","EF_SRC_cutting"]
["SRC sett"]
["CO2 emissions",1.72E-2,"kg CO2/kg "]
["CH4 emissions",3.41E-6,"kg CH4/kg "]
["N2O emissions",1.3599999999999999E-6,"kg N2O/kg "]
["Total GHG emissions",{"$f":"B231+B232*GWP_CH4+B233*GWP_N2O","v":1.7690529999999999E-2},"kg CO2e/kg","EF_SRC_sett",null,"BEAT2, 2011"]
["Manganese",0.75,"kg CO2e/l","EF_Manganese",null,"BEAT2, 2011"]
["Rhizomes",0.28000000000000003,"kg CO2e/kg","EF_Rhizomes",null,"BEAT2, 2011"]
["Maize Seeds",0.29199999999999998,"kg CO2e/kg","EF_Maizeseed",null,"Ofgem, 2013"]
[]
["Direct Energy Requirement "]
["N Fertiliser",40,"MJ/kg N"]
[null,{"$f":"B240/Conv_kwh_MJ","v":11.111111111111111},"KWh/kg N","En_F_Nfert",null,"EFMA European Union, 2006"]
["Urea",51.6,"MJ/kg N"]
[null,{"$f":"B242/Conv_kwh_MJ","v":14.333333333333334},"KWh/kg N","En_Urea",null,"EFMA European Union, 2006"]
["P Fertiliser",13.3,"MJ/kg P2O5"]
[null,{"$f":"B244/Conv_kwh_MJ","v":3.6944444444444446},"KWh/kg P2O5","En_F_Pfert",null,"EFMA European Union, 2006"]
["K Fertiliser",8.4,"MJ/kg K2O"]
[null,{"$f":"B246/Conv_kwh_MJ","v":2.3333333333333335},"KWh/kg K2O","En_F_Kfert",null,"EFMA European Union, 2006"]
["Crop Protect Chemicals",268,"MJ/kg AI"]
[null,{"$f":"B248/Conv_kwh_MJ","v":74.444444444444443},"KWh/kg AI","En_F_Pest",null,"Bio Grace, 2013"]
["Lime",0.61,"MJ/kg"]
[null,{"$f":"B250/Conv_kwh_MJ","v":0.16944444444444443},"KWh/kg","En_lime",null,"Bio Grace, 2013"]
["Fuller's Earth",2.5499999999999998,"MJ/kg"]
[null,{"$f":"B252/Conv_kwh_MJ","v":0.70833333333333326},"KWh/kg","En_FullerEarth",null,"BEAT2, 2011"]
["Methanol",38.08,"MJ/kg"]
[null,{"$f":"B254/Conv_kwh_MJ","v":10.577777777777778},"KWh/kg","En_methanol",null,"BEAT2, 2011"]
["Phosphoric Acid",11.4,"MJ/kg"]
[null,{"$f":"B256/Conv_kwh_MJ","v":3.1666666666666665},"KWh/kg","En_Phosphoricacid",null,"BEAT2, 2011"]
["Hydrochloric acid",40,"MJ/kg"]
[null,{"$f":"B258/Conv_kwh_MJ","v":11.111111111111111},"KWh/kg","En_Hcl",null,"BEAT2, 2011"]
["Sodium Hydroxide (100% conc)",39.74,"MJ/kg"]
[null,{"$f":"B260/Conv_kwh_MJ","v":11.03888888888889},"KWh/kg","En_NaOH",null,"BEAT2, 2011"]
["Sodium Carbonate",29,"MJ/kg"]
[null,{"$f":"B262/Conv_kwh_MJ","v":8.0555555555555554},"KWh/kg","En_NaCarbonate",null,"BEAT2, 2011"]
["Forestry Seedlings",1319,"MJ/1000 seedlings"]
[null,{"$f":"B264/Conv_kwh_MJ","v":366.38888888888886},"KWh/1000 seedlings","En_Seedlings",null,"BEAT2, 2011"]
["Fencing wood",0.5,"MJ/kg"]
[null,{"$f":"B266/Conv_kwh_MJ","v":0.1388888888888889},"KWh/kg","En_fence_wood",null,"BEAT2, 2011"]
["Fencing steel",137,"MJ/kg"]
[null,{"$f":"B268/Conv_kwh_MJ","v":38.055555555555557},"KWh/kg","En_fence_wire",null,"BEAT2, 2011"]
["Fencing Wood Preservative",100,"MJ/kg"]
[null,{"$f":"B270/Conv_kwh_MJ","v":27.777777777777779},"KWh/kg","En_Fence_Preserve",null,"BEAT2, 2011"]
["SRC Cutting",0.10100000000000001,"MJ/kg"]
[null,{"$f":"B272/Conv_kwh_MJ","v":2.8055555555555556E-2},"KWh/kg","En_SRC_cutting",null,"BEAT2, 2011"]
["SRC sett",0.40400000000000003,"MJ/kg"]
[null,{"$f":"B274/Conv_kwh_MJ","v":0.11222222222222222},"KWh/kg","En_SRC_sett",null,"BEAT2, 2011"]
["Manganese",10,"MJ/l"]
[null,{"$f":"B276/Conv_kwh_MJ","v":2.7777777777777777},"KWh/l","En_Manganese",null,"BEAT2, 2011"]
["Rhizomes",8,"MJ/kg"]
[null,{"$f":"B278/Conv_kwh_MJ","v":2.2222222222222223},"KWh/kg","En_Rhizomes",null,"BEAT2, 2011"]
["Maize Seeds",8,"MJ/kg"]
[null,{"$f":"B280/Conv_kwh_MJ","v":2.2222222222222223},"KWh/kg","En_Maizeseed",null,"Assume similar to rhizomes"]
["Diesel (volume based)",{"$f":"En_F_diesel*Conv_kwh_MJ","v":35.930097087378648},"MJ/l"]
[null,{"$f":"EF_diesel/EF_diesel_LHVenergybasis","v":9.9805825242718456},"KWh/l","En_F_diesel",null,"Calculated"]
[]
["Primary Energy Requirement"]
["N Fertiliser",1,"MWh primary energy/MWh direct energy","Prim_En_Nfert",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Urea",1,"MWh primary energy/MWh direct energy","Prim_En_Urea",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["P Fertiliser",1,"MWh primary energy/MWh direct energy","Prim_En_Pfert",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["K Fertiliser",1,"MWh primary energy/MWh direct energy","Prim_En_Kfert",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Crop Protect Chemicals",1,"MWh primary energy/MWh direct energy","Prim_En_CropProtect",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Lime",1,"MWh primary energy/MWh direct energy","Prim_En_Lime",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Fuller's Earth",1,"MWh primary energy/MWh direct energy","Prim_En_FullerEarth",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Methanol",1,"MWh primary energy/MWh direct energy","Prim_En_Methanol",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Phosphoric Acid",1,"MWh primary energy/MWh direct energy","Prim_En_Phosphoricacid",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Hydrochloric acid",1,"MWh primary energy/MWh direct energy","Prim_En_HCl",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Sodium Hydroxide (100% conc)",1,"MWh primary energy/MWh direct energy","Prim_En_NaOH",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Sodium Carbonate",1,"MWh primary energy/MWh direct energy","Prim_En_NaCarbonate",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Forestry Seedlings",1,"MWh primary energy/MWh direct energy","Prim_En_Seedlings",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Fencing wood",1,"MWh primary energy/MWh direct energy","Prim_En_fence_wood",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Fencing steel",1,"MWh primary energy/MWh direct energy","Prim_En_fence_wire",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Fencing Wood Preservative",1,"MWh primary energy/MWh direct energy","Prim_En_preserve",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["SRC Cutting",1,"MWh primary energy/MWh direct energy","Prim_En_SRC_cutting",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["SRC sett",1,"MWh primary energy/MWh direct energy","Prim_En_SRC_sett",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Manganese",1,"MWh primary energy/MWh direct energy","Prim_En_Manganese",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Rhizomes",1,"MWh primary energy/MWh direct energy","Prim_En_Rhizomes",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Maize Seeds",1,"MWh primary energy/MWh direct energy","Prim_En_Maizeseed",null,"Data assumed for direct energy is given as primary energy. Assumes little difference between direct and primary energy requirement."]
["Diesel (energy based)",1.073,"MWh primary energy/MWh direct energy","Prim_En_Diesel"]
["Heavy Fuel Oil (energy basis)",1.1100000000000001,"MWh primary energy/MWh direct energy","Prim_En_FuelOil"]
["Natural Gas",1.1100000000000001,"MWh primary energy/MWh direct energy","Prim_En_Natgas"]

{"sheet":"Constants","index":14,"n_rows":51,"n_cols":5,"rows_kept":51,"cut":false,"hidden":false,"merged":[]}
[null,"Value","Unit ","Name","Reference"]
["Lower Heating Values "]
["Carbohydrates and Proteins",18,"MJ/kg","LHV_carb_protein"]
["Fats",40,"MJ/kg","LHV_fat"]
["Ethanol",27,"MJ/kg","LHV_ethanol"]
["Biomass",19,"MJ/kg","LHV_biomass"]
["Hardwood",19,"MJ/kg","LHV_hardwood","AEBIOM, 2008"]
["Softwood",19.2,"MJ/kg","LHV_softwood","AEBIOM, 2008"]
["Grasses (e.g.  Miscanthus)",17.600000000000001,"MJ/kg","LHV_grasses","AEBIOM, 2008"]
["SRC Willow",18.399999999999999,"MJ/kg","LHV_SRC","AEBIOM, 2009"]
["Methane from Landfill",50,"MJ/kg","LHV_methane"]
["Ratio HHV:LHV dry wood",1.0722222222222222,"MJ/MJ","HHVtoLHV","HHV 19.3 MJ/kg, LHV 18 MJ/kg"]
["Density softwood",0.41099999999999998,"oven dry te/m3","density_SW","Miles and Smith. USDA, Specific Gravity and Other properties of Wood and Bark for 156 Tree Species Found in North America (2009)"]
["Density hardwood",0.52300000000000002,"oven dry te/m3","density_HW","Miles and Smith. USDA, Specific Gravity and Other properties of Wood and Bark for 156 Tree Species Found in North America (2009)"]
["Factor for converting LHV on dry basis to wet basis",0.67900000000000005,"kWh/kg moisture","Vapourisation_H2O","Biomass Energy Centre: Calorific Value vs Moisture Content. Enthalpy of vapourisation "]
["Gravitational acceleration",9.81,"m/s/s","Gravity"]
["DensIty of Water",1000,"kg/m3","Density_Water"]
[]
["Molar Masses "]
["CO2",44,"kg/kmol","MM_CO2"]
["CH4",16,"kg/kmol","MM_CH4"]
["N2O",44,"kg/kmol","MM_N2O"]
["C",12,"kg/kmol","MM_C"]
["N2",28,"kg/kmol","MM_N2"]
["P",31,"kg/kmol","MM_P"]
["O",16,"kg/kmol","MM_O"]
[]
["IPCC Global Warming Potentials (100 years)"]
["CH4",25,"kg CO2e/kg CH4","GWP_CH4","IPCC 2007. This value has recently been updated in IPCC AR5; user can change to investigate the impact from changing this GWP."]
["N2O",298,"kg CO2e/kg N2O","GWP_N2O","IPCC 2007."]
[]
["Carbon Content of Biomass"]
["Biomass",0.47,null,"C_biomass","Anderson-Teixei and Delucia, 2011."]
["Litter",0.37,null,"C_litter","Anderson-Teixei and Delucia, 2011."]
["Peat",0.54,null,"C_peat","Anderson-Teixei and Delucia, 2011."]
["SOC",0.57999999999999996,null,"C_SOC","Anderson-Teixei and Delucia, 2011."]
[]
[]
["Default Error Assumptions"]
["Non-soil Carbon Stock changes",0.5,null,"Error_carbon_stock"]
["Soil Carbon Stock Changes",0.45,null,"Error_SOC","SOC error for IPCC 2006 = 90% (2 standard deviations). "]
["Forgone carbon sequestration",0.5,null,"Error_forgone_sequestration"]
["Land management",0.25,null,"Error_land_management"]
["Fertiliser manufacture",0.25,null,"Error_fertiliser"]
["Pretreatment",0.5,null,"Error_pretreatment"]
["Transport",0.25,null,"Error_transport"]
["Energy Technology",0.25,null,"Error_technology"]
["Displacement of non-wood materials",0.5,null,"Error_displacement"]
["Pumping head",0.5,null,"Error_pump_head"]
["Pump efficiency",0.1,null,"Error_pump_efficiency"]
["Grid primary energy requirement",0.25,null,"Error_grid_PrimEn"]

{"sheet":"Conversions","index":15,"n_rows":19,"n_cols":5,"rows_kept":19,"cut":false,"hidden":false,"merged":[]}
[null,"Unit 1","equals","Unit2","Constant Name"]
[1,"Ha",10000,"m2","Conv_Ha_m2"]
[1,"te",1000,"kg","Conv_te_kg"]
[1,"TWh",1000000000,"KWh","Conv_TWh_KWh"]
[1,"TWh",1000000,"MWh","Conv_TWh_MWh"]
[1,"GWh",1000,"MWh","Conv_GWh_MWh"]
[1,"TWh",1000,"GWh","Conv_TWh_GWh"]
[1,"year",365.25,"days","Conv_year_day"]
[1,"KWh",3.6,"MJ","Conv_kwh_MJ"]
[1,"te",{"$f":"1000000","v":1000000},"g","Conv_te_g"]
[1,"Mha",1000000,"Ha","Conv_Mha_Ha"]
[1,"MWh",1000,"KWh","Conv_MWh_KWh"]
[1,"Mte",1000000,"te","Conv_Mte_te"]
[1,"Kcal",1.163E-3,"kwh","Conv_kcal_kwh"]
[1,"GJ",1000,"MJ","Conv_GJ_MJ"]
[1,"m",1000,"mm","Conv_m_mm"]
[1,"MJ",1000000,"J","Conv_MJ_J"]
[1,"acre",0.41499999999999998,"Ha","Conv_acre_ha"]
[1,"lb",0.45400000000000001,"kg","Conv_lb_kg"]

{"sheet":"Reference Data","index":16,"n_rows":168,"n_cols":15,"rows_kept":168,"cut":false,"hidden":false,"merged":[[149,1,150,4],[126,1,126,5]]}
["IPCC Soil Organic Carbon Content Reference Data"]
["IPCC Default SOC values for Mineral Soils Top 30cm (top soil)"]
["European Commission 2010 Background Guide for the Calculation of Land Carbon Stocks in the Biofuels Sustainability Scheme recommends this as the most appropriate method."]
[]
["Improbable soil and climate combination","italics","IPCC default figures not available for these improbable combinations, , therefore spatial data from European Commission Guide 2010 used"]
[]
["Climate","Carbon Stock of Soil Types",null,"t C/ha"]
[null,"High Activity Clay","Error","Low Activity Clay","Error","Sandy","Error","Spodic","Error","Volcanic","Error","Wetland","Error","Average","Error"]
["Boreal",68,{"$f":"B9*error_SOC","v":30.6},81,{"$f":"D9*error_SOC","v":36.450000000000003},10,{"$f":"F9*error_SOC","v":4.5},117,{"$f":"H9*error_SOC","v":52.65},20,{"$f":"J9*error_SOC","v":9},146,{"$f":"L9*error_SOC","v":65.7},{"$f":"AVERAGE(B9,F9,H9,J9)","v":53.75},{"$f":"N9*error_SOC","v":24.1875}]
["Cold Temperate Dry",50,22.5,33,14.85,34,15.3,63,28.35,20,9,87,39.15,{"$f":"AVERAGE(B10,D10,F10,J10)","v":34.25},15.4125]
["Cold Temperate Moist",95,42.75,85,38.25,71,31.95,115,51.75,130,58.5,87,39.15,{"$f":"AVERAGE(B11,D11,F11,H11,J11)","v":99.2},44.64]
["Warm Temperate Dry",38,17.100000000000001,24,10.8,19,8.5500000000000007,60,27,70,31.5,88,39.6,{"$f":"AVERAGE(B12,D12,F12,J12)","v":37.75},16.987500000000001]
["Warm Temperate Moist",88,39.6,63,28.35,34,15.3,69,31.05,80,36,88,39.6,66.25,29.8125]
["Tropical Dry",38,17.100000000000001,35,15.75,31,13.950000000000001,56,25.2,50,22.5,86,38.700000000000003,38.5,17.324999999999999]
["Tropical Moist",65,29.25,47,21.150000000000002,39,17.55,76,34.200000000000003,70,31.5,86,38.700000000000003,55.25,24.862500000000001]
["Tropical Wet",44,19.8,60,27,66,29.7,88,39.6,130,58.5,86,38.700000000000003,75,33.75]
["Tropical Montane",88,39.6,63,28.35,34,15.3,94,42.300000000000004,80,36,86,38.700000000000003,66.25,29.8125]
[]
["IPCC Carbon Stock Change Factors (IPCC, 2006)"]
["Climate","Factors"]
[null,"Full Till Factor (Ftill_)","Error (Standard deviation)","Perennial Crop Factor (Fperen_)","Error (Standard deviation)","No Till Farming (F_notill)","Error (Standard deviation)","Paddy Rice Factor (Frice_)","Error (Standard deviation)"]
["Boreal",0.8,4.4999999999999998E-2,1,0.25,{"$f":"0.8*1.1","v":0.88000000000000012},{"$f":"4.5%+2.5%","v":7.0000000000000007E-2},1.1000000000000001,0.25]
["Cold Temperate Dry",0.8,4.4999999999999998E-2,1,0.25,{"$f":"0.8*1.1","v":0.88000000000000012},{"$f":"4.5%+2.5%","v":7.0000000000000007E-2},1.1000000000000001,0.25]
["Cold Temperate Moist",0.69,{"$f":"6%","v":0.06},1,0.25,{"$f":"0.69*1.15","v":0.79349999999999987},{"$f":"6%+4%","v":0.1},1.1000000000000001,0.25]
["Warm Temperate Dry",0.8,4.4999999999999998E-2,1,0.25,{"$f":"0.8*1.1","v":0.88000000000000012},{"$f":"4.5%+2.5%","v":7.0000000000000007E-2},1.1000000000000001,0.25]
["Warm Temperate Moist",0.69,0.06,1,0.25,{"$f":"0.69*1.15","v":0.79349999999999987},{"$f":"6%+4%","v":0.1},1.1000000000000001,0.25]
["Tropical Dry",0.57999999999999996,0.30499999999999999,1,0.25,{"$f":"0.58*1.17","v":0.67859999999999987},{"$f":"31%+4%","v":0.35},1.1000000000000001,0.25]
["Tropical Moist",0.48,0.23,1,0.25,{"$f":"0.48*1.22","v":0.58560000000000001},{"$f":"23%+3.5%","v":0.26500000000000001},1.1000000000000001,0.25]
["Tropical Wet",0.48,0.23,1,0.25,{"$f":"0.48*1.22","v":0.58560000000000001},{"$f":"23%+3.5%","v":0.26500000000000001},1.1000000000000001,0.25]
["Tropical Montane",0.64,0.25,1,0.25,{"$f":"0.64*1.16","v":0.74239999999999995},{"$f":"25%+25%","v":0.5},1.1000000000000001,0.25]
[]
["IPCC Above and Below Ground Biomass"]
["IPCC data from Table 15 European Commission 2010 Background Guide for the Calculation of Land Carbon Stocks in the Biofuels Sustainability Scheme"]
["IPCC Native Land Types"]
[null,null,null,null,"Above Ground Biomass. Table 4.7 IPCC 2006 Guidelines","Range Low","Range High","Total carbon stock (above and below ground and dead organic matter) Table 15 European Commission Guide","Range Low","Range High","Litter","Error in total carbon stock, based on lowest number ","Notes"]
[null,null,"Root:Shoot",null,"te dm/ha","te dm/ha","te dm/ha","te C/ha","te C/ha","te C/ha","te dm/ha"]
["Tropical","Tropical Rainforest",0.37,"Africa",310,130,510,204,94,355,{"$f":"(H37-(E37*(1+C37))*C_biomass)/C_litter","v":11.867567567567544}]
[null,null,0.37,"North or South America",300,120,400,198,87,279,13.054054054054012]
[null,null,0.37,"Asia Continental",280,120,680,185,87,471,12.72432432432432]
[null,null,0.37,"Asia Insular",350,280,520,230,197,361,12.527027027027003]
[null,"Tropical Moist Deciduous Forest",0.24,"Africa",260,160,430,156,104,272,12.086486486486509]
[null,null,0.24,"North or South America",220,210,280,133,135,179,{"$f":"(H42-(E42*(1+C42))*C_biomass)/C_litter","v":12.929729729729708}]
[null,null,0.24,"Asia Continental",180,10,560,110,11,352,13.772972972973021]
[null,null,0.24,"Asia Insular",290,290,290,174,186,186,13.481081081081079]
[null,"Tropical Dry Forest",0.28000000000000003,"Africa",120,120,130,77,82,88,12.994594594594613]
[null,null,0.28000000000000003,"North or South America",210,200,410,131,133,268,12.60540540540541]
[null,null,0.28000000000000003,"Asia Continental",130,100,160,83,69,108,12.951351351351356]
[null,null,0.28000000000000003,"Asia Insular",160,160,160,101,108,109,12.82162162162162]
[null,"Tropical Mountain System",0.24,"Africa",{"$f":"AVERAGE(F49:G49)","v":115},40,190,77,31,127,26.967567567567592]
[null,null,0.24,"North or South America",{"$f":"AVERAGE(F50:G50)","v":145},60,230,94,43,153,25.659459459459459]
[null,null,0.24,"Asia Continental",{"$f":"AVERAGE(F51:G51)","v":135},50,220,88,37,145,25.194594594594601]
[null,null,0.24,"Asia Insular",{"$f":"AVERAGE(F52:G52)","v":205},50,360,130,37,234,28.448648648648678]
[null,"Typical Tropical Forest",{"$f":"C37","v":0.37},null,{"$f":"E38","v":300},null,null,{"$f":"H38","v":198},{"$f":"I49","v":31},{"$f":"J39","v":471},13.054054054054012,{"$f":"(H53-I53)/H53","v":0.84343434343434343},"Rainforest and Tropical deciduous most common tropical forests"]
[null,"Tropical Shrub Land",0.4,"Africa",70,20,200,46,0.3,null,0]
[null,null,0.4,"North and South America",80,40,90,53,0.3,null,0]
[null,null,0.4,"Asia Continental",60,60,60,39,0.3,null,0]
[null,null,0.4,"Asia Insular",70,70,70,46,0.3,null,0]
[null,null,0.4,"Australia",70,70,70,46,0.3,null,0]
[null,"Typical Tropical Shrub Land (Savannah)",0.4,null,{"$f":"E54","v":70},null,null,{"$f":"H54","v":46},{"$f":"I54","v":0.3},null,0,null,"African savanna most wide spread"]
["Temperate","Temperate Oceanic Forest",0.27,"Europe",120,120,120,84,90,90,{"$f":"(H60-(E60*(1+C60))*C_biomass)/C_litter","v":33.43783783783784}]
[null,null,0.27,"North America",660,80,1200,406,64,775,32.556756756756734]
[null,null,0.27,"New Zealand",360,210,430,227,146,286,32.745945945945984]
[null,null,0.27,"South America",180,90,310,120,70,210,33.94054054054056]
[null,"Temperate Continental Forest",0.27,"Asia, Europe",120,20,320,87,29,219,41.545945945945945]
[null,null,0.27,"North and South America",130,50,200,93,48,143,41.629729729729746]
[null,"Temperate Mountain System",0.27,"Asia, Europe",130,20,600,93,29,397,41.629729729729746]
[null,null,0.27,"North and South America",130,40,280,93,41,194,41.629729729729746,null,"Temperate Continental most common temperate forest"]
[null,"Typical Temperate Forest",0.27,null,{"$f":"E65","v":130},null,null,{"$f":"H65","v":93},{"$f":"I64","v":29},{"$f":"J66","v":397},41.629729729729746,{"$f":"(H68-I68)/H68","v":0.68817204301075274}]
[null,"Temperate Shrub Land",2.8,"All regions",null,null,null,7.4,0.3]
["Boreal","Boreal Coniferous Forest",0.24,"All Regions",{"$f":"AVERAGE(F70:G70)","v":50},10,90,53,31,82,{"$f":"(H70-(E70*(1+C70))*C_biomass)/C_litter","v":64.486486486486498},{"$f":"(H70-I70)/H70","v":0.41509433962264153}]
[null,"Boreal Woody Tundra",0.24,"All Regions",{"$f":"AVERAGE(F71:G71)","v":17.5},15,20,35,34,37,{"$f":"(H71-(E71*(1+C71))*C_biomass)/C_litter","v":67.029729729729738},{"$f":"(H71-I71)/H71","v":2.8571428571428571E-2}]
[null,"Boreal Mountain System",0.24,"All Regions",45,40,50,53,50,56,{"$f":"(H72-(E72*(1+C72))*C_biomass)/C_litter","v":72.362162162162178},{"$f":"(H72-I72)/H72","v":5.6603773584905662E-2}]
[]
[]
["IPCC Grassland"]
[null,"Grassland",null,null,null,null,null,null,"IPCC Table 3.4.2",null,"Type of grassland likely in this region"]
[null,"Total Biomass",null,"Root to Shoot Ratio"]
[null,"Mean","SD",null,"Above Ground Biomass","SD","Root","SD","Above Ground Net Primary Productivity"]
[null,"te C/ha","te C/ha",null,"dry te/ha",null,"dry te/ha",null,"te dm/ha/y","error"]
["Boreal",4.3,{"$f":"B80*0.75","v":3.2249999999999996},4,{"$f":"B80/(1+D80)/C_biomass","v":1.8297872340425532},{"$f":"C80/(1+D80)/C_biomass","v":1.3723404255319147},{"$f":"B80/(1+D80)*D80/C_biomass","v":7.3191489361702127},{"$f":"C80*D80/(1+D80)/C_biomass","v":5.4893617021276588},1.8,{"$f":"75%/2","v":0.375},"Steppe, Tundra, Praire grassland"]
["Cold Temperate Dry",3.3,2.4749999999999996,2.8,1.8477043673012319,1.3857782754759238,5.1735722284434491,3.8801791713325864,2.2000000000000002,0.375,"Semi-arid grassland"]
["Cold Temperate Moist",6.8,5.0999999999999996,4,2.8936170212765955,2.1702127659574471,11.574468085106382,8.6808510638297882,5.6,0.375,"Steppe, Tundra, Praire grassland"]
["Warm Temperate Dry",3.1,2.3250000000000002,2.8,1.7357222844344908,1.3017917133258681,4.8600223964165732,3.6450167973124303,2.4,0.375,"Semi-arid grassland"]
["Warm Temperate Moist",6.8,5.0999999999999996,4,2.8936170212765955,2.1702127659574471,11.574468085106382,8.6808510638297882,5.8,0.375,"Tropical Grassland"]
["Tropical Dry",4.4000000000000004,3.3000000000000003,2.8,2.4636058230683093,1.8477043673012321,6.8980963045912658,5.1735722284434491,3.8,0.375,"Semi-arid grassland"]
["Tropical Moist",8.1,6.0749999999999993,1.6,6.6284779050736491,4.971358428805237,10.60556464811784,7.9541734860883793,8.1999999999999993,0.375,"Tropical Grassland"]
["Tropical Wet",8.1,6.0749999999999993,1.6,6.6284779050736491,4.971358428805237,10.60556464811784,7.9541734860883793,8.1999999999999993,0.375,"Tropical Grassland"]
["Tropical Montane",8.1,6.0749999999999993,1.6,6.6284779050736491,4.971358428805237,10.60556464811784,7.9541734860883793,8.1999999999999993,0.375,"Tropical Grassland"]
[]
["Summarised IPCC data "]
["IPCC data from IPCC, 2006 and European Commission, 2010. "]
["These values are the average biomass stock values, including disturbances such as fires. For Boreal forests, this means the carbon stock is lower than a mature forest, as natural disturbances occurr often."]
[null,"Above ground biomass","Error","Root","Standard deviation","Dead Organic Matter","Standard deviation","Total","Notes"]
[null,"dry te/ha","dry te/ha","dry te/ha","dry te/ha","dry te/ha","dry te/ha","dry te/ha"]
["Typical Tropical Forest",{"$f":"E53","v":300},{"$f":"B95*L53","v":253.03030303030303},{"$f":"B95*C53","v":111},{"$f":"D95*L53","v":93.621212121212125},{"$f":"(H53-(D95+B95)*C_biomass)/C_litter","v":13.054054054054088},0,{"$f":"B95+D95+F95","v":424.05405405405406},"Modelled on IPCC Tropical Rainforest in North and South America. Uncertainty reflects different types of tropical forests."]
["Typical Temperate Forest",{"$f":"E68","v":130},{"$f":"B96*L68","v":89.462365591397855},{"$f":"B96*C68","v":35.1},{"$f":"D96*L68","v":24.154838709677421},{"$f":"(H68-(D96+B96)*C_biomass)/C_litter","v":41.629729729729746},{"$f":"F96*L68","v":28.648416158093593},206.72972972972974,"Modelled on IPCC Temperate Continental Forest. Uncertainty reflects different types of temperate forests."]
["Boreal Forest",{"$f":"E70","v":50},{"$f":"B97*L70","v":20.754716981132077},{"$f":"B97*C70","v":12},{"$f":"D97*L70","v":4.9811320754716988},{"$f":"(H70-(D97+B97)*C_biomass)/C_litter","v":64.486486486486498},{"$f":"F97*L70","v":26.76797552269251},126.4864864864865,"Modelled on IPCC Boreal Coniferous Forest. "]
["Tropical Woody Savanna",{"$f":"E59","v":70},{"$f":"B98*I59","v":21},{"$f":"B98*C59","v":28},{"$f":"D98*I59","v":8.4},0,0,98,"Modelled on IPCC Tropical Shrub Land in Africa."]
["Temperate Shrubland",{"$f":"H69/(1+C69)/C_biomass","v":4.1433370660694298},{"$f":"B99*I69","v":1.2430011198208288},{"$f":"H69*C69/(1+C69)/C_biomass","v":11.601343784994402},{"$f":"D99*I69","v":3.4804031354983205},{"$f":"(H69-(D99+B99)*C_biomass)/C_litter","v":0},0,{"$f":"B99+D99+F99","v":15.744680851063832},"Modelled on IPCC Temperate Shrub Land"]
["Typical Temperate Grassland",{"$f":"AVERAGE('Reference Data'!E81:E84)","v":2.3426651735722284},{"$f":"(E82+F82-B100)","v":2.7211646136618142},{"$f":"AVERAGE('Reference Data'!G81:G84)","v":8.2956326987681965},{"$f":"G84+H84-D100","v":11.959686450167974},0,0,10.638297872340425,"Average Temperate grassland from table above"]
["Typical Tropical Grassland",{"$f":"AVERAGE('Reference Data'!E85:E88)","v":5.5872598845723136},{"$f":"(E86+F86-B101)","v":6.0125764493065734},{"$f":"AVERAGE('Reference Data'!G85:G88)","v":9.6786975622361968},{"$f":"G86+H86-D101","v":8.8810405719700238},0,0,15.26595744680851,"Average Tropical grassland from table above"]
["Tundra Woodland",15,{"$f":"B102*L71","v":0.42857142857142855},{"$f":"B102*C71","v":3.5999999999999996},{"$f":"D102*L71","v":0.10285714285714284},{"$f":"(H71-(D102+B102)*C_biomass)/C_litter","v":70.967567567567571},{"$f":"F102*L71","v":2.0276447876447876},89.567567567567579,"Modelled on IPCC Boreal Tundra."]
["Tundra Grassland",{"$f":"E80","v":1.8297872340425532},{"$f":"F80","v":1.3723404255319147},{"$f":"G80","v":7.3191489361702127},{"$f":"H80","v":5.4893617021276588},0,0,9.1489361702127656,"Modelled on IPCC Boreal Grassland"]
[]
["Other Carbon Stock Data"]
["Carbon stock data for mature ecosystems (rather than average values which take into consideration disturbances, given by IPCC data above)"]
["Anderson-Teixei and Delucia, 2011"]
[null,null,"Above ground biomass","SD","Root","SD","Dead Wood","Standard deviation","Peat","Standard deviation","Litter","Standard deviation","Total"]
[null,null,"dry te/ha","dry te/ha","dry te/ha","dry te/ha","dry te/ha","dry te/ha","dry te/ha","dry te/ha","dry te/ha","dry te/ha","dry te/ha"]
[null,"Tropical Peat Forest",444,111,107,{"$f":"E110*$F$122","v":69.55},0,0,1389,379,0,0,{"$f":"C110+E110+G110+I110+K110","v":1940}]
[null,"Northern Peatland",101,107,18,8,3,3,946,508,0,0,{"$f":"C111+E111+G111+I111+K111","v":1068}]
[null,"Marsh and Swamp (no Peat)",150,{"$f":"C112*$D$122","v":97.5},19,{"$f":"E112*$F$122","v":12.35},0,0,0,0,25,{"$f":"K112*100%","v":25},{"$f":"C112+E112+G112+I112+K112","v":194}]
[null,"Desert",7,{"$f":"C113*$D$122","v":4.55},8,{"$f":"E113*$F$122","v":5.2},0,0,0,0,0.2,{"$f":"K113*100%","v":0.2},{"$f":"C113+E113+G113+I113+K113","v":15.2}]
["Native","Tropical Forest",250,121,55,37,20,{"$f":"G114*$H$130","v":0},0,0,10,{"$f":"K114*100%","v":10},{"$f":"C114+E114+G114+I114+K114","v":335}]
[null,"Temperate Forest",534,335,139,104,103,{"$f":"G115*$H$130","v":0},0,0,51,{"$f":"K115*100%","v":51},827]
[null,"Boreal Forest",128,64,28,18,6,{"$f":"G116*$H$130","v":0},0,0,59,{"$f":"K116*100%","v":59},221]
[null,"Tropical Savanna",21,18,39,30,0,0,0,0,14,18,74]
[null,"Temperate scrub and woodland",48,54,48,null,0,0,0,0,6,{"$f":"K118*100%","v":6},102]
[null,"Temperate grassland",2.2999999999999998,1,14,null,0,0,0,0,6,{"$f":"K119*100%","v":6},22.3]
[null,"Tropical Grassland",3.6,null,15.2,null,0,0,0,0,0,0,18.8]
[null,"Tundra",11.7,null,12,null,0,0,0,0,120,{"$f":"K121*100%","v":120},143.69999999999999]
[null,"Typical error",null,0.65,null,0.65,null,1,null,0.4,null,1.3]
[]
[]
["N2O Natural Flux from Land (excluding from fertilisers)"]
[null,null,"AVERGAE SD",1]
[null,"Natural Flux"]
[null,"N2O from land ","Standard deviation","N2O from land ","Standard deviation","Reference or comment"]
[null,"Kmol/ha/y","Kmol/ha/y","kgN2O/ha/y","kgN2O/ha/y"]
["Tropical Peat Forest",1.7000000000000001E-2,{"$f":"B130*D126","v":1.7000000000000001E-2},{"$f":"B130*MM_N2O","v":0.748},{"$f":"C130*MM_N2O","v":0.748},"Anderson-Teixei and Delucia. 2011"]
["Northern Peatland",8.9999999999999993E-3,5.0000000000000001E-3,0.39599999999999996,0.22,"Anderson-Teixei and Delucia. 2011"]
["Marsh and Swamp ",6.5000000000000002E-2,4.3999999999999997E-2,2.8600000000000003,1.9359999999999999,"Anderson-Teixei and Delucia. 2011"]
["Tropical Forest",8.2000000000000003E-2,8.1000000000000003E-2,3.6080000000000001,3.5640000000000001,"Anderson-Teixei and Delucia. 2011"]
["Temperate Forest",2.5999999999999999E-2,3.5999999999999997E-2,1.1439999999999999,1.5839999999999999,"Anderson-Teixei and Delucia. 2011"]
["Boreal Forest",2.5999999999999999E-2,3.5999999999999997E-2,1.1439999999999999,1.5839999999999999,"Anderson-Teixei and Delucia. 2011"]
["Tropical Woody Savannah",2.9000000000000001E-2,2.7E-2,1.276,1.1879999999999999,"Anderson-Teixei and Delucia. 2011"]
["Temperate shrub land ",1.2999999999999999E-2,8.0000000000000002E-3,0.57199999999999995,0.35199999999999998,"Anderson-Teixei and Delucia. 2011"]
["Temperate grassland (e.g. Steppes, grassland praires)",1.2E-2,1.6E-2,0.52800000000000002,0.70399999999999996,"Anderson-Teixei and Delucia. 2011"]
["Tropical Grassland Savannah",2.9000000000000001E-2,2.7E-2,1.276,1.1879999999999999,"Assume the same as tropical savanna"]
["Tundra Woodland (no peat)",1.2E-2,1.6E-2,0.52800000000000002,0.70399999999999996,"Anderson-Teixei and Delucia. 2011"]
["Desert",5.0000000000000001E-3,{"$f":"B141*D126","v":5.0000000000000001E-3},0.22,0.22,"Anderson-Teixei and Delucia. 2011"]
["Abandoned Crop Land",{"$f":"B138","v":1.2E-2},{"$f":"C138","v":1.6E-2},{"$f":"D138","v":0.52800000000000002},{"$f":"E138","v":0.70399999999999996},"Assumed same N2O emissions as grassland"]
["Abandoned Pasture Land",{"$f":"B138","v":1.2E-2},{"$f":"C138","v":1.6E-2},{"$f":"D138","v":0.52800000000000002},{"$f":"E138","v":0.70399999999999996},"Assumed same N2O emissions as grassland"]
["SRC",{"$f":"B138","v":1.2E-2},{"$f":"C138","v":1.6E-2},{"$f":"D138","v":0.52800000000000002},{"$f":"E138","v":0.70399999999999996},"Assumed same N2O emissions as grassland"]
[]
[]
["CH4 Flux from Land "]
[]
[]
[null,"Natural Flux"]
[]
[null,"Total","Standard Deviation","Total","Standard Deviation","Reference or comment"]
[null,"kmol/ha/y","kmol/ha/y","te CH4/ha/y","te CH4/ha/y"]
["Tropical Peat Forest",9.9,{"$f":"ABS(B154*0.5)","v":4.95},{"$f":"B154*MM_CH4/Conv_te_kg","v":0.15840000000000001},{"$f":"C154*MM_CH4/Conv_te_kg","v":7.9200000000000007E-2},"Anderson-Teixei and Delucia. 2011"]
["Northern Peatland",9.9,4.95,0.15840000000000001,7.9200000000000007E-2,"Anderson-Teixei and Delucia. 2011"]
["Marsh and Swamp ",16.399999999999999,8.1999999999999993,0.26239999999999997,0.13119999999999998,"Anderson-Teixei and Delucia. 2011"]
["Tropical Forest",-0.22584399999999999,0.11292199999999999,-3.613504E-3,1.806752E-3,"Anderson-Teixei and Delucia. 2011"]
["Temperate Forest",-0.22584399999999999,0.11292199999999999,-3.613504E-3,1.806752E-3,"Anderson-Teixei and Delucia. 2011"]
["Boreal Forest",-0.22584399999999999,0.11292199999999999,-3.613504E-3,1.806752E-3,"Anderson-Teixei and Delucia. 2011"]
["Tropical Woody Savannah",-0.18934000000000001,9.4670000000000004E-2,-3.02944E-3,1.51472E-3,"Anderson-Teixei and Delucia. 2011"]
["Temperate shrub land ",-0.18934000000000001,9.4670000000000004E-2,-3.02944E-3,1.51472E-3,"Anderson-Teixei and Delucia. 2011"]
["Temperate grassland (e.g. Steppes, grassland praires)",-0.14828,7.4139999999999998E-2,-2.3724799999999997E-3,1.1862399999999999E-3,"Anderson-Teixei and Delucia. 2011"]
["Tropical Grassland Savannah",{"$f":"B160","v":-0.18934000000000001},9.4670000000000004E-2,-3.02944E-3,1.51472E-3,"Anderson-Teixei and Delucia. 2011"]
["Tundra Woodland (no peat)",-0.18934000000000001,9.4670000000000004E-2,-3.02944E-3,1.51472E-3,"Anderson-Teixei and Delucia. 2011"]
["Desert",-0.18934000000000001,9.4670000000000004E-2,-3.02944E-3,1.51472E-3,"Anderson-Teixei and Delucia. 2011"]
["Abandoned Crop Land",-0.12547,6.2734999999999999E-2,-2.0075200000000001E-3,1.00376E-3,"Anderson-Teixei and Delucia. 2012 for cropland"]
["Abandoned Pasture Land",{"$f":"B162","v":-0.14828},{"$f":"C162","v":7.4139999999999998E-2},{"$f":"D162","v":-2.3724799999999997E-3},{"$f":"E162","v":1.1862399999999999E-3},"Modelled as grassland"]
["SRC",-0.12547,{"$f":"ABS(B168*0.5)","v":6.2734999999999999E-2},{"$f":"B168*MM_CH4/Conv_te_kg","v":-2.0075200000000001E-3},{"$f":"C168*MM_CH4/Conv_te_kg","v":1.00376E-3},"Anderson-Teixei and Delucia. 2012 for cropland"]

{"sheet":"References","index":17,"n_rows":59,"n_cols":15,"rows_kept":59,"cut":false,"hidden":false,"merged":[]}
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["Oakridge, 2013",null,"Oakridge National Laboratory 2013 Vehicles Technologies Market Report, Chapter 3 Heavy Trucks",null,null,null,null,null,null,null,null,null,null,null,"http://cta.ornl.gov/vtmarketreport/pdf/chapter3_heavy_trucks.pdf"]
["Ofgem, 2013.",null,"The UK Solid and Gaseous Biomass Carbon Calculator ",null,null,null,null,null,null,null,null,null,null,null,"https://www.ofgem.gov.uk/publications-and-updates/uk-solid-and-gaseous-biomass-carbon-calculator"]
["Pan et al., 2011, ",null,"Age structure and disturbance legacy of North American forests. Biogeosciences (2011) 8, 715–732"]
["Post and Kwon, 2000",null,"Soil carbon sequestration and land use change: processes and potential. Global Change Biology (2000) 6, 317-328"]
[" Powell and Lenton, 2012.",null,"Future carbon dioxide removal via biomass energy constrained by agricultural efficiency and dietary trends. Energy and Enviorn Sci, DOI: 10.1039/c2ee21592f."]
["Progressive Energy, 2010",null,"Bio-SNG. Feasibility study. Establishment of a regional project."]
["Raugei et al., 2012",null,"The energy return on energy investment of photovotaics: methodology and comparisons with fossil fuel life cycles. Energy Policy, 45, 576 - 582."]
["Richter et al., 1999",null,"Rapid accumulation and turnover of soil carbon in a reestablishing forest, Letters to Nature (1999) 400, 56."]
["Smith et al., 2006",null,"Methods for calculating forest ecosystem and harvested carbon, with standard estimates for forest types of the United States. Gen. Tech. Rep. NE-343."]
["Stephenson et al., 2010",null,"The Global Warming Potential and Fossil Energy Requirements of Biodiesel Production Scenarios in South Africa, Energy & Fuels (2010) 24(4), 2489-2499."]
["Timmons and Mejia, 2010",null,"Biomass energy from woodchips: Diesel fuel dependence? Biomass and Bioenergy (2010) 34, 1419 - 1425."]
["Uhl et al., 1988",null,"Abandoned Pastures in eastern Amazonia, J. Ecology (1998) 73, 663."]
["US DOE, 2010",null,"Voluntary Reporting of Greenhouse Gases. Appendix F. Electricity Emission Factors",null,null,null,null,null,null,null,null,null,null,null,"http://www.eia.gov/oiaf/1605/pdf/Appendix%20F_r071023.pdf"]
["US National Transport Statistics, 2013. ",null,"Table 04_14",null,null,null,null,null,null,null,null,null,null,null,"http://www.rita.dot.gov/bts/sites/rita.dot.gov.bts/files/publications/national_transportation_statistics/html/table_04_14.html"]
["US National Transport Statistics, 2013a. ",null," Table 04_17",null,null,null,null,null,null,null,null,null,null,null,"http://www.rita.dot.gov/bts/sites/rita.dot.gov.bts/files/publications/national_transportation_statistics/html/table_04_17.html"]
["Vavrova, 2009",null,"Decomposition of Scots pine fine woody debris in boreal conditions: Implications for estimating carbon pools and fluxes. Forest Ecology and Management (2009) 257, 401 - 412."]
["Winrock, 2011",null,"Winrock LUC Factors updated"]
["Zan et al., 2001. ",null,"Carbon sequestration in perennial bioenergy, annual corn, and uncultivated systems in Southern Quebec. Agriculture, Ecosystems and Environment (2001) 86,  135–144"]

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[41841.440729166665,"2014-07-21T10:34:39","L33",null,{"$f":"SUM(F25:AL25)","v":16561.072212085877},4.9516441720337667,3.9307026903454947,0.70130916359721596,389.147101030822,241.85786906090195,181.86331653443014,116.88352166941449,8.1101142404500841,418.80964309080787,1539.2132373290672,1524.625561207911,1997.7440221278557,3345.6698616727067,1058.8033409354907,-177.76581180388749,44.34702546714766,-2082.468250121784,-1730.1567032587116,418.15535850833464,187.25703538419316,1570.679051405674,253.44016870456923,535.51004866142262,509.36858369158449,585.81629915926544,671.5747862952079,76.027576475273989,834.62170585232411,-1031.4861468128579,303.32706753545619,137.09475663726863,3122.1918194359368,1501.2265959436272]

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