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datainput.gms
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datainput.gms
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*** | (C) 2006-2024 Potsdam Institute for Climate Impact Research (PIK)
*** | authors, and contributors see CITATION.cff file. This file is part
*** | of REMIND and licensed under AGPL-3.0-or-later. Under Section 7 of
*** | AGPL-3.0, you are granted additional permissions described in the
*** | REMIND License Exception, version 1.0 (see LICENSE file).
*** | Contact: [email protected]
*** SOF ./modules/47_regipol/regiCarbonPrice/datainput.gms
*' RP: improve formatting of output: always have the iteration separate to allow easy comparison over iterations.
*' For non-iteration values show time and regi down, and the other two sets to the right
option pm_emiMktTarget_dev:3:3:1;
option pm_taxemiMkt_iteration:3:3:1;
*** initialize regipol target deviation parameter
pm_emiMktTarget_dev(ttot,ttot2,ext_regi,emiMktExt) = 0;
*** RR this should be replaced as soon as non-energy is treated endogenously in the model
*** non-energy use values are calculated by taking the time path as contained in pm_fe_nechem.cs4r (where eg the 2030 value for EU27 is 91.6% of the 2020 value) and rescaling that with historic non-energy values from Eurostat
*** historical values can be found at: https://ec.europa.eu/eurostat/databrowser/bookmark/f7c8aa0e-3cf6-45d6-b85c-f2e76e90b4aa?lang=en
p47_nonEnergyUse("2030",ext_regi)$(sameas(ext_regi, "EU27_regi")) = 0.121606*0.916;
p47_nonEnergyUse("2030",ext_regi)$(sameas(ext_regi, "EUR_regi")) = 0.13*0.924;
p47_nonEnergyUse("2050",ext_regi)$(sameas(ext_regi, "EU27_regi")) = 0.121606*0.815;
p47_nonEnergyUse("2050",ext_regi)$(sameas(ext_regi, "EUR_regi")) = 0.13*0.841;
p47_nonEnergyUse("2030",ext_regi)$(sameas(ext_regi, "DEU")) = 0.03*0.928;
p47_nonEnergyUse("2045",ext_regi)$(sameas(ext_regi, "DEU")) = 0.03*0.848;
p47_nonEnergyUse("2050",ext_regi)$(sameas(ext_regi, "DEU")) = 0.03*0.822;
***--------------------------------------------------
*** Emission markets (EU Emission trading system and Effort Sharing)
***--------------------------------------------------
$IFTHEN.emiMkt not "%cm_emiMktTarget%" == "off"
*** Auxiliar parameters based on emission targets information
loop((ttot,ttot2,ext_regi,emiMktExt,target_type_47,emi_type_47)$pm_emiMktTarget(ttot,ttot2,ext_regi,emiMktExt,target_type_47,emi_type_47), !!calculated sets that depends on data parameter
regiEmiMktTarget(ext_regi) = yes; !! assigning values to set containing extended regions that have regional emission targets
regiANDperiodEmiMktTarget_47(ttot2,ext_regi) = yes; !! assigning values to set containing extended regions and terminal years of regional emission targets
);
*** Calculating set containing regions that should be controlled by a given regional emission target.
*** Emission targets defined at lower aggregated regions (e.g. country-specific targets) have precedence controlling carbon pricing
*** over emission targets applied to more aggregated regions that also contain the given region or country.
*** For more details about how this code work: https://github.com/remindmodel/remind/pull/1315#discussion_r1190875836
loop((ext_regi,ttot,ttot2,emiMktExt,target_type_47,emi_type_47)$pm_emiMktTarget(ttot,ttot2,ext_regi,emiMktExt,target_type_47,emi_type_47), !!calculated sets that depends on data parameter
loop(regi$regi_groupExt(ext_regi,regi),
regiEmiMktTarget2regi_47(ext_regi2,regi) = NO;
regiEmiMktTarget2regi_47(ext_regi,regi) = YES;
);
);
loop((ttot,ttot2,ext_regi,emiMktExt,target_type_47,emi_type_47)$pm_emiMktTarget(ttot,ttot2,ext_regi,emiMktExt,target_type_47,emi_type_47),
p47_lastTargetYear(ext_regi) = ttot2.val;
);
loop(ext_regi,
loop(ttot$regiANDperiodEmiMktTarget_47(ttot,ext_regi),
p47_firstTargetYear(ext_regi) = ttot.val;
break$(p47_firstTargetYear(ext_regi));
);
);
*** Assigning convergence tolerance to active regional targets
parameter f47_emiMktTarget_tolerance(ext_regi) "tolerance for regipol emission target deviations convergence [#]" / %cm_emiMktTarget_tolerance% /;
pm_emiMktTarget_tolerance(ext_regi)$(regiEmiMktTarget(ext_regi)) = 0.01; !! if no value is assigned to GLO, the default devation tolerance is set to 1%
pm_emiMktTarget_tolerance(ext_regi)$(regiEmiMktTarget(ext_regi) and f47_emiMktTarget_tolerance("GLO")) = f47_emiMktTarget_tolerance("GLO"); !! if available, assign GLO value as default to all regional target tolerances
pm_emiMktTarget_tolerance(ext_regi)$(regiEmiMktTarget(ext_regi) and f47_emiMktTarget_tolerance(ext_regi)) = f47_emiMktTarget_tolerance(ext_regi); !! set specific defined regional target tolerances
display pm_emiMktTarget_tolerance;
*** initialize carbon taxes based on reference runs
*** p47_taxemiMkt_init saves information from reference runs about pm_taxCO2eq (carbon price defined on the carbonprice module) and/or
*** pm_taxemiMkt (regipol carbon price) so the carbon tax can be initialized for regions with CO2 tax controlled by cm_emiMktTarget
p47_taxemiMkt_init(ttot,regi,emiMkt) = 0;
if (cm_startyear gt 2005,
Execute_Loadpoint 'input_ref' p47_taxCO2eq_ref = pm_taxCO2eq;
Execute_Loadpoint 'input_ref' p47_taxemiMkt_init = pm_taxemiMkt;
);
*** copying taxCO2eq value to emiMkt tax parameter for years and regions that contain no pm_taxemiMkt value
p47_taxemiMkt_init(ttot,regi,emiMkt)$(p47_taxCO2eq_ref(ttot,regi) and (NOT(p47_taxemiMkt_init(ttot,regi,emiMkt)))) = p47_taxCO2eq_ref(ttot,regi);
*** if there is a regional target, intialize price trajectory after 2020 with an yearly increase of 1$/tCO2 from a base value of 20$/tCO2 (2020)
loop((ttot,ttot2,ext_regi,emiMktExt,target_type_47,emi_type_47)$pm_emiMktTarget(ttot,ttot2,ext_regi,emiMktExt,target_type_47,emi_type_47),
loop(regi$regi_groupExt(ext_regi,regi),
loop(emiMkt$emiMktGroup(emiMktExt,emiMkt),
p47_taxemiMkt_init(t,regi,emiMkt)$(t.val gt 2020) = (20*sm_D2005_2_D2017*sm_DptCO2_2_TDpGtC) + (1*sm_DptCO2_2_TDpGtC)*(t.val-2020);
);
);
);
*** if there is a European regional target, overwrite historical prices for Europe if the historical years are free in the cm_emiMktTarget run.
*** in this case, historical prices will reflect the ETS market observed prices instead of the values defined pm_taxCO2eq
loop(ext_regi$regiEmiMktTarget(ext_regi),
loop(regi$(regi_groupExt(ext_regi,regi) and regi_groupExt("EUR_regi",regi)), !!second condition is necessary to support also country targets
if((cm_startyear le 2010),
p47_taxemiMkt_init("2010",regi,emiMkt) = 0;
p47_taxemiMkt_init("2010",regi,"ETS") = 15*sm_D2005_2_D2017*sm_DptCO2_2_TDpGtC;
);
if((cm_startyear le 2015),
p47_taxemiMkt_init("2015",regi,emiMkt) = 0;
p47_taxemiMkt_init("2015",regi,"ETS") = 8*sm_D2005_2_D2017*sm_DptCO2_2_TDpGtC;
);
if((cm_startyear le 2020),
p47_taxemiMkt_init("2020",regi,emiMkt) = 0;
*** p47_taxemiMkt_init("2020",regi,"ETS") = 41.28*sm_DptCO2_2_TDpGtC; !! 2018 = 16.5€/tCO2, 2019 = 25€/tCO2, 2020 = 25€/tCO2, 2021 = 53.65€/tCO2, 2022 = 80€/tCO2 -> average 2020 = 40€/tCO2 -> 40*1.032 $/tCO2 = 41.28 $/t CO2
p47_taxemiMkt_init("2020",regi,"ETS") = 30*sm_D2005_2_D2017*sm_DptCO2_2_TDpGtC;
*** p47_taxemiMkt_init("2020",regi,"ES") = 30*sm_DptCO2_2_TDpGtC;
*** p47_taxemiMkt_init("2020",regi,"other")= 30*sm_DptCO2_2_TDpGtC;
);
*** intialize EUR price trajectory after 2020 with an yearly increase of 1$/tCO2 from a base value of 30$/tCO2 when no price is available.
*** p47_taxemiMkt_init(t,regi,emiMkt)$(not(p47_taxemiMkt_init(t,regi,emiMkt)) and (t.val gt 2020)) = (30*sm_DptCO2_2_TDpGtC) + (1*sm_DptCO2_2_TDpGtC)*(t.val-2020);
*** intialize EUR price trajectory after 2020 with a yearly increase of 1$/tCO2 from a base value of 30$/tCO2
p47_taxemiMkt_init(t,regi,emiMkt)$(t.val gt 2020) = (30*sm_D2005_2_D2017*sm_DptCO2_2_TDpGtC) + (1*sm_D2005_2_D2017*sm_DptCO2_2_TDpGtC)*(t.val-2020);
);
);
*** initialize required parameter for cm_emiMktTarget slope calculation. This is necessary to allow logical if statement checks not trowing an error before the parameter is assigned for the first time in the postsolve code.
p47_factorRescaleSlope_iter("1","2020","2030",ext_regi,emiMktExt) = 0;
*** initialize required parameter for cm_emiMktTarget rescale oscillation dampening.
p47_factorRescaleemiMktCO2Tax_iter("1","2020","2030",ext_regi,emiMktExt) = 0;
$ENDIF.emiMkt
***---------------------------------------------------------------------------
*** Implicit tax/subsidy necessary to achieve quantity target for primary, secondary, final energy and/or CCS
***---------------------------------------------------------------------------
$ifthen.cm_implicitQttyTarget not "%cm_implicitQttyTarget%" == "off"
*** assign cm_implicitQttyTarget values if not defined yet
$ifThen.cm_implicitQttyTargetType "%cm_implicitQttyTargetType%" == "scenario"
*** define quantity target scenario values
p47_implicitQttyTargetScenario("EU27_eedEff" ,"2030","EU27_regi","tax","t","FE_wo_b_wo_n_e","all") = 1.1235;
p47_implicitQttyTargetScenario("EU27_ff55Eff","2030","EU27_regi","tax","t","FE_wo_b_wo_n_e","all") = 1.0452;
p47_implicitQttyTargetScenario("EU27_RpEUEff","2030","EU27_regi","tax","t","FE_wo_b_wo_n_e","all") = 0.9960;
p47_implicitQttyTargetScenario("EU27_bio4" ,"2035","EU27_regi","tax","t","PE","biomass") = 0.19;
p47_implicitQttyTargetScenario("EU27_bio4" ,"2050","EU27_regi","tax","t","PE","biomass") = 0.126667;
p47_implicitQttyTargetScenario("EU27_bio7p5",t ,"EU27_regi","tax","t","PE","biomass")$((t.val ge 2035) AND (t.val le 2050)) = 0.237825;
p47_implicitQttyTargetScenario("EU27_bio12" ,t ,"EU27_regi","tax","t","PE","biomass")$((t.val ge 2035) AND (t.val le 2050)) = 0.38;
p47_implicitQttyTargetScenario("EU27_limVRE" ,"2025","EU27_regi","tax","t","PE","wind") = 0.072;
p47_implicitQttyTargetScenario("EU27_limVRE" ,"2050","EU27_regi","tax","t","PE","wind") = 0.201;
p47_implicitQttyTargetScenario("EU27_limVRE" ,"2025","EU27_regi","tax","t","PE","solar") = 0.04;
p47_implicitQttyTargetScenario("EU27_limVRE" ,"2050","EU27_regi","tax","t","PE","solar") = 0.168;
*** assign active scenarios to the current run
loop(qttyTargetActiveScenario,
pm_implicitQttyTarget(ttot,ext_regi,taxType,targetType,qttyTarget,qttyTargetGroup)$p47_implicitQttyTargetScenario(qttyTargetActiveScenario,ttot,ext_regi,taxType,targetType,qttyTarget,qttyTargetGroup) = p47_implicitQttyTargetScenario(qttyTargetActiveScenario,ttot,ext_regi,taxType,targetType,qttyTarget,qttyTargetGroup);
);
display pm_implicitQttyTarget;
$endif.cm_implicitQttyTargetType
*** intialize auxiliar parameters
p47_implicitQttyTargetTaxRescale_iter("1", "2030",ext_regi,qttyTarget,qttyTargetGroup) = 0;
p47_implicitQttyTargetReferenceIteration(ext_regi) = 0;
p47_implicitQttyTargetIterationCount(ext_regi) = 0;
*** intialize energy type bound implicit target parameters
pm_implicitQttyTarget(ttot,ext_regi,taxType,targetType,"CCS",qttyTargetGroup)$pm_implicitQttyTarget(ttot,ext_regi,taxType,targetType,"CCS",qttyTargetGroup) = pm_implicitQttyTarget(ttot,ext_regi,taxType,targetType,"CCS",qttyTargetGroup)/(sm_c_2_co2*1000);
pm_implicitQttyTarget(ttot,ext_regi,taxType,targetType,"oae",qttyTargetGroup)$pm_implicitQttyTarget(ttot,ext_regi,taxType,targetType,"oae",qttyTargetGroup) = pm_implicitQttyTarget(ttot,ext_regi,taxType,targetType,"oae",qttyTargetGroup)/(sm_c_2_co2*1000);
p47_implicitQttyTargetTax0(t,all_regi) = 0;
$endIf.cm_implicitQttyTarget
***---------------------------------------------------------------------------
*** implicit tax/subsidy necessary to final energy price targets
***---------------------------------------------------------------------------
$ifthen.cm_implicitPriceTarget not "%cm_implicitPriceTarget%" == "off"
p47_implicitPriceTax0(t,regi,entyFe,entySe,sector)=0;
*** load exogenously defined FE price targets
table f47_implicitPriceTarget(fePriceScenario,ext_regi,all_enty,entySe,sector,ttot) "exogenously defined FE price targets [2005 Dollar per GJoule]"
$ondelim
$include "./modules/47_regipol/regiCarbonPrice/input/exogenousFEprices.cs3r"
$offdelim
;
loop((t,ext_regi,entyFe,entySe,sector)$f47_implicitPriceTarget("%cm_implicitPriceTarget%",ext_regi,entyFe,entySe,sector,t),
loop(regi$regi_groupExt(ext_regi,regi),
!! convert data from US$2005 to US$2017
pm_implicitPriceTarget(t,regi,entyFe,entySe,sector) = sm_D2005_2_D2017 * f47_implicitPriceTarget("%cm_implicitPriceTarget%",ext_regi,entyFe,entySe,sector,t)*sm_DpGJ_2_TDpTWa;
);
);
!!initialize first and terminal years auxiliary parameters for price targets
loop(ttot,
p47_implicitPriceTarget_terminalYear(regi,entyFe,entySe,sector)$pm_implicitPriceTarget(ttot,regi,entyFe,entySe,sector) = 2005;
p47_implicitPriceTarget_initialYear(regi,entyFe,entySe,sector)$pm_implicitPriceTarget(ttot,regi,entyFe,entySe,sector) = 2150;
);
loop((ttot,regi,entyFe,entySe,sector)$pm_implicitPriceTarget(ttot,regi,entyFe,entySe,sector),
p47_implicitPriceTarget_terminalYear(regi,entyFe,entySe,sector) = max(ttot.val, p47_implicitPriceTarget_terminalYear(regi,entyFe,entySe,sector));
p47_implicitPriceTarget_initialYear(regi,entyFe,entySe,sector) = min(ttot.val, p47_implicitPriceTarget_initialYear(regi,entyFe,entySe,sector));
);
p47_implicitPriceTarget_initialYear(regi,entyFe,entySe,sector)$(p47_implicitPriceTarget_initialYear(regi,entyFe,entySe,sector) lt cm_startyear) = cm_startyear;
$endIf.cm_implicitPriceTarget
***---------------------------------------------------------------------------
*** implicit tax/subsidy necessary to primary energy price targets
***---------------------------------------------------------------------------
$ifthen.cm_implicitPePriceTarget not "%cm_implicitPePriceTarget%" == "off"
p47_implicitPePriceTax0(t,regi,entyPe)=0;
*** load exogenously defined FE price targets
table f47_implicitPePriceTarget(pePriceScenario,ext_regi,all_enty,ttot) "exogenously defined Pe price targets [2005 Dollar per GJoule]"
$ondelim
$include "./modules/47_regipol/regiCarbonPrice/input/exogenousPEprices.cs3r"
$offdelim
;
loop((t,ext_regi,entyPe)$f47_implicitPePriceTarget("%cm_implicitPePriceTarget%",ext_regi,entyPe,t),
loop(regi$regi_groupExt(ext_regi,regi),
!! convert data from US$2005 to US$2017
pm_implicitPePriceTarget(t,regi,entyPe) = sm_D2005_2_D2017 * f47_implicitPePriceTarget("%cm_implicitPePriceTarget%",ext_regi,entyPe,t)*sm_DpGJ_2_TDpTWa;
);
);
!!initialize first and terminal years auxiliary parameters for price targets
loop(ttot,
p47_implicitPePriceTarget_terminalYear(regi,entyPe)$pm_implicitPePriceTarget(ttot,regi,entyPe) = 2005;
p47_implicitPePriceTarget_initialYear(regi,entyPe) $pm_implicitPePriceTarget(ttot,regi,entyPe) = 2150;
);
loop((ttot,regi,entyPe)$pm_implicitPePriceTarget(ttot,regi,entyPe),
p47_implicitPePriceTarget_terminalYear(regi,entyPe) = max(ttot.val, p47_implicitPePriceTarget_terminalYear(regi,entyPe));
p47_implicitPePriceTarget_initialYear(regi,entyPe) = min(ttot.val, p47_implicitPePriceTarget_initialYear(regi,entyPe));
);
p47_implicitPePriceTarget_initialYear(regi,entyPe)$(p47_implicitPePriceTarget_initialYear(regi,entyPe) lt cm_startyear) = cm_startyear;
$endIf.cm_implicitPePriceTarget
***---------------------------------------------------------------------------
*** Region-specific datainput (with hard-coded regions)
***---------------------------------------------------------------------------
$IFTHEN.CCScostMarkup not "%cm_CCS_markup%" == "off"
pm_inco0_t(ttot,regi,teCCS)$(regi_group("EUR_regi",regi)) = pm_inco0_t(ttot,regi,teCCS)*%cm_CCS_markup%;
$ENDIF.CCScostMarkup
$IFTHEN.renewablesFloorCost not "%cm_renewables_floor_cost%" == "off"
parameter p_new_renewables_floor_cost(all_te) / %cm_renewables_floor_cost% /;
pm_data(regi,"floorcost",te)$((regi_group("EUR_regi",regi)) AND (p_new_renewables_floor_cost(te))) = pm_data(regi,"floorcost",te) + p_new_renewables_floor_cost(te);
$ENDIF.renewablesFloorCost
$ifthen.altFeEmiFac not "%cm_altFeEmiFac%" == "off"
*** Changing refineries emission factors in regions that belong to cm_altFeEmiFac to avoid negative emissions on pe2se (changing from 18.4 to 20 zeta joule = 20/31.7098 = 0.630719841 Twa = 0.630719841 * 3.66666666666666 * 1000 * 0.03171 GtC/TWa = 73.33 GtC/TWa)
loop(ext_regi$altFeEmiFac_regi(ext_regi),
pm_emifac(ttot,regi,"peoil","seliqfos","refliq","co2")$(regi_group(ext_regi,regi)) = 0.630719841;
);
*** Changing Germany and UKI solids emissions factors to be in line with CRF numbers (changing from 26.1 to 29.27 zeta joule = 0.922937989 TWa = 107.31 GtC/TWa)
pm_emifac(ttot,regi,"pecoal","sesofos","coaltr","co2")$(sameas(regi,"DEU") OR sameas(regi,"UKI")) = 0.922937989;
$endif.altFeEmiFac
*** VRE capacity factor adjustments for Germany in line with results from detailed models in ARIADNE project
loop(te$sameas(te,"windon"),
loop(regi$sameas(regi,"DEU"),
pm_cf("2025",regi,te) = 1.04 * pm_cf("2025",regi,te);
pm_cf("2030",regi,te) = 1.08 * pm_cf("2030",regi,te);
pm_cf("2035",regi,te) = 1.12 * pm_cf("2035",regi,te);
pm_cf("2040",regi,te) = 1.16 * pm_cf("2040",regi,te);
pm_cf("2045",regi,te) = 1.2 * pm_cf("2045",regi,te);
pm_cf(t,regi,te)$(t.val gt 2045) = pm_cf("2045",regi,te);
);
);
loop(te$sameas(te,"spv"),
loop(regi$sameas(regi,"DEU"),
pm_cf("2025",regi,te) = 1.02 * pm_cf("2025",regi,te);
pm_cf("2030",regi,te) = 1.04 * pm_cf("2030",regi,te);
pm_cf("2035",regi,te) = 1.06 * pm_cf("2035",regi,te);
pm_cf("2040",regi,te) = 1.08 * pm_cf("2040",regi,te);
pm_cf("2045",regi,te) = 1.10 * pm_cf("2045",regi,te);
pm_cf(t,regi,te)$(t.val gt 2045) = pm_cf("2045",regi,te);
);
);
*** p_EmiLULUCFCountryAcc contains historic LULUCF emissions from UNFCCC,
*** used for rescaling land-use change emissions for emissions targets based on national accounting
parameter p47_EmiLULUCFCountryAcc(tall,all_regi) "historic co2 emissions from landuse change based on country accounting [Mt CO2/yr]"
/
$ondelim
$include "./modules/47_regipol/regiCarbonPrice/input/p_EmiLULUCFCountryAcc.cs4r"
$offdelim
/
;
*** difference between 2020 land-use change emissions from Magpie and UNFCCC 2015 and 2020 moving average land-use change emissions
p47_LULUCFEmi_GrassiShift(t,regi)$(p47_EmiLULUCFCountryAcc("2020",regi)) =
pm_macBaseMagpie("2020",regi,"co2luc")
-
(
(
((p47_EmiLULUCFCountryAcc("2013",regi) + p47_EmiLULUCFCountryAcc("2014",regi) + p47_EmiLULUCFCountryAcc("2015",regi) + p47_EmiLULUCFCountryAcc("2016",regi) + p47_EmiLULUCFCountryAcc("2017",regi))/5)
+
((p47_EmiLULUCFCountryAcc("2018",regi) + p47_EmiLULUCFCountryAcc("2019",regi) + p47_EmiLULUCFCountryAcc("2020",regi) + p47_EmiLULUCFCountryAcc("2021",regi))/4)
)/2
* 1e-3/sm_c_2_co2
)
;
*** -------------------------Primary Energy Tax--------------------------
*PW* charge tax on PE gas,oil,coal in energy security scenario for Germany (in trUSD/TWa) to hit Ariadne energy security price trajectories
$ifThen.cm_EnSecScen_price "%cm_EnSecScen_price%" == "on"
pm_tau_pe_tax("2025",regi,"pegas")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.32;
pm_tau_pe_tax("2030",regi,"pegas")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.24;
pm_tau_pe_tax("2035",regi,"pegas")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.2;
pm_tau_pe_tax("2040",regi,"pegas")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.16;
pm_tau_pe_tax("2045",regi,"pegas")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.16;
pm_tau_pe_tax("2050",regi,"pegas")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.16;
pm_tau_pe_tax("2055",regi,"pegas")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.12;
pm_tau_pe_tax("2060",regi,"pegas")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.08;
pm_tau_pe_tax("2025",regi,"peoil")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.08;
pm_tau_pe_tax("2030",regi,"peoil")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.08;
pm_tau_pe_tax("2035",regi,"peoil")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.12;
pm_tau_pe_tax("2040",regi,"peoil")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.16;
pm_tau_pe_tax("2045",regi,"peoil")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.16;
pm_tau_pe_tax("2050",regi,"peoil")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.16;
pm_tau_pe_tax("2055",regi,"peoil")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.12;
pm_tau_pe_tax("2060",regi,"peoil")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.08;
pm_tau_pe_tax("2025",regi,"pecoal")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.024;
pm_tau_pe_tax("2030",regi,"pecoal")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.016;
pm_tau_pe_tax("2035",regi,"pecoal")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.016;
pm_tau_pe_tax("2040",regi,"pecoal")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.016;
pm_tau_pe_tax("2045",regi,"pecoal")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.016;
pm_tau_pe_tax("2050",regi,"pecoal")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.016;
pm_tau_pe_tax("2055",regi,"pecoal")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.008;
pm_tau_pe_tax("2060",regi,"pecoal")$(sameAs(regi,"DEU")) = sm_D2005_2_D2017 * 0.008;
$endIf.cm_EnSecScen_price
*** adapt parameters that determine the ratio of wind onshore and wind offshore installation for Germany
*** as German government seeks to install at least 70 GW of offshore by 2045 and 160 GW onshore wind by 2040 (as of July 2022)
*** parameter to determine temporal scale-up
pm_shareWindOff("2010",regi)$(sameAs(regi,"DEU")) = 0.05;
pm_shareWindOff("2015",regi)$(sameAs(regi,"DEU")) = 0.1;
pm_shareWindOff("2020",regi)$(sameAs(regi,"DEU")) = 0.15;
pm_shareWindOff("2025",regi)$(sameAs(regi,"DEU")) = 0.3;
pm_shareWindOff("2030",regi)$(sameAs(regi,"DEU")) = 0.7;
pm_shareWindOff(ttot,regi)$(ttot.val ge 2035 AND sameAs(regi,"DEU")) = 1;
*** parameter to deteremine regional long-term share
pm_shareWindPotentialOff2On(regi)$(sameAs(regi,"DEU")) = 0.7;
*** intermediate solution for code check until ces tax gets implemented
pm_tau_ces_tax("2025",regi,"ue_steel_primary")$(sameAs(regi,"DEU")) = 0.0;
*** FE and ES demand trajectories from exogenous sources (not EDGE models) used for fixing via switch cm_exogDem_scen (not used in calibration)
$ifthen.exogDemScen NOT "%cm_exogDem_scen%" == "off"
Parameter pm_exogDemScen(ttot,all_regi,exogDemScen,all_in) "Exogenous demand trajectories to fix CES function to specific quantity trajectories"
/
$ondelim
$include "./modules/47_regipol/regiCarbonPrice/input/p47_exogDemScen.cs4r"
$offdelim
/;
$endif.exogDemScen
*** EOF ./modules/47_regipol/regiCarbonPrice/datainput.gms