From 5eecc952bd6c32f15de51a4e3308e176d031d36a Mon Sep 17 00:00:00 2001 From: Markus Millinger Date: Tue, 30 Jun 2020 15:48:10 +0200 Subject: [PATCH] Minor language and online readability changes --- src/OptimizationModule.gms | 38 +++++++++++++++++++------------------- 1 file changed, 19 insertions(+), 19 deletions(-) diff --git a/src/OptimizationModule.gms b/src/OptimizationModule.gms index cba29df..cda3aac 100644 --- a/src/OptimizationModule.gms +++ b/src/OptimizationModule.gms @@ -30,13 +30,13 @@ $loadR t i Technologies $loadR i - i2034(i) Technologies that do not use pappel pellets before 2035 /18,19,20/ + i2034(i) Technologies that do not use poplar pellets before 2035 /18,19,20/ ihp(i) Heat pump technologies /7*12,19,22,27,32,35/ m Plantmodules $loadR m - j Markets referring to sub-sectors in the papers + j Markets referring to sub-sectors $loadR j jclus(j) Markets with sub-clusters /1*5/ @@ -72,14 +72,14 @@ $loadR BB ; parameters - vc(t,i,j,b) Variable costs [€:GJ] - inv(t,i,m,j) Investment cost per plant [€] + vc(t,i,j,b) Variable costs [:GJ] + inv(t,i,m,j) Investment cost per plant [] pmBio(t,i,j) biomass share per technology [%] pmGas(t,i,j) gas_coal share per technology [%] pm3(t,i,j) non biomass_gas_coal share per technology [%] - efBio(t,i,j) Degree of efficiency solid biomass - efGas(t,i,j) Degree of efficiency gas_biogas - efMethan(t,b) Degree of efficiency for the "biomethaneinspeiseanlage" + efBio(t,i,j) Conversion efficiency solid biomass + efGas(t,i,j) Conversion efficiency gas_biogas + efMethan(t,b) Conversion efficiency for the "biomethaneinspeiseanlage" life(i,m,j) lifetime of heating system [a] ba(t,bm) Available biomass [GJ and ha] bamaxw(t) Maximal allowed biomass usage from waste ba [%] @@ -93,9 +93,9 @@ parameters dcap(t,j) Heat demand per house or HS [GJ] nstart(i,j) Initial stock of HS nsdec(t,i,m,j) Yearly decrease of initial stock of HS - culstart(b) Cultivation portofilio in the first 5 years - vcBeh(t,i,j,c) Intangible variable costs [€:GJ] - invBeh(t,i,j,c) Intangible investment costs [€] + culstart(b) Crop cultivation portfolio in the first 5 years + vcBeh(t,i,j,c) Intangible variable costs [:GJ] + invBeh(t,i,j,c) Intangible investment costs [] dBeh(t,j,c) Demand in the clusters * definition of parameters for the export (equal the variables) @@ -121,7 +121,7 @@ parameters $loadR d, dcap, vc, inv, pmBio, pmGas, pm3, efBio, efGas, efMethan , life, ba, bamaxw, bamaxc, nstart, nsdec, yield, culstart, ghgr, ghgfeed, alloc, ghgmax, vcBeh, invBeh, dBeh free variable - tc Total costs [€] + tc Total costs [] ghgtot GHG total emission [t] ; @@ -151,26 +151,26 @@ next.fx("1",i,m,j)=0; ndec.fx("1",i,m,j)=0; nxdec.fx("1",i,m,j)=0; -*forbits certain technologies on certain markets +*forbids certain technologies on certain markets v.fx(t,i,j) $ (not MT(i,j))=0; -*forbits certain technologies to use certain biomass products +*forbids certain technologies to use certain biomass products bc.fx(t,i,j,b) $ (not TB(i,b))=0; bc.fx(t2034,i2034,j,"14")=0; -*forbits certain bioproducts to use certain biomass types +*forbids certain bioproducts to use certain biomass types bu.fx(t,b,bm) $ (not BB(bm,b))=0; *number of plants in starting year ncap1.fx("1",i,m,j)=nstart(i,j); -*sets MüllHKW constant +*sets MllHKW constant nprod.fx(t,"28","15")=nstart("28","15"); *sets Leach boiler constant nprod.fx(t,"48","16")=nstart("48","16"); -*During the decrease of the initial stock, overcapacity is forbitten; despite in district heating market (i=24) and market 14 in the 95% case +*During the decrease of the initial stock, overcapacity is forbidden; despite in district heating market (i=24) and market 14 in the 95% case ncap2.fx(t,i,"1",j) $ (ord(t)<=life(i,"1",j)+1 and not ord(i)=24 and not ord(j)=14)=0; *overcapacity only allowed for gas boiler/coal... @@ -194,11 +194,11 @@ ncap2fct Overcapacity = total capacity - production capacity ncap3fct HS in overcapacity cannot be reused for production ncap2ctrl1 Yearly overcapacity is limited to XX% -ndecfct defines all ndec's +ndecfct defines all ndecs nxdec1fct Defines nxdec in relation to next nocfct allowes number of producing HS to be smaller than number of capacity HS (overcapacity for secondary modules possible) also defines minimum number of all modules -n1fct Forbits over capacity of modul 1 of ncap1 +n1fct Forbids over capacity of modul 1 of ncap1 mbioprodfct Definition of maximum solid biomass production per technology mgasprodfct Definition of maximum gas_biogas_coal production per technology m3prodfct Definition of maximum non-biomass production per technology @@ -206,7 +206,7 @@ mprodsumfct Total heat production = biomass production + non biomass produc bcfct Consumed biomass = heat consumption divided by degree of efficiency bcGasScheit Technology GasBW+ScheitO can use different biomass products for different components. This equation regulates this issue -bcWaste2Energy Technology MüllHKW+HHS-Kessel can use different biomass products for different components. This equation regulates this issue +bcWaste2Energy Technology MllHKW+HHS-Kessel can use different biomass products for different components. This equation regulates this issue bcHHSCoal Technology HHSCoal can use different biomass products for different components. This equation regulates this issue bamaxwastefct Consumed biomass of residues is limited to a certain degree of percentage ba1fct Which residue biomass types can be used for which biomass products -- GitLab