Download data/Scripts_Data/BEV_Battery_Plant_Model_moduleDesign.m from introvoyz041/Battery-Pack-Model-Simscape: direct link, hf CLI and curl.
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https://huggingface.co/datasets/introvoyz041/Battery-Pack-Model-Simscape/resolve/main/data/Scripts_Data/BEV_Battery_Plant_Model_moduleDesign.m
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hf download hf://datasets/introvoyz041/Battery-Pack-Model-Simscape/data/Scripts_Data/BEV_Battery_Plant_Model_moduleDesign.m
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curl -L -o BEV_Battery_Plant_Model_moduleDesign.m https://huggingface.co/datasets/introvoyz041/Battery-Pack-Model-Simscape/resolve/main/data/Scripts_Data/BEV_Battery_Plant_Model_moduleDesign.m
2.27 kB
| %% Design Iterations for finding optimum number of channels for cooling | |
| % | |
| % Copyright 2020-2026 The MathWorks, Inc. | |
| iterSize=max(size(nChannel_options)); | |
| battery_result=zeros(iterSize,4); | |
| disp('Start module design iterations') | |
| for i=1:iterSize | |
| BEV_Battery_Plant_Model_paramModule; | |
| coolantPlate_area=battery_cellW*battery_Ns*battery_Np*battery_cellT; | |
| coolantPlate_nChannels=nChannel_options(i); | |
| coolantPlate_diaDistributor=sqrt(coolantPlate_nChannels)*coolantPlate_diaChannels; | |
| % Coolant plate thickness = f(distributor pipe thickness) | |
| coolantPlate_thickness=max(coolantPlate_diaChannels,(pi*0.25*coolantPlate_diaDistributor^2)/min(coolantPlate_distributorWidMax,coolantPlate_diaDistributor)); | |
| coolantPlate_mass=(coolantPlate_area*coolantPlate_thickness)*coolantPlate_density-(coolantPlate_nChannels*0.25*battery_cellW*pi*coolantPlate_diaChannels^2)*(coolantPlate_density-1000); | |
| fprintf('*** Simulating for a cooling plate with %i channels \n',coolantPlate_nChannels) | |
| sim('Battery_Module_Design'); | |
| battery_cellT=simlog_Battery_Module_Design.BatteryModule.outputCellTemp.series.values; | |
| battery_cellTavg=sum(battery_cellT,2)/size(battery_cellT,2); | |
| battery_deltaTmean=abs(max(battery_cellTavg)-ambientTemp); | |
| battery_deltaT=max(max(battery_cellT,[],2)-min(battery_cellT,[],2)); | |
| battery_deltaP=max(simlog_Battery_Module_Design.CoolantPlate.presSensor.series.values); | |
| battery_result(i,1)=battery_deltaT; | |
| battery_result(i,2)=battery_deltaTmean; | |
| battery_result(i,3)=battery_deltaP; | |
| battery_result(i,4)=coolantPlate_mass; | |
| end | |
| battery_plot=zeros(iterSize,max(size(weightFraction))+1); | |
| for i=1:max(size(weightFraction)) | |
| battery_plot(1:end,i)=battery_result(1:end,i)/max(battery_result(1:end,i)); | |
| end | |
| battery_plot5_tmp=zeros(iterSize,1); | |
| for i=1:max(size(weightFraction)) | |
| battery_plot5_tmp(1:end,1)=battery_plot5_tmp(1:end,1)+battery_plot(1:end,i)*weightFraction(1,i); | |
| end | |
| battery_plot(1:end,max(size(weightFraction))+1)=battery_plot5_tmp(1:end,1)/max(battery_plot5_tmp(1:end,1)); | |
| % | |
| indx=find(min(battery_plot(1:end,5))==battery_plot(1:end,5)); | |
| numChannelsOpt=nChannel_options(1,indx); | |
| fprintf('Module design iterations Completed \n *** Optimum number of channels = %i \n',numChannelsOpt) | |