def Export_Efficiency_Scattergraphs_with_More_than_1_Multi_Value_Variable(outputDirname, \
outputFilePrefix, efficienciesDict, efficiencyKeyToPlot, keysToPlot=None, addKeyToHeader=False):
from rewiredcarbon.vectorOutput import generateOutputMatrixWithHeaders, writeOutputMatrix
import pdb
if keysToPlot == None:
scenarioKeys = list(efficienciesDict.keys())
else:
scenarioKeys = keysToPlot
for key in scenarioKeys:
multiValueVariableKeys = efficienciesDict[key][
'multiValueVariableKeys']
for multiValueVariableKey in multiValueVariableKeys:
xAxis = efficienciesDict[key][multiValueVariableKey]
yAxis = efficienciesDict[key][efficiencyKeyToPlot]
if addKeyToHeader == False:
headers = [multiValueVariableKey, efficiencyKeyToPlot]
elif addKeyToHeader == True:
headers = [
multiValueVariableKey + '_' + key,
efficiencyKeyToPlot + '_' + key
]
vectorList = [xAxis, yAxis]
oMatrix = generateOutputMatrixWithHeaders(vectorList,
headers,
delimeter=',')
if outputDirname == '':
outputFilename = outputFilePrefix + '_' + key + '.csv'
else:
outputFilename = outputDirname + '/' + outputFilePrefix + '_' \
+ multiValueVariableKey + '_' + key + '.csv'
writeOutputMatrix(outputFilename, oMatrix)
return
def Export_Efficiency_Bargraph(filename, efficienciesDict, scenarioDict, efficiencyKeyToPlot, \
efficiencyErrorLowerKeyToPlot, efficiencyErrorUpperKeyToPlot, keysToPlot=None):
from rewiredcarbon.vectorOutput import generateOutputMatrixWithHeaders, writeOutputMatrix
import pdb
if keysToPlot == None:
scenarioKeys = list(efficienciesDict.keys())
else:
scenarioKeys = keysToPlot
efficiencyValuesArray = []
efficiencyValuesUpperErrorArray = []
efficiencyValuesLowerErrorArray = []
labelsArray = []
for key in scenarioKeys:
efficiencyValuesArray.append(
efficienciesDict[key][efficiencyKeyToPlot])
lowerError = efficienciesDict[key][efficiencyErrorLowerKeyToPlot]
upperError = efficienciesDict[key][efficiencyErrorUpperKeyToPlot]
efficiencyValuesLowerErrorArray.append(lowerError)
efficiencyValuesUpperErrorArray.append(upperError)
labelsArray.append('"' + scenarioDict[key]['BargraphLabel'] + '"')
headers = ['scenario', 'label', efficiencyKeyToPlot, efficiencyErrorLowerKeyToPlot, \
efficiencyErrorUpperKeyToPlot]
vectorList = [scenarioKeys, labelsArray, efficiencyValuesArray, \
efficiencyValuesLowerErrorArray, efficiencyValuesUpperErrorArray]
oMatrix = generateOutputMatrixWithHeaders(vectorList,
headers,
delimeter=',')
writeOutputMatrix(filename, oMatrix)
return
headerList_tankAreaRelativeToSolarPVArea.append('totalElectricalPower_' +
key)
headerList_tankAreaRelativeToSolarPVArea.append('tankAreaRelativeToSolarPVArea_' \
+ key)
vectorList_tankAreaRelativeToSolarPVArea.append(totalElectricalPowerArray)
vectorList_tankAreaRelativeToSolarPVArea.append(
tankAreaRelativeToSolarPVAreaArray)
xlabel('Total Electrical Power (W)')
ylabel('Tank Area Relative To Solar PV Area')
grid()
legend()
oMatrix_tankAreaRelativeToSolarPVArea \
= generateOutputMatrixWithHeaders(vectorList_tankAreaRelativeToSolarPVArea, \
headerList_tankAreaRelativeToSolarPVArea, delimeter=',')
writeOutputMatrix(outputFilename_tankAreaRelativeToSolarPVArea, \
oMatrix_tankAreaRelativeToSolarPVArea)
# Plot out the cell density at target efficient calculations and export them to a CSV file
keys = collectedOutputDict.keys()
vectorList_cellDensityAtTargetEfficiencyRatio = []
headerList_cellDensityAtTargetEfficiencyRatio = []
outputFilename_cellDensityAtTargetEfficiencyRatio \
= outputFileDirname + '/' + 'fig-h2agitation-D-cell_density.csv'
ensure_dir(outputFilename_cellDensityAtTargetEfficiencyRatio)
figure()
# ------------------------------------------------------------------------------------------------ #
# Plot out resistivity versus biofilm thickness
figure()
for key in keys:
outputDict = collectedOutputDict[key]
# Convert from Ω m to Ω cm
inputResistivityArray = array(outputDict['inputResistivityArray']) * 100
areaBiofilmAtTargetEfficiencyRatioArray = outputDict[
'areaBiofilmAtTargetEfficiencyRatioArray']
areaBiofilmRelativeToSolarPVAreaArray = outputDict[
'areaBiofilmRelativeToSolarPVAreaArray']
biofilmThicknessAtTargetEfficiencyRatioArray \
= outputDict['biofilmThicknessAtTargetEfficiencyRatioArray']
loglog(inputResistivityArray,
biofilmThicknessAtTargetEfficiencyRatioArray,
label=key)
xlabel('Biofilm Resistivity (Ohm cm)')
ylabel('Biofilm Thickness (m)')
grid()
legend()
# ------------------------------------------------------------------------------------------------ #
oMatrix = generateOutputMatrixWithHeaders(vectorList,
headerList,
delimeter=',')
writeOutputMatrix(outputFilename, oMatrix)
show()