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import matplotlib.pyplot as plt
class TSPPlot():
def drawDeletedCurve(self, heatCascadedeltaH, deletedPocketdict, _temperatures, plottest):
fig = plt.figure()
if heatCascadedeltaH[0] > 0:
plt.plot([deletedPocketdict['H'][0][0],deletedPocketdict['H'][0][1]], [deletedPocketdict['T'][0][0],deletedPocketdict['T'][0][1]], 'tab:red')
plt.plot([deletedPocketdict['H'][0][0],deletedPocketdict['H'][0][1]], [deletedPocketdict['T'][0][0],deletedPocketdict['T'][0][1]], 'ro')
elif heatCascadedeltaH[0] < 0:
plt.plot([deletedPocketdict['H'][0][0],deletedPocketdict['H'][0][1]], [deletedPocketdict['T'][0][0],deletedPocketdict['T'][0][1]], 'tab:blue')
plt.plot([deletedPocketdict['H'][0][0],deletedPocketdict['H'][0][1]], [deletedPocketdict['T'][0][0],deletedPocketdict['T'][0][1]], 'bo')
if plottest == 1:
for i in range(1, len(_temperatures)-2):
if heatCascadedeltaH[i] > 0:
plt.plot([deletedPocketdict['H'][0][i],deletedPocketdict['H'][0][i+1]], [deletedPocketdict['T'][0][i],deletedPocketdict['T'][0][i+1]], 'tab:red')
plt.plot([deletedPocketdict['H'][0][i],deletedPocketdict['H'][0][i+1]], [deletedPocketdict['T'][0][i],deletedPocketdict['T'][0][i+1]], 'ro')
elif heatCascadedeltaH[i] < 0:
plt.plot([deletedPocketdict['H'][0][i],deletedPocketdict['H'][0][i+1]], [deletedPocketdict['T'][0][i],deletedPocketdict['T'][0][i+1]], 'tab:blue')
plt.plot([deletedPocketdict['H'][0][i],deletedPocketdict['H'][0][i+1]], [deletedPocketdict['T'][0][i],deletedPocketdict['T'][0][i+1]], 'bo')
else:
plt.plot([deletedPocketdict['H'][0][i],deletedPocketdict['H'][0][i+1]], [deletedPocketdict['T'][0][i],deletedPocketdict['T'][0][i+1]], 'tab:blue')
plt.plot([deletedPocketdict['H'][0][i],deletedPocketdict['H'][0][i+1]], [deletedPocketdict['T'][0][i],deletedPocketdict['T'][0][i+1]], 'bo')
if plottest == 0:
for i in range(1, len(_temperatures)-1):
if heatCascadedeltaH[i] > 0:
plt.plot([deletedPocketdict['H'][0][i],deletedPocketdict['H'][0][i+1]], [deletedPocketdict['T'][0][i],deletedPocketdict['T'][0][i+1]], 'tab:red')
plt.plot([deletedPocketdict['H'][0][i],deletedPocketdict['H'][0][i+1]], [deletedPocketdict['T'][0][i],deletedPocketdict['T'][0][i+1]], 'ro')
elif heatCascadedeltaH[i] < 0:
plt.plot([deletedPocketdict['H'][0][i],deletedPocketdict['H'][0][i+1]], [deletedPocketdict['T'][0][i],deletedPocketdict['T'][0][i+1]], 'tab:blue')
plt.plot([deletedPocketdict['H'][0][i],deletedPocketdict['H'][0][i+1]], [deletedPocketdict['T'][0][i],deletedPocketdict['T'][0][i+1]], 'bo')
else:
plt.plot([deletedPocketdict['H'][0][i],deletedPocketdict['H'][0][i+1]], [deletedPocketdict['T'][0][i],deletedPocketdict['T'][0][i+1]], 'tab:blue')
plt.plot([deletedPocketdict['H'][0][i],deletedPocketdict['H'][0][i+1]], [deletedPocketdict['T'][0][i],deletedPocketdict['T'][0][i+1]], 'bo')
# plt.fill_between([0, deletedPocketdict['H'][0][0]], 0, _temperatures[0], color = 'r', alpha = 0.5)
# plt.fill_between([0, deletedPocketdict['H'][0][-1]], 0, _temperatures[-1], color = 'b', alpha = 0.5)
plt.grid(True)
plt.title('Grand Composite Curve')
plt.xlabel('Net Enthalpy Change ∆H [kW]')
plt.ylabel('Shifted Temperature T [°C]')
def drawTotalSiteProfile(self, siteDesignation, tstHotH, tstHotTemperatures, tstColdH, tstColdTemperatures, localisation):
#Wieder aus den ausgegebenen Werten fuer alle Prozesse Temperaturintervalle erstellen und diese dann plotten
fig, (ax1, ax2) = plt.subplots(1, 2)
fig.suptitle('Total Site Profile ({})'.format(siteDesignation))
ax1.plot(tstHotH, tstHotTemperatures, 'tab:red')
if localisation == 'DE':
ax1.set(xlabel='Nettoenthalpieänderung ∆H in kW', ylabel='Verschobene Temperatur T in °C')
elif localisation == 'EN':
ax1.set(xlabel='Net Enthalpy Change ∆H in kW', ylabel='Shifted Temperature T in °C')
ax1.grid()
ax2.plot(tstColdH, tstColdTemperatures, 'tab:blue')
if localisation == 'DE':
ax2.set_xlabel('Nettoenthalpieänderung ∆H in kW')
elif localisation == 'EN':
ax2.set(xlabel='Net Enthalpy Change ∆H in kW')
ax2.grid()
ax2.set_xlim([0,tstColdH[-1]])
ax1.set_xlim([tstHotH[0],0])
if tstHotH == [] or tstColdH == []:
pass
elif tstHotTemperatures[-1] > tstColdTemperatures[-1]:
if tstHotTemperatures[0] > tstColdTemperatures[0]:
ax1.set_ylim([tstColdTemperatures[0]-2.5,tstHotTemperatures[-1]+2.5])
ax2.set_ylim([tstColdTemperatures[0]-2.5,tstHotTemperatures[-1]+2.5])
elif tstHotTemperatures[0] < tstColdTemperatures[0]:
ax1.set_ylim([tstHotTemperatures[0]-2.5,tstHotTemperatures[-1]+2.5])
ax2.set_ylim([tstHotTemperatures[0]-2.5,tstHotTemperatures[-1]+2.5])
else:
pass
elif tstHotTemperatures[-1] < tstColdTemperatures[-1]:
if tstHotTemperatures[0] > tstColdTemperatures[0]:
ax1.set_ylim([tstColdTemperatures[0]-2.5,tstColdTemperatures[-1]+2.5])
ax2.set_ylim([tstColdTemperatures[0]-2.5,tstColdTemperatures[-1]+2.5])
elif tstHotTemperatures[0] < tstColdTemperatures[0]:
ax1.set_ylim([tstHotTemperatures[0]-2.5,tstColdTemperatures[-1]+2.5])
ax2.set_ylim([tstHotTemperatures[0]-2.5,tstColdTemperatures[-1]+2.5])
else:
pass
def showPlots(self):
plt.show()
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