def EnergyNeedGraph(f1, f2, action):
outerdata = rm.OpenTemperatureModel(f1)
innerdata = rm.OpenTemperatureModel(f2)
innerTemp, outerTemp, energyNeed, x_axis = [], [], [], []
for array in innerdata:
innerTemp.append(array[1])
x_axis.append(array[0])
for array in outerdata:
outerTemp.append(array[1])
for i in range(0, len(innerTemp)):
space = action['Space'][0] * action['Space'][1] * action['Space'][2]
#space2 = action['Space'][0] * action['Space'][1] * action['Space'][3]
energyNeed.append(
f.EnergyRequired(f.SubstanceMass(space, 1.29), 1005,
(innerTemp[i] - outerTemp[i])))
#+f.EnergyRequired(f.SubstanceMass(space2, 2500), 920, (innerTemp[i] - innerTemp[i-1])))
fig = plt.figure()
fig.show()
ax = fig.add_subplot(111)
ax.plot(x_axis, energyNeed, label="EnergyNeed", fillstyle="none")
plt.xlabel("Time (hours)")
plt.gcf().autofmt_xdate()
plt.ylabel("Energy Need (Q in Joules)")
plt.legend(loc=0)
plt.draw()
plt.show()
def _CalculateNeeds(action):
""""CalculateNeeds calculates the needs"""
innerData = rm.OpenTemperatureModel("InsideRequestTemp")
outerData = rm.OpenTemperatureModel("OutsideTemp")
innerTemp, outerTemp, energyNeed = [], [], []
for array in innerData:
innerTemp.append(array[1])
for array in outerData:
outerTemp.append(array[1])
for i in range(0, len(innerTemp)):
space = action['Space'][0] * action['Space'][1] * action['Space'][2]
#space2 = action['Space'][0] * action['Space'][1] * action['Space'][3]
#print((innerTemp[i] - innerTemp[i-1]))
energyNeed.append(f.EnergyRequired(f.SubstanceMass(space, 1.29), 1005, (innerTemp[i] - outerTemp[i])))
#+f.EnergyRequired(f.SubstanceMass(space2, 2500), 920, (innerTemp[i] - innerTemp[i-1])))
return energyNeed