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the_hole_lot.py
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# -*- coding: utf-8 -*-
"""
Created on Thu Oct 02 08:41:08 2014
@author: Acer
"""
import csv
import os
import numpy as np
import pylab as pl
from datetime import datetime
from matplotlib.dates import date2num
from itertools import cycle
from numpy import size, asarray
Rainevapovector =[]
Outputvector =[]
Indoorvector=[]
total_area = 0.0
area_fractions1=[]
#getting model outputdata
def getoutputdata(location_files1, totalarea=485.1):
#getting outputvector
#location_files1='C:\Users\Acer\Documents\GitHub\CD3Waterbalance\simulationwithpatterns\outputfiles'
file_names=os.listdir(str(location_files1)[0:])
alltogether = []
names = []
for i in range(len(file_names)):
if file_names[i][(len(file_names[i])-3):len(file_names[i])] == 'txt':
file_name=file_names[i]
csv_file = open(str(location_files1) +"\%s" % file_name, "r")
data = csv.reader(csv_file, delimiter='\t')
mylist = list(data)
csv_file.closed
alltogether.append(mylist)
names.append(file_names[i])
#creating vector right size
global Outputvector
Outputvector=[['error']*(len(alltogether)+1) for m in range(size(alltogether,1))]
#writing header
Outputvector[0][0]='Time'
for i in range(size(alltogether,0)):
Outputvector[0][i+1]=names[i][:(len(names[i])-4)]
#writing time colum
for i in range(size(alltogether,1))[1:]:
Outputvector[i][0]=float(date2num(datetime.strptime(alltogether[1][i][0][:19],"%d.%m.%Y %H:%M:%S")))
#writing Values of inputfiles in vector
for i in range((len(alltogether)+1))[1:]:
for n in range(size(alltogether,1))[1:]:
Outputvector[n][i]=float(alltogether[i-1][n][1])
for i in range(len(Outputvector[0])):
if Outputvector[0][i] == 'evapo_model':
for n in range(len(Outputvector))[1:]:
Outputvector[n][i]=float(Outputvector[n][i])/1000*totalarea
if Outputvector[0][i] == 'rain_model':
for n in range(len(Outputvector))[1:]:
Outputvector[n][i]=float(Outputvector[n][i])/1000*totalarea
#checks whether all values have been inserted
for i in range(size(Outputvector,0)):
if 'error' in Outputvector[i]:
print 'A problem has occured, please check getoutputdata() function'
print 'The problem has occured in line '+str(i)+' of the Outputvector'
else:
pass
Outputvector=np.asarray(Outputvector)
print 'Outputvector has been created'
return
#[Area, perv_fraction, imperv_to_storage, imperv_to_stormw]
Catchment_area_fractions = [[458.1, 0.18, 0.63, 0.19], [855.9, 0.28, 0.43, 0.29], [800, 0.1, 0.3, 0.6], [960, 0.46, 0.45, 0.09], [1200, 0, 0, 1]]
def Fractioncalculator(vector=[[458.1, 0.18, 0.63, 0.19], [855.9, 0.28, 0.43, 0.29], [800, 0.1, 0.3, 0.6], [960, 0.46, 0.45, 0.09], [1200, 0, 0, 1]]):
global total_area
total_area = 0.0
area_fractions1_0 = 0.0
area_fractions1_1 = 0.0
area_fractions1_2 = 0.0
for i in range(len(vector)):
total_area += vector[i][0]
area_fractions1_0 += vector[i][0]*vector[i][1]
area_fractions1_1 += vector[i][0]*vector[i][2]
area_fractions1_2 += vector[i][0]*vector[i][3]
global area_fractions1
area_fractions1=[area_fractions1_0/total_area, area_fractions1_1/total_area, area_fractions1_2/total_area]
return
def getinputdata(location_files2, numberhh=6., totalarea=485.1, lenindoor=9000):
#getting inputvector
#location_files2='C:\Users\Acer\Documents\GitHub\CD3Waterbalance\simulationwithpatterns\inputfiles'
file_names=os.listdir(str(location_files2)[0:])
rainevapo=[]
namesrainevapo=[]
indoor=[]
namesindoor=[]
for i in range(len(file_names)):
if file_names[i][(len(file_names[i])-3):len(file_names[i])] == 'ixx':
file_name=file_names[i]
csv_file = open(str(location_files2) +"\%s" % file_name, "r")
data = csv.reader(csv_file, delimiter='\t')
mylist = list(data)
if len(mylist)>lenindoor:
rainevapo.append(mylist)
namesrainevapo.append(file_names[i])
else:
indoor.append(mylist)
namesindoor.append(file_names[i])
#creating vector right size
global Rainevapovector, Indoorvector
Rainevapovector=[['error']*(len(namesrainevapo)+1) for m in range(size(rainevapo[0],0)-1)]
Indoorvector=[['error']*(len(namesindoor)+1) for m in range(size(indoor[0],0))]
#writing time colum
for i in range(size(rainevapo[0],0)-1):
Rainevapovector[i][0]=float(date2num(datetime.strptime(rainevapo[1][i+1][0]+" "+rainevapo[1][i+1][1],"%d.%m.%Y %H:%M:%S")))
for i in range(size(indoor[0],0)):
Indoorvector[i][0]=float(date2num(datetime.strptime(indoor[1][i][0]+" "+indoor[1][i][1],"%d.%m.%Y %H:%M:%S")))
#writing Values of inputfiles in vector
for i in range((len(namesrainevapo)+1))[1:]:
for n in range(size(rainevapo[0],0)-1):
Rainevapovector[n][i]=float(rainevapo[i-1][n+1][2])
for i in range((len(namesindoor)+1))[1:]:
for n in range(size(indoor[0],0)):
Indoorvector[n][i]=float(indoor[i-1][n][2])
#correcting unit and volume!
Rainevapovector=np.asarray(Rainevapovector)
Indoorvector=np.asarray(Indoorvector)
for i in range(len(namesrainevapo)+1)[1:]:
Rainevapovector[:,i]=Rainevapovector[:,i]/1000*totalarea
for i in range(len(namesindoor)+1)[1:]:
Indoorvector[:,i]=Indoorvector[:,i]/1000*numberhh*(float(Outputvector[2][0])-float(Outputvector[1][0]))*24
#giving header for future reference
Rainevapovector=Rainevapovector.tolist()
Rainevapovector.insert(0,['time']*(len(namesrainevapo)+1))
for i in range(len(namesrainevapo)+1)[1:]:
Rainevapovector[0][i]=namesrainevapo[i-1][:(len(namesrainevapo[i-1])-4)]
Indoorvector=Indoorvector.tolist()
Indoorvector.insert(0,['time']*(len(namesindoor)+1))
for i in range(len(namesindoor)+1)[1:]:
Indoorvector[0][i]=namesindoor[i-1][:(len(namesindoor[i-1])-4)]
Rainevapovector = np.asarray(Rainevapovector)
Indoorvector = np.asarray(Indoorvector)
print 'Indoorvector and Rainevapovector have been created'
return
#tocheck (all, Evapo, Rain, Indooruse, Outdoordemand?, System)
#area_fractions = [perv, imperv_to_storage, imperv_to_stormw]
def Bilanz(Data, tocheck, wettingloss = 0.4, depressionloss=1.5, totalarea = 485.1, area_fractions = [0.0, 1.0, 0.0]):
#tocheck=['Evapo', 'Rain', 'System']
#Data=[Rainevapovector, Outputvector, Indoorvector]
colorred = "\033[01;31m{0}\033[00m"
for i in range(len(tocheck)):
#evapotranspiration check
if tocheck[i] == 'Evapo':
evapomodel = 0.0
evapoinput = 0.0
for i in range(len(Data)):
for n in range(len(Data[i][0])):
if Data[i][0][n] == 'evapo':
for m in range(len(Data[i][:,n]))[1:]:
evapoinput += float(Data[i][:,n][m])
elif Data[i][0][n] == 'evapo_model':
for m in range(len(Data[i][:,n]))[1:]:
evapomodel += float(Data[i][:,n][m])
print evapoinput
print evapomodel
ErrorFRPI=(1 - evapomodel/evapoinput) * 100
print 'The difference of given and produced Evapotranspiraten calculated by the Pattern Implementer and Filereader due to rounding errors is '+ colorred.format(str(ErrorFRPI))+' %'
#rain check
elif tocheck[i] == 'Rain':
rainmodel = 0.0
raininput = 0.0
for i in range(len(Data)):
for n in range(len(Data[i][0])):
if Data[i][0][n] == 'rain':
for m in range(len(Data[i][:,n]))[1:]:
raininput += float(Data[i][:,n][m])
elif Data[i][0][n] == 'rain_model':
for m in range(len(Data[i][:,n]))[1:]:
rainmodel += float(Data[i][:,n][m])
ErrorFR=(1 - rainmodel/raininput) * 100
print 'The difference of given and produced Rain calculated by the Filereader due to rounding errors is '+ colorred.format(str(ErrorFR))+' %'
#total system
#Lists have to be in alphabetical order
elif tocheck[i] == 'System':
#filenames in lists
totalstorage = []
totalstoragelist = ['Greywatertank1', 'Raintank1', 'Raintank2', 'Raintank3']
inputER=[]
inputERlist = ['evapo_model', 'rain_model']
outputISSP = []
outputISSPlist = ['Infiltration', 'PotableWaterDemand', 'Sewer', 'Stormwater']
outputOD = []
for i in range(len(Data)):
for n in range(len(Data[i][0])):
if Data[i][0][n] in totalstoragelist:
totalstorage.append(Data[i][:,n])
elif Data[i][0][n] in inputERlist:
inputER.append(Data[i][:,n])
elif Data[i][0][n] in outputISSPlist:
outputISSP.append(Data[i][:,n])
if str(repr(Data[i][0][n])[1:15]) == 'Outdoor_Demand':
outputOD.append(Data[i][:,n])
totalstoragescalar = 0.0
rainminusevapolosses = 0.0
SewerStormwInfiltr = 0.0
PWRonly = 0.0
OutdoorD = 0.0
#Speicher
for i in range(len(totalstorage)):
totalstoragescalar += float(totalstorage[i][-1])
#Potable_Water_Demand/Sewer,Infiltr.,Stormwater
for i in range(len(outputISSP)):
if outputISSP[i][0] == 'PotableWaterDemand':
for n in range(len(outputISSP[0]))[1:]:
PWRonly += float(outputISSP[i][n])
else:
for n in range(len(outputISSP[0]))[1:]:
SewerStormwInfiltr -= float(outputISSP[i][n])
#OutdoorDemand
for i in range(len(outputOD)):
for n in range(len(outputOD[0]))[1:]:
OutdoorD += float(outputOD[i][n])
#Rain and Evapo inlcuding losses
lossstorage_perv_impervreservoir = 0.0
lossstorage_imperstormw = 0.0
onlyrain=0.0
onlyevapo=0.0
rainminusevapo = 0.0
global effective_rain
effective_rain = ['effective_rain']
for i in range(len(inputER[0]))[1:]:
if float(inputER[1][i]) > float(inputER[0][i]):
lossstorage_perv_impervreservoir += (float(inputER[1][i]) - float(inputER[0][i]))/totalarea*1000
lossstorage_imperstormw += (float(inputER[1][i]) - float(inputER[0][i]))/totalarea*1000
if lossstorage_perv_impervreservoir > wettingloss:
rainminusevapolosses += (float(inputER[1][i])-float(inputER[0][i]))*(area_fractions[0]+area_fractions[1])
foreffectiverain1 = (float(inputER[1][i])-float(inputER[0][i]))*(area_fractions[0]+area_fractions[1])
lossstorage_perv_impervreservoir = wettingloss
else:
foreffectiverain1=0.0
if lossstorage_imperstormw > depressionloss + wettingloss:
rainminusevapolosses += (float(inputER[1][i])-float(inputER[0][i]))*area_fractions[2]
foreffectiverain2 = (float(inputER[1][i])-float(inputER[0][i]))*area_fractions[2]
lossstorage_imperstormw = depressionloss + wettingloss
else:
foreffectiverain2=0.0
#writing the effective rain height in a vector
effective_rain.append(foreffectiverain1+foreffectiverain2)
else:
#writing the effective rain height in a vector
effective_rain.append(0.0)
#simulation drying via evapotranspiration
if lossstorage_perv_impervreservoir > 0:
lossstorage_perv_impervreservoir += (float(inputER[1][i]) - float(inputER[0][i]))/totalarea*1000
if lossstorage_perv_impervreservoir < 0:
lossstorage_perv_impervreservoir = 0.0
else:
pass
else:
lossstorage_perv_impervreservoir = 0.0
if lossstorage_imperstormw > 0:
lossstorage_imperstormw += (float(inputER[1][i]) - float(inputER[0][i]))/totalarea*1000
if lossstorage_imperstormw < 0:
lossstorage_imperstormw = 0.0
else:
pass
else:
lossstorage_imperstormw = 0.0
onlyrain += float(inputER[1][i])
if float(inputER[1][i]) >= float(inputER[0][i]):
onlyevapo += float(inputER[0][i])
rainminusevapo += (float(inputER[1][i])-float(inputER[0][i]))
else:
onlyevapo += float(inputER[1][i])
print 'Fraktion of Pervious Area: '+str(area_fractions[0])
print 'Fraktion of Impervious Area to Reservoir: '+str(area_fractions[1])
print 'Fraktion of Impervious Area to Stormdrain: '+str(area_fractions[2])
print 'Wetting Loss: '+str( wettingloss)+' mm'
print 'Depression Loss: '+str(depressionloss)+' mm'
print 'Total Rain: '+str(onlyrain) + ' = '+str(onlyevapo+rainminusevapo)+' m^3'
print 'Evaporated Rain: '+str(onlyevapo)+' m^3'
print 'Inital Losses only: '+str(rainminusevapo-rainminusevapolosses)+' m^3'
print 'Potable_Water_Demand: '+str(PWRonly)+' m^3'
print 'Outdoor_Demand: '+str(OutdoorD)+' m^3'
print 'Rain minus all Losses: '+str(rainminusevapolosses)+' m^3'
print 'SewerStormwInfiltr: '+str(-1*SewerStormwInfiltr)+' m^3'
print 'Still stored in tanks: ' +str(totalstoragescalar)+' m^3'
print 'Absolut Error of entire balance: '+str(PWRonly-OutdoorD-totalstoragescalar+rainminusevapolosses+SewerStormwInfiltr)+' m^3'
print 'Realtive Error of entire balance: '+str(100*(PWRonly-OutdoorD+rainminusevapolosses+SewerStormwInfiltr-totalstoragescalar)*2/(PWRonly+totalstoragescalar+OutdoorD+onlyrain+onlyevapo+(rainminusevapo-rainminusevapolosses)-SewerStormwInfiltr))+' %'
return
#Possible Input: Outdoor_Demand, Indoor_Demand, all (plots everthing), all filenames (without endings)
def plotter(Vector1, Vector2, Vector3,limx=[0,365], limy=[0,1], toplot=['rain_model', 'Stormwater', 'evapo_model', 'effective_rain','Indoor_Demand','Raintank1','Outdoor_Demand'] ):
#liste der zu plottenden sachen erzeugen
global listtoplot
listtoplot=[]
for i in range(len(toplot)):
#searching vector headers for inputstrings, writes in plotting list
if toplot[i] in Vector1[0]:
for n in range(len(Vector1[0])):
if toplot[i]==Vector1[0][n]:
listtoplot.append([Vector1[:,0], Vector1[:,n]])
elif toplot[i] in Vector2[0]:
for n in range(len(Vector2[0])):
if toplot[i]==Vector2[0][n]:
listtoplot.append([Vector2[:,0], Vector2[:,n]])
elif toplot[i] in Vector3[0]:
for n in range(len(Vector3[0])):
if toplot[i]==Vector3[0][n]:
listtoplot.append([Vector3[:,0], Vector3[:,n]])
elif toplot[i] == 'Outdoor_Demand':
allheaders=Vector1.tolist()[0]+Vector2.tolist()[0]+Vector3.tolist()[0]
for n in range(len(allheaders)):
if toplot[i]==repr(allheaders[n])[1:15]:
position=n
if position<=len(Vector1[0]):
a=1
elif position<=len(Vector2[0]):
a=2
else:
a=3
exec 'variable=Vector'+str(a)
storageOD=asarray([0.0 for m in range(len(variable))])
for i in range(len(variable[0])):
if repr(variable[0][i])[1:15] == 'Outdoor_Demand':
for n in range(len(variable))[1:]:
storageOD[n] += float(variable[n][i])
storageOD=storageOD.tolist()
storageOD[0]='Outdoor_Demand'
listtoplot.append([variable[:,0], storageOD])
#while time inbetween 2 days sum up and append
outdoordemandsum=0.0
dailyoutdoordemand=[]
fulldaystart=ceil(float(variable[:,0][1]))
fulldayend=floor(float(variable[:,0][-1]))
i=1
for n in range(int(fulldayend-fulldaystart)+1):
if float(variable[:,0][i]) < (int(fulldaystart)):
while float(variable[:,0][i]) <= (int(fulldaystart)+ n):
i+=1
else:
while float(variable[:,0][i]) >= (int(fulldaystart) + n-1) and float(variable[:,0][i]) < (int(fulldaystart) + n):
outdoordemandsum += float(storageOD[i])
i += 1
dailyoutdoordemand.append(outdoordemandsum)
outdoordemandsum=0.0
dailyoutdoordemand_per_sm=mean(dailyoutdoordemand)/(area_fractions1[0]*total_area)
print 'The average Outdoordemand per square meter for the simulated time frame is: '+str(dailyoutdoordemand_per_sm)+' m³/(m²d)'
elif toplot[i] == 'Indoor_Demand':
allheaders=Vector1.tolist()[0]+Vector2.tolist()[0]+Vector3.tolist()[0]
for n in range(len(allheaders)):
if 'toilet'==(allheaders[n]):
position=n
if position<=len(Vector1[0]):
a=1
elif position<=len(Vector2[0]):
a=2
else:
a=3
exec 'variable=Vector'+str(a)
storageID=asarray([0.0 for m in range(len(variable))])
for i in range(len(variable[0]))[1:]:
for n in range(len(variable))[1:]:
storageID[n] += float(variable[n][i])
storageID=storageID.tolist()
storageID[0]='Indoor_Demand'
listtoplot.append([variable[:,0], storageID])
elif toplot[i] == 'all':
for n in range(len(Vector1[0]))[1:]:
listtoplot.append([Vector1[:,0], Vector1[:,n]])
for n in range(len(Vector2[0]))[1:]:
listtoplot.append([Vector2[:,0], Vector2[:,n]])
for n in range(len(Vector3[0]))[1:]:
listtoplot.append([Vector3[:,0], Vector3[:,n]])
elif toplot[i] == 'effective_rain':
if len(Vector1[0])==len(effective_rain):
listtoplot.append([Vector1[:,0], effective_rain])
elif len(Vector2[0])==len(effective_rain):
listtoplot.append([Vector2[:,0], effective_rain])
else :
listtoplot.append([Vector3[:,0], effective_rain])
else:
print 'Error: Wrong input name!'
#LEGENDE!!!save pic if wanted
pl.figure(figsize=(16, 8), dpi=80)
pl.xlim(float(Vector1[1][0])+float(limx[0]), float(Vector1[1][0]) + float(limx[1]))
pl.ylim(float(limy[0]), float(limy[1]))
lines = ["-","--","-.",":"]
linecycler = cycle(lines)
for i in range(len(listtoplot)):
exec 'pl.plot(asarray(listtoplot['+str(i)+'])[0][1:],asarray(listtoplot['+str(i)+'])[1][1:], linewidth=2.5, linestyle = next(linecycler), label=listtoplot['+str(i)+'][1][0])'
pl.legend(loc='best')
pl.title('Model In - and Output', fontsize=20)
pl.xlabel('Time [d]')
pl.ylabel('Volume [m^3]')
pl.grid(True)
pl.show()
print 't=0: '+str(float(Vector1[1][0]))
print 'The plotted time range is: '+str([num2date(float(Vector1[1][0]) + float(limx[0])).strftime("%d.%m.%Y %H:%M:%S"),
num2date(float(Vector1[1][0]) + float(limx[1])).strftime("%d.%m.%Y %H:%M:%S")])
return
def theholelot(outputfiles='C:\Users\Acer\Documents\GitHub\CD3Waterbalance\simulationwithpatterns\outputfiles', inputfiles='C:\Users\Acer\Documents\GitHub\CD3Waterbalance\simulationwithpatterns\inputfiles',
numberhh=6, wettingloss = 0.4, depressionloss=1.5 ): #area_fractions = [perv, imperv_to_storage, imperv_to_stormw]
Fractioncalculator(vector=[[458.1, 0.18, 0.63, 0.19], [855.9, 0.28, 0.43, 0.29], [800, 0.1, 0.3, 0.6], [960, 0.46, 0.45, 0.09], [1200, 0, 0, 1]])
getoutputdata(outputfiles)
getinputdata(inputfiles, numberhh, total_area)
Bilanz([Rainevapovector, Outputvector, Indoorvector], ['Evapo', 'Rain', 'System'], wettingloss, depressionloss, total_area, area_fractions1)
plotter(Indoorvector, Rainevapovector, Outputvector,[0,365],[0,1], ['rain_model', 'Stormwater', 'evapo_model', 'effective_rain','Indoor_Demand','Raintank1','Outdoor_Demand','Greywatertank1'])
print 'done'
return
theholelot()