def __init__(self):
# print "init start hh"
pycd3.Node.__init__(self)
self.inport = pycd3.Flow()
self.outport = pycd3.Flow()
self.currentOutdoorDemand = pycd3.Flow()
self.gardensize = pycd3.Flow()
self.average = pycd3.Double(7)
self.deviation = pycd3.Double(2)
self.tap_flow_rate = pycd3.Double(18)
self.smart_watering_time = pycd3.String("[18,6]")
self.watering_method = pycd3.String('Smart_Watering')
self.onoff = pycd3.String("Off")
self.addInPort("Gardensize", self.gardensize)
self.addInPort("Outdoor_Demand_In", self.inport)
self.addOutPort("Outdoor_Demand_Out", self.outport)
self.addOutPort("Check_Storage", self.currentOutdoorDemand)
self.addParameter(
"Watering_Method_(Normal_Watering_or_Smart_Watering)",
self.watering_method)
self.addParameter("Smart_Watering_Start_Time_End_Time_[hh,hh]",
self.smart_watering_time)
self.addParameter("Maximal_Watering_Flow_Rate_[l/min]",
self.tap_flow_rate)
self.addParameter("Average_Watering_Frequency_[d]", self.average)
self.addParameter("Deviation_of_Frequency_[d]", self.deviation)
self.addParameter("Switch_(On_or_Off)", self.onoff)
'''
self.smart_watering_time: 0h not valid, has got to 24 h, start time smaller 24!
'''
print '\n' + self.onoff
def __init__(self):
# print "init start hh"
pycd3.Node.__init__(self)
self.inport = pycd3.Flow()
self.outport = pycd3.Flow()
self.currentOutdoorDemand = pycd3.Flow()
self.average = pycd3.Double(7)
self.deviation = pycd3.Double(2)
self.tap_flow_rate = pycd3.Double(18)
self.smart_watering_time = pycd3.String("[18,6]")
self.watering_method = pycd3.String('Smart_Watering')
self.addInPort("Outdoor_Demand_In", self.inport)
self.addOutPort("Outdoor_Demand_Out", self.outport)
self.addOutPort("Check_Storage", self.currentOutdoorDemand)
self.addParameter(
"Watering_Method_(Normal_Watering_or_Smart_Watering)",
self.watering_method)
self.addParameter("Smart_Watering_Start_Time_End_Time_[hh,hh]",
self.smart_watering_time)
self.addParameter("Maximal_Watering_Flow_Rate_[l/min]",
self.tap_flow_rate)
self.addParameter("Average_Watering_Frequency_[d]", self.average)
self.addParameter("Deviation_of_Frequency_[d]", self.deviation)
'''
def __init__(self):
pycd3.Node.__init__(self)
self.inflow = pycd3.String("")
self.decision = pycd3.String("H")
self.out = pycd3.Flow()
# print "init node"
self.addParameter("", self.inflow)
self.addParameter("Type_H_for_height_[mm]_or_F_for_flow_[l/h]", self.decision)
self.addOutPort("Outport", self.out)
self.growing_t = 0.0
self.row_to_get = 0
self.interp_counter = 0
self.remember_line = 0.0
self.decimals = 0.0
self.rest = 0.0
self.sum_decimals = 0.0
def __init__(self):
pycd3.Node.__init__(self)
self.inflow = pycd3.String("")
self.out = pycd3.Flow()
# print "init node"
self.addParameter("", self.inflow)
self.addOutPort("Outport", self.out)
self.growing_t = 0.0
self.row_to_get = 0
self.interp_counter = 0
self.remember_line = 0.0
self.decimals = 0.0
self.rest = 0.0
self.sum_decimals = 0.0
def __init__(self):
pycd3.Node.__init__(self)
self.rain = pycd3.Flow()
self.collected_w = pycd3.Flow()
self.runoff = pycd3.Flow()
self.perv_runoff = pycd3.Flow()
self.imperv_runoff = pycd3.Flow()
self.evapo = pycd3.Flow()
self.possible_infiltr = pycd3.Flow()
self.actual_infiltr = pycd3.Flow()
self.outdoor_use = pycd3.Flow()
self.inflow = pycd3.Flow()
self.outdoor_use_check = pycd3.Flow()
self.effective_evapotranspiration = pycd3.Flow()
self.previous_storage = pycd3.Flow()
self.groundwater_infiltration = pycd3.Flow()
# self.total_effective_rain / 1000. * self.area_property,
# self.total_actual_infiltr + self.total_collected_w + self.total_runoff,
# "infiltration:", self.total_actual_infiltr,
# "collected:", self.total_collected_w,
# "outdoor:", self.total_outdoor_use,
# "runoff:", self.total_runoff,
# "storage:", self.current_perv_storage_level / self.perv_soil_storage_capacity,
# "evapo:", self.total_evapotranspiration,
# "groundwater:", self.total_groundwater
#dir (self.inf)
# print "init node"
self.addInPort("Rain", self.rain)
self.addInPort("Evapotranspiration", self.evapo)
self.addInPort("Inflow", self.inflow)
self.addOutPort("Possible_Infiltration", self.possible_infiltr)
self.addOutPort("Actual_Infiltration", self.actual_infiltr)
self.addOutPort("Runoff", self.runoff)
self.addOutPort("Collected_Water", self.collected_w)
self.addOutPort("Outdoor_Demand", self.outdoor_use)
self.addOutPort("Outdoor_Demand_Check", self.outdoor_use_check)
self.addOutPort("effective_evapotranspiration", self.effective_evapotranspiration)
self.addOutPort("previous_storage", self.previous_storage)
self.addOutPort("groundwater_infiltration", self.groundwater_infiltration)
self.addOutPort("pervious_runoff", self.perv_runoff)
self.addOutPort("impervious_runoff", self.imperv_runoff)
#Catchment with Routing or without
self.select_model = pycd3.String("without")
self.addParameter("Catchment_with_or_without_Routing_(with_or_without)", self.select_model)
#Catchment area + fraction info of pervious and impervious parts
self.area_property = pycd3.Double(1000)
self.addParameter("Catchment_Area_[m^2]", self.area_property)
self.perv_area = pycd3.Double(0.4)
self.addParameter("Fraktion_of_Pervious_Area_pA_[-]", self.perv_area)
self.imp_area_stormwater = pycd3.Double(0.4)
self.addParameter("Fraktion_of_Impervious_Area_to_Stormwater_Drain_iASD_[-]", self.imp_area_stormwater)
self.imp_area_raintank = pycd3.Double(0.2)
self.addParameter("Fraktion_of_Impervious_Area_to_Reservoir_iAR_[-]", self.imp_area_raintank)
# https://help.innovyze.com/display/xps/Infiltration
#default values for gras (Wikipedia)
self.Horton_initial_cap = pycd3.Double(0.09)
self.addParameter("Initial_Infiltration_Capacity_[m/h]", self.Horton_initial_cap)
self.Horton_final_cap = pycd3.Double(0.001)
self.addParameter("Final_Infiltration_Capacity_[m/h]", self.Horton_final_cap)
self.Horton_decay_constant = pycd3.Double(0.06)
self.addParameter("Decay_Constant_[1/min]", self.Horton_decay_constant)
# Storage in m
self.perv_soil_storage_capacity = pycd3.Double(0.030)
self.addParameter("Soil Storage Capacity in m", self.perv_soil_storage_capacity)
self.daily_recharge_rate = pycd3.Double(0.25) # in %
self.addParameter("Daily Recharge Rate", self.daily_recharge_rate)
# E-Water https://wiki.ewater.org.au/display/MD6/Appendix+A%3A+Rainfall-Runoff+Modelling
self.transpiration_capacity = pycd3.Double(0.007)
self.addParameter("Transpire Capacity", self.transpiration_capacity)
#default values for suburbs (scrip Prof. Krebs)
self.depression_loss = pycd3.Double(0.0015)
self.addParameter("Depression_Loss_[m]", self.depression_loss)
#default values for (scrip Prof. Krebs)
self.initial_loss = pycd3.Double(0.004)
self.addParameter("Wetting_Loss_[m]", self.initial_loss)
#number of subareas for flowconcentration
self.amount_subareas = pycd3.Double(1)
self.addParameter("Number_of_Subareas_[-]", self.amount_subareas)
#factor for calibrating outdoordemand
self.outdoor_demand_coefficient = pycd3.Double(0.5)
self.addParameter("Outdoor_Demand_Weighing_Factor_[-]", self.outdoor_demand_coefficient)
#Muskingum parameters K flowtime for entire catchment
#divided by surface Area
self.rain_runtime_coll = pycd3.Double(400)
self.addParameter("Runoff_Runtime_iAR_[s]", self.rain_runtime_coll)
self.muskingum_coll_X = pycd3.Double(0.04)
self.addParameter("Weighting_Coefficient_iAR_[-]", self.muskingum_coll_X)
self.rain_runtime_runoff = pycd3.Double(500)
self.addParameter("Runoff_Runtime_iASD_[s]", self.rain_runtime_runoff)
self.muskingum_runoff_X = pycd3.Double(0.05)
self.addParameter("Weighting_Coefficient_iASD_[-]", self.muskingum_runoff_X)
self.rain_runtime_runoff_perv = pycd3.Double(700)
self.addParameter("Runoff_Runtime_pA_[s]", self.rain_runtime_runoff_perv)
self.muskingum_runoff_perv_X = pycd3.Double(0.06)
self.addParameter("Weighting_Coefficient_pA_[-]", self.muskingum_runoff_perv_X)
#storage and time values
self.current_effective_rain_height = 0.0
self.rain_storage_imp = 0.0
self.continuous_rain_time = 0.0
self.continuous_rain_time_2 = 0.0
self.rain_storage_perv = 0.0
self.rain_storage_imp_before = 0.0
#variable to check Horten model (has got to be 1 for a real simulation)
self.k=1
#storage for Muskingum inflows
self.collected_w_raw = 0.0
self.runoff_raw = 0.0
self.runoff_perv_raw=0.0
def __init__(self):
pycd3.Node.__init__(self)
self.rain = pycd3.Flow()
self.collected_w = pycd3.Flow()
self.runoff = pycd3.Flow()
self.evapo = pycd3.Flow()
self.possible_infiltr = pycd3.Flow()
self.actual_infiltr = pycd3.Flow()
self.outdoor_use = pycd3.Flow()
self.inflow = pycd3.Flow()
self.outdoor_use_check = pycd3.Flow()
#dir (self.inf)
# print "init node"
self.addInPort("Rain", self.rain)
self.addInPort("Evapotranspiration", self.evapo)
self.addInPort("Inflow", self.inflow)
self.addOutPort("Possible_Infiltration", self.possible_infiltr)
self.addOutPort("Actual_Infiltration", self.actual_infiltr)
self.addOutPort("Runoff", self.runoff)
self.addOutPort("Collected_Water", self.collected_w)
self.addOutPort("Outdoor_Demand", self.outdoor_use)
self.addOutPort("Outdoor_Demand_Check", self.outdoor_use_check)
#Catchment with Routing or without
self.select_model = pycd3.String("without")
self.addParameter("Catchment_with_or_without_Routing_(with_or_without)", self.select_model)
#Catchment area + fraction info of pervious and impervious parts
self.area_property = pycd3.Double(1000)
self.addParameter("Catchment_Area_[m^2]", self.area_property)
self.perv_area = pycd3.Double(0.4)
self.addParameter("Fraktion_of_Pervious_Area_pA_[-]", self.perv_area)
self.imp_area_stormwater = pycd3.Double(0.4)
self.addParameter("Fraktion_of_Impervious_Area_to_Stormwater_Drain_iASD_[-]", self.imp_area_stormwater)
self.imp_area_raintank = pycd3.Double(0.2)
self.addParameter("Fraktion_of_Impervious_Area_to_Reservoir_iAR_[-]", self.imp_area_raintank)
#default values for gras (Wikipedia)
self.Horton_initial_cap = pycd3.Double(0.9)
self.addParameter("Initial_Infiltration_Capacity_[m/h]", self.Horton_initial_cap)
self.Horton_final_cap = pycd3.Double(0.29)
self.addParameter("Final_Infiltration_Capacity_[m/h]", self.Horton_final_cap)
self.Horton_decay_constant = pycd3.Double(2.0)
self.addParameter("Decay_Constant_[1/min]", self.Horton_decay_constant)
#default values for suburbs (scrip Prof. Krebs)
self.depression_loss = pycd3.Double(1.5)
self.addParameter("Depression_Loss_[mm]", self.depression_loss)
#default values for (scrip Prof. Krebs)
self.initial_loss = pycd3.Double(0.4)
self.addParameter("Wetting_Loss_[mm]", self.initial_loss)
#number of subareas for flowconcentration
self.amount_subareas = pycd3.Double(1)
self.addParameter("Number_of_Subareas_[-]", self.amount_subareas)
#factor for calibrating outdoordemand
self.outdoor_demand_coefficient = pycd3.Double(0.5)
self.addParameter("Outdoor_Demand_Weighing_Factor_[-]", self.outdoor_demand_coefficient)
#Muskingum parameters K flowtime for entire catchment
#divided by surface Area
self.rain_runtime_coll = pycd3.Double(400)
self.addParameter("Runoff_Runtime_iAR_[s]", self.rain_runtime_coll)
self.muskingum_coll_X = pycd3.Double(0.04)
self.addParameter("Weighting_Coefficient_iAR_[-]", self.muskingum_coll_X)
self.rain_runtime_runoff = pycd3.Double(500)
self.addParameter("Runoff_Runtime_iASD_[s]", self.rain_runtime_runoff)
self.muskingum_runoff_X = pycd3.Double(0.05)
self.addParameter("Weighting_Coefficient_iASD_[-]", self.muskingum_runoff_X)
self.rain_runtime_runoff_perv = pycd3.Double(700)
self.addParameter("Runoff_Runtime_pA_[s]", self.rain_runtime_runoff_perv)
self.muskingum_runoff_perv_X = pycd3.Double(0.06)
self.addParameter("Weighting_Coefficient_pA_[-]", self.muskingum_runoff_perv_X)
#storage and time values
self.current_effective_rain_height = 0.0
self.rain_storage_imp = 0.0
self.continuous_rain_time = 0.0
self.continuous_rain_time_2 = 0.0
self.rain_storage_perv = 0.0
self.rain_storage_imp_before = 0.0
#variable to check Horten model (has got to be 1 for a real simulation)
self.k=1
#storage for Muskingum inflows
self.collected_w_raw = 0.0
self.runoff_raw = 0.0
self.runoff_perv_raw=0.0
def __init__(self):
pycd3.Node.__init__(self)
self.rain = pycd3.Flow()
self.collected_w = pycd3.Flow()
self.runoff = pycd3.Flow()
self.evapo = pycd3.Flow()
self.possible_infiltr = pycd3.Flow()
self.actual_infiltr = pycd3.Flow()
# self.outdoor_use = pycd3.Flow()
self.inflow = pycd3.Flow()
self.gardensize = pycd3.Flow()
#dir (self.inf)
# print "init node"
self.addInPort("Rain", self.rain)
self.addInPort("Evapotranspiration", self.evapo)
self.addInPort("Inflow", self.inflow)
self.addOutPort("Possible_Infiltration", self.possible_infiltr)
self.addOutPort("Infiltration", self.actual_infiltr)
self.addOutPort("Runoff", self.runoff)
self.addOutPort("Collected_Water", self.collected_w)
self.addOutPort("Gardensize", self.gardensize)
# self.addOutPort("Outdoor_Demand_Check", self.outdoor_use_check)
#Catchment with Routing or without
self.select_model = pycd3.String("without")
self.addParameter(
"Catchment_with_or_without_Routing_(with_or_without)",
self.select_model)
self.dryrate = pycd3.Double(1)
self.addParameter("Drying_Factor_[-]", self.dryrate)
#Catchment area + fraction info of pervious and impervious parts
self.area_property = pycd3.Double(1000)
self.addParameter("Catchment_Area_[m^2]", self.area_property)
self.perv_area = pycd3.Double(0.4)
self.addParameter("Fraktion_of_Pervious_Area_pA_[-]", self.perv_area)
self.imp_area_stormwater = pycd3.Double(0.4)
self.addParameter(
"Fraktion_of_Impervious_Area_to_Stormwater_Drain_iASD_[-]",
self.imp_area_stormwater)
self.imp_area_raintank = pycd3.Double(0.2)
self.addParameter("Fraktion_of_Impervious_Area_to_Reservoir_iAR_[-]",
self.imp_area_raintank)
#default values for gras (Wikipedia)
self.Horton_initial_cap = pycd3.Double(0.9)
self.addParameter("Initial_Infiltration_Capacity_[m/h]",
self.Horton_initial_cap)
self.Horton_final_cap = pycd3.Double(0.29)
self.addParameter("Final_Infiltration_Capacity_[m/h]",
self.Horton_final_cap)
self.Horton_decay_constant = pycd3.Double(2.0)
self.addParameter("Decay_Constant_[1/min]", self.Horton_decay_constant)
#default values for suburbs (scrip Prof. Krebs)
self.depression_loss = pycd3.Double(1.5)
self.addParameter("Depression_Loss_[mm]", self.depression_loss)
#default values for (scrip Prof. Krebs)
self.wetting_loss = pycd3.Double(0.4)
self.addParameter("Wetting_Loss_[mm]", self.wetting_loss)
#factor for calibrating outdoordemand
# self.outdoor_demand_coefficient = pycd3.Double(0.5)
# self.addParameter("Outdoor_Demand_Weighing_Factor_[-]", self.outdoor_demand_coefficient)
#linear storage coefficients for each surface type
self.linearstorage_perv_K = pycd3.Double(1000)
self.addParameter("Linear_Storage_Factor_Pervious_Area_K_[s]",
self.linearstorage_perv_K)
self.linearstorage_imperv_res_K = pycd3.Double(1000)
self.addParameter(
"Linear_Storage_Factor_Impervious_Area_to_Reservoir_K_[s]",
self.linearstorage_imperv_res_K)
self.linearstorage_imperv_storm_K = pycd3.Double(1000)
self.addParameter(
"Linear_Storage_Factor_Impervious_Area_to_Stormwater_Drain_K_[s]",
self.linearstorage_imperv_storm_K)
#storage and time values
self.rainmemory = 0.0
self.rain_storage_imp = 0.0
self.continuous_rain_time = 0.0
self.continuous_rain_time_2 = 0.0
self.rain_storage = 0.0
self.rainstoragemen = 0.0
#variable to check Horten model
self.k = 1
#storage for linear storage model
self.collected_w_raw = 0.0
self.runoff_raw = 0.0
self.runoff_perv_raw = 0.0