def run_OpenDSS(dss_debug, solverFlag):
# SET SOURCEBUS
# VsourceClass.sourcebus = vsourceobj.id[1]
dssObj = win32com.client.Dispatch(
'OpenDSSEngine.DSS') # OPENDSS COMPORT
dssObj.AllowForms = False
dssText = dssObj.Text
dssCkt = dssObj.ActiveCircuit
dssSolution = dssCkt.Solution
dssActvElem = dssCkt.ActiveCktElement
dssActvBus = dssCkt.ActiveBus
dssText.Command = 'Clear'
dssText.Command = 'Set DataPath=\'C:\\Users\\' + os_username + '\\Documents\\OpenDSS'
dssText.Command = 'Set DefaultBaseFrequency=60'
for object in object_list:
object.createAllDSS(dssText, {}, dss_debug)
set_voltagebase = set()
for object in object_list:
set_voltagebase = set_voltagebase | object.voltagesToSets()
dssText.Command = 'Set VoltageBases={}'.format(list(set_voltagebase))
dssText.Command = 'CalcVoltageBases'
dssText.Command = 'Solve BaseFrequency=60 MaxIter=300'
variant_buses = automation.VARIANT()
variant_voltages_mag = automation.VARIANT()
variant_voltages_pu = automation.VARIANT()
variant_currents = automation.VARIANT()
variant_powers = automation.VARIANT()
for object in object_list:
object.readAllDSSOutputs(dssCkt, dssActvElem, dssActvBus,
variant_buses, variant_voltages_mag,
variant_voltages_pu, variant_currents,
variant_powers)
if solverFlag == False:
dssText.Command = 'Save Circuit'
dssText.Command = 'Export Summary (summary.csv)'
dssText.Command = 'Export Currents (currents.csv)'
dssText.Command = 'Export Voltages (voltages.csv)'
dssText.Command = 'Export Overloads (overloads.csv)'
dssText.Command = 'Export Powers kVA (powers.csv)'
losses = dssCkt.Losses
return float(losses[0]) * 0.001, float(losses[1]) * 0.001 # kW, kVar
def browseableMessage(message, title=None, isHtml=False):
"""Present a message to the user that can be read in browse mode.
The message will be presented in an HTML document.
@param message: The message in either html or text.
@type message: str
@param title: The title for the message.
@type title: str
@param isHtml: Whether the message is html
@type isHtml: boolean
"""
htmlFileName = os.path.join(globalVars.appDir, 'message.html')
if not os.path.isfile(htmlFileName):
raise LookupError(htmlFileName)
moniker = POINTER(IUnknown)()
windll.urlmon.CreateURLMonikerEx(0, htmlFileName, byref(moniker),
URL_MK_UNIFORM)
if not title:
# Translators: The title for the dialog used to present general NVDA messages in browse mode.
title = _("NVDA Message")
isHtmlArgument = "true" if isHtml else "false"
dialogString = u"{isHtml};{title};{message}".format(isHtml=isHtmlArgument,
title=title,
message=message)
dialogArguements = automation.VARIANT(dialogString)
gui.mainFrame.prePopup()
windll.mshtml.ShowHTMLDialogEx(gui.mainFrame.Handle,
moniker, HTMLDLG_MODELESS,
addressof(dialogArguements), DIALOG_OPTIONS,
None)
gui.mainFrame.postPopup()
def Get_Circuit_AllBusVmagPu(self):
""" Método que retorna uma lista com as tensões nodais em pu de todos os nós do circuito"""
# Declarando um ponteiro para uma variável do tipo "variant"
variant_pointer = ctypes.pointer(automation.VARIANT())
self.dssObj.CircuitV(ctypes.c_int(9), variant_pointer,
ctypes.c_int32(0))
return variant_pointer.contents.value
def Get_Circuit_AllNodeNames(self):
""" Método que retorna uma lista com os nomes de todas os nós do circuito"""
# Declarando um ponteiro para uma variável do tipo "variant"
variant_pointer = ctypes.pointer(automation.VARIANT())
self.dssObj.CircuitV(ctypes.c_int(10), variant_pointer,
ctypes.c_int32(0))
return variant_pointer.contents.value
def get_Circuit_AllBusNames(self):
""" Método que get os nomes das barras"""
variant_pointer = ctypes.pointer(automation.VARIANT())
self.dssObj.CircuitV(ctypes.c_int32(7), variant_pointer,
ctypes.c_int32(0))
return variant_pointer.contents.value
def get_Circuit_AllBusVMagPu(self):
""" Método que retorna as tensões das barras em pu"""
variant_pointer = ctypes.pointer(automation.VARIANT())
self.dssObj.CircuitV(ctypes.c_int32(9), variant_pointer,
ctypes.c_int32(0))
return variant_pointer.contents.value
def get_Transformer_AllNames(self):
""" Método que retorna os nomes dos transformeres"""
variant_pointer = ctypes.pointer(automation.VARIANT())
self.dssObj.TransformersV(ctypes.c_int(0), variant_pointer)
return variant_pointer.contents.value
def get_CktElement_BusNames(self):
""" Método que retorna os nomes das barras do elemento ativo"""
variant_pointer = ctypes.pointer(automation.VARIANT())
self.dssObj.CktElementV(ctypes.c_int32(0), variant_pointer)
return variant_pointer.contents.value
def get_Load_AllNames(self):
""" Método que retorna o nome de todas as cargas"""
variant_pointer = ctypes.pointer(automation.VARIANT())
self.dssObj.DSSLoadsV(ctypes.c_int32(0), variant_pointer)
return variant_pointer.contents.value
def get_VSource_AllNames(self):
""" Método que retorna o nome de todas as fontes"""
variant_pointer = ctypes.pointer(automation.VARIANT())
self.dssObj.VsourcesV(ctypes.c_int32(0), variant_pointer)
return variant_pointer.contents.value
def Get_Transformer_AllNames(self):
""" Método que retorna uma lista com os nomes de todos os Transformadores"""
# Declarando um ponteiro para uma variável do tipo "variant"
variant_pointer = ctypes.pointer(automation.VARIANT())
self.dssObj.TransformersV(ctypes.c_int(0), variant_pointer)
return variant_pointer.contents.value
def Get_CktElement_BusNames(self):
""" Método que retorna uma lista com o nome das barras à qual o elemento ativo se conecta"""
# Declarando um ponteiro para uma variável do tipo "variant"
variant_pointer = ctypes.pointer(automation.VARIANT())
self.dssObj.CktElementV(ctypes.c_int(0), variant_pointer)
return variant_pointer.contents.value
def Get_Loads_AllNames(self):
""" Método que retorna uma lista com os nomes de todas as cargas do circuito"""
# Declarando um ponteiro para uma variável do tipo "variant"
variant_pointer = ctypes.pointer(automation.VARIANT())
self.dssObj.DSSLoadsV(ctypes.c_int(0), variant_pointer)
return variant_pointer.contents.value
def Get_Meters_RegisterValues(self):
""" Método que retorna uma lista com os valores do registros do medidor ativo"""
# Declarando um ponteiro para uma variável do tipo "variant"
variant_pointer = ctypes.pointer(automation.VARIANT())
self.dssObj.MetersV(ctypes.c_int(2), variant_pointer)
return variant_pointer.contents.value
def Get_Meters_AllNames(self):
""" Método que retorna uma lista com o nome de todos os medidores do circuito"""
# Declarando um ponteiro para uma variável do tipo "variant"
variant_pointer = ctypes.pointer(automation.VARIANT())
self.dssObj.MetersV(ctypes.c_int(0), variant_pointer)
return variant_pointer.contents.value
def run_OpenDSS(dss_debug, solverFlag):
# SET SOURCEBUS
# VsourceClass.sourcebus = vsourceobj.id[1]
dssObj = win32com.client.Dispatch(
'OpenDSSEngine.DSS') # OPENDSS COMPORT
dssObj.AllowForms = False
dssText = dssObj.Text
dssCkt = dssObj.ActiveCircuit
dssSolution = dssCkt.Solution
dssActvElem = dssCkt.ActiveCktElement
dssActvBus = dssCkt.ActiveBus
dssText.Command = 'Clear'
dssText.Command = 'Set DataPath=\'C:\\Users\\' + os_username + '\\Documents\\OpenDSS'
dssText.Command = 'Set DefaultBaseFrequency=60'
for object in object_list:
object.createAllDSS(dssText, interconn_dict, dss_debug)
set_voltagebase = set()
for object in object_list:
set_voltagebase = set_voltagebase | object.voltagesToSets()
dssText.Command = 'Set VoltageBases={}'.format(list(set_voltagebase))
dssText.Command = 'CalcVoltageBases'
dssText.Command = 'Solve BaseFrequency=60 MaxIter=300'
variant_buses = automation.VARIANT()
variant_voltages_mag = automation.VARIANT()
variant_voltages_pu = automation.VARIANT()
variant_currents = automation.VARIANT()
variant_powers = automation.VARIANT()
for object in object_list:
object.readAllDSSOutputs(dssCkt, dssActvElem, dssActvBus,
variant_buses, variant_voltages_mag,
variant_voltages_pu, variant_currents,
variant_powers)
if solverFlag == False:
# dssText.Command = 'Save Circuit'
# dssText.Command = 'Export Summary (summary.csv)'
# dssText.Command = 'Export Currents (currents.csv)'
# dssText.Command = 'Export Voltages (voltages.csv)'
# dssText.Command = 'Export Overloads (overloads.csv)'
# dssText.Command = 'Export Powers kVA (powers.csv)'
input_list_continuous = []
input_list_categorical = []
input_tensor_continuous = np.empty([0, 0],
dtype=np.float64).flatten()
input_tensor_categorical = np.empty([0, 0],
dtype=np.float64).flatten()
for object in object_list:
list_continuous, list_categorical, tensor_continuous, tensor_categorical = object.convertToInputTensor(
)
input_list_continuous = input_list_continuous + list_continuous
input_list_categorical = input_list_categorical + list_categorical
input_tensor_continuous = np.concatenate(
(input_tensor_continuous, tensor_continuous), axis=0)
input_tensor_categorical = np.concatenate(
(input_tensor_categorical, tensor_categorical), axis=0)
output_list = []
output_tensor = np.empty([0, 0], dtype=np.float64).flatten()
for object in object_list:
o_list, o_tensor = object.convertToOutputTensor()
output_list = output_list + o_list
output_tensor = np.concatenate((output_tensor, o_tensor),
axis=0)
return input_list_continuous, input_list_categorical, output_list, input_tensor_continuous, input_tensor_categorical, output_tensor
else:
losses = dssCkt.Losses
return float(losses[0]) * 0.001 # kW
