def __init__(self, singleSiteInstance, ensembleID, bWriteOutput=True):
# Generate global variables
self.GlobalVar = globalVariables.globalVariablesClass()
# Initiate self.site variable with the getSingleSiteParametersClass class
# self.site = getSingleSiteParameters.getSingleSiteParametersClass()
self.site = copy.deepcopy(singleSiteInstance)
# In VB and FAST, the output table (sqlite) should be not written, i.e., self.bWriteOutput = False
# self.bWriteOutput = bWriteOutput
# ensemble ID
self.ensembleID = ensembleID
# self.run3PG_2(ensembleID)
# Initialize the stand age
self.initialiseStandAge()
self.initialiseParameters()
self.assignVaryData()
self.initialiseStand()
# The entrance to function initialiseSoilWaterBalance()
self.waterModule = water_module.water_module_class(self.site)
self.assignSilviculturalEvents(self.site.standAge)
# set all output variables to be zero
self.initialiseOutputData()
# Note: the simulation starts with the month after planting as the first month of growth
self.site.monthOfYear = self.site.InitialMonth + 1
self.site.metMonth = self.site.monthOfYear
self.site.metyear = self.site.InitialYear
self.site.monthCounter = 1
self.getAgeDependentfactors()
self.getStandCharacteristics()
# Headings and variables flagged as having initial values are output here
# self.write3PGresults(self.GlobalVar.opStart, 0)
# open the connection to sqlite DB, only need to be open in the 1st ensemble member
# self.connection = sqlite3.connect(self.GlobalVar.outputFilename, check_same_thread=False)
# self.connection = DB
# self.cursor = self.connection.cursor()
# Create a table in sqlite
# self.writeOutput(0)
# month counter, write into sqlite
self.monthIncrease = 0
def __init__(self, excel_file_path, excel_sheet):
# Generate global variables
self.GlobalVar = globalVariables.globalVariablesClass()
# Set the initial excel file path and sheet name
self.excel_file_path = excel_file_path
self.excel_sheet =excel_sheet
# Call this function to read and fill soilDict{}
self.fillDict()
def __init__(self, singleSiteInstance, bWriteOutput=True):
# Generate global variables
self.GlobalVar = globalVariables.globalVariablesClass()
# Initiate self.site variable with the getSingleSiteParametersClass class
self.site = getSingleSiteParameters.getSingleSiteParametersClass()
self.site = singleSiteInstance
# In VB and FAST, the output table (sqlite) should be not written, i.e., self.bWriteOutput = False
self.bWriteOutput = bWriteOutput
# Run the main procedure of Py3PG2 and print the simulation time for each site
#t0 = time.time()
self.run3PG_2()
def __init__(self, singleSiteInstance, ensembleID, bWriteOutput=True):
# Generate global variables
self.GlobalVar = globalVariables.globalVariablesClass()
# Initiate self.site variable with the getSingleSiteParametersClass class
# self.site = getSingleSiteParameters.getSingleSiteParametersClass()
self.site = copy.deepcopy(singleSiteInstance)
# In VB and FAST, the output table (sqlite) should be not written, i.e., self.bWriteOutput = False
# self.bWriteOutput = bWriteOutput
# ensemble ID
self.ensembleID = ensembleID
# Initialize the stand age
self.initialiseStandAge()
self.initialiseParameters()
self.assignVaryData()
self.initialiseStand()
# The entrance to function initialiseSoilWaterBalance()
self.waterModule = water_module.water_module_class(self.site)
self.assignSilviculturalEvents(self.site.standAge)
# set all output variables to be zero
self.initialiseOutputData()
# Note: the simulation starts with the month after planting as the first month of growth
self.site.monthOfYear = self.site.InitialMonth + 1
self.site.metMonth = self.site.monthOfYear
self.site.metyear = self.site.InitialYear
self.site.monthCounter = 1
self.getAgeDependentfactors()
self.getStandCharacteristics()
# month counter, write into sqlite
self.monthIncrease = 0