def __init__(self,parent, padX, padY):
LabelFrame.__init__(self,parent,borderwidth=0)
# Total volume
self.totalEstimatedVolume_L = Label(self,text="Estimated total volume (km\u00B3): ")
self.totalEstimatedVolume_E = CustomEntry(self,width=10,justify="right")
self.totalEstimatedVolume_E.setUserEditable(False)
self.totalEstimatedVolume_E.grid(row=0,column=1,padx=10,pady=padY,sticky="E")
self.totalEstimatedVolume_L.grid(row=0,column=0,sticky="W",padx=10)
# Relative squared error
self.relativeSquaredError_L = Label(self,text="Mean relative squared error: ")
self.relativeSquaredError_L.grid(row=1,column=0,sticky="W",padx=10,pady=padY)
self.relativeSquaredError_E = CustomEntry(self,width=10,justify="right")
self.relativeSquaredError_E.grid(row=1,column=1,padx=10,sticky="E")
self.relativeSquaredError_E.setUserEditable(False)
# Equation
self.equation_L = Label(self,text="Equation: ")
self.equation_E = CustomEntry(self,width=10,justify="right")
self.equation_E.setUserEditable(False)
# General
self.parameters_L = Label(self,text="Parameters:")
self.calculate_B = Button(self,text="Recalculate",width=12)
self.reset_B = Button(self,text="Reset",width=8)
#########
## Exp ##
#########
# Segment combobox
self.expSeg_CB = Combobox(self,state="readonly",width=10)
# Segment volume
self.expSegVolume_L = Label(self,text="Segment volume (km\u00B3): ")
self.expSegVolume_E = CustomEntry(self, width=10, justify="right")
self.expSegVolume_E.setUserEditable(False)
# Segment start
self.expSegStartLimit_L = Label(self,text="Start of segment: ")
self.expSegStartLimit_E = NumericEntry(self, width=10, justify="right")
self.expSegStartLimit_E.setSF(NUMBER_OF_SF)
# Segment end
self.expSegEndLimit_L = Label(self,text="End of segment: ")
self.expSegEndLimit_E = NumericEntry(self, width=10, justify="right")
self.expSegEndLimit_E.setSF(NUMBER_OF_SF)
# Segment coefficient
self.expSegCoefficent_L = Label(self,text="Segment coefficient, c: ")
self.expSegCoefficent_E = NumericEntry(self, width=10, justify="right")
self.expSegCoefficent_E.setSF(NUMBER_OF_SF)
# Segment exponent
self.expSegExponent_L = Label(self,text="Segment exponent, m: ")
self.expSegExponent_E = NumericEntry(self, width=10, justify="right")
self.expSegExponent_E.setSF(NUMBER_OF_SF)
#########
## Pow ##
#########
# Coefficient
self.powCoefficient_L = Label(self,text="Coefficient, c: ")
self.powCoefficient_E = NumericEntry(self,width=10, justify="right")
self.powCoefficient_E.setSF(NUMBER_OF_SF)
# Exponent
self.powExponent_L = Label(self,text="Exponent, m: ")
self.powExponent_E = NumericEntry(self,width=10, justify="right")
self.powExponent_E.setSF(NUMBER_OF_SF)
# Proximal limit
self.powProximalLimit_L = Label(self,text="Proximal limit: ")
self.powProximalLimit_E = NumericEntry(self,width=10, justify="right")
self.powProximalLimit_E.setSF(NUMBER_OF_SF)
# Distal limit
self.powDistalLimit_L = Label(self,text="Distal limit: ")
self.powDistalLimit_E = NumericEntry(self,width=10, justify="right")
self.powDistalLimit_E.setSF(NUMBER_OF_SF)
# Suggested proximal limit
self.powSuggestedProximalLimit_L = Label(self,text="Suggested proximal limit: ")
self.powSuggestedProximalLimit_E = CustomEntry(self,width=10, justify="right")
self.powSuggestedProximalLimit_E.setUserEditable(False)
#########
## Wei ##
#########
# lambda
self.weiLambdaL = Label(self,text="Estimated \u03BB: ")
self.weiLambdaE = NumericEntry(self,width=10, justify="right")
self.weiLambdaE.setSF(NUMBER_OF_SF)
# k
self.weiKL = Label(self,text="Estimated k: ")
self.weiKE = NumericEntry(self,width=10, justify="right")
self.weiKE.setSF(NUMBER_OF_SF)
# theta
self.weiThetaL = Label(self,text="Estimated \u03B8: ")
self.weiThetaE = NumericEntry(self,width=10, justify="right")
self.weiThetaE.setSF(NUMBER_OF_SF)
self.components = {
Model.EXP : [
self.expSeg_CB,
self.expSegVolume_L, self.expSegVolume_E,
self.expSegStartLimit_L, self.expSegStartLimit_E,
self.expSegEndLimit_L, self.expSegEndLimit_E,
self.expSegCoefficent_L, self.expSegCoefficent_E,
self.expSegExponent_L, self.expSegExponent_E
],
Model.POW : [
self.powCoefficient_L, self.powCoefficient_E,
self.powExponent_L, self.powExponent_E,
self.powProximalLimit_L, self.powProximalLimit_E,
self.powDistalLimit_L, self.powDistalLimit_E,
self.powSuggestedProximalLimit_L, self.powSuggestedProximalLimit_E
],
Model.WEI : [
self.weiLambdaL, self.weiLambdaE,
self.weiKL, self.weiKE,
self.weiThetaL, self.weiThetaE,
],
}
def __init__(self,parent, padX, padY):
LabelFrame.__init__(self,parent,borderwidth=0)
# Total volume
self.totalEstimatedVolume_L = Label(self,text="Estimated total volume (km\u00B3): ")
self.totalEstimatedVolume_E = CustomEntry(self,width=10,justify="right")
self.totalEstimatedVolume_E.setUserEditable(False)
self.totalEstimatedVolume_E.grid(row=0,column=1,padx=10,pady=padY,sticky="E")
self.totalEstimatedVolume_L.grid(row=0,column=0,sticky="W",padx=10)
# Relative squared error
self.relativeSquaredError_L = Label(self,text="Mean relative squared error: ")
self.relativeSquaredError_L.grid(row=1,column=0,sticky="W",padx=10,pady=padY)
self.relativeSquaredError_E = CustomEntry(self,width=10,justify="right")
self.relativeSquaredError_E.grid(row=1,column=1,padx=10,sticky="E")
self.relativeSquaredError_E.setUserEditable(False)
# Equation
self.equation_L = Label(self,text="Equation: ")
self.equation_E = CustomEntry(self,width=10,justify="right")
self.equation_E.setUserEditable(False)
# General
self.parameters_L = Label(self,text="Parameters:")
self.calculate_B = Button(self,text="Recalculate",width=12)
self.reset_B = Button(self,text="Reset",width=8)
#########
## Exp ##
#########
# Segment combobox
self.expSeg_CB = Combobox(self,state="readonly",width=10)
# Segment volume
self.expSegVolume_L = Label(self,text="Segment volume (km\u00B3): ")
self.expSegVolume_E = CustomEntry(self, width=10, justify="right")
self.expSegVolume_E.setUserEditable(False)
# Segment start
self.expSegStartLimit_L = Label(self,text="Start of segment: ")
self.expSegStartLimit_E = NumericEntry(self, width=10, justify="right")
self.expSegStartLimit_E.setSF(NUMBER_OF_SF)
# Segment end
self.expSegEndLimit_L = Label(self,text="End of segment: ")
self.expSegEndLimit_E = NumericEntry(self, width=10, justify="right")
self.expSegEndLimit_E.setSF(NUMBER_OF_SF)
# Segment coefficient
self.expSegCoefficent_L = Label(self,text="Segment coefficient, c: ")
self.expSegCoefficent_E = NumericEntry(self, width=10, justify="right")
self.expSegCoefficent_E.setSF(NUMBER_OF_SF)
# Segment exponent
self.expSegExponent_L = Label(self,text="Segment exponent, m: ")
self.expSegExponent_E = NumericEntry(self, width=10, justify="right")
self.expSegExponent_E.setSF(NUMBER_OF_SF)
#########
## Pow ##
#########
# Coefficient
self.powCoefficient_L = Label(self,text="Coefficient, c: ")
self.powCoefficient_E = NumericEntry(self,width=10, justify="right")
self.powCoefficient_E.setSF(NUMBER_OF_SF)
# Exponent
self.powExponent_L = Label(self,text="Exponent, m: ")
self.powExponent_E = NumericEntry(self,width=10, justify="right")
self.powExponent_E.setSF(NUMBER_OF_SF)
# Proximal limit
self.powProximalLimit_L = Label(self,text="Proximal limit: ")
self.powProximalLimit_E = NumericEntry(self,width=10, justify="right")
self.powProximalLimit_E.setSF(NUMBER_OF_SF)
# Distal limit
self.powDistalLimit_L = Label(self,text="Distal limit: ")
self.powDistalLimit_E = NumericEntry(self,width=10, justify="right")
self.powDistalLimit_E.setSF(NUMBER_OF_SF)
# Suggested proximal limit
self.powSuggestedProximalLimit_L = Label(self,text="Suggested proximal limit: ")
self.powSuggestedProximalLimit_E = CustomEntry(self,width=10, justify="right")
self.powSuggestedProximalLimit_E.setUserEditable(False)
#########
## Wei ##
#########
# lambda
self.weiLambdaL = Label(self,text="Estimated \u03BB: ")
self.weiLambdaE = NumericEntry(self,width=10, justify="right")
self.weiLambdaE.setSF(NUMBER_OF_SF)
# k
self.weiKL = Label(self,text="Estimated k: ")
self.weiKE = NumericEntry(self,width=10, justify="right")
self.weiKE.setSF(NUMBER_OF_SF)
# theta
self.weiThetaL = Label(self,text="Estimated \u03B8: ")
self.weiThetaE = NumericEntry(self,width=10, justify="right")
self.weiThetaE.setSF(NUMBER_OF_SF)
self.components = {
Model.EXP : [
self.expSeg_CB,
self.expSegVolume_L, self.expSegVolume_E,
self.expSegStartLimit_L, self.expSegStartLimit_E,
self.expSegEndLimit_L, self.expSegEndLimit_E,
self.expSegCoefficent_L, self.expSegCoefficent_E,
self.expSegExponent_L, self.expSegExponent_E
],
Model.POW : [
self.powCoefficient_L, self.powCoefficient_E,
self.powExponent_L, self.powExponent_E,
self.powProximalLimit_L, self.powProximalLimit_E,
self.powDistalLimit_L, self.powDistalLimit_E,
self.powSuggestedProximalLimit_L, self.powSuggestedProximalLimit_E
],
Model.WEI : [
self.weiLambdaL, self.weiLambdaE,
self.weiKL, self.weiKE,
self.weiThetaL, self.weiThetaE,
],
}
class StatsFrame(LabelFrame):
def __init__(self,parent, padX, padY):
LabelFrame.__init__(self,parent,borderwidth=0)
# Total volume
self.totalEstimatedVolume_L = Label(self,text="Estimated total volume (km\u00B3): ")
self.totalEstimatedVolume_E = CustomEntry(self,width=10,justify="right")
self.totalEstimatedVolume_E.setUserEditable(False)
self.totalEstimatedVolume_E.grid(row=0,column=1,padx=10,pady=padY,sticky="E")
self.totalEstimatedVolume_L.grid(row=0,column=0,sticky="W",padx=10)
# Relative squared error
self.relativeSquaredError_L = Label(self,text="Mean relative squared error: ")
self.relativeSquaredError_L.grid(row=1,column=0,sticky="W",padx=10,pady=padY)
self.relativeSquaredError_E = CustomEntry(self,width=10,justify="right")
self.relativeSquaredError_E.grid(row=1,column=1,padx=10,sticky="E")
self.relativeSquaredError_E.setUserEditable(False)
# Equation
self.equation_L = Label(self,text="Equation: ")
self.equation_E = CustomEntry(self,width=10,justify="right")
self.equation_E.setUserEditable(False)
# General
self.parameters_L = Label(self,text="Parameters:")
self.calculate_B = Button(self,text="Recalculate",width=12)
self.reset_B = Button(self,text="Reset",width=8)
#########
## Exp ##
#########
# Segment combobox
self.expSeg_CB = Combobox(self,state="readonly",width=10)
# Segment volume
self.expSegVolume_L = Label(self,text="Segment volume (km\u00B3): ")
self.expSegVolume_E = CustomEntry(self, width=10, justify="right")
self.expSegVolume_E.setUserEditable(False)
# Segment start
self.expSegStartLimit_L = Label(self,text="Start of segment: ")
self.expSegStartLimit_E = NumericEntry(self, width=10, justify="right")
self.expSegStartLimit_E.setSF(NUMBER_OF_SF)
# Segment end
self.expSegEndLimit_L = Label(self,text="End of segment: ")
self.expSegEndLimit_E = NumericEntry(self, width=10, justify="right")
self.expSegEndLimit_E.setSF(NUMBER_OF_SF)
# Segment coefficient
self.expSegCoefficent_L = Label(self,text="Segment coefficient, c: ")
self.expSegCoefficent_E = NumericEntry(self, width=10, justify="right")
self.expSegCoefficent_E.setSF(NUMBER_OF_SF)
# Segment exponent
self.expSegExponent_L = Label(self,text="Segment exponent, m: ")
self.expSegExponent_E = NumericEntry(self, width=10, justify="right")
self.expSegExponent_E.setSF(NUMBER_OF_SF)
#########
## Pow ##
#########
# Coefficient
self.powCoefficient_L = Label(self,text="Coefficient, c: ")
self.powCoefficient_E = NumericEntry(self,width=10, justify="right")
self.powCoefficient_E.setSF(NUMBER_OF_SF)
# Exponent
self.powExponent_L = Label(self,text="Exponent, m: ")
self.powExponent_E = NumericEntry(self,width=10, justify="right")
self.powExponent_E.setSF(NUMBER_OF_SF)
# Proximal limit
self.powProximalLimit_L = Label(self,text="Proximal limit: ")
self.powProximalLimit_E = NumericEntry(self,width=10, justify="right")
self.powProximalLimit_E.setSF(NUMBER_OF_SF)
# Distal limit
self.powDistalLimit_L = Label(self,text="Distal limit: ")
self.powDistalLimit_E = NumericEntry(self,width=10, justify="right")
self.powDistalLimit_E.setSF(NUMBER_OF_SF)
# Suggested proximal limit
self.powSuggestedProximalLimit_L = Label(self,text="Suggested proximal limit: ")
self.powSuggestedProximalLimit_E = CustomEntry(self,width=10, justify="right")
self.powSuggestedProximalLimit_E.setUserEditable(False)
#########
## Wei ##
#########
# lambda
self.weiLambdaL = Label(self,text="Estimated \u03BB: ")
self.weiLambdaE = NumericEntry(self,width=10, justify="right")
self.weiLambdaE.setSF(NUMBER_OF_SF)
# k
self.weiKL = Label(self,text="Estimated k: ")
self.weiKE = NumericEntry(self,width=10, justify="right")
self.weiKE.setSF(NUMBER_OF_SF)
# theta
self.weiThetaL = Label(self,text="Estimated \u03B8: ")
self.weiThetaE = NumericEntry(self,width=10, justify="right")
self.weiThetaE.setSF(NUMBER_OF_SF)
self.components = {
Model.EXP : [
self.expSeg_CB,
self.expSegVolume_L, self.expSegVolume_E,
self.expSegStartLimit_L, self.expSegStartLimit_E,
self.expSegEndLimit_L, self.expSegEndLimit_E,
self.expSegCoefficent_L, self.expSegCoefficent_E,
self.expSegExponent_L, self.expSegExponent_E
],
Model.POW : [
self.powCoefficient_L, self.powCoefficient_E,
self.powExponent_L, self.powExponent_E,
self.powProximalLimit_L, self.powProximalLimit_E,
self.powDistalLimit_L, self.powDistalLimit_E,
self.powSuggestedProximalLimit_L, self.powSuggestedProximalLimit_E
],
Model.WEI : [
self.weiLambdaL, self.weiLambdaE,
self.weiKL, self.weiKE,
self.weiThetaL, self.weiThetaE,
],
}
def getParameters(self, model):
if model == Model.EXP:
return {
"c" : helper_functions.validateValue(self.expSegCoefficent_E.get(), "Coefficient, c, must be a number", "float"),
"m" : helper_functions.validateValue(self.expSegExponent_E.get(), "Exponent, m, must be a number", "float"),
"segStart" : helper_functions.validateValue(self.expSegStartLimit_E.get(), "'Start of segment' must be a number > 0", "float", lowerBound=0),
"segEnd" : helper_functions.validateValue(self.expSegEndLimit_E.get(), "'End of segment' must be a number greater than the 'Start of segment'","float", strictLowerBound=float(self.expSegStartLimit_E.get())),
}
elif model == Model.POW:
return {
"c" : helper_functions.validateValue(self.powCoefficient_E.get(), "coefficient, c, must be a number", "float"),
"m" : helper_functions.validateValue(self.powExponent_E.get(), "exponent, m, must be a number", "float")
}
elif model == Model.WEI:
return {
"lambda" : helper_functions.validateValue(self.weiLambdaE.get(), "\u03BB must be a positive number", "float", strictLowerBound=0),
"k" : helper_functions.validateValue(self.weiKE.get(), "k must be a positive number", "float", strictLowerBound=0),
"theta" : helper_functions.validateValue(self.weiThetaE.get(), "\u03B8 must be a positive number", "float", strictLowerBound=0)
}
class StatsFrame(LabelFrame):
def __init__(self,parent, padX, padY):
LabelFrame.__init__(self,parent,borderwidth=0)
# Total volume
self.totalEstimatedVolume_L = Label(self,text="Estimated total volume (km\u00B3): ")
self.totalEstimatedVolume_E = CustomEntry(self,width=10,justify="right")
self.totalEstimatedVolume_E.setUserEditable(False)
self.totalEstimatedVolume_E.grid(row=0,column=1,padx=10,pady=padY,sticky="E")
self.totalEstimatedVolume_L.grid(row=0,column=0,sticky="W",padx=10)
# Relative squared error
self.relativeSquaredError_L = Label(self,text="Mean relative squared error: ")
self.relativeSquaredError_L.grid(row=1,column=0,sticky="W",padx=10,pady=padY)
self.relativeSquaredError_E = CustomEntry(self,width=10,justify="right")
self.relativeSquaredError_E.grid(row=1,column=1,padx=10,sticky="E")
self.relativeSquaredError_E.setUserEditable(False)
# Equation
self.equation_L = Label(self,text="Equation: ")
self.equation_E = CustomEntry(self,width=10,justify="right")
self.equation_E.setUserEditable(False)
# General
self.parameters_L = Label(self,text="Parameters:")
self.calculate_B = Button(self,text="Recalculate",width=12)
self.reset_B = Button(self,text="Reset",width=8)
#########
## Exp ##
#########
# Segment combobox
self.expSeg_CB = Combobox(self,state="readonly",width=10)
# Segment volume
self.expSegVolume_L = Label(self,text="Segment volume (km\u00B3): ")
self.expSegVolume_E = CustomEntry(self, width=10, justify="right")
self.expSegVolume_E.setUserEditable(False)
# Segment start
self.expSegStartLimit_L = Label(self,text="Start of segment: ")
self.expSegStartLimit_E = NumericEntry(self, width=10, justify="right")
self.expSegStartLimit_E.setSF(NUMBER_OF_SF)
# Segment end
self.expSegEndLimit_L = Label(self,text="End of segment: ")
self.expSegEndLimit_E = NumericEntry(self, width=10, justify="right")
self.expSegEndLimit_E.setSF(NUMBER_OF_SF)
# Segment coefficient
self.expSegCoefficent_L = Label(self,text="Segment coefficient, c: ")
self.expSegCoefficent_E = NumericEntry(self, width=10, justify="right")
self.expSegCoefficent_E.setSF(NUMBER_OF_SF)
# Segment exponent
self.expSegExponent_L = Label(self,text="Segment exponent, m: ")
self.expSegExponent_E = NumericEntry(self, width=10, justify="right")
self.expSegExponent_E.setSF(NUMBER_OF_SF)
#########
## Pow ##
#########
# Coefficient
self.powCoefficient_L = Label(self,text="Coefficient, c: ")
self.powCoefficient_E = NumericEntry(self,width=10, justify="right")
self.powCoefficient_E.setSF(NUMBER_OF_SF)
# Exponent
self.powExponent_L = Label(self,text="Exponent, m: ")
self.powExponent_E = NumericEntry(self,width=10, justify="right")
self.powExponent_E.setSF(NUMBER_OF_SF)
# Proximal limit
self.powProximalLimit_L = Label(self,text="Proximal limit: ")
self.powProximalLimit_E = NumericEntry(self,width=10, justify="right")
self.powProximalLimit_E.setSF(NUMBER_OF_SF)
# Distal limit
self.powDistalLimit_L = Label(self,text="Distal limit: ")
self.powDistalLimit_E = NumericEntry(self,width=10, justify="right")
self.powDistalLimit_E.setSF(NUMBER_OF_SF)
# Suggested proximal limit
self.powSuggestedProximalLimit_L = Label(self,text="Suggested proximal limit: ")
self.powSuggestedProximalLimit_E = CustomEntry(self,width=10, justify="right")
self.powSuggestedProximalLimit_E.setUserEditable(False)
#########
## Wei ##
#########
# lambda
self.weiLambdaL = Label(self,text="Estimated \u03BB: ")
self.weiLambdaE = NumericEntry(self,width=10, justify="right")
self.weiLambdaE.setSF(NUMBER_OF_SF)
# k
self.weiKL = Label(self,text="Estimated k: ")
self.weiKE = NumericEntry(self,width=10, justify="right")
self.weiKE.setSF(NUMBER_OF_SF)
# theta
self.weiThetaL = Label(self,text="Estimated \u03B8: ")
self.weiThetaE = NumericEntry(self,width=10, justify="right")
self.weiThetaE.setSF(NUMBER_OF_SF)
self.components = {
Model.EXP : [
self.expSeg_CB,
self.expSegVolume_L, self.expSegVolume_E,
self.expSegStartLimit_L, self.expSegStartLimit_E,
self.expSegEndLimit_L, self.expSegEndLimit_E,
self.expSegCoefficent_L, self.expSegCoefficent_E,
self.expSegExponent_L, self.expSegExponent_E
],
Model.POW : [
self.powCoefficient_L, self.powCoefficient_E,
self.powExponent_L, self.powExponent_E,
self.powProximalLimit_L, self.powProximalLimit_E,
self.powDistalLimit_L, self.powDistalLimit_E,
self.powSuggestedProximalLimit_L, self.powSuggestedProximalLimit_E
],
Model.WEI : [
self.weiLambdaL, self.weiLambdaE,
self.weiKL, self.weiKE,
self.weiThetaL, self.weiThetaE,
],
}
def getParameters(self, model):
if model == Model.EXP:
return {
"c" : helper_functions.validateValue(self.expSegCoefficent_E.get(), "Coefficient, c, must be a number", "float"),
"m" : helper_functions.validateValue(self.expSegExponent_E.get(), "Exponent, m, must be a number", "float"),
"segStart" : helper_functions.validateValue(self.expSegStartLimit_E.get(), "'Start of segment' must be a number > 0", "float", lowerBound=0),
"segEnd" : helper_functions.validateValue(self.expSegEndLimit_E.get(), "'End of segment' must be a number greater than the 'Start of segment'","float", strictLowerBound=float(self.expSegStartLimit_E.get())),
}
elif model == Model.POW:
return {
"c" : helper_functions.validateValue(self.powCoefficient_E.get(), "coefficient, c, must be a number", "float"),
"m" : helper_functions.validateValue(self.powExponent_E.get(), "exponent, m, must be a number", "float")
}
elif model == Model.WEI:
return {
"lambda" : helper_functions.validateValue(self.weiLambdaE.get(), "\u03BB must be a positive number", "float", strictLowerBound=0),
"k" : helper_functions.validateValue(self.weiKE.get(), "k must be a positive number", "float", strictLowerBound=0),
"theta" : helper_functions.validateValue(self.weiThetaE.get(), "\u03B8 must be a positive number", "float", strictLowerBound=0)
}