class SystemProperties:
"""Gets the flow and contaminant properties."""
def __init__(self, master, system):
"""Constructor method. Defines the parameters to be obtained in this
window."""
self.master = master
self.system = system
self.fonttype = system.fonttype
self.version = system.version
self.superfont = get_superfont(self.fonttype) #superscript font
self.tframe = Frame(master.tframe)
self.frame = Frame(master.frame)
self.bframe = Frame(master.bframe)
self.advs = ['None', 'Steady flow', 'Period oscillation']
self.bios = ['None', 'Uniform', 'Depth-dependent']
self.cons = ['None', 'Consolidation']
self.adv = StringVar(value=self.advs[0]) #tidal flag
self.bio = StringVar(value=self.bios[0]) #bioturbation flag
self.con = StringVar(value=self.cons[0]) #consolidation flag
self.hbio = DoubleVar(value=10.) #bioturbation depth
self.sigma = DoubleVar(value=10.) #bioturbation depth
self.Dbiop = DoubleVar(value=1.) #particle bioturbation coeff
self.Dbiopw = DoubleVar(value=100.) #pore water bioturbation coeff
self.Vdar = DoubleVar(value=0.) #Darcy velocity
self.Vtidal = DoubleVar(value=0.) #Tidal velocity
self.ptidal = DoubleVar(value=0.0014) #Tidal frequency
self.hcon = DoubleVar(value=0) #total consolidation
self.t90 = DoubleVar(value=1.) #time to 90% consolidation
self.top = None #flag for existence of toplevel
if system.layers[0].number == 0: self.toplayer_h = system.layers[1].h
else: self.toplayer_h = system.layers[0].h
self.lengthunit = system.lengthunit
self.timeunit = system.timeunit
self.diffunit = system.diffunit
self.diffunits = system.diffunits
try:
self.adv.set(system.adv)
self.bio.set(system.bio)
self.con.set(system.con)
self.Vdar.set(system.Vdar)
self.hbio.set(system.hbio)
self.sigma.set(system.sigma)
self.Dbiop.set(system.Dbiop)
self.Dbiopw.set(system.Dbiopw)
self.Vtidal.set(system.Vtidal)
self.ptidal.set(system.ptidal)
self.hcon.set(system.hcon)
self.t90.set(system.t90)
except:
pass
def make_widgets(self):
"""Make the widgets for the window."""
self.bgcolor = self.frame.cget('bg')
self.instructions = Label(
self.frame,
text=
' Please provide the information of the following system properties: '
)
self.blank1 = Label(self.frame, width=30)
self.blank2 = Label(self.frame, width=20)
self.blank3 = Label(self.frame, width=15)
self.blank4 = Label(self.frame, width=20)
self.headings1 = Label(self.frame, text='Parameter')
self.headings2 = Label(self.frame, text='Value')
self.headings3 = Label(self.frame, text='Units')
self.advlabel = Label(self.frame, text='Upwelling groundwater flow')
self.advwidget = OptionMenu(self.frame,
self.adv,
*self.advs,
command=self.updatesystem)
self.Vdarlabel = Label(self.frame, text='Darcy velocity:')
self.Vtidallabel = Label(self.frame,
text='Oscillation maximum velocity:')
self.ptidallabel = Label(self.frame, text='Oscillation period:')
self.Vdarwidget = Entry(self.frame,
width=10,
textvariable=self.Vdar,
justify='center')
self.Vtidalwidget = Entry(self.frame,
width=10,
textvariable=self.Vtidal,
justify='center')
self.ptidalwidget = Entry(self.frame,
width=10,
textvariable=self.ptidal,
justify='center')
self.Vdarunits = Label(self.frame,
text=self.lengthunit + '/' + self.timeunit)
self.Vtidalunits = Label(self.frame,
text=self.lengthunit + '/' + self.timeunit)
self.ptidalunits = Label(self.frame, text=self.timeunit)
self.biolabel = Label(self.frame, text='Modeling bioturbation')
self.biowidget = OptionMenu(self.frame,
self.bio,
*self.bios,
command=self.updatesystem)
self.hbiolabel = Label(self.frame, text='Bioturbation depth:')
self.sigmalabel = Label(self.frame, text='Gaussian model coefficient:')
self.Dbioplabel = Label(self.frame,
text='Particle biodiffusion coefficient:')
self.Dbiopwlabel = Label(self.frame,
text='Pore water biodiffusion coefficient:')
self.hbiowidget = Entry(self.frame,
width=10,
textvariable=self.hbio,
justify='center')
self.sigmawidget = Entry(self.frame,
width=10,
textvariable=self.sigma,
justify='center')
self.Dbiopwidget = Entry(self.frame,
width=10,
textvariable=self.Dbiop,
justify='center')
self.Dbiopwwidget = Entry(self.frame,
width=10,
textvariable=self.Dbiopw,
justify='center')
self.hbiounits = Label(self.frame, text=self.lengthunit)
self.Dbiopunits = Label(self.frame, text=self.diffunits[1])
self.Dbiopwunits = Label(self.frame, text=self.diffunits[1])
self.conlabel = Label(self.frame, text='Modeling consolidation')
self.conwidget = OptionMenu(self.frame,
self.con,
*self.cons,
command=self.updatesystem)
self.hconlabel = Label(self.frame, text='Maximum consolidation depth:')
self.t90label = Label(self.frame, text='Time to 90% consolidation:')
self.hconwidget = Entry(self.frame,
width=10,
textvariable=self.hcon,
justify='center')
self.t90widget = Entry(self.frame,
width=10,
textvariable=self.t90,
justify='center')
self.hconunits = Label(self.frame, text=self.lengthunit)
self.t90units = Label(self.frame, text=self.timeunit)
self.advwidget.config(width=20)
self.biowidget.config(width=20)
self.conwidget.config(width=20)
#self.okbutton = Button(self.frame, text = 'OK', command = self.OK, width = 20)
#show the widgets on the grid
self.instructions.grid(row=0,
column=0,
columnspan=3,
padx=6,
sticky='W')
self.blank1.grid(row=1, column=0)
self.blank2.grid(row=1, column=1)
self.blank3.grid(row=1, column=2)
self.row = 3
self.focusbutton = None
self.updatesystem()
def updatesystem(self, event=None):
try:
self.advlabel.grid_forget()
self.advwidget.grid_forget()
self.Vdarlabel.grid_forget()
self.Vdarwidget.grid_forget()
self.Vdarunits.grid_forget()
self.Vtidallabel.grid_forget()
self.Vtidalwidget.grid_forget()
self.Vtidalunits.grid_forget()
self.ptidallabel.grid_forget()
self.ptidalwidget.grid_forget()
self.ptidalunits.grid_forget()
self.biolabel.grid_forget()
self.biowidget.grid_forget()
self.sigmalabel.grid_forget()
self.sigmawidget.grid_forget()
self.hbiolabel.grid_forget()
self.hbiowidget.grid_forget()
self.hbiounits.grid_forget()
self.Dbioplabel.grid_forget()
self.Dbiopwidget.grid_forget()
self.Dbiopunits.grid_forget()
self.Dbiopwlabel.grid_forget()
self.Dbiopwwidget.grid_forget()
self.Dbiopwunits.grid_forget()
self.conlabel.grid_forget()
self.conwidget.grid_forget()
self.hconlabel.grid_forget()
self.hconwidget.grid_forget()
self.hconunits.grid_forget()
self.t90label.grid_forget()
self.t90widget.grid_forget()
self.t90units.grid_forget()
except:
pass
row = self.row
self.advlabel.grid(row=row, column=0, sticky='E', padx=4)
self.advwidget.grid(row=row,
column=1,
sticky='W',
padx=4,
columnspan=2)
row = row + 1
if self.adv.get() == self.advs[1] or self.adv.get() == self.advs[2]:
self.Vdarlabel.grid(row=row, column=0, sticky='E', padx=4)
self.Vdarwidget.grid(row=row, column=1, pady=1)
self.Vdarunits.grid(row=row, column=2, sticky='W', padx=4)
row = row + 1
if self.adv.get() == self.advs[2]:
self.Vtidallabel.grid(row=row, column=0, sticky='E', padx=4)
self.Vtidalwidget.grid(row=row, column=1, pady=1)
self.Vtidalunits.grid(row=row, column=2, sticky='W', padx=4)
row = row + 1
self.ptidallabel.grid(row=row, column=0, sticky='E', padx=4)
self.ptidalwidget.grid(row=row, column=1, pady=1)
self.ptidalunits.grid(row=row, column=2, sticky='W', padx=4)
row = row + 1
self.biolabel.grid(row=row, column=0, sticky='E', padx=4)
self.biowidget.grid(row=row,
column=1,
sticky='W',
padx=4,
columnspan=2)
row = row + 1
if self.bio.get() == self.bios[1]:
self.hbiolabel.grid(row=row, column=0, sticky='E', padx=4)
self.hbiowidget.grid(row=row, column=1, pady=1)
self.hbiounits.grid(row=row, column=2, sticky='W', padx=4)
row = row + 1
if self.bio.get() == self.bios[2]:
self.sigmalabel.grid(row=row, column=0, sticky='E', padx=4)
self.sigmawidget.grid(row=row, column=1, pady=1)
self.hbiounits.grid(row=row, column=2, sticky='W', padx=4)
row = row + 1
if self.bio.get() == self.bios[1] or self.bio.get() == self.bios[2]:
self.Dbioplabel.grid(row=row, column=0, sticky='E', padx=4)
self.Dbiopwidget.grid(row=row, column=1, pady=1)
self.Dbiopunits.grid(row=row, column=2, sticky='W', padx=4)
row = row + 1
self.Dbiopwlabel.grid(row=row, column=0, sticky='E', padx=4)
self.Dbiopwwidget.grid(row=row, column=1, pady=1)
self.Dbiopwunits.grid(row=row, column=2, sticky='W', padx=4)
row = row + 1
self.conlabel.grid(row=row, column=0, sticky='E', padx=4)
self.conwidget.grid(row=row,
column=1,
sticky='W',
padx=4,
columnspan=2)
row = row + 1
if self.con.get() == self.cons[1]:
self.hconlabel.grid(row=row, column=0, sticky='E', padx=4)
self.hconwidget.grid(row=row, column=1, pady=1)
self.hconunits.grid(row=row, column=2, sticky='W', padx=4)
row = row + 1
self.t90label.grid(row=row, column=0, sticky='E', padx=4)
self.t90widget.grid(row=row, column=1, pady=1)
self.t90units.grid(row=row, column=2, sticky='W', padx=4)
row = row + 1
self.blank4.grid(row=row)
row = row + 1
self.focusbutton = None
self.master.geometry()
def error_check(self, event=None):
"""Finish and move on. Checks that the number chemicals are less than the
total number of chemicals in database."""
error = 0
#if self.bio.get() == self.bios[1] and self.hbio.get() > self.toplayer_h: error = 1
return error
def warning(self):
tkmb.showerror(
title=self.version,
message='The bioturbation ' +
'depth (%.1f cm) ' % self.hbio.get() + 'cannot exceed the ' +
'thickness of the top layer (%.1f). ' % self.toplayer_h +
'Automatically increasing ' +
'the thickness of the top layer to the bioturbation ' + 'depth.')
self.hbio.set(self.toplayer_h)
self.focusbutton = None
self.master.tk.lift()
class CoefficientEditor:
"""Gets the chemical reaction information for each layer."""
def __init__(self, master, system, coefficient, coefficients, editflag):
"""Constructor method. Makes the GUI using the list of "Layer" objects
"layers." """
# Read the Tkinter information
self.master = master
self.version = system.version
self.fonttype = system.fonttype
self.formulatype = system.formulatype
self.superfont = get_superfont(self.fonttype)
self.subfont = get_superfont(self.formulatype)
self.tframe = Frame(master.tframe)
self.frame = Frame(master.frame)
self.bframe = Frame(master.bframe)
self.bgcolor = self.frame.cget('bg')
self.top = None
self.concunit = system.concunit
self.timeunit = system.timeunit
self.concunits = system.concunits
# Convert mass concentration units to corresponding molar concentration units
if self.concunit == system.concunits[0]:
self.concunit = system.concunits[3]
if self.concunit == system.concunits[1]:
self.concunit = system.concunits[4]
if self.concunit == system.concunits[2]:
self.concunit = system.concunits[5]
# Read the system information
self.coefficient = coefficient
self.coefficients = coefficients
self.layers = system.layers
self.editflag = editflag
if self.editflag == 0:
self.layer_full_list = []
self.reaction_full_list = []
for layer in system.layers:
self.layer_full_list.append(layer.name)
for reaction in system.reactions:
self.reaction_full_list.append(reaction.name)
self.layer_list = []
self.reaction_list = []
for layer in system.layers:
coef_check = 0
for reaction in system.reactions:
if coefficients[layer.name][reaction.name].lam == 0:
coef_check = 1
if coef_check == 1:
self.layer_list.append(layer.name)
self.reaction_list.append([])
for reaction in system.reactions:
if coefficients[layer.name][reaction.name].lam == 0:
self.reaction_list[-1].append(reaction.name)
self.layer = StringVar(value=self.layer_list[0])
self.reaction = StringVar(value=self.reaction_list[0][0])
self.equation = StringVar(value='')
else:
self.layer = coefficient.layer.name
self.reaction = coefficient.reaction.name
self.equation = coefficient.reaction.equation
self.reactants = coefficient.reaction.reactants
self.lam = DoubleVar(value=coefficient.lam)
self.cancelflag = 0
def make_widgets(self):
self.instructions = Label(
self.frame,
text=
'Please input the following information for the added kinetic process: '
)
self.blankcolumn = Label(self.frame, text=' ', width=2)
self.layercolumn = Label(self.frame, text=' ', width=15)
self.namecolumn = Label(self.frame, text=' ', width=15)
self.equationcolumn = Label(self.frame, text=' ', width=20)
self.ratecolumn = Label(self.frame, text=' ', width=10)
self.coef1column = Label(self.frame, text=' ', width=10)
self.unit1column = Label(self.frame, text=' ', width=3)
self.endcolumn = Label(self.frame, text=' ', width=2)
self.layerlabel = Label(self.frame, text='Layer')
self.namelabel = Label(self.frame, text='Reaction')
self.equationlabel = Label(self.frame, text='Chemical equation')
self.ratelabel = Label(self.frame, text='Rate equation')
self.lamcoeflabel = Label(self.frame, text='Coefficient ' + u'\u03BB')
self.blank1 = Label(self.frame, text=' ')
self.instructions.grid(row=0,
column=0,
padx=8,
sticky='W',
columnspan=11)
self.blankcolumn.grid(row=1, column=0, padx=2, sticky='WE')
self.layercolumn.grid(row=1, column=1, padx=2, sticky='WE')
self.namecolumn.grid(row=1, column=2, padx=2, sticky='WE')
self.equationcolumn.grid(row=1, column=3, padx=2, sticky='WE')
self.ratecolumn.grid(row=1, column=4, padx=2, sticky='WE')
self.coef1column.grid(row=1, column=5, padx=2, sticky='WE')
self.unit1column.grid(row=1, column=6, padx=2, sticky='WE')
self.endcolumn.grid(row=1, column=7, padx=2, sticky='WE')
self.layerlabel.grid(row=2, column=1, padx=2, sticky='WE')
self.namelabel.grid(row=2, column=2, padx=2, sticky='WE')
self.equationlabel.grid(row=2, column=3, padx=2, sticky='WE')
self.ratelabel.grid(row=2, column=4, padx=2, sticky='WE')
self.blank1.grid(row=3, column=0, padx=2, sticky='WE', columnspan=11)
if self.editflag == 1:
self.layerwidget = Label(self.frame, text=self.layer)
self.namewidget = Label(self.frame, text=self.reaction)
self.equationwidget = Label(self.frame,
text=self.equation,
font=self.formulatype)
self.layerwidget.grid(row=4, column=1, padx=2)
self.namewidget.grid(row=4, column=2, padx=2)
self.equationwidget.grid(row=4, column=3, padx=10)
if self.coefficient.reaction.model == 'User-defined' or self.coefficient.reaction.model == 'Fundamental':
unitindex = 0
tkfont = tkFont.Font(font=self.formulatype)
tksubfont = tkFont.Font(font=self.subfont)
tksuperfont = tkFont.Font(font=self.superfont)
# Measure the width of rate and lambda expression
rate_len = tkfont.measure(u'r = \u03BB')
rate_len = rate_len + tksubfont.measure(
str(self.coefficient.reaction.number) + ',')
if self.coefficient.layer.number == 0:
rate_len = rate_len + tksubfont.measure('D')
else:
rate_len = rate_len + tksubfont.measure(
str(self.coefficient.layer.number))
for reactant in self.coefficient.reaction.reactants:
if reactant.index <> 0:
rate_len = rate_len + tkfont.measure('C')
rate_len = rate_len + tksubfont.measure(
reactant.formula)
if reactant.index == int(reactant.index):
index = int(reactant.index)
else:
index = reactant.index
if index <> 1.:
rate_len = rate_len + tksuperfont.measure(
str(index) + ' ')
unitindex = unitindex + reactant.index
print(unitindex)
lam_len = tkfont.measure('')
if unitindex == int(unitindex): unitindex = int(unitindex)
print(unitindex)
if (unitindex - 1) != 0:
if (unitindex - 1) != -1:
lam_len = lam_len + tkfont.measure('(' +
self.concunit + ')')
lam_len = lam_len + tksuperfont.measure(
str(-(unitindex - 1)))
else:
lam_len = lam_len + tkfont.measure(self.concunit + ' ')
lam_len = lam_len + tkfont.measure(self.timeunit)
lam_len = lam_len + tksuperfont.measure('-1')
self.ratewidget = Text(self.frame,
width=int(rate_len * 1.1424219345 / 8) +
1,
height=1,
font=self.formulatype)
self.ratewidget.insert('end', u'r')
self.ratewidget.insert('end', ' = ')
self.ratewidget.insert('end', u'\u03BB')
self.ratewidget.insert(
'end',
str(self.coefficient.reaction.number) + ',', 'sub')
if self.coefficient.layer.number == 0:
self.ratewidget.insert('end', 'D', 'sub')
else:
self.ratewidget.insert('end',
str(self.coefficient.layer.number),
'sub')
for reactant in self.coefficient.reaction.reactants:
if reactant.index <> 0:
self.ratewidget.insert('end', 'C')
self.ratewidget.insert('end', reactant.formula, 'sub')
if reactant.index == int(reactant.index):
index = int(reactant.index)
else:
index = reactant.index
if index <> 1.:
self.ratewidget.insert('end',
str(index) + ' ', 'super')
self.ratewidget.tag_config('sub', offset=-4, font=self.subfont)
self.ratewidget.tag_config('super',
offset=5,
font=self.superfont)
self.ratewidget.tag_config('right', justify='right')
self.ratewidget.config(state='disabled',
background=self.bgcolor,
borderwidth=0,
spacing3=3)
self.lamcoefwidget = Entry(self.frame,
textvariable=self.lam,
justify='center',
width=8)
self.lamunitlabel = Text(
self.frame,
width=int(lam_len * 1.1424219345 / 8) + 1,
height=1,
font=self.formulatype)
if (unitindex - 1) != 0:
if (unitindex - 1) != -1:
self.lamunitlabel.insert('end',
'(' + self.concunit + ')')
self.lamunitlabel.insert('end', str(-(unitindex - 1)),
'super')
else:
self.lamunitlabel.insert('end', self.concunit + ' ')
self.lamunitlabel.insert('end', self.timeunit)
self.lamunitlabel.insert('end', '-1', 'super')
self.lamunitlabel.tag_config('sub',
offset=-4,
font=self.subfont)
self.lamunitlabel.tag_config('super',
offset=5,
font=self.superfont)
self.lamunitlabel.tag_config('right', justify='right')
self.lamunitlabel.config(state='disabled',
background=self.bgcolor,
borderwidth=0,
spacing3=3)
self.lamcoeflabel.grid(row=2,
column=5,
padx=2,
sticky='WE',
columnspan=4)
self.ratewidget.grid(row=4, column=4, padx=5)
self.lamcoefwidget.grid(row=4, column=5, padx=2, sticky='E')
self.lamunitlabel.grid(row=4, column=6, padx=2, sticky='W')
else:
self.layerwidget = OptionMenu(self.frame,
self.layer,
*self.layer_list,
command=self.click_layer)
self.layerwidget.grid(row=4, column=1, padx=2, sticky='WE')
self.click_layer()
self.okbutton = Button(self.frame,
text='OK',
width=20,
command=self.OK)
self.cancelbutton = Button(self.frame,
text='Cancel',
width=20,
command=self.Cancel)
self.blank2 = Label(self.frame, text=' ')
self.blank3 = Label(self.frame, text=' ')
self.blank4 = Label(self.frame, text=' ')
self.focusbutton = None
self.blank3.grid(row=5)
self.okbutton.grid(row=6, columnspan=11)
self.cancelbutton.grid(row=7, columnspan=11)
self.blank4.grid(row=8)
self.okbutton.bind('<Return>', self.OK)
self.focusbutton = self.okbutton
def click_layer(self, event=None):
try:
self.namewidget.grid_forget()
except:
pass
self.reaction.set(self.reaction_list[self.layer_list.index(
self.layer.get())][0])
self.namewidget = OptionMenu(self.frame,
self.reaction,
*self.reaction_list[self.layer_list.index(
self.layer.get())],
command=self.click_reaction)
self.namewidget.grid(row=4, column=2, padx=2, sticky='WE')
self.click_reaction()
def click_reaction(self, event=None):
try:
self.equationwidget.grid_forget()
self.ratewidget.grid_forget()
except:
pass
try:
self.lamcoeflabel.grid_forget()
self.lamcoefwidget.grid_forget()
self.lamunitlabel.grid_forget()
except:
pass
coefficient = self.coefficients[self.layer.get()][self.reaction.get()]
self.lam.set(coefficient.lam)
self.equation = coefficient.reaction.equation
self.equationwidget = Label(self.frame,
text=self.equation,
font=self.formulatype)
self.equationwidget.grid(row=4, column=3, padx=5)
if coefficient.reaction.model == 'User-defined' or coefficient.reaction.model == 'Fundamental':
unitindex = 0
tkfont = tkFont.Font(font=self.formulatype)
tksubfont = tkFont.Font(font=self.subfont)
tksuperfont = tkFont.Font(font=self.superfont)
# Measure the width of rate and lambda expression
rate_len = tkfont.measure(u'r = \u03BB')
rate_len = rate_len + tksubfont.measure(
str(coefficient.reaction.number) + ',')
if coefficient.layer.number == 0:
rate_len = rate_len + tksubfont.measure('D')
else:
rate_len = rate_len + tksubfont.measure(
str(coefficient.layer.number))
for reactant in coefficient.reaction.reactants:
if reactant.index <> 0:
rate_len = rate_len + tkfont.measure('C')
rate_len = rate_len + tksubfont.measure(reactant.formula)
if reactant.index == int(reactant.index):
index = int(reactant.index)
else:
index = reactant.index
if index <> 1.:
rate_len = rate_len + tksuperfont.measure(
str(index) + ' ')
unitindex = unitindex + reactant.index
lam_len = tkfont.measure('')
if unitindex == int(unitindex): unitindex = int(unitindex)
if (unitindex - 1) != 0:
if (unitindex - 1) != 1:
lam_len = lam_len + tkfont.measure('(' + self.concunit +
')')
lam_len = lam_len + tksuperfont.measure(
str(-(unitindex - 1)))
else:
lam_len = lam_len + tkfont.measure(self.concunit)
lam_len = lam_len + tkfont.measure(self.timeunit)
lam_len = lam_len + tksuperfont.measure('-1')
self.ratewidget = Text(self.frame,
width=int(rate_len * 1.1424219345 / 8) + 1,
height=1,
font=self.formulatype)
self.ratewidget.insert('end', u'r = \u03BB')
self.ratewidget.insert('end',
str(coefficient.reaction.number) + ',',
'sub')
if coefficient.layer.number == 0:
self.ratewidget.insert('end', 'D', 'sub')
else:
self.ratewidget.insert('end', str(coefficient.layer.number),
'sub')
for reactant in coefficient.reaction.reactants:
if reactant.index <> 0:
self.ratewidget.insert('end', 'C')
self.ratewidget.insert('end', reactant.formula, 'sub')
if reactant.index == int(reactant.index):
index = int(reactant.index)
else:
index = reactant.index
if index <> 1.:
self.ratewidget.insert('end',
str(index) + ' ', 'super')
self.ratewidget.tag_config('sub', offset=-4, font=self.subfont)
self.ratewidget.tag_config('super', offset=5, font=self.superfont)
self.ratewidget.tag_config('right', justify='right')
self.ratewidget.config(state='disabled',
background=self.bgcolor,
borderwidth=0,
spacing3=3)
self.lamcoefwidget = Entry(self.frame,
textvariable=self.lam,
justify='center',
width=8)
self.lamunitlabel = Text(self.frame,
width=int(lam_len * 1.1424219345 / 8) + 1,
height=1,
font=self.formulatype)
if unitindex == int(unitindex): unitindex = int(unitindex)
if (unitindex - 1) != 0:
if (unitindex - 1) != 1:
self.lamunitlabel.insert('end', '(' + self.concunit + ')')
self.lamunitlabel.insert('end', str(-(unitindex - 1)),
'super')
else:
self.lamunitlabel.insert('end', self.concunit)
self.lamunitlabel.insert('end', self.timeunit)
self.lamunitlabel.insert('end', '-1', 'super')
self.lamunitlabel.tag_config('sub', offset=-4, font=self.subfont)
self.lamunitlabel.tag_config('super',
offset=5,
font=self.superfont)
self.lamunitlabel.tag_config('right', justify='right')
self.lamunitlabel.config(state='disabled',
background=self.bgcolor,
borderwidth=0,
spacing3=3)
self.lamcoeflabel.grid(row=2,
column=5,
padx=2,
sticky='WE',
columnspan=4)
self.ratewidget.grid(row=4, column=4, padx=5)
self.lamcoefwidget.grid(row=4, column=5, padx=2, sticky='E')
self.lamunitlabel.grid(row=4, column=6, padx=2, sticky='W')
self.frame.update()
self.focusbutton = None
self.master.geometry()
self.master.center()
def OK(self, event=None):
"""Finish and move on. Checks that the number chemicals are less than the
total number of chemicals in database."""
if self.editflag == 0:
self.layerindex = self.layer_full_list.index(self.layer.get())
self.reactionnumber = self.reaction_full_list.index(
self.reaction.get()) + 1
if self.master.window.top is not None: self.master.open_toplevel()
elif self.lam == 0: self.coefficient_error()
else: self.master.tk.quit()
def coefficient_error(self):
tkmb.showerror(
title=self.version,
message='At least one chemical has been replicated in the reaction!'
)
self.focusbutton = self.okbutton
self.master.tk.lift()
def Cancel(self):
try:
self.reactants = self.reaction.reactants
self.products = self.reaction.products
except:
self.cancelflag = 1
if self.master.window.top is not None: self.master.open_toplevel()
else: self.master.tk.quit()
class SolverEditor:
"""Makes a window for the user to specify output options."""
def __init__(self, master, system, ptype, ptotal, tvariable, delt, delz,
players):
"""Constructor method."""
self.master = master
self.tframe = Frame(master.tframe)
self.frame = Frame(master.frame)
self.bframe = Frame(master.bframe)
self.fonttype = system.fonttype
self.version = system.version
self.top = None
self.adv = system.adv
self.bio = system.bio
self.Dbiop = system.Dbiop * self.diff_factor / 86400 / 365
self.Dbiopw = system.Dbiopw * self.diff_factor / 86400 / 365
self.diffunit = system.diffunit
self.timeunit = system.timeunit
self.lengthunit = system.lengthunit
self.components = [component.copy() for component in system.components]
self.chemicals = [chemical.copy() for chemical in system.chemicals]
self.matrices = [matrix.copy() for matrix in system.matrices]
self.layers = [layer.copy() for layer in system.layers]
self.nlayers = system.nlayers
self.nchemicals = system.nchemicals
self.sorptions = {}
for component in self.components:
self.sorptions[component.name] = {}
for chemical in self.chemicals:
self.sorptions[component.name][
chemical.name] = system.sorptions[component.name][
chemical.name].copy()
self.BCs = {}
self.ICs = {}
for chemical in self.chemicals:
self.BCs[chemical.name] = system.BCs[chemical.name].copy()
for layer in self.layers:
self.ICs[layer.name] = {}
for chemical in self.chemicals:
self.ICs[layer.name][chemical.name] = system.ICs[layer.name][
chemical.name].copy()
if system.con == 'Consolidation':
self.kcon = 2.3026 / system.t90
self.Vcon0 = self.kcon * system.hcon
self.U = system.Vdar + consolidation(0, self.Vcon0, self.kcon)
else:
self.U = system.Vdar
if system.adv == 'Tidal oscillation': self.U = self.U + system.Vtidal
self.non_linear_check = 0
for component in system.component_list:
for chemical in system.chemicals:
self.non_linear_check = self.non_linear_check + (
system.sorptions[component][chemical.name].isotherm
== 'Freundlich')
self.non_linear_check = self.non_linear_check + (
system.sorptions[component][chemical.name].isotherm
== 'Langmuir')
if system.reactions is not None:
for reaction in system.reactions:
if sum([reactant.index
for reactant in reaction.reactants]) > 1:
self.non_linear_check = self.non_linear_check + 1
self.length_unit_converter = 1.
self.time_unit_converter = 1.
self.diff_unit_converter = 1.
if self.lengthunit == 'm':
self.length_unit_converter = self.length_unit_converter / (0.01)**2
elif self.lengthunit == u'\u03BCm':
self.length_unit_converter = self.length_unit_converter / (
10000)**2
elif self.timeunit == 's':
self.time_unit_converter = self.time_unit_converter * 365.25 * 24 * 3600
if self.timeunit == 'min':
self.time_unit_converter = self.time_unit_converter * 365.25 * 24 * 60
elif self.timeunit == 'hr':
self.time_unit_converter = self.time_unit_converter * 365.25 * 24
elif self.timeunit == 'day':
self.time_unit_converter = self.time_unit_converter * 365.25
if self.diffunit == u'cm\u00B2/s':
self.diff_unit_converter = self.diff_unit_converter * 86400 * 365.25
self.ptypes = ['Uniform size', 'Uniform Number', 'User-defined']
self.tvariables = ['slowest layer', 'geometric mean', 'User-defined']
self.ptype = StringVar(value=ptype)
self.tvariable = StringVar(value=tvariable)
self.ptotal = IntVar(value=ptotal) #minimum grid points
self.delt = DoubleVar(value=delt) #minimumu time steps
self.htot = sum([layer.h for layer in self.layers])
self.D = []
self.R = []
self.players = [player for player in players]
self.delz = [dz for dz in delz]
self.Cmax = {}
for chemical in self.chemicals:
self.Cmax[chemical.name] = max(
max([
self.ICs[ilayer.name][chemical.name].uniform
for ilayer in self.layers
]),
max([
self.ICs[ilayer.name][chemical.name].top
for ilayer in self.layers
]),
max([
self.ICs[ilayer.name][chemical.name].bot
for ilayer in self.layers
]), self.BCs[chemical.name].Co, self.BCs[chemical.name].Cw,
self.BCs[chemical.name].Cb)
for i in range(system.nlayers):
self.D.append([])
matrix = self.matrices[self.layers[i].type_index]
for n in range(system.nchemicals):
self.D[i].append(self.layers[i].get_D(
self.chemicals[n].Dw * self.diff_unit_converter, self.U,
matrix.e))
if self.layers[i].number < 2 and system.bio == 1:
self.D[i][n] = self.D[i][n] + system.Dbiopw
for component in matrix.components:
self.D[i][n] = self.D[i][
n] + system.Dbiop * component.fraction * component.rho * self.sorptions[
component.name][chemical.name].get_K(
component, self.Cmax[chemical.name],
self.Cmax[chemical.name])
for i in range(system.nlayers):
self.R.append([])
matrix = self.matrices[self.layers[i].type_index]
for n in range(self.nchemicals):
chemical = self.chemicals[n]
Kd_rho = 0
for component in matrix.components:
Kd_rho = Kd_rho + component.fraction * component.rho * self.sorptions[
component.name][chemical.name].get_K(
component, self.Cmax[chemical.name],
self.Cmax[chemical.name])
self.R[i].append(
(matrix.e * (1 + layer.doc /
(10**6) * 10**(chemical.Kdoc)) + Kd_rho) /
(1 + layer.doc / (10**6) * 10**(chemical.Kdoc)))
self.cancelflag = 0
if self.layers[0].number == 0:
self.deplayersolveroptions = [
LayerSolverOption(
self.layers[0], self.players[0], self.D[0], self.U *
self.length_unit_converter * self.time_unit_converter,
self.R[0], self.length_unit_converter, self.timeunit)
]
self.dep = 1
else:
self.dep = 0
self.deplayersolveroptions = []
self.layersolveroptions = []
for i in range(self.dep, self.nlayers):
layer = self.layers[i]
self.layersolveroptions.append(
LayerSolverOption(
layer, self.players[i], self.D[i], self.U *
self.length_unit_converter * self.time_unit_converter,
self.R[i], self.length_unit_converter))
def make_widgets(self):
"""Make the widgets."""
self.instructions = Label(
self.tframe,
text=
'Please specify the grid and time step options for the system: ')
self.blank1 = Label(self.tframe, text=' ')
self.blank2 = Label(self.bframe, text=' ')
self.blank3 = Label(self.bframe, text=' ')
self.blank4 = Label(self.bframe, text=' ')
self.blank5 = Label(self.bframe, text=' ')
self.blank6 = Label(self.bframe, text=' ')
self.blank7 = Label(self.bframe, text=' ')
self.leftcolumn = Label(self.tframe,
text='',
font='courier 10',
width=5)
self.layercolumn = Label(self.tframe,
text='',
font='courier 10',
width=10)
self.thickcolumn = Label(self.tframe,
text='',
font='courier 10',
width=10)
self.gridnumbercolumn = Label(self.tframe,
text='',
font='courier 10',
width=12)
self.gridsizecolumn = Label(self.tframe,
text='',
font='courier 10',
width=10)
self.penumbercolumn = Label(self.tframe,
text='',
font='courier 10',
width=15)
self.timestepcolumn = Label(self.tframe,
text='',
font='courier 10',
width=15)
self.endcolumn = Label(self.tframe,
text='',
font='courier 10',
width=2)
self.ptypelabel = Label(self.tframe, text='Grid option:', width=15)
self.ptypewidget = OptionMenu(self.tframe,
self.ptype,
*self.ptypes,
command=self.updatesolvereditor)
self.ptypewidget.config(width=15)
self.ptotallabel = Label(self.tframe,
text='Total number of grids:',
width=15)
self.ptotalwidget = Label(self.tframe,
textvariable=self.ptotal,
width=10,
justify='center')
self.ptotalentry = Entry(self.tframe,
textvariable=self.ptotal,
width=10,
justify='center')
self.tvariablelabel = Label(self.tframe,
text='Time step option:',
width=15)
self.tvariablewidget = OptionMenu(self.tframe,
self.tvariable,
*self.tvariables,
command=self.updatesolvereditor)
self.tvariablewidget.config(width=15)
self.tsteplabel = Label(self.tframe,
text='Time step size (' + self.timeunit + '):',
width=15)
self.tstepwidget = Label(self.tframe,
textvariable=self.delt,
width=10,
justify='center')
self.tstepentry = Entry(self.tframe,
textvariable=self.delt,
width=10,
justify='center')
self.layerlabel = Label(self.tframe, text='Layer')
self.thicklabel = Label(self.tframe, text='Thickness')
self.gridnumberlabel = Label(self.tframe, text='Number of grids')
self.gridsizelabel = Label(self.tframe, text='Grid size')
self.gridPelabel = Label(self.tframe, text='Max Peclet number')
self.timesteplabel = Label(self.tframe, text='CFL Time Step')
self.thickunit = Label(self.tframe, text=self.lengthunit)
self.gridsizeunit = Label(self.tframe, text=self.lengthunit)
self.timestepunit = Label(self.tframe, text=self.timeunit)
self.botleftcolumn = Label(self.frame,
text='',
font='courier 10',
width=5)
self.botlayercolumn = Label(self.frame,
text='',
font='courier 10',
width=10)
self.botthickcolumn = Label(self.frame,
text='',
font='courier 10',
width=10)
self.botgridnumbercolumn = Label(self.frame,
text='',
font='courier 10',
width=12)
self.botgridsizecolumn = Label(self.frame,
text='',
font='courier 10',
width=10)
self.botpenumbercolumn = Label(self.frame,
text='',
font='courier 10',
width=15)
self.bottimestepcolumn = Label(self.frame,
text='',
font='courier 10',
width=15)
self.botendcolumn = Label(self.frame,
text='',
font='courier 10',
width=2)
self.updatebutton = Button(self.bframe,
text='Update',
width=20,
command=self.updatesolvereditor)
self.okbutton = Button(self.bframe,
text='OK',
width=20,
command=self.OK)
self.cancelbutton = Button(self.bframe,
text='Cancel',
width=20,
command=self.Cancel)
#show the widgets that don't change on the grid
row = 0
self.instructions.grid(row=row,
column=0,
sticky='W',
padx=8,
columnspan=7)
row = 1
self.leftcolumn.grid(row=row, column=0, sticky='WE', padx=2)
self.layercolumn.grid(row=row, column=1, sticky='WE', padx=2)
self.thickcolumn.grid(row=row, column=2, sticky='WE', padx=2)
self.gridnumbercolumn.grid(row=row, column=3, sticky='WE', padx=2)
self.gridsizecolumn.grid(row=row, column=4, sticky='WE', padx=2)
self.penumbercolumn.grid(row=row, column=5, sticky='WE', padx=2)
self.timestepcolumn.grid(row=row, column=6, sticky='WE', padx=2)
self.endcolumn.grid(row=row, column=7, sticky='WE', padx=2)
row = 2
self.ptypelabel.grid(row=row,
column=0,
sticky='E',
padx=2,
columnspan=2)
self.ptypewidget.grid(row=row,
column=2,
sticky='W',
padx=2,
columnspan=2)
self.ptotallabel.grid(row=row,
column=4,
sticky='E',
padx=2,
columnspan=2)
row = 3
self.tvariablelabel.grid(row=row,
column=0,
sticky='E',
padx=2,
columnspan=2)
self.tvariablewidget.grid(row=row,
column=2,
sticky='W',
padx=2,
columnspan=2)
self.tsteplabel.grid(row=row,
column=4,
sticky='E',
padx=2,
columnspan=2)
row = 4
self.blank1.grid(row=row, column=0, sticky='WE', padx=2, columnspan=7)
row = 5
self.layerlabel.grid(row=row, column=1, sticky='WE', padx=2)
self.thicklabel.grid(row=row, column=2, sticky='WE', padx=2)
self.gridnumberlabel.grid(row=row, column=3, sticky='WE', padx=2)
self.gridsizelabel.grid(row=row, column=4, sticky='WE', padx=2)
self.gridPelabel.grid(row=row, column=5, sticky='WE', padx=2)
self.timesteplabel.grid(row=row, column=6, sticky='WE', padx=2)
row = 6
self.thickunit.grid(row=row, column=2, sticky='WE', padx=2)
self.gridsizeunit.grid(row=row, column=4, sticky='WE', padx=2)
self.timestepunit.grid(row=row, column=6, sticky='WE', padx=2)
try:
self.ptotalwidget.grid_forget()
self.ptotalentry.grid_forget()
self.tstepwidget.grid_forget()
self.tstepentry.grid_forget()
except:
pass
if self.ptype.get() == self.ptypes[2]:
self.ptotalwidget.grid(row=2, column=6, sticky='E', padx=2)
else:
self.ptotalentry.grid(row=2, column=6, sticky='E', padx=2)
if self.tvariable.get() == self.tvariables[2]:
self.tstepentry.grid(row=3, column=6, sticky='E', padx=2)
else:
self.tstepwidget.grid(row=3, column=6, sticky='E', padx=2)
row = 7
if self.dep == 1:
layersolveroption = self.deplayersolveroptions[0]
layersolveroption.propertieswidgets(self.frame, row,
self.ptype.get())
row = row + 1
for i in range(self.dep, self.nlayers):
layersolveroption = self.layersolveroptions[i - self.dep]
layersolveroption.propertieswidgets(self.frame, row,
self.ptype.get())
row = row + 1
self.botleftcolumn.grid(row=row, column=0, sticky='WE', padx=2)
self.botlayercolumn.grid(row=row, column=1, sticky='WE', padx=2)
self.botthickcolumn.grid(row=row, column=2, sticky='WE', padx=2)
self.botgridnumbercolumn.grid(row=row, column=3, sticky='WE', padx=2)
self.botgridsizecolumn.grid(row=row, column=4, sticky='WE', padx=2)
self.botpenumbercolumn.grid(row=row, column=5, sticky='WE', padx=2)
self.bottimestepcolumn.grid(row=row, column=6, sticky='WE', padx=2)
self.botendcolumn.grid(row=row, column=7, sticky='WE', padx=2)
row = row + 1
self.blank4.grid(row=row)
row = row + 1
self.updatebutton.grid(row=row, columnspan=11)
row = row + 1
self.okbutton.grid(row=row, columnspan=11)
row = row + 1
self.cancelbutton.grid(row=row, columnspan=11)
row = row + 1
self.blank5.grid(row=row)
self.okbutton.bind('<Return>', self.OK)
self.focusbutton = self.okbutton
self.master.geometry()
self.master.center()
def updatesolverparameters(self):
if self.ptype.get() == self.ptypes[0]:
delz = self.htot / self.ptotal.get()
for i in range(self.dep, self.nlayers):
if self.layersolveroptions[i - self.dep].h / 5 < delz:
delz = self.layersolveroptions[i - self.dep].h / 5
for n in range(self.nchemicals):
if self.U != 0: delzcfl = 2. * self.D[i][n] / abs(self.U)
else: delzcfl = 0
if delzcfl != 0 and delzcfl < delz: delz = delzcfl
ptotal = 0
for i in range(self.dep, self.nlayers):
if int(self.layers[i].h /
delz) <> self.layers[i - self.dep].h / delz:
self.layersolveroptions[i - self.dep].player.set(
int(self.layers[i].h / delz) + 1)
else:
self.layersolveroptions[i - self.dep].player.set(
int(self.layers[i].h / delz))
delz_temp = self.layers[i].h / self.layersolveroptions[
i - self.dep].player.get()
if delz_temp > 1:
self.layersolveroptions[i - self.dep].delz = (
ceil(delz_temp * 1000) / 1000)
else:
j = 2
while delz_temp / 100 < 0.1**j:
j = j + 1
self.layersolveroptions[i - self.dep].delz = (
ceil(delz_temp * 10**j) / 10**j)
try:
self.layersolveroptions[i - self.dep].Pe = round(
self.U * self.layersolveroptions[i - self.dep].delz /
min(self.D[i]), 2)
except:
self.layersolveroptions[i - self.dep].Pe = 0
delt_temp = min([
self.R[i][n] *
self.layersolveroptions[i - self.dep].delz**2 / 2. /
self.D[i][n] for n in range(self.nchemicals)
])
if delt_temp > 1:
self.layersolveroptions[i - self.dep].delt = (round(
delt_temp, 3))
else:
j = 2
while delt_temp / 100 < 0.1**j:
j = j + 1
self.layersolveroptions[i - self.dep].delt = (round(
delt_temp, j))
ptotal = ptotal + self.layersolveroptions[
i - self.dep].player.get()
self.ptotal.set(ptotal)
if self.dep == 1:
delz = min(layersolveroption.delz
for layersolveroption in self.layersolveroptions)
for n in range(self.nchemicals):
if self.U != 0: delzcfl = 2. * self.D[0][n] / abs(self.U)
else: delzcfl = 0
if delzcfl != 0 and delzcfl < delz: delz = delzcfl
if delz > 1:
self.deplayersolveroptions[0].delz = (ceil(delz * 1000) /
1000)
else:
j = 2
while delz / 100 < 0.1**j:
j = j + 1
self.deplayersolveroptions[0].delz = (ceil(delz * 10**j) /
10**j)
self.deplayersolveroptions[0].player.set(
round(self.deplayersolveroptions[0].h / delz, 2))
elif self.ptype.get() == self.ptypes[1]:
players = []
for i in range(self.dep, self.nlayers):
delz = self.layersolveroptions[i - self.dep].h / float(
self.ptotal.get() / (self.nlayers - self.dep))
for n in range(self.nchemicals):
if self.U != 0: delzcfl = 2. * self.D[i][n] / abs(self.U)
else: delzcfl = 0
if delzcfl != 0 and delzcfl < delz: delz = delzcfl
players.append(
int(self.layersolveroptions[i - self.dep].h / delz))
if max(players) > self.ptotal.get() / self.nlayers:
self.ptotal.set(max(players) * (self.nlayers - self.dep))
for i in range(self.dep, self.nlayers):
self.layersolveroptions[i - self.dep].player.set(
self.ptotal.get() / (self.nlayers - self.dep))
delz_temp = self.layers[i].h / self.layersolveroptions[
i - self.dep].player.get()
if delz_temp > 1:
self.layersolveroptions[i - self.dep].delz = (
ceil(delz_temp * 1000) / 1000)
else:
j = 2
while delz_temp / 100 < 0.1**j:
j = j + 1
self.layersolveroptions[i - self.dep].delz = (
ceil(delz_temp * 10**j) / 10**j)
self.layersolveroptions[i - self.dep].Pe = round(
self.U * self.layersolveroptions[i - self.dep].delz /
min(self.D[i]), 2)
try:
delt_temp = min([
self.R[i][n] *
self.layersolveroptions[i - self.dep].delz**2 / 2. /
self.D[i][n] for n in range(self.nchemicals)
])
except:
delt_temp = 0
if delt_temp > 1:
self.layersolveroptions[i - self.dep].delt = (round(
delt_temp, 3))
else:
j = 2
while delt_temp / 100 < 0.1**j:
j = j + 1
self.layersolveroptions[i - self.dep].delt = (round(
delt_temp, j))
if self.dep == 1:
delz = min(layersolveroption.delz
for layersolveroption in self.layersolveroptions)
for n in range(self.nchemicals):
if self.U != 0: delzcfl = 2. * self.D[0][n] / abs(self.U)
else: delzcfl = 0
if delzcfl != 0 and delzcfl < delz: delz = delzcfl
if delz > 1:
self.deplayersolveroptions[0].delz = (ceil(delz * 1000) /
1000)
else:
j = 2
while delz / 100 < 0.1**j:
j = j + 1
self.deplayersolveroptions[0].delz = (ceil(delz * 10**j) /
10**j)
self.deplayersolveroptions[0].player.set(
round(self.deplayersolveroptions[0].h / delz, 2))
else:
for i in range(self.dep, self.nlayers):
if self.layersolveroptions[i - self.dep].player.get() < 5:
self.layersolveroptions[i - self.dep].player.set(5)
delz_temp = self.layers[i].h / self.layersolveroptions[
i - self.dep].player.get()
if delz_temp > 1:
self.layersolveroptions[i - self.dep].delz = (
ceil(delz_temp * 1000) / 1000)
else:
j = 2
while delz_temp / 100 < 0.1**j:
j = j + 1
self.layersolveroptions[i - self.dep].delz = (
ceil(delz_temp * 10**j) / 10**j)
self.layersolveroptions[i - self.dep].Pe = round(
self.U * self.layersolveroptions[i - self.dep].delz /
min(self.D[i]), 2)
try:
delt_temp = min([
self.R[i][n] *
self.layersolveroptions[i - self.dep].delz**2 / 2. /
self.D[i][n] for n in range(self.nchemicals)
])
except:
delt_temp = 0
if delt_temp > 1:
self.layersolveroptions[i - self.dep].delt = (round(
delt_temp, 3))
else:
j = 2
while delt_temp / 100 < 0.1**j:
j = j + 1
self.layersolveroptions[i - self.dep].delt = (round(
delt_temp, j))
self.ptotal.set(
sum([
layersolveroption.player.get()
for layersolveroption in self.layersolveroptions
]))
if self.dep == 1:
delz_temp = self.layers[0].h / self.deplayersolveroptions[
0].player.get()
if delz_temp > 1:
self.deplayersolveroptions[0].delz = (
ceil(delz_temp * 1000) / 1000)
else:
j = 2
while delz_temp / 100 < 0.1**j:
j = j + 1
self.deplayersolveroptions[0].delz = (
ceil(delz_temp * 10**j) / 10**j)
if self.tvariable.get() == self.tvariables[0]:
self.delt.set(
min([
self.layersolveroptions[i - self.dep].delt
for i in range(self.dep, self.nlayers)
]))
elif self.tvariable.get() == self.tvariables[1]:
delt_temp = (min([
self.layersolveroptions[i - self.dep].delt
for i in range(self.dep, self.nlayers)
]) * max([
self.layersolveroptions[i - self.dep].delt
for i in range(self.dep, self.nlayers)
]))**0.5
if delt_temp > 1: self.delt.set(round(delt_temp, 3))
else:
j = 2
while delt_temp / 100 < 0.1**j:
j = j + 1
self.delt.set(round(delt_temp, j))
for i in range(self.dep, self.nlayers):
self.delz[i] = self.layersolveroptions[i - self.dep].delz
self.players[i] = self.layersolveroptions[i -
self.dep].player.get()
if self.dep == 1:
self.delz[0] = self.deplayersolveroptions[0].delz
self.players[0] = self.deplayersolveroptions[0].player.get()
def updatesolvereditor(self, event=None):
self.updatesolverparameters()
try:
self.ptotalwidget.grid_forget()
self.ptotalentry.grid_forget()
self.tstepwidget.grid_forget()
self.tstepentry.grid_forget()
except:
pass
if self.ptype.get() == self.ptypes[2]:
self.ptotalwidget.grid(row=2, column=6, sticky='E', padx=2)
else:
self.ptotalentry.grid(row=2, column=6, sticky='E', padx=2)
if self.tvariable.get() == self.tvariables[2]:
self.tstepentry.grid(row=3, column=6, sticky='E', padx=2)
else:
self.tstepwidget.grid(row=3, column=6, sticky='E', padx=2)
row = 7
if self.dep == 1:
layersolveroption = self.deplayersolveroptions[0]
layersolveroption.propertieswidgets(self.frame, row,
self.ptype.get())
row = row + 1
for i in range(self.dep, self.nlayers):
layersolveroption = self.layersolveroptions[i - self.dep]
layersolveroption.propertieswidgets(self.frame, row,
self.ptype.get())
row = row + 1
self.botleftcolumn.grid(row=row, column=0, sticky='WE', padx=2)
self.botlayercolumn.grid(row=row, column=1, sticky='WE', padx=2)
self.botthickcolumn.grid(row=row, column=2, sticky='WE', padx=2)
self.botgridnumbercolumn.grid(row=row, column=3, sticky='WE', padx=2)
self.botgridsizecolumn.grid(row=row, column=4, sticky='WE', padx=2)
self.botpenumbercolumn.grid(row=row, column=5, sticky='WE', padx=2)
self.bottimestepcolumn.grid(row=row, column=6, sticky='WE', padx=2)
self.botendcolumn.grid(row=row, column=7, sticky='WE', padx=2)
row = row + 1
self.blank4.grid(row=row)
row = row + 1
self.updatebutton.grid(row=row, columnspan=11)
row = row + 1
self.okbutton.grid(row=row, columnspan=11)
row = row + 1
self.cancelbutton.grid(row=row, columnspan=11)
row = row + 1
self.blank5.grid(row=row)
self.okbutton.bind('<Return>', self.OK)
self.focusbutton = self.okbutton
self.master.geometry()
self.master.center()
def OK(self, event=None):
"""Finish and move on. Checks that the number chemicals are less than the
total number of chemicals in database."""
#self.updatesolverparameters()
self.master.tk.quit()
def Cancel(self):
self.cancelflag = 1
if self.master.window.top is not None:
self.master.open_toplevel()
else:
self.master.tk.quit()
class Product:
def __init__(self, number):
self.number = number
self.soluable = 1
def copy(self):
product = Product(self.number)
product.coef = self.coef
product.MW = self.MW
product.name = self.name
product.formula = self.formula
product.soluable = self.soluable
return product
def propertieswidgets(self, frame, row, master, chemical_list,
formula_list, MW_list):
self.master = master
self.chemical_list = chemical_list
self.formula_list = formula_list
self.MW_list = MW_list
self.middlelabel = Label(frame, width=8, justify='center', text=' || ')
self.delwidget = Button(frame,
width=5,
justify='center',
text='Delete',
command=self.del_product)
self.namewidget = OptionMenu(frame,
self.name,
*chemical_list,
command=self.click_name)
self.coefwidget = Entry(frame,
width=8,
justify='center',
textvariable=self.coef)
self.fwidget = Entry(frame,
width=8,
justify='center',
textvariable=self.formula,
font='Calibri 11')
self.middlelabel.grid(row=row, column=5, padx=2, pady=1, sticky='WE')
self.delwidget.grid(row=row, column=6, padx=2, pady=1)
self.coefwidget.grid(row=row, column=7, padx=2, pady=1)
self.namewidget.grid(row=row, column=8, padx=2, pady=1, sticky='WE')
self.fwidget.grid(row=row, column=9, padx=2, pady=1, sticky='WE')
def click_name(self, event=None):
self.formula.set(self.formula_list[self.chemical_list.index(
self.name.get())])
self.MW.set(self.MW_list[self.chemical_list.index(self.name.get())])
def del_product(self):
self.master.window.delproduct(self.number)
def get_product(self):
self.coef = self.coef.get()
self.name = self.name.get()
self.formula = self.formula.get()
self.MW = self.MW.get()
def remove_propertieswidgets(self):
self.master = 0
self.delwidget.grid_forget()
self.namewidget.grid_forget()
self.coefwidget.grid_forget()
self.fwidget.grid_forget()
self.middlelabel.grid_forget()
self.delwidget = 0
self.namewidget = 0
self.coefwidget = 0
self.fwidget = 0
self.middlelabel = 0
def get_dynamic_sorption(self, chemical):
self.coef = 1
self.index = 1
self.MW = chemical.MW
self.name = chemical.name
self.formula = ''
self.soluable = 0
def get_dynamic_desorption(self, chemical):
self.coef = 1
self.index = 1
self.name = chemical.name
self.formula = ''
self.MW = chemical.MW
self.soluable = 1
class Reactant:
def __init__(self, number):
self.number = number
self.soluable = 1
def copy(self):
reactant = Reactant(self.number)
reactant.coef = self.coef
reactant.index = self.index
reactant.name = self.name
reactant.formula = self.formula
reactant.MW = self.MW
reactant.soluable = self.soluable
return reactant
def propertieswidgets(self, frame, row, master, chemical_list,
formula_list, MW_list):
self.master = master
self.chemical_list = chemical_list
self.formula_list = formula_list
self.MW_list = MW_list
self.delwidget = Button(frame,
width=5,
justify='center',
text='Delete',
command=self.del_reactant)
self.namewidget = OptionMenu(frame,
self.name,
*chemical_list,
command=self.click_name)
self.coefwidget = Entry(frame,
width=8,
justify='center',
textvariable=self.coef)
self.fwidget = Entry(frame,
width=8,
justify='center',
textvariable=self.formula,
font='Calibri 11')
self.middlelabel = Label(frame, width=8, justify='center', text=' || ')
self.delwidget.grid(row=row, column=1, padx=2, pady=1)
self.coefwidget.grid(row=row, column=2, padx=2, pady=1)
self.namewidget.grid(row=row, column=3, padx=2, pady=1, sticky='WE')
self.fwidget.grid(row=row, column=4, padx=2, pady=1, sticky='WE')
self.middlelabel.grid(row=row, column=5, padx=2, pady=1, sticky='WE')
def click_name(self, event=None):
self.formula.set(self.formula_list[self.chemical_list.index(
self.name.get())])
self.MW.set(self.MW_list[self.chemical_list.index(self.name.get())])
self.master.window.updaterateequation()
def del_reactant(self):
self.master.window.delreactant(self.number)
def get_reactant(self):
self.coef = self.coef.get()
self.name = self.name.get()
self.formula = self.formula.get()
self.MW = self.MW.get()
self.index = self.index.get()
def indexwidgets(self, frame, row):
self.label = Label(frame, text=self.name.get())
self.widget = Entry(frame,
textvariable=self.index,
width=6,
justify='center')
self.label.grid(row=row, column=0, padx=6, pady=2)
self.widget.grid(row=row, column=1, padx=6, pady=2)
def remove_indexwidgets(self):
self.label.grid_forget()
self.widget.grid_forget()
self.label = 0
self.widget = 0
def remove_propertieswidgets(self):
self.delwidget.grid_forget()
self.namewidget.grid_forget()
self.coefwidget.grid_forget()
self.fwidget.grid_forget()
self.middlelabel.grid_forget()
try:
self.label.grid_forget()
self.widget.grid_forget()
except:
pass
self.master = 0
self.delwidget = 0
self.namewidget = 0
self.coefwidget = 0
self.fwidget = 0
self.middlelabel = 0
self.label = 0
self.widget = 0
def get_dynamic_sorption(self, chemical, index):
self.coef = 1
self.index = index
self.name = chemical.name
self.formula = ''
self.MW = chemical.MW
self.soluable = 1
def get_dynamic_desorption(self, chemical, index):
self.coef = 1
self.index = index
self.name = chemical.name
self.formula = ''
self.MW = chemical.MW
self.soluable = 0
class KblEstimator:
"""Used to make a window to compute the value of "kbl" for Rivers."""
def __init__(self, master, version, fonttype, bltype, blcoefs):
"""Constructor method."""
self.version = version
self.fonttype = fonttype
self.tframe = Frame(master.tframe)
self.frame = Frame(master.frame)
self.bframe = Frame(master.bframe)
self.superfont = get_superfont(self.fonttype)
self.bltypes = ['River', 'Lake']
self.bltype = StringVar(value=bltype)
self.top = None
self.cancelflag = 0
#Parameters for Mass transfer coefficient in river
self.vx = DoubleVar(value=blcoefs['vx'])
self.n = DoubleVar(value=blcoefs['n'])
self.hriver = DoubleVar(value=blcoefs['hriver'])
self.rh = DoubleVar(value=blcoefs['rh'])
self.nu = DoubleVar(value=blcoefs['nu'])
#Parameters for Mass transfer coefficient in lake
self.rhoair = DoubleVar(value=blcoefs['rhoair'])
self.rhowater = DoubleVar(value=blcoefs['rhowater'])
self.vwind = DoubleVar(value=blcoefs['vwind'])
self.hlake = DoubleVar(value=blcoefs['hlake'])
self.llake = DoubleVar(value=blcoefs['llake'])
def make_widgets(self):
"""Makes the widgets for the window."""
self.bgcolor = self.frame.cget('bg')
self.text = Label(
self.frame,
text=
'Please provide the following information regarding the benthic boundary layer:'
)
self.blank1 = Label(self.frame, text='')
self.blank2 = Label(self.frame, text='')
self.blank3 = Label(self.frame, text='')
self.blank4 = Label(self.frame, text='')
self.paracolumn = Label(self.frame, text=' ', width=20)
self.valuecolumn = Label(self.frame, text=' ', width=10)
self.unitcolumn = Label(self.frame, text=' ', width=10)
self.paralabel = Label(self.frame, text='Parameters')
self.valuelabel = Label(self.frame, text='Values')
self.unitlabel = Label(self.frame, text='Units')
self.bllabel = Label(self.frame, text='Overlying waterbody type')
self.blwidget = OptionMenu(self.frame,
self.bltype,
*self.bltypes,
command=self.updateparameters)
self.vxlabel = Label(self.frame, text='River velocity:')
self.vxentry = Entry(self.frame,
textvariable=self.vx,
width=8,
justify='center')
self.vxunits = Label(self.frame, text='m/s')
self.nlabel = Label(self.frame, text="Manning's n:")
self.nentry = Entry(self.frame,
textvariable=self.n,
width=8,
justify='center')
self.nunits = Label(self.frame, text='-')
self.hlabel = Label(self.frame, text='River depth:')
self.hentry = Entry(self.frame,
justify='center',
width=8,
textvariable=self.hriver)
self.hunits = Label(self.frame, text='m')
self.rhlabel = Label(self.frame, text='Hydraulic radius:')
self.rhentry = Entry(self.frame,
textvariable=self.rh,
width=8,
justify='center')
self.rhunits = Label(self.frame, text='m')
self.nulabel = Label(self.frame, text='Kinematic viscosity:')
self.nuentry = Entry(self.frame,
textvariable=self.nu,
width=8,
justify='center')
self.nuunits = Label(self.frame, text=u'm\u00B2/s')
self.rhoairlabel = Label(self.frame, text='Density of air:')
self.rhoairentry = Entry(self.frame,
textvariable=self.rhoair,
width=8,
justify='center')
self.rhoairunits = Label(self.frame, text='g/L')
self.rhowaterlabel = Label(self.frame, text='Density of water:')
self.rhowaterentry = Entry(self.frame,
textvariable=self.rhowater,
width=8,
justify='center')
self.rhowaterunits = Label(self.frame, text='g/L')
self.vwindlabel = Label(self.frame, text='Wind speed:')
self.vwindentry = Entry(self.frame,
textvariable=self.vwind,
width=8,
justify='center')
self.vwindunits = Label(self.frame, text='m/s')
self.hlakelabel = Label(self.frame, text='Lake depth:')
self.hlakeentry = Entry(self.frame,
textvariable=self.hlake,
width=8,
justify='center')
self.hlakeunits = Label(self.frame, text='m')
self.lakelabel = Label(self.frame, text='Lake fetch:')
self.lakeentry = Entry(self.frame,
textvariable=self.llake,
width=8,
justify='center')
self.lakeunits = Label(self.frame, text='m')
self.calcbutton = Button(self.frame,
text='Calculate',
width=20,
command=self.calculate)
self.exitbutton = Button(self.frame,
text='Cancel',
width=20,
command=self.exit)
self.calcbutton.bind('<Return>', self.calculate)
self.exitbutton.bind('<Return>', self.exit)
self.text.grid(row=0, columnspan=3, padx=8)
self.blank1.grid(row=1)
self.paracolumn.grid(row=2, column=0, sticky='WE')
self.valuecolumn.grid(row=2, column=1, sticky='WE')
self.unitcolumn.grid(row=2, column=2, sticky='WE')
self.paralabel.grid(row=3, column=0, sticky='E')
self.valuelabel.grid(row=3, column=1, sticky='WE')
self.unitlabel.grid(row=3, column=2, sticky='W')
self.bllabel.grid(row=4, column=0, sticky='E')
self.blwidget.grid(row=4, column=1, sticky='WE')
self.blank2.grid(row=10)
self.calcbutton.grid(row=11, columnspan=3, pady=1)
self.exitbutton.grid(row=12, columnspan=3, pady=1)
self.focusbutton = self.calcbutton
self.updateparameters()
def updateparameters(self, event=None):
try:
self.vxlabel.grid_forget()
self.vxentry.grid_forget()
self.vxunits.grid_forget()
self.nlabel.grid_forget()
self.nentry.grid_forget()
self.nunits.grid_forget()
self.hlabel.grid_forget()
self.hentry.grid_forget()
self.hunits.grid_forget()
self.rhlabel.grid_forget()
self.rhentry.grid_forget()
self.rhunits.grid_forget()
self.nulabel.grid_forget()
self.nuentry.grid_forget()
self.nuunits.grid_forget()
except:
pass
try:
self.rhoairlabel.grid_forget()
self.rhoairentry.grid_forget()
self.rhoairunits.grid_forget()
self.rhowaterlabel.grid_forget()
self.rhowaterentry.grid_forget()
self.rhowaterunits.grid_forget()
self.vwindlabel.grid_forget()
self.vwindentry.grid_forget()
self.vwindunits.grid_forget()
self.hlakelabel.grid_forget()
self.hlakeentry.grid_forget()
self.hlakeunits.grid_forget()
self.lakelabel.grid_forget()
self.lakeentry.grid_forget()
self.lakeunits.grid_forget()
except:
pass
if self.bltype.get() == self.bltypes[0]:
self.vxlabel.grid(row=5, column=0, sticky='E', padx=4)
self.vxentry.grid(row=5, column=1)
self.vxunits.grid(row=5, column=2, sticky='W')
self.nlabel.grid(row=6, column=0, sticky='E', padx=4)
self.nentry.grid(row=6, column=1)
self.nunits.grid(row=6, column=2, sticky='W')
self.hlabel.grid(row=7, column=0, sticky='E', padx=4)
self.hentry.grid(row=7, column=1)
self.hunits.grid(row=7, column=2, sticky='W')
self.rhlabel.grid(row=8, column=0, sticky='E', padx=4)
self.rhentry.grid(row=8, column=1)
self.rhunits.grid(row=8, column=2, sticky='W')
self.nulabel.grid(row=9, column=0, sticky='E', padx=4)
self.nuentry.grid(row=9, column=1)
self.nuunits.grid(row=9, column=2, sticky='W')
else:
self.rhoairlabel.grid(row=5, column=0, sticky='E', padx=4)
self.rhoairentry.grid(row=5, column=1)
self.rhoairunits.grid(row=5, column=2, sticky='W')
self.rhowaterlabel.grid(row=6, column=0, sticky='E', padx=4)
self.rhowaterentry.grid(row=6, column=1)
self.rhowaterunits.grid(row=6, column=2, sticky='W')
self.vwindlabel.grid(row=7, column=0, sticky='E', padx=4)
self.vwindentry.grid(row=7, column=1)
self.vwindunits.grid(row=7, column=2, sticky='W')
self.hlakelabel.grid(row=8, column=0, sticky='E', padx=4)
self.hlakeentry.grid(row=8, column=1)
self.hlakeunits.grid(row=8, column=2, sticky='W')
self.lakelabel.grid(row=9, column=0, sticky='E', padx=4)
self.lakeentry.grid(row=9, column=1)
self.lakeunits.grid(row=9, column=2, sticky='W')
def calculate(self, event=None):
"""Finish and move on."""
self.frame.quit()
def exit(self, event=None):
"""Used to close the window without computing kbl."""
self.cancelflag = 1
self.frame.quit()
