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This is the configuration file used as input for IonFit
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RedMageP42 authored Oct 30, 2023
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#######################################################################
# #
# This is the input configuration file for IonFit #
# #
#######################################################################

[Files]

#######################################################################
# Specify the PATH(s) to the file(s) containing the experimental data #
# EXAMPLE: viscosity = path/to/viscosity/file.txt #
#######################################################################
viscosity =
conductivity =
density =

[Species]

#######################################################################
# Specify every species in the sample. #
# You may duplicate the info block for every species in your system #
# Please be careful and change the progressive number on the species #
# parameters, e.g. species1_name, species2_name... #
# EXAMPLE: #
# #
# total_species = 2 #
# #
# species1_name = Water #
# species1_mole_abundance = 10 #
# species1_molecular_weight = 18 #
# species1_ionic = False #
# #
# species2_name = NaCl #
# species2_mole_abundance = 1 #
# species2_molecular_weight = 58 #
# species2_ionic = True #
#######################################################################
total_species =

species1_name =
species1_mole_abundance =
species1_molecular_weight =
species1_ionic =

[Parameters]

#######################################################################
# Do you want to perform the Walden analysis #
# (it requires viscosity, conductivity AND density data)? #
# True = YES #
# False = NO #
# EXAMPLE: compute_walden = False #
# in this example the Walden analysis would NOT be performed #
#######################################################################
compute_walden =

#######################################################################
# Initial guess for VTF parameters A, B, C #
# A is the pre-exponential factor #
# B is the pseudo activation energy #
# C is the temperature of zero configurational entropy #
# EQUATION: Y = A * e^(-B/(R(T-C))) #
# EXAMPLE (and suggestes default values): #
# A = 1 #
# B = 4000 #
# C = 200 #
#######################################################################
A =
B =
C =

#######################################################################
# Relative weight of viscosity over conductivity in the Joint Fitting #
# (from 0 to 1, with 0.5 being equal weight) #
# Only needed if you provide BOTH viscosity and conductivity data #
# Needed because normally viscosity values are much higher in #
# magnitude respect to conductivity values #
# It could take a few iterations changing this value to get a good #
# joint fitting #
# Typical values range from 0.00005 to 0.1 #
# EXAMPLE (and suggested starting trial): w = 0.01 #
#######################################################################
w =

#######################################################################
# Define the temperature (in K) range in which to calculate the #
# predicted values from the VTF parameters obtained by the fitting #
# lower_temperature must be higher than the temperature of zero #
# configurational entropy #
# higher_temperature must be higher than lower_temperature #
# EXAMPLE (and suggested values): #
# lower_temperature = 260 #
# upper_temperature = 400 #
#######################################################################
lower_temperature =
upper_temperature =

#######################################################################
# Choose to use a temperature-dependent scale fiactor that will #
# be used to modity the VTF equation (ONLY FOR CONDUCTIVITY). #
# The scale factor is equal to 1/sqrt(T) and the CONDUCTIVITY #
# VTF equation becomes: σ = 1/sqrt(T) * A * e^(-B/(R(T-C))) #
# True = YES #
# False = NO #
# EXAMPLE: scale_factor = False #
# in this example the Scale Factor would NOT be used #
#######################################################################
scale_factor =

#######################################################################
# Specify the units in which your experimental data for viscosity #
# are expressed (1=mPa s; 2=Pa s; 3=cP; 4=P) #
# EXAMPLE: viscosity_unit_option = 1 #
#######################################################################
viscosity_unit_option =

#######################################################################
# Specify the units in which your experimental data for conductivity #
# are expressed (1=mS/cm; 2=S/cm) #
# EXAMPLE: conductivity_unit_option = 1 #
#######################################################################
conductivity_unit_option =

#######################################################################
# Specify the units in which your experimental data for density #
# are expressed (1=g/cm3; 2=kg/m3) #
# EXAMPLE: density_unit_option = 1 #
#######################################################################
density_unit_option =



#######################################################################
# #
# END #
# #
#######################################################################

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