#[cfg(feature = "extern")]
pub mod ex;
#[cfg(feature = "python")]
pub mod py;
mod test;
/// The freely-jointed chain (FJC) model thermodynamics in the modified canonical ensemble approximated using an asymptotic approach.
pub mod asymptotic;
use super::treloar_sum_0_with_prefactor;
use std::f64::consts::PI;
use crate::math::integrate_1d;
use crate::physics::
{
PLANCK_CONSTANT,
BOLTZMANN_CONSTANT
};
use crate::physics::single_chain::
{
ONE,
ZERO,
POINTS
};
/// The structure of the thermodynamics of the FJC model in the modified canonical ensemble.
pub struct FJC
{
/// The mass of each hinge in the chain in units of kg/mol.
pub hinge_mass: f64,
/// The length of each link in the chain in units of nm.
pub link_length: f64,
/// The number of links in the chain.
pub number_of_links: u8,
/// The thermodynamic functions of the model in the isotensional ensemble approximated using an asymptotic approach.
pub asymptotic: asymptotic::FJC
}
/// The expected end-to-end length as a function of the applied potential distance, potential stiffness, and temperature, parameterized by the number of links and link length.
pub fn end_to_end_length(number_of_links: &u8, link_length: &f64, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
potential_distance - force(number_of_links, link_length, potential_distance, potential_stiffness, temperature)/potential_stiffness
}
/// The expected end-to-end length per link as a function of the applied potential distance, potential stiffness, and temperature, parameterized by the number of links and link length.
pub fn end_to_end_length_per_link(number_of_links: &u8, link_length: &f64, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
(potential_distance - force(number_of_links, link_length, potential_distance, potential_stiffness, temperature)/potential_stiffness)/(*number_of_links as f64)
}
/// The expected nondimensional end-to-end length as a function of the applied nondimensional potential distance and nondimensional potential stiffness, parameterized by the number of links.
pub fn nondimensional_end_to_end_length(number_of_links: &u8, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64) -> f64
{
(*number_of_links as f64)*nondimensional_potential_distance - nondimensional_force(number_of_links, nondimensional_potential_distance, nondimensional_potential_stiffness)/nondimensional_potential_stiffness
}
/// The expected nondimensional end-to-end length per link as a function of the applied nondimensional potential distance and nondimensional potential stiffness, parameterized by the number of links.
pub fn nondimensional_end_to_end_length_per_link(number_of_links: &u8, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64) -> f64
{
nondimensional_potential_distance - nondimensional_force(number_of_links, nondimensional_potential_distance, nondimensional_potential_stiffness)/nondimensional_potential_stiffness/(*number_of_links as f64)
}
/// The expected force as a function of the applied potential distance, potential stiffness, and temperature, parameterized by the number of links and link length.
pub fn force(number_of_links: &u8, link_length: &f64, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
BOLTZMANN_CONSTANT*temperature/link_length*nondimensional_force(number_of_links, &(*potential_distance/((*number_of_links as f64)*link_length)), &(potential_stiffness*link_length.powi(2)/BOLTZMANN_CONSTANT/temperature))
}
/// The expected nondimensional force as a function of the applied nondimensional potential distance and nondimensional potential stiffness, parameterized by the number of links.
pub fn nondimensional_force(number_of_links: &u8, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64) -> f64
{
let number_of_links_f64 = *number_of_links as f64;
let number_of_links_squared_times_nondimensional_potential_stiffness = number_of_links_f64.powi(2)*nondimensional_potential_stiffness;
let integrand_numerator = |nondimensional_end_to_end_length_per_link: &f64|
{
4.0*PI*nondimensional_end_to_end_length_per_link.powi(2)*treloar_sum_0_with_prefactor(number_of_links, nondimensional_end_to_end_length_per_link)*((number_of_links_squared_times_nondimensional_potential_stiffness*(nondimensional_potential_distance - nondimensional_end_to_end_length_per_link)*(-0.5*number_of_links_squared_times_nondimensional_potential_stiffness*(nondimensional_potential_distance - nondimensional_end_to_end_length_per_link).powi(2)).exp() - number_of_links_squared_times_nondimensional_potential_stiffness*(nondimensional_potential_distance + nondimensional_end_to_end_length_per_link)*(-0.5*number_of_links_squared_times_nondimensional_potential_stiffness*(nondimensional_potential_distance + nondimensional_end_to_end_length_per_link).powi(2)).exp())/(2.0*number_of_links_squared_times_nondimensional_potential_stiffness*nondimensional_potential_distance*nondimensional_end_to_end_length_per_link) + ((-0.5*number_of_links_squared_times_nondimensional_potential_stiffness*(nondimensional_potential_distance - nondimensional_end_to_end_length_per_link).powi(2)).exp() - (-0.5*number_of_links_squared_times_nondimensional_potential_stiffness*(nondimensional_potential_distance + nondimensional_end_to_end_length_per_link).powi(2)).exp())/(2.0*number_of_links_squared_times_nondimensional_potential_stiffness*nondimensional_potential_distance.powi(2)*nondimensional_end_to_end_length_per_link))
};
let integrand_denominator = |nondimensional_end_to_end_length_per_link: &f64|
{
4.0*PI*nondimensional_end_to_end_length_per_link.powi(2)*treloar_sum_0_with_prefactor(number_of_links, nondimensional_end_to_end_length_per_link)*((-0.5*number_of_links_squared_times_nondimensional_potential_stiffness*(nondimensional_potential_distance - nondimensional_end_to_end_length_per_link).powi(2)).exp() - (-0.5*number_of_links_squared_times_nondimensional_potential_stiffness*(nondimensional_potential_distance + nondimensional_end_to_end_length_per_link).powi(2)).exp())/(2.0*number_of_links_squared_times_nondimensional_potential_stiffness*nondimensional_potential_distance*nondimensional_end_to_end_length_per_link)
};
integrate_1d(&integrand_numerator, &ZERO, &ONE, &POINTS)/integrate_1d(&integrand_denominator, &ZERO, &ONE, &POINTS)/number_of_links_f64
}
/// The Helmholtz free energy as a function of the applied potential distance, potential stiffness, and temperature, parameterized by the number of links, link length, and hinge mass.
pub fn helmholtz_free_energy(number_of_links: &u8, link_length: &f64, hinge_mass: &f64, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
BOLTZMANN_CONSTANT*temperature*nondimensional_helmholtz_free_energy(number_of_links, link_length, hinge_mass, &(potential_distance/((*number_of_links as f64)*link_length)), &(potential_stiffness*link_length.powi(2)/BOLTZMANN_CONSTANT/temperature), temperature)
}
/// The Helmholtz free energy per link as a function of the applied potential distance, potential stiffness, and temperature, parameterized by the number of links, link length, and hinge mass.
pub fn helmholtz_free_energy_per_link(number_of_links: &u8, link_length: &f64, hinge_mass: &f64, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
BOLTZMANN_CONSTANT*temperature*nondimensional_helmholtz_free_energy_per_link(number_of_links, link_length, hinge_mass, &(*potential_distance/((*number_of_links as f64)*link_length)), &(potential_stiffness*link_length.powi(2)/BOLTZMANN_CONSTANT/temperature), temperature)
}
/// The relative Helmholtz free energy as a function of the applied potential distance, potential stiffness, and temperature, parameterized by the number of links and link length.
pub fn relative_helmholtz_free_energy(number_of_links: &u8, link_length: &f64, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
BOLTZMANN_CONSTANT*temperature*nondimensional_relative_helmholtz_free_energy(number_of_links, &(*potential_distance/((*number_of_links as f64)*link_length)), &(potential_stiffness*link_length.powi(2)/BOLTZMANN_CONSTANT/temperature))
}
/// The relative Helmholtz free energy per link as a function of the applied potential distance, potential stiffness, and temperature, parameterized by the number of links and link length.
pub fn relative_helmholtz_free_energy_per_link(number_of_links: &u8, link_length: &f64, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
BOLTZMANN_CONSTANT*temperature*nondimensional_relative_helmholtz_free_energy_per_link(number_of_links, &(*potential_distance/((*number_of_links as f64)*link_length)), &(potential_stiffness*link_length.powi(2)/BOLTZMANN_CONSTANT/temperature))
}
/// The nondimensional Helmholtz free energy as a function of the applied nondimensional potential distance, nondimensional potential stiffness, and temperature, parameterized by the number of links, link length, and hinge mass.
pub fn nondimensional_helmholtz_free_energy(number_of_links: &u8, link_length: &f64, hinge_mass: &f64, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64, temperature: &f64) -> f64
{
let number_of_links_f64 = *number_of_links as f64;
let number_of_links_squared_times_nondimensional_potential_stiffness = number_of_links_f64.powi(2)*nondimensional_potential_stiffness;
let integrand = |nondimensional_end_to_end_length_per_link: &f64|
{
4.0*PI*nondimensional_end_to_end_length_per_link.powi(2)*treloar_sum_0_with_prefactor(number_of_links, nondimensional_end_to_end_length_per_link)*((-0.5*number_of_links_squared_times_nondimensional_potential_stiffness*(nondimensional_potential_distance - nondimensional_end_to_end_length_per_link).powi(2)).exp() - (-0.5*number_of_links_squared_times_nondimensional_potential_stiffness*(nondimensional_potential_distance + nondimensional_end_to_end_length_per_link).powi(2)).exp())/(2.0*number_of_links_squared_times_nondimensional_potential_stiffness*nondimensional_potential_distance*nondimensional_end_to_end_length_per_link)
};
let nondimensional_configurational_partition_function = integrate_1d(&integrand, &ZERO, &ONE, &POINTS);
-nondimensional_configurational_partition_function.ln() - (number_of_links_f64 - 1.0)*(8.0*PI.powi(2)*hinge_mass*link_length.powi(2)*BOLTZMANN_CONSTANT*temperature/PLANCK_CONSTANT.powi(2)).ln()
}
/// The nondimensional Helmholtz free energy per link as a function of the applied nondimensional potential distance, nondimensional potential stiffness, and temperature, parameterized by the number of links, link length, and hinge mass.
pub fn nondimensional_helmholtz_free_energy_per_link(number_of_links: &u8, link_length: &f64, hinge_mass: &f64, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64, temperature: &f64) -> f64
{
nondimensional_helmholtz_free_energy(number_of_links, link_length, hinge_mass, nondimensional_potential_distance, nondimensional_potential_stiffness, temperature)/(*number_of_links as f64)
}
/// The nondimensional relative Helmholtz free energy as a function of the applied nondimensional potential distance and nondimensional potential stiffness, parameterized by the number of links.
pub fn nondimensional_relative_helmholtz_free_energy(number_of_links: &u8, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64) -> f64
{
nondimensional_helmholtz_free_energy(number_of_links, &1.0, &1.0, nondimensional_potential_distance, nondimensional_potential_stiffness, &300.0) - nondimensional_helmholtz_free_energy(number_of_links, &1.0, &1.0, &ZERO, nondimensional_potential_stiffness, &300.0)
}
/// The nondimensional relative Helmholtz free energy per link as a function of the applied nondimensional potential distance and nondimensional potential stiffness, parameterized by the number of links.
pub fn nondimensional_relative_helmholtz_free_energy_per_link(number_of_links: &u8, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64) -> f64
{
nondimensional_relative_helmholtz_free_energy(number_of_links, nondimensional_potential_distance, nondimensional_potential_stiffness)/(*number_of_links as f64)
}
/// The Gibbs free energy as a function of the applied potential distance, potential stiffness, and temperature, parameterized by the number of links, link length, and hinge mass.
pub fn gibbs_free_energy(number_of_links: &u8, link_length: &f64, hinge_mass: &f64, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
helmholtz_free_energy(number_of_links, link_length, hinge_mass, potential_distance, potential_stiffness, temperature) - 0.5*potential_stiffness*potential_distance.powi(2)
}
/// The Gibbs free energy epr link as a function of the applied potential distance, potential stiffness, and temperature, parameterized by the number of links, link length, and hinge mass.
pub fn gibbs_free_energy_per_link(number_of_links: &u8, link_length: &f64, hinge_mass: &f64, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
helmholtz_free_energy_per_link(number_of_links, link_length, hinge_mass, potential_distance, potential_stiffness, temperature) - 0.5*potential_stiffness*potential_distance.powi(2)/(*number_of_links as f64)
}
/// The relative Gibbs free energy as a function of the applied potential distance, potential stiffness, and temperature, parameterized by the number of links and link length.
pub fn relative_gibbs_free_energy(number_of_links: &u8, link_length: &f64, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
relative_helmholtz_free_energy(number_of_links, link_length, potential_distance, potential_stiffness, temperature) - 0.5*potential_stiffness*potential_distance.powi(2)
}
/// The relative Gibbs free energy per link as a function of the applied potential distance, potential stiffness, and temperature, parameterized by the number of links and link length.
pub fn relative_gibbs_free_energy_per_link(number_of_links: &u8, link_length: &f64, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
relative_helmholtz_free_energy_per_link(number_of_links, link_length, potential_distance, potential_stiffness, temperature) - 0.5*potential_stiffness*potential_distance.powi(2)/(*number_of_links as f64)
}
/// The nondimensional Gibbs free energy as a function of the applied nondimensional potential distance, nondimensional potential stiffness, and temperature, parameterized by the number of links, link length, and hinge mass.
pub fn nondimensional_gibbs_free_energy(number_of_links: &u8, link_length: &f64, hinge_mass: &f64, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64, temperature: &f64) -> f64
{
nondimensional_helmholtz_free_energy(number_of_links, link_length, hinge_mass, nondimensional_potential_distance, nondimensional_potential_stiffness, temperature) - 0.5*(*number_of_links as f64).powi(2)*nondimensional_potential_stiffness*nondimensional_potential_distance.powi(2)
}
/// The nondimensional Gibbs free energy per link as a function of the applied nondimensional potential distance, nondimensional potential stiffness, and temperature, parameterized by the number of links, link length, and hinge mass.
pub fn nondimensional_gibbs_free_energy_per_link(number_of_links: &u8, link_length: &f64, hinge_mass: &f64, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64, temperature: &f64) -> f64
{
nondimensional_helmholtz_free_energy_per_link(number_of_links, link_length, hinge_mass, nondimensional_potential_distance, nondimensional_potential_stiffness, temperature) - 0.5*(*number_of_links as f64)*nondimensional_potential_stiffness*nondimensional_potential_distance.powi(2)
}
/// The nondimensional relative Gibbs free energy as a function of the applied nondimensional potential distance and nondimensional potential stiffness, parameterized by the number of links.
pub fn nondimensional_relative_gibbs_free_energy(number_of_links: &u8, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64) -> f64
{
nondimensional_relative_helmholtz_free_energy(number_of_links, nondimensional_potential_distance, nondimensional_potential_stiffness) - 0.5*(*number_of_links as f64).powi(2)*nondimensional_potential_stiffness*nondimensional_potential_distance.powi(2)
}
/// The nondimensional relative Gibbs free energy per link as a function of the applied nondimensional potential distance and nondimensional potential stiffness, parameterized by the number of links.
pub fn nondimensional_relative_gibbs_free_energy_per_link(number_of_links: &u8, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64) -> f64
{
nondimensional_relative_helmholtz_free_energy_per_link(number_of_links, nondimensional_potential_distance, nondimensional_potential_stiffness) - 0.5*(*number_of_links as f64)*nondimensional_potential_stiffness*nondimensional_potential_distance.powi(2)
}
/// The implemented functionality of the thermodynamics of the FJC model in the modified canonical ensemble.
impl FJC
{
/// Initializes and returns an instance of the thermodynamics of the FJC model in the modified canonical ensemble.
pub fn init(number_of_links: u8, link_length: f64, hinge_mass: f64) -> Self
{
FJC
{
hinge_mass,
link_length,
number_of_links,
asymptotic: asymptotic::FJC::init(number_of_links, link_length, hinge_mass)
}
}
/// The expected end-to-end length as a function of the applied potential distance, potential stiffness, and temperature.
pub fn end_to_end_length(&self, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
end_to_end_length(&self.number_of_links, &self.link_length, potential_distance, potential_stiffness, temperature)
}
/// The expected end-to-end length per link as a function of the applied potential distance, potential stiffness, and temperature.
pub fn end_to_end_length_per_link(&self, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
end_to_end_length_per_link(&self.number_of_links, &self.link_length, potential_distance, potential_stiffness, temperature)
}
/// The expected nondimensional end-to-end length as a function of the applied nondimensional potential distance and nondimensional potential stiffness.
pub fn nondimensional_end_to_end_length(&self, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64) -> f64
{
nondimensional_end_to_end_length(&self.number_of_links, nondimensional_potential_distance, nondimensional_potential_stiffness)
}
/// The expected nondimensional end-to-end length per link as a function of the applied nondimensional potential distance and nondimensional potential stiffness.
pub fn nondimensional_end_to_end_length_per_link(&self, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64) -> f64
{
nondimensional_end_to_end_length_per_link(&self.number_of_links, nondimensional_potential_distance, nondimensional_potential_stiffness)
}
/// The expected force as a function of the applied potential distance, potential stiffness, and temperature.
pub fn force(&self, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
force(&self.number_of_links, &self.link_length, potential_distance, potential_stiffness, temperature)
}
/// The expected nondimensional force as a function of the applied nondimensional potential distance and nondimensional potential stiffness.
pub fn nondimensional_force(&self, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64) -> f64
{
nondimensional_force(&self.number_of_links, nondimensional_potential_distance, nondimensional_potential_stiffness)
}
/// The Helmholtz free energy as a function of the applied potential distance, potential stiffness, and temperature.
pub fn helmholtz_free_energy(&self, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
helmholtz_free_energy(&self.number_of_links, &self.link_length, &self.hinge_mass, potential_distance, potential_stiffness, temperature)
}
/// The Helmholtz free energy per link as a function of the applied potential distance, potential stiffness, and temperature.
pub fn helmholtz_free_energy_per_link(&self, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
helmholtz_free_energy_per_link(&self.number_of_links, &self.link_length, &self.hinge_mass, potential_distance, potential_stiffness, temperature)
}
/// The relative Helmholtz free energy as a function of the applied potential distance, potential stiffness, and temperature.
pub fn relative_helmholtz_free_energy(&self, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
relative_helmholtz_free_energy(&self.number_of_links, &self.link_length, potential_distance, potential_stiffness, temperature)
}
/// The relative Helmholtz free energy per link as a function of the applied potential distance, potential stiffness, and temperature.
pub fn relative_helmholtz_free_energy_per_link(&self, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
relative_helmholtz_free_energy_per_link(&self.number_of_links, &self.link_length, potential_distance, potential_stiffness, temperature)
}
/// The nondimensional Helmholtz free energy as a function of the applied nondimensional potential distance, nondimensional potential stiffness, and temperature.
pub fn nondimensional_helmholtz_free_energy(&self, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64, temperature: &f64) -> f64
{
nondimensional_helmholtz_free_energy(&self.number_of_links, &self.link_length, &self.hinge_mass, nondimensional_potential_distance, nondimensional_potential_stiffness, temperature)
}
/// The nondimensional Helmholtz free energy per link as a function of the applied nondimensional potential distance, nondimensional potential stiffness, and temperature.
pub fn nondimensional_helmholtz_free_energy_per_link(&self, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64, temperature: &f64) -> f64
{
nondimensional_helmholtz_free_energy_per_link(&self.number_of_links, &self.link_length, &self.hinge_mass, nondimensional_potential_distance, nondimensional_potential_stiffness, temperature)
}
/// The nondimensional relative Helmholtz free energy as a function of the applied nondimensional potential distance and nondimensional potential stiffness.
pub fn nondimensional_relative_helmholtz_free_energy(&self, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64) -> f64
{
nondimensional_relative_helmholtz_free_energy(&self.number_of_links, nondimensional_potential_distance, nondimensional_potential_stiffness)
}
/// The nondimensional relative Helmholtz free energy per link as a function of the applied nondimensional potential distance and nondimensional potential stiffness.
pub fn nondimensional_relative_helmholtz_free_energy_per_link(&self, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64) -> f64
{
nondimensional_relative_helmholtz_free_energy_per_link(&self.number_of_links, nondimensional_potential_distance, nondimensional_potential_stiffness)
}
/// The Gibbs free energy as a function of the applied potential distance, potential stiffness, and temperature.
pub fn gibbs_free_energy(&self, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
gibbs_free_energy(&self.number_of_links, &self.link_length, &self.hinge_mass, potential_distance, potential_stiffness, temperature)
}
/// The Gibbs free energy epr link as a function of the applied potential distance, potential stiffness, and temperature.
pub fn gibbs_free_energy_per_link(&self, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
gibbs_free_energy_per_link(&self.number_of_links, &self.link_length, &self.hinge_mass, potential_distance, potential_stiffness, temperature)
}
/// The relative Gibbs free energy as a function of the applied potential distance, potential stiffness, and temperature.
pub fn relative_gibbs_free_energy(&self, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
relative_gibbs_free_energy(&self.number_of_links, &self.link_length, potential_distance, potential_stiffness, temperature)
}
/// The relative Gibbs free energy per link as a function of the applied potential distance, potential stiffness, and temperature.
pub fn relative_gibbs_free_energy_per_link(&self, potential_distance: &f64, potential_stiffness: &f64, temperature: &f64) -> f64
{
relative_gibbs_free_energy_per_link(&self.number_of_links, &self.link_length, potential_distance, potential_stiffness, temperature)
}
/// The nondimensional Gibbs free energy as a function of the applied nondimensional potential distance, nondimensional potential stiffness, and temperature.
pub fn nondimensional_gibbs_free_energy(&self, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64, temperature: &f64) -> f64
{
nondimensional_gibbs_free_energy(&self.number_of_links, &self.link_length, &self.hinge_mass, nondimensional_potential_distance, nondimensional_potential_stiffness, temperature)
}
/// The nondimensional Gibbs free energy per link as a function of the applied nondimensional potential distance, nondimensional potential stiffness, and temperature.
pub fn nondimensional_gibbs_free_energy_per_link(&self, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64, temperature: &f64) -> f64
{
nondimensional_gibbs_free_energy_per_link(&self.number_of_links, &self.link_length, &self.hinge_mass, nondimensional_potential_distance, nondimensional_potential_stiffness, temperature)
}
/// The nondimensional relative Gibbs free energy as a function of the applied nondimensional potential distance and nondimensional potential stiffness.
pub fn nondimensional_relative_gibbs_free_energy(&self, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64) -> f64
{
nondimensional_relative_gibbs_free_energy(&self.number_of_links, nondimensional_potential_distance, nondimensional_potential_stiffness)
}
/// The nondimensional relative Gibbs free energy per link as a function of the applied nondimensional potential distance and nondimensional potential stiffness.
pub fn nondimensional_relative_gibbs_free_energy_per_link(&self, nondimensional_potential_distance: &f64, nondimensional_potential_stiffness: &f64) -> f64
{
nondimensional_relative_gibbs_free_energy_per_link(&self.number_of_links, nondimensional_potential_distance, nondimensional_potential_stiffness)
}
}