Antioch::BinaryDiffusionBase< Subclass, CoeffType > Class Template Reference

Base class for binary diffusion models. More...

#include <binary_diffusion_base.h>

Public Member Functions
	BinaryDiffusionBase ()
virtual	~BinaryDiffusionBase ()
void	reset_coeffs (const TransportSpecies< CoeffType > &s_i, const TransportSpecies< CoeffType > &s_j)
template<typename StateType >
void	extrapolate_max_temp (const StateType &Tmax)
	Extrapolate to input maximum temperature, given in [K]. More...
template<typename StateType >
const	operator() (const StateType &T, const StateType &molar_density) const ANTIOCH_AUTOFUNC(StateType

Detailed Description

template<typename Subclass, typename CoeffType>
class Antioch::BinaryDiffusionBase< Subclass, CoeffType >

Base class for binary diffusion models.

Binary diffusion models are those that are used to compute a binary diffusion matrix (in constrast to species diffusion models that are used to directly compute species diffusivities). We use the curiously recurring template pattern; subclasses need to implement op_impl - computes binary diffusion coefficient for the species s_i, s_j reset_coeffs_impl - reset TransportSpecies s_i, s_j

Definition at line 48 of file binary_diffusion_base.h.

Constructor & Destructor Documentation

template<typename Subclass , typename CoeffType >

Antioch::BinaryDiffusionBase< Subclass, CoeffType >::BinaryDiffusionBase ( )

inline

Definition at line 52 of file binary_diffusion_base.h.

{};

template<typename Subclass , typename CoeffType >

virtual Antioch::BinaryDiffusionBase< Subclass, CoeffType >::~BinaryDiffusionBase ( )

inlinevirtual

Definition at line 54 of file binary_diffusion_base.h.

{};

Member Function Documentation

template<typename Subclass , typename CoeffType >

template<typename StateType >

void Antioch::BinaryDiffusionBase< Subclass, CoeffType >::extrapolate_max_temp

(

const StateType &

Tmax

)

Extrapolate to input maximum temperature, given in [K].

Some species binary diffusion models, e.g. MolecularBinaryDiffusion, use interpolated quantities for a given temperature range. If the diffusivity is to be evaluated outside that range, an error will occur. This method will reconstruct the interpolation table, but use a linear extrapolation from the max in the existing table to the input maximum temperature.

This method is only applicable to a subset of binary diffusion models. Others will throw a runtime error.

Definition at line 90 of file binary_diffusion_base.h.

  {
    static_cast<Subclass*>(this)->extrapolate_max_temp_impl(Tmax);
  }

template<typename Subclass , typename CoeffType >

template<typename StateType >

const Antioch::BinaryDiffusionBase< Subclass, CoeffType >::operator()	(	const StateType &	T,
		const StateType &	molar_density
	)		const

template<typename Subclass , typename CoeffType >

void Antioch::BinaryDiffusionBase< Subclass, CoeffType >::reset_coeffs	(	const TransportSpecies< CoeffType > &	s_i,
		const TransportSpecies< CoeffType > &	s_j
	)

Definition at line 82 of file binary_diffusion_base.h.

  {
    static_cast<const Subclass*>(this)->reset_coeffs_impl(s_i,s_j);
  }

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The documentation for this class was generated from the following file:

• src/diffusion/include/antioch/binary_diffusion_base.h