Abstract class for Heat transfer Finite Element classes. More...

Inheritance diagram for Equa_Therm< T_, NEN_, NEE_, NSN_, NSE_ >:

Public Member Functions
	Equa_Therm ()
	Default constructor. More...

virtual	~Equa_Therm ()
	Destructor.

virtual void	setStab ()
	Set stabilized formulation. More...

virtual void	LCapacityToLHS (real_t coef=1)
	Add lumped capacity contribution to left-hand side. More...

virtual void	LCapacityToRHS (real_t coef=1)
	Add lumped capacity contribution to right-hand side. More...

virtual void	CapacityToLHS (real_t coef=1)
	Add consistent capacity contribution to left-hand side. More...

virtual void	CapacityToRHS (real_t coef=1)
	Add consistent capacity contribution to right-hand side. More...

void	setLumpedCapacity ()
	Add lumped capacity contribution to left and right-hand sides taking into account time integration scheme.

void	setCapacity ()
	Add consistent capacity contribution to left and right-hand sides taking into account time integration scheme.

virtual void	Diffusion (real_t coef=1.)
	Add diffusion term to left-hand side.

virtual void	DiffusionToRHS (real_t coef=1.)
	Add diffusion term to right-hand side.

void	setDiffusion ()
	Add diffusion contribution to left and/or right-hand side taking into account time integration scheme.

virtual void	Convection (real_t coef=1.)
	Add convection term to left-hand side.

virtual void	ConvectionToRHS (real_t coef=1.)
	Add convection term to right-hand side.

void	setConvection ()
	Add convection contribution to left and/or right-hand side taking into account time integration scheme.

virtual void	BodyRHS (const Vect< real_t > &bf, int opt=GLOBAL_ARRAY)
	Add body right-hand side term to right-hand side. More...

virtual void	BoundaryRHS (const Vect< real_t > &sf, int opt=GLOBAL_ARRAY)
	Add boundary right-hand side term to right-hand side. More...

void	build ()
	Build the linear system of equations. More...

void	build (TimeStepping &s)
	Build the linear system of equations. More...

void	build (EigenProblemSolver &e)
	Build the linear system for an eigenvalue problem. More...

int	runTransient ()
	Run one time step. More...

int	runOneTimeStep ()
	Run one time step. More...

int	run ()
	Run the equation. More...

void	setRhoCp (const real_t &rhocp)
	Set product of Density by Specific heat (constants)

void	setConductivity (const real_t &diff)
	Set (constant) thermal conductivity.

void	RhoCp (const string &exp)
	Set product of Density by Specific heat given by an algebraic expression.

void	Conduc (const string &exp)
	Set thermal conductivity given by an algebraic expression.

void	updateBC (const Element &el, const Vect< T_ > &bc)
	Update Right-Hand side by taking into account essential boundary conditions. More...

void	updateBC (const Vect< T_ > &bc)
	Update Right-Hand side by taking into account essential boundary conditions. More...

void	DiagBC (int dof_type=NODE_DOF, int dof=0)
	Update element matrix to impose bc by diagonalization technique. More...

void	LocalNodeVector (Vect< T_ > &b)
	Localize Element Vector from a Vect instance. More...

void	ElementNodeVector (const Vect< T_ > &b, LocalVect< T_, NEE_ > &be)
	Localize Element Vector from a Vect instance. More...

void	ElementNodeVector (const Vect< T_ > &b, LocalVect< T_, NEN_ > &be, int dof)
	Localize Element Vector from a Vect instance. More...

void	ElementNodeVectorSingleDOF (const Vect< T_ > &b, LocalVect< T_, NEN_ > &be)
	Localize Element Vector from a Vect instance. More...

void	ElementSideVector (const Vect< T_ > &b, LocalVect< T_, NSE_ > &be)
	Localize Element Vector from a Vect instance. More...

void	ElementVector (const Vect< T_ > &b, int dof_type=NODE_FIELD, int flag=0)
	Localize Element Vector. More...

void	SideVector (const Vect< T_ > &b)
	Localize Side Vector. More...

void	ElementNodeCoordinates ()
	Localize coordinates of element nodes. More...

void	SideNodeCoordinates ()
	Localize coordinates of side nodes. More...

void	ElementAssembly (Matrix< T_ > *A)
	Assemble element matrix into global one. More...

void	ElementAssembly (PETScMatrix< T_ > &A)
	Assemble element matrix into global one. More...

void	ElementAssembly (PETScVect< T_ > &b)
	Assemble element right-hand side vector into global one. More...

void	ElementAssembly (BMatrix< T_ > &A)
	Assemble element matrix into global one. More...

void	ElementAssembly (SkSMatrix< T_ > &A)
	Assemble element matrix into global one. More...

void	ElementAssembly (SkMatrix< T_ > &A)
	Assemble element matrix into global one. More...

void	ElementAssembly (SpMatrix< T_ > &A)
	Assemble element matrix into global one. More...

void	ElementAssembly (TrMatrix< T_ > &A)
	Assemble element matrix into global one. More...

void	ElementAssembly (Vect< T_ > &v)
	Assemble element vector into global one. More...

void	SideAssembly (PETScMatrix< T_ > &A)
	Assemble side matrix into global one. More...

void	SideAssembly (PETScVect< T_ > &b)
	Assemble side right-hand side vector into global one. More...

void	SideAssembly (Matrix< T_ > *A)
	Assemble side (edge or face) matrix into global one. More...

void	SideAssembly (SkSMatrix< T_ > &A)
	Assemble side (edge or face) matrix into global one. More...

void	SideAssembly (SkMatrix< T_ > &A)
	Assemble side (edge or face) matrix into global one. More...

void	SideAssembly (SpMatrix< T_ > &A)
	Assemble side (edge or face) matrix into global one. More...

void	SideAssembly (Vect< T_ > &v)
	Assemble side (edge or face) vector into global one. More...

void	DGElementAssembly (Matrix< T_ > *A)
	Assemble element matrix into global one for the Discontinuous Galerkin approximation. More...

void	DGElementAssembly (SkSMatrix< T_ > &A)
	Assemble element matrix into global one for the Discontinuous Galerkin approximation. More...

void	DGElementAssembly (SkMatrix< T_ > &A)
	Assemble element matrix into global one for the Discontinuous Galerkin approximation. More...

void	DGElementAssembly (SpMatrix< T_ > &A)
	Assemble element matrix into global one for the Discontinuous Galerkin approximation. More...

void	DGElementAssembly (TrMatrix< T_ > &A)
	Assemble element matrix into global one for the Discontinuous Galerkin approximation. More...

void	AxbAssembly (const Element &el, const Vect< T_ > &x, Vect< T_ > &b)
	Assemble product of element matrix by element vector into global vector. More...

void	AxbAssembly (const Side &sd, const Vect< T_ > &x, Vect< T_ > &b)
	Assemble product of side matrix by side vector into global vector. More...

size_t	getNbNodes () const
	Return number of element nodes.

size_t	getNbEq () const
	Return number of element equations.

void	setInitialSolution (const Vect< T_ > &u)
	Set initial solution (previous time step)

real_t	setMaterialProperty (const string &exp, const string &prop)
	Define a material property by an algebraic expression. More...

void	setMesh (Mesh &m)
	Define mesh and renumber DOFs after removing imposed ones.

Mesh &	getMesh () const
	Return reference to Mesh instance. More...

LinearSolver< T_ > &	getLinearSolver ()
	Return reference to linear solver instance.

void	setSolver (Iteration ls, Preconditioner pc=IDENT_PREC)
	Choose solver for the linear system. More...

int	SolveLinearSystem (Matrix< T_ > *A, Vect< T_ > &b, Vect< T_ > &x)
	Solve the linear system. More...

Public Attributes
LocalMatrix< T_, NEE_, NEE_ >	eMat
	LocalMatrix instance containing local matrix associated to current element.

LocalMatrix< T_, NSE_, NSE_ >	sMat
	LocalMatrix instance containing local matrix associated to current side.

LocalVect< T_, NEE_ >	ePrev
	LocalVect instance containing local vector associated to current element. More...

LocalVect< T_, NEE_ >	eRHS
	LocalVect instance containing local right-hand side vector associated to current element.

LocalVect< T_, NEE_ >	eRes
	LocalVect instance containing local residual vector associated to current element.

LocalVect< T_, NSE_ >	sRHS
	LocalVect instance containing local right-hand side vector associated to current side.

Protected Member Functions
void	setMaterial ()
	Set material properties.

void	Init (const Element *el)
	Set element arrays to zero.

void	Init (const Side *sd)
	Set side arrays to zero.

Detailed Description

template<class T_, size_t NEN_, size_t NEE_, size_t NSN_, size_t NSE_>
class OFELI::Equa_Therm< T_, NEN_, NEE_, NSN_, NSE_ >

Abstract class for Heat transfer Finite Element classes.

Template Parameters

<T_>	data type (real_t, float, ...)
<NEN>	Number of element nodes
<NEE_>	Number of element equations
<NSN_>	Number of side nodes
<NSE_>	Number of side equations

Constructor & Destructor Documentation

Equa_Therm ( )

Default constructor.

Constructs an empty equation.

Member Function Documentation

virtual void setStab ( )

virtual

Set stabilized formulation.

Stabilized variational formulations are to be used when the Péclet number is large.
By default, no stabilization is used.

virtual void LCapacityToLHS ( real_t coef = 1 )

virtual

Add lumped capacity contribution to left-hand side.

Parameters

[in] coef coefficient to multiply by the matrix before adding [Default: 1]

Reimplemented in DC2DT3, DC3DT4, DC3DAT3, and DC1DL2.

virtual void LCapacityToRHS ( real_t coef = 1 )

virtual

Add lumped capacity contribution to right-hand side.

Parameters

[in] coef coefficient to multiply by the vector before adding [Default: 1]

Reimplemented in DC2DT3, DC3DT4, DC3DAT3, and DC1DL2.

virtual void CapacityToLHS ( real_t coef = 1 )

virtual

Add consistent capacity contribution to left-hand side.

Parameters

[in] coef coefficient to multiply by the matrix before adding [Default: 1]

Reimplemented in DC2DT3, DC3DT4, DC3DAT3, and DC1DL2.

virtual void CapacityToRHS ( real_t coef = 1 )

virtual

Add consistent capacity contribution to right-hand side.

Parameters

[in] coef coefficient to multiply by the vector before adding [Default: 1]

Reimplemented in DC2DT3, DC3DT4, DC3DAT3, and DC1DL2.

virtual void BodyRHS	(	const Vect< real_t > &	bf,
		int	opt = `GLOBAL_ARRAY`
	)

virtual

Add body right-hand side term to right-hand side.

Parameters

[in]	bf	Vector containing source at element nodes.
[in]	opt	Vector is local (`LOCAL_ARRAY`) with size `3` or global (`GLOBAL_ARRAY`) with size = Number of nodes [Default: `GLOBAL_ARRAY`].

Reimplemented in DC2DT3, DC3DT4, DC2DT6, DC1DL2, and DC3DAT3.

virtual void BoundaryRHS	(	const Vect< real_t > &	sf,
		int	opt = `GLOBAL_ARRAY`
	)

virtual

Add boundary right-hand side term to right-hand side.

Parameters

[in]	sf	Vector containing source at side nodes.
[in]	opt	Vector is local (`LOCAL_ARRAY`) with size `3` or global (`GLOBAL_ARRAY`) with size = Number of nodes [Default: `GLOBAL_ARRAY`].

Reimplemented in DC2DT3, DC3DT4, DC2DT6, DC1DL2, and DC3DAT3.

void build ( )

Build the linear system of equations.

Before using this function, one must have properly selected appropriate options for:

The choice of a steady state or transient analysis. By default, the analysis is stationary
In the case of transient analysis, the choice of a time integration scheme and a lumped or consistent capacity matrix. If transient analysis is chosen, the lumped capacity matrix option is chosen by default, and the implicit Euler scheme is used by default for time integration.

void build ( TimeStepping & s )

Build the linear system of equations.

Before using this function, one must have properly selected appropriate options for:

The choice of a steady state or transient analysis. By default, the analysis is stationary
In the case of transient analysis, the choice of a time integration scheme and a lumped or consistent capacity matrix. If transient analysis is chosen, the lumped capacity matrix option is chosen by default, and the implicit Euler scheme is used by default for time integration.

Parameters

[in] s Reference to used TimeStepping instance

void build ( EigenProblemSolver & e )

Build the linear system for an eigenvalue problem.

Parameters

[in] e Reference to used EigenProblemSolver instance

int runTransient ( )

Run one time step.

This function performs one time step in equation solving. It is to be used only if a TRANSIENT analysis is required.

Returns: Return error from the linear system solver

int runOneTimeStep ( )

Run one time step.

This function performs one time step in equation solving. It is identical to the function runTransient.

Returns: Return error from the linear system solver

int run ( )

Run the equation.

If the analysis (see function setAnalysis) is STEADY_STATE, then the function solves the stationary equation.
If the analysis is TRANSIENT, then the function performs time stepping until the final time is reached.

void updateBC	(	const Element &	el,
		const Vect< T_ > &	bc
	)

inherited

Update Right-Hand side by taking into account essential boundary conditions.

Parameters

[in]	el	Reference to current element instance
[in]	bc	Vector that contains imposed values at all DOFs

void updateBC ( const Vect< T_ > & bc )

inherited

Update Right-Hand side by taking into account essential boundary conditions.

Parameters

[in] bc Vector that contains imposed values at all DOFs

Remarks: The current element is pointed by _theElement

void DiagBC	(	int	dof_type = `NODE_DOF`,
		int	dof = `0`
	)

inherited

Update element matrix to impose bc by diagonalization technique.

Parameters

[in]	dof_type	DOF type option. To choose among the enumerated values: `NODE_FIELD`, DOFs are supported by nodes [Default] `ELEMENT_FIELD`, DOFs are supported by elements `SIDE_FIELD`, DOFs are supported by sides
[in]	dof	DOF setting: `= 0`, All DOFs are taken into account [Default] `!= 0`, Only DOF No. `dof` is handled in the system

void LocalNodeVector ( Vect< T_ > & b )

inherited

Localize Element Vector from a Vect instance.

Parameters

[in] b Reference to global vector to be localized. The resulting local vector can be accessed by attribute ePrev. This member function is to be used if a constructor with Element was invoked.

void ElementNodeVector	(	const Vect< T_ > &	b,
		LocalVect< T_, NEE_ > &	be
	)

inherited

Localize Element Vector from a Vect instance.

Parameters

[in]	b	Global vector to be localized.
[out]	be	Local vector, the length of which is the total number of element equations.

Remarks: All degrees of freedom are transferred to the local vector

void ElementNodeVector	(	const Vect< T_ > &	b,
		LocalVect< T_, NEN_ > &	be,
		int	dof
	)

inherited

Localize Element Vector from a Vect instance.

Parameters

[in]	b	Global vector to be localized.
[out]	be	Local vector, the length of which is the total number of element equations.
[in]	dof	Degree of freedom to transfer to the local vector

Remarks: Only yhe dega dof is transferred to the local vector

void ElementNodeVectorSingleDOF	(	const Vect< T_ > &	b,
		LocalVect< T_, NEN_ > &	be
	)

inherited

Localize Element Vector from a Vect instance.

Parameters

[in]	b	Global vector to be localized.
[out]	be	Local vector, the length of which is the total number of element equations.

Remarks: Vector b is assumed to contain only one degree of freedom by node.

void ElementSideVector	(	const Vect< T_ > &	b,
		LocalVect< T_, NSE_ > &	be
	)

inherited

Localize Element Vector from a Vect instance.

Parameters

[in]	b	Global vector to be localized.
[out]	be	Local vector, the length of which is

void ElementVector	(	const Vect< T_ > &	b,
		int	dof_type = `NODE_FIELD`,
		int	flag = `0`
	)

inherited

Localize Element Vector.

Parameters

[in]	b	Global vector to be localized
[in]	dof_type	DOF type option. To choose among the enumerated values: `NODE_FIELD`, DOFs are supported by nodes [Default] `ELEMENT_FIELD`, DOFs are supported by elements `SIDE_FIELD`, DOFs are supported by sides
[in]	flag	Option to set: `= 0`, All DOFs are taken into account [Default] `!= 0`, Only DOF number `dof` is handled in the system The resulting local vector can be accessed by attribute `ePrev`.

Remarks: This member function is to be used if a constructor with Element was invoked. It uses the Element pointer _theElement

void SideVector ( const Vect< T_ > & b )

inherited

Localize Side Vector.

Parameters

[in]

b

Global vector to be localized

NODE_FIELD, DOFs are supported by nodes [ default ]
ELEMENT_FIELD, DOFs are supported by elements
SIDE_FIELD, DOFs are supported by sides

The resulting local vector can be accessed by attribute ePrev.

Remarks: This member function is to be used if a constructor with Side was invoked. It uses the Side pointer _theSide

void ElementNodeCoordinates ( )

inherited

Localize coordinates of element nodes.

Coordinates are stored in array _x[0], _x[1], ... which are instances of class Point<real_t>

Remarks: This member function uses the Side pointer _theSide

void SideNodeCoordinates ( )

inherited

Localize coordinates of side nodes.

Coordinates are stored in array _x[0], _x[1], ... which are instances of class Point<real_t>

Remarks: This member function uses the Element pointer _theElement

void ElementAssembly ( Matrix< T_ > * A )

inherited

Assemble element matrix into global one.

Parameters

A	Pointer to global matrix (abstract class: can be any of classes SkSMatrix, SkMatrix, SpMatrix)

Warning: The element pointer is given by the global variable theElement

void ElementAssembly ( PETScMatrix< T_ > & A )

inherited

Assemble element matrix into global one.

Parameters

A	Reference to global matrix

Warning: The element pointer is given by the global variable theElement

void ElementAssembly ( PETScVect< T_ > & b )

inherited

Assemble element right-hand side vector into global one.

Parameters

b	Reference to global right-hand side vector

Warning: The element pointer is given by the global variable theElement

void ElementAssembly ( BMatrix< T_ > & A )

inherited

Assemble element matrix into global one.

Parameters

A	Global matrix stored as a BMatrix instance

Warning: The element pointer is given by the global variable theElement

void ElementAssembly ( SkSMatrix< T_ > & A )

inherited

Assemble element matrix into global one.

Parameters

A	Global matrix stored as an SkSMatrix instance

Warning: The element pointer is given by the global variable theElement

void ElementAssembly ( SkMatrix< T_ > & A )

inherited

Assemble element matrix into global one.

Parameters

[in] A Global matrix stored as an SkMatrix instance

Warning: The element pointer is given by the global variable theElement

void ElementAssembly ( SpMatrix< T_ > & A )

inherited

Assemble element matrix into global one.

Parameters

[in] A Global matrix stored as an SpMatrix instance

Warning: The element pointer is given by the global variable theElement

void ElementAssembly ( TrMatrix< T_ > & A )

inherited

Assemble element matrix into global one.

Parameters

[in] A Global matrix stored as an TrMatrix instance

Warning: The element pointer is given by the global variable theElement

void ElementAssembly ( Vect< T_ > & v )

inherited

Assemble element vector into global one.

Parameters

[in] v Global vector (Vect instance)

Warning: The element pointer is given by the global variable theElement

void SideAssembly ( PETScMatrix< T_ > & A )

inherited

Assemble side matrix into global one.

Parameters

A	Reference to global matrix

Warning: The side pointer is given by the global variable theSide

void SideAssembly ( PETScVect< T_ > & b )

inherited

Assemble side right-hand side vector into global one.

Parameters

b	Reference to global right-hand side vector

Warning: The side pointer is given by the global variable theSide

void SideAssembly ( Matrix< T_ > * A )

inherited

Assemble side (edge or face) matrix into global one.

Parameters

A	Pointer to global matrix (abstract class: can be any of classes SkSMatrix, SkMatrix, SpMatrix)

Warning: The side pointer is given by the global variable theSide

void SideAssembly ( SkSMatrix< T_ > & A )

inherited

Assemble side (edge or face) matrix into global one.

Parameters

[in] A Global matrix stored as an SkSMatrix instance

Warning: The side pointer is given by the global variable theSide

void SideAssembly ( SkMatrix< T_ > & A )

inherited

Assemble side (edge or face) matrix into global one.

Parameters

[in] A Global matrix stored as an SkMatrix instance

Warning: The side pointer is given by the global variable theSide

void SideAssembly ( SpMatrix< T_ > & A )

inherited

Assemble side (edge or face) matrix into global one.

Parameters

[in] A Global matrix stored as an SpMatrix instance

Warning: The side pointer is given by the global variable theSide

void SideAssembly ( Vect< T_ > & v )

inherited

Assemble side (edge or face) vector into global one.

Parameters

[in] v Global vector (Vect instance)

Warning: The side pointer is given by the global variable theSide

void DGElementAssembly ( Matrix< T_ > * A )

inherited

Assemble element matrix into global one for the Discontinuous Galerkin approximation.

Parameters

A	Pointer to global matrix (abstract class: can be any of classes SkSMatrix, SkMatrix, SpMatrix)

Warning: The element pointer is given by the global variable theElement

void DGElementAssembly ( SkSMatrix< T_ > & A )

inherited

Assemble element matrix into global one for the Discontinuous Galerkin approximation.

Parameters

A	Global matrix stored as an SkSMatrix instance

Warning: The element pointer is given by the global variable theElement

void DGElementAssembly ( SkMatrix< T_ > & A )

inherited

Assemble element matrix into global one for the Discontinuous Galerkin approximation.

Parameters

[in] A Global matrix stored as an SkMatrix instance

Warning: The element pointer is given by the global variable theElement

void DGElementAssembly ( SpMatrix< T_ > & A )

inherited

Assemble element matrix into global one for the Discontinuous Galerkin approximation.

Parameters

[in] A Global matrix stored as an SpMatrix instance

Warning: The element pointer is given by the global variable theElement

void DGElementAssembly ( TrMatrix< T_ > & A )

inherited

Assemble element matrix into global one for the Discontinuous Galerkin approximation.

Parameters

[in] A Global matrix stored as an TrMatrix instance

Warning: The element pointer is given by the global variable theElement

void AxbAssembly	(	const Element &	el,
		const Vect< T_ > &	x,
		Vect< T_ > &	b
	)

inherited

Assemble product of element matrix by element vector into global vector.

Parameters

[in]	el	Reference to Element instance
[in]	x	Global vector to multiply by (Vect instance)
[out]	b	Global vector to add (Vect instance)

void AxbAssembly	(	const Side &	sd,
		const Vect< T_ > &	x,
		Vect< T_ > &	b
	)

inherited

Assemble product of side matrix by side vector into global vector.

Parameters

[in]	sd	Reference to Side instance
[in]	x	Global vector to multiply by (Vect instance)
[out]	b	Global vector (Vect instance)

real_t setMaterialProperty	(	const string &	exp,
		const string &	prop
	)

inherited

Define a material property by an algebraic expression.

Parameters

[in]	exp	Algebraic expression
[in]	prop	Property name

Returns

Return value in expression evaluation:

=0, Normal evaluation
!=0, An error message is displayed

Mesh& getMesh ( ) const

inherited

Return reference to Mesh instance.

Returns: Reference to Mesh instance

void setSolver	(	Iteration	ls,
		Preconditioner	pc = `IDENT_PREC`
	)

inherited

Choose solver for the linear system.

Parameters

[in]	ls	Solver of the linear system. To choose among the enumerated values: `DIRECT_SOLVER`, `CG_SOLVER`, `GMRES_SOLVER` `DIRECT_SOLVER`, Use a facorization solver [default] `CG_SOLVER`, Conjugate Gradient iterative solver `CGS_SOLVER`, Squared Conjugate Gradient iterative solver `BICG_SOLVER`, BiConjugate Gradient iterative solver `BICG_STAB_SOLVER`, BiConjugate Gradient Stabilized iterative solver `GMRES_SOLVER`, GMRES iterative solver `QMR_SOLVER`, QMR iterative solver
[in]	pc	Preconditioner to associate to the iterative solver. If the direct solver was chosen for the first argument this argument is not used. Otherwise choose among the enumerated values: `IDENT_PREC`, Identity preconditioner (no preconditioning [default]) `DIAG_PREC`, Diagonal preconditioner `ILU_PREC`, Incomplete LU factorization preconditioner

int SolveLinearSystem	(	Matrix< T_ > *	A,
		Vect< T_ > &	b,
		Vect< T_ > &	x
	)

inherited

Solve the linear system.

Parameters

[in]	A	Pointer to matrix of the system (Instance of class SpMatrix)
[in]	b	Vector containing right-hand side
[in,out]	x	Vector containing initial guess of solution on input, actual solution on output

Member Data Documentation

LocalVect<T_,NEE_> ePrev

inherited

LocalVect instance containing local vector associated to current element.

This vector has been stored as the one at previous iteration or previous time step

Public Member Functions

Public Attributes

Protected Member Functions

Detailed Description

template<class T_, size_t NEN_, size_t NEE_, size_t NSN_, size_t NSE_> class OFELI::Equa_Therm< T_, NEN_, NEE_, NSN_, NSE_ >

Constructor & Destructor Documentation

Member Function Documentation

Member Data Documentation

template<class T_, size_t NEN_, size_t NEE_, size_t NSN_, size_t NSE_>
class OFELI::Equa_Therm< T_, NEN_, NEE_, NSN_, NSE_ >