AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM > Class Template Reference

#include <AbstractCardiacMechanicsSolver.hpp>

Inherits ELASTICITY_SOLVER, and AbstractCardiacMechanicsSolverInterface< DIM >.

Inherited by ExplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >, and ImplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >.

Collaboration diagram for AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >:

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List of all members.

Public Member Functions
	AbstractCardiacMechanicsSolver (QuadraticMesh< DIM > &rQuadMesh, SolidMechanicsProblemDefinition< DIM > &rProblemDefinition, std::string outputDirectory)
	~AbstractCardiacMechanicsSolver ()
unsigned	GetTotalNumQuadPoints ()
virtual GaussianQuadratureRule < DIM > *	GetQuadratureRule ()
void	SetConstantFibreSheetDirections (const c_matrix< double, DIM, DIM > &rFibreSheetMatrix)
void	SetVariableFibreSheetDirections (std::string orthoFile, bool definedPerQuadraturePoint)
void	SetCalciumAndVoltage (std::vector< double > &rCalciumConcentrations, std::vector< double > &rVoltages)
virtual void	Solve (double time, double nextTime, double odeTimestep)=0
void	ComputeDeformationGradientAndStretchInEachElement (std::vector< c_matrix< double, DIM, DIM > > &rDeformationGradients, std::vector< double > &rStretches)
Protected Member Functions
virtual bool	IsImplicitSolver ()=0
void	ComputeStressAndStressDerivative (AbstractMaterialLaw< DIM > *pMaterialLaw, c_matrix< double, DIM, DIM > &rC, c_matrix< double, DIM, DIM > &rInvC, double pressure, unsigned elementIndex, unsigned currentQuadPointGlobalIndex, c_matrix< double, DIM, DIM > &rT, FourthOrderTensor< DIM, DIM, DIM, DIM > &rDTdE, bool computeDTdE)
virtual void	GetActiveTensionAndTensionDerivs (double currentFibreStretch, unsigned currentQuadPointGlobalIndex, bool assembleJacobian, double &rActiveTension, double &rDerivActiveTensionWrtLambda, double &rDerivActiveTensionWrtDLambdaDt)=0
Protected Attributes
std::vector < AbstractContractionModel * >	mContractionModelSystems
std::vector< double >	mStretches
unsigned	mTotalQuadPoints
double	mCurrentTime
double	mNextTime
double	mOdeTimestep
c_matrix< double, DIM, DIM >	mConstantFibreSheetDirections
std::vector< c_matrix< double, DIM, DIM > > *	mpVariableFibreSheetDirections
bool	mFibreSheetDirectionsDefinedByQuadraturePoint
c_matrix< double, DIM, DIM > *	mpCurrentElementFibreSheetMatrix
c_vector< double, DIM >	mCurrentElementFibreDirection
Static Protected Attributes
static const unsigned	NUM_VERTICES_PER_ELEMENT = ELASTICITY_SOLVER::NUM_VERTICES_PER_ELEMENT

Detailed Description

template<class ELASTICITY_SOLVER, unsigned DIM>
class AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >

AbstractCardiacMechanicsSolver

Base class to implicit and explicit cardiac mechanics solvers. Inherits from IncompressibleNonlinearElasticitySolver or CompressibleNonlinearElasticityAssembler (depending on what the template parameter ELASTICITY_SOLVER is), and also from AbstractCardiacMechanicsSolverInterface which just declares this classes main public methods.

Overloads ComputeStressAndStressDerivative() which adds on the active tension term to the stress. The child classes hold the contraction models and need to implement a method for getting the active tension from the model.

Definition at line 54 of file AbstractCardiacMechanicsSolver.hpp.

Constructor & Destructor Documentation

template<class ELASTICITY_SOLVER , unsigned DIM>

AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::AbstractCardiacMechanicsSolver	(	QuadraticMesh< DIM > &	rQuadMesh,
		SolidMechanicsProblemDefinition< DIM > &	rProblemDefinition,
		std::string	outputDirectory
	)			`[inline]`

Constructor

Parameters:

	rQuadMesh	A reference to the mesh.
	rProblemDefinition	Object defining body force and boundary conditions
	outputDirectory	The output directory, relative to TEST_OUTPUT

Definition at line 263 of file AbstractCardiacMechanicsSolver.hpp.

References AbstractTetrahedralMesh< ELEMENT_DIM, SPACE_DIM >::GetNumElements(), AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mConstantFibreSheetDirections, AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mpVariableFibreSheetDirections, AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mStretches, and AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mTotalQuadPoints.

template<class ELASTICITY_SOLVER , unsigned DIM>

AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::~AbstractCardiacMechanicsSolver ( ) [inline]

Destructor just deletes memory if it was allocated

Definition at line 291 of file AbstractCardiacMechanicsSolver.hpp.

References AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mpVariableFibreSheetDirections.

Member Function Documentation

template<class ELASTICITY_SOLVER , unsigned DIM>

void AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeDeformationGradientAndStretchInEachElement	(	std::vector< c_matrix< double, DIM, DIM > > &	rDeformationGradients,
		std::vector< double > &	rStretches
	)			`[inline, virtual]`

Compute the deformation gradient, and stretch in the fibre direction, for each element in the mesh. Note: using quadratic interpolation for position, the deformation gradients and stretches actually vary linearly in each element. However, for computational efficiency reasons, when computing deformation gradients and stretches to pass back to the electrophysiology solver, we just assume they are constant in each element (ie ignoring the quadratic correction to the displacement). This means that the (const) deformation gradient and stretch for each element can be computed in advance and stored, and we don't have to worry about interpolation onto the precise location of the cell-model (electrics-mesh) node, just which element it is in, and ditto the electric mesh element centroid.

To compute this (elementwise-)constant F (and from it the constant stretch), we just have to compute F using the deformed positions at the vertices only, with linear bases, rather than all the nodes and quadratic bases.

Parameters:

	rDeformationGradients	A reference of a std::vector in which the deformation gradient in each element will be returned. Must be allocated prior to being passed in.
	rStretches	A reference of a std::vector in which the stretch in each element will be returned. Must be allocated prior to being passed in.

Implements AbstractCardiacMechanicsSolverInterface< DIM >.

Definition at line 399 of file AbstractCardiacMechanicsSolver.hpp.

References AbstractElement< ELEMENT_DIM, SPACE_DIM >::GetNodeGlobalIndex(), AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mConstantFibreSheetDirections, AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mCurrentElementFibreDirection, AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mFibreSheetDirectionsDefinedByQuadraturePoint, AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mpCurrentElementFibreSheetMatrix, AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mpVariableFibreSheetDirections, and AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::NUM_VERTICES_PER_ELEMENT.

template<class ELASTICITY_SOLVER , unsigned DIM>

void AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeStressAndStressDerivative	(	AbstractMaterialLaw< DIM > *	pMaterialLaw,
		c_matrix< double, DIM, DIM > &	rC,
		c_matrix< double, DIM, DIM > &	rInvC,
		double	pressure,
		unsigned	elementIndex,
		unsigned	currentQuadPointGlobalIndex,
		c_matrix< double, DIM, DIM > &	rT,
		FourthOrderTensor< DIM, DIM, DIM, DIM > &	rDTdE,
		bool	computeDTdE
	)			`[inline, protected]`

Overloaded ComputeStressAndStressDerivative(), which computes the passive part of the stress as normal but also calls on the contraction model to get the active stress and adds it on.

Parameters:

	pMaterialLaw	The material law for this element
	rC	The Lagrangian deformation tensor (F^T F)
	rInvC	The inverse of C. Should be computed by the user.
	pressure	The current pressure
	elementIndex	Index of the current element
	currentQuadPointGlobalIndex	The index (assuming an outer loop over elements and an inner loop over quadrature points), of the current quadrature point.
	rT	The stress will be returned in this parameter
	rDTdE	the stress derivative will be returned in this parameter, assuming the final parameter is true
	computeDTdE	A boolean flag saying whether the stress derivative is required or not.

Definition at line 321 of file AbstractCardiacMechanicsSolver.hpp.

template<class ELASTICITY_SOLVER , unsigned DIM>

virtual void AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::GetActiveTensionAndTensionDerivs	(	double	currentFibreStretch,
		unsigned	currentQuadPointGlobalIndex,
		bool	assembleJacobian,
		double &	rActiveTension,
		double &	rDerivActiveTensionWrtLambda,
		double &	rDerivActiveTensionWrtDLambdaDt
	)			`[protected, pure virtual]`

Pure method called in AbstractCardiacMechanicsSolver::ComputeStressAndStressDerivative(), which needs to provide the active tension (and other info if implicit (if the contraction model depends on stretch or stretch rate)) at a particular quadrature point. Takes in the current fibre stretch.

Parameters:

	currentFibreStretch	The stretch in the fibre direction
	currentQuadPointGlobalIndex	quadrature point the integrand is currently being evaluated at in AssembleOnElement
	assembleJacobian	A bool stating whether to assemble the Jacobian matrix.
	rActiveTension	The returned active tension
	rDerivActiveTensionWrtLambda	The returned dT_dLam, derivative of active tension wrt stretch. Only should be set in implicit solvers
	rDerivActiveTensionWrtDLambdaDt	The returned dT_dLamDot, derivative of active tension wrt stretch rate. Only should be set in implicit solver

Implemented in ExplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >, and ImplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >.

Referenced by AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeStressAndStressDerivative().

template<class ELASTICITY_SOLVER , unsigned DIM>

virtual GaussianQuadratureRule<DIM>* AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::GetQuadratureRule ( ) [inline, virtual]

Get the quadrature rule used in the elements.

Implements AbstractCardiacMechanicsSolverInterface< DIM >.

Definition at line 168 of file AbstractCardiacMechanicsSolver.hpp.

template<class ELASTICITY_SOLVER , unsigned DIM>

unsigned AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::GetTotalNumQuadPoints ( ) [inline, virtual]

Get the total number of quad points in the mesh. Pure, implemented in concrete solver

Implements AbstractCardiacMechanicsSolverInterface< DIM >.

Definition at line 162 of file AbstractCardiacMechanicsSolver.hpp.

template<class ELASTICITY_SOLVER , unsigned DIM>

virtual bool AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::IsImplicitSolver ( ) [protected, pure virtual]

Whether the solver is implicit or not (ie whether the contraction model depends on lambda (and depends on lambda at the current time)). For whether dTa_dLam dependent terms need to be added to the Jacbobian

Implemented in ExplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >, and ImplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >.

Referenced by AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeStressAndStressDerivative().

template<class ELASTICITY_SOLVER , unsigned DIM>

void AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::SetCalciumAndVoltage	(	std::vector< double > &	rCalciumConcentrations,
		std::vector< double > &	rVoltages
	)			`[inline, virtual]`

Set the intracellular Calcium concentrations and voltages at each quad point. Pure.

Implicit solvers (for contraction models which are functions of stretch (and maybe stretch rate) would integrate the contraction model with this Ca/V/t using the current stretch (ie inside AssembleOnElement, ie inside GetActiveTensionAndTensionDerivs). Explicit solvers (for contraction models which are NOT functions of stretch can immediately integrate the contraction models to get the active tension.

Parameters:

	rCalciumConcentrations	Reference to a vector of intracellular calcium concentrations at each quadrature point
	rVoltages	Reference to a vector of voltages at each quadrature point

Implements AbstractCardiacMechanicsSolverInterface< DIM >.

Definition at line 302 of file AbstractCardiacMechanicsSolver.hpp.

References AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mContractionModelSystems, and AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mTotalQuadPoints.

template<class ELASTICITY_SOLVER , unsigned DIM>

void AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::SetConstantFibreSheetDirections ( const c_matrix< double, DIM, DIM > & rFibreSheetMatrix ) [inline, virtual]

Set a constant fibre-sheet-normal direction (a matrix) to something other than the default (fibres in X-direction, sheet in the XY plane)

Parameters:

rFibreSheetMatrix

The fibre-sheet-normal matrix (fibre dir the first column, normal-to-fibre-in sheet in second column, sheet-normal in third column).

Implements AbstractCardiacMechanicsSolverInterface< DIM >.

Definition at line 500 of file AbstractCardiacMechanicsSolver.hpp.

References EXCEPTION, and AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mConstantFibreSheetDirections.

template<class ELASTICITY_SOLVER , unsigned DIM>

void AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::SetVariableFibreSheetDirections	(	std::string	orthoFile,
		bool	definedPerQuadraturePoint
	)			`[inline, virtual]`

Set a variable fibre-sheet-normal direction (matrices), from file. If the second parameter is false, there should be one fibre-sheet definition for each element; otherwise there should be one fibre-sheet definition for each *quadrature point* in the mesh. In the first case, the file should be a .ortho file (ie each line has the fibre dir, sheet dir, normal dir for that element), in the second it should have .orthoquad as the format.

Parameters:

	orthoFile	the file containing the fibre/sheet directions
	definedPerQuadraturePoint	whether the fibre-sheet definitions are for each quadrature point in the mesh (if not, one for each element is assumed).

Implements AbstractCardiacMechanicsSolverInterface< DIM >.

Definition at line 469 of file AbstractCardiacMechanicsSolver.hpp.

References RelativeTo::ChasteSourceRoot, EXCEPTION, FibreReader< DIM >::GetNextFibreSheetAndNormalMatrix(), FibreReader< DIM >::GetNumLinesOfData(), AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mFibreSheetDirectionsDefinedByQuadraturePoint, AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mpVariableFibreSheetDirections, and AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mTotalQuadPoints.

template<class ELASTICITY_SOLVER , unsigned DIM>

virtual void AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::Solve	(	double	time,
		double	nextTime,
		double	odeTimestep
	)			`[pure virtual]`

Solve for the deformation, integrating the contraction model ODEs.

Parameters:

	time	the current time
	nextTime	the next time
	odeTimestep	the ODE timestep

Implements AbstractCardiacMechanicsSolverInterface< DIM >.

Implemented in ExplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >, and ImplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >.

Member Data Documentation

template<class ELASTICITY_SOLVER , unsigned DIM>

c_matrix<double,DIM,DIM> AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mConstantFibreSheetDirections [protected]

The fibre-sheet-normal directions (in a matrix), if constant (defaults to the identity, ie fibres in the X-direction, sheet in the XY plane)

Definition at line 69 of file AbstractCardiacMechanicsSolver.hpp.

Referenced by AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::AbstractCardiacMechanicsSolver(), AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeDeformationGradientAndStretchInEachElement(), AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeStressAndStressDerivative(), and AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::SetConstantFibreSheetDirections().

template<class ELASTICITY_SOLVER , unsigned DIM>

std::vector<AbstractContractionModel*> AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mContractionModelSystems [protected]

Vector of contraction model (pointers). One for each quadrature point. Note the indexing: the i-th entry corresponds to the i-th global quad point, when looping over elements and then quad points

Definition at line 49 of file AbstractCardiacMechanicsSolver.hpp.

template<class ELASTICITY_SOLVER , unsigned DIM>

c_vector<double,DIM> AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mCurrentElementFibreDirection [protected]

The fibre direction for the current element being assembled on

Definition at line 86 of file AbstractCardiacMechanicsSolver.hpp.

Referenced by AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeDeformationGradientAndStretchInEachElement(), and AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeStressAndStressDerivative().

template<class ELASTICITY_SOLVER , unsigned DIM>

double AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mCurrentTime [protected]

Current time

Definition at line 62 of file AbstractCardiacMechanicsSolver.hpp.

Referenced by AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeStressAndStressDerivative(), ImplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::GetActiveTensionAndTensionDerivs(), ImplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::Solve(), and ExplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::Solve().

template<class ELASTICITY_SOLVER , unsigned DIM>

bool AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mFibreSheetDirectionsDefinedByQuadraturePoint [protected]

Whether the fibre-sheet directions that where read in where define per element or per quadrature point. Only valid if mpVariableFibreSheetDirections!=NULL

Definition at line 81 of file AbstractCardiacMechanicsSolver.hpp.

Referenced by AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeDeformationGradientAndStretchInEachElement(), AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeStressAndStressDerivative(), and AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::SetVariableFibreSheetDirections().

template<class ELASTICITY_SOLVER , unsigned DIM>

double AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mNextTime [protected]

Time to which the solver has been asked to solve to

Definition at line 64 of file AbstractCardiacMechanicsSolver.hpp.

Referenced by AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeStressAndStressDerivative(), ImplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::GetActiveTensionAndTensionDerivs(), ImplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::Solve(), and ExplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::Solve().

template<class ELASTICITY_SOLVER , unsigned DIM>

double AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mOdeTimestep [protected]

Time used to integrate the contraction model

Definition at line 66 of file AbstractCardiacMechanicsSolver.hpp.

Referenced by ImplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::GetActiveTensionAndTensionDerivs(), ImplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::Solve(), and ExplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::Solve().

template<class ELASTICITY_SOLVER , unsigned DIM>

c_matrix<double,DIM,DIM>* AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mpCurrentElementFibreSheetMatrix [protected]

(Pointer to) the fibre-sheet matrix for the current element being assembled on

Definition at line 84 of file AbstractCardiacMechanicsSolver.hpp.

Referenced by AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeDeformationGradientAndStretchInEachElement(), and AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeStressAndStressDerivative().

template<class ELASTICITY_SOLVER , unsigned DIM>

std::vector<c_matrix<double,DIM,DIM> >* AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mpVariableFibreSheetDirections [protected]

The fibre-sheet-normal directions (matrices), one for each element. Only non-NULL if SetVariableFibreSheetDirections() is called, if not mConstantFibreSheetDirections is used instead

Definition at line 75 of file AbstractCardiacMechanicsSolver.hpp.

Referenced by AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::AbstractCardiacMechanicsSolver(), AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeDeformationGradientAndStretchInEachElement(), AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeStressAndStressDerivative(), AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::SetVariableFibreSheetDirections(), and AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::~AbstractCardiacMechanicsSolver().

template<class ELASTICITY_SOLVER , unsigned DIM>

std::vector<double> AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mStretches [protected]

Stored stretches (in fibre direction, at each quadrature point). Should be stored when GetActiveTensionAndTensionDerivs() is called, and can be used either in that timestep (implicit solver), or the next timestep (explicit solver)

Definition at line 56 of file AbstractCardiacMechanicsSolver.hpp.

Referenced by AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::AbstractCardiacMechanicsSolver(), ImplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::GetActiveTensionAndTensionDerivs(), ExplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::GetActiveTensionAndTensionDerivs(), ImplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::rGetFibreStretches(), ImplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::Solve(), and ExplicitCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::Solve().

template<class ELASTICITY_SOLVER , unsigned DIM>

unsigned AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::mTotalQuadPoints [protected]

Total number of quad points in the (mechanics) mesh

Definition at line 59 of file AbstractCardiacMechanicsSolver.hpp.

template<class ELASTICITY_SOLVER , unsigned DIM>

const unsigned AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::NUM_VERTICES_PER_ELEMENT = ELASTICITY_SOLVER::NUM_VERTICES_PER_ELEMENT [static, protected]

Useful const from base class

Definition at line 42 of file AbstractCardiacMechanicsSolver.hpp.

Referenced by AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >::ComputeDeformationGradientAndStretchInEachElement().

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

heart/src/solver/mechanics/AbstractCardiacMechanicsSolver.hpp

AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM > Class Template Reference

Public Member Functions

Protected Member Functions

Protected Attributes

Static Protected Attributes

Detailed Description

template<class ELASTICITY_SOLVER, unsigned DIM> class AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >

Constructor & Destructor Documentation

Member Function Documentation

Member Data Documentation

template<class ELASTICITY_SOLVER, unsigned DIM>
class AbstractCardiacMechanicsSolver< ELASTICITY_SOLVER, DIM >