#include <AbstractOdeBasedContractionModel.hpp>

Inheritance diagram for AbstractOdeBasedContractionModel:

Collaboration diagram for AbstractOdeBasedContractionModel:

Public Member Functions
	AbstractOdeBasedContractionModel (unsigned numStateVariables)
virtual void	RunDoNotUpdate (double startTime, double endTime, double timeStep)
void	UpdateStateVariables ()
void	RunAndUpdate (double startTime, double endTime, double timeStep)
Protected Attributes
std::vector< double >	mTemporaryStateVariables
double	mTime

Detailed Description

Abstract base class for ODE-based contraction models. Inherits from AbstractOdeSystem and AbstractContractionModel and deals with the ODE solving.

Usage is either: // for the explicit electromechanics algorithm RunAndUpdate(); // solves and updates state variables to the solution

or // for the implicit electromechanics algorithm RunDoNotUpdate(); // .. UpdateStateVariables(); // if keeping this solution

Definition at line 58 of file AbstractOdeBasedContractionModel.hpp.

Constructor & Destructor Documentation

AbstractOdeBasedContractionModel::AbstractOdeBasedContractionModel ( unsigned numStateVariables ) [inline]

Constructor

Parameters:

numStateVariables number of state variables

Definition at line 74 of file AbstractOdeBasedContractionModel.hpp.

Member Function Documentation

void AbstractOdeBasedContractionModel::RunAndUpdate	(	double	startTime,
		double	endTime,
		double	timeStep
	)		`[inline, virtual]`

Solves the ODEs and updates the state variable to the new solution

Alternative usage: RunDoNotUpdate(); // .. UpdateStateVariables(); // if keeping this solution

Parameters:

startTime	start time
endTime	end time
timeStep	timestep for integrating ODEs

Implements AbstractContractionModel.

Reimplemented in NhsModelWithBackwardSolver.

Definition at line 142 of file AbstractOdeBasedContractionModel.hpp.

References mTime, and AbstractIvpOdeSolver::SolveAndUpdateStateVariable().

Referenced by RunDoNotUpdate().

virtual void AbstractOdeBasedContractionModel::RunDoNotUpdate	(	double	startTime,
		double	endTime,
		double	timeStep
	)		`[inline, virtual]`

Solves the ODEs, but doesn't update the state variables, instead keeps them in a temporary store. Call UpdateStateVariables() to save the new values. Call GetNextActiveTension() to get the active tension corresponding to the new values (if UpdateStateVariables() has not been called). Also saves the time (using endTime).

Parameters: