Concept of physical algoritm using components (set numerical method). This allow to program complex algorithms quickly by components. In project require to prototype according to physics assumptions. Each of these components are programmed or support a wide (large) implementation of discretization. For example, Nujic 1995 propose to use ENO techniques to compute flux and some source special treatment to take account ... Model of an explicit conservative scheme with source terms (energy and bed slope). Switch components to re-configure the algorithm (Nujic flux) but E. McNeil use HLL. This kind of flexibility must be supported particularly in industrial projects since ... to be completed. More...

#include <Testvs19_ProtoPhysicalAlgorithm.h>

Inheritance diagram for Testvs19::ProtoPhysicalAlgorithm:

Public Member Functions
	ProtoPhysicalAlgorithm (std::string aName, dbpp::FluxAlgorithm *aFluxAlgo)
	Ctor from name and flux algorithm.
void	calculate (dbpp::PhysicalSystem aPhysys, const std::shared_ptr< dbpp::FiniteVolumeDiscretization > &aGlbdiscr, Sfx::Simulation aSim) override final
	Numerical.
std::string	getName () const noexcept
	Getter.
Public Member Functions inherited from Sfx::PhysicalAlgorithm
virtual	~PhysicalAlgorithm ()=default
	dtor
virtual bool	isTimeDependent () const noexcept
	time dependent algorihm

Private Attributes
std::string	m_name
dbpp::FluxAlgorithm *	m_fluxAlgo

Detailed Description

Concept of physical algoritm using components (set numerical method). This allow to program complex algorithms quickly by components. In project require to prototype according to physics assumptions. Each of these components are programmed or support a wide (large) implementation of discretization. For example, Nujic 1995 propose to use ENO techniques to compute flux and some source special treatment to take account ... Model of an explicit conservative scheme with source terms (energy and bed slope). Switch components to re-configure the algorithm (Nujic flux) but E. McNeil use HLL. This kind of flexibility must be supported particularly in industrial projects since ... to be completed.

Want to show the flexibilty how to write physical algorithm based on DamBreak++ framework

Constructor & Destructor Documentation

◆ ProtoPhysicalAlgorithm()

Testvs19::ProtoPhysicalAlgorithm::ProtoPhysicalAlgorithm	(	std::string	aName,
		dbpp::FluxAlgorithm *	aFluxAlgo )

inline

Ctor from name and flux algorithm.

Parameters

aName	algorithm name
aFluxAlgo	flux algorithm

Member Function Documentation

◆ calculate()

void Testvs19::ProtoPhysicalAlgorithm::calculate	(	dbpp::PhysicalSystem *	aPhysys,
		const std::shared_ptr< dbpp::FiniteVolumeDiscretization > &	aGlbdiscr,
		Sfx::Simulation *	aSim )

inlinefinaloverridevirtual

Numerical.

Parameters

aPhysys
aGlbdiscr
aSim

Implements Sfx::PhysicalAlgorithm.

◆ getName()

std::string Testvs19::ProtoPhysicalAlgorithm::getName ( ) const

inlinenoexcept

Getter.

Returns: algorithm name

Member Data Documentation

◆ m_fluxAlgo

dbpp::FluxAlgorithm* Testvs19::ProtoPhysicalAlgorithm::m_fluxAlgo

private

numericla flux algorithm

◆ m_name

std::string Testvs19::ProtoPhysicalAlgorithm::m_name