Testvs19 Namespace Reference

Classes
class	BaseRhsPhysicsAlgorithm
	Base RHS terms algoritm (support legacy code). More...
class	BaseTypesPhysicsAlgorithm
	First implementation from the re-factoring VS15 to VS19 (C++20) More...
class	DamBreakMeasureAQH
	Physical measure taken in the Physical system We are still experimenting we our new API that is under construction. More...
class	DamBreakSetup
	Set up initial condition for DamBreak problem. More...
class	DamBreakSysConfigure
	Class that profide a method to configure physical system. The configuration of a physical system is done before any operations or measurements are performed on the physical system. The class that will be used by the simulation should be defined in the Simulation.properties file in the following manner: PhysicalConfigurationClass=InitialSetup. More...
class	DamBreakSysMeasurement
	This interface defines the required method for the Measurement bean. The user will define the necessary get and set methods for the bean on the quantities that are being measured as in the following example: ... public void setTotalEnergy(double E) { this.E = E; }. More...
class	DamBreakSystem
	Physical system under study (physical object) More...
class	DataStoreFactory
	Data Store factory method. More...
class	EmcilAlgorithm
	algorithm that take care of the physics that we want to simulate. For example, Nujic in his article treat numerically pressure, source and flux depending on the physics. More...
class	EMcNeilAlgorithm
	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...
class	FileDataStore
	File based implementation of the DataStore interface. This class makes use of the toString() method defined in the PhysicalMeasurement interface. More...
class	FileFinalReport
	Defines a simple way of reporting final statistics or calculations that occured in the simulation. To define the usage of a FinalReport implement the following in the Simulation.properties file in the following manner: FinalReportClass=Report DoFinalReport=true. More...
class	ListSectionsFlow
	List of physical objects under study. More...
class	ListSectionsIterator
	List iterator on list of sections flow. More...
class	Nujic2StepsIntegrator
	Numerical integration by two-steps Rungde-Kutta (second-order). More...
class	NujicPhysicsAlgorithm
	Nujic (1995) physics algorithm with assumptions ... . source treatment (slope bottom term) based on physics ... to be completed see prototype VS2015 for an imp. More...
class	NujicSrcTermAlgorithm
	"Model of" function object (called functor). Calculate the "S0" .... slope term More...
class	Numethod_f
	This is a prototype!! just experimenting some implementation. More...
class	ProtoPhysicalAlgorithm
	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...
class	RetRhsType
	Wrapper data type used as RHS (right-hand-side) return structure. More...
class	RhsType
class	SbSfTermsEvaluation
	Wrapper of legacy code. Usage: SbSfTermsEvaluation w_S0Sf{listSections,bc1,bc2}; auto w_SfS0 = w_S0Sf.TraitementTermeS2(aField1,aField2); auto& w_rhs = m_rhsAlgo.getRHS(); w_rhs.m_swerhs.S = std::move(w_SfS0);. More...
class	ValidateAlgo
	Implement the physical algorithm that we use to validate our prototype within the Dam-Break simulation. Solve the ODE system by an explicit model. Spatial operator (right-hand-side) U_t = L_x of the St-Venant equations. More...
class	Wave1DSimulator
	Wave simulator (simulate dam-break wave propagation) implementation. More...
class	WaveSimulator
	Wave simulator (simulate dam-break wave propagation). More...

Functions
void	HLL_Scheme (NumArrayType &aFF1, NumArrayType &aFF2, const NumArrayType &aU1, const NumArrayType &aU2)
void	Nujic_SchemeI (NumArrayType &aFF1, NumArrayType &aFF2, const NumArrayType &aU1, const NumArrayType &aU2)
void	Nujic_SchemeII (NumArrayType &aFF1, NumArrayType &aFF2, const NumArrayType &aU1, const NumArrayType &aU2)
void	LXF_Scheme (NumArrayType &aFF1, NumArrayType &aFF2, const NumArrayType &aU1, const NumArrayType &aU2)
void	testScenarioProto19 ()
void	ScenarioAppVs19 ()

Function Documentation

HLL_Scheme()

void Testvs19::HLL_Scheme	(	NumArrayType &	aFF1,
		NumArrayType &	aFF2,
		const NumArrayType &	aU1,
		const NumArrayType &	aU2 )

LXF_Scheme()

void Testvs19::LXF_Scheme	(	NumArrayType &	aFF1,
		NumArrayType &	aFF2,
		const NumArrayType &	aU1,
		const NumArrayType &	aU2 )

Nujic_SchemeI()

void Testvs19::Nujic_SchemeI	(	NumArrayType &	aFF1,
		NumArrayType &	aFF2,
		const NumArrayType &	aU1,
		const NumArrayType &	aU2 )

Nujic_SchemeII()

void Testvs19::Nujic_SchemeII	(	NumArrayType &	aFF1,
		NumArrayType &	aFF2,
		const NumArrayType &	aU1,
		const NumArrayType &	aU2 )

ScenarioAppVs19()

void Testvs19::ScenarioAppVs19

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testScenarioProto19()

void Testvs19::testScenarioProto19

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