Test problem for the adaptive sequential 2p2c model in 2D. More...

#include <test/porousmediumflow/2p2c/sequential/test_adaptive2p2c2dproblem.hh>

Inheritance diagram for Dumux::Adaptive2p2c2d< TypeTag >:

Description

template<class TypeTag = TTAG(Adaptive2p2c2d)>
class Dumux::Adaptive2p2c2d< TypeTag >

Test problem for the adaptive sequential 2p2c model in 2D.

test problem for the grid-adaptive sequential 2p2c model

The domain is box shaped (2D). All sides are closed (Neumann 0 boundary) except the top and bottom boundaries (Dirichlet). A Gas (Air) is injected over a vertical well in the center of the domain.

It is the same test as for the non-adaptive compositional models. The input file can alter the grid adaptation in group [GridAdapt]: MinLevel and MaxLevel define the refinement levels of the grid. Afterwards, the refinement tolerances can be specified. On hanging nodes, a MPFA can be used (EnableMultiPointFluxApproximation = 1), at best taken both interaction regions into account (MaxInteractionVolumes = 2).

To run the simulation execute the following line in shell: ./test_adaptive2p2c -parameterFile ./test_adaptive2p2c.input

Public Member Functions
	Adaptive2p2c2d (TimeManager &timeManager, Grid &grid)

void	preTimeStep ()
	Called by TimeManager just before the time integration. More...

void	postTimeStep ()
	Called by the time manager after everything which can be done about the current time step is finished and the model should be prepared to do the next time integration. More...

void	boundaryTypes (BoundaryTypes &bcTypes, const Intersection &intersection) const
	Specifies which kind of boundary condition should be used for which equation on a given boundary segment. More...

void	boundaryTypesAtPos (BoundaryTypes &bcTypes, const GlobalPosition &globalPos) const
	Specifies which kind of boundary condition should be used for which equation on a given boundary segment. More...

void	dirichlet (PrimaryVariables &values, const Intersection &intersection) const
	Evaluate the boundary conditions for a dirichlet control volume. More...

void	dirichletAtPos (PrimaryVariables &values, const GlobalPosition &globalPos) const
	Evaluate the boundary conditions for a dirichlet control volume. More...

void	neumann (PrimaryVariables &values, const Intersection &intersection) const
	Evaluate the boundary conditions for a neumann boundary segment. More...

void	neumannAtPos (PrimaryVariables &values, const GlobalPosition &globalPos) const
	Evaluate the boundary conditions for a neumann boundary segment. More...

void	source (PrimaryVariables &values, const Element &element) const
	Evaluate the source term. More...

void	sourceAtPos (PrimaryVariables &values, const GlobalPosition &globalPos) const
	Evaluate the source term for all phases within a given sub-control-volume. More...

void	initial (PrimaryVariables &values, const Element &element) const
	Evaluate the initial value for a control volume. More...

void	initialAtPos (PrimaryVariables &values, const GlobalPosition &globalPos) const
	Evaluate the initial value for a control volume. More...

void	init ()
	Called by the TimeManager in order to initialize the problem. More...

void	timeIntegration ()
	Called by TimeManager in order to do a time integration on the model. More...

void	advanceTimeLevel ()
	Called by the time manager after everything which can be done about the current time step is finished and the model should be prepared to do the next time integration. More...

Scalar	timeStepSize () const
	Returns the current time step size [seconds]. More...

void	setTimeStepSize (const Scalar dt)
	Sets the current time step size [seconds]. More...

Scalar	nextTimeStepSize (const Scalar dt)
	Called by TimeManager whenever a solution for a timestep has been computed and the simulation time has been updated. More...

Scalar	maxTimeStepSize () const
	Returns the maximum allowed time step size [s]. More...

void	setOutputTimeInterval (const Scalar timeInterval)
	Sets a time interval for Output. More...

void	setOutputInterval (const int interval)
	Sets the interval for Output. More...

bool	shouldWriteOutput () const
	Returns true if the current solution should be written to disk (i.e. as a VTK file) More...

void	episodeEnd ()
	Called when the end of an simulation episode is reached. More...

const std::string &	name () const
	The problem name. More...

void	setName (std::string newName)
	Set the problem name. More...

const GridView &	gridView () const
	The GridView which used by the problem. More...

Grid &	grid ()
	Returns the current grid which used by the problem. More...

void	setGrid (Grid &grid)
	Specifies the grid from outside the problem. More...

GridAdaptModel &	gridAdapt ()
	Returns adaptivity model used for the problem. More...

void	preAdapt ()
	Capability to introduce problem-specific routines at the beginning of the grid adaptation. More...

void	postAdapt ()
	Capability to introduce problem-specific routines after grid adaptation. More...

const VertexMapper &	vertexMapper () const
	Returns the mapper for vertices to indices. More...

const ElementMapper &	elementMapper () const
	Returns the mapper for elements to indices. More...

const GlobalPosition &	bBoxMin () const
	The coordinate of the corner of the GridView's bounding box with the smallest values. More...

const GlobalPosition &	bBoxMax () const
	The coordinate of the corner of the GridView's bounding box with the largest values. More...

Problem parameters
Scalar	temperature (const Element &element) const
	Returns the temperature within the domain. More...

Scalar	referencePressure (const Element &element) const
	Returns the reference pressure for evaluation of constitutive relations. More...

const GravityVector &	gravity () const
	Returns the acceleration due to gravity. More...

SpatialParams &	spatialParams ()
	Returns the spatial parameters object. More...

const SpatialParams &	spatialParams () const
	Returns the spatial parameters object. More...

Access functions
TimeManager &	timeManager ()
	Returns TimeManager object used by the simulation. More...

const TimeManager &	timeManager () const

Variables &	variables ()
	Returns variables container. More...

const Variables &	variables () const
	() More...

IMPETModel &	model ()
	Returns numerical model used for the problem. More...

const IMPETModel &	model () const

PressureModel &	pressureModel ()
	Returns the pressure model used for the problem. More...

const PressureModel &	pressureModel () const

TransportModel &	transportModel ()
	Returns transport model used for the problem. More...

const TransportModel &	transportModel () const

Problem parameters
bool	shouldWriteRestartFile () const
	Returns true if a restart file should be written. More...

Scalar	temperatureAtPos (const GlobalPosition &globalPos) const
	Returns the temperature within the domain. More...

Scalar	referencePressureAtPos (const GlobalPosition &globalPos) const
	Returns the reference pressure. More...

void	boundaryTypesAtPos (BoundaryTypes &bcTypes, const GlobalPosition &globalPos) const
	Type of boundary condition. More...

void	boundaryFormulation (typename Indices::BoundaryFormulation &bcFormulation, const Intersection &intersection) const
	Flag for the type of Dirichlet conditions. More...

void	dirichletAtPos (PrimaryVariables &bcValues, const GlobalPosition &globalPos) const
	Values for dirichlet boundary condition \( [Pa] \) for pressure and \( \frac{mass}{totalmass} \) or \( S_{\alpha} \) for transport. More...

void	neumannAtPos (PrimaryVariables &neumannValues, const GlobalPosition &globalPos) const
	Value for neumann boundary condition \( [\frac{kg}{m^3 \cdot s}] \). More...

void	source (PrimaryVariables &values, const Element &element)
	Evaluate the source term. More...

void	initialFormulation (typename Indices::BoundaryFormulation &initialFormulation, const Element &element) const
	Flag for the type of initial conditions. More...

Scalar	initConcentrationAtPos (const GlobalPosition &globalPos) const
	Concentration initial condition (dimensionless) More...

Problem parameters
Scalar	initSat (const Element &element) const
	Saturation initial condition (dimensionless) More...

Scalar	initSatAtPos (const GlobalPosition &globalPos) const
	Saturation initial condition (dimensionless) at given position. More...

Scalar	initConcentration (const Element &element) const
	Concentration initial condition (dimensionless) More...

void	setZero (typename GET_PROP_TYPE(TTAG(Adaptive2p2c2d), PrimaryVariables) &values, const int equation=-1) const
	Sets entries of the primary variable vector to zero. More...

Restart mechanism
void	serialize ()
	This method writes the complete state of the problem to the harddisk. More...

void	restart (const double tRestart)
	This method restores the complete state of the problem from disk. More...

void	addOutputVtkFields ()

int	vtkOutputLevel () const
	Returns the vtk output verbosity level. More...

void	writeOutput (bool verbose=true)
	Write the fields current solution into an VTK output file. More...

VtkMultiWriter &	resultWriter ()
	Returns the applied VTK-writer for the output. More...

VtkMultiWriter &	resultWriter () const

Constructor & Destructor Documentation

◆ Adaptive2p2c2d()

template<class TypeTag = TTAG(Adaptive2p2c2d)>

Dumux::Adaptive2p2c2d< TypeTag >::Adaptive2p2c2d	(	TimeManager &	timeManager,
		Grid &	grid
	)

inline

Member Function Documentation

◆ addOutputVtkFields()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::addOutputVtkFields ( )

inlineinherited

◆ advanceTimeLevel()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::advanceTimeLevel ( )

inlineinherited

Called by the time manager after everything which can be done about the current time step is finished and the model should be prepared to do the next time integration.

◆ bBoxMax()

const GlobalPosition & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::bBoxMax ( ) const

inlineinherited

The coordinate of the corner of the GridView's bounding box with the largest values.

◆ bBoxMin()

const GlobalPosition & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::bBoxMin ( ) const

inlineinherited

The coordinate of the corner of the GridView's bounding box with the smallest values.

◆ boundaryFormulation()

template<class TypeTag = TTAG(Adaptive2p2c2d)>

void Dumux::Adaptive2p2c2d< TypeTag >::boundaryFormulation	(	typename Indices::BoundaryFormulation &	bcFormulation,
		const Intersection &	intersection
	)		const

inline

Flag for the type of Dirichlet conditions.

The Dirichlet BCs can be specified by a given concentration (mass of a component per total mass inside the control volume) or by means of a saturation.

Parameters

bcFormulation	The boundary formulation for the conservation equations.
intersection	The intersection on the boundary.

◆ boundaryTypes()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::boundaryTypes	(	BoundaryTypes &	bcTypes,
		const Intersection &	intersection
	)		const

inlineinherited

Specifies which kind of boundary condition should be used for which equation on a given boundary segment.

Parameters

bcTypes	The boundary types for the conservation equations
intersection	The intersection for which the boundary type is set

◆ boundaryTypesAtPos() [1/2]

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::boundaryTypesAtPos	(	BoundaryTypes &	bcTypes,
		const GlobalPosition &	globalPos
	)		const

inlineinherited

Specifies which kind of boundary condition should be used for which equation on a given boundary segment.

Parameters

bcTypes	The boundary types for the conservation equations
globalPos	The position of the center of the boundary intersection

◆ boundaryTypesAtPos() [2/2]

template<class TypeTag = TTAG(Adaptive2p2c2d)>

void Dumux::Adaptive2p2c2d< TypeTag >::boundaryTypesAtPos	(	BoundaryTypes &	bcTypes,
		const GlobalPosition &	globalPos
	)		const

inline

Type of boundary condition.

Defines the type the boundary condition for the conservation equation, e.g. Dirichlet or Neumann. The Pressure equation is acessed via Indices::pressureEqIdx, while the transport (or mass conservation -) equations are reached with Indices::contiWEqIdx and Indices::contiNEqIdx

Parameters

bcTypes	The boundary types for the conservation equations
globalPos	The global Position

◆ dirichlet()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::dirichlet	(	PrimaryVariables &	values,
		const Intersection &	intersection
	)		const

inlineinherited

Evaluate the boundary conditions for a dirichlet control volume.

Parameters

values	The dirichlet values for the primary variables
intersection	The boundary intersection

For this method, the values parameter stores primary variables.

◆ dirichletAtPos() [1/2]

template<class TypeTag = TTAG(Adaptive2p2c2d)>

void Dumux::Adaptive2p2c2d< TypeTag >::dirichletAtPos	(	PrimaryVariables &	bcValues,
		const GlobalPosition &	globalPos
	)		const

inline

Values for dirichlet boundary condition \( [Pa] \) for pressure and \( \frac{mass}{totalmass} \) or \( S_{\alpha} \) for transport.

In case of a dirichlet BC, values for all primary variables have to be set. In the sequential 2p2c model, a pressure is required for the pressure equation and component fractions for the transport equations. Although one BC for the two transport equations can be deduced by the other, it is seperately defined for consistency reasons with other models. Depending on the boundary Formulation, either saturation or total mass fractions can be defined.

Parameters

bcValues	Vector holding values for all equations (pressure and transport).
globalPos	The global Position

◆ dirichletAtPos() [2/2]

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::dirichletAtPos	(	PrimaryVariables &	values,
		const GlobalPosition &	globalPos
	)		const

inlineinherited

Evaluate the boundary conditions for a dirichlet control volume.

Parameters

values	The dirichlet values for the primary variables
globalPos	The position of the center of the boundary intersection

For this method, the values parameter stores primary variables.

◆ elementMapper()

const ElementMapper & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::elementMapper ( ) const

inlineinherited

Returns the mapper for elements to indices.

◆ episodeEnd()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::episodeEnd ( )

inlineinherited

Called when the end of an simulation episode is reached.

◆ gravity()

const GravityVector & Dumux::IMPESProblem2P< TTAG(Adaptive2p2c2d) >::gravity ( ) const

inlineinherited

Returns the acceleration due to gravity.

If the EnableGravity property is true, this means \(\boldsymbol{g} = ( 0,\dots,\ -9.81)^T \), else \(\boldsymbol{g} = ( 0,\dots, 0)^T \)

◆ grid()

Grid & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::grid ( )

inlineinherited

Returns the current grid which used by the problem.

◆ gridAdapt()

GridAdaptModel & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::gridAdapt ( )

inlineinherited

Returns adaptivity model used for the problem.

◆ gridView()

const GridView & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::gridView ( ) const

inlineinherited

The GridView which used by the problem.

◆ init()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::init ( )

inlineinherited

Called by the TimeManager in order to initialize the problem.

◆ initConcentration()

Scalar Dumux::IMPETProblem2P2C< TTAG(Adaptive2p2c2d) >::initConcentration ( const Element & element ) const

inlineinherited

Concentration initial condition (dimensionless)

The problem is initialized with a feed mass fraction: Mass of component 1 per total mass \(\mathrm{[-]}\). This directly enters the flash calucalation.

Parameters

element The element.

◆ initConcentrationAtPos()

template<class TypeTag = TTAG(Adaptive2p2c2d)>

Scalar Dumux::Adaptive2p2c2d< TypeTag >::initConcentrationAtPos ( const GlobalPosition & globalPos ) const

inline

Concentration initial condition (dimensionless)

The problem is initialized with the following concentration.

◆ initial()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::initial	(	PrimaryVariables &	values,
		const Element &	element
	)		const

inlineinherited

Evaluate the initial value for a control volume.

Parameters

values	The initial values for the primary variables
element	The element

For this method, the values parameter stores primary variables.

◆ initialAtPos()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::initialAtPos	(	PrimaryVariables &	values,
		const GlobalPosition &	globalPos
	)		const

inlineinherited

Evaluate the initial value for a control volume.

Parameters

values	The dirichlet values for the primary variables
globalPos	The position of the center of the finite volume for which the initial values ought to be set (in global coordinates)

For this method, the values parameter stores primary variables.

◆ initialFormulation()

template<class TypeTag = TTAG(Adaptive2p2c2d)>

void Dumux::Adaptive2p2c2d< TypeTag >::initialFormulation	(	typename Indices::BoundaryFormulation &	initialFormulation,
		const Element &	element
	)		const

inline

Flag for the type of initial conditions.

The problem can be initialized by a given concentration (mass of a component per total mass inside the control volume) or by means of a saturation.

◆ initSat()

Scalar Dumux::IMPETProblem2P2C< TTAG(Adaptive2p2c2d) >::initSat ( const Element & element ) const

inlineinherited

Saturation initial condition (dimensionless)

The problem is initialized with the following saturation. Both phases are assumed to contain an equilibrium concentration of the correspondingly other component.

Parameters

element The element.

◆ initSatAtPos()

Scalar Dumux::IMPETProblem2P2C< TTAG(Adaptive2p2c2d) >::initSatAtPos ( const GlobalPosition & globalPos ) const

inlineinherited

Saturation initial condition (dimensionless) at given position.

Has to be provided if initSat() is not used in the specific problem.

Parameters

globalPos The global position.

◆ maxTimeStepSize()

Scalar Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::maxTimeStepSize ( ) const

inlineinherited

Returns the maximum allowed time step size [s].

By default this the time step size is unrestricted.

◆ model() [1/2]

IMPETModel & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::model ( )

inlineinherited

Returns numerical model used for the problem.

◆ model() [2/2]

const IMPETModel & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::model ( ) const

inlineinherited

Returns numerical model used for the problem.

◆ name()

const std::string & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::name ( ) const

inlineinherited

The problem name.

This is used as a prefix for files generated by the simulation. It could be either overwritten by the problem files, or simply declared over the setName() function in the application file.

◆ neumann()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::neumann	(	PrimaryVariables &	values,
		const Intersection &	intersection
	)		const

inlineinherited

Evaluate the boundary conditions for a neumann boundary segment.

Parameters

values	The neumann values for the conservation equations [kg / (m^2 *s )]
intersection	The boundary intersection

For this method, the values parameter stores the mass flux in normal direction of each phase. Negative values mean influx.

◆ neumannAtPos() [1/2]

template<class TypeTag = TTAG(Adaptive2p2c2d)>

void Dumux::Adaptive2p2c2d< TypeTag >::neumannAtPos	(	PrimaryVariables &	neumannValues,
		const GlobalPosition &	globalPos
	)		const

inline

Value for neumann boundary condition \( [\frac{kg}{m^3 \cdot s}] \).

In case of a neumann boundary condition, the flux of matter is returned. Both pressure and transport module regard the neumann-bc values with the tranport (mass conservation -) equation indices. So the first entry of the vector is superflous. An influx into the domain has negative sign.

Parameters

neumannValues	Vector holding values for all equations (pressure and transport).
globalPos	The global Position

◆ neumannAtPos() [2/2]

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::neumannAtPos	(	PrimaryVariables &	values,
		const GlobalPosition &	globalPos
	)		const

inlineinherited

Evaluate the boundary conditions for a neumann boundary segment.

Parameters

values	The neumann values for the conservation equations [kg / (m^2 *s )]
globalPos	The position of the center of the boundary intersection

For this method, the values parameter stores the mass flux in normal direction of each phase. Negative values mean influx.

◆ nextTimeStepSize()

Scalar Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::nextTimeStepSize ( const Scalar dt )

inlineinherited

Called by TimeManager whenever a solution for a timestep has been computed and the simulation time has been updated.

◆ postAdapt()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::postAdapt ( )

inlineinherited

Capability to introduce problem-specific routines after grid adaptation.

Function is called at the end of the standard grid modification routine, GridAdapt::adaptGrid() , to allow for problem-specific output etc.

◆ postTimeStep()

void Dumux::IMPETProblem2P2C< TTAG(Adaptive2p2c2d) >::postTimeStep ( )

inlineinherited

Called by the time manager after everything which can be done about the current time step is finished and the model should be prepared to do the next time integration.

In compositional/compressible models, the secondary variables should be updated for output and the next time step via updateMaterialLaws. The boolean indicates that it is a call from postTimeStep().

◆ preAdapt()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::preAdapt ( )

inlineinherited

Capability to introduce problem-specific routines at the beginning of the grid adaptation.

Function is called at the beginning of the standard grid modification routine, GridAdapt::adaptGrid() .

◆ pressureModel() [1/2]

PressureModel & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::pressureModel ( )

inlineinherited

Returns the pressure model used for the problem.

◆ pressureModel() [2/2]

const PressureModel & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::pressureModel ( ) const

inlineinherited

Returns the pressure model used for the problem.

◆ preTimeStep()

void Dumux::IMPETProblem2P2C< TTAG(Adaptive2p2c2d) >::preTimeStep ( )

inlineinherited

Called by TimeManager just before the time integration.

In compositional/compressible models, the secondary variables should be updated after each time step. Hence, another update is only necessary if the grid is adapted.

◆ referencePressure()

Scalar Dumux::IMPESProblem2P< TTAG(Adaptive2p2c2d) >::referencePressure ( const Element & element ) const

inlineinherited

Returns the reference pressure for evaluation of constitutive relations.

Parameters

element The element

◆ referencePressureAtPos()

template<class TypeTag = TTAG(Adaptive2p2c2d)>

Scalar Dumux::Adaptive2p2c2d< TypeTag >::referencePressureAtPos ( const GlobalPosition & globalPos ) const

inline

Returns the reference pressure.

◆ restart()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::restart ( const double tRestart )

inlineinherited

This method restores the complete state of the problem from disk.

It is the inverse of the serialize() method.

Parameters

tRestart Restart time

◆ resultWriter() [1/2]

VtkMultiWriter & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::resultWriter ( )

inlineprotectedinherited

Returns the applied VTK-writer for the output.

◆ resultWriter() [2/2]

VtkMultiWriter & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::resultWriter ( ) const

inlineprotectedinherited

Returns the applied VTK-writer for the output.

◆ serialize()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::serialize ( )

inlineinherited

This method writes the complete state of the problem to the harddisk.

The file will start with the prefix returned by the name() method, has the current time of the simulation clock in it's name and uses the extension .drs. (Dumux ReStart file.) See Restart for details.

◆ setGrid()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::setGrid ( Grid & grid )

inlineinherited

Specifies the grid from outside the problem.

Parameters

grid	The grid used by the problem.

◆ setName()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::setName ( std::string newName )

inlineinherited

Set the problem name.

This function sets the simulation name, which should be called before the application porblem is declared! If not, the default name "sim" will be used.

Parameters

newName The problem's name

◆ setOutputInterval()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::setOutputInterval ( const int interval )

inlineinherited

Sets the interval for Output.

The default is 1 -> Output every time step

◆ setOutputTimeInterval()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::setOutputTimeInterval ( const Scalar timeInterval )

inlineinherited

Sets a time interval for Output.

The default is 0.0 -> Output determined by output number interval (setOutputInterval(int))

◆ setTimeStepSize()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::setTimeStepSize ( const Scalar dt )

inlineinherited

Sets the current time step size [seconds].

◆ setZero()

void Dumux::IMPETProblem2P2C< TTAG(Adaptive2p2c2d) >::setZero	(	typename GET_PROP_TYPE(TTAG(Adaptive2p2c2d) , PrimaryVariables) &	values,
		const int	equation = `-1`
	)		const

inlineprotectedinherited

Sets entries of the primary variable vector to zero.

◆ shouldWriteOutput()

bool Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::shouldWriteOutput ( ) const

inlineinherited

Returns true if the current solution should be written to disk (i.e. as a VTK file)

The default behaviour is to write out every the solution for very time step. This file is intented to be overwritten by the implementation.

◆ shouldWriteRestartFile()

template<class TypeTag = TTAG(Adaptive2p2c2d)>

bool Dumux::Adaptive2p2c2d< TypeTag >::shouldWriteRestartFile ( ) const

inline

Returns true if a restart file should be written.

◆ source() [1/2]

template<class TypeTag = TTAG(Adaptive2p2c2d)>

void Dumux::Adaptive2p2c2d< TypeTag >::source	(	PrimaryVariables &	values,
		const Element &	element
	)

inline

Evaluate the source term.

Parameters

values	The source and sink values for the conservation equations
element	The element

For this method, the values parameter stores the rate mass generated or annihilate per volume unit. Positive values mean that mass is created, negative ones mean that it vanishes.

◆ source() [2/2]

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::source	(	PrimaryVariables &	values,
		const Element &	element
	)		const

inlineinherited

Evaluate the source term.

Parameters

values	The source and sink values for the conservation equations
element	The element

For this method, the values parameter stores the rate mass generated or annihilate per volume unit. Positive values mean that mass is created, negative ones mean that it vanishes.

◆ sourceAtPos()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::sourceAtPos	(	PrimaryVariables &	values,
		const GlobalPosition &	globalPos
	)		const

inlineinherited

Evaluate the source term for all phases within a given sub-control-volume.

Parameters

values	The source and sink values for the conservation equations
globalPos	The position of the center of the finite volume for which the source term ought to be specified in global coordinates

For this method, the values parameter stores the rate mass generated or annihilate per volume unit. Positive values mean that mass is created, negative ones mean that it vanishes.

◆ spatialParams() [1/2]

SpatialParams & Dumux::IMPESProblem2P< TTAG(Adaptive2p2c2d) >::spatialParams ( )

inlineinherited

Returns the spatial parameters object.

◆ spatialParams() [2/2]

const SpatialParams & Dumux::IMPESProblem2P< TTAG(Adaptive2p2c2d) >::spatialParams ( ) const

inlineinherited

Returns the spatial parameters object.

◆ temperature()

Scalar Dumux::IMPESProblem2P< TTAG(Adaptive2p2c2d) >::temperature ( const Element & element ) const

inlineinherited

Returns the temperature within the domain.

Parameters

element The element

◆ temperatureAtPos()

template<class TypeTag = TTAG(Adaptive2p2c2d)>

Scalar Dumux::Adaptive2p2c2d< TypeTag >::temperatureAtPos ( const GlobalPosition & globalPos ) const

inline

Returns the temperature within the domain.

This problem assumes a temperature of 10 degrees Celsius.

Parameters

globalPos The global Position

◆ timeIntegration()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::timeIntegration ( )

inlineinherited

Called by TimeManager in order to do a time integration on the model.

Note: timeStepSize and nextStepSize are references and may be modified by the timeIntegration(). On exit of this function timeStepSize must contain the step size actually used by the time integration for the current steo, and nextStepSize must contain a suggestion for the next time step size.

◆ timeManager() [1/2]

TimeManager & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::timeManager ( )

inlineinherited

Returns TimeManager object used by the simulation.

◆ timeManager() [2/2]

const TimeManager & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::timeManager ( ) const

inlineinherited

Returns TimeManager object used by the simulation.

◆ timeStepSize()

Scalar Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::timeStepSize ( ) const

inlineinherited

Returns the current time step size [seconds].

◆ transportModel() [1/2]

TransportModel & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::transportModel ( )

inlineinherited

Returns transport model used for the problem.

◆ transportModel() [2/2]

const TransportModel & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::transportModel ( ) const

inlineinherited

Returns transport model used for the problem.

◆ variables() [1/2]

Variables & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::variables ( )

inlineinherited

Returns variables container.

This provides access to the important variables that are used in the simulation process, such as pressure, saturation etc.

◆ variables() [2/2]

const Variables & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::variables ( ) const

inlineinherited

Returns variables container. ()

This provides access to the important variables that are used in the simulation process, such as pressure, saturation etc. ()

◆ vertexMapper()

const VertexMapper & Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::vertexMapper ( ) const

inlineinherited

Returns the mapper for vertices to indices.

◆ vtkOutputLevel()

int Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::vtkOutputLevel ( ) const

inlineinherited

Returns the vtk output verbosity level.

Level is set by property or input file.

◆ writeOutput()

void Dumux::IMPETProblem< TTAG(Adaptive2p2c2d) >::writeOutput ( bool verbose = true )

inlineinherited

Write the fields current solution into an VTK output file.

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

test_adaptive2p2c2dproblem.hh

Description

Public Member Functions

Problem parameters

Problem parameters

Restart mechanism

Constructor & Destructor Documentation

◆ Adaptive2p2c2d()

Member Function Documentation

◆ addOutputVtkFields()

◆ advanceTimeLevel()

◆ bBoxMax()

◆ bBoxMin()

◆ boundaryFormulation()

◆ boundaryTypes()

◆ boundaryTypesAtPos() [1/2]

◆ boundaryTypesAtPos() [2/2]

◆ dirichlet()

◆ dirichletAtPos() [1/2]

◆ dirichletAtPos() [2/2]

◆ elementMapper()

◆ episodeEnd()

◆ gravity()

◆ grid()

◆ gridAdapt()

◆ gridView()

◆ init()

◆ initConcentration()

◆ initConcentrationAtPos()

◆ initial()

◆ initialAtPos()

◆ initialFormulation()

◆ initSat()

◆ initSatAtPos()

◆ maxTimeStepSize()

◆ model() [1/2]

◆ model() [2/2]

◆ name()

◆ neumann()

◆ neumannAtPos() [1/2]

◆ neumannAtPos() [2/2]

◆ nextTimeStepSize()

◆ postAdapt()

◆ postTimeStep()

◆ preAdapt()

◆ pressureModel() [1/2]

◆ pressureModel() [2/2]

◆ preTimeStep()

◆ referencePressure()

◆ referencePressureAtPos()

◆ restart()

◆ resultWriter() [1/2]

◆ resultWriter() [2/2]

◆ serialize()

◆ setGrid()

◆ setName()

◆ setOutputInterval()

◆ setOutputTimeInterval()

◆ setTimeStepSize()

◆ setZero()

◆ shouldWriteOutput()

◆ shouldWriteRestartFile()

◆ source() [1/2]

◆ source() [2/2]

◆ sourceAtPos()

◆ spatialParams() [1/2]

◆ spatialParams() [2/2]

◆ temperature()

◆ temperatureAtPos()

◆ timeIntegration()

◆ timeManager() [1/2]

◆ timeManager() [2/2]

◆ timeStepSize()

◆ transportModel() [1/2]

◆ transportModel() [2/2]

◆ variables() [1/2]

◆ variables() [2/2]

◆ vertexMapper()

◆ vtkOutputLevel()

◆ writeOutput()