Base class for all Conditions. More...

#include <condition.h>

Collaboration diagram for Kratos::Condition:

Public Member Functions
Life Cycle
	Condition (IndexType NewId=0)

	Condition (IndexType NewId, const NodesArrayType &ThisNodes)

	Condition (IndexType NewId, GeometryType::Pointer pGeometry)

	Condition (IndexType NewId, GeometryType::Pointer pGeometry, PropertiesType::Pointer pProperties)

	Condition (Condition const &rOther)
	Copy constructor. More...

	~Condition () override
	Destructor. More...

Operators
Condition &	operator= (Condition const &rOther)
	Assignment operator. More...

Operations
virtual Pointer	Create (IndexType NewId, NodesArrayType const &ThisNodes, PropertiesType::Pointer pProperties) const
	It creates a new condition pointer. More...

virtual Pointer	Create (IndexType NewId, GeometryType::Pointer pGeom, PropertiesType::Pointer pProperties) const
	It creates a new condition pointer. More...

virtual Pointer	Clone (IndexType NewId, NodesArrayType const &ThisNodes) const
	It creates a new condition pointer and clones the previous condition data. More...

virtual void	EquationIdVector (EquationIdVectorType &rResult, const ProcessInfo &rCurrentProcessInfo) const

virtual void	GetDofList (DofsVectorType &rElementalDofList, const ProcessInfo &rCurrentProcessInfo) const

virtual IntegrationMethod	GetIntegrationMethod () const

virtual void	GetValuesVector (Vector &values, int Step=0) const

virtual void	GetFirstDerivativesVector (Vector &values, int Step=0) const

virtual void	GetSecondDerivativesVector (Vector &values, int Step=0) const

virtual void	Initialize (const ProcessInfo &rCurrentProcessInfo)

virtual void	ResetConstitutiveLaw ()

virtual void	InitializeSolutionStep (const ProcessInfo &rCurrentProcessInfo)

virtual void	InitializeNonLinearIteration (const ProcessInfo &rCurrentProcessInfo)

virtual void	FinalizeNonLinearIteration (const ProcessInfo &rCurrentProcessInfo)

virtual void	FinalizeSolutionStep (const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateLocalSystem (MatrixType &rLeftHandSideMatrix, VectorType &rRightHandSideVector, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateLeftHandSide (MatrixType &rLeftHandSideMatrix, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateRightHandSide (VectorType &rRightHandSideVector, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateFirstDerivativesContributions (MatrixType &rLeftHandSideMatrix, VectorType &rRightHandSideVector, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateFirstDerivativesLHS (MatrixType &rLeftHandSideMatrix, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateFirstDerivativesRHS (VectorType &rRightHandSideVector, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateSecondDerivativesContributions (MatrixType &rLeftHandSideMatrix, VectorType &rRightHandSideVector, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateSecondDerivativesLHS (MatrixType &rLeftHandSideMatrix, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateSecondDerivativesRHS (VectorType &rRightHandSideVector, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateMassMatrix (MatrixType &rMassMatrix, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateDampingMatrix (MatrixType &rDampingMatrix, const ProcessInfo &rCurrentProcessInfo)

virtual void	AddExplicitContribution (const ProcessInfo &rCurrentProcessInfo)

virtual void	AddExplicitContribution (const VectorType &rRHSVector, const Variable< VectorType > &rRHSVariable, const Variable< double > &rDestinationVariable, const ProcessInfo &rCurrentProcessInfo)
	This function is designed to make the condition to assemble an rRHS vector identified by a variable rRHSVariable by assembling it to the nodes on the variable rDestinationVariable. (This is the double version) More...

virtual void	AddExplicitContribution (const VectorType &rRHSVector, const Variable< VectorType > &rRHSVariable, const Variable< array_1d< double, 3 > > &rDestinationVariable, const ProcessInfo &rCurrentProcessInfo)
	This function is designed to make the condition to assemble an rRHS vector identified by a variable rRHSVariable by assembling it to the nodes on the variable rDestinationVariable. (This is the vector version) More...

virtual void	AddExplicitContribution (const MatrixType &rLHSMatrix, const Variable< MatrixType > &rLHSVariable, const Variable< Matrix > &rDestinationVariable, const ProcessInfo &rCurrentProcessInfo)
	This function is designed to make the condition to assemble an rRHS vector identified by a variable rRHSVariable by assembling it to the nodes on the variable rDestinationVariable. (This is the matrix version) More...

virtual void	Calculate (const Variable< double > &rVariable, double &Output, const ProcessInfo &rCurrentProcessInfo)

virtual void	Calculate (const Variable< array_1d< double, 3 > > &rVariable, array_1d< double, 3 > &Output, const ProcessInfo &rCurrentProcessInfo)

virtual void	Calculate (const Variable< Vector > &rVariable, Vector &Output, const ProcessInfo &rCurrentProcessInfo)

virtual void	Calculate (const Variable< Matrix > &rVariable, Matrix &Output, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateOnIntegrationPoints (const Variable< bool > &rVariable, std::vector< bool > &rOutput, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateOnIntegrationPoints (const Variable< int > &rVariable, std::vector< int > &rOutput, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateOnIntegrationPoints (const Variable< double > &rVariable, std::vector< double > &rOutput, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateOnIntegrationPoints (const Variable< array_1d< double, 3 >> &rVariable, std::vector< array_1d< double, 3 >> &rOutput, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateOnIntegrationPoints (const Variable< array_1d< double, 4 >> &rVariable, std::vector< array_1d< double, 4 >> &rOutput, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateOnIntegrationPoints (const Variable< array_1d< double, 6 >> &rVariable, std::vector< array_1d< double, 6 >> &rOutput, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateOnIntegrationPoints (const Variable< array_1d< double, 9 >> &rVariable, std::vector< array_1d< double, 9 >> &rOutput, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateOnIntegrationPoints (const Variable< Vector > &rVariable, std::vector< Vector > &rOutput, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateOnIntegrationPoints (const Variable< Matrix > &rVariable, std::vector< Matrix > &rOutput, const ProcessInfo &rCurrentProcessInfo)

virtual void	SetValuesOnIntegrationPoints (const Variable< bool > &rVariable, const std::vector< bool > &rValues, const ProcessInfo &rCurrentProcessInfo)

virtual void	SetValuesOnIntegrationPoints (const Variable< int > &rVariable, const std::vector< int > &rValues, const ProcessInfo &rCurrentProcessInfo)

virtual void	SetValuesOnIntegrationPoints (const Variable< double > &rVariable, const std::vector< double > &rValues, const ProcessInfo &rCurrentProcessInfo)

virtual void	SetValuesOnIntegrationPoints (const Variable< array_1d< double, 3 >> &rVariable, const std::vector< array_1d< double, 3 >> &rValues, const ProcessInfo &rCurrentProcessInfo)

virtual void	SetValuesOnIntegrationPoints (const Variable< array_1d< double, 4 >> &rVariable, const std::vector< array_1d< double, 4 >> &rValues, const ProcessInfo &rCurrentProcessInfo)

virtual void	SetValuesOnIntegrationPoints (const Variable< array_1d< double, 6 >> &rVariable, const std::vector< array_1d< double, 6 >> &rValues, const ProcessInfo &rCurrentProcessInfo)

virtual void	SetValuesOnIntegrationPoints (const Variable< array_1d< double, 9 >> &rVariable, const std::vector< array_1d< double, 9 >> &rValues, const ProcessInfo &rCurrentProcessInfo)

virtual void	SetValuesOnIntegrationPoints (const Variable< Vector > &rVariable, const std::vector< Vector > &rValues, const ProcessInfo &rCurrentProcessInfo)

virtual void	SetValuesOnIntegrationPoints (const Variable< Matrix > &rVariable, const std::vector< Matrix > &rValues, const ProcessInfo &rCurrentProcessInfo)

virtual int	Check (const ProcessInfo &rCurrentProcessInfo) const

virtual void	MassMatrix (MatrixType &rMassMatrix, const ProcessInfo &rCurrentProcessInfo)

virtual void	AddMassMatrix (MatrixType &rLeftHandSideMatrix, double coeff, const ProcessInfo &rCurrentProcessInfo)

virtual void	DampMatrix (MatrixType &rDampMatrix, const ProcessInfo &rCurrentProcessInfo)

virtual void	AddInertiaForces (VectorType &rRightHandSideVector, double coeff, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateLocalVelocityContribution (MatrixType &rDampingMatrix, VectorType &rRightHandSideVector, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateSensitivityMatrix (const Variable< double > &rDesignVariable, Matrix &rOutput, const ProcessInfo &rCurrentProcessInfo)

virtual void	CalculateSensitivityMatrix (const Variable< array_1d< double, 3 > > &rDesignVariable, Matrix &rOutput, const ProcessInfo &rCurrentProcessInfo)

Access
PropertiesType::Pointer	pGetProperties ()
	returns the pointer to the property of the condition. Does not throw an error, to allow copying of conditions which don't have any property assigned. More...

const PropertiesType::Pointer	pGetProperties () const

PropertiesType &	GetProperties ()

PropertiesType const &	GetProperties () const

void	SetProperties (PropertiesType::Pointer pProperties)

Inquiry
bool	HasProperties () const
	Check that the Condition has a correctly initialized pointer to a Properties instance. More...

Input and output
virtual const Parameters	GetSpecifications () const
	This method provides the specifications/requirements of the element. More...

std::string	Info () const override
	Turn back information as a string. More...

void	PrintInfo (std::ostream &rOStream) const override
	Print information about this object. More...

void	PrintData (std::ostream &rOStream) const override
	Print object's data. More...

Public Member Functions inherited from Kratos::GeometricalObject
	GeometricalObject (IndexType NewId=0)
	Default constructor. More...

	GeometricalObject (IndexType NewId, GeometryType::Pointer pGeometry)
	Default constructor. More...

	~GeometricalObject () override
	Destructor. More...

	GeometricalObject (GeometricalObject const &rOther)
	Copy constructor. More...

GeometricalObject &	operator= (GeometricalObject const &rOther)
	Assignment operator. More...

virtual void	SetGeometry (GeometryType::Pointer pGeometry)
	Sets the pointer to the geometry. More...

GeometryType::Pointer	pGetGeometry ()
	Returns the pointer to the geometry. More...

const GeometryType::Pointer	pGetGeometry () const
	Returns the pointer to the geometry (const version) More...

GeometryType &	GetGeometry ()
	Returns the reference of the geometry. More...

GeometryType const &	GetGeometry () const
	Returns the reference of the geometry (const version) More...

Flags &	GetFlags ()
	Returns the flags of the object. More...

Flags const &	GetFlags () const
	Returns the flags of the object (const version) More...

void	SetFlags (Flags const &rThisFlags)
	Sets the flags of the object. More...

DataValueContainer &	Data ()

DataValueContainer &	GetData ()

DataValueContainer const &	GetData () const

void	SetData (DataValueContainer const &rThisData)

template<class TDataType >
bool	Has (const Variable< TDataType > &rThisVariable) const

template<class TVariableType >
void	SetValue (const TVariableType &rThisVariable, typename TVariableType::Type const &rValue)

template<class TVariableType >
TVariableType::Type &	GetValue (const TVariableType &rThisVariable)

template<class TVariableType >
TVariableType::Type const &	GetValue (const TVariableType &rThisVariable) const

std::string	Info () const override
	Turn back information as a string. More...

void	PrintInfo (std::ostream &rOStream) const override
	Print information about this object. More...

void	PrintData (std::ostream &rOStream) const override
	Print object's data. More...

unsigned int	use_count () const noexcept

	KRATOS_CLASS_INTRUSIVE_POINTER_DEFINITION (GeometricalObject)
	Pointer definition of GeometricalObject. More...

bool	IsActive () const
	Checks if the GeometricalObject is active. More...

Public Member Functions inherited from Kratos::IndexedObject
	IndexedObject (IndexType NewId=0)
	Default constructor. More...

virtual	~IndexedObject ()
	Destructor. More...

	IndexedObject (IndexedObject const &rOther)
	Copy constructor. More...

IndexedObject &	operator= (IndexedObject const &rOther)
	Assignment operator. More...

template<class TObjectType >
IndexType	operator() (TObjectType const &rThisObject) const

IndexType	Id () const

IndexType	GetId () const

virtual void	SetId (IndexType NewId)

IndexType &	DepricatedIdAccess ()
	TODO: remove this function when removing data_file_io object. More...

	KRATOS_CLASS_POINTER_DEFINITION (IndexedObject)
	Pointer definition of IndexedObject. More...

Public Member Functions inherited from Kratos::Flags
Flags &	operator= (Flags const &rOther)
	Assignment operator. More...

	operator bool () const

Flags	operator~ () const

bool	operator! () const

void	AssignFlags (Flags const &rOther)

void	Set (const Flags ThisFlag)

void	Set (const Flags ThisFlag, bool Value)

void	Reset (const Flags ThisFlag)

void	Flip (const Flags ThisFlag)

void	SetPosition (IndexType Position, bool Value=true)

bool	GetPosition (IndexType Position) const

void	FlipPosition (IndexType Position)

void	ClearPosition (IndexType Position)

void	Clear ()

Flags	AsFalse () const

bool	Is (Flags const &rOther) const

bool	IsDefined (Flags const &rOther) const

bool	IsNot (Flags const &rOther) const

bool	IsNotDefined (Flags const &rOther) const

	KRATOS_CLASS_POINTER_DEFINITION (Flags)
	Pointer definition of Flags. More...

const Flags &	operator\|= (const Flags &Other)

const Flags &	operator&= (const Flags &Other)

	Flags ()
	Default constructor. More...

	Flags (Flags const &rOther)
	Copy constructor. More...

virtual	~Flags ()
	Destructor. More...

Type Definitions
typedef Condition	ConditionType
	definition of condition type More...

typedef GeometricalObject	BaseType
	base type: an GeometricalObject that automatically has a unique number More...

typedef Node	NodeType
	definition of node type (default is: Node) More...

typedef Properties	PropertiesType

typedef Geometry< NodeType >	GeometryType
	definition of the geometry type with given NodeType More...

typedef Geometry< NodeType >::PointsArrayType	NodesArrayType
	definition of nodes container type, redefined from GeometryType More...

typedef Vector	VectorType

typedef Matrix	MatrixType

typedef std::size_t	IndexType

typedef std::size_t	SizeType

typedef Dof< double >	DofType

typedef std::vector< std::size_t >	EquationIdVectorType

typedef std::vector< DofType::Pointer >	DofsVectorType

typedef PointerVectorSet< DofType >	DofsArrayType

typedef GeometryData::IntegrationMethod	IntegrationMethod
	Type definition for integration methods. More...

typedef GeometryData	GeometryDataType

	KRATOS_CLASS_INTRUSIVE_POINTER_DEFINITION (Condition)
	Pointer definition of Condition. More...

Serialization
class	Serializer

Additional Inherited Members
Public Types inherited from Kratos::GeometricalObject
typedef Node	NodeType
	Definition of the node type. More...

typedef Geometry< NodeType >	GeometryType
	The geometry type definition. More...

typedef std::size_t	IndexType
	Defines the index type. More...

typedef std::size_t	result_type
	Defines the result type. More...

Public Types inherited from Kratos::IndexedObject
typedef std::size_t	IndexType
	The definition of the index type. More...

typedef std::size_t	result_type
	The definition of the result_type. More...

Public Types inherited from Kratos::Flags
enum	FlagsList { Flag0 = BlockType(1) , Flag1 = BlockType(1) << 1 , Flag2 = BlockType(1) << 2 , Flag3 = BlockType(1) << 3 , Flag4 = BlockType(1) << 4 , Flag5 = BlockType(1) << 5 , Flag6 = BlockType(1) << 6 , Flag7 = BlockType(1) << 7 , Flag8 = BlockType(1) << 8 , Flag9 = BlockType(1) << 9 , Flag10 = BlockType(1) << 10 , Flag11 = BlockType(1) << 11 , Flag12 = BlockType(1) << 12 , Flag13 = BlockType(1) << 13 , Flag14 = BlockType(1) << 14 , Flag15 = BlockType(1) << 15 , Flag16 = BlockType(1) << 16 , Flag17 = BlockType(1) << 17 , Flag18 = BlockType(1) << 18 , Flag19 = BlockType(1) << 19 , Flag20 = BlockType(1) << 20 , Flag21 = BlockType(1) << 21 , Flag22 = BlockType(1) << 22 , Flag23 = BlockType(1) << 23 , Flag24 = BlockType(1) << 24 , Flag25 = BlockType(1) << 25 , Flag26 = BlockType(1) << 26 , Flag27 = BlockType(1) << 27 , Flag28 = BlockType(1) << 28 , Flag29 = BlockType(1) << 29 , Flag30 = BlockType(1) << 30 }

typedef int64_t	BlockType

typedef int64_t	FlagType

typedef std::size_t	IndexType

Static Public Member Functions inherited from Kratos::GeometricalObject
static bool	HasSameType (const GeometricalObject &rLHS, const GeometricalObject &rRHS)
	Checks if two GeometricalObject have the same type. More...

static bool	HasSameType (const GeometricalObject rLHS, const GeometricalObject rRHS)
	Checks if two GeometricalObject have the same type (pointer version) More...

static bool	HasSameGeometryType (const GeometricalObject &rLHS, const GeometricalObject &rRHS)
	Checks if two GeometricalObject have the same geometry type. More...

static bool	HasSameGeometryType (const GeometricalObject rLHS, const GeometricalObject rRHS)
	Checks if two GeometricalObject have the same geometry type (pointer version) More...

static bool	IsSame (const GeometricalObject &rLHS, const GeometricalObject &rRHS)
	Checks if two GeometricalObject are the same. More...

static bool	IsSame (const GeometricalObject rLHS, const GeometricalObject rRHS)
	Checks if two GeometricalObject are the same (pointer version) More...

Static Public Member Functions inherited from Kratos::Flags
static const Flags	AllDefined ()

static const Flags	AllTrue ()

static Flags	Create (IndexType ThisPosition, bool Value=true)

Detailed Description

Base class for all Conditions.

This is the base class for all conditions used in KRATOS Conditions inherited from this class have to reimplement all public functions that are needed to perform their designated tasks. Due to a dummy implementation of every function though, not all of them have to be implemented if they are not needed for the actual problem

Member Typedef Documentation

◆ BaseType

typedef GeometricalObject Kratos::Condition::BaseType

base type: an GeometricalObject that automatically has a unique number

◆ ConditionType

typedef Condition Kratos::Condition::ConditionType

definition of condition type

◆ DofsArrayType

typedef PointerVectorSet<DofType> Kratos::Condition::DofsArrayType

◆ DofsVectorType

typedef std::vector<DofType::Pointer> Kratos::Condition::DofsVectorType

◆ DofType

typedef Dof<double> Kratos::Condition::DofType

◆ EquationIdVectorType

typedef std::vector<std::size_t> Kratos::Condition::EquationIdVectorType

◆ GeometryDataType

typedef GeometryData Kratos::Condition::GeometryDataType

◆ GeometryType

typedef Geometry<NodeType> Kratos::Condition::GeometryType

definition of the geometry type with given NodeType

◆ IndexType

typedef std::size_t Kratos::Condition::IndexType

◆ IntegrationMethod

typedef GeometryData::IntegrationMethod Kratos::Condition::IntegrationMethod

Type definition for integration methods.

◆ MatrixType

typedef Matrix Kratos::Condition::MatrixType

◆ NodesArrayType

typedef Geometry<NodeType>::PointsArrayType Kratos::Condition::NodesArrayType

definition of nodes container type, redefined from GeometryType

◆ NodeType

typedef Node Kratos::Condition::NodeType

definition of node type (default is: Node)

◆ PropertiesType

typedef Properties Kratos::Condition::PropertiesType

Properties are used to store any parameters related to the constitutive law

◆ SizeType

typedef std::size_t Kratos::Condition::SizeType

◆ VectorType

typedef Vector Kratos::Condition::VectorType

Constructor & Destructor Documentation

◆ Condition() [1/5]

Kratos::Condition::Condition ( IndexType NewId = 0 )

inlineexplicit

CONDITIONS inherited from this class have to implement next constructors, copy constructors and destructor: MANDATORY Constructor.

◆ Condition() [2/5]

Kratos::Condition::Condition	(	IndexType	NewId,
		const NodesArrayType &	ThisNodes
	)

inline

Constructor using an array of nodes

◆ Condition() [3/5]

Kratos::Condition::Condition	(	IndexType	NewId,
		GeometryType::Pointer	pGeometry
	)

inline

Constructor using Geometry

◆ Condition() [4/5]

Kratos::Condition::Condition	(	IndexType	NewId,
		GeometryType::Pointer	pGeometry,
		PropertiesType::Pointer	pProperties
	)

inline

Constructor using Properties

◆ Condition() [5/5]

Kratos::Condition::Condition ( Condition const & rOther )

inline

Copy constructor.

◆ ~Condition()

Kratos::Condition::~Condition ( )

inlineoverride

Destructor.

Member Function Documentation

◆ AddExplicitContribution() [1/4]

virtual void Kratos::Condition::AddExplicitContribution	(	const MatrixType &	rLHSMatrix,
		const Variable< MatrixType > &	rLHSVariable,
		const Variable< Matrix > &	rDestinationVariable,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

This function is designed to make the condition to assemble an rRHS vector identified by a variable rRHSVariable by assembling it to the nodes on the variable rDestinationVariable. (This is the matrix version)

The "AddExplicit" FUNCTIONS THE ONLY FUNCTIONS IN WHICH A CONDITION IS ALLOWED TO WRITE ON ITS NODES. The caller is expected to ensure thread safety hence SET-/UNSET-LOCK MUST BE PERFORMED IN THE STRATEGY BEFORE CALLING THIS FUNCTION

Parameters

rRHSVector	input variable containing the RHS vector to be assembled
rRHSVariable	variable describing the type of the RHS vector to be assembled
rDestinationVariable	variable in the database to which the rRHSvector will be assembled
rCurrentProcessInfo	the current process info instance

Reimplemented in Kratos::MeshCondition.

◆ AddExplicitContribution() [2/4]

virtual void Kratos::Condition::AddExplicitContribution ( const ProcessInfo & rCurrentProcessInfo )

inlinevirtual

CONDITIONS inherited from this class must implement this methods if they need to write something at the condition geometry nodes AddExplicitContribution methods are: OPTIONAL ( avoid to use them is not needed ) this is called during the assembling process in order to calculate the condition contribution in explicit calculation. NodalData is modified Inside the function, so the The "AddEXplicit" FUNCTIONS THE ONLY FUNCTIONS IN WHICH A CONDITION IS ALLOWED TO WRITE ON ITS NODES. the caller is expected to ensure thread safety hence SET/UNSETLOCK MUST BE PERFORMED IN THE STRATEGY BEFORE CALLING THIS FUNCTION

Parameters

rCurrentProcessInfo the current process info instance

◆ AddExplicitContribution() [3/4]

virtual void Kratos::Condition::AddExplicitContribution	(	const VectorType &	rRHSVector,
		const Variable< VectorType > &	rRHSVariable,
		const Variable< array_1d< double, 3 > > &	rDestinationVariable,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

This function is designed to make the condition to assemble an rRHS vector identified by a variable rRHSVariable by assembling it to the nodes on the variable rDestinationVariable. (This is the vector version)

The "AddExplicit" FUNCTIONS THE ONLY FUNCTIONS IN WHICH A CONDITION IS ALLOWED TO WRITE ON ITS NODES. The caller is expected to ensure thread safety hence SET-/UNSET-LOCK MUST BE PERFORMED IN THE STRATEGY BEFORE CALLING THIS FUNCTION

Parameters

rRHSVector	input variable containing the RHS vector to be assembled
rRHSVariable	variable describing the type of the RHS vector to be assembled
rDestinationVariable	variable in the database to which the rRHSvector will be assembled
rCurrentProcessInfo	the current process info instance

◆ AddExplicitContribution() [4/4]

virtual void Kratos::Condition::AddExplicitContribution	(	const VectorType &	rRHSVector,
		const Variable< VectorType > &	rRHSVariable,
		const Variable< double > &	rDestinationVariable,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

This function is designed to make the condition to assemble an rRHS vector identified by a variable rRHSVariable by assembling it to the nodes on the variable rDestinationVariable. (This is the double version)

The "AddExplicit" FUNCTIONS THE ONLY FUNCTIONS IN WHICH A CONDITION IS ALLOWED TO WRITE ON ITS NODES. The caller is expected to ensure thread safety hence SET-/UNSET-LOCK MUST BE PERFORMED IN THE STRATEGY BEFORE CALLING THIS FUNCTION

Parameters

rRHSVector	input variable containing the RHS vector to be assembled
rRHSVariable	variable describing the type of the RHS vector to be assembled
rDestinationVariable	variable in the database to which the rRHSvector will be assembled
rCurrentProcessInfo	the current process info instance

◆ AddInertiaForces()

virtual void Kratos::Condition::AddInertiaForces	(	VectorType &	rRightHandSideVector,
		double	coeff,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

adds the inertia forces to the RHS --> performs residua = static_residua - coeff*M*acc

Parameters

rCurrentProcessInfo the current process info instance

◆ AddMassMatrix()

virtual void Kratos::Condition::AddMassMatrix	(	MatrixType &	rLeftHandSideMatrix,
		double	coeff,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

adds the mass matrix scaled by a given factor to the LHS

Parameters

rLeftHandSideMatrix	the condition LHS matrix
coeff	the given factor
rCurrentProcessInfo	the current process info instance

◆ Calculate() [1/4]

virtual void Kratos::Condition::Calculate	(	const Variable< array_1d< double, 3 > > &	rVariable,
		array_1d< double, 3 > &	Output,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

Reimplemented in Kratos::AdjointSemiAnalyticBaseCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::LineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementSurfaceLoadCondition3D >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementLineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SurfaceLoadCondition3D >, Kratos::NavierStokesWallCondition< TDim, TNumNodes, TWallModel >, Kratos::NavierStokesWallCondition< 2, 2 >, Kratos::NavierStokesWallCondition< 2, 2, Kratos::NavierSlipWallLaw< 2, 2 > >, Kratos::NavierStokesWallCondition< TDim, TNumNodes, TWallModel... >, Kratos::NavierStokesWallCondition< 3, 3, Kratos::LinearLogWallLaw< 3, 3 > >, Kratos::NavierStokesWallCondition< 2, 2, Kratos::LinearLogWallLaw< 2, 2 > >, Kratos::NavierStokesWallCondition< 3, 3, Kratos::NavierSlipWallLaw< 3, 3 > >, and Kratos::NavierStokesWallCondition< 3, 3 >.

◆ Calculate() [2/4]

virtual void Kratos::Condition::Calculate	(	const Variable< double > &	rVariable,
		double &	Output,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

Calculate a Condition variable usually associated to a integration point the Output is given on integration points and characterizes the condition Calculate(..) methods are: OPTIONAL

Reimplemented in Kratos::HelmholtzSurfaceShapeCondition, Kratos::HelmholtzSurfShapeCondition, Kratos::CompositeCondition, Kratos::AdjointSemiAnalyticBaseCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::LineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementSurfaceLoadCondition3D >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementLineLoadCondition< 3 > >, and Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SurfaceLoadCondition3D >.

◆ Calculate() [3/4]

virtual void Kratos::Condition::Calculate	(	const Variable< Matrix > &	rVariable,
		Matrix &	Output,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

Reimplemented in Kratos::HelmholtzSurfShapeCondition, Kratos::AdjointSemiAnalyticBaseCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::LineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementSurfaceLoadCondition3D >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementLineLoadCondition< 3 > >, and Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SurfaceLoadCondition3D >.

◆ Calculate() [4/4]

virtual void Kratos::Condition::Calculate	(	const Variable< Vector > &	rVariable,
		Vector &	Output,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

Reimplemented in Kratos::AdjointSemiAnalyticBaseCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::LineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementSurfaceLoadCondition3D >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementLineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SurfaceLoadCondition3D >, Kratos::RigidFace3D, and Kratos::RigidEdge2D.

◆ CalculateDampingMatrix()

virtual void Kratos::Condition::CalculateDampingMatrix	(	MatrixType &	rDampingMatrix,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

this is called during the assembling process in order to calculate the condition damping matrix

Parameters

rDampingMatrix	the condition damping matrix
rCurrentProcessInfo	the current process info instance

Reimplemented in Kratos::AdjointSemiAnalyticBaseCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::LineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementSurfaceLoadCondition3D >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementLineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SurfaceLoadCondition3D >, Kratos::DisplacementControlCondition, Kratos::BaseLoadCondition, Kratos::LineHeatFluxCondition, Kratos::BoundaryCondition, Kratos::MPMParticleBaseCondition, Kratos::MPMGridBaseLoadCondition, Kratos::UPwLysmerAbsorbingCondition< TDim, TNumNodes >, Kratos::UPwLysmerAbsorbingCondition< 2, 3 >, Kratos::UPwLysmerAbsorbingCondition< 2, 2 >, Kratos::UPwLysmerAbsorbingCondition< 3, 4 >, Kratos::UPwLysmerAbsorbingCondition< 3, 3 >, Kratos::MonolithicWallCondition< TDim, TNumNodes >, Kratos::MonolithicWallCondition< 2, 2 >, Kratos::MonolithicWallCondition< TDim, TDim >, Kratos::MonolithicWallCondition< 3, 3 >, Kratos::CompositeCondition, Kratos::MPCMortarContactCondition< TDim, TNumNodes, TNumNodesMaster >, Kratos::MPCMortarContactCondition< 3, 3, 4 >, Kratos::MPCMortarContactCondition< 2, 2 >, Kratos::MPCMortarContactCondition< 3, 4, 4 >, Kratos::MPCMortarContactCondition< 3, 3, 3 >, Kratos::MPCMortarContactCondition< 3, 4, 3 >, Kratos::MortarContactCondition< TDim, TNumNodes, TFrictional, TNormalVariation, TNumNodesMaster >, Kratos::MortarContactCondition< TDim, TNumNodes, FrictionalCase::FRICTIONAL, TNormalVariation, TNumNodes >, Kratos::MortarContactCondition< TDim, TNumNodes, FrictionalCase::FRICTIONLESS_PENALTY, TNormalVariation, TNumNodes >, Kratos::MortarContactCondition< TDim, TNumNodes, FrictionalCase::FRICTIONLESS_COMPONENTS, TNormalVariation, TNumNodes >, Kratos::MortarContactCondition< TDim, TNumNodes, FrictionalCase::FRICTIONAL_PENALTY, TNormalVariation, TNumNodes >, Kratos::MortarContactCondition< TDim, TNumNodes, FrictionalCase::FRICTIONLESS, TNormalVariation, TNumNodes >, Kratos::MeshTyingMortarCondition< TDim, TNumNodes, TNumNodesMaster >, Kratos::MeshTyingMortarCondition< 3, 3, 4 >, Kratos::MeshTyingMortarCondition< 2, 2 >, Kratos::MeshTyingMortarCondition< 3, 4 >, Kratos::MeshTyingMortarCondition< 3, 4, 3 >, Kratos::MeshTyingMortarCondition< 3, 3 >, Kratos::PointRigidContactCondition, and Kratos::RigidBodyPointLinkCondition.

◆ CalculateFirstDerivativesContributions()

virtual void Kratos::Condition::CalculateFirstDerivativesContributions	(	MatrixType &	rLeftHandSideMatrix,
		VectorType &	rRightHandSideVector,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

CONDITIONS inherited from this class must implement this methods if they need to add dynamic condition contributions note: first derivatives means the velocities if the displacements are the dof of the analysis note: time integration parameters must be set in the rCurrentProcessInfo before calling these methods CalculateFirstDerivativesContributions, CalculateFirstDerivativesLHS, CalculateFirstDerivativesRHS methods are : OPTIONAL this is called during the assembling process in order to calculate the first derivatives contributions for the LHS and RHS

Parameters

rLeftHandSideMatrix	the condition left hand side matrix
rRightHandSideVector	the condition right hand side
rCurrentProcessInfo	the current process info instance

Reimplemented in Kratos::AdjointSemiAnalyticBaseCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::LineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementSurfaceLoadCondition3D >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementLineLoadCondition< 3 > >, and Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SurfaceLoadCondition3D >.

◆ CalculateFirstDerivativesLHS()

virtual void Kratos::Condition::CalculateFirstDerivativesLHS	(	MatrixType &	rLeftHandSideMatrix,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

this is called during the assembling process in order to calculate the condition left hand side matrix for the first derivatives contributions

Parameters

rLeftHandSideMatrix	the condition left hand side matrix
rCurrentProcessInfo	the current process info instance

Reimplemented in Kratos::AdjointSemiAnalyticBaseCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::LineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementSurfaceLoadCondition3D >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementLineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SurfaceLoadCondition3D >, Kratos::AdjointMonolithicWallCondition< TDim, TNumNodes >, Kratos::AdjointMonolithicWallCondition< 2, 2 >, and Kratos::AdjointMonolithicWallCondition< 3, 3 >.

◆ CalculateFirstDerivativesRHS()

virtual void Kratos::Condition::CalculateFirstDerivativesRHS	(	VectorType &	rRightHandSideVector,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

this is called during the assembling process in order to calculate the condition right hand side vector for the first derivatives contributions

Parameters

rRightHandSideVector	the condition right hand side vector
rCurrentProcessInfo	the current process info instance

Reimplemented in Kratos::AdjointSemiAnalyticBaseCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::LineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementSurfaceLoadCondition3D >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementLineLoadCondition< 3 > >, and Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SurfaceLoadCondition3D >.

◆ CalculateLeftHandSide()

virtual void Kratos::Condition::CalculateLeftHandSide	(	MatrixType &	rLeftHandSideMatrix,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

this is called during the assembling process in order to calculate the condition left hand side matrix only

Parameters

rLeftHandSideMatrix	the condition left hand side matrix
rCurrentProcessInfo	the current process info instance

◆ CalculateLocalSystem()

virtual void Kratos::Condition::CalculateLocalSystem	(	MatrixType &	rLeftHandSideMatrix,
		VectorType &	rRightHandSideVector,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

CONDITIONS inherited from this class have to implement next CalculateLocalSystem, CalculateLeftHandSide and CalculateRightHandSide methods they can be managed internally with a private method to do the same calculations only once: MANDATORY this is called during the assembling process in order to calculate all condition contributions to the global system matrix and the right hand side

Parameters

rLeftHandSideMatrix	the condition left hand side matrix
rRightHandSideVector	the condition right hand side
rCurrentProcessInfo	the current process info instance

◆ CalculateLocalVelocityContribution()

virtual void Kratos::Condition::CalculateLocalVelocityContribution	(	MatrixType &	rDampingMatrix,
		VectorType &	rRightHandSideVector,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

Calculate Damp matrix and add velocity contribution to RHS

Parameters

rDampingMatrix	the velocity-proportional "damping" matrix
rRightHandSideVector	the condition right hand side matrix
rCurrentProcessInfo	the current process info instance

Reimplemented in Kratos::MonolithicWallCondition< TDim, TNumNodes >, Kratos::MonolithicWallCondition< 2, 2 >, Kratos::MonolithicWallCondition< TDim, TDim >, Kratos::MonolithicWallCondition< 3, 3 >, Kratos::AdjointMonolithicWallCondition< TDim, TNumNodes >, Kratos::AdjointMonolithicWallCondition< 2, 2 >, and Kratos::AdjointMonolithicWallCondition< 3, 3 >.

◆ CalculateMassMatrix()

virtual void Kratos::Condition::CalculateMassMatrix	(	MatrixType &	rMassMatrix,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

CONDITIONS inherited from this class must implement this methods if they need to add dynamic condition contributions CalculateMassMatrix and CalculateDampingMatrix methods are: OPTIONAL this is called during the assembling process in order to calculate the condition mass matrix

Parameters

rMassMatrix	the condition mass matrix
rCurrentProcessInfo	the current process info instance

◆ CalculateOnIntegrationPoints() [1/9]

virtual void Kratos::Condition::CalculateOnIntegrationPoints	(	const Variable< array_1d< double, 3 >> &	rVariable,
		std::vector< array_1d< double, 3 >> &	rOutput,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

Reimplemented in Kratos::FractionalStepKBasedWallCondition< TDim, TNumNodes >, Kratos::FractionalStepKBasedWallCondition< 2, 2 >, Kratos::FractionalStepKBasedWallCondition< 3, 3 >, Kratos::LineLoadCondition< TDim >, Kratos::LineLoadCondition< 2 >, Kratos::LineLoadCondition< 3 >, Kratos::OutputCondition, Kratos::MeshTyingMortarCondition< TDim, TNumNodes, TNumNodesMaster >, Kratos::MeshTyingMortarCondition< 3, 3, 4 >, Kratos::MeshTyingMortarCondition< 2, 2 >, Kratos::MeshTyingMortarCondition< 3, 4 >, Kratos::MeshTyingMortarCondition< 3, 4, 3 >, and Kratos::MeshTyingMortarCondition< 3, 3 >.

◆ CalculateOnIntegrationPoints() [2/9]

virtual void Kratos::Condition::CalculateOnIntegrationPoints	(	const Variable< array_1d< double, 4 >> &	rVariable,
		std::vector< array_1d< double, 4 >> &	rOutput,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

◆ CalculateOnIntegrationPoints() [3/9]

virtual void Kratos::Condition::CalculateOnIntegrationPoints	(	const Variable< array_1d< double, 6 >> &	rVariable,
		std::vector< array_1d< double, 6 >> &	rOutput,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

Reimplemented in Kratos::FractionalStepKBasedWallCondition< TDim, TNumNodes >, Kratos::FractionalStepKBasedWallCondition< 2, 2 >, and Kratos::FractionalStepKBasedWallCondition< 3, 3 >.

◆ CalculateOnIntegrationPoints() [4/9]

virtual void Kratos::Condition::CalculateOnIntegrationPoints	(	const Variable< array_1d< double, 9 >> &	rVariable,
		std::vector< array_1d< double, 9 >> &	rOutput,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

◆ CalculateOnIntegrationPoints() [5/9]

virtual void Kratos::Condition::CalculateOnIntegrationPoints	(	const Variable< bool > &	rVariable,
		std::vector< bool > &	rOutput,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

Calculate variables on Integration points. This gives access to variables computed in the constitutive law on each integration point. Specialisations of condition must specify the actual interface to the integration points! Note, that these functions expect a std::vector of values for the specified variable type that contains a value for each integration point! CalculateValueOnIntegrationPoints: calculates the values of given Variable.

◆ CalculateOnIntegrationPoints() [6/9]

virtual void Kratos::Condition::CalculateOnIntegrationPoints	(	const Variable< double > &	rVariable,
		std::vector< double > &	rOutput,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

◆ CalculateOnIntegrationPoints() [7/9]

virtual void Kratos::Condition::CalculateOnIntegrationPoints	(	const Variable< int > &	rVariable,
		std::vector< int > &	rOutput,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

◆ CalculateOnIntegrationPoints() [8/9]

virtual void Kratos::Condition::CalculateOnIntegrationPoints	(	const Variable< Matrix > &	rVariable,
		std::vector< Matrix > &	rOutput,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

Reimplemented in Kratos::FractionalStepKBasedWallCondition< TDim, TNumNodes >, Kratos::FractionalStepKBasedWallCondition< 2, 2 >, Kratos::FractionalStepKBasedWallCondition< 3, 3 >, Kratos::WallCondition< TDim, TNumNodes >, Kratos::WallCondition< 2, 2 >, Kratos::WallCondition< TDim, TDim >, Kratos::WallCondition< 3, 3 >, Kratos::MonolithicWallCondition< TDim, TNumNodes >, Kratos::MonolithicWallCondition< 2, 2 >, Kratos::MonolithicWallCondition< TDim, TDim >, Kratos::MonolithicWallCondition< 3, 3 >, Kratos::FSWernerWengleWallCondition< TDim, TNumNodes >, Kratos::FSWernerWengleWallCondition< 2, 2 >, Kratos::FSWernerWengleWallCondition< 3, 3 >, Kratos::ThermalFace, Kratos::FluxCondition< TNodeNumber >, Kratos::FluxCondition< 2 >, Kratos::FluxCondition< 3 >, Kratos::FluxCondition< 4 >, Kratos::CompositeCondition, Kratos::ThermalContactDomainCondition, Kratos::ContactDomainCondition, Kratos::AdjointSemiAnalyticBaseCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::LineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementSurfaceLoadCondition3D >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementLineLoadCondition< 3 > >, and Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SurfaceLoadCondition3D >.

◆ CalculateOnIntegrationPoints() [9/9]

virtual void Kratos::Condition::CalculateOnIntegrationPoints	(	const Variable< Vector > &	rVariable,
		std::vector< Vector > &	rOutput,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

◆ CalculateRightHandSide()

virtual void Kratos::Condition::CalculateRightHandSide	(	VectorType &	rRightHandSideVector,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

this is called during the assembling process in order to calculate the condition right hand side vector only

Parameters

rRightHandSideVector	the condition right hand side vector
rCurrentProcessInfo	the current process info instance

◆ CalculateSecondDerivativesContributions()

virtual void Kratos::Condition::CalculateSecondDerivativesContributions	(	MatrixType &	rLeftHandSideMatrix,
		VectorType &	rRightHandSideVector,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

CONDITIONS inherited from this class must implement this methods if they need to add dynamic condition contributions note: second derivatives means the accelerations if the displacements are the dof of the analysis note: time integration parameters must be set in the rCurrentProcessInfo before calling these methods CalculateSecondDerivativesContributions, CalculateSecondDerivativesLHS, CalculateSecondDerivativesRHS methods are : OPTIONAL this is called during the assembling process in order to calculate the second derivative contributions for the LHS and RHS

Parameters

rLeftHandSideMatrix	the condition left hand side matrix
rRightHandSideVector	the condition right hand side
rCurrentProcessInfo	the current process info instance

Reimplemented in Kratos::AdjointSemiAnalyticBaseCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::LineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementSurfaceLoadCondition3D >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementLineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SurfaceLoadCondition3D >, Kratos::RigidBodyPointLinkSegregatedVCondition, and Kratos::RigidBodyPointLinkCondition.

◆ CalculateSecondDerivativesLHS()

virtual void Kratos::Condition::CalculateSecondDerivativesLHS	(	MatrixType &	rLeftHandSideMatrix,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

this is called during the assembling process in order to calculate the condition left hand side matrix for the second derivatives contributions

Parameters

rLeftHandSideMatrix	the condition left hand side matrix
rCurrentProcessInfo	the current process info instance

Reimplemented in Kratos::AdjointSemiAnalyticBaseCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::LineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementSurfaceLoadCondition3D >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementLineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SurfaceLoadCondition3D >, Kratos::RigidBodyPointLinkSegregatedVCondition, Kratos::RigidBodyPointLinkCondition, Kratos::AdjointMonolithicWallCondition< TDim, TNumNodes >, Kratos::AdjointMonolithicWallCondition< 2, 2 >, and Kratos::AdjointMonolithicWallCondition< 3, 3 >.

◆ CalculateSecondDerivativesRHS()

virtual void Kratos::Condition::CalculateSecondDerivativesRHS	(	VectorType &	rRightHandSideVector,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

this is called during the assembling process in order to calculate the condition right hand side vector for the second derivatives contributions

Parameters

rRightHandSideVector	the condition right hand side vector
rCurrentProcessInfo	the current process info instance

Reimplemented in Kratos::AdjointSemiAnalyticBaseCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::LineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementSurfaceLoadCondition3D >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementLineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SurfaceLoadCondition3D >, Kratos::RigidBodyPointLinkSegregatedVCondition, and Kratos::RigidBodyPointLinkCondition.

◆ CalculateSensitivityMatrix() [1/2]

virtual void Kratos::Condition::CalculateSensitivityMatrix	(	const Variable< array_1d< double, 3 > > &	rDesignVariable,
		Matrix &	rOutput,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

Calculate the transposed gradient of the condition's residual w.r.t. design variable.

Reimplemented in Kratos::AdjointSemiAnalyticPointLoadCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticPointLoadCondition< Kratos::PointLoadCondition >, Kratos::AdjointSemiAnalyticBaseCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::LineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementSurfaceLoadCondition3D >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementLineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SurfaceLoadCondition3D >, Kratos::AdjointPotentialWallCondition< TPrimalCondition >, Kratos::AdjointPotentialWallCondition< Kratos::PotentialWallCondition< 3, 3 > >, and Kratos::AdjointPotentialWallCondition< Kratos::PotentialWallCondition< 2, 2 > >.

◆ CalculateSensitivityMatrix() [2/2]

virtual void Kratos::Condition::CalculateSensitivityMatrix	(	const Variable< double > &	rDesignVariable,
		Matrix &	rOutput,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

Calculate the transposed gradient of the condition's residual w.r.t. design variable.

Reimplemented in Kratos::AdjointSemiAnalyticBaseCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::LineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementSurfaceLoadCondition3D >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementLineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SurfaceLoadCondition3D >, Kratos::AdjointPotentialWallCondition< TPrimalCondition >, Kratos::AdjointPotentialWallCondition< Kratos::PotentialWallCondition< 3, 3 > >, and Kratos::AdjointPotentialWallCondition< Kratos::PotentialWallCondition< 2, 2 > >.

◆ Check()

virtual int Kratos::Condition::Check ( const ProcessInfo & rCurrentProcessInfo ) const

inlinevirtual

This method provides the place to perform checks on the completeness of the input and the compatibility with the problem options as well as the contitutive laws selected It is designed to be called only once (or anyway, not often) typically at the beginning of the calculations, so to verify that nothing is missing from the input or that no common error is found.

Parameters

rCurrentProcessInfo this method is: MANDATORY

◆ Clone()

virtual Pointer Kratos::Condition::Clone	(	IndexType	NewId,
		NodesArrayType const &	ThisNodes
	)		const

inlinevirtual

It creates a new condition pointer and clones the previous condition data.

Parameters

NewId	the ID of the new condition
ThisNodes	the nodes of the new condition
pProperties	the properties assigned to the new condition

Returns: a Pointer to the new condition

◆ Create() [1/2]

virtual Pointer Kratos::Condition::Create	(	IndexType	NewId,
		GeometryType::Pointer	pGeom,
		PropertiesType::Pointer	pProperties
	)		const

inlinevirtual

It creates a new condition pointer.

Parameters

NewId	the ID of the new condition
pGeom	the geometry to be employed
pProperties	the properties assigned to the new condition

Returns: a Pointer to the new condition

◆ Create() [2/2]

virtual Pointer Kratos::Condition::Create	(	IndexType	NewId,
		NodesArrayType const &	ThisNodes,
		PropertiesType::Pointer	pProperties
	)		const

inlinevirtual

It creates a new condition pointer.

CONDITIONS inherited from this class have to implement next Create and Clone methods: MANDATORY

Parameters

NewId	the ID of the new condition
ThisNodes	the nodes of the new condition
pProperties	the properties assigned to the new condition

Returns: a Pointer to the new condition

◆ DampMatrix()

virtual void Kratos::Condition::DampMatrix	(	MatrixType &	rDampMatrix,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

this is called during the assembling process in order to calculate the condition damping matrix

Parameters

rDampMatrix	the condition damping matrix
rCurrentProcessInfo	the current process info instance

◆ EquationIdVector()

virtual void Kratos::Condition::EquationIdVector	(	EquationIdVectorType &	rResult,
		const ProcessInfo &	rCurrentProcessInfo
	)		const

inlinevirtual

CONDITIONS inherited from this class have to implement next EquationIdVector and GetDofList methods: MANDATORY this determines the condition equation ID vector for all condition DOFs

Parameters

rResult	the condition equation ID vector
rCurrentProcessInfo	the current process info instance

◆ FinalizeNonLinearIteration()

virtual void Kratos::Condition::FinalizeNonLinearIteration ( const ProcessInfo & rCurrentProcessInfo )

inlinevirtual

this is called for non-linear analysis at the end of the iteration process

◆ FinalizeSolutionStep()

virtual void Kratos::Condition::FinalizeSolutionStep ( const ProcessInfo & rCurrentProcessInfo )

inlinevirtual

this is called at the end of each solution step

◆ GetDofList()

virtual void Kratos::Condition::GetDofList	(	DofsVectorType &	rElementalDofList,
		const ProcessInfo &	rCurrentProcessInfo
	)		const

inlinevirtual

determines the condition list of DOFs

Parameters

ConditionDofList	the list of DOFs
rCurrentProcessInfo	the current process info instance

◆ GetFirstDerivativesVector()

virtual void Kratos::Condition::GetFirstDerivativesVector	(	Vector &	values,
		int	Step = `0`
	)		const

inlinevirtual

Getting method to obtain the time derivative of variable which defines the degrees of freedom

Reimplemented in Kratos::MonolithicWallCondition< TDim, TNumNodes >, Kratos::MonolithicWallCondition< 2, 2 >, Kratos::MonolithicWallCondition< TDim, TDim >, Kratos::MonolithicWallCondition< 3, 3 >, Kratos::AdjointMonolithicWallCondition< TDim, TNumNodes >, Kratos::AdjointMonolithicWallCondition< 2, 2 >, Kratos::AdjointMonolithicWallCondition< 3, 3 >, Kratos::PointMomentCondition3D, Kratos::BaseLoadCondition, Kratos::MomentCondition, Kratos::BoundaryCondition, Kratos::WaveCondition< TNumNodes >, Kratos::WaveCondition< 2 >, Kratos::WaveCondition< 3 >, Kratos::ScalarWallFluxCondition< TDim, TNumNodes, TScalarWallFluxConditionData >, Kratos::ScalarWallFluxCondition< 3, 3, Kratos::KEpsilonWallConditionData::EpsilonUBasedWallConditionData >, Kratos::ScalarWallFluxCondition< 2, 2, Kratos::KOmegaWallConditionData::OmegaUBasedWallConditionData >, Kratos::ScalarWallFluxCondition< 2, 2, Kratos::KEpsilonWallConditionData::EpsilonUBasedWallConditionData >, Kratos::ScalarWallFluxCondition< 3, 3, Kratos::KOmegaWallConditionData::OmegaKBasedWallConditionData >, Kratos::ScalarWallFluxCondition< 2, 2, Kratos::KEpsilonWallConditionData::EpsilonKBasedWallConditionData >, Kratos::ScalarWallFluxCondition< 2, 2, Kratos::KOmegaWallConditionData::OmegaKBasedWallConditionData >, Kratos::ScalarWallFluxCondition< 3, 3, Kratos::KEpsilonWallConditionData::EpsilonKBasedWallConditionData >, Kratos::ScalarWallFluxCondition< 3, 3, Kratos::KOmegaWallConditionData::OmegaUBasedWallConditionData >, Kratos::MPMParticleBaseCondition, Kratos::MPMGridBaseLoadCondition, Kratos::CompositeCondition, Kratos::ThermalContactDomainCondition, Kratos::RigidBodyPointRigidContactCondition, Kratos::PointRigidContactCondition, Kratos::EPPointRigidContactPenaltywP3DCondition, Kratos::RigidBodyPointLinkSegregatedVCondition, Kratos::RigidBodyPointLinkCondition, Kratos::HydraulicRigidContactPenalty3DCondition, Kratos::ContactDomainCondition, Kratos::UPwLysmerAbsorbingCondition< TDim, TNumNodes >, Kratos::UPwLysmerAbsorbingCondition< 2, 3 >, Kratos::UPwLysmerAbsorbingCondition< 2, 2 >, Kratos::UPwLysmerAbsorbingCondition< 3, 4 >, and Kratos::UPwLysmerAbsorbingCondition< 3, 3 >.

◆ GetIntegrationMethod()

virtual IntegrationMethod Kratos::Condition::GetIntegrationMethod ( ) const

inlinevirtual

returns the used integration method. In the general case this is the default integration method of the used geometry. I an other integration method is used the method has to be overwritten within the condition

Returns: default integration method of the used Geometry this method is: OPTIONAL ( is recommended to reimplement it in the derived class )

◆ GetProperties() [1/2]

PropertiesType& Kratos::Condition::GetProperties ( )

inline

◆ GetProperties() [2/2]

PropertiesType const& Kratos::Condition::GetProperties ( ) const

inline

◆ GetSecondDerivativesVector()

virtual void Kratos::Condition::GetSecondDerivativesVector	(	Vector &	values,
		int	Step = `0`
	)		const

inlinevirtual

Getting method to obtain the second time derivative of variable which defines the degrees of freedom

◆ GetSpecifications()

virtual const Parameters Kratos::Condition::GetSpecifications ( ) const

inlinevirtual

This method provides the specifications/requirements of the element.

This can be used to enhance solvers and analysis { "time_integration" : [], // NOTE: Options are static, implicit, explicit "framework" : "eulerian", // NOTE: Options are eulerian, lagrangian, ALE "symmetric_lhs" : true, // NOTE: Options are true/false "positive_definite_lhs" : false, // NOTE: Options are true/false "output" : { // NOTE: Values compatible as output "gauss_point" : ["INTEGRATION_WEIGTH"], "nodal_historical" : ["DISPLACEMENT"], "nodal_non_historical" : [], "entity" : [] }, "required_variables" : ["DISPLACEMENT"], // NOTE: Fill with the required variables "required_dofs" : ["DISPLACEMENT_X", "DISPLACEMENT_Y"], // NOTE: Fill with the required dofs "flags_used" : ["BOUNDARY", "ACTIVE"], // NOTE: Fill with the flags used "compatible_geometries" : ["Triangle2D3"], // NOTE: Compatible geometries. Options are "Point2D", "Point3D", "Sphere3D1", "Line2D2", "Line2D3", "Line3D2", "Line3D3", "Triangle2D3", "Triangle2D6", "Triangle3D3", "Triangle3D6", "Quadrilateral2D4", "Quadrilateral2D8", "Quadrilateral2D9", "Quadrilateral3D4", "Quadrilateral3D8", "Quadrilateral3D9", "Tetrahedra3D4" , "Tetrahedra3D10" , "Prism3D6" , "Prism3D15" , "Hexahedra3D8" , "Hexahedra3D20" , "Hexahedra3D27" "element_integrates_in_time" : true, // NOTE: Options are true/false "compatible_constitutive_laws": { "type" : ["PlaneStress","PlaneStrain"], // NOTE: List of CL compatible types. Options are "PlaneStress", "PlaneStrain", "3D" "dimension" : ["2D", "2D"], // NOTE: List of dimensions. Options are "2D", "3D", "2DAxysimm" "strain_size" : [3,3] // NOTE: List of strain sizes }, "documentation" : "This is a condition" // NOTE: The documentation of the entity }

Returns: specifications The required specifications/requirements

Reimplemented in Kratos::MeshCondition, Kratos::DisplacementControlCondition, Kratos::BaseLoadCondition, Kratos::WaveCondition< TNumNodes >, Kratos::WaveCondition< 2 >, Kratos::WaveCondition< 3 >, Kratos::ConservativeCondition< TNumNodes >, Kratos::ConservativeCondition< 2 >, Kratos::BoussinesqCondition< TNumNodes >, and Kratos::BoussinesqCondition< 2 >.

◆ GetValuesVector()

virtual void Kratos::Condition::GetValuesVector	(	Vector &	values,
		int	Step = `0`
	)		const

inlinevirtual

CONDITIONS inherited from this class must implement this methods if they need the values of the time derivatives of any of the dof set by the condition. If the derivatives do not exist can set to zero these methods are: MANDATORY ( when compatibility with dynamics is required ) Getting method to obtain the variable which defines the degrees of freedom

◆ HasProperties()

bool Kratos::Condition::HasProperties ( ) const

inline

Check that the Condition has a correctly initialized pointer to a Properties instance.

◆ Info()

std::string Kratos::Condition::Info ( ) const

inlineoverridevirtual

Turn back information as a string.

Reimplemented from Kratos::Flags.

◆ Initialize()

virtual void Kratos::Condition::Initialize ( const ProcessInfo & rCurrentProcessInfo )

inlinevirtual

CONDITIONS inherited from this class must implement next methods Initialize, ResetConstitutiveLaw if the condition needs to perform any operation before any calculation is done reset material and constitutive parameters or clean memory deleting obsolete variables these methods are: OPTIONAL is called to initialize the condition if the condition needs to perform any operation before any calculation is done the condition variables will be initialized and set using this method

◆ InitializeNonLinearIteration()

virtual void Kratos::Condition::InitializeNonLinearIteration ( const ProcessInfo & rCurrentProcessInfo )

inlinevirtual

this is called for non-linear analysis at the beginning of the iteration process

◆ InitializeSolutionStep()

virtual void Kratos::Condition::InitializeSolutionStep ( const ProcessInfo & rCurrentProcessInfo )

inlinevirtual

CONDITIONS inherited from this class must implement next methods InitializeSolutionStep, FinalizeSolutionStep, InitializeNonLinearIteration, FinalizeNonLinearIteration if the condition needs to perform any operation before and after the solution step if the condition needs to perform any operation before and after the solution iteration these methods are: OPTIONAL this is called in the beginning of each solution step

◆ KRATOS_CLASS_INTRUSIVE_POINTER_DEFINITION()

Kratos::Condition::KRATOS_CLASS_INTRUSIVE_POINTER_DEFINITION ( Condition )

Pointer definition of Condition.

◆ MassMatrix()

virtual void Kratos::Condition::MassMatrix	(	MatrixType &	rMassMatrix,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

this is called during the assembling process in order to calculate the condition mass matrix

Parameters

rMassMatrix	the condition mass matrix
rCurrentProcessInfo	the current process info instance

◆ operator=()

Condition& Kratos::Condition::operator= ( Condition const & rOther )

inline

Assignment operator.

CONDITIONS inherited from this class have to implement next assignment operator: MANDATORY

◆ pGetProperties() [1/2]

PropertiesType::Pointer Kratos::Condition::pGetProperties ( )

inline

returns the pointer to the property of the condition. Does not throw an error, to allow copying of conditions which don't have any property assigned.

Returns: property pointer

◆ pGetProperties() [2/2]

const PropertiesType::Pointer Kratos::Condition::pGetProperties ( ) const

inline

◆ PrintData()

void Kratos::Condition::PrintData ( std::ostream & rOStream ) const

inlineoverridevirtual

Print object's data.

Reimplemented from Kratos::Flags.

◆ PrintInfo()

void Kratos::Condition::PrintInfo ( std::ostream & rOStream ) const

inlineoverridevirtual

Print information about this object.

Reimplemented from Kratos::Flags.

◆ ResetConstitutiveLaw()

virtual void Kratos::Condition::ResetConstitutiveLaw ( )

inlinevirtual

is called to reset the constitutive law parameters and the material properties the condition variables will be changed and reset using this method

Reimplemented in Kratos::AdjointSemiAnalyticBaseCondition< TPrimalCondition >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::LineLoadCondition< 3 > >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementSurfaceLoadCondition3D >, Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SmallDisplacementLineLoadCondition< 3 > >, and Kratos::AdjointSemiAnalyticBaseCondition< Kratos::SurfaceLoadCondition3D >.

◆ SetProperties()

void Kratos::Condition::SetProperties ( PropertiesType::Pointer pProperties )

inline

◆ SetValuesOnIntegrationPoints() [1/9]

virtual void Kratos::Condition::SetValuesOnIntegrationPoints	(	const Variable< array_1d< double, 3 >> &	rVariable,
		const std::vector< array_1d< double, 3 >> &	rValues,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

◆ SetValuesOnIntegrationPoints() [2/9]

virtual void Kratos::Condition::SetValuesOnIntegrationPoints	(	const Variable< array_1d< double, 4 >> &	rVariable,
		const std::vector< array_1d< double, 4 >> &	rValues,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

◆ SetValuesOnIntegrationPoints() [3/9]

virtual void Kratos::Condition::SetValuesOnIntegrationPoints	(	const Variable< array_1d< double, 6 >> &	rVariable,
		const std::vector< array_1d< double, 6 >> &	rValues,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

◆ SetValuesOnIntegrationPoints() [4/9]

virtual void Kratos::Condition::SetValuesOnIntegrationPoints	(	const Variable< array_1d< double, 9 >> &	rVariable,
		const std::vector< array_1d< double, 9 >> &	rValues,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

◆ SetValuesOnIntegrationPoints() [5/9]

virtual void Kratos::Condition::SetValuesOnIntegrationPoints	(	const Variable< bool > &	rVariable,
		const std::vector< bool > &	rValues,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

Access for variables on Integration points. This gives access to variables stored in the constitutive law on each integration point. Specializations of condition must specify the actual interface to the integration points! Note, that these functions expect a std::vector of values for the specified variable type that contains a value for each integration point! SetValuesOnIntegrationPoints: set the values for given Variable. GetValueOnIntegrationPoints: get the values for given Variable. these methods are: OPTIONAL

◆ SetValuesOnIntegrationPoints() [6/9]

virtual void Kratos::Condition::SetValuesOnIntegrationPoints	(	const Variable< double > &	rVariable,
		const std::vector< double > &	rValues,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

Reimplemented in Kratos::MPMParticlePenaltyDirichletCondition, Kratos::MPMParticleBaseCondition, Kratos::ThermalContactDomainCondition, and Kratos::ContactDomainCondition.

◆ SetValuesOnIntegrationPoints() [7/9]

virtual void Kratos::Condition::SetValuesOnIntegrationPoints	(	const Variable< int > &	rVariable,
		const std::vector< int > &	rValues,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

◆ SetValuesOnIntegrationPoints() [8/9]

virtual void Kratos::Condition::SetValuesOnIntegrationPoints	(	const Variable< Matrix > &	rVariable,
		const std::vector< Matrix > &	rValues,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

Reimplemented in Kratos::CompositeCondition, Kratos::ThermalContactDomainCondition, and Kratos::ContactDomainCondition.

◆ SetValuesOnIntegrationPoints() [9/9]

virtual void Kratos::Condition::SetValuesOnIntegrationPoints	(	const Variable< Vector > &	rVariable,
		const std::vector< Vector > &	rValues,
		const ProcessInfo &	rCurrentProcessInfo
	)

inlinevirtual

Reimplemented in Kratos::CompositeCondition, Kratos::ThermalContactDomainCondition, and Kratos::ContactDomainCondition.

Friends And Related Function Documentation

◆ Serializer

friend class Serializer

friend

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

/home/runner/work/Documentation/Documentation/master/kratos/includes/condition.h

Public Member Functions

Type Definitions

Serialization

Additional Inherited Members

Detailed Description

Member Typedef Documentation

◆ BaseType

◆ ConditionType

◆ DofsArrayType

◆ DofsVectorType

◆ DofType

◆ EquationIdVectorType

◆ GeometryDataType

◆ GeometryType

◆ IndexType

◆ IntegrationMethod

◆ MatrixType

◆ NodesArrayType

◆ NodeType

◆ PropertiesType

◆ SizeType

◆ VectorType

Constructor & Destructor Documentation

◆ Condition() [1/5]

◆ Condition() [2/5]

◆ Condition() [3/5]

◆ Condition() [4/5]

◆ Condition() [5/5]

◆ ~Condition()

Member Function Documentation

◆ AddExplicitContribution() [1/4]

◆ AddExplicitContribution() [2/4]

◆ AddExplicitContribution() [3/4]

◆ AddExplicitContribution() [4/4]

◆ AddInertiaForces()

◆ AddMassMatrix()

◆ Calculate() [1/4]

◆ Calculate() [2/4]

◆ Calculate() [3/4]

◆ Calculate() [4/4]

◆ CalculateDampingMatrix()

◆ CalculateFirstDerivativesContributions()

◆ CalculateFirstDerivativesLHS()

◆ CalculateFirstDerivativesRHS()

◆ CalculateLeftHandSide()

◆ CalculateLocalSystem()

◆ CalculateLocalVelocityContribution()

◆ CalculateMassMatrix()

◆ CalculateOnIntegrationPoints() [1/9]

◆ CalculateOnIntegrationPoints() [2/9]

◆ CalculateOnIntegrationPoints() [3/9]

◆ CalculateOnIntegrationPoints() [4/9]

◆ CalculateOnIntegrationPoints() [5/9]

◆ CalculateOnIntegrationPoints() [6/9]

◆ CalculateOnIntegrationPoints() [7/9]

◆ CalculateOnIntegrationPoints() [8/9]

◆ CalculateOnIntegrationPoints() [9/9]

◆ CalculateRightHandSide()

◆ CalculateSecondDerivativesContributions()

◆ CalculateSecondDerivativesLHS()

◆ CalculateSecondDerivativesRHS()

◆ CalculateSensitivityMatrix() [1/2]

◆ CalculateSensitivityMatrix() [2/2]

◆ Check()

◆ Clone()

◆ Create() [1/2]

◆ Create() [2/2]

◆ DampMatrix()

◆ EquationIdVector()

◆ FinalizeNonLinearIteration()

◆ FinalizeSolutionStep()

◆ GetDofList()

◆ GetFirstDerivativesVector()

◆ GetIntegrationMethod()

◆ GetProperties() [1/2]

◆ GetProperties() [2/2]

◆ GetSecondDerivativesVector()

◆ GetSpecifications()

◆ GetValuesVector()

◆ HasProperties()