#include <simpletransportcrosssection.h>

Inheritance diagram for oofem::SimpleTransportCrossSection:

Collaboration diagram for oofem::SimpleTransportCrossSection:

Public Member Functions
	SimpleTransportCrossSection (int n, Domain *d)
void	initializeFrom (InputRecord &ir) override
void	giveInputRecord (DynamicInputRecord &input) override
TransportMaterial *	giveMaterial () const override
	Temporary function that hands out the material. Must be removed for future layered support, but input files will still look the same.
Material *	giveMaterial (IntegrationPoint *ip) const override
	hidden by virtual oofem::Material* TransportCrossSection::giveMaterial() const
bool	isCharacteristicMtrxSymmetric (MatResponseMode rMode) const override
int	giveIPValue (FloatArray &answer, GaussPoint ip, InternalStateType type, TimeStep tStep) override
int	checkConsistency () override
int	packUnknowns (DataStream &buff, TimeStep tStep, GaussPoint gp) override
int	unpackAndUpdateUnknowns (DataStream &buff, TimeStep tStep, GaussPoint gp) override
int	estimatePackSize (DataStream &buff, GaussPoint *gp) override
const char *	giveClassName () const override
const char *	giveInputRecordName () const override
Public Member Functions inherited from oofem::TransportCrossSection
	TransportCrossSection (int n, Domain *d)
Public Member Functions inherited from oofem::CrossSection
	CrossSection (int n, Domain *d)
virtual	~CrossSection ()
	Destructor.
int	giveSetNumber () const
virtual bool	hasProperty (CrossSectionProperty a)
virtual double	give (CrossSectionProperty a, GaussPoint *gp) const
virtual double	give (CrossSectionProperty a, const FloatArray &coords, Element *elem, bool local=true) const
virtual double	give (int aProperty, GaussPoint *gp) const
void	printYourself () override
	Prints receiver state on stdout. Useful for debugging.
virtual int	setupIntegrationPoints (IntegrationRule &irule, int npoints, Element *element)
virtual int	setupIntegrationPoints (IntegrationRule &irule, int npointsXY, int npointsZ, Element *element)
virtual int	testCrossSectionExtension (CrossSectExtension ext)
virtual double	predictRelativeComputationalCost (GaussPoint *ip)
virtual double	giveRelativeSelfComputationalCost ()
virtual double	predictRelativeRedistributionCost (GaussPoint *gp)
virtual void	saveIPContext (DataStream &stream, ContextMode mode, GaussPoint *gp)
virtual void	restoreIPContext (DataStream &stream, ContextMode mode, GaussPoint *gp)
void	saveContext (DataStream &stream, ContextMode mode) override
void	restoreContext (DataStream &stream, ContextMode mode) override
Public Member Functions inherited from oofem::FEMComponent
	FEMComponent (int n, Domain *d)
virtual	~FEMComponent ()=default
	Virtual destructor.
Domain *	giveDomain () const
virtual void	setDomain (Domain *d)
int	giveNumber () const
void	setNumber (int num)
virtual void	updateLocalNumbering (EntityRenumberingFunctor &f)
virtual void	initializeFrom (InputRecord &ir, int priority)
virtual void	initializeFinish ()
virtual void	postInitialize ()
	Performs post initialization steps. Called after all components are created and initialized.
virtual void	printOutputAt (FILE file, TimeStep tStep)
virtual Interface *	giveInterface (InterfaceType t)
std::string	errorInfo (const char *func) const
	Returns string for prepending output (used by error reporting macros).

Protected Attributes
int	matNumber = 0
double	thickness = 0.
Protected Attributes inherited from oofem::CrossSection
Dictionary	propertyDictionary
int	setNumber
Protected Attributes inherited from oofem::FEMComponent
int	number
	Component number.
Domain *	domain
	Link to domain object, useful for communicating with other FEM components.

Detailed Description

Transort cross-section. It's functionality is to be a wrapper around the material behavior.

Todo: There will eventually be a layered version of this cross-section, so it must capture all the values.

Author: Mikael Öhman

Definition at line 56 of file simpletransportcrosssection.h.

Constructor & Destructor Documentation

◆ SimpleTransportCrossSection()

oofem::SimpleTransportCrossSection::SimpleTransportCrossSection	(	int	n,
		Domain *	d )

Constructor. Creates cross section with number n belonging to domain d.

Parameters

n	Cross section number.
d	Domain for cross section.

Definition at line 43 of file simpletransportcrosssection.C.

References oofem::TransportCrossSection::TransportCrossSection().

Member Function Documentation

◆ checkConsistency()

int oofem::SimpleTransportCrossSection::checkConsistency ( void )

overridevirtual

Allows programmer to test some internal data, before computation begins. For example, one may use this function, to ensure that element has material with required capabilities is assigned to element. This must be done after all mesh components are instanciated.

Returns: Nonzero if receiver is consistent.

Reimplemented from oofem::FEMComponent.

Definition at line 76 of file simpletransportcrosssection.C.

References oofem::FEMComponent::domain, and matNumber.

◆ estimatePackSize()

int oofem::SimpleTransportCrossSection::estimatePackSize	(	DataStream &	buff,
		GaussPoint *	ip )

overridevirtual

Estimates the necessary pack size to hold all packed data of receiver. The corresponding material model service is invoked. The nature of packed data is typically material model dependent.

Parameters

buff	Communication buffer.
ip	Integration point.

Returns: Estimate of pack size.

Implements oofem::CrossSection.

Definition at line 126 of file simpletransportcrosssection.C.

References oofem::FEMComponent::domain, and matNumber.

◆ giveClassName()

const char * oofem::SimpleTransportCrossSection::giveClassName ( ) const

inlineoverridevirtual

Returns: Class name of the receiver.

Implements oofem::FEMComponent.

Definition at line 86 of file simpletransportcrosssection.h.

◆ giveInputRecord()

void oofem::SimpleTransportCrossSection::giveInputRecord ( DynamicInputRecord & input )

overridevirtual

Setups the input record string of receiver.

Parameters

input Dynamic input record to be filled by receiver.

Reimplemented from oofem::CrossSection.

Definition at line 67 of file simpletransportcrosssection.C.

References _IFT_SimpleTransportCrossSection_material, matNumber, and oofem::DynamicInputRecord::setField().

◆ giveInputRecordName()

const char * oofem::SimpleTransportCrossSection::giveInputRecordName ( ) const

inlineoverridevirtual

Returns: Input record name of the receiver.

Implements oofem::FEMComponent.

Definition at line 87 of file simpletransportcrosssection.h.

References _IFT_SimpleTransportCrossSection_Name.

◆ giveIPValue()

int oofem::SimpleTransportCrossSection::giveIPValue	(	FloatArray &	answer,
		GaussPoint *	ip,
		InternalStateType	type,
		TimeStep *	tStep )

overridevirtual

Returns the integration point corresponding value in Reduced form.

Parameters

answer	contain corresponding ip value, zero sized if not available
ip	Integration point.
type	Determines the type of internal variable.
tStep	Time step.

Returns: Nonzero if o.k, zero otherwise.

Reimplemented from oofem::CrossSection.

Definition at line 100 of file simpletransportcrosssection.C.

References oofem::FEMComponent::domain, and matNumber.

◆ giveMaterial() [1/2]

TransportMaterial * oofem::SimpleTransportCrossSection::giveMaterial ( ) const

overridevirtual

Temporary function that hands out the material. Must be removed for future layered support, but input files will still look the same.

Implements oofem::TransportCrossSection.

Definition at line 87 of file simpletransportcrosssection.C.

References oofem::FEMComponent::domain, and matNumber.

◆ giveMaterial() [2/2]

Material * oofem::SimpleTransportCrossSection::giveMaterial ( IntegrationPoint * ip ) const

overridevirtual

hidden by virtual oofem::Material* TransportCrossSection::giveMaterial() const

Returns the material associated with the GP. Default implementation uses gp->giveMaterial() for backwards compatibility, but it should be overloaded in each specialized cross-section.

Implements oofem::CrossSection.

Definition at line 93 of file simpletransportcrosssection.C.

References oofem::FEMComponent::domain, and matNumber.

◆ initializeFrom()

void oofem::SimpleTransportCrossSection::initializeFrom ( InputRecord & ir )

overridevirtual

Initializes receiver according to object description stored in input record. This function is called immediately after creating object using constructor. Input record can be imagined as data record in component database belonging to receiver. Receiver may use value-name extracting functions to extract particular field from record. Note that initializeFrom may be called mutiple times.

See also: IR_GIVE_FIELD; IR_GIVE_OPTIONAL_FIELD

Parameters

ir	Input record to initialize from.
priority	Priority of the input record. This is used to determine the order of initialization

Reimplemented from oofem::CrossSection.

Definition at line 47 of file simpletransportcrosssection.C.

References _IFT_SimpleTransportCrossSection_area, _IFT_SimpleTransportCrossSection_material, _IFT_SimpleTransportCrossSection_thickness, oofem::CS_Area, oofem::CS_Thickness, oofem::InputRecord::hasField(), IR_GIVE_FIELD, matNumber, oofem::CrossSection::propertyDictionary, and thickness.

◆ isCharacteristicMtrxSymmetric()

bool oofem::SimpleTransportCrossSection::isCharacteristicMtrxSymmetric ( MatResponseMode rMode ) const

overridevirtual

Check for symmetry of stiffness matrix. Default implementation returns true. It can be moved to base Cross section class in the future.

Parameters

rMode Response mode of material.

Returns: True if stiffness matrix of receiver is symmetric.

Reimplemented from oofem::CrossSection.

Definition at line 107 of file simpletransportcrosssection.C.

References oofem::FEMComponent::domain, and matNumber.

◆ packUnknowns()

int oofem::SimpleTransportCrossSection::packUnknowns	(	DataStream &	buff,
		TimeStep *	tStep,
		GaussPoint *	ip )

overridevirtual

Pack all necessary data of integration point (according to element parallel_mode) into given communication buffer. The corresponding material model service for particular integration point is invoked. The nature of packed data is material model dependent. Typically, for material of "local" response (response depends only on integration point local state) no data are exchanged. For "nonlocal" constitutive models the send/receive of local values which undergo averaging is performed between local and corresponding remote elements.

Parameters