The PatchKernel class provides an interface for defining patches. More...

Inheritance diagram for bitpit::PatchKernel:

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Collaboration diagram for bitpit::PatchKernel:

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Classes
struct	CellFuzzyPositionGreater

struct	CellFuzzyPositionLess

struct	CellPositionGreater

struct	CellPositionLess

struct	PointPositionLess

struct	VertexPositionGreater

struct	VertexPositionLess

Public Types
enum	AdaptionStatus { ADAPTION_UNSUPPORTED = -1 , ADAPTION_CLEAN , ADAPTION_DIRTY , ADAPTION_PREPARED , ADAPTION_ALTERED }

enum	AdjacenciesBuildStrategy { ADJACENCIES_NONE = -1 , ADJACENCIES_AUTOMATIC }

typedef PiercedVector< Cell >::const_iterator	CellConstIterator

typedef PiercedVector< Cell >::const_range	CellConstRange

typedef PiercedVector< Cell >::iterator	CellIterator

typedef PiercedVector< Cell >::range	CellRange

typedef PiercedVector< Interface >::const_iterator	InterfaceConstIterator

typedef PiercedVector< Interface >::const_range	InterfaceConstRange

typedef PiercedVector< Interface >::iterator	InterfaceIterator

typedef PiercedVector< Interface >::range	InterfaceRange

enum	InterfacesBuildStrategy { INTERFACES_NONE = -1 , INTERFACES_AUTOMATIC }

enum	PartitioningStatus { PARTITIONING_UNSUPPORTED = -1 , PARTITIONING_CLEAN , PARTITIONING_PREPARED , PARTITIONING_ALTERED }

enum	SpawnStatus { SPAWN_UNNEEDED = -1 , SPAWN_NEEDED , SPAWN_DONE }

typedef PiercedVector< Vertex >::const_iterator	VertexConstIterator

typedef PiercedVector< Vertex >::const_range	VertexConstRange

typedef PiercedVector< Vertex >::iterator	VertexIterator

typedef PiercedVector< Vertex >::range	VertexRange

enum	WriteTarget { WRITE_TARGET_CELLS_ALL , WRITE_TARGET_CELLS_INTERNAL }

Public Member Functions
	PatchKernel (PatchKernel &&other)

virtual	~PatchKernel ()

std::vector< adaption::Info >	adaption (bool trackAdaption=true, bool squeezeStorage=false)

std::vector< adaption::Info >	adaptionAlter (bool trackAdaption=true, bool squeezeStorage=false)

void	adaptionCleanup ()

std::vector< adaption::Info >	adaptionPrepare (bool trackAdaption=true)

CellIterator	addCell (Cell &&source, int owner, int haloLayer, long id=Element::NULL_ID)

CellIterator	addCell (Cell &&source, int owner, long id=Element::NULL_ID)

CellIterator	addCell (Cell &&source, long id=Element::NULL_ID)

CellIterator	addCell (const Cell &source, int owner, int haloLayer, long id=Element::NULL_ID)

CellIterator	addCell (const Cell &source, int owner, long id=Element::NULL_ID)

CellIterator	addCell (const Cell &source, long id=Element::NULL_ID)

CellIterator	addCell (ElementType type, const std::vector< long > &connectivity, int owner, int haloLayer, long id=Element::NULL_ID)

CellIterator	addCell (ElementType type, const std::vector< long > &connectivity, int owner, long id=Element::NULL_ID)

CellIterator	addCell (ElementType type, const std::vector< long > &connectivity, long id=Element::NULL_ID)

CellIterator	addCell (ElementType type, int owner, int haloLayer, long id=Element::NULL_ID)

CellIterator	addCell (ElementType type, int owner, long id=Element::NULL_ID)

CellIterator	addCell (ElementType type, long id=Element::NULL_ID)

CellIterator	addCell (ElementType type, std::unique_ptr< long[]> &&connectStorage, int owner, int haloLayer, long id=Element::NULL_ID)

CellIterator	addCell (ElementType type, std::unique_ptr< long[]> &&connectStorage, int owner, long id=Element::NULL_ID)

CellIterator	addCell (ElementType type, std::unique_ptr< long[]> &&connectStorage, long id=Element::NULL_ID)

InterfaceIterator	addInterface (const Interface &source, long id=Element::NULL_ID)

InterfaceIterator	addInterface (ElementType type, const std::vector< long > &connectivity, long id=Element::NULL_ID)

InterfaceIterator	addInterface (ElementType type, long id=Element::NULL_ID)

InterfaceIterator	addInterface (ElementType type, std::unique_ptr< long[]> &&connectStorage, long id=Element::NULL_ID)

InterfaceIterator	addInterface (Interface &&source, long id=Element::NULL_ID)

VertexIterator	addVertex (const std::array< double, 3 > &coords, long id=Vertex::NULL_ID)

VertexIterator	addVertex (const Vertex &source, long id=Vertex::NULL_ID)

VertexIterator	addVertex (Vertex &&source, long id=Vertex::NULL_ID)

bool	areAdjacenciesDirty (bool global=false) const

bool	areInterfacesDirty (bool global=false) const

bool	arePartitioningInfoDirty (bool global=true) const

void	buildAdjacencies ()

void	buildInterfaces ()

CellIterator	cellBegin ()

CellConstIterator	cellConstBegin () const

CellConstIterator	cellConstEnd () const

CellIterator	cellEnd ()

virtual std::unique_ptr< PatchKernel >	clone () const =0

std::vector< long >	collapseCoincidentVertices ()

void	consecutiveRenumber (long offsetVertices, long offsetCells, long offsetInterfaces)

void	consecutiveRenumberCells (long offset=0)

void	consecutiveRenumberInterfaces (long offset=0)

void	consecutiveRenumberVertices (long offset=0)

long	countBorderCells () const

long	countBorderFaces () const

long	countBorderInterfaces () const

long	countBorderVertices () const

long	countDuplicateCells () const

long	countFaces () const

long	countFreeCells () const

long	countFreeFaces () const

long	countFreeInterfaces () const

long	countFreeVertices () const

long	countOrphanCells () const

long	countOrphanInterfaces () const

long	countOrphanVertices () const

bool	deleteCell (long id)

template<typename IdStorage >
bool	deleteCells (const IdStorage &ids)

bool	deleteCoincidentVertices ()

bool	deleteInterface (long id)

template<typename IdStorage >
bool	deleteInterfaces (const IdStorage &ids)

bool	deleteOrphanInterfaces ()

bool	deleteOrphanVertices ()

void	destroyAdjacencies ()

void	destroyInterfaces ()

void	displayCells (std::ostream &out, unsigned int padding=0) const

void	displayInterfaces (std::ostream &out, unsigned int padding=0) const

void	displayTopologyStats (std::ostream &out, unsigned int padding=0) const

void	displayVertices (std::ostream &out, unsigned int padding=0) const

bool	dump (std::ostream &stream)

bool	dump (std::ostream &stream) const

bool	empty (bool global=true) const

void	enableCellBalancing (long id, bool enabled)

virtual void	evalCellBoundingBox (long id, std::array< double, 3 > minPoint, std::array< double, 3 > maxPoint) const

virtual std::array< double, 3 >	evalCellCentroid (long id) const

virtual double	evalCellSize (long id) const =0

void	evalElementBoundingBox (const Element &element, std::array< double, 3 > minPoint, std::array< double, 3 > maxPoint) const

std::array< double, 3 >	evalElementCentroid (const Element &element) const

virtual void	evalInterfaceBoundingBox (long id, std::array< double, 3 > minPoint, std::array< double, 3 > maxPoint) const

virtual std::array< double, 3 >	evalInterfaceCentroid (long id) const

double	evalPartitioningUnbalance () const

double	evalPartitioningUnbalance (const std::unordered_map< long, double > &cellWeights) const

void	findCellEdgeNeighs (long id, bool complete, std::vector< long > *neighs) const

std::vector< long >	findCellEdgeNeighs (long id, bool complete=true) const

std::vector< long >	findCellEdgeNeighs (long id, int edge) const

void	findCellEdgeNeighs (long id, int edge, std::vector< long > *neighs) const

std::vector< long >	findCellFaceNeighs (long id) const

std::vector< long >	findCellFaceNeighs (long id, int face) const

void	findCellFaceNeighs (long id, int face, std::vector< long > *neighs) const

void	findCellFaceNeighs (long id, std::vector< long > *neighs) const

std::vector< long >	findCellNeighs (long id) const

void	findCellNeighs (long id, int codimension, bool complete, std::vector< long > *neighs) const

std::vector< long >	findCellNeighs (long id, int codimension, bool complete=true) const

void	findCellNeighs (long id, std::vector< long > *neighs) const

void	findCellVertexNeighs (long id, bool complete, std::vector< long > *neighs) const

std::vector< long >	findCellVertexNeighs (long id, bool complete=true) const

std::vector< long >	findCellVertexNeighs (long id, int vertex) const

void	findCellVertexNeighs (long id, int vertex, std::vector< long > *neighs) const

std::vector< long >	findCellVertexOneRing (long id, int vertex) const

void	findCellVertexOneRing (long id, int vertex, std::vector< long > *neighs) const

std::vector< long >	findDuplicateCells () const

bool	findFaceNeighCell (long cellId, long neighId, int cellFace, int cellAdjacencyId) const

std::vector< long >	findOrphanCells () const

std::vector< long >	findOrphanInterfaces () const

std::vector< long >	findOrphanVertices ()

std::vector< long >	findVertexOneRing (long vertexId) const

void	findVertexOneRing (long vertexId, std::vector< long > *ring) const

void	flushData (std::fstream &stream, const std::string &name, VTKFormat format) override

AdaptionStatus	getAdaptionStatus (bool global=false) const

AdjacenciesBuildStrategy	getAdjacenciesBuildStrategy () const

void	getBoundingBox (bool global, std::array< double, 3 > &minPoint, std::array< double, 3 > &maxPoint) const

void	getBoundingBox (std::array< double, 3 > &minPoint, std::array< double, 3 > &maxPoint) const

Cell &	getCell (long id)

const Cell &	getCell (long id) const

adaption::Marker	getCellAdaptionMarker (long id)

CellConstIterator	getCellConstIterator (long id) const

virtual long	getCellCount () const

int	getCellHaloLayer (long id) const

CellIterator	getCellIterator (long id)

int	getCellOwner (long id) const

int	getCellRank (long id) const

PiercedVector< Cell > &	getCells ()

const PiercedVector< Cell > &	getCells () const

virtual ElementType	getCellType (long id) const

ConstProxyVector< std::array< double BITPIT_COMMA 3 > >	getCellVertexCoordinates (long id) const

void	getCellVertexCoordinates (long id, std::array< double, 3 > *coordinates) const

void	getCellVertexCoordinates (long id, std::unique_ptr< std::array< double, 3 >[]> *coordinates) const

const MPI_Comm &	getCommunicator () const

int	getDimension () const

int	getDumpVersion () const

ConstProxyVector< std::array< double BITPIT_COMMA 3 > >	getElementVertexCoordinates (const Element &element) const

void	getElementVertexCoordinates (const Element &element, std::array< double, 3 > *coordinates) const

void	getElementVertexCoordinates (const Element &element, std::unique_ptr< std::array< double, 3 >[]> *coordinates) const

Cell &	getFirstGhost ()

const Cell &	getFirstGhost () const

Cell &	getFirstGhostCell ()

const Cell &	getFirstGhostCell () const

Vertex &	getFirstGhostVertex ()

const Vertex &	getFirstGhostVertex () const

long	getGhostCellCount () const

const std::unordered_map< int, std::vector< long > > &	getGhostCellExchangeSources () const

const std::vector< long > &	getGhostCellExchangeSources (int rank) const

const std::unordered_map< int, std::vector< long > > &	getGhostCellExchangeTargets () const

const std::vector< long > &	getGhostCellExchangeTargets (int rank) const

long	getGhostCount () const

const std::unordered_map< int BITPIT_COMMA std::vector< long > > &	getGhostExchangeSources () const

const std::vector< long > &	getGhostExchangeSources (int rank) const

const std::unordered_map< int BITPIT_COMMA std::vector< long > > &	getGhostExchangeTargets () const

const std::vector< long > &	getGhostExchangeTargets (int rank) const

long	getGhostVertexCount () const

const std::unordered_map< int, std::vector< long > > &	getGhostVertexExchangeSources () const

const std::vector< long > &	getGhostVertexExchangeSources (int rank) const

const std::unordered_map< int, std::vector< long > > &	getGhostVertexExchangeTargets () const

const std::vector< long > &	getGhostVertexExchangeTargets (int rank) const

std::size_t	getHaloSize () const

int	getId () const

Interface &	getInterface (long id)

const Interface &	getInterface (long id) const

InterfaceConstIterator	getInterfaceConstIterator (long id) const

virtual long	getInterfaceCount () const

InterfaceIterator	getInterfaceIterator (long id)

PiercedVector< Interface > &	getInterfaces ()

const PiercedVector< Interface > &	getInterfaces () const

InterfacesBuildStrategy	getInterfacesBuildStrategy () const

virtual ElementType	getInterfaceType (long id) const

ConstProxyVector< std::array< double BITPIT_COMMA 3 > >	getInterfaceVertexCoordinates (long id) const

void	getInterfaceVertexCoordinates (long id, std::array< double, 3 > *coordinates) const

void	getInterfaceVertexCoordinates (long id, std::unique_ptr< std::array< double, 3 >[]> *coordinates) const

long	getInternalCellCount () const

std::set< int >	getInternalCellPIDs ()

std::vector< long >	getInternalCellsByPID (int pid)

long	getInternalCount () const

long	getInternalVertexCount () const

Cell &	getLastInternalCell ()

const Cell &	getLastInternalCell () const

Vertex &	getLastInternalVertex ()

const Vertex &	getLastInternalVertex () const

virtual int	getLineCodimension () const =0

std::vector< int >	getNeighbourRanks ()

int	getOwner (bool allowDirty=false) const

PartitioningStatus	getPartitioningStatus (bool global=false) const

virtual int	getPointCodimension () const =0

int	getProcessorCount () const

int	getRank () const

SpawnStatus	getSpawnStatus () const

virtual int	getSurfaceCodimension () const =0

double	getTol () const

Vertex &	getVertex (long id)

const Vertex &	getVertex (long id) const

VertexConstIterator	getVertexConstIterator (long id) const

const std::array< double, 3 > &	getVertexCoords (long id) const

void	getVertexCoords (std::size_t nVertices, const long ids, std::array< double, 3 > coordinates) const

void	getVertexCoords (std::size_t nVertices, const long ids, std::unique_ptr< std::array< double, 3 >[]> coordinates) const

virtual long	getVertexCount () const

VertexIterator	getVertexIterator (long id)

int	getVertexOwner (long id) const

int	getVertexRank (long id) const

PiercedVector< Vertex > &	getVertices ()

const PiercedVector< Vertex > &	getVertices () const

virtual int	getVolumeCodimension () const =0

VTKUnstructuredGrid &	getVTK ()

const CellConstRange	getVTKCellWriteRange () const

WriteTarget	getVTKWriteTarget () const

CellIterator	ghostBegin ()

CellIterator	ghostCell2InternalCell (long id)

CellIterator	ghostCellBegin ()

CellConstIterator	ghostCellConstBegin () const

CellConstIterator	ghostCellConstEnd () const

CellIterator	ghostCellEnd ()

CellConstIterator	ghostConstBegin () const

CellConstIterator	ghostConstEnd () const

CellIterator	ghostEnd ()

VertexIterator	ghostVertexBegin ()

VertexConstIterator	ghostVertexConstBegin () const

VertexConstIterator	ghostVertexConstEnd () const

VertexIterator	ghostVertexEnd ()

void	initializeAdjacencies (AdjacenciesBuildStrategy strategy=ADJACENCIES_AUTOMATIC)

void	initializeInterfaces (InterfacesBuildStrategy strategy=INTERFACES_AUTOMATIC)

InterfaceIterator	interfaceBegin ()

InterfaceConstIterator	interfaceConstBegin () const

InterfaceConstIterator	interfaceConstEnd () const

InterfaceIterator	interfaceEnd ()

CellIterator	internalBegin ()

CellIterator	internalCell2GhostCell (long id, int owner, int haloLayer)

CellIterator	internalCellBegin ()

CellConstIterator	internalCellConstBegin () const

CellConstIterator	internalCellConstEnd () const

CellIterator	internalCellEnd ()

CellConstIterator	internalConstBegin () const

CellConstIterator	internalConstEnd () const

CellIterator	internalEnd ()

VertexIterator	internalVertexBegin ()

VertexConstIterator	internalVertexConstBegin () const

VertexConstIterator	internalVertexConstEnd () const

VertexIterator	internalVertexEnd ()

bool	isAdaptionSupported () const

bool	isBoundingBoxDirty (bool global=false) const

bool	isCellAutoIndexingEnabled () const

bool	isDirty (bool global=false) const

bool	isDistributed (bool allowDirty=false) const

bool	isExpert () const

bool	isInterfaceAutoIndexingEnabled () const

bool	isInterfaceOrphan (long id) const

bool	isPartitioned () const

bool	isPartitioningSupported () const

bool	isRankNeighbour (int rank)

bool	isThreeDimensional () const

bool	isTolCustomized () const

bool	isVertexAutoIndexingEnabled () const

virtual long	locatePoint (const std::array< double, 3 > &point) const =0

long	locatePoint (double x, double y, double z) const

void	markCellForCoarsening (long id)

void	markCellForRefinement (long id)

PatchKernel &	operator= (PatchKernel &&other)

std::vector< adaption::Info >	partition (bool trackPartitioning, bool squeezeStorage=false)

std::vector< adaption::Info >	partition (const std::unordered_map< long, double > &cellWeights, bool trackPartitioning, bool squeezeStorage=false)

std::vector< adaption::Info >	partition (const std::unordered_map< long, int > &cellRanks, bool trackPartitioning, bool squeezeStorage=false)

std::vector< adaption::Info >	partition (MPI_Comm communicator, bool trackPartitioning, bool squeezeStorage=false, std::size_t haloSize=1)

std::vector< adaption::Info >	partition (MPI_Comm communicator, const std::unordered_map< long, double > &cellWeights, bool trackPartitioning, bool squeezeStorage=false, std::size_t haloSize=1)

std::vector< adaption::Info >	partition (MPI_Comm communicator, const std::unordered_map< long, int > &cellRanks, bool trackPartitioning, bool squeezeStorage=false, std::size_t haloSize=1)

std::vector< adaption::Info >	partitioningAlter (bool trackPartitioning=true, bool squeezeStorage=false)

void	partitioningCleanup ()

std::vector< adaption::Info >	partitioningPrepare (bool trackPartitioning)

std::vector< adaption::Info >	partitioningPrepare (const std::unordered_map< long, double > &cellWeights, bool trackPartitioning)

std::vector< adaption::Info >	partitioningPrepare (const std::unordered_map< long, int > &cellRanks, bool trackPartitioning)

std::vector< adaption::Info >	partitioningPrepare (MPI_Comm communicator, bool trackPartitioning, std::size_t haloSize=1)

std::vector< adaption::Info >	partitioningPrepare (MPI_Comm communicator, const std::unordered_map< long, double > &cellWeights, bool trackPartitioning, std::size_t haloSize=1)

std::vector< adaption::Info >	partitioningPrepare (MPI_Comm communicator, const std::unordered_map< long, int > &cellRanks, bool trackPartitioning, std::size_t haloSize=1)

template<typename Function >
void	processCellFaceNeighbours (long seedId, int nLayers, Function function) const

template<typename Selector , typename Function >
void	processCellFaceNeighbours (long seedId, int nLayers, Selector isSelected, Function function) const

template<typename Function >
void	processCellNeighbours (long seedId, int nLayers, Function function) const

template<typename Selector , typename Function >
void	processCellNeighbours (long seedId, int nLayers, Selector isSelected, Function function) const

template<typename Function , typename SeedContainer >
void	processCellsFaceNeighbours (const SeedContainer &seedIds, int nLayers, Function function) const

template<typename Selector , typename Function , typename SeedContainer >
void	processCellsFaceNeighbours (const SeedContainer &seedIds, int nLayers, Selector isSelected, Function function) const

template<typename Function , typename SeedContainer >
void	processCellsNeighbours (const SeedContainer &seedIds, int nLayers, Function function) const

template<typename Selector , typename Function , typename SeedContainer >
void	processCellsNeighbours (const SeedContainer &seedIds, int nLayers, Selector isSelected, Function function) const

bool	reserveCells (size_t nCells)

bool	reserveInterfaces (size_t nInterfaces)

bool	reserveVertices (size_t nVertices)

virtual void	reset ()

void	resetCellAdaptionMarker (long id)

virtual void	resetCells ()

virtual void	resetInterfaces ()

void	resetTol ()

virtual void	resetVertices ()

void	restore (std::istream &stream, bool reregister=false)

virtual void	rotate (const std::array< double, 3 > &n0, const std::array< double, 3 > &n1, double angle)

void	rotate (double n0x, double n0y, double n0z, double n1x, double n1y, double n1z, double angle)

void	scale (const std::array< double, 3 > &scaling)

virtual void	scale (const std::array< double, 3 > &scaling, const std::array< double, 3 > &origin)

void	scale (double scaling)

void	scale (double scaling, const std::array< double, 3 > &origin)

void	scale (double sx, double sy, double sz)

void	scale (double sx, double sy, double sz, const std::array< double, 3 > &origin)

void	setCellAutoIndexing (bool enabled)

virtual void	setDimension (int dimension)

void	setHaloSize (std::size_t haloSize)

void	setId (int id)

void	setInterfaceAutoIndexing (bool enabled)

virtual void	settleAdaptionMarkers ()

void	setTol (double tolerance)

void	setVertexAutoIndexing (bool enabled)

void	setVTKWriteTarget (WriteTarget targetCells)

virtual void	simulateCellUpdate (const long id, adaption::Marker marker, std::vector< Cell > virtualCells, PiercedVector< Vertex, long > virtualVertices) const

bool	sort ()

bool	sortCells ()

bool	sortInterfaces ()

bool	sortVertices ()

std::vector< adaption::Info >	spawn (bool trackSpawn)

bool	squeeze ()

bool	squeezeCells ()

bool	squeezeInterfaces ()

bool	squeezeVertices ()

virtual void	translate (const std::array< double, 3 > &translation)

void	translate (double sx, double sy, double sz)

std::vector< adaption::Info >	update (bool trackAdaption=true, bool squeezeStorage=false)

void	updateAdjacencies (bool forcedUpdated=false)

void	updateBoundingBox (bool forcedUpdated=false)

void	updateInterfaces (bool forcedUpdated=false)

VertexIterator	vertexBegin ()

VertexConstIterator	vertexConstBegin () const

VertexConstIterator	vertexConstEnd () const

VertexIterator	vertexEnd ()

void	write (const std::string &name, VTKWriteMode mode, double time)

void	write (const std::string &name, VTKWriteMode mode=VTKWriteMode::DEFAULT)

void	write (VTKWriteMode mode, double time)

void	write (VTKWriteMode mode=VTKWriteMode::DEFAULT)

Public Member Functions inherited from bitpit::VTKBaseStreamer
virtual void	absorbData (std::fstream &, const std::string &, VTKFormat, uint64_t, uint8_t, VTKDataType)

template<typename T >
void	flushValue (std::fstream &, VTKFormat, const T &value) const

template<typename T >
void	flushValue (std::fstream &, VTKFormat, const T *values, int nValues) const

Static Public Member Functions
template<typename patch_t >
static std::unique_ptr< patch_t >	clone (const patch_t *original)

Protected Types
typedef uint16_t	AlterationFlags

typedef std::unordered_map< long, AlterationFlags >	AlterationFlagsStorage

Protected Member Functions
	PatchKernel (const PatchKernel &other)

	PatchKernel (int dimension, MPI_Comm communicator, std::size_t haloSize, bool expert)

	PatchKernel (int id, int dimension, MPI_Comm communicator, std::size_t haloSize, bool expert)

	PatchKernel (MPI_Comm communicator, std::size_t haloSize, bool expert)

virtual std::vector< adaption::Info >	_adaptionAlter (bool trackAdaption)

virtual void	_adaptionCleanup ()

virtual std::vector< adaption::Info >	_adaptionPrepare (bool trackAdaption)

virtual void	_dump (std::ostream &stream) const =0

virtual bool	_enableCellBalancing (long id, bool enabled)

virtual void	_findCellEdgeNeighs (long id, int edge, const std::vector< long > blackList, std::vector< long > neighs) const

virtual void	_findCellFaceNeighs (long id, int face, const std::vector< long > blackList, std::vector< long > neighs) const

virtual void	_findCellNeighs (long id, const std::vector< long > blackList, std::vector< long > neighs) const

virtual void	_findCellVertexNeighs (long id, int vertex, const std::vector< long > blackList, std::vector< long > neighs) const

virtual std::vector< long >	_findGhostCellExchangeSources (int rank)

virtual adaption::Marker	_getCellAdaptionMarker (long id)

virtual long	_getCellNativeIndex (long id) const

virtual int	_getDumpVersion () const =0

virtual std::size_t	_getMaxHaloSize ()

virtual bool	_markCellForCoarsening (long id)

virtual bool	_markCellForRefinement (long id)

virtual std::vector< adaption::Info >	_partitioningAlter (bool trackPartitioning)

virtual void	_partitioningCleanup ()

virtual std::vector< adaption::Info >	_partitioningPrepare (const std::unordered_map< long, double > &cellWeights, double defaultWeight, bool trackPartitioning)

virtual std::vector< adaption::Info >	_partitioningPrepare (const std::unordered_map< long, int > &cellRanks, bool trackPartitioning)

virtual void	_resetAdjacencies (bool release)

virtual bool	_resetCellAdaptionMarker (long id)

virtual void	_resetInterfaces (bool release)

virtual void	_resetTol ()

virtual void	_restore (std::istream &stream)=0

virtual void	_setHaloSize (std::size_t haloSize)

virtual void	_setTol (double tolerance)

virtual std::vector< adaption::Info >	_spawn (bool trackAdaption)

virtual void	_updateAdjacencies ()

virtual void	_updateInterfaces ()

virtual void	_writeFinalize ()

virtual void	_writePrepare ()

void	addPointToBoundingBox (const std::array< double, 3 > &point)

std::unordered_map< long, std::vector< long > >	binGroupVertices (const PiercedVector< Vertex > &vertices, int nBins)

std::unordered_map< long, std::vector< long > >	binGroupVertices (int nBins)

void	clearBoundingBox ()

template<typename item_t , typename id_t = long>
std::unordered_map< id_t, id_t >	consecutiveItemRenumbering (PiercedVector< item_t, id_t > &container, long offset)

bool	deleteVertex (long id)

template<typename IdStorage >
bool	deleteVertices (const IdStorage &ids)

void	dumpCells (std::ostream &stream) const

void	dumpInterfaces (std::ostream &stream) const

void	dumpVertices (std::ostream &stream) const

void	extractEnvelope (PatchKernel &envelope) const

virtual int	findAdjoinNeighFace (const Cell &cell, int cellFace, const Cell &neigh) const

AlterationFlags	getCellAlterationFlags (long id) const

AlterationFlags	getInterfaceAlterationFlags (long id) const

VertexIterator	ghostVertex2InternalVertex (long id)

VertexIterator	internalVertex2GhostVertex (long id, int owner)

bool	isBoundingBoxFrozen () const

bool	isCommunicatorSet () const

virtual bool	isSameFace (const Cell &cell_A, int face_A, const Cell &cell_B, int face_B) const

template<typename item_t , typename id_t = long>
void	mappedItemRenumbering (PiercedVector< item_t, id_t > &container, const std::unordered_map< id_t, id_t > &renumberMap)

PatchKernel &	operator= (const PatchKernel &other)=delete

void	pruneStaleAdjacencies ()

void	pruneStaleInterfaces ()

void	removePointFromBoundingBox (const std::array< double, 3 > &point)

void	resetAdjacencies ()

void	resetCellAlterationFlags (long id, AlterationFlags flags=FLAG_NONE)

void	resetInterfaceAlterationFlags (long id, AlterationFlags flags=FLAG_NONE)

CellIterator	restoreCell (ElementType type, std::unique_ptr< long[]> &&connectStorage, int owner, int haloLayer, long id)

void	restoreCells (std::istream &stream)

InterfaceIterator	restoreInterface (ElementType type, std::unique_ptr< long[]> &&connectStorage, long id)

void	restoreInterfaces (std::istream &stream)

VertexIterator	restoreVertex (const std::array< double, 3 > &coords, int owner, long id)

void	restoreVertices (std::istream &stream)

void	setAdaptionStatus (AdaptionStatus status)

void	setAdjacenciesBuildStrategy (AdjacenciesBuildStrategy status)

void	setBoundingBox (const std::array< double, 3 > &minPoint, const std::array< double, 3 > &maxPoint)

void	setBoundingBoxDirty (bool dirty)

void	setBoundingBoxFrozen (bool frozen)

void	setCellAlterationFlags (AlterationFlags flags)

void	setCellAlterationFlags (long id, AlterationFlags flags)

virtual void	setCommunicator (MPI_Comm communicator)

void	setExpert (bool expert)

void	setInterfaceAlterationFlags (AlterationFlags flags)

void	setInterfaceAlterationFlags (long id, AlterationFlags flags)

void	setInterfacesBuildStrategy (InterfacesBuildStrategy status)

void	setPartitioned (bool partitioned)

void	setPartitioningStatus (PartitioningStatus status)

void	setSpawnStatus (SpawnStatus status)

bool	testAlterationFlags (AlterationFlags availableFlags, AlterationFlags requestedFlags) const

bool	testCellAlterationFlags (long id, AlterationFlags flags) const

bool	testInterfaceAlterationFlags (long id, AlterationFlags flags) const

void	unsetCellAlterationFlags (AlterationFlags flags)

void	unsetCellAlterationFlags (long id, AlterationFlags flags)

void	unsetInterfaceAlterationFlags (AlterationFlags flags)

void	unsetInterfaceAlterationFlags (long id, AlterationFlags flags)

void	updateFirstGhostCellId ()

void	updateFirstGhostVertexId ()

void	updateLastInternalCellId ()

void	updateLastInternalVertexId ()

Protected Attributes
AlterationFlagsStorage	m_alteredCells

AlterationFlagsStorage	m_alteredInterfaces

PiercedVector< Cell >	m_cells

PiercedVector< Interface >	m_interfaces

PiercedVector< Vertex >	m_vertices

Static Protected Attributes
static const double	DEFAULT_PARTITIONING_WEIGTH = 1.

static const AlterationFlags	FLAG_ADJACENCIES_DIRTY = (1u << 1)

static const AlterationFlags	FLAG_DANGLING = (1u << 3)

static const AlterationFlags	FLAG_DELETED = (1u << 0)

static const AlterationFlags	FLAG_INTERFACES_DIRTY = (1u << 2)

static const AlterationFlags	FLAG_NONE = 0x0

Friends
class	PatchGlobalInfo

class	PatchInfo

class	PatchManager

class	PatchNumberingInfo

Detailed Description

The PatchKernel class provides an interface for defining patches.

PatchKernel is the base class for defining patches.

Examples: voloctree_adaptation_example_00001.cpp.

Definition at line 54 of file patch_kernel.hpp.

Member Typedef Documentation

◆ AlterationFlags

typedef uint16_t bitpit::PatchKernel::AlterationFlags

protected

Definition at line 782 of file patch_kernel.hpp.

◆ AlterationFlagsStorage

typedef std::unordered_map<long, AlterationFlags> bitpit::PatchKernel::AlterationFlagsStorage

protected

Definition at line 783 of file patch_kernel.hpp.

◆ CellConstIterator

typedef PiercedVector<Cell>::const_iterator bitpit::PatchKernel::CellConstIterator

Definition at line 69 of file patch_kernel.hpp.

◆ CellConstRange

typedef PiercedVector<Cell>::const_range bitpit::PatchKernel::CellConstRange

Definition at line 77 of file patch_kernel.hpp.

◆ CellIterator

typedef PiercedVector<Cell>::iterator bitpit::PatchKernel::CellIterator

Definition at line 65 of file patch_kernel.hpp.

◆ CellRange

typedef PiercedVector<Cell>::range bitpit::PatchKernel::CellRange

Definition at line 73 of file patch_kernel.hpp.

◆ InterfaceConstIterator

typedef PiercedVector<Interface>::const_iterator bitpit::PatchKernel::InterfaceConstIterator

Definition at line 70 of file patch_kernel.hpp.

◆ InterfaceConstRange

typedef PiercedVector<Interface>::const_range bitpit::PatchKernel::InterfaceConstRange

Definition at line 78 of file patch_kernel.hpp.

◆ InterfaceIterator

typedef PiercedVector<Interface>::iterator bitpit::PatchKernel::InterfaceIterator

Definition at line 66 of file patch_kernel.hpp.

◆ InterfaceRange

typedef PiercedVector<Interface>::range bitpit::PatchKernel::InterfaceRange

Definition at line 74 of file patch_kernel.hpp.

◆ VertexConstIterator

typedef PiercedVector<Vertex>::const_iterator bitpit::PatchKernel::VertexConstIterator

Definition at line 68 of file patch_kernel.hpp.

◆ VertexConstRange

typedef PiercedVector<Vertex>::const_range bitpit::PatchKernel::VertexConstRange

Definition at line 76 of file patch_kernel.hpp.

◆ VertexIterator

typedef PiercedVector<Vertex>::iterator bitpit::PatchKernel::VertexIterator

Definition at line 64 of file patch_kernel.hpp.

◆ VertexRange

typedef PiercedVector<Vertex>::range bitpit::PatchKernel::VertexRange

Definition at line 72 of file patch_kernel.hpp.

Member Enumeration Documentation

◆ AdaptionStatus

enum bitpit::PatchKernel::AdaptionStatus

Adaption status

Definition at line 344 of file patch_kernel.hpp.

◆ AdjacenciesBuildStrategy

enum bitpit::PatchKernel::AdjacenciesBuildStrategy

Adjacencies build strategy

Definition at line 319 of file patch_kernel.hpp.

◆ InterfacesBuildStrategy

enum bitpit::PatchKernel::InterfacesBuildStrategy

Interfaces build strategy

Definition at line 327 of file patch_kernel.hpp.

◆ PartitioningStatus

enum bitpit::PatchKernel::PartitioningStatus

Partitioning status

Definition at line 355 of file patch_kernel.hpp.

◆ SpawnStatus

enum bitpit::PatchKernel::SpawnStatus

Spawn status

Definition at line 335 of file patch_kernel.hpp.

◆ WriteTarget

enum bitpit::PatchKernel::WriteTarget

Definition at line 80 of file patch_kernel.hpp.

Constructor & Destructor Documentation

◆ PatchKernel() [1/5]

bitpit::PatchKernel::PatchKernel ( PatchKernel && other )

Move constructor.

Parameters

other is another patch whose content is moved into this

Definition at line 277 of file patch_kernel.cpp.

◆ ~PatchKernel()

bitpit::PatchKernel::~PatchKernel ( )

virtual

Destroys the patch.

Definition at line 596 of file patch_kernel.cpp.

◆ PatchKernel() [2/5]

bitpit::PatchKernel::PatchKernel	(	MPI_Comm	communicator,
		std::size_t	haloSize,
		bool	expert )

protected

Creates a patch.

Patches that are filled automatically (e.g. VolOctree) will initialize the cells only on the process identified by the rank zero in the communicator.

If a null comunicator is provided, a serial patch will be created, this means that each processor will be unaware of the existence of the other processes.

Parameters

communicator	is the communicator to be used for exchanging data among the processes. If a null comunicator is provided, a serial patch will be created
haloSize	is the size, expressed in number of layers, of the ghost cells halo
expert	if true, the expert mode will be enabled

Definition at line 70 of file patch_kernel.cpp.

◆ PatchKernel() [3/5]

bitpit::PatchKernel::PatchKernel	(	int	dimension,
		MPI_Comm	communicator,
		std::size_t	haloSize,
		bool	expert )

protected

Creates a patch.

Patches that are filled automatically (e.g. VolOctree) will initialize the cells only on the process identified by the rank zero in the communicator.

If a null comunicator is provided, a serial patch will be created, this means that each processor will be unaware of the existence of the other processes.

Parameters

dimension	is the dimension of the patch
communicator	is the communicator to be used for exchanging data among the processes. If a null comunicator is provided, a serial patch will be created
haloSize	is the size, expressed in number of layers, of the ghost cells halo
expert	if true, the expert mode will be enabled

Definition at line 112 of file patch_kernel.cpp.

◆ PatchKernel() [4/5]

bitpit::PatchKernel::PatchKernel	(	int	id,
		int	dimension,
		MPI_Comm	communicator,
		std::size_t	haloSize,
		bool	expert )

protected

Creates a patch.

Patches that are filled automatically (e.g. VolOctree) will initialize the cells only on the process identified by the rank zero in the communicator.

If a null comunicator is provided, a serial patch will be created, this means that each processor will be unaware of the existence of the other processes.

Parameters

id	is the id that will be assigned to the patch
dimension	is the dimension of the patch
communicator	is the communicator to be used for exchanging data among the processes. If a null comunicator is provided, a serial patch will be created
haloSize	is the size, expressed in number of layers, of the ghost cells halo
expert	if true, the expert mode will be enabled

Definition at line 159 of file patch_kernel.cpp.

◆ PatchKernel() [5/5]

bitpit::PatchKernel::PatchKernel ( const PatchKernel & other )

protected

Copy constructor.

Parameters

other is another patch whose content is copied into this

Definition at line 194 of file patch_kernel.cpp.

Member Function Documentation

◆ _adaptionAlter()

std::vector< adaption::Info > bitpit::PatchKernel::_adaptionAlter ( bool trackAdaption )

protectedvirtual

Alter the patch performing the adaption.

Default implementation is a no-op function.

Parameters

trackAdaption if set to true the function will return the changes done to the patch during the adaption

Returns: If the adaption is tracked, returns a vector of adaption::Info with all the changes done to the patch during the adaption, otherwise an empty vector will be returned.

Reimplemented in bitpit::VolOctree.

Definition at line 5238 of file patch_kernel.cpp.

◆ _adaptionCleanup()

void bitpit::PatchKernel::_adaptionCleanup ( )

protectedvirtual

Cleanup patch data structured after the adaption.

Default implementation is a no-op function.

Reimplemented in bitpit::VolOctree.

Definition at line 5252 of file patch_kernel.cpp.

◆ _adaptionPrepare()

std::vector< adaption::Info > bitpit::PatchKernel::_adaptionPrepare ( bool trackAdaption )

protectedvirtual

Prepares the patch for performing the adaption.

Default implementation is a no-op function.

Parameters

trackAdaption if set to true the function will return the changes that will be performed in the alter step

Returns: If the adaption is tracked, returns a vector of adaption::Info that can be used to discover what changes will be performed in the alter step, otherwise an empty vector will be returned.

Reimplemented in bitpit::VolOctree.

Definition at line 5220 of file patch_kernel.cpp.

◆ _dump()

virtual void bitpit::PatchKernel::_dump ( std::ostream & stream ) const

protectedpure virtual

Implemented in bitpit::LineUnstructured, bitpit::PointCloud, bitpit::SurfUnstructured, bitpit::VolCartesian, bitpit::VolOctree, and bitpit::VolUnstructured.

◆ _enableCellBalancing()

bool bitpit::PatchKernel::_enableCellBalancing	(	long	id,
		bool	enabled )

protectedvirtual

Enables cell balancing.

Default implementation is a no-op function.

Parameters

id	is the id of the cell
enabled	defines if enable the balancing for the specified cell

Returns: Returns true if the flag was properly set, false otherwise.

Reimplemented in bitpit::VolOctree.

Definition at line 5325 of file patch_kernel.cpp.

◆ _findCellEdgeNeighs()

void bitpit::PatchKernel::_findCellEdgeNeighs	(	long	id,
		int	edge,
		const std::vector< long > *	blackList,
		std::vector< long > *	neighs ) const

protectedvirtual

Extracts the neighbours of the specified cell for the given edge.

This function can be only used with three-dimensional cells.

Parameters

	id	is the id of the cell
	edge	is an edge of the cell
	blackList	is a list of cells that are excluded from the search. The blacklist has to be a pointer to a unique list of ordered cell ids or a null pointer if no cells should be excluded from the search
[in,out]	neighs	is the vector were the neighbours of the specified cell for the given edge will be stored. The vector is not cleared before adding the neighbours, it is extended by appending all the neighbours found by this function

Reimplemented in bitpit::VolCartesian, and bitpit::VolOctree.

Definition at line 3730 of file patch_kernel.cpp.

◆ _findCellFaceNeighs()

void bitpit::PatchKernel::_findCellFaceNeighs	(	long	id,
		int	face,
		const std::vector< long > *	blackList,
		std::vector< long > *	neighs ) const

protectedvirtual

Extracts the neighbours of the specified cell for the given face.

Parameters

	id	is the id of the cell
	face	is a face of the cell
	blackList	is a list of cells that are excluded from the search. The blacklist has to be a pointer to a unique list of ordered cell ids or a null pointer if no cells should be excluded from the search
[in,out]	neighs	is the vector were the neighbours of the specified cell for the given face will be stored. The vector is not cleared before adding the neighbours, it is extended by appending all the neighbours found by this function

Reimplemented in bitpit::VolCartesian.

Definition at line 3602 of file patch_kernel.cpp.

◆ _findCellNeighs()

void bitpit::PatchKernel::_findCellNeighs	(	long	id,
		const std::vector< long > *	blackList,
		std::vector< long > *	neighs ) const

protectedvirtual

Extracts all the neighbours of the specified cell

This implementation can NOT handle hanging nodes.

Parameters

	id	is the id of the cell
	blackList	is a list of cells that are excluded from the search. The blacklist has to be a pointer to a unique list of ordered cell ids or a null pointer if no cells should be excluded from the search
[in,out]	neighs	is the vector were the neighbours of the specified cell for the given vertex will be stored. The vector is not cleared before adding the neighbours, it is extended by appending all the neighbours found by this function

Reimplemented in bitpit::VolOctree.

Definition at line 3509 of file patch_kernel.cpp.

◆ _findCellVertexNeighs()

void bitpit::PatchKernel::_findCellVertexNeighs	(	long	id,
		int	vertex,
		const std::vector< long > *	blackList,
		std::vector< long > *	neighs ) const

protectedvirtual

Extracts the neighbours of the specified cell for the given local vertex.

Cells that has only a vertex in common are considered neighbours only if there are other cells "connecting" them.

              .-----.                   .-----.
              |     |                   |     |
            V | A1  |                 V | A2  |
        .-----+-----.             .-----+-----.
        |     |                   |     |     |
        | B1  |                   | B2  | C2  |
        .-----.                   .-----.-----.

For example, A1 and B1 are not neighbours (although they share the vertex V), whereas A2 and B2 are neighbours.

This implementation can NOT handle hanging nodes.

Parameters

	id	is the id of the cell
	vertex	is a local vertex of the cell
	blackList	is a list of cells that are excluded from the search. The blacklist has to be a pointer to a unique list of ordered cell ids or a null pointer if no cells should be excluded from the search
[in,out]	neighs	is the vector were the neighbours of the specified cell for the given vertex will be stored. The vector is not cleared before adding the neighbours, it is extended by appending all the neighbours found by this function

Reimplemented in bitpit::VolCartesian, and bitpit::VolOctree.

Definition at line 3895 of file patch_kernel.cpp.

◆ _findGhostCellExchangeSources()

std::vector< long > bitpit::PatchKernel::_findGhostCellExchangeSources ( int rank )

protectedvirtual

Finds the internal cells that will be ghost cells for the process with the specified ranks. During data exchange, these cells will be the sources form which data will be read from.

Parameters

rank	is the rank for which the information will be built

Reimplemented in bitpit::VolOctree.

Definition at line 4764 of file patch_kernel_parallel.cpp.

◆ _getCellAdaptionMarker()

adaption::Marker bitpit::PatchKernel::_getCellAdaptionMarker ( long id )

protectedvirtual

Returns the adaption marker of the specified cell.

Default implementation always return an undefined marker.

Parameters

id	is the id of the cell

Returns: The adaption marker of the cell.

Reimplemented in bitpit::VolOctree.

Definition at line 5309 of file patch_kernel.cpp.

◆ _getCellNativeIndex()

long bitpit::PatchKernel::_getCellNativeIndex ( long id ) const

protectedvirtual

Get the native index of a cell.

Parameters

id	is the id of the cell

Returns: The native index of a cell.

Reimplemented in bitpit::VolOctree.

Definition at line 3391 of file patch_kernel.cpp.

◆ _getDumpVersion()

virtual int bitpit::PatchKernel::_getDumpVersion ( ) const

protectedpure virtual

Implemented in bitpit::LineUnstructured, bitpit::PointCloud, bitpit::SurfUnstructured, bitpit::VolCartesian, bitpit::VolOctree, and bitpit::VolUnstructured.

◆ _getMaxHaloSize()

std::size_t bitpit::PatchKernel::_getMaxHaloSize ( )

protectedvirtual

Gets the maximum allowed size, expressed in number of layers, of the ghost cells halo.

Returns: The maximum allowed size, expressed in number of layers, of the ghost cells halo.

Reimplemented in bitpit::VolOctree, and bitpit::VolUnstructured.

Definition at line 327 of file patch_kernel_parallel.cpp.

◆ _markCellForCoarsening()

bool bitpit::PatchKernel::_markCellForCoarsening ( long id )

protectedvirtual

Marks a cell for coarsening.

Default implementation is a no-op function.

Parameters

id	the cell to be refined

Returns: Returns true if the marker was properly set, false otherwise.

Reimplemented in bitpit::VolOctree.

Definition at line 5279 of file patch_kernel.cpp.

◆ _markCellForRefinement()

bool bitpit::PatchKernel::_markCellForRefinement ( long id )

protectedvirtual

Marks a cell for refinement.

Default implementation is a no-op function.

Parameters

id	the cell to be refined

Returns: Returns true if the marker was properly set, false otherwise.

Reimplemented in bitpit::VolOctree.

Definition at line 5264 of file patch_kernel.cpp.

◆ _partitioningAlter()

std::vector< adaption::Info > bitpit::PatchKernel::_partitioningAlter ( bool trackPartitioning )

protectedvirtual

Alter the patch performing the partitioning.

Parameters

trackPartitioning if set to true the function will return the changes done to the patch during the partitioning

Returns: If the partitioning is tracked, returns a vector of adaption::Info with all the changes done to the patch during the partitioning, otherwise an empty vector will be returned.

Reimplemented in bitpit::VolOctree.

Definition at line 2076 of file patch_kernel_parallel.cpp.

◆ _partitioningCleanup()

void bitpit::PatchKernel::_partitioningCleanup ( )

protectedvirtual

Cleanup patch data structured after the partitioning.

Default implementation is a no-op function.

Reimplemented in bitpit::VolOctree.

Definition at line 3744 of file patch_kernel_parallel.cpp.

◆ _partitioningPrepare() [1/2]

std::vector< adaption::Info > bitpit::PatchKernel::_partitioningPrepare	(	const std::unordered_map< long, double > &	cellWeights,
		double	defaultWeight,
		bool	trackPartitioning )

protectedvirtual

Prepares the patch for performing the partitioning.

Default implementation is a no-op function and can only be used if the patch is empty or if the patch is not distributed and a single partition is requested.

Parameters

cellWeights	are the weights of the cells, the weight represents the relative computational cost associated with a specified cell. If no weight is specified for a cell, the default weight will be used
defaultWeight	is the default weight that will assigned to the cells for which an explicit weight has not been defined
trackPartitioning	if set to true the function will return the changes that will be performed in the alter step

Returns: If the partitioning is tracked, returns a vector of adaption::Info that can be used to discover what changes will be performed in the alter step, otherwise an empty vector will be returned.

Reimplemented in bitpit::VolOctree.

Definition at line 1834 of file patch_kernel_parallel.cpp.

◆ _partitioningPrepare() [2/2]

std::vector< adaption::Info > bitpit::PatchKernel::_partitioningPrepare	(	const std::unordered_map< long, int > &	cellRanks,
		bool	trackPartitioning )

protectedvirtual

Partitions the patch among the processes. Each cell will be assigned to a specific process according to the specified input.

Parameters

cellRanks	are the ranks of the cells after the partitioning
trackPartitioning	if set to true, the changes to the patch will be tracked

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the partitioning.

Definition at line 1951 of file patch_kernel_parallel.cpp.

◆ _resetAdjacencies()

void bitpit::PatchKernel::_resetAdjacencies ( bool release )

protectedvirtual

Internal function to reset the adjacencies.

This function doesn't change the alteration flags.

Parameters

release if it's true the memory hold by the adjacencies will be released, otherwise the adjacencies will be reset but their memory will not be relased

Definition at line 5991 of file patch_kernel.cpp.

◆ _resetCellAdaptionMarker()

bool bitpit::PatchKernel::_resetCellAdaptionMarker ( long id )

protectedvirtual

Resets the adaption marker of the specified cell.

Default implementation is a no-op function.

Parameters

id	the cell to be refined

Returns: Returns true if the marker was properly reset, false otherwise.

Reimplemented in bitpit::VolOctree.

Definition at line 5294 of file patch_kernel.cpp.

◆ _resetInterfaces()

void bitpit::PatchKernel::_resetInterfaces ( bool release )

protectedvirtual

Internal function to reset the interfaces of the patch.

This function doesn't change the alteration flags.

Parameters

release if it's true the memory hold by the interfaces will be released, otherwise the interfaces will be reset but their memory will not be relased

Definition at line 1076 of file patch_kernel.cpp.

◆ _resetTol()

void bitpit::PatchKernel::_resetTol ( )

protectedvirtual

Internal function to reset the tolerance for the geometrical checks.

If a derived patch re-implements this function, it's up to the derived patch to initialize the tolerance of the newly created patches. Since the tolerance is initialized in the constructor, PatchKernel can only reset the tolerance using its base method. Derived classes need to explicitly initialize the tolerance calling the method they have re-implemented.

Reimplemented in bitpit::VolOctree.

Definition at line 7645 of file patch_kernel.cpp.

◆ _restore()

virtual void bitpit::PatchKernel::_restore ( std::istream & stream )

protectedpure virtual

Implemented in bitpit::LineUnstructured, bitpit::PointCloud, bitpit::SurfUnstructured, bitpit::VolCartesian, bitpit::VolOctree, and bitpit::VolUnstructured.

◆ _setHaloSize()

void bitpit::PatchKernel::_setHaloSize ( std::size_t haloSize )

protectedvirtual

Internal function to set the size, expressed in number of layers, of the ghost cells halo.

Parameters

haloSize is the size, expressed in number of layers, of the ghost cells halo

Reimplemented in bitpit::VolOctree.

Definition at line 339 of file patch_kernel_parallel.cpp.

◆ _setTol()

void bitpit::PatchKernel::_setTol ( double tolerance )

protectedvirtual

Internal function to set the tolerance for the geometrical checks.

Parameters

tolerance is the tolerance that will be used for the geometrical checks

Reimplemented in bitpit::VolOctree.

Definition at line 7611 of file patch_kernel.cpp.

◆ _spawn()

std::vector< adaption::Info > bitpit::PatchKernel::_spawn ( bool trackSpawn )

protectedvirtual

Generates the patch.

Default implementation is a no-op function.

Parameters

trackSpawn if set to true the changes to the patch will be tracked

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the spawn.

Reimplemented in bitpit::VolCartesian, and bitpit::VolOctree.

Definition at line 5200 of file patch_kernel.cpp.

◆ _updateAdjacencies()

void bitpit::PatchKernel::_updateAdjacencies ( )

protectedvirtual

Internal function to update the adjacencies of the patch.

In addition to the cells whose adjacencies are marked as dirty, also the adjacencies of their neighbours will be updated.

This implementation can NOT handle hanging nodes.

Reimplemented in bitpit::VolCartesian, and bitpit::VolOctree.

Definition at line 6049 of file patch_kernel.cpp.

◆ _updateInterfaces()

void bitpit::PatchKernel::_updateInterfaces ( )

protectedvirtual

Internal function to update the interfaces of the patch.

The function will process the cells whose interfaces have been marked as dirty.

Reimplemented in bitpit::VolCartesian.

Definition at line 6541 of file patch_kernel.cpp.

◆ _writeFinalize()

void bitpit::PatchKernel::_writeFinalize ( )

protectedvirtual

Internal function to be called after writing the patch.

Definition at line 1297 of file patch_kernel.cpp.

◆ _writePrepare()

void bitpit::PatchKernel::_writePrepare ( )

protectedvirtual

Internal function to be called before writing the patch.

Definition at line 1223 of file patch_kernel.cpp.

◆ adaption()

std::vector< adaption::Info > bitpit::PatchKernel::adaption	(	bool	trackAdaption = true,
		bool	squeezeStorage = false )

Execute patch adaption.

Parameters

trackAdaption	if set to true the changes to the patch will be tracked
squeezeStorage	if set to true patch data structures will be squeezed after the update

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the update.

Definition at line 718 of file patch_kernel.cpp.

◆ adaptionAlter()

std::vector< adaption::Info > bitpit::PatchKernel::adaptionAlter	(	bool	trackAdaption = true,
		bool	squeezeStorage = false )

Alter the patch performing the adaption.

The actual modification of the patch takes place during this phase. After this phase the adaption is completed and the patch is in its final state. Optionally the patch can track the changes performed to the patch.

Parameters

trackAdaption	if set to true the function will return the changes done to the patch during the adaption
squeezeStorage	if set to true patch data structures will be squeezed after the adaption

Returns: If the adaption is tracked, returns a vector of adaption::Info with all the changes done to the patch during the adaption, otherwise an empty vector will be returned.

Examples: POD_example_00002.cpp.

Definition at line 788 of file patch_kernel.cpp.

◆ adaptionCleanup()

void bitpit::PatchKernel::adaptionCleanup ( )

Cleanup patch data structured after the adaption.

The patch will only clean-up the data structures needed for adaption.

Examples: POD_example_00002.cpp.

Definition at line 817 of file patch_kernel.cpp.

◆ adaptionPrepare()

std::vector< adaption::Info > bitpit::PatchKernel::adaptionPrepare ( bool trackAdaption = true )

Prepares the patch for performing the adaption.

The patch will prepare its data structured for the adaption and optionally track the changes that will be performed to the patch. During this phase no changes will be performed to the patch.

Parameters

trackAdaption if set to true the function will return the changes that will be performed in the alter step

Returns: If the adaption is tracked, returns a vector of adaption::Info that can be used to discover what changes will be performed in the alter step, otherwise an empty vector will be returned.

Examples: POD_example_00002.cpp.

Definition at line 752 of file patch_kernel.cpp.

◆ addCell() [1/15]

PatchKernel::CellIterator bitpit::PatchKernel::addCell	(	Cell &&	source,
		int	owner,
		int	haloLayer,
		long	id = Element::NULL_ID )

Adds the specified cell to the patch.

If valid, the specified id will we assigned to the newly created cell, otherwise a new unique id will be generated for the cell. However, it is not possible to create a new cell with an id already assigned to an existing cell of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

source	is the cell that will be added
owner	is the rank that owns the cell that will be added
haloLayer	is the halo layer the cell belongs to, this argument is only relevant if the cell is a ghost
id	is the id that will be assigned to the newly created cell. If a negative id value is specified, the id of the source will be used

Returns: An iterator pointing to the added cell.

Definition at line 908 of file patch_kernel_parallel.cpp.

◆ addCell() [2/15]

PatchKernel::CellIterator bitpit::PatchKernel::addCell	(	Cell &&	source,
		int	owner,
		long	id = Element::NULL_ID )

Adds the specified cell to the patch.

If valid, the specified id will we assigned to the newly created cell, otherwise a new unique id will be generated for the cell. However, it is not possible to create a new cell with an id already assigned to an existing cell of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

source	is the cell that will be added
owner	is the rank that owns the cell that will be added
id	is the id that will be assigned to the newly created cell. If a negative id value is specified, the id of the source will be used

Returns: An iterator pointing to the added cell.

Definition at line 792 of file patch_kernel_parallel.cpp.

◆ addCell() [3/15]

PatchKernel::CellIterator bitpit::PatchKernel::addCell	(	Cell &&	source,
		long	id = Element::NULL_ID )

Adds the specified cell to the patch.

If valid, the specified id will we assigned to the newly created cell, otherwise a new unique id will be generated for the cell. However, it is not possible to create a new cell with an id already assigned to an existing cell of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

source	is the cell that will be added
id	is the id that will be assigned to the newly created cell. If a negative id value is specified, the id of the source will be used

Returns: An iterator pointing to the added cell.

Definition at line 2813 of file patch_kernel.cpp.

◆ addCell() [4/15]

PatchKernel::CellIterator bitpit::PatchKernel::addCell	(	const Cell &	source,
		int	owner,
		int	haloLayer,
		long	id = Element::NULL_ID )

Adds the specified cell to the patch.

If valid, the specified id will we assigned to the newly created cell, otherwise a new unique id will be generated for the cell. However, it is not possible to create a new cell with an id already assigned to an existing cell of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

source	is the cell that will be added
owner	is the rank that owns the cell that will be added
haloLayer	is the halo layer the cell belongs to, this argument is only relevant if the cell is a ghost
id	is the id that will be assigned to the newly created cell. If a negative id value is specified, a new unique id will be generated for the cell

Returns: An iterator pointing to the added cell.

Definition at line 883 of file patch_kernel_parallel.cpp.

◆ addCell() [5/15]

PatchKernel::CellIterator bitpit::PatchKernel::addCell	(	const Cell &	source,
		int	owner,
		long	id = Element::NULL_ID )

Adds the specified cell to the patch.

If valid, the specified id will we assigned to the newly created cell, otherwise a new unique id will be generated for the cell. However, it is not possible to create a new cell with an id already assigned to an existing cell of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

source	is the cell that will be added
owner	is the rank that owns the cell that will be added
id	is the id that will be assigned to the newly created cell. If a negative id value is specified, a new unique id will be generated for the cell

Returns: An iterator pointing to the added cell.

Definition at line 772 of file patch_kernel_parallel.cpp.

◆ addCell() [6/15]

PatchKernel::CellIterator bitpit::PatchKernel::addCell	(	const Cell &	source,
		long	id = Element::NULL_ID )

Adds the specified cell to the patch.

If valid, the specified id will we assigned to the newly created cell, otherwise a new unique id will be generated for the cell. However, it is not possible to create a new cell with an id already assigned to an existing cell of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

source	is the cell that will be added
id	is the id that will be assigned to the newly created cell. If a negative id value is specified, a new unique id will be generated for the cell

Returns: An iterator pointing to the added cell.

Definition at line 2791 of file patch_kernel.cpp.

◆ addCell() [7/15]

PatchKernel::CellIterator bitpit::PatchKernel::addCell	(	ElementType	type,
		const std::vector< long > &	connectivity,
		int	owner,
		int	haloLayer,
		long	id = Element::NULL_ID )

Adds a new cell with the specified id, type, and connectivity.

If valid, the specified id will we assigned to the newly created cell, otherwise a new unique id will be generated for the cell. However, it is not possible to create a new cell with an id already assigned to an existing cell of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

type	is the type of the cell
connectivity	is the connectivity of the cell
owner	is the rank that owns the cell that will be added
haloLayer	is the halo layer the cell belongs to, this argument is only relevant if the cell is a ghost
id	is the id that will be assigned to the newly created cell. If a negative id value is specified, a new unique id will be generated for the cell

Returns: An iterator pointing to the added cell.

Definition at line 980 of file patch_kernel_parallel.cpp.

◆ addCell() [8/15]

PatchKernel::CellIterator bitpit::PatchKernel::addCell	(	ElementType	type,
		const std::vector< long > &	connectivity,
		int	owner,
		long	id = Element::NULL_ID )

Adds a new cell with the specified id, type, and connectivity.

If valid, the specified id will we assigned to the newly created cell, otherwise a new unique id will be generated for the cell. However, it is not possible to create a new cell with an id already assigned to an existing cell of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

type	is the type of the cell
connectivity	is the connectivity of the cell
owner	is the rank that owns the cell that will be added
id	is the id that will be assigned to the newly created cell. If a negative id value is specified, a new unique id will be generated for the cell

Returns: An iterator pointing to the added cell.

Definition at line 835 of file patch_kernel_parallel.cpp.

◆ addCell() [9/15]

PatchKernel::CellIterator bitpit::PatchKernel::addCell	(	ElementType	type,
		const std::vector< long > &	connectivity,
		long	id = Element::NULL_ID )

Adds a new cell with the specified id, type, and connectivity.

If valid, the specified id will we assigned to the newly created cell, otherwise a new unique id will be generated for the cell. However, it is not possible to create a new cell with an id already assigned to an existing cell of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

type	is the type of the cell
connectivity	is the connectivity of the cell
id	is the id that will be assigned to the newly created cell. If a negative id value is specified, a new unique id will be generated for the cell

Returns: An iterator pointing to the added cell.

Definition at line 2884 of file patch_kernel.cpp.

◆ addCell() [10/15]

PatchKernel::CellIterator bitpit::PatchKernel::addCell	(	ElementType	type,
		int	owner,
		int	haloLayer,
		long	id = Element::NULL_ID )

Adds a new cell with the specified id and type.

If valid, the specified id will we assigned to the newly created cell, otherwise a new unique id will be generated for the cell. However, it is not possible to create a new cell with an id already assigned to an existing cell of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

type	is the type of the cell
owner	is the rank that owns the cell that will be added
haloLayer	is the halo layer the cell belongs to, this argument is only relevant if the cell is a ghost
id	is the id that will be assigned to the newly created cell. If a negative id value is specified, a new unique id will be generated for the cell

Returns: An iterator pointing to the added cell.

Definition at line 948 of file patch_kernel_parallel.cpp.

◆ addCell() [11/15]

PatchKernel::CellIterator bitpit::PatchKernel::addCell	(	ElementType	type,
		int	owner,
		long	id = Element::NULL_ID )

Adds a new cell with the specified id and type.

If valid, the specified id will we assigned to the newly created cell, otherwise a new unique id will be generated for the cell. However, it is not possible to create a new cell with an id already assigned to an existing cell of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

type	is the type of the cell
owner	is the rank that owns the cell that will be added
id	is the id that will be assigned to the newly created cell. If a negative id value is specified, a new unique id will be generated for the cell

Returns: An iterator pointing to the added cell.

Definition at line 813 of file patch_kernel_parallel.cpp.

◆ addCell() [12/15]

PatchKernel::CellIterator bitpit::PatchKernel::addCell	(	ElementType	type,
		long	id = Element::NULL_ID )

Adds a new cell with the specified id and type.

If valid, the specified id will we assigned to the newly created cell, otherwise a new unique id will be generated for the cell. However, it is not possible to create a new cell with an id already assigned to an existing cell of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

type	is the type of the cell
id	is the id that will be assigned to the newly created cell. If a negative id value is specified, a new unique id will be generated for the cell

Returns: An iterator pointing to the added cell.

Definition at line 2855 of file patch_kernel.cpp.

◆ addCell() [13/15]

PatchKernel::CellIterator bitpit::PatchKernel::addCell	(	ElementType	type,
		std::unique_ptr< long[]> &&	connectStorage,
		int	owner,
		int	haloLayer,
		long	id = Element::NULL_ID )

Adds a new cell with the specified id, type, and connectivity.

If valid, the specified id will we assigned to the newly created cell, otherwise a new unique id will be generated for the cell. However, it is not possible to create a new cell with an id already assigned to an existing cell of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

type	is the type of the cell
connectStorage	is the storage the contains or will contain the connectivity of the element
owner	is the rank that owns the cell that will be added
haloLayer	is the halo layer the cell belongs to, this argument is only relevant if the cell is a ghost
id	is the id that will be assigned to the newly created cell. If a negative id value is specified, a new unique id will be generated for the cell

Returns: An iterator pointing to the added cell.

Definition at line 1010 of file patch_kernel_parallel.cpp.

◆ addCell() [14/15]

PatchKernel::CellIterator bitpit::PatchKernel::addCell	(	ElementType	type,
		std::unique_ptr< long[]> &&	connectStorage,
		int	owner,
		long	id = Element::NULL_ID )

Adds a new cell with the specified id, type, and connectivity.

If valid, the specified id will we assigned to the newly created cell, otherwise a new unique id will be generated for the cell. However, it is not possible to create a new cell with an id already assigned to an existing cell of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

type	is the type of the cell
connectStorage	is the storage the contains or will contain the connectivity of the element
owner	is the rank that owns the cell that will be added
id	is the id that will be assigned to the newly created cell. If a negative id value is specified, a new unique id will be generated for the cell

Returns: An iterator pointing to the added cell.

Definition at line 859 of file patch_kernel_parallel.cpp.

◆ addCell() [15/15]

PatchKernel::CellIterator bitpit::PatchKernel::addCell	(	ElementType	type,
		std::unique_ptr< long[]> &&	connectStorage,
		long	id = Element::NULL_ID )

Adds a new cell with the specified id, type, and connectivity.

If valid, the specified id will we assigned to the newly created cell, otherwise a new unique id will be generated for the cell. However, it is not possible to create a new cell with an id already assigned to an existing cell of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

type	is the type of the cell
connectStorage	is the storage the contains or will contain the connectivity of the element
id	is the id that will be assigned to the newly created cell. If a negative id value is specified, a new unique id will be generated for the cell

Returns: An iterator pointing to the added cell.

Definition at line 2911 of file patch_kernel.cpp.

◆ addInterface() [1/5]

PatchKernel::InterfaceIterator bitpit::PatchKernel::addInterface	(	const Interface &	source,
		long	id = Element::NULL_ID )

Adds the specified interface to the patch.

If valid, the specified id will we assigned to the newly created interface, otherwise a new unique id will be generated for the interface. However, it is not possible to create a new interface with an id already assigned to an existing interface of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

source	is the interface that will be added
id	is the id that will be assigned to the newly created interface. If a negative id value is specified, a new unique id will be generated for the interface

Returns: An iterator pointing to the added interface.

Definition at line 4406 of file patch_kernel.cpp.

◆ addInterface() [2/5]

PatchKernel::InterfaceIterator bitpit::PatchKernel::addInterface	(	ElementType	type,
		const std::vector< long > &	connectivity,
		long	id = Element::NULL_ID )

Adds a new interface with the specified id.

If valid, the specified id will we assigned to the newly created interface, otherwise a new unique id will be generated for the interface. However, it is not possible to create a new interface with an id already assigned to an existing interface of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

type	is the type of the interface
connectivity	is the connectivity of the interface
id	is the id of the new interface. If a negative id value is specified, ad new unique id will be generated

Returns: An iterator pointing to the added interface.

Definition at line 4496 of file patch_kernel.cpp.

◆ addInterface() [3/5]

PatchKernel::InterfaceIterator bitpit::PatchKernel::addInterface	(	ElementType	type,
		long	id = Element::NULL_ID )

Adds a new interface with the specified id.

If valid, the specified id will we assigned to the newly created interface, otherwise a new unique id will be generated for the interface. However, it is not possible to create a new interface with an id already assigned to an existing interface of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

type	is the type of the interface
id	is the id that will be assigned to the newly created interface. If a negative id value is specified, a new unique id will be generated for the interface

Returns: An iterator pointing to the added interface.

Definition at line 4473 of file patch_kernel.cpp.

◆ addInterface() [4/5]

PatchKernel::InterfaceIterator bitpit::PatchKernel::addInterface	(	ElementType	type,
		std::unique_ptr< long[]> &&	connectStorage,
		long	id = Element::NULL_ID )

Adds a new interface with the specified id.

If valid, the specified id will we assigned to the newly created interface, otherwise a new unique id will be generated for the interface. However, it is not possible to create a new interface with an id already assigned to an existing interface of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

type	is the type of the interface
connectStorage	is the storage the contains or will contain the connectivity of the element
id	is the id of the new cell. If a negative id value is specified, ad new unique id will be generated

Returns: An iterator pointing to the added interface.

Definition at line 4523 of file patch_kernel.cpp.

◆ addInterface() [5/5]

PatchKernel::InterfaceIterator bitpit::PatchKernel::addInterface	(	Interface &&	source,
		long	id = Element::NULL_ID )

Adds the specified interface to the patch.

If valid, the specified id will we assigned to the newly created interface, otherwise a new unique id will be generated for the interface. However, it is not possible to create a new interface with an id already assigned to an existing interface of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

source	is the interface that will be added
id	is the id that will be assigned to the newly created interface. If a negative id value is specified, the id of the source will be used

Returns: An iterator pointing to the added interface.

Definition at line 4429 of file patch_kernel.cpp.

◆ addPointToBoundingBox()

void bitpit::PatchKernel::addPointToBoundingBox ( const std::array< double, 3 > & point )

protected

Update the bounding adding the specified point.

The bounding box is not updated if it's set as frozen, or if it's in a dirty state.

Parameters

point is the a new point that will be added to the bounding box

Definition at line 7253 of file patch_kernel.cpp.

◆ addVertex() [1/3]

PatchKernel::VertexIterator bitpit::PatchKernel::addVertex	(	const std::array< double, 3 > &	coords,
		long	id = Vertex::NULL_ID )

Adds a new vertex with the specified coordinates.

All new vertices will be temporarily added as internal vertices, is needed they will be converted to ghost vertices when updating ghost information.

If valid, the specified id will we assigned to the newly created vertex, otherwise a new unique id will be generated for the vertex. However, it is not possible to create a new vertex with an id already assigned to an existing vertex of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

coords	are the coordinates of the vertex
id	is the id that will be assigned to the newly created vertex. If a negative id value is specified, a new unique id will be generated for the vertex

Returns: An iterator pointing to the added vertex.

Definition at line 1928 of file patch_kernel.cpp.

◆ addVertex() [2/3]

PatchKernel::VertexIterator bitpit::PatchKernel::addVertex	(	const Vertex &	source,
		long	id = Vertex::NULL_ID )

Adds the specified vertex to the patch.

All new vertices will be temporarily added as internal vertices, is needed they will be converted to ghost vertices when updating ghost information.

If valid, the specified id will we assigned to the newly created vertex, otherwise a new unique id will be generated for the vertex. However, it is not possible to create a new vertex with an id already assigned to an existing vertex of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

source	is the vertex that will be added
id	is the id that will be assigned to the newly created vertex. If a negative id value is specified, a new unique id will be generated for the vertex

Returns: An iterator pointing to the added vertex.

Definition at line 1854 of file patch_kernel.cpp.

◆ addVertex() [3/3]

PatchKernel::VertexIterator bitpit::PatchKernel::addVertex	(	Vertex &&	source,
		long	id = Vertex::NULL_ID )

Adds the specified vertex to the patch.

All new vertices will be temporarily added as internal vertices, is needed they will be converted to ghost vertices when updating ghost information.

If valid, the specified id will we assigned to the newly created vertex, otherwise a new unique id will be generated for the vertex. However, it is not possible to create a new vertex with an id already assigned to an existing vertex of the patch. If this happens, an exception is thrown. Ids are considered valid if they are greater or equal than zero.

Parameters

source	is the vertex that will be added
id	is the id that will be assigned to the newly created vertex. If a negative id value is specified, the id of the source will be used

Returns: An iterator pointing to the added vertex.

Definition at line 1879 of file patch_kernel.cpp.

◆ areAdjacenciesDirty()

bool bitpit::PatchKernel::areAdjacenciesDirty ( bool global = false ) const

Checks if the adjacencies are dirty.

Parameters

global if set to true, the dirty status will be evaluated globally across all the partitions

Returns: Returns true if the adjacencies are dirty, false otherwise.

Definition at line 5832 of file patch_kernel.cpp.

◆ areInterfacesDirty()

bool bitpit::PatchKernel::areInterfacesDirty ( bool global = false ) const

Checks if the interfaces are dirty.

Parameters

global if set to true, the dirty status will be evaluated globally across all the partitions

Returns: Returns true if the interfaces are dirty, false otherwise.

Definition at line 6323 of file patch_kernel.cpp.

◆ arePartitioningInfoDirty()

bool bitpit::PatchKernel::arePartitioningInfoDirty ( bool global = true ) const

Checks if the partitioning information are dirty.

Parameters

global if set to true, the dirty status will be evaluated globally across all the partitions

Returns: Returns true if the partitioning information are dirty, false otherwise.

Definition at line 4265 of file patch_kernel_parallel.cpp.

◆ binGroupVertices() [1/2]

std::unordered_map< long, std::vector< long > > bitpit::PatchKernel::binGroupVertices	(	const PiercedVector< Vertex > &	vertices,
		int	nBins )

protected

Group specified vertices on regular bins.

Parameters

[in]	vertices	are the vertices to be sorted
[in]	nBins	is the number of bins (on each space direction)

Returns: Returns the vertices grouped into bins.

Definition at line 7390 of file patch_kernel.cpp.

◆ binGroupVertices() [2/2]

std::unordered_map< long, std::vector< long > > bitpit::PatchKernel::binGroupVertices ( int nBins )

protected

Group vertices on regular bins.

Parameters

[in] nBins is the number of bins (on each space direction)

Returns: Returns the vertices grouped into bins.

Definition at line 7378 of file patch_kernel.cpp.

◆ buildAdjacencies()

void bitpit::PatchKernel::buildAdjacencies ( )

Fill adjacencies info for each cell.

If adjacencies are already built, all adjacencies will be deleted and they will be re-generated from scratch.

Definition at line 5865 of file patch_kernel.cpp.

◆ buildInterfaces()

void bitpit::PatchKernel::buildInterfaces ( )

Build interfaces among the cells.

If interfaces are already built, all interfaces will be deleted and they will be re-generated from scratch.

Definition at line 6358 of file patch_kernel.cpp.

◆ cellBegin()

PatchKernel::CellIterator bitpit::PatchKernel::cellBegin ( )

Returns iterator pointing to the first cell.

Returns: An iterator to the first cell.

Definition at line 2641 of file patch_kernel.cpp.

◆ cellConstBegin()

PatchKernel::CellConstIterator bitpit::PatchKernel::cellConstBegin ( ) const

Returns a constant iterator pointing to the first cell.

Returns: A constant iterator to the first cell.

Definition at line 2715 of file patch_kernel.cpp.

◆ cellConstEnd()

PatchKernel::CellConstIterator bitpit::PatchKernel::cellConstEnd ( ) const

Returns a constant iterator pointing to last cell.

Returns: A constant iterator to the last cell.

Definition at line 2725 of file patch_kernel.cpp.

◆ cellEnd()

PatchKernel::CellIterator bitpit::PatchKernel::cellEnd ( )

Returns iterator pointing to last cell.

Returns: An iterator to the last cell.

Definition at line 2651 of file patch_kernel.cpp.

◆ clearBoundingBox()

void bitpit::PatchKernel::clearBoundingBox ( )

protected

Clears the bounding box.

The box will be cleared also if it declared frozen.

Definition at line 7095 of file patch_kernel.cpp.

◆ clone() [1/2]

virtual std::unique_ptr< PatchKernel > bitpit::PatchKernel::clone ( ) const

pure virtual

Implemented in bitpit::LineUnstructured, bitpit::PointCloud, bitpit::SurfUnstructured, bitpit::VolCartesian, bitpit::VolOctree, and bitpit::VolUnstructured.

◆ clone() [2/2]

template<typename patch_t >

std::unique_ptr< patch_t > bitpit::PatchKernel::clone ( const patch_t * original )

static

Creates a clone of the specified pach.

Parameters

original is the patch that will be cloned

Returns: A clone of the pach.

Definition at line 39 of file patch_kernel.tpp.

◆ collapseCoincidentVertices()

std::vector< long > bitpit::PatchKernel::collapseCoincidentVertices ( )

Find and collapse coincident vertices. Cell connectivity is automatically updated.

Returns: The list of the of the collapsed vertices.

Definition at line 2237 of file patch_kernel.cpp.

◆ consecutiveItemRenumbering()

template<typename item_t , typename id_t >

std::unordered_map< id_t, id_t > bitpit::PatchKernel::consecutiveItemRenumbering	(	PiercedVector< item_t, id_t > &	container,
		long	offset )

protected

Renumber the ids of the items in the specified container.

Parameters

container	is the container
offset	is the offset that will be used

Definition at line 199 of file patch_kernel.tpp.

◆ consecutiveRenumber()

void bitpit::PatchKernel::consecutiveRenumber	(	long	vertexOffset,
		long	cellOffset,
		long	interfaceOffset )

Renumbering vertices, cells and interfaces consecutively, starting from given offsets.

Parameters

[in]	vertexOffset	is the starting id of the vertices
[in]	cellOffset	is the starting id of the cells
[in]	interfaceOffset	is the starting id of the interfaces

Definition at line 8190 of file patch_kernel.cpp.

◆ consecutiveRenumberCells()

void bitpit::PatchKernel::consecutiveRenumberCells ( long offset = 0 )

Renumbers cells consecutively, starting from a given offset.

Parameters

[in] offset is the starting id

Definition at line 8104 of file patch_kernel.cpp.

◆ consecutiveRenumberInterfaces()

void bitpit::PatchKernel::consecutiveRenumberInterfaces ( long offset = 0 )

Renumbers interfaces consecutively, starting from a given offset.

Parameters

[in] offset is the starting id

Definition at line 8161 of file patch_kernel.cpp.

◆ consecutiveRenumberVertices()

void bitpit::PatchKernel::consecutiveRenumberVertices ( long offset = 0 )

Renumbers vertices consecutively, starting from a given offset.

Parameters

[in] offset is the starting id

Definition at line 8078 of file patch_kernel.cpp.

◆ countBorderCells()

long bitpit::PatchKernel::countBorderCells ( ) const

Counts border cells within the patch.

A cell is border if contains at least one border face.

Returns: The number of border cells.

Definition at line 3213 of file patch_kernel.cpp.

◆ countBorderFaces()

long bitpit::PatchKernel::countBorderFaces ( ) const

Counts border faces within the patch.

A face is border if a cell has no adjacent along that faces.

Returns: The number of border faces.

Definition at line 4871 of file patch_kernel.cpp.

◆ countBorderInterfaces()

long bitpit::PatchKernel::countBorderInterfaces ( ) const

Counts border interfaces within the patch.

An interface is border if belongs to just one cell.

Returns: The number of border interfaces.

Definition at line 4729 of file patch_kernel.cpp.

◆ countBorderVertices()

long bitpit::PatchKernel::countBorderVertices ( ) const

Counts border vertices within the patch.

A border vertex is a vertex on a border face.

Returns: The number of border vertices.

Definition at line 2125 of file patch_kernel.cpp.

◆ countDuplicateCells()

long bitpit::PatchKernel::countDuplicateCells ( ) const

Finds duplicate cells within the patch.

A cell is a duplicate if there is at least one other cell with exactly the same vertices.

Returns: The number of duplicate cells.

Definition at line 3293 of file patch_kernel.cpp.

◆ countFaces()

long bitpit::PatchKernel::countFaces ( ) const

Count faces within the patch.

Returns: The total number of faces in the patch.

Definition at line 4835 of file patch_kernel.cpp.

◆ countFreeCells()

long bitpit::PatchKernel::countFreeCells ( ) const

Counts free cells within the patch.

A cell is free if contains at least one free face.

Returns: The number of free cells.

Definition at line 3201 of file patch_kernel.cpp.

◆ countFreeFaces()

long bitpit::PatchKernel::countFreeFaces ( ) const

Counts free faces within the patch.

A face is free if a cell has no adjacent along that faces.

Returns: The number of free faces.

Definition at line 4859 of file patch_kernel.cpp.

◆ countFreeInterfaces()

long bitpit::PatchKernel::countFreeInterfaces ( ) const

Counts free interfaces within the patch.

An interface is free if belongs to just one cell.

Returns: The number of free interfaces.

Definition at line 4717 of file patch_kernel.cpp.

◆ countFreeVertices()

long bitpit::PatchKernel::countFreeVertices ( ) const

Counts free vertices within the patch.

A free vertex is a vertex on a free face.

Returns: The number of free vertices.

Definition at line 2113 of file patch_kernel.cpp.

◆ countOrphanCells()

long bitpit::PatchKernel::countOrphanCells ( ) const

Counts orphan cells within the patch.

A cell is orphan if not adjacent to any cell in the patch (neither along an edge, nor at vertex)

Returns: The number of orphan cells.

Definition at line 3237 of file patch_kernel.cpp.

◆ countOrphanInterfaces()

long bitpit::PatchKernel::countOrphanInterfaces ( ) const

Counts orphan interfaces within the patch.

An interface is considered orphan if it has no owner nor neighbour or if it's on a border face of a ghost cell.

Returns: The number of orphan interfaces.

Definition at line 4749 of file patch_kernel.cpp.

◆ countOrphanVertices()

long bitpit::PatchKernel::countOrphanVertices ( ) const

Count orphan vertices in the patch.

An orphan vertex is a vertex not linked by any cells.

Returns: The number of orphan vertices.

Definition at line 2153 of file patch_kernel.cpp.

◆ deleteCell()

bool bitpit::PatchKernel::deleteCell ( long id )

Deletes a cell.

Parameters

id	is the id of the cell

Definition at line 3106 of file patch_kernel.cpp.

◆ deleteCells()

template<typename IdStorage >

bool bitpit::PatchKernel::deleteCells ( const IdStorage & ids )

Deletes a list of cells.

Parameters

ids	are the ids of the cells to be deleted

Definition at line 54 of file patch_kernel.tpp.

◆ deleteCoincidentVertices()

bool bitpit::PatchKernel::deleteCoincidentVertices ( )

Remove coincident vertices from the patch.

Definition at line 2327 of file patch_kernel.cpp.

◆ deleteInterface()

bool bitpit::PatchKernel::deleteInterface ( long id )

Deletes an interface.

Parameters

id	is the id of the interface

Definition at line 4668 of file patch_kernel.cpp.

◆ deleteInterfaces()

template<typename IdStorage >

bool bitpit::PatchKernel::deleteInterfaces ( const IdStorage & ids )

Deletes a list of interfaces.

Parameters

ids	are the ids of the interfaces to be deleted

Definition at line 156 of file patch_kernel.tpp.

◆ deleteOrphanInterfaces()

bool bitpit::PatchKernel::deleteOrphanInterfaces ( )

Remove orphan interfaces

Definition at line 4788 of file patch_kernel.cpp.

◆ deleteOrphanVertices()

bool bitpit::PatchKernel::deleteOrphanVertices ( )

Remove orphan vertices

Definition at line 2218 of file patch_kernel.cpp.

◆ deleteVertex()

bool bitpit::PatchKernel::deleteVertex ( long id )

protected

Deletes a vertex.

Parameters

id	is the id of the vertex

Definition at line 2060 of file patch_kernel.cpp.

◆ deleteVertices()

template<typename IdStorage >

bool bitpit::PatchKernel::deleteVertices ( const IdStorage & ids )

protected

Deletes a list of vertices.

Parameters

ids	are the ids of the vertices to be deleted

Definition at line 105 of file patch_kernel.tpp.

◆ destroyAdjacencies()

void bitpit::PatchKernel::destroyAdjacencies ( )

Destroy the adjacencies.

After deleting the adjacencies, this function changes the build strategy to "None".

Definition at line 5945 of file patch_kernel.cpp.

◆ destroyInterfaces()

void bitpit::PatchKernel::destroyInterfaces ( )

Destroy the interfaces.

After deleting the interfaces, this function changes the build strategy to "None".

Definition at line 6458 of file patch_kernel.cpp.

◆ displayCells()

void bitpit::PatchKernel::displayCells	(	std::ostream &	out,
		unsigned int	padding = 0 ) const

Display all the cells currently stored within the patch.

Parameters

[in,out]	out	output stream
[in]	padding	(default = 0) number of leading spaces for formatted output

Definition at line 7779 of file patch_kernel.cpp.

◆ displayInterfaces()

void bitpit::PatchKernel::displayInterfaces	(	std::ostream &	out,
		unsigned int	padding = 0 ) const

Display all the interfaces currently stored within the patch.

Parameters

[in,out]	out	output stream
[in]	padding	(default = 0) number of leading spaces for formatted output

Definition at line 7795 of file patch_kernel.cpp.

◆ displayTopologyStats()

void bitpit::PatchKernel::displayTopologyStats	(	std::ostream &	out,
		unsigned int	padding = 0 ) const

Display patch statistics.

Parameters

[in,out]	out	output stream
[in]	padding	(default = 0) number of leading spaces for formatted output

Definition at line 7726 of file patch_kernel.cpp.

◆ displayVertices()

void bitpit::PatchKernel::displayVertices	(	std::ostream &	out,
		unsigned int	padding = 0 ) const

Display all the vertices currently stored within the patch.

Parameters

[in,out]	out	output stream
[in]	padding	(default = 0) number of leading spaces for formatted output

Definition at line 7763 of file patch_kernel.cpp.

◆ dump() [1/2]

bool bitpit::PatchKernel::dump ( std::ostream & stream )

Write the patch to the specified stream.

Dumping a patch that is not up-to-date is not supported. If the patch is not up-to-date, it will be automatically updated before dump it.

Parameters

stream is the stream to write to

Returns: Return true if the patch was successfully dumped, false otherwise.

Definition at line 8218 of file patch_kernel.cpp.

◆ dump() [2/2]

bool bitpit::PatchKernel::dump ( std::ostream & stream ) const

Write the patch to the specified stream.

Dumping a patch that is not up-to-date is not supported. If the patch is not up-to-date and compilation of assertions is enabled, the function will assert, whereas if compilation of assertions is not enabled, the function is a no-op.

Parameters

stream is the stream to write to

Returns: Return true if the patch was successfully dumped, false otherwise.

Definition at line 8239 of file patch_kernel.cpp.

◆ dumpCells()

void bitpit::PatchKernel::dumpCells ( std::ostream & stream ) const

protected

Write the cells to the specified stream.

Parameters

stream is the stream to write to

Definition at line 4982 of file patch_kernel.cpp.

◆ dumpInterfaces()

void bitpit::PatchKernel::dumpInterfaces ( std::ostream & stream ) const

protected

Write the interfaces to the specified stream.

Parameters

stream is the stream to write to

Definition at line 5103 of file patch_kernel.cpp.

◆ dumpVertices()

void bitpit::PatchKernel::dumpVertices ( std::ostream & stream ) const

protected

Write the vertices to the specified stream.

Parameters

stream is the stream to write to

Definition at line 4891 of file patch_kernel.cpp.

◆ empty()

bool bitpit::PatchKernel::empty ( bool global = true ) const

Return true if the patch is empty.

Parameters

global if set to true, the empty status will be evaluated globally across all the partitions

Returns: Return true if the patch is empty.

Definition at line 2386 of file patch_kernel.cpp.

◆ enableCellBalancing()

void bitpit::PatchKernel::enableCellBalancing	(	long	id,
		bool	enabled )

Enables cell balancing.

Parameters

id	is the id of the cell
enabled	defines if enable the balancing for the specified cell

Definition at line 966 of file patch_kernel.cpp.

◆ evalCellBoundingBox()

void bitpit::PatchKernel::evalCellBoundingBox	(	long	id,
		std::array< double, 3 > *	minPoint,
		std::array< double, 3 > *	maxPoint ) const

virtual

Evaluates the bounding box of the specified cell.

Parameters

	id	is the id of the cell
[out]	minPoint	is the minimum point of the bounding box
[out]	maxPoint	is the maximum point of the bounding box

Reimplemented in bitpit::VolCartesian.

Definition at line 5534 of file patch_kernel.cpp.

◆ evalCellCentroid()

std::array< double, 3 > bitpit::PatchKernel::evalCellCentroid ( long id ) const

virtual

Evaluates the centroid of the specified cell.

Parameters

id	is the id of the cell

Returns: The centroid of the specified cell.

Reimplemented in bitpit::VolCartesian, and bitpit::VolOctree.

Definition at line 5520 of file patch_kernel.cpp.

◆ evalCellSize()

virtual double bitpit::PatchKernel::evalCellSize ( long id ) const

pure virtual

Implemented in bitpit::LineKernel, bitpit::PointKernel, bitpit::SurfaceKernel, bitpit::VolCartesian, bitpit::VolOctree, and bitpit::VolUnstructured.

◆ evalElementBoundingBox()

void bitpit::PatchKernel::evalElementBoundingBox	(	const Element &	element,
		std::array< double, 3 > *	minPoint,
		std::array< double, 3 > *	maxPoint ) const

Evaluates the bounding box of the specified element.

Parameters

	element	is the element
[out]	minPoint	is the minimum point of the bounding box
[out]	maxPoint	is the maximum point of the bounding box

Definition at line 5692 of file patch_kernel.cpp.

◆ evalElementCentroid()

std::array< double, 3 > bitpit::PatchKernel::evalElementCentroid ( const Element & element ) const

Evaluates the centroid of the specified element.

Element centroid is computed as the arithmetic average of element vertex coordinates.

Parameters

element is the element

Returns: The centroid of the specified element.

Definition at line 5675 of file patch_kernel.cpp.

◆ evalInterfaceBoundingBox()

void bitpit::PatchKernel::evalInterfaceBoundingBox	(	long	id,
		std::array< double, 3 > *	minPoint,
		std::array< double, 3 > *	maxPoint ) const

virtual

Evaluates the bounding box of the specified interface.

Parameters

	id	is the id of the interface
[out]	minPoint	is the minimum point of the bounding box
[out]	maxPoint	is the maximum point of the bounding box

Definition at line 5610 of file patch_kernel.cpp.

◆ evalInterfaceCentroid()

std::array< double, 3 > bitpit::PatchKernel::evalInterfaceCentroid ( long id ) const

virtual

Evaluates the centroid of the specified interface.

Parameters

id	is the id of the interface

Returns: The centroid of the specified interface.

Definition at line 5596 of file patch_kernel.cpp.

◆ evalPartitioningUnbalance() [1/2]

double bitpit::PatchKernel::evalPartitioningUnbalance ( ) const

Evaluate partitioning load unbalance index.

This index measures the performance lost to imbalanced load or, conversely, the performance that could be reclaimed by balancing the load.

Unbalance index is evaluate almost as in Equation 1 of paper "Quantifying the Effectiveness of Load Balance Algorithms", Olga Pearce, Todd Gamblin†, Bronis R. de Supinski†, Martin Schulz†, Nancy M. Amato, Department of Computer Science and Engineering, Texas A&M University, College Station, TX, USA. The difference is that the imbalance factor evaluate by this function is not a percentage, i.e., it is not multiplied by 100.

Returns: Partitioning load unbalance index.

Definition at line 1745 of file patch_kernel_parallel.cpp.

◆ evalPartitioningUnbalance() [2/2]

double bitpit::PatchKernel::evalPartitioningUnbalance ( const std::unordered_map< long, double > & cellWeights ) const

Evaluate partitioning load unbalance index.

Parameters

cellWeights are the weights of the cells, the weight represents the relative computational cost associated with a specified cell. If no weight is specified for a cell, a weight equal to one is used.

Returns: Partitioning load unbalance index.

Definition at line 1760 of file patch_kernel_parallel.cpp.

◆ extractEnvelope()

void bitpit::PatchKernel::extractEnvelope ( PatchKernel & envelope ) const

protected

Extracts the external envelope and appends it to the given patch.

The external envelope is composed by all the free faces of the patch.

Parameters

[in,out] envelope is the patch to which the external envelope will be appended

Definition at line 7671 of file patch_kernel.cpp.

◆ findAdjoinNeighFace()

int bitpit::PatchKernel::findAdjoinNeighFace	(	const Cell &	cell,
		int	cellFace,
		const Cell &	neigh ) const

protectedvirtual

Finds the face of the supposed neighbour that adjoins the target face.

Parameters

cell	is the cell
cellFace	is the target face of the cell
neigh	is the supposed neighbour of the cell

Returns: The face of the neighbour which adjoins the target face. If the two cells are not neighbours, a negative number is returned.

Reimplemented in bitpit::VolOctree.

Definition at line 6759 of file patch_kernel.cpp.

◆ findCellEdgeNeighs() [1/4]

void bitpit::PatchKernel::findCellEdgeNeighs	(	long	id,
		bool	complete,
		std::vector< long > *	neighs ) const

Extracts the neighbours of all the edges of the specified cell.

This function can be only used with three-dimensional cells.

Parameters

	id	is the id of the cell
	complete	controls if the list of neighbours should contain only the neighbours that share just the specified edge, or should contain also neighbours that share an entire face
[in,out]	neighs	is the vector were the neighbours of all the edges of the specified cell will be stored. The vector is not cleared before adding the neighbours, it is extended by appending all the neighbours found by this function

Definition at line 3649 of file patch_kernel.cpp.

◆ findCellEdgeNeighs() [2/4]

std::vector< long > bitpit::PatchKernel::findCellEdgeNeighs	(	long	id,
		bool	complete = true ) const

Extracts the neighbours of all the edges of the specified cell.

This function can be only used with three-dimensional cells.

Parameters

id	is the id of the cell
complete	controls if the list of neighbours should contain only the neighbours that share just the specified edge, or should contain also neighbours that share an entire face

Returns: The neighbours of all the edges of the specified cell.

Definition at line 3627 of file patch_kernel.cpp.

◆ findCellEdgeNeighs() [3/4]

std::vector< long > bitpit::PatchKernel::findCellEdgeNeighs	(	long	id,
		int	edge ) const

Extracts the neighbours of the specified cell for the given edge.

This function can be only used with three-dimensional cells.

Parameters

id	is the id of the cell
edge	is an edge of the cell

Returns: The neighbours of the specified cell for the given edge.

Definition at line 3690 of file patch_kernel.cpp.

◆ findCellEdgeNeighs() [4/4]

void bitpit::PatchKernel::findCellEdgeNeighs	(	long	id,
		int	edge,
		std::vector< long > *	neighs ) const

Extracts the neighbours of the specified cell for the given edge.

This function can be only used with three-dimensional cells.

Parameters

	id	is the id of the cell
	edge	is an edge of the cell
[in,out]	neighs	is the vector were the neighbours of the specified cell for the given edge will be stored. The vector is not cleared before adding the neighbours, it is extended by appending all the neighbours found by this function

Definition at line 3710 of file patch_kernel.cpp.

◆ findCellFaceNeighs() [1/4]

std::vector< long > bitpit::PatchKernel::findCellFaceNeighs ( long id ) const

Extracts the neighbours of all the faces of the specified cell.

Parameters

id	is the id of the cell

Returns: The neighbours of all the faces of the specified cell.

Definition at line 3487 of file patch_kernel.cpp.

◆ findCellFaceNeighs() [2/4]

std::vector< long > bitpit::PatchKernel::findCellFaceNeighs	(	long	id,
		int	face ) const

Extracts the neighbours of the specified cell for the given face.

Parameters

id	is the id of the cell
face	is a face of the cell

Returns: The neighbours of the specified cell for the given face.

Definition at line 3566 of file patch_kernel.cpp.

◆ findCellFaceNeighs() [3/4]

void bitpit::PatchKernel::findCellFaceNeighs	(	long	id,
		int	face,
		std::vector< long > *	neighs ) const

Extracts the neighbours of the specified cell for the given face.

Parameters

	id	is the id of the cell
	face	is a face of the cell
[in,out]	neighs	is the vector were the neighbours of the specified cell for the given face will be stored. The vector is not cleared before adding the neighbours, it is extended by appending all the neighbours found by this function

Definition at line 3584 of file patch_kernel.cpp.

◆ findCellFaceNeighs() [4/4]

void bitpit::PatchKernel::findCellFaceNeighs	(	long	id,
		std::vector< long > *	neighs ) const

Extracts the neighbours of all the faces of the specified cell.

Parameters

	id	is the id of the cell
[in,out]	neighs	is the vector were the neighbours of all the faces of the specified cell will be stored. The vector is not cleared before adding the neighbours, it is extended by appending all the neighbours found by this function

Definition at line 3538 of file patch_kernel.cpp.

◆ findCellNeighs() [1/4]

std::vector< long > bitpit::PatchKernel::findCellNeighs ( long id ) const

Extracts all the neighbours of the specified cell

Parameters

id	is the id of the cell

Returns: All the neighbours of the specified cell.

Examples: POD_example_00002.cpp.

Definition at line 3402 of file patch_kernel.cpp.

◆ findCellNeighs() [2/4]

void bitpit::PatchKernel::findCellNeighs	(	long	id,
		int	codimension,
		bool	complete,
		std::vector< long > *	neighs ) const

Extracts all the neighbours of the specified cell for the given codimension.

Parameters

	id	is the id of the cell
	codimension	the codimension for which the neighbours are requested. For a three-dimensional cell a codimension equal 1 will extract the face neighbours, a codimension equal 2 will extract the edge negihbours and a codimension equal 3 will extract the vertex neighbours. For a two-dimensional cell a codimension qual 1 will extract the face neighbours, and a codimension equal 2 will extract the vertex neighbours.
	complete	controls if the list of neighbours should contain only the neighbours for the specified codimension, or should contain also the neighbours for lower codimensions.
[in,out]	neighs	is the vector were the neighbours of the specified cell for the given codimension. The vector is not cleared before dding the neighbours, it is extended by appending all the neighbours found by this function

Definition at line 3468 of file patch_kernel.cpp.

◆ findCellNeighs() [3/4]

std::vector< long > bitpit::PatchKernel::findCellNeighs	(	long	id,
		int	codimension,
		bool	complete = true ) const

Extracts all the neighbours of the specified cell for the given codimension.

Parameters

id	is the id of the cell
codimension	the codimension for which the neighbours are requested. For a three-dimensional cell a codimension equal 1 will extract the face neighbours, a codimension equal 2 will extract the edge negihbours and a codimension equal 3 will extract the vertex neighbours. For a two-dimensional cell a codimension qual 1 will extract the face neighbours, and a codimension equal 2 will extract the vertex neighbours.
complete	controls if the list of neighbours should contain only the neighbours for the specified codimension, or should contain also the neighbours for lower codimensions.

Returns: The neighbours for the specified codimension.

Definition at line 3440 of file patch_kernel.cpp.

◆ findCellNeighs() [4/4]

void bitpit::PatchKernel::findCellNeighs	(	long	id,
		std::vector< long > *	neighs ) const

Extracts all the neighbours of the specified cell

Parameters

	id	is the id of the cell
[in,out]	neighs	is the vector were the neighbours will be stored. The vector is not cleared before adding the neighbours, it is extended by appending all the neighbours found by this function

Definition at line 3418 of file patch_kernel.cpp.

◆ findCellVertexNeighs() [1/4]

void bitpit::PatchKernel::findCellVertexNeighs	(	long	id,
		bool	complete,
		std::vector< long > *	neighs ) const

Extracts the neighbours of all the vertices of the specified cell.

Parameters

	id	is the id of the cell
	complete	controls if the list of neighbours should contain only the neighbours that share just the specified vertex, or should contain also neighbours that share an entire face or an entire edge
[in,out]	neighs	is the vector were the neighbours of all the vertices of the specified cell will be stored. The vector is not cleared before adding the neighbours, it is extended by appending all the neighbours found by this function

Definition at line 3805 of file patch_kernel.cpp.

◆ findCellVertexNeighs() [2/4]

std::vector< long > bitpit::PatchKernel::findCellVertexNeighs	(	long	id,
		bool	complete = true ) const

Extracts the neighbours of all the vertices of the specified cell.

Parameters

id	is the id of the cell
complete	controls if the list of neighbours should contain only the neighbours that share just the specified vertex, or should contain also neighbours that share an entire face or an entire edge

Returns: The neighbours of all the vertices of the specified cell.

Definition at line 3785 of file patch_kernel.cpp.

◆ findCellVertexNeighs() [3/4]

std::vector< long > bitpit::PatchKernel::findCellVertexNeighs	(	long	id,
		int	vertex ) const

Extracts the neighbours of the specified cell for the given local vertex.

Parameters

id	is the id of the cell
vertex	is a vertex of the cell

Returns: The neighbours of the specified cell for the given vertex.

Definition at line 3843 of file patch_kernel.cpp.

◆ findCellVertexNeighs() [4/4]

void bitpit::PatchKernel::findCellVertexNeighs	(	long	id,
		int	vertex,
		std::vector< long > *	neighs ) const

Extracts the neighbours of the specified cell for the given local vertex.

Parameters

	id	is the id of the cell
	vertex	is a vertex of the cell
[in,out]	neighs	is the vector were the neighbours of the specified cell for the given vertex will be stored. The vector is not cleared before adding the neighbours, it is extended by appending all the neighbours found by this function

Definition at line 3861 of file patch_kernel.cpp.

◆ findCellVertexOneRing() [1/2]

std::vector< long > bitpit::PatchKernel::findCellVertexOneRing	(	long	id,
		int	vertex ) const

Finds the one-ring of the specified vertex of the cell.

Parameters

id	is the id of the cell
vertex	is a vertex of the cell

Returns: The one-ring of the specified vertex of the cell.

Definition at line 4014 of file patch_kernel.cpp.

◆ findCellVertexOneRing() [2/2]

void bitpit::PatchKernel::findCellVertexOneRing	(	long	id,
		int	vertex,
		std::vector< long > *	ring ) const

Finds the one-ring of the specified vertex of the cell.

Parameters

	id	is the id of the cell
	vertex	is a vertex of the cell
[in,out]	ring	is the vector were the one-ring of the specified vertex of the cell will be stored. The vector is not cleared before adding the neighbours, it is extended by appending all the neighbours found by this function

Definition at line 4032 of file patch_kernel.cpp.

◆ findDuplicateCells()

std::vector< long > bitpit::PatchKernel::findDuplicateCells ( ) const

Finds duplicate cells within the patch.

A cell is a duplicate if there is at least one other cell with exactly the same vertices.

Returns: The list of duplicate cells.

Definition at line 3306 of file patch_kernel.cpp.

◆ findFaceNeighCell()

bool bitpit::PatchKernel::findFaceNeighCell	(	long	cellId,
		long	neighId,
		int *	cellFace,
		int *	cellAdjacencyId ) const

Find the face and the adjacency that are shared by the specified cells.

If the two cells don't share a face, the output arguments are set to a negative value.

Parameters

[in]	cellId	is the id of the cell
[in]	neighId	is the id of the neighbour
[out]	cellFace	is the face of the cell that is shared with the neighbour. If the cell doesn't share any face with the neighbour, the argument is set to a negative number
[out]	cellAdjacencyId	is the adjacency of the cell that is shared with the neighbour. If the cell doesn't share any adjacency with the neighbour, the argument is set to a negative number

Returns: Return true if the two cells share a face, false otherwise.

Definition at line 4054 of file patch_kernel.cpp.

◆ findOrphanCells()

std::vector< long > bitpit::PatchKernel::findOrphanCells ( ) const

Finds orphan cells within the patch.

A cell is orphan if not adjacent to any cell in the patch (neither along an edge, nor at vertex)

Returns: The number of orphan cells.

Definition at line 3250 of file patch_kernel.cpp.

◆ findOrphanInterfaces()

std::vector< long > bitpit::PatchKernel::findOrphanInterfaces ( ) const

Find orphan interfaces in the patch.

An interface is considered orphan if it has no owner nor neighbour or if it's on a border face of a ghost cell.

Returns: The list of orphan interfaces.

Definition at line 4771 of file patch_kernel.cpp.

◆ findOrphanVertices()

std::vector< long > bitpit::PatchKernel::findOrphanVertices ( )

Find orphan vertices in the patch.

An orphan vertex is a vertex not linked by any cells.

Returns: The list of orphan vertice.

Definition at line 2174 of file patch_kernel.cpp.

◆ findVertexOneRing() [1/2]

std::vector< long > bitpit::PatchKernel::findVertexOneRing ( long vertexId ) const

Find the cells that share the specified vertex.

This function doesn't support coincident vertices with different ids.

Parameters

vertexId is the index of the vertex

Returns: The cells that share the vertex.

Definition at line 4123 of file patch_kernel.cpp.

◆ findVertexOneRing() [2/2]

void bitpit::PatchKernel::findVertexOneRing	(	long	vertexId,
		std::vector< long > *	ring ) const

Find the cells that share the specified vertex.

This function doesn't support coincident vertices with different ids.

Parameters

	vertexId	is the index of the vertex
[in,out]	ring	is the vector were the one-ring of the specified vertex will be stored. The vector is not cleared before adding the neighbours, it is extended by appending all the neighbours found by this function.

Definition at line 4141 of file patch_kernel.cpp.

◆ flushData()

void bitpit::PatchKernel::flushData	(	std::fstream &	stream,
		const std::string &	name,
		VTKFormat	format )

overridevirtual

Interface for writing data to stream.

Parameters

[in]	stream	is the stream to write to
[in]	name	is the name of the data to be written. Either user data or patch data
[in]	format	is the format that will be used for writing data. Only the "appended" format is supported. The "appended" format requires an unformatted binary stream

Implements bitpit::VTKBaseStreamer.

Definition at line 7915 of file patch_kernel.cpp.

◆ getAdaptionStatus()

PatchKernel::AdaptionStatus bitpit::PatchKernel::getAdaptionStatus ( bool global = false ) const

Returns the current adaption status.

Parameters

global if set to true, the adaption status will be evaluated globally across all the partitions

Returns: The current adaption status.

Definition at line 1343 of file patch_kernel.cpp.

◆ getAdjacenciesBuildStrategy()

PatchKernel::AdjacenciesBuildStrategy bitpit::PatchKernel::getAdjacenciesBuildStrategy ( ) const

Returns the current adjacencies build strategy.

Returns: The current adjacencies build strategy.

Definition at line 5810 of file patch_kernel.cpp.

◆ getBoundingBox() [1/2]

void bitpit::PatchKernel::getBoundingBox	(	bool	global,
		std::array< double, 3 > &	minPoint,
		std::array< double, 3 > &	maxPoint ) const

Gets the previously stored patch bounding box.

Parameters

	global	if set to true, the bounding box will be evaluated globally across all the partitions
[out]	minPoint	on output stores the minimum point of the patch
[out]	maxPoint	on output stores the maximum point of the patch

Definition at line 7143 of file patch_kernel.cpp.

◆ getBoundingBox() [2/2]

void bitpit::PatchKernel::getBoundingBox	(	std::array< double, 3 > &	minPoint,
		std::array< double, 3 > &	maxPoint ) const

Gets the previously stored patch bounding box.

Parameters

[out]	minPoint	on output stores the minimum point of the patch
[out]	maxPoint	on output stores the maximum point of the patch

Definition at line 7130 of file patch_kernel.cpp.

◆ getCell() [1/2]

Cell & bitpit::PatchKernel::getCell ( long id )

Gets a reference to the cell with the specified id.

Parameters

id	is the id of the requested cell

Returns: A reference to the cell with the specified id.

Definition at line 2579 of file patch_kernel.cpp.

◆ getCell() [2/2]

const Cell & bitpit::PatchKernel::getCell ( long id ) const

Gets a constant reference to the cell with the specified id.

Parameters

id	is the id of the requested cell

Returns: A constant reference to the cell with the specified id.

Definition at line 2590 of file patch_kernel.cpp.

◆ getCellAdaptionMarker()

adaption::Marker bitpit::PatchKernel::getCellAdaptionMarker ( long id )

Returns the adaption marker of the specified cell.

The marker only defines the type of adaption requested for the cell, it is not guaranteed that the adaption will effectively perform the requested action (i.e., the requested marker may not be consistent with the internal criteria defined by the patch).

Parameters

id	is the id of the cell

Returns: The adaption marker of the cell.

Definition at line 955 of file patch_kernel.cpp.

◆ getCellAlterationFlags()

PatchKernel::AlterationFlags bitpit::PatchKernel::getCellAlterationFlags ( long id ) const

protected

Get the alteration flags of the specified cell.

Parameters

id	is the id of the cell

Returns: The alteration flags of the cell.

Definition at line 6820 of file patch_kernel.cpp.

◆ getCellConstIterator()

PatchKernel::CellConstIterator bitpit::PatchKernel::getCellConstIterator ( long id ) const

Returns a constant iterator pointing to the specified cell.

Returns: A constant iterator to the specified cell.

Definition at line 2705 of file patch_kernel.cpp.

◆ getCellCount()

long bitpit::PatchKernel::getCellCount ( ) const

virtual

Gets the number of cells in the patch.

Returns: The number of cells in the patch.

Reimplemented in bitpit::VolCartesian.

Examples: POD_example_00002.cpp.

Definition at line 2528 of file patch_kernel.cpp.

◆ getCellHaloLayer()

int bitpit::PatchKernel::getCellHaloLayer ( long id ) const

Gets the halo layer of the specified cell.

Parameters

id	is the id of the requested cell

Returns: The halo layer of the specified cell.

Definition at line 3786 of file patch_kernel_parallel.cpp.

◆ getCellIterator()

PatchKernel::CellIterator bitpit::PatchKernel::getCellIterator ( long id )

Returns an iterator pointing to the specified cell.

Returns: An iterator to the specified cell.

Definition at line 2631 of file patch_kernel.cpp.

◆ getCellOwner()

int bitpit::PatchKernel::getCellOwner ( long id ) const

Gets the rank of the process that owns the specified cell.

Parameters

id	is the id of the requested cell

Returns: The rank that owns the specified cell.

Definition at line 3770 of file patch_kernel_parallel.cpp.

◆ getCellRank()

int bitpit::PatchKernel::getCellRank ( long id ) const

Gets the rank of the process that owns the specified cell.

Parameters

id	is the id of the requested cell

Returns: The rank that owns the specified cell.

Definition at line 3754 of file patch_kernel_parallel.cpp.

◆ getCells() [1/2]

PiercedVector< Cell > & bitpit::PatchKernel::getCells ( )

Gets the cells owned by the patch.

Returns: The cells owned by the patch.

Examples: POD_example_00002.cpp.

Definition at line 2558 of file patch_kernel.cpp.

◆ getCells() [2/2]

const PiercedVector< Cell > & bitpit::PatchKernel::getCells ( ) const

Gets a constant reference of the cells owned by the patch.

Returns: A constant reference of the cells owned by the patch.

Definition at line 2568 of file patch_kernel.cpp.

◆ getCellType()

ElementType bitpit::PatchKernel::getCellType ( long id ) const

virtual

Gets the element type for the cell with the specified id.

Parameters

id	is the id of the requested cell

Returns: The element type for the cell with the specified id.

Reimplemented in bitpit::VolCartesian, and bitpit::VolCartesian.

Definition at line 2601 of file patch_kernel.cpp.

◆ getCellVertexCoordinates() [1/3]

ConstProxyVector< std::array< double, 3 > > bitpit::PatchKernel::getCellVertexCoordinates ( long id ) const

Get vertex coordinates of the specified cell.

Parameters

id	is the id of the cell

Returns: Vertex coordinates of the cell.

Definition at line 5547 of file patch_kernel.cpp.

◆ getCellVertexCoordinates() [2/3]

void bitpit::PatchKernel::getCellVertexCoordinates	(	long	id,
		std::array< double, 3 > *	coordinates ) const

Get vertex coordinates of the specified cell.

Parameters

	id	is the id of the cell
[out]	coordinates	on output will contain the vertex coordinates, it is up to the caller to ensure that the storage has enough space for all the vertex coordinates

Definition at line 5583 of file patch_kernel.cpp.

◆ getCellVertexCoordinates() [3/3]

void bitpit::PatchKernel::getCellVertexCoordinates	(	long	id,
		std::unique_ptr< std::array< double, 3 >[]> *	coordinates ) const

Get vertex coordinates of the specified cell.

Parameters

	id	is the id of the cell
[out]	coordinates	on output will contain the vertex coordinates

Definition at line 5568 of file patch_kernel.cpp.

◆ getCommunicator()

const MPI_Comm & bitpit::PatchKernel::getCommunicator ( ) const

Gets the MPI communicator associated with the patch

Returns: The MPI communicator associated with the patch.

Definition at line 128 of file patch_kernel_parallel.cpp.

◆ getDimension()

int bitpit::PatchKernel::getDimension ( ) const

Gets the dimension of the patch.

Returns: The dimension of the patch.

Definition at line 1532 of file patch_kernel.cpp.

◆ getDumpVersion()

int bitpit::PatchKernel::getDumpVersion ( ) const

Get the version associated to the binary dumps.

Returns: The version associated to the binary dumps.

Definition at line 8202 of file patch_kernel.cpp.

◆ getElementVertexCoordinates() [1/3]

ConstProxyVector< std::array< double, 3 > > bitpit::PatchKernel::getElementVertexCoordinates ( const Element & element ) const

Get the coordinates of the specified element

Parameters

element is the element

Returns: The coordinates of the element.

Definition at line 7332 of file patch_kernel.cpp.

◆ getElementVertexCoordinates() [2/3]

void bitpit::PatchKernel::getElementVertexCoordinates	(	const Element &	element,
		std::array< double, 3 > *	coordinates ) const

Get vertex coordinates of the specified element

Parameters

	element	is the element
[out]	coordinates	on output will contain the vertex coordinates, it is up to the caller to ensure that the storage has enough space for all the vertex coordinates

Definition at line 7366 of file patch_kernel.cpp.

◆ getElementVertexCoordinates() [3/3]

void bitpit::PatchKernel::getElementVertexCoordinates	(	const Element &	element,
		std::unique_ptr< std::array< double, 3 >[]> *	coordinates ) const

Get vertex coordinates of the specified element

Parameters

	element	is the element
[out]	coordinates	on output will contain the vertex coordinates

Definition at line 7352 of file patch_kernel.cpp.

◆ getFirstGhost() [1/2]

Cell & bitpit::PatchKernel::getFirstGhost ( )

Gets a reference to the first ghost cell.

Returns: A reference to the first ghost cell.

Definition at line 731 of file patch_kernel_parallel.cpp.

◆ getFirstGhost() [2/2]

const Cell & bitpit::PatchKernel::getFirstGhost ( ) const

Gets a constant reference to the first ghost cell.

Returns: A constant reference to the first ghost cell.

Definition at line 751 of file patch_kernel_parallel.cpp.

◆ getFirstGhostCell() [1/2]

Cell & bitpit::PatchKernel::getFirstGhostCell ( )

Gets a reference to the first ghost cell.

Returns: A reference to the first ghost cell.

Definition at line 721 of file patch_kernel_parallel.cpp.

◆ getFirstGhostCell() [2/2]

const Cell & bitpit::PatchKernel::getFirstGhostCell ( ) const

Gets a constant reference to the first ghost cell.

Returns: A constant reference to the first ghost cell.

Definition at line 741 of file patch_kernel_parallel.cpp.

◆ getFirstGhostVertex() [1/2]

Vertex & bitpit::PatchKernel::getFirstGhostVertex ( )

Gets a reference to the first ghost vertex.

Returns: A reference to the first ghost vertex.

Definition at line 444 of file patch_kernel_parallel.cpp.

◆ getFirstGhostVertex() [2/2]

const Vertex & bitpit::PatchKernel::getFirstGhostVertex ( ) const

Gets a constant reference to the first ghost vertex.

Returns: A constant reference to the first ghost vertex.

Definition at line 454 of file patch_kernel_parallel.cpp.

◆ getGhostCellCount()

long bitpit::PatchKernel::getGhostCellCount ( ) const

Gets the number of ghost cells in the patch.

Returns: The number of ghost cells in the patch.

Definition at line 701 of file patch_kernel_parallel.cpp.

◆ getGhostCellExchangeSources() [1/2]

const std::unordered_map< int, std::vector< long > > & bitpit::PatchKernel::getGhostCellExchangeSources ( ) const

Gets a constant reference to the cells that define the "sources" for the exchange of data on ghost cells. For each process, the corresponding list of "sources" is returned.

Sources are internal cells (i.e. cells owned by the current partition) that are ghost cells on other partitions. When exchanging data on ghost cells, these cells will be the sources form which data will be read from.

Source and target cells are ordered using a geometrical criterion (the same criterion is used on all the partitions), in this way the n-th source on a partition will correspond to the n-th target on the other partition.

Returns: A constant reference to the cells that define the "sources" for the exchange of data on ghost cells.

Definition at line 4041 of file patch_kernel_parallel.cpp.

◆ getGhostCellExchangeSources() [2/2]

const std::vector< long > & bitpit::PatchKernel::getGhostCellExchangeSources ( int rank ) const

Gets a constant reference to the cells that define the "sources" for the exchange of data on ghost cells with the specified process.

Sources are internal cells (i.e. cells owned by the current partition) that are ghost cells on other partitions. When exchanging data on ghost cells, these cells will be the sources form which data will be read from.

Source and target cells are ordered using a geometrical criterion (the same criterion is used on all the partitions), in this way the n-th source on a partition will correspond to the n-th target on the other partition.

Parameters

rank	is the rank to which data will be send

Returns: A constant reference to the cells that define the "sources" for the exchange of data on ghost cells with the specified process.

Definition at line 4083 of file patch_kernel_parallel.cpp.

◆ getGhostCellExchangeTargets() [1/2]

const std::unordered_map< int, std::vector< long > > & bitpit::PatchKernel::getGhostCellExchangeTargets ( ) const

Gets a constant reference to the cells that define the "targets" for the exchange of data on ghost cells. For each process, the corresponding list of "targets" is returned.

During data exchange, each partition will send the data of its "source" cells to the corresponding "target" cells (i.e., ghost cells) on other partitions.

Source and target cells are ordered using a geometrical criterion (the same criterion is used on all the partitions), in this way the n-th source on a partition will correspond to the n-th target on the other partition.

Returns: A constant reference to the cells that define the "targets" for the exchange of data on ghost cells.

Definition at line 3957 of file patch_kernel_parallel.cpp.

◆ getGhostCellExchangeTargets() [2/2]

const std::vector< long > & bitpit::PatchKernel::getGhostCellExchangeTargets ( int rank ) const

Gets a constant reference to the cells that define the "targets" for the exchange of data on ghost cells with the specified process.

During data exchange, each partition will send the data of its "source" cells to the corresponding "target" cells (i.e., ghost cells) on other partitions.

Source and target cells are ordered using a geometrical criterion (the same criterion is used on all the partitions), in this way the n-th source on a partition will correspond to the n-th target on the other partition.

Parameters

rank	is the rank data will be received from

Returns: A constant reference to the cells that define the "targets" for the exchange of data on ghost cells with the specified process.

Definition at line 3999 of file patch_kernel_parallel.cpp.

◆ getGhostCount()

long bitpit::PatchKernel::getGhostCount ( ) const

Gets the number of ghost cells in the patch.

Returns: The number of ghost cells in the patch.

Definition at line 711 of file patch_kernel_parallel.cpp.

◆ getGhostExchangeSources() [1/2]

const std::unordered_map< int, std::vector< long > > & bitpit::PatchKernel::getGhostExchangeSources ( ) const

Gets a constant reference to the cells that define the "sources" for the exchange of data on ghost cells. For each process, the corresponding list of "sources" is returned.

Sources are internal cells (i.e. cells owned by the current partition) that are ghost cells on other partitions. When exchanging data on ghost cells, these cells will be the sources form which data will be read from.

Source and target cells are ordered using a geometrical criterion (the same criterion is used on all the partitions), in this way the n-th source on a partition will correspond to the n-th target on the other partition.

Returns: A constant reference to the cells that define the "sources" for the exchange of data on ghost cells.

Definition at line 4062 of file patch_kernel_parallel.cpp.

◆ getGhostExchangeSources() [2/2]

const std::vector< long > & bitpit::PatchKernel::getGhostExchangeSources ( int rank ) const

Gets a constant reference to the cells that define the "sources" for the exchange of data on ghost cells with the specified process.

Sources are internal cells (i.e. cells owned by the current partition) that are ghost cells on other partitions. When exchanging data on ghost cells, these cells will be the sources form which data will be read from.

Source and target cells are ordered using a geometrical criterion (the same criterion is used on all the partitions), in this way the n-th source on a partition will correspond to the n-th target on the other partition.

Parameters

rank	is the rank to which data will be send

Returns: A constant reference to the cells that define the "sources" for the exchange of data on ghost cells with the specified process.

Definition at line 4104 of file patch_kernel_parallel.cpp.

◆ getGhostExchangeTargets() [1/2]

const std::unordered_map< int, std::vector< long > > & bitpit::PatchKernel::getGhostExchangeTargets ( ) const

Gets a constant reference to the cells that define the "targets" for the exchange of data on ghost cells. For each process, the corresponding list of "targets" is returned.

During data exchange, each partition will send the data of its "source" cells to the corresponding "target" cells (i.e., ghost cells) on other partitions.

Source and target cells are ordered using a geometrical criterion (the same criterion is used on all the partitions), in this way the n-th source on a partition will correspond to the n-th target on the other partition.

Returns: A constant reference to the cells that define the "targets" for the exchange of data on ghost cells.

Definition at line 3978 of file patch_kernel_parallel.cpp.

◆ getGhostExchangeTargets() [2/2]

const std::vector< long > & bitpit::PatchKernel::getGhostExchangeTargets ( int rank ) const

Gets a constant reference to the cells that define the "targets" for the exchange of data on ghost cells with the specified process.

During data exchange, each partition will send the data of its "source" cells to the corresponding "target" cells (i.e., ghost cells) on other partitions.

Source and target cells are ordered using a geometrical criterion (the same criterion is used on all the partitions), in this way the n-th source on a partition will correspond to the n-th target on the other partition.

Parameters

rank	is the rank data will be received from

Returns: A constant reference to the cells that define the "targets" for the exchange of data on ghost cells with the specified process.

Definition at line 4020 of file patch_kernel_parallel.cpp.

◆ getGhostVertexCount()

long bitpit::PatchKernel::getGhostVertexCount ( ) const

Gets the number of ghost vertices in the patch.

Returns: The number of ghost vertices in the patch

Definition at line 434 of file patch_kernel_parallel.cpp.

◆ getGhostVertexExchangeSources() [1/2]

const std::unordered_map< int, std::vector< long > > & bitpit::PatchKernel::getGhostVertexExchangeSources ( ) const

Gets a constant reference to the vertices that define the "sources" for the exchange of data on ghost vertices. For each process, the corresponding list of "sources" is returned.

Sources are internal vertices (i.e. vertices owned by the current partition) that are ghost vertices on other partitions. When exchanging data on ghost vertices, these vertices will be the sources form which data will be read from.

Source and target vertices are ordered using a geometrical criterion (the same criterion is used on all the partitions), in this way the n-th source on a partition will correspond to the n-th target on the other partition.

Returns: A constant reference to the vertices that define the "sources" for the exchange of data on ghost vertices with the specified process.

Definition at line 3914 of file patch_kernel_parallel.cpp.

◆ getGhostVertexExchangeSources() [2/2]

const std::vector< long > & bitpit::PatchKernel::getGhostVertexExchangeSources ( int rank ) const

Gets a constant reference to the vertices that define the "sources" for the exchange of data on ghost vertices with the specified process.

Sources are internal vertices (i.e. vertices owned by the current partition) that are ghost vertices on other partitions. When exchanging data on ghost vertices, these vertices will be the sources form which data will be read from.

Source and target vertices are ordered using a geometrical criterion (the same criterion is used on all the partitions), in this way the n-th source on a partition will correspond to the n-th target on the other partition.

Parameters

rank	is the rank to which data will be send

Returns: A constant reference to the vertices that define the "sources" for the exchange of data on ghost vertices with the specified process.

Definition at line 3936 of file patch_kernel_parallel.cpp.

◆ getGhostVertexExchangeTargets() [1/2]

const std::unordered_map< int, std::vector< long > > & bitpit::PatchKernel::getGhostVertexExchangeTargets ( ) const

Gets a constant reference to the vertices that define the "targets" for the exchange of data on ghost vertices. For each process, the corresponding list of "targets" is returned.

During data exchange, each partition will send the data of its "source" vertices to the corresponding "target" vertices (i.e., ghost vertices) on other partitions.

Source and target vertices are ordered using a geometrical criterion (the same criterion is used on all the partitions), in this way the n-th source on a partition will correspond to the n-th target on the other partition.

Returns: A constant reference to the vertices that define the "targets" for the exchange of data on ghost vertices.

Definition at line 3871 of file patch_kernel_parallel.cpp.

◆ getGhostVertexExchangeTargets() [2/2]

const std::vector< long > & bitpit::PatchKernel::getGhostVertexExchangeTargets ( int rank ) const

Gets a constant reference to the vertices that define the "targets" for the exchange of data on ghost vertices with the specified process.

During data exchange, each partition will send the data of its "source" vertices to the corresponding "target" vertices (i.e., ghost vertices) on other partitions.

Source and target vertices are ordered using a geometrical criterion (the same criterion is used on all the partitions), in this way the n-th source on a partition will correspond to the n-th target on the other partition.

Parameters

rank	is the rank data will be received from

Returns: A constant reference to the vertices that define the "targets" for the exchange of data on ghost vertices with the specified process.

Definition at line 3892 of file patch_kernel_parallel.cpp.

◆ getHaloSize()

std::size_t bitpit::PatchKernel::getHaloSize ( ) const

Gets the size, expressed in number of layers, of the ghost cells halo.

Returns: The size, expressed in number of layers, of the ghost cells halo.

Definition at line 315 of file patch_kernel_parallel.cpp.

◆ getId()

int bitpit::PatchKernel::getId ( ) const

Gets the id associated with the patch.

Returns: The id associated with the patch.

Definition at line 1502 of file patch_kernel.cpp.

◆ getInterface() [1/2]

Interface & bitpit::PatchKernel::getInterface ( long id )

Gets a reference to the interface with the specified id.

Parameters

id	is the id of the requested interface

Returns: A reference to the interface with the specified id.

Definition at line 4304 of file patch_kernel.cpp.

◆ getInterface() [2/2]

const Interface & bitpit::PatchKernel::getInterface ( long id ) const

Gets a constant reference to the interface with the specified id.

Parameters

id	is the id of the requested interface

Returns: A constant reference to the interface with the specified id.

Definition at line 4315 of file patch_kernel.cpp.

◆ getInterfaceAlterationFlags()

PatchKernel::AlterationFlags bitpit::PatchKernel::getInterfaceAlterationFlags ( long id ) const

protected

Get the alteration flags of the specified interface.

Parameters

id	is the id of the interface

Returns: The alteration flags of the interface.

Definition at line 6899 of file patch_kernel.cpp.

◆ getInterfaceConstIterator()

PatchKernel::InterfaceConstIterator bitpit::PatchKernel::getInterfaceConstIterator ( long id ) const

Returns a constant iterator pointing to the specified interface.

Returns: A constant iterator to the specified interface.

Definition at line 4366 of file patch_kernel.cpp.

◆ getInterfaceCount()

long bitpit::PatchKernel::getInterfaceCount ( ) const

virtual

Gets the number of interfaces in the patch.

Returns: The number of interfaces in the patch

Reimplemented in bitpit::VolCartesian.

Definition at line 4273 of file patch_kernel.cpp.

◆ getInterfaceIterator()

PatchKernel::InterfaceIterator bitpit::PatchKernel::getInterfaceIterator ( long id )

Returns an iterator pointing to the specified interface.

Returns: An iterator to the specified interface.

Definition at line 4336 of file patch_kernel.cpp.

◆ getInterfaces() [1/2]

PiercedVector< Interface > & bitpit::PatchKernel::getInterfaces ( )

Gets the interfaces owned by the patch.

Returns: The interfaces owned by the patch.

Definition at line 4283 of file patch_kernel.cpp.

◆ getInterfaces() [2/2]

const PiercedVector< Interface > & bitpit::PatchKernel::getInterfaces ( ) const

Gets a constant reference to the interfaces owned by the patch.

Returns: A constant reference to the interfaces owned by the patch.

Definition at line 4293 of file patch_kernel.cpp.

◆ getInterfacesBuildStrategy()

PatchKernel::InterfacesBuildStrategy bitpit::PatchKernel::getInterfacesBuildStrategy ( ) const

Returns the current interfaces build strategy.

Returns: The current interfaces build strategy.

Definition at line 6295 of file patch_kernel.cpp.

◆ getInterfaceType()

ElementType bitpit::PatchKernel::getInterfaceType ( long id ) const

virtual

Gets the element type for the interface with the specified id.

Parameters

id	is the id of the requested interface

Returns: The element type for the interface with the specified id.

Reimplemented in bitpit::VolCartesian, and bitpit::VolCartesian.

Definition at line 4326 of file patch_kernel.cpp.

◆ getInterfaceVertexCoordinates() [1/3]

ConstProxyVector< std::array< double, 3 > > bitpit::PatchKernel::getInterfaceVertexCoordinates ( long id ) const

Get vertex coordinates of the specified interface.

Parameters

id	is the id of the interface

Returns: Vertex coordinates of the interface.

Definition at line 5623 of file patch_kernel.cpp.

◆ getInterfaceVertexCoordinates() [2/3]

void bitpit::PatchKernel::getInterfaceVertexCoordinates	(	long	id,
		std::array< double, 3 > *	coordinates ) const

Get vertex coordinates of the specified interface.

Parameters

	id	is the id of the interface
[out]	coordinates	on output will contain the vertex coordinates, it is up to the caller to ensure that the storage has enough space for all the vertex coordinates

Definition at line 5659 of file patch_kernel.cpp.

◆ getInterfaceVertexCoordinates() [3/3]

void bitpit::PatchKernel::getInterfaceVertexCoordinates	(	long	id,
		std::unique_ptr< std::array< double, 3 >[]> *	coordinates ) const

Get vertex coordinates of the specified interface.

Parameters

	id	is the id of the interface
[out]	coordinates	on output will contain the vertex coordinates

Definition at line 5644 of file patch_kernel.cpp.

◆ getInternalCellCount()

long bitpit::PatchKernel::getInternalCellCount ( ) const

Gets the number of internal cells in the patch.

Returns: The number of internal cells in the patch.

Definition at line 2538 of file patch_kernel.cpp.

◆ getInternalCellPIDs()

std::set< int > bitpit::PatchKernel::getInternalCellPIDs ( )

Get the PIDs of the internal cells.

Returns: The PIDs of the internal cells.

Definition at line 4085 of file patch_kernel.cpp.

◆ getInternalCellsByPID()

std::vector< long > bitpit::PatchKernel::getInternalCellsByPID ( int pid )

Get all the internal cells which belongs to the specified PID.

Parameters

pid	is the PID

Returns: All the internal cells which belongs to the specified PID.

Definition at line 4102 of file patch_kernel.cpp.

◆ getInternalCount()

long bitpit::PatchKernel::getInternalCount ( ) const

Gets the number of internal cells in the patch.

Returns: The number of internal cells in the patch.

Definition at line 2548 of file patch_kernel.cpp.

◆ getInternalVertexCount()

long bitpit::PatchKernel::getInternalVertexCount ( ) const

Gets the number of internal vertices in the patch.

Returns: The number of internal vertices in the patch.

Definition at line 1661 of file patch_kernel.cpp.

◆ getLastInternalCell() [1/2]

Cell & bitpit::PatchKernel::getLastInternalCell ( )

Gets a reference to the last internal cell.

Returns: A reference to the last internal cell.

Definition at line 2611 of file patch_kernel.cpp.

◆ getLastInternalCell() [2/2]

const Cell & bitpit::PatchKernel::getLastInternalCell ( ) const

Gets a constant reference to the last internal cell.

Returns: A constant reference to the last internal cell.

Definition at line 2621 of file patch_kernel.cpp.

◆ getLastInternalVertex() [1/2]

Vertex & bitpit::PatchKernel::getLastInternalVertex ( )

Gets a reference to the last internal vertex.

Returns: A reference to the last internal vertex.

Definition at line 1713 of file patch_kernel.cpp.

◆ getLastInternalVertex() [2/2]

const Vertex & bitpit::PatchKernel::getLastInternalVertex ( ) const

Gets a constant reference to the last internal vertex.

Returns: A constant reference to the last internal vertex.

Definition at line 1723 of file patch_kernel.cpp.

◆ getLineCodimension()

virtual int bitpit::PatchKernel::getLineCodimension ( ) const

pure virtual

Implemented in bitpit::LineKernel, bitpit::PointKernel, bitpit::SurfaceKernel, and bitpit::VolumeKernel.

◆ getNeighbourRanks()

std::vector< int > bitpit::PatchKernel::getNeighbourRanks ( )

Get a list of neighbour ranks.

Returns: A list of neighbour ranks.

Definition at line 3844 of file patch_kernel_parallel.cpp.

◆ getOwner()

int bitpit::PatchKernel::getOwner ( bool allowDirty = false ) const

If the path is NOT distributed among different processes, returns the process that owns the patch, otherwise returns a negative number.

Setting the appropriate function argument, this function can be called also when the patch is not up-to-date. If dirty patches are allowed and the patch is actually dirty, the function will evaluate the owner on-the-fly. Otherwise the function will return the owner evaluated during the last update. In any case, if dirt patches are allowed, the function is a collective function and needs to be called by all processes (otherwise a deadlock will occur).

Parameters

allowDirty if set to true, the function will evaluate the owner of a dirty patch on on-the-fly; otherwise the function will return the owner evaluated during the last updated, even if the patch is currently dirty. If dirty patch are allowed, the function is a collective function and needs to be called by all processes (otherwise a deadlock will occur)

Returns: If the path is NOT distributed among different processes, returns the process that owns the patch, otherwise returns a negative number.

Definition at line 211 of file patch_kernel_parallel.cpp.

◆ getPartitioningStatus()

PatchKernel::PartitioningStatus bitpit::PatchKernel::getPartitioningStatus ( bool global = false ) const

Returns the current partitioning status.

Parameters

global if set to true the partitioning status will be

Returns: The current partitioning status.

Definition at line 1707 of file patch_kernel_parallel.cpp.

◆ getPointCodimension()

virtual int bitpit::PatchKernel::getPointCodimension ( ) const

pure virtual

Implemented in bitpit::LineKernel, bitpit::PointKernel, bitpit::SurfaceKernel, and bitpit::VolumeKernel.

◆ getProcessorCount()

int bitpit::PatchKernel::getProcessorCount ( ) const

Count the MPI processes in the communicator associated with the patch.

Returns: The number of MPI processes in the communicator associated with the patch.

Definition at line 167 of file patch_kernel_parallel.cpp.

◆ getRank()

int bitpit::PatchKernel::getRank ( ) const

Gets the MPI rank associated with the patch.

Returns: The MPI rank associated with the patch.

Definition at line 156 of file patch_kernel_parallel.cpp.

◆ getSpawnStatus()

PatchKernel::SpawnStatus bitpit::PatchKernel::getSpawnStatus ( ) const

Returns the current spawn status.

Returns: The current spawn status.

Definition at line 1307 of file patch_kernel.cpp.

◆ getSurfaceCodimension()

virtual int bitpit::PatchKernel::getSurfaceCodimension ( ) const

pure virtual

Implemented in bitpit::LineKernel, bitpit::PointKernel, bitpit::SurfaceKernel, and bitpit::VolumeKernel.

◆ getTol()

double bitpit::PatchKernel::getTol ( ) const

Gets the tolerance for geometrical checks.

Returns: The tolerance for geometrical checks.

Definition at line 7621 of file patch_kernel.cpp.

◆ getVertex() [1/2]

Vertex & bitpit::PatchKernel::getVertex ( long id )

Gets a reference to the vertex with the specified id.

Parameters

id	is the id of the requested vertex

Returns: A reference to the vertex with the specified id.

Definition at line 1692 of file patch_kernel.cpp.

◆ getVertex() [2/2]

const Vertex & bitpit::PatchKernel::getVertex ( long id ) const

Gets a constant reference to the vertex with the specified id.

Parameters

id	is the id of the requested vertex

Returns: A constant reference to the vertex with the specified id.

Definition at line 1703 of file patch_kernel.cpp.

◆ getVertexConstIterator()

PatchKernel::VertexConstIterator bitpit::PatchKernel::getVertexConstIterator ( long id ) const

Returns a constant iterator pointing to the specified vertex.

Returns: A constant iterator to the specified vertex.

Definition at line 1787 of file patch_kernel.cpp.

◆ getVertexCoords() [1/3]

const std::array< double, 3 > & bitpit::PatchKernel::getVertexCoords ( long id ) const

Gets the coordinates of the specified vertex.

Parameters

id	is the id of the vertex

Returns: The coordinates of the specified vertex.

Definition at line 2345 of file patch_kernel.cpp.

◆ getVertexCoords() [2/3]

void bitpit::PatchKernel::getVertexCoords	(	std::size_t	nVertices,
		const long *	ids,
		std::array< double, 3 > *	coordinates ) const

Gets the coordinates of the specified vertices.

Parameters

	nVertices	is the number of vertices
	ids	are the ids of the requested vertices
[out]	coordinates	on output will contain the vertex coordinates, it is up to the caller to ensure that the storage has enough space for all the vertex coordinates

Definition at line 2372 of file patch_kernel.cpp.

◆ getVertexCoords() [3/3]

void bitpit::PatchKernel::getVertexCoords	(	std::size_t	nVertices,
		const long *	ids,
		std::unique_ptr< std::array< double, 3 >[]> *	coordinates ) const

Gets the coordinates of the specified vertices.

Parameters

	nVertices	is the number of vertices
	ids	are the ids of the requested vertices
[out]	coordinates	on output will contain the vertex coordinates

Definition at line 2357 of file patch_kernel.cpp.

◆ getVertexCount()

long bitpit::PatchKernel::getVertexCount ( ) const

virtual

Gets the number of vertices in the patch.

Returns: The number of vertices in the patch

Reimplemented in bitpit::VolCartesian.

Definition at line 1651 of file patch_kernel.cpp.

◆ getVertexIterator()

PatchKernel::VertexIterator bitpit::PatchKernel::getVertexIterator ( long id )

Returns an iterator pointing to the specified vertex.

Returns: An iterator to the specified vertex.

Definition at line 1733 of file patch_kernel.cpp.

◆ getVertexOwner()

int bitpit::PatchKernel::getVertexOwner ( long id ) const

Gets the rank of the process that owns the specified vertex.

Parameters

id	is the id of the requested vertex

Returns: The rank that owns the specified vertex.

Definition at line 3818 of file patch_kernel_parallel.cpp.

◆ getVertexRank()

int bitpit::PatchKernel::getVertexRank ( long id ) const

Gets the rank of the process that owns the specified vertex.

Parameters

id	is the id of the requested vertex

Returns: The rank that owns the specified vertex.

Definition at line 3802 of file patch_kernel_parallel.cpp.

◆ getVertices() [1/2]

PiercedVector< Vertex > & bitpit::PatchKernel::getVertices ( )

Gets the nodes owned by the patch.

Returns: The nodes owned by the patch.

Definition at line 1671 of file patch_kernel.cpp.

◆ getVertices() [2/2]

const PiercedVector< Vertex > & bitpit::PatchKernel::getVertices ( ) const

Gets a constant reference to the vertices owned by the patch.

Returns: A constant reference to the vertices owned by the patch.

Definition at line 1681 of file patch_kernel.cpp.

◆ getVolumeCodimension()

virtual int bitpit::PatchKernel::getVolumeCodimension ( ) const

pure virtual

Implemented in bitpit::LineKernel, bitpit::PointKernel, bitpit::SurfaceKernel, and bitpit::VolumeKernel.

◆ getVTK()

VTKUnstructuredGrid & bitpit::PatchKernel::getVTK ( )

Get the VTK object.

Returns: The VTK object.

Examples: volcartesian_example_00001.cpp.

Definition at line 7809 of file patch_kernel.cpp.

◆ getVTKCellWriteRange()

const PatchKernel::CellConstRange bitpit::PatchKernel::getVTKCellWriteRange ( ) const

Get the VTK cell write range.

Returns: The VTK cell write range.

Examples: voloctree_adaptation_example_00001.cpp.

Definition at line 7839 of file patch_kernel.cpp.

◆ getVTKWriteTarget()

PatchKernel::WriteTarget bitpit::PatchKernel::getVTKWriteTarget ( ) const

Get the VTK write target.

Returns: The VTK write target.

Definition at line 7819 of file patch_kernel.cpp.

◆ ghostBegin()

PatchKernel::CellIterator bitpit::PatchKernel::ghostBegin ( )

Returns iterator to the first ghost cells within the cell list.

Returns: An iterator to the first ghost cell.

Definition at line 1218 of file patch_kernel_parallel.cpp.

◆ ghostCell2InternalCell()

PatchKernel::CellIterator bitpit::PatchKernel::ghostCell2InternalCell ( long id )

Converts a ghost cell to an internal cell.

Parameters

[in] id is the index of the cell

Definition at line 658 of file patch_kernel_parallel.cpp.

◆ ghostCellBegin()

PatchKernel::CellIterator bitpit::PatchKernel::ghostCellBegin ( )

Returns iterator to the first ghost cells within the cell list.

Returns: An iterator to the first ghost cell.

Definition at line 1204 of file patch_kernel_parallel.cpp.

◆ ghostCellConstBegin()

PatchKernel::CellConstIterator bitpit::PatchKernel::ghostCellConstBegin ( ) const

Returns a constant iterator to the first ghost cells within the cell list.

Returns: A constant iterator to the first ghost cell.

Definition at line 1248 of file patch_kernel_parallel.cpp.

◆ ghostCellConstEnd()

PatchKernel::CellConstIterator bitpit::PatchKernel::ghostCellConstEnd ( ) const

Returns a constant iterator to the end of the list of ghost cells.

Returns: A constant iterator to the end of the list of ghost cell.

Definition at line 1272 of file patch_kernel_parallel.cpp.

◆ ghostCellEnd()

PatchKernel::CellIterator bitpit::PatchKernel::ghostCellEnd ( )

Returns iterator to the end of the list of ghost cells.

Returns: An iterator to the end of the list of ghost cell.

Definition at line 1228 of file patch_kernel_parallel.cpp.

◆ ghostConstBegin()

PatchKernel::CellConstIterator bitpit::PatchKernel::ghostConstBegin ( ) const

Returns a constant iterator to the first ghost cells within the cell list.

Returns: A constant iterator to the first ghost cell.

Definition at line 1262 of file patch_kernel_parallel.cpp.

◆ ghostConstEnd()

PatchKernel::CellConstIterator bitpit::PatchKernel::ghostConstEnd ( ) const

Returns a constant iterator to the end of the list of ghost cells.

Returns: A constant iterator to the end of the list of ghost cell.

Definition at line 1282 of file patch_kernel_parallel.cpp.

◆ ghostEnd()

PatchKernel::CellIterator bitpit::PatchKernel::ghostEnd ( )

Returns iterator to the end of the list of ghost cells.

Returns: An iterator to the end of the list of ghost cell.

Definition at line 1238 of file patch_kernel_parallel.cpp.

◆ ghostVertex2InternalVertex()

PatchKernel::VertexIterator bitpit::PatchKernel::ghostVertex2InternalVertex ( long id )

protected

Converts a ghost vertex to an internal vertex.

Parameters

[in] id is the index of the vertex

Definition at line 391 of file patch_kernel_parallel.cpp.

◆ ghostVertexBegin()

PatchKernel::VertexIterator bitpit::PatchKernel::ghostVertexBegin ( )

Returns iterator to the first ghost vertex within the vertex list.

Returns: An iterator to the first ghost vertex.

Definition at line 551 of file patch_kernel_parallel.cpp.

◆ ghostVertexConstBegin()

PatchKernel::VertexConstIterator bitpit::PatchKernel::ghostVertexConstBegin ( ) const

Returns a constant iterator to the first ghost vertices within the vertex list.

Returns: A constant iterator to the first ghost vertex.

Definition at line 576 of file patch_kernel_parallel.cpp.

◆ ghostVertexConstEnd()

PatchKernel::VertexConstIterator bitpit::PatchKernel::ghostVertexConstEnd ( ) const

Returns a constant iterator to the end of the list of ghost vertices.

Returns: A constant iterator to the end of the list of ghost vertex.

Definition at line 590 of file patch_kernel_parallel.cpp.

◆ ghostVertexEnd()

PatchKernel::VertexIterator bitpit::PatchKernel::ghostVertexEnd ( )

Returns iterator to the end of the list of ghost vertices.

Returns: An iterator to the end of the list of ghost vertex.

Definition at line 565 of file patch_kernel_parallel.cpp.

◆ initializeAdjacencies()

void bitpit::PatchKernel::initializeAdjacencies ( AdjacenciesBuildStrategy strategy = ADJACENCIES_AUTOMATIC )

Initialize the adjacencies using the specified build strategy.

If the current strategy doesn't match the requested strategy, all adjacencies will be deleted and they will be re-generated from scratch.

Parameters

strategy is the build strategy that will be used

Definition at line 5878 of file patch_kernel.cpp.

◆ initializeInterfaces()

void bitpit::PatchKernel::initializeInterfaces ( InterfacesBuildStrategy strategy = INTERFACES_AUTOMATIC )

Initialize the interfaces using the specified build strategy.

If the current strategy doesn't match the requested strategy, all interfaces will be deleted and they will be re-generated from scratch.

Adjacencies are a mandatory requirement for building interfaces, if the adjacencies are not yet initialized an exception is thrown.

Parameters

strategy is the build strategy that will be used

Definition at line 6374 of file patch_kernel.cpp.

◆ interfaceBegin()

PatchKernel::InterfaceIterator bitpit::PatchKernel::interfaceBegin ( )

Returns iterator pointing to the first interface.

Returns: An iterator to the first interface.

Definition at line 4346 of file patch_kernel.cpp.

◆ interfaceConstBegin()

PatchKernel::InterfaceConstIterator bitpit::PatchKernel::interfaceConstBegin ( ) const

Returnsa a constant iterator pointing to the first interface.

Returns: A constant iterator to the first interface.

Definition at line 4376 of file patch_kernel.cpp.

◆ interfaceConstEnd()

PatchKernel::InterfaceConstIterator bitpit::PatchKernel::interfaceConstEnd ( ) const

Returns a constant iterator pointing to last interface.

Returns: A constant iterator to the last interface.

Definition at line 4386 of file patch_kernel.cpp.

◆ interfaceEnd()

PatchKernel::InterfaceIterator bitpit::PatchKernel::interfaceEnd ( )

Returns iterator pointing to last interface.

Returns: An iterator to the last interface.

Definition at line 4356 of file patch_kernel.cpp.

◆ internalBegin()

PatchKernel::CellIterator bitpit::PatchKernel::internalBegin ( )

Returns iterator pointing to the first internal cell.

Returns: An iterator to the first internal cell.

Definition at line 2671 of file patch_kernel.cpp.

◆ internalCell2GhostCell()

PatchKernel::CellIterator bitpit::PatchKernel::internalCell2GhostCell	(	long	id,
		int	owner,
		int	haloLayer )

Converts an internal cell to a ghost cell.

Parameters

[in]	id	is the index of the cell
[in]	owner	is the rank of the process that owns the ghost cell
[in]	haloLayer	is the halo layer the ghost cell belongs to

Definition at line 617 of file patch_kernel_parallel.cpp.

◆ internalCellBegin()

PatchKernel::CellIterator bitpit::PatchKernel::internalCellBegin ( )

Returns iterator pointing to the first internal cell.

Returns: An iterator to the first internal cell.

Definition at line 2661 of file patch_kernel.cpp.

◆ internalCellConstBegin()

PatchKernel::CellConstIterator bitpit::PatchKernel::internalCellConstBegin ( ) const

Returns a constant iterator pointing to the first internal cell.

Returns: A constant iterator to the first internal cell.

Definition at line 2735 of file patch_kernel.cpp.

◆ internalCellConstEnd()

PatchKernel::CellConstIterator bitpit::PatchKernel::internalCellConstEnd ( ) const

Returns a constant iterator pointing to the end of the list of internal cells.

Returns: A constant iterator to the end of the list of internal cells.

Definition at line 2756 of file patch_kernel.cpp.

◆ internalCellEnd()

PatchKernel::CellIterator bitpit::PatchKernel::internalCellEnd ( )

Returns iterator pointing to the end of the list of internal cells.

Returns: An iterator to the end of the list of internal cells.

Definition at line 2681 of file patch_kernel.cpp.

◆ internalConstBegin()

PatchKernel::CellConstIterator bitpit::PatchKernel::internalConstBegin ( ) const

Returns a constant iterator pointing to the first internal cell.

Returns: A constant iterator to the first internal cell.

Definition at line 2745 of file patch_kernel.cpp.

◆ internalConstEnd()

PatchKernel::CellConstIterator bitpit::PatchKernel::internalConstEnd ( ) const

Returns a constant iterator pointing to the end of the list of internal cells.

Returns: A constant iterator to the end of the list of internal cells.

Definition at line 2771 of file patch_kernel.cpp.

◆ internalEnd()

PatchKernel::CellIterator bitpit::PatchKernel::internalEnd ( )

Returns iterator pointing to the end of the list of internal cells.

Returns: An iterator to the end of the list of internal cells.

Definition at line 2695 of file patch_kernel.cpp.

◆ internalVertex2GhostVertex()

PatchKernel::VertexIterator bitpit::PatchKernel::internalVertex2GhostVertex	(	long	id,
		int	owner )

protected

Converts an internal vertex to a ghost vertex.

Parameters

[in]	id	is the index of the vertex
[in]	owner	is the rank of the process that owns the ghost cell

Definition at line 350 of file patch_kernel_parallel.cpp.

◆ internalVertexBegin()

PatchKernel::VertexIterator bitpit::PatchKernel::internalVertexBegin ( )

Returns iterator pointing to the first internal vertex.

Returns: An iterator to the first internal vertex.

Definition at line 1763 of file patch_kernel.cpp.

◆ internalVertexConstBegin()

PatchKernel::VertexConstIterator bitpit::PatchKernel::internalVertexConstBegin ( ) const

Returns a constant iterator pointing to the first internal vertex.

Returns: A constant iterator to the first internal vertex.

Definition at line 1817 of file patch_kernel.cpp.

◆ internalVertexConstEnd()

PatchKernel::VertexConstIterator bitpit::PatchKernel::internalVertexConstEnd ( ) const

Returns a constant iterator pointing to last internal vertex.

Returns: A constant iterator to the last internal vertex.

Definition at line 1827 of file patch_kernel.cpp.

◆ internalVertexEnd()

PatchKernel::VertexIterator bitpit::PatchKernel::internalVertexEnd ( )

Returns iterator pointing to the end of the list of internal vertices.

Returns: An iterator to the end of the list of internal vertices.

Definition at line 1773 of file patch_kernel.cpp.

◆ isAdaptionSupported()

bool bitpit::PatchKernel::isAdaptionSupported ( ) const

Checks if the patch supports adaption.

Returns: Returns true if the patch supports adaption, false otherwise.

Definition at line 1331 of file patch_kernel.cpp.

◆ isBoundingBoxDirty()

bool bitpit::PatchKernel::isBoundingBoxDirty ( bool global = false ) const

Checks if the bounding box is dirty.

Parameters

global if set to true, the dirty status will be evaluated globally across all the partitions

Returns: Returns true if the bounding box is dirty, false otherwise.

Definition at line 7191 of file patch_kernel.cpp.

◆ isBoundingBoxFrozen()

bool bitpit::PatchKernel::isBoundingBoxFrozen ( ) const

protected

Checks if the bounding box is frozen.

Returns: Returns true if the bounding box is frozen, false otherwise.

Definition at line 7164 of file patch_kernel.cpp.

◆ isCellAutoIndexingEnabled()

bool bitpit::PatchKernel::isCellAutoIndexingEnabled ( ) const

Returns true if auto-indexing is enabled for cells.

When auto-indexing is disabled, cell ids for newly added cells should be provided by the user.

Returns: Returns true if auto-indexing is enabled for cells.

Definition at line 2432 of file patch_kernel.cpp.

◆ isCommunicatorSet()

bool bitpit::PatchKernel::isCommunicatorSet ( ) const

protected

Checks if the communicator to be used for parallel communications has already been set.

Returns: Returns true if the communicator has been set, false otherwise.

Definition at line 118 of file patch_kernel_parallel.cpp.

◆ isDirty()

bool bitpit::PatchKernel::isDirty ( bool global = false ) const

Returns true if the the patch needs to update its data structures.

Parameters

global if set to true, the dirty status will be evaluated globally across all the partitions

Returns: This method returns true to indicate the patch needs to update its data structures. Otherwise, it returns false.

Definition at line 1377 of file patch_kernel.cpp.

◆ isDistributed()

bool bitpit::PatchKernel::isDistributed ( bool allowDirty = false ) const

Check if the patch is distributed among different processes.

A patch is distributed among different processes if it doesn't have an owner.

Setting the appropriate function argument, this function can be called also when the patch is not up-to-date. If dirty patches are allowed and the patch is actually dirty, the function will evaluate the owner on-the-fly. Otherwise the function will return the owner evaluated during the last update. In any case, if dirt patches are allowed, the function is a collective function and needs to be called by all processes (otherwise a deadlock will occur).

Returns: Return true if the patch is distributed among different processes, false otherwise.

Definition at line 187 of file patch_kernel_parallel.cpp.

◆ isExpert()

bool bitpit::PatchKernel::isExpert ( ) const

Checks if the expert mode is enabled.

When expert mode is enabled, it will be possible to change the patch using low level functions (e.g., it will be possible to add individual cells, add vertices, delete cells, ...).

Returns: This method returns true when the expert is enabled, otherwise it returns false.

Definition at line 1467 of file patch_kernel.cpp.

◆ isInterfaceAutoIndexingEnabled()

bool bitpit::PatchKernel::isInterfaceAutoIndexingEnabled ( ) const

Returns true if auto-indexing is enabled for interfaces.

When auto-indexing is disabled, ids for newly added interfaces has to be manually specified.

Returns: Returns true if auto-indexing is enabled for interfaces.

Definition at line 4170 of file patch_kernel.cpp.

◆ isInterfaceOrphan()

bool bitpit::PatchKernel::isInterfaceOrphan ( long id ) const

Check if the interfaces is orphan.

An interface is considered orphan if it has no owner nor neighbour or if it's on a border face of a ghost cell.

Returns: Returns true if the interfaces is orphan, false otherwise.

Definition at line 4808 of file patch_kernel.cpp.

◆ isPartitioned()

bool bitpit::PatchKernel::isPartitioned ( ) const

Checks if the patch is partitioned.

A patch is considered partitioned if its MPI communicator spans multiple processes.

Returns: Returns true if the patch is partitioned, false otherwise.

Definition at line 1686 of file patch_kernel_parallel.cpp.

◆ isPartitioningSupported()

bool bitpit::PatchKernel::isPartitioningSupported ( ) const

Checks if the patch supports partitioning.

Returns: Returns true if the patch supports partitioning, false otherwise.

Definition at line 1696 of file patch_kernel_parallel.cpp.

◆ isRankNeighbour()

bool bitpit::PatchKernel::isRankNeighbour ( int rank )

Check if the processes associated with the specified rank is a neighbour.

Parameters

rank	is the rank associated with the process

Returns: True is the process is a neighbour, false otherwise.

Definition at line 3834 of file patch_kernel_parallel.cpp.

◆ isSameFace()

bool bitpit::PatchKernel::isSameFace	(	const Cell &	cell_A,
		int	face_A,
		const Cell &	cell_B,
		int	face_B ) const

protectedvirtual

Check whether the face "face_A" on cell "cell_A" is the same as the face "face_B" on cell "cell_B".

Parameters

[in]	cell_A	is the first cell
[in]	face_A	is the face on the first cell
[in]	cell_B	is the the second cell
[in]	face_B	is the face on the second cell

Returns: Returns true if the two faces are the same.

Reimplemented in bitpit::VolOctree.

Definition at line 5784 of file patch_kernel.cpp.

◆ isThreeDimensional()

bool bitpit::PatchKernel::isThreeDimensional ( ) const

Returns true if the patch is a three-dimensional patch.

Returns: This method returns true to indicate the patch is three-dimensional.

Definition at line 1542 of file patch_kernel.cpp.

◆ isTolCustomized()

bool bitpit::PatchKernel::isTolCustomized ( ) const

Checks if the tolerance for the geometrical checks has been customized by the user.

Returns: True if the tolerance was customized by the user, false otherwise.

Definition at line 7658 of file patch_kernel.cpp.

◆ isVertexAutoIndexingEnabled()

bool bitpit::PatchKernel::isVertexAutoIndexingEnabled ( ) const

Returns true if auto-indexing is enabled for vertices.

When auto-indexing is disabled, ids for newly added vertices has to be manually specified.

Returns: Returns true if auto-indexing is enabled for vertices.

Definition at line 1555 of file patch_kernel.cpp.

◆ locatePoint() [1/2]

virtual long bitpit::PatchKernel::locatePoint ( const std::array< double, 3 > & point ) const

pure virtual

Implemented in bitpit::LineUnstructured, bitpit::PointCloud, bitpit::SurfUnstructured, bitpit::VolCartesian, bitpit::VolOctree, and bitpit::VolUnstructured.

◆ locatePoint() [2/2]

long bitpit::PatchKernel::locatePoint	(	double	x,
		double	y,
		double	z ) const

Locates the cell the contains the point.

If the point is not inside the patch, the function returns the id of the null element.

Parameters

[in]	x	is the x coordinate of the point
[in]	y	is the y coordinate of the point
[in]	z	is the z coordinate of the point

Returns: Returns the id of the cell the contains the point. If the point is not inside the patch, the function returns the id of the null element.

Definition at line 5769 of file patch_kernel.cpp.

◆ mappedItemRenumbering()

template<typename item_t , typename id_t >

void bitpit::PatchKernel::mappedItemRenumbering	(	PiercedVector< item_t, id_t > &	container,
		const std::unordered_map< id_t, id_t > &	renumberMap )

protected

Renumber the ids of the items in the specified container.

Parameters

container	is the container
renumberMap	is the map that will be used for the renumer

Definition at line 225 of file patch_kernel.tpp.

◆ markCellForCoarsening()

void bitpit::PatchKernel::markCellForCoarsening ( long id )

Marks a cell for coarsening.

Parameters

id	is the id of the cell that needs to be coarsened

Examples: POD_example_00002.cpp.

Definition at line 921 of file patch_kernel.cpp.

◆ markCellForRefinement()

void bitpit::PatchKernel::markCellForRefinement ( long id )

Marks a cell for refinement.

Parameters

id	is the id of the cell that needs to be refined

Examples: POD_example_00002.cpp.

Definition at line 907 of file patch_kernel.cpp.

◆ operator=()

PatchKernel & bitpit::PatchKernel::operator= ( PatchKernel && other )

Move assignment operator.

Parameters

other is another patch whose content is copied into this

Definition at line 365 of file patch_kernel.cpp.

◆ partition() [1/6]

std::vector< adaption::Info > bitpit::PatchKernel::partition	(	bool	trackPartitioning,
		bool	squeezeStorage = false )

Partitions the patch among the processes. The partitioning is done using a criteria that tries to balance the load among the processes.

Parameters

trackPartitioning	if set to true, the changes to the patch will be tracked
squeezeStorage	if set to true the vector that store patch information will be squeezed after the synchronization

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the partitioning.

Definition at line 1385 of file patch_kernel_parallel.cpp.

◆ partition() [2/6]

std::vector< adaption::Info > bitpit::PatchKernel::partition	(	const std::unordered_map< long, double > &	cellWeights,
		bool	trackPartitioning,
		bool	squeezeStorage = false )

Partitions the patch among the processes. Each cell will be assigned to a specific process according to the specified input.

Parameters

cellWeights	are the weights of the cells, the weight represents the relative computational cost associated with a specified cell. If no weight is specified for a cell, a weight equal to one is used
trackPartitioning	if set to true, the changes to the patch will be tracked
squeezeStorage	if set to true the vector that store patch information will be squeezed after the synchronization

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the partitioning.

Definition at line 1438 of file patch_kernel_parallel.cpp.

◆ partition() [3/6]

std::vector< adaption::Info > bitpit::PatchKernel::partition	(	const std::unordered_map< long, int > &	cellRanks,
		bool	trackPartitioning,
		bool	squeezeStorage = false )

Partitions the patch among the processes. Each cell will be assigned to a specific process according to the specified input.

Parameters

cellRanks	are the ranks of the cells after the partitioning
trackPartitioning	if set to true, the changes to the patch will be tracked
squeezeStorage	if set to true the vector that store patch information will be squeezed after the synchronization

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the partitioning.

Definition at line 1338 of file patch_kernel_parallel.cpp.

◆ partition() [4/6]

std::vector< adaption::Info > bitpit::PatchKernel::partition	(	MPI_Comm	communicator,
		bool	trackPartitioning,
		bool	squeezeStorage = false,
		std::size_t	haloSize = 1 )

Partitions the patch among the processes. The partitioning is done using a criteria that tries to balance the load among the processes.

Parameters

communicator	is the communicator that will be used
trackPartitioning	if set to true, the changes to the patch will be tracked
squeezeStorage	if set to true the vector that store patch information will be squeezed after the synchronization
haloSize	is the size, expressed in number of layers, of the ghost cells halo

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the partitioning.

Definition at line 1363 of file patch_kernel_parallel.cpp.

◆ partition() [5/6]

std::vector< adaption::Info > bitpit::PatchKernel::partition	(	MPI_Comm	communicator,
		const std::unordered_map< long, double > &	cellWeights,
		bool	trackPartitioning,
		bool	squeezeStorage = false,
		std::size_t	haloSize = 1 )

Partitions the patch among the processes. Each cell will be assigned to a specific process according to the specified input.

Parameters

communicator	is the communicator that will be used
cellWeights	are the weights of the cells, the weight represents the relative computational cost associated with a specified cell. If no weight is specified for a cell, a weight equal to one is used
trackPartitioning	if set to true, the changes to the patch will be tracked
squeezeStorage	if set to true the vector that store patch information will be squeezed after the synchronization
haloSize	is the size, expressed in number of layers, of the ghost cells halo

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the partitioning.

Definition at line 1415 of file patch_kernel_parallel.cpp.

◆ partition() [6/6]

std::vector< adaption::Info > bitpit::PatchKernel::partition	(	MPI_Comm	communicator,
		const std::unordered_map< long, int > &	cellRanks,
		bool	trackPartitioning,
		bool	squeezeStorage = false,
		std::size_t	haloSize = 1 )

Partitions the patch among the processes. Each cell will be assigned to a specific process according to the specified input.

Parameters

communicator	is the communicator that will be used
cellRanks	are the ranks of the cells after the partitioning
trackPartitioning	if set to true, the changes to the patch will be tracked
squeezeStorage	if set to true the vector that store patch information will be squeezed after the synchronization
haloSize	is the size, expressed in number of layers, of the ghost cells halo

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the partitioning.

Definition at line 1317 of file patch_kernel_parallel.cpp.

◆ partitioningAlter()

std::vector< adaption::Info > bitpit::PatchKernel::partitioningAlter	(	bool	trackPartitioning = true,
		bool	squeezeStorage = false )

Alter the patch performing the partitioning.

The actual modification of the patch takes place during this phase. After this phase the adaption is completed and the patch is in its final state. Optionally the patch can track the changes performed to the patch.

Parameters

trackPartitioning	if set to true the function will return the changes done to the patch during the partitioning
squeezeStorage	if set to true patch data structures will be squeezed after the partitioning

Returns: If the partitioning is tracked, returns a vector of adaption::Info with all the changes done to the patch during the partitioning, otherwise an empty vector will be returned.

Definition at line 1619 of file patch_kernel_parallel.cpp.

◆ partitioningCleanup()

void bitpit::PatchKernel::partitioningCleanup ( )

Cleanup patch data structured after the partitioning.

The patch will only clean-up the data structures needed during the partitioning.

Definition at line 1652 of file patch_kernel_parallel.cpp.

◆ partitioningPrepare() [1/6]

std::vector< adaption::Info > bitpit::PatchKernel::partitioningPrepare ( bool trackPartitioning )

Partitions the patch among the processes. The partitioning is done using a criteria that tries to balance the load among the processes.

Parameters

trackPartitioning if set to true, the changes to the patch will be tracked

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the partitioning.

Definition at line 1539 of file patch_kernel_parallel.cpp.

◆ partitioningPrepare() [2/6]

std::vector< adaption::Info > bitpit::PatchKernel::partitioningPrepare	(	const std::unordered_map< long, double > &	cellWeights,
		bool	trackPartitioning )

Partitions the patch among the processes. The partitioning is done using a criteria that tries to balance the load among the processes.

Parameters

cellWeights	are the weights of the cells, the weight represents the relative computational cost associated with a specified cell. If no weight is specified for a cell, a weight equal to one is used
trackPartitioning	if set to true, the changes to the patch will be tracked

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the partitioning.

Definition at line 1582 of file patch_kernel_parallel.cpp.

◆ partitioningPrepare() [3/6]

std::vector< adaption::Info > bitpit::PatchKernel::partitioningPrepare	(	const std::unordered_map< long, int > &	cellRanks,
		bool	trackPartitioning )

Partitions the patch among the processes. Each cell will be assigned to a specific process according to the specified input.

Parameters

cellRanks	are the ranks of the cells after the partitioning
trackPartitioning	if set to true, the changes to the patch will be tracked

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the partitioning.

Definition at line 1481 of file patch_kernel_parallel.cpp.

◆ partitioningPrepare() [4/6]

std::vector< adaption::Info > bitpit::PatchKernel::partitioningPrepare	(	MPI_Comm	communicator,
		bool	trackPartitioning,
		std::size_t	haloSize = 1 )

Partitions the patch among the processes. The partitioning is done using a criteria that tries to balance the load among the processes.

Parameters

communicator	is the communicator that will be used
trackPartitioning	if set to true, the changes to the patch will be tracked
haloSize	is the size, expressed in number of layers, of the ghost cells halo

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the partitioning.

Definition at line 1519 of file patch_kernel_parallel.cpp.

◆ partitioningPrepare() [5/6]

std::vector< adaption::Info > bitpit::PatchKernel::partitioningPrepare	(	MPI_Comm	communicator,
		const std::unordered_map< long, double > &	cellWeights,
		bool	trackPartitioning,
		std::size_t	haloSize = 1 )

Partitions the patch among the processes. The partitioning is done using a criteria that tries to balance the load among the processes.

Parameters

communicator	is the communicator that will be used
cellWeights	are the weights of the cells, the weight represents the relative computational cost associated with a specified cell. If no weight is specified for a cell, a weight equal to one is used
trackPartitioning	if set to true, the changes to the patch will be tracked
haloSize	is the size, expressed in number of layers, of the ghost cells halo

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the partitioning.

Definition at line 1561 of file patch_kernel_parallel.cpp.

◆ partitioningPrepare() [6/6]

std::vector< adaption::Info > bitpit::PatchKernel::partitioningPrepare	(	MPI_Comm	communicator,
		const std::unordered_map< long, int > &	cellRanks,
		bool	trackPartitioning,
		std::size_t	haloSize = 1 )

Partitions the patch among the processes. The partitioning is done using a criteria that tries to balance the load among the processes.

Parameters

communicator	is the communicator that will be used
cellRanks	are the ranks of the cells after the partitioning
trackPartitioning	if set to true, the changes to the patch will be tracked
haloSize	is the size, expressed in number of layers, of the ghost cells halo

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the partitioning.

Definition at line 1462 of file patch_kernel_parallel.cpp.

◆ processCellFaceNeighbours() [1/2]

template<typename Function >

void bitpit::PatchKernel::processCellFaceNeighbours	(	long	seedId,
		int	nLayers,
		Function	function ) const

Applies the specified function to all face neighbours of the provided seed.

Starting from the specified seeds, neighbours will be processed one layer after another, until the requested number of layers has been identified and processed.

Cell processing will be performed using the specified specified functor, that functor should receive in input the id of the cell to be processed and the layer the cell belongs to. The functor should return a boolean value, when the value returned by the function is true, cell processing will stop.

Parameters

seedId	is the seed
nLayers	is the number of neighbour layers that will be processed
function	is a functor that will be applied

Definition at line 497 of file patch_kernel.tpp.

◆ processCellFaceNeighbours() [2/2]

template<typename Selector , typename Function >

void bitpit::PatchKernel::processCellFaceNeighbours	(	long	seedId,
		int	nLayers,
		Selector	selector,
		Function	function ) const

Applies the specified function to the selected face neighbours of the provided seed.

Neighbours are selected using the specified functor. The functor receives the id of a cell and returns true if the cell should be selected, false otherwise. The function will be evaluated only for the selected cells.

Starting from the specified seeds, neighbours will be processed one layer after another, until the requested number of layers has been identified and processed.

Cell processing will be performed using the specified specified functor, that functor should receive in input the id of the cell to be processed and the layer the cell belongs to. The functor should return a boolean value, when the value returned by the function is true, cell processing will stop.

Parameters

seedId	is the seed
nLayers	is the number of neighbour layers that will be processed
function	is a functor that will be applied
selector	is a functor that controls if a neighbour is selected or not

Definition at line 530 of file patch_kernel.tpp.

◆ processCellNeighbours() [1/2]

template<typename Function >

void bitpit::PatchKernel::processCellNeighbours	(	long	seedId,
		int	nLayers,
		Function	function ) const

Applies the specified function to all the neighbours of the provided seed.

Starting from the specified seeds, neighbours will be processed one layer after another, until the requested number of layers has been identified and processed.

Cell processing will be performed using the specified specified functor, that functor should receive in input the id of the cell to be processed and the layer the cell belongs to. The functor should return a boolean value, when the value returned by the function is true, cell processing will stop.

Parameters

seedId	is the seed
nLayers	is the number of neighbour layers that will be processed
function	is a functor that will be applied

Definition at line 332 of file patch_kernel.tpp.

◆ processCellNeighbours() [2/2]

template<typename Selector , typename Function >

void bitpit::PatchKernel::processCellNeighbours	(	long	seedId,
		int	nLayers,
		Selector	selector,
		Function	function ) const

Applies the specified function to the selected neighbours of the provided seed.

Neighbours are selected using the specified functor. The functor receives the id of a cell and returns true if the cell should be selected, false otherwise. The function will be evaluated only for the selected cells.

Starting from the specified seeds, neighbours will be processed one layer after another, until the requested number of layers has been identified and processed.

Cell processing will be performed using the specified specified functor, that functor should receive in input the id of the cell to be processed and the layer the cell belongs to. The functor should return a boolean value, when the value returned by the function is true, cell processing will stop.

Parameters

seedId	is the seed
nLayers	is the number of neighbour layers that will be processed
function	is a functor that will be applied
selector	is a functor that controls if a neighbour is selected or not

Definition at line 366 of file patch_kernel.tpp.

◆ processCellsFaceNeighbours() [1/2]

template<typename Function , typename SeedContainer >

void bitpit::PatchKernel::processCellsFaceNeighbours	(	const SeedContainer &	seedIds,
		int	nLayers,
		Function	function ) const

Applies the specified function to all face neighbours of the provided seeds.

Starting from the specified seeds, neighbours will be processed one layer after another, until the requested number of layers has been identified and processed.

Cell processing will be performed using the specified specified functor, that functor should receive in input the id of the cell to be processed and the layer the cell belongs to. The functor should return a boolean value, when the value returned by the function is true, cell processing will stop.

Parameters

seeds	are the seeds
nLayers	is the number of neighbour layers that will be processed
function	is a functor that will be applied

Definition at line 587 of file patch_kernel.tpp.

◆ processCellsFaceNeighbours() [2/2]

template<typename Selector , typename Function , typename SeedContainer >

void bitpit::PatchKernel::processCellsFaceNeighbours	(	const SeedContainer &	seedIds,
		int	nLayers,
		Selector	selector,
		Function	function ) const

Applies the specified function to the selected face neighbours of the provided seeds.

Neighbours are selected using the specified functor. The functor receives the id of a cell and returns true if the cell should be selected, false otherwise. The function will be evaluated only for the selected cells.

Starting from the specified seeds, neighbours will be processed one layer after another, until the requested number of layers has been identified and processed.

Cell processing will be performed using the specified specified functor, that functor should receive in input the id of the cell to be processed and the layer the cell belongs to. The functor should return a boolean value, when the value returned by the function is true, cell processing will stop.

Parameters

seedIds	are the seeds
nLayers	is the number of neighbour layers that will be processed
function	is a functor that will be applied
selector	is a functor that controls if a neighbour is selected or not

Definition at line 620 of file patch_kernel.tpp.

◆ processCellsNeighbours() [1/2]

template<typename Function , typename SeedContainer >

void bitpit::PatchKernel::processCellsNeighbours	(	const SeedContainer &	seeds,
		int	nLayers,
		Function	function ) const

Applies the specified function to all the neighbours of the provided seeds.

Neighbours are selected using the specified functor. The functor receives the id of a cell and returns true if the cell should be selected, false otherwise. The function will be evaluated only for the selected cells.

Starting from the specified seeds, neighbours will be processed one layer after another, until the requested number of layers has been identified and processed.

Cell processing will be performed using the specified specified functor, that functor should receive in input the id of the cell to be processed and the layer the cell belongs to. The functor should return a boolean value, when the value returned by the function is true, cell processing will stop.

Parameters

seeds	are the seeds
nLayers	is the number of neighbour layers that will be processed
function	is a functor that will be applied

Definition at line 408 of file patch_kernel.tpp.

◆ processCellsNeighbours() [2/2]

template<typename Selector , typename Function , typename SeedContainer >

void bitpit::PatchKernel::processCellsNeighbours	(	const SeedContainer &	seedIds,
		int	nLayers,
		Selector	selector,
		Function	function ) const

Applies the specified function to the selected neighbours of the provided seeds.

Neighbours are selected using the specified functor. The functor receives the id of a cell and returns true if the cell should be selected, false otherwise. The function will be evaluated only for the selected cells.

Starting from the specified seeds, neighbours will be processed one layer after another, until the requested number of layers has been identified and processed.

Cell processing will be performed using the specified specified functor, that functor should receive in input the id of the cell to be processed and the layer the cell belongs to. The functor should return a boolean value, when the value returned by the function is true, cell processing will stop.

Parameters

seeds	are the seeds
nLayers	is the number of neighbour layers that will be processed
function	is a functor that will be applied
selector	is a functor that controls if a neighbour is selected or not

Definition at line 441 of file patch_kernel.tpp.

◆ pruneStaleAdjacencies()

void bitpit::PatchKernel::pruneStaleAdjacencies ( )

protected

Prune stale adjacencies.

The list of cells to process and the list of stale adjacencies are filled during cell deletion.

Definition at line 6004 of file patch_kernel.cpp.

◆ pruneStaleInterfaces()

void bitpit::PatchKernel::pruneStaleInterfaces ( )

protected

Prune stale interfaces.

The list of cells to process and the list of stale interfaces are filled during cell deletion.

Definition at line 6484 of file patch_kernel.cpp.

◆ removePointFromBoundingBox()

void bitpit::PatchKernel::removePointFromBoundingBox ( const std::array< double, 3 > & point )

protected

Update the bounding removing the specified point.

The bounding box is not updated if it's set as frozen, or if it's in a dirty state.

Parameters

point is the point that will be removed from to the bounding box

Definition at line 7288 of file patch_kernel.cpp.

◆ reserveCells()

bool bitpit::PatchKernel::reserveCells ( size_t nCells )

Reserve memory for cell storage.

If the reserve size is smaller than the number of cells currently stored within the patch no action will be taken.

If instead, the reserve size is greater than the current number of cells, reserve might cause re-location of the internal container into memory, potentially invalidating pointers and iterators to cell entities.

Parameters

[in] nCells is size of memory reserve (in terms of number of cells).

Definition at line 1124 of file patch_kernel.cpp.

◆ reserveInterfaces()

bool bitpit::PatchKernel::reserveInterfaces ( size_t nInterfaces )

Reserve memory for interface storage.

If the reserve size is smaller than the number of interfaces currently stored within the patch no action will be taken.

If instead, the reserve size is greater than the current number of interfaces, reserve might cause re-location of the internal container into memory, potentially invalidating pointers and iterators to cell entities.

Parameters

[in] nInterfaces is size of memory reserve (in terms of number of interfaces).

Definition at line 1149 of file patch_kernel.cpp.

◆ reserveVertices()

bool bitpit::PatchKernel::reserveVertices ( size_t nVertices )

Reserve memory for vertex storage.

If the reserve size is smaller than the number of vertices currently stored within the patch no action will be taken.

If instead, the reserve size is greater than the current number of vertices, reserve might cause re-location of the internal container into memory, potentially invalidating pointers and iterators to vertex entities.

Parameters

[in] nVertices size of memory reserve (in terms of number of vertices).

Definition at line 1101 of file patch_kernel.cpp.

◆ reset()

void bitpit::PatchKernel::reset ( )

virtual

Reset the patch.

Reimplemented in bitpit::VolCartesian, and bitpit::VolOctree.

Definition at line 978 of file patch_kernel.cpp.

◆ resetAdjacencies()

void bitpit::PatchKernel::resetAdjacencies ( )

protected

Reset the adjacencies.

This function doesn't change the build strategy, it only resets the existing adjacencies.

Definition at line 5968 of file patch_kernel.cpp.

◆ resetCellAdaptionMarker()

void bitpit::PatchKernel::resetCellAdaptionMarker ( long id )

Resets the adaption marker of the specified cell.

Parameters

id	is the id of the cell

Definition at line 935 of file patch_kernel.cpp.

◆ resetCellAlterationFlags()

void bitpit::PatchKernel::resetCellAlterationFlags	(	long	id,
		AlterationFlags	flags = FLAG_NONE )

protected

Reset the alteration flags of the given cell.

Parameters

id	is the id of the cell
flags	are the flags that will be set

Definition at line 6831 of file patch_kernel.cpp.

◆ resetCells()

void bitpit::PatchKernel::resetCells ( )

virtual

Reset the cells of the patch.

Definition at line 1011 of file patch_kernel.cpp.

◆ resetInterfaceAlterationFlags()

void bitpit::PatchKernel::resetInterfaceAlterationFlags	(	long	id,
		AlterationFlags	flags = FLAG_NONE )

protected

Reset the alteration flags of the given interface.

Parameters

id	is the id of the interface
flags	are the flags that will be set

Definition at line 6910 of file patch_kernel.cpp.

◆ resetInterfaces()

void bitpit::PatchKernel::resetInterfaces ( )

virtual

Reset the interfaces of the patch.

This function doesn't change the build strategy, it only resets the existing interface.

Reimplemented in bitpit::VolCartesian.

Definition at line 1047 of file patch_kernel.cpp.

◆ resetTol()

void bitpit::PatchKernel::resetTol ( )

Resets the tolerance for geometrical checks.

Definition at line 7629 of file patch_kernel.cpp.

◆ resetVertices()

void bitpit::PatchKernel::resetVertices ( )

virtual

Reset the vertices of the patch.

Definition at line 988 of file patch_kernel.cpp.

◆ restore()

void bitpit::PatchKernel::restore	(	std::istream &	stream,
		bool	reregister = false )

Restore the patch from the specified stream.

Parameters

stream	is the stream to read from
reregister	is true the patch will be unregistered and then registered again using the id found in the binary archive

Examples: POD_example_00002.cpp.

Definition at line 8322 of file patch_kernel.cpp.

◆ restoreCell()

PatchKernel::CellIterator bitpit::PatchKernel::restoreCell	(	ElementType	type,
		std::unique_ptr< long[]> &&	connectStorage,
		int	owner,
		int	haloLayer,
		long	id )

protected

Restore the cell with the specified id.

The kernel should already contain the cell, only the contents of the cell will be updated.

Parameters

type	is the type of the cell
connectStorage	is the storage the contains or will contain the connectivity of the element
owner	is the rank that owns the cell that will be restored
haloLayer	is the halo layer the cell belongs to, this argument is only relevant if the cell is a ghost
id	is the id of the cell that will be restored

Returns: An iterator pointing to the restored cell.

Definition at line 1109 of file patch_kernel_parallel.cpp.

◆ restoreCells()

void bitpit::PatchKernel::restoreCells ( std::istream & stream )

protected

Restore the cells from the specified stream.

Parameters

stream is the stream to read from

Definition at line 5028 of file patch_kernel.cpp.

◆ restoreInterface()

PatchKernel::InterfaceIterator bitpit::PatchKernel::restoreInterface	(	ElementType	type,
		std::unique_ptr< long[]> &&	connectStorage,
		long	id )

protected

Resore the interface with the specified id.

The kernel should already contain the interface, only the contents of the interface will be updated.

Parameters

type	is the type of the interface
connectStorage	is the storage the contains or will contain the connectivity of the element
id	is the id of the interface to restore

Returns: An iterator pointing to the restored interface.

Definition at line 4605 of file patch_kernel.cpp.

◆ restoreInterfaces()

void bitpit::PatchKernel::restoreInterfaces ( std::istream & stream )

protected

Restore the interfaces from the specified stream.

Parameters

stream is the stream to read from

Definition at line 5135 of file patch_kernel.cpp.

◆ restoreVertex()

PatchKernel::VertexIterator bitpit::PatchKernel::restoreVertex	(	const std::array< double, 3 > &	coords,
		int	owner,
		long	id )

protected

Restore the vertex with the specified id.

The kernel should already contain the vertex, only the contents of the vertex will be updated.

Parameters

coords	are the coordinates of the vertex
owner	is the rank that owns the vertex that will be restored
id	is the id of the vertex that will be restored

Returns: An iterator pointing to the restored vertex.

Definition at line 470 of file patch_kernel_parallel.cpp.

◆ restoreVertices()

void bitpit::PatchKernel::restoreVertices ( std::istream & stream )

protected

Restore the vertices from the specified stream.

Parameters

stream is the stream to read from

Definition at line 4927 of file patch_kernel.cpp.

◆ rotate() [1/2]

void bitpit::PatchKernel::rotate	(	const std::array< double, 3 > &	n0,
		const std::array< double, 3 > &	n1,
		double	angle )

virtual

Rotates the patch.

Parameters

[in]	n0	is a first point on the rotation axis
[in]	n1	is a second point on the rotation axis
[in]	angle	is the rotation angle, expressed in radiants and positive for counterclockwise rotations

Reimplemented in bitpit::VolCartesian.

Definition at line 7455 of file patch_kernel.cpp.

◆ rotate() [2/2]

void bitpit::PatchKernel::rotate	(	double	n0x,
		double	n0y,
		double	n0z,
		double	n1x,
		double	n1y,
		double	n1z,
		double	angle )

Rotates the patch.

Parameters

[in]	n0x	is the x-component of a first point on the rotation axis
[in]	n0y	is the y-component of a first point on the rotation axis
[in]	n0z	is the z-component of a first point on the rotation axis
[in]	n1x	is the x-component of a second point on the rotation axis
[in]	n1y	is the y-component of a second point on the rotation axis
[in]	n1z	is the z-component of a second point on the rotation axis
[in]	angle	is the rotation angle, expressed in radiants. Counterclockwise rotations are considered positive.

Definition at line 7502 of file patch_kernel.cpp.

◆ scale() [1/6]

void bitpit::PatchKernel::scale ( const std::array< double, 3 > & scaling )

Scales the patch.

The patch is scaled about the lower-left point of the bounding box.

Parameters

[in] scaling is the scaling factor vector

Definition at line 7515 of file patch_kernel.cpp.

◆ scale() [2/6]

void bitpit::PatchKernel::scale	(	const std::array< double, 3 > &	scaling,
		const std::array< double, 3 > &	center )

virtual

Scales the patch.

Parameters

[in]	scaling	is the scaling factor vector
[in]	center	is the center of the scaling

Reimplemented in bitpit::VolCartesian, and bitpit::VolOctree.

Definition at line 7526 of file patch_kernel.cpp.

◆ scale() [3/6]

void bitpit::PatchKernel::scale ( double scaling )

Scales the patch.

The patch is scaled about the lower-left point of the bounding box.

Parameters

[in] scaling is the scaling factor

Definition at line 7549 of file patch_kernel.cpp.

◆ scale() [4/6]

void bitpit::PatchKernel::scale	(	double	scaling,
		const std::array< double, 3 > &	center )

Scales the patch.

Parameters

[in]	scaling	is the scaling factor
[in]	center	is the center of the scaling

Definition at line 7560 of file patch_kernel.cpp.

◆ scale() [5/6]

void bitpit::PatchKernel::scale	(	double	sx,
		double	sy,
		double	sz )

Scales the patch.

Parameters

[in]	sx	scaling factor along x direction
[in]	sy	scaling factor along y direction
[in]	sz	scaling factor along z direction

Definition at line 7572 of file patch_kernel.cpp.

◆ scale() [6/6]

void bitpit::PatchKernel::scale	(	double	sx,
		double	sy,
		double	sz,
		const std::array< double, 3 > &	center )

Scales the patch.

The patch is scaled about the lower-left point of the bounding box.

Parameters

[in]	sx	scaling factor along x direction
[in]	sy	scaling factor along y direction
[in]	sz	scaling factor along z direction
[in]	center	is the center of the scaling

Definition at line 7587 of file patch_kernel.cpp.

◆ setAdaptionStatus()

void bitpit::PatchKernel::setAdaptionStatus ( AdaptionStatus status )

protected

Set the current adaption status.

Parameters

status is the adaption status that will be set

Definition at line 1364 of file patch_kernel.cpp.

◆ setAdjacenciesBuildStrategy()

void bitpit::PatchKernel::setAdjacenciesBuildStrategy ( AdjacenciesBuildStrategy status )

protected

Set the current adjacencies build strategy.

Parameters

status is the adjacencies build strategy that will be set

Definition at line 5820 of file patch_kernel.cpp.

◆ setBoundingBox()

void bitpit::PatchKernel::setBoundingBox	(	const std::array< double, 3 > &	minPoint,
		const std::array< double, 3 > &	maxPoint )

protected

Sets the bounding box.

The box will be set also if it declared frozen.

Parameters

minPoint	the minimum point of the patch
maxPoint	the maximum point of the patch

Definition at line 7116 of file patch_kernel.cpp.

◆ setBoundingBoxDirty()

void bitpit::PatchKernel::setBoundingBoxDirty ( bool dirty )

protected

Sets if the bounding box is dirty.

Parameters

dirty controls if the bounding box will be set as dirty

Definition at line 7211 of file patch_kernel.cpp.

◆ setBoundingBoxFrozen()

void bitpit::PatchKernel::setBoundingBoxFrozen ( bool frozen )

protected

Sets the bounding box as frozen.

When the bounding box is frozen it won't be updated on insertion/deletion of vertices, neither when the function to update the bounding box is called. The only way to change a frozen bounding box is the usage of the functions that explicitly sets the bounding box.

Parameters

frozen controls if the bounding box will be set as frozen

Definition at line 7179 of file patch_kernel.cpp.

◆ setCellAlterationFlags() [1/2]

void bitpit::PatchKernel::setCellAlterationFlags ( AlterationFlags flags )

protected

Set the specified alteration flags for all the cells.

Parameters

flags are the flags that will be set

Definition at line 6841 of file patch_kernel.cpp.

◆ setCellAlterationFlags() [2/2]

void bitpit::PatchKernel::setCellAlterationFlags	(	long	id,
		AlterationFlags	flags )

protected

Set the specified alteration flags for the given cell.

Parameters

id	is the id of the cell
flags	are the flags that will be set

Definition at line 6855 of file patch_kernel.cpp.

void bitpit::PatchKernel::setHaloSize ( std::size_t haloSize )

Sets the size, expressed in number of layers, of the ghost cells halo.

Parameters

haloSize is the size, expressed in number of layers, of the ghost cells halo

Definition at line 285 of file patch_kernel_parallel.cpp.

◆ setId()

void bitpit::PatchKernel::setId ( int id )

Sets the id of the patch.

Parameters

id	the id of the patch

Definition at line 1477 of file patch_kernel.cpp.

◆ setInterfaceAlterationFlags() [1/2]

void bitpit::PatchKernel::setInterfaceAlterationFlags ( AlterationFlags flags )

protected

Set the specified alteration flags for all the interfaces.

Parameters

flags are the flags that will be set

Definition at line 6920 of file patch_kernel.cpp.

◆ setInterfaceAlterationFlags() [2/2]

void bitpit::PatchKernel::setInterfaceAlterationFlags	(	long	id,
		AlterationFlags	flags )

protected

Set the specified alteration flags for the given interface.

Parameters

id	is the id of the interface
flags	are the flags that will be set

Definition at line 6934 of file patch_kernel.cpp.

◆ setInterfaceAutoIndexing()

void bitpit::PatchKernel::setInterfaceAutoIndexing ( bool enabled )

Enables or disables auto-indexing for interfaces.

When auto-indexing is disabled, ids for newly added interfaces has to be manually specified.

Auto-indexing cannot be disabled if interfaces build strategy is set to "automatic".

Parameters

enabled if set to true the auto-indexing will be enabled

Definition at line 4186 of file patch_kernel.cpp.

◆ setInterfacesBuildStrategy()

void bitpit::PatchKernel::setInterfacesBuildStrategy ( InterfacesBuildStrategy status )

protected

Set the current interfaces build strategy.

Parameters

status is the interfaces build strategy that will be set

Definition at line 6305 of file patch_kernel.cpp.

◆ setPartitioningStatus()

void bitpit::PatchKernel::setPartitioningStatus ( PartitioningStatus status )

protected

Set the current partitioning status.

Parameters

status is the partitioning status that will be set

Definition at line 1724 of file patch_kernel_parallel.cpp.

◆ setSpawnStatus()

void bitpit::PatchKernel::setSpawnStatus ( SpawnStatus status )

protected

Set the current spawn status.

Parameters

status is the spawn status that will be set

Definition at line 1320 of file patch_kernel.cpp.

◆ settleAdaptionMarkers()

void bitpit::PatchKernel::settleAdaptionMarkers ( )

virtual

Make the adaption markers set by the user consistent with the internal criteria defined by the patch.

Reimplemented in bitpit::VolOctree.

Definition at line 839 of file patch_kernel.cpp.

◆ setTol()

void bitpit::PatchKernel::setTol ( double tolerance )

Sets the tolerance for the geometrical checks.

Parameters

tolerance is the tolerance that will be used for the geometrical checks

Definition at line 7598 of file patch_kernel.cpp.

◆ setVertexAutoIndexing()

void bitpit::PatchKernel::setVertexAutoIndexing ( bool enabled )

Enables or disables auto-indexing for vertices.

When auto-indexing is disabled, ids for newly added vertices has to be manually specified.

Parameters

enabled if set to true the auto-indexing will be enabled

Definition at line 1568 of file patch_kernel.cpp.

◆ setVTKWriteTarget()

void bitpit::PatchKernel::setVTKWriteTarget ( WriteTarget writeTarget )

Set the VTK write target.

Parameters

writeTarget is the VTK write target.

Definition at line 7829 of file patch_kernel.cpp.

◆ simulateCellUpdate()

void bitpit::PatchKernel::simulateCellUpdate	(	const long	id,
		adaption::Marker	marker,
		std::vector< Cell > *	virtualCells,
		PiercedVector< Vertex, long > *	virtualVertices ) const

virtual

Simulate the adaption of the specified cell.

Parameters

	id	is the id of the cell
	marker	is the adaption marker of the simulated update
[out]	virtualCells	are the virtual cells that would be the outcome of the update
[out]	virtualVertices	are the virtual vertices that would be the outcome of the update

Reimplemented in bitpit::VolOctree.

Definition at line 660 of file patch_kernel.cpp.

◆ sort()

bool bitpit::PatchKernel::sort ( )

Sorts internal storage for cells, vertices and interfaces in ascending id order.

Definition at line 5413 of file patch_kernel.cpp.

◆ sortCells()

bool bitpit::PatchKernel::sortCells ( )

Sorts cell storage in ascending id order.

Internal cells and ghost cells are sordered separately.

Definition at line 5367 of file patch_kernel.cpp.

◆ sortInterfaces()

bool bitpit::PatchKernel::sortInterfaces ( )

Sorts internal interface storage in ascending id order.

Definition at line 5396 of file patch_kernel.cpp.

◆ sortVertices()

bool bitpit::PatchKernel::sortVertices ( )

Sorts internal vertex storage in ascending id order.

Definition at line 5336 of file patch_kernel.cpp.

◆ spawn()

std::vector< adaption::Info > bitpit::PatchKernel::spawn ( bool trackSpawn )

Generates the patch.

Parameters

trackSpawn if set to true the changes to the patch will be tracked

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the spawn.

Definition at line 677 of file patch_kernel.cpp.

◆ squeeze()

bool bitpit::PatchKernel::squeeze ( )

Requests the patch to compact the data structures and reduce its capacity to fit its size.

The request is non-binding, and after the function call the patch can still occupy more memory than it actually needs.

Definition at line 5489 of file patch_kernel.cpp.

◆ squeezeCells()

bool bitpit::PatchKernel::squeezeCells ( )

Requests the patch to compact the cell data structure and reduce its capacity to fit its size.

The request is non-binding, and after the function call the cell data structure can still occupy more memory than it actually needs.

Definition at line 5449 of file patch_kernel.cpp.

◆ squeezeInterfaces()

bool bitpit::PatchKernel::squeezeInterfaces ( )

Requests the patch to compact the interface data structure and reduce its capacity to fit its size.

The request is non-binding, and after the function call the interface data structure can still occupy more memory than it actually needs.

Definition at line 5469 of file patch_kernel.cpp.

◆ squeezeVertices()

bool bitpit::PatchKernel::squeezeVertices ( )

Requests the patch to compact the vertex data structure and reduce its capacity to fit its size.

The request is non-binding, and after the function call the vertex data structure can still occupy more memory than it actually needs.

Definition at line 5429 of file patch_kernel.cpp.

◆ testAlterationFlags()

bool bitpit::PatchKernel::testAlterationFlags	(	AlterationFlags	availableFlags,
		AlterationFlags	requestedFlags ) const

protected

Test if the requested alteration flags are among the available flags.

Parameters

availableFlags	are the available flags
requestedFlags	are the requested flags

Returns: Return true if the flags are set, false otherwise.

Definition at line 6985 of file patch_kernel.cpp.

◆ testCellAlterationFlags()

bool bitpit::PatchKernel::testCellAlterationFlags	(	long	id,
		AlterationFlags	flags ) const

protected

Test the specified alteration flags for the given cell.

Parameters

id	is the id of the cell
flags	are the flags that will be tested

Returns: Return true if the flags are set, false otherwise.

Definition at line 6809 of file patch_kernel.cpp.

◆ testInterfaceAlterationFlags()

bool bitpit::PatchKernel::testInterfaceAlterationFlags	(	long	id,
		AlterationFlags	flags ) const

protected

Test the specified alteration flags for the given interface.

Parameters

id	is the id of the interface
flags	are the flags that will be tested

Returns: Return true if the flags are set, false otherwise.

Definition at line 6888 of file patch_kernel.cpp.

◆ translate() [1/2]

void bitpit::PatchKernel::translate ( const std::array< double, 3 > & translation )

virtual

Translates the patch.

Parameters

[in] translation is the translation vector

Reimplemented in bitpit::VolCartesian, and bitpit::VolOctree.

Definition at line 7421 of file patch_kernel.cpp.

◆ translate() [2/2]

void bitpit::PatchKernel::translate	(	double	sx,
		double	sy,
		double	sz )

Translates the patch.

Parameters

[in]	sx	translation along x direction
[in]	sy	translation along y direction
[in]	sz	translation along z direction

Definition at line 7442 of file patch_kernel.cpp.

◆ unsetCellAlterationFlags() [1/2]

void bitpit::PatchKernel::unsetCellAlterationFlags ( AlterationFlags flags )

protected

Unset the specified alteration flags for all the altered cells.

Parameters

flags are the flags that will be unset

Definition at line 6865 of file patch_kernel.cpp.

◆ unsetCellAlterationFlags() [2/2]

void bitpit::PatchKernel::unsetCellAlterationFlags	(	long	id,
		AlterationFlags	flags )

protected

Unset the specified alteration flags for the given cell.

Parameters

id	is the id of the cell
flags	are the flags that will be unset

Definition at line 6876 of file patch_kernel.cpp.

◆ unsetInterfaceAlterationFlags() [1/2]

void bitpit::PatchKernel::unsetInterfaceAlterationFlags ( AlterationFlags flags )

protected

Unset the specified alteration flags for all the altered interfaces.

Parameters

flags are the flags that will be unset

Definition at line 6944 of file patch_kernel.cpp.

◆ unsetInterfaceAlterationFlags() [2/2]

void bitpit::PatchKernel::unsetInterfaceAlterationFlags	(	long	id,
		AlterationFlags	flags )

protected

Unset the specified alteration flags for the given interface.

Parameters

id	is the id of the interface
flags	are the flags that will be unset

Definition at line 6955 of file patch_kernel.cpp.

◆ update()

std::vector< adaption::Info > bitpit::PatchKernel::update	(	bool	trackAdaption = true,
		bool	squeezeStorage = false )

Commit all pending changes.

Parameters

trackAdaption	if set to true the changes to the patch will be tracked
squeezeStorage	if set to true patch data structures will be squeezed after the update

Returns: Returns a vector of adaption::Info that can be used to track the changes done during the update.

Examples: volcartesian_example_00001.cpp.

Definition at line 620 of file patch_kernel.cpp.

◆ updateAdjacencies()

void bitpit::PatchKernel::updateAdjacencies ( bool forcedUpdated = false )

Update the adjacencies of the patch.

Parameters

forcedUpdated if set to true, bounding box information will be updated also if they are not marked as dirty

Definition at line 5910 of file patch_kernel.cpp.

◆ updateBoundingBox()

void bitpit::PatchKernel::updateBoundingBox ( bool forcedUpdated = false )

Updates the stored patch bounding box.

Parameters

forcedUpdated if set to true, bounding box information will be updated also if they are not marked as dirty

Definition at line 7222 of file patch_kernel.cpp.

◆ updateFirstGhostCellId()

void bitpit::PatchKernel::updateFirstGhostCellId ( )

protected

Updates the id of the first ghost cell.

Definition at line 1290 of file patch_kernel_parallel.cpp.

◆ updateFirstGhostVertexId()

void bitpit::PatchKernel::updateFirstGhostVertexId ( )

protected

Updates the id of the first ghost vertex.

Definition at line 598 of file patch_kernel_parallel.cpp.

◆ updateInterfaces()

void bitpit::PatchKernel::updateInterfaces ( bool forcedUpdated = false )

Update the interfaces of the patch.

Parameters

forcedUpdated if set to true, bounding box information will be updated also if they are not marked as dirty

Definition at line 6411 of file patch_kernel.cpp.

◆ updateLastInternalCellId()

void bitpit::PatchKernel::updateLastInternalCellId ( )

protected

Updates the id of the last internal cell.

Definition at line 3364 of file patch_kernel.cpp.

◆ updateLastInternalVertexId()

void bitpit::PatchKernel::updateLastInternalVertexId ( )

protected

Updates the id of the last internal vertex.

Definition at line 2403 of file patch_kernel.cpp.

◆ vertexBegin()

PatchKernel::VertexIterator bitpit::PatchKernel::vertexBegin ( )

Returns iterator pointing to the first vertex.

Returns: An iterator to the first vertex.

Definition at line 1743 of file patch_kernel.cpp.

◆ vertexConstBegin()

PatchKernel::VertexConstIterator bitpit::PatchKernel::vertexConstBegin ( ) const

Returns a constant iterator pointing to the first vertex.

Returns: A constant iterator to the first vertex.

Definition at line 1797 of file patch_kernel.cpp.

◆ vertexConstEnd()

PatchKernel::VertexConstIterator bitpit::PatchKernel::vertexConstEnd ( ) const

Returns a constant iterator pointing to last vertex.

Returns: A constant iterator to the last vertex.

Definition at line 1807 of file patch_kernel.cpp.

◆ vertexEnd()

PatchKernel::VertexIterator bitpit::PatchKernel::vertexEnd ( )

Returns iterator pointing to last vertex.

Returns: An iterator to the last vertex.

Definition at line 1753 of file patch_kernel.cpp.

◆ write() [1/4]

void bitpit::PatchKernel::write	(	const std::string &	filename,
		VTKWriteMode	mode,
		double	time )

Writes the patch to filename specified in input.

Parameters

filename	the filename where the patch will be written to
mode	is the VTK file mode that will be used for writing the patch
time	is the current time

Definition at line 1182 of file patch_kernel.cpp.

◆ write() [2/4]

void bitpit::PatchKernel::write	(	const std::string &	filename,
		VTKWriteMode	mode = VTKWriteMode::DEFAULT )

Writes the patch to filename specified in input.

Parameters

filename	the filename where the patch will be written to
mode	is the VTK file mode that will be used for writing the patch

Definition at line 1166 of file patch_kernel.cpp.

◆ write() [3/4]

void bitpit::PatchKernel::write	(	VTKWriteMode	mode,
		double	time )

Writes the patch a filename with the same name of the patch.

Parameters

mode	is the VTK file mode that will be used for writing the patch
time	is the current time

Definition at line 1211 of file patch_kernel.cpp.

◆ write() [4/4]

void bitpit::PatchKernel::write ( VTKWriteMode mode = VTKWriteMode::DEFAULT )

Writes the patch to filename specified in input.

Parameters

mode	is the VTK file mode that will be used for writing the patch

Examples: volcartesian_example_00001.cpp.

Definition at line 1196 of file patch_kernel.cpp.

Friends And Related Symbol Documentation

◆ PatchGlobalInfo

friend class PatchGlobalInfo

friend

Definition at line 59 of file patch_kernel.hpp.

◆ PatchInfo

friend class PatchInfo

friend

Definition at line 56 of file patch_kernel.hpp.

◆ PatchManager

friend class PatchManager

friend

Definition at line 61 of file patch_kernel.hpp.

◆ PatchNumberingInfo

friend class PatchNumberingInfo

friend

Definition at line 57 of file patch_kernel.hpp.

Member Data Documentation

◆ DEFAULT_PARTITIONING_WEIGTH

const double bitpit::PatchKernel::DEFAULT_PARTITIONING_WEIGTH = 1.

PiercedVector<Vertex> bitpit::PatchKernel::m_vertices

protected

Definition at line 795 of file patch_kernel.hpp.

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

src/patchkernel/patch_kernel.hpp
src/patchkernel/patch_kernel.cpp
src/patchkernel/patch_kernel.tpp
src/patchkernel/patch_kernel_parallel.cpp
src/patchkernel/patch_kernel_parallel.tpp

Classes

Public Types

Public Member Functions

Static Public Member Functions

Protected Types

Protected Member Functions

Protected Attributes

Static Protected Attributes

Friends

Detailed Description

Member Typedef Documentation

◆ AlterationFlags

◆ AlterationFlagsStorage

◆ CellConstIterator

◆ CellConstRange

◆ CellIterator

◆ CellRange

◆ InterfaceConstIterator

◆ InterfaceConstRange

◆ InterfaceIterator

◆ InterfaceRange

◆ VertexConstIterator

◆ VertexConstRange

◆ VertexIterator

◆ VertexRange

Member Enumeration Documentation

◆ AdaptionStatus

◆ AdjacenciesBuildStrategy

◆ InterfacesBuildStrategy

◆ PartitioningStatus

◆ SpawnStatus

◆ WriteTarget

Constructor & Destructor Documentation

◆ PatchKernel() [1/5]

◆ ~PatchKernel()

◆ PatchKernel() [2/5]

◆ PatchKernel() [3/5]

◆ PatchKernel() [4/5]

◆ PatchKernel() [5/5]

Member Function Documentation

◆ _adaptionAlter()

◆ _adaptionCleanup()

◆ _adaptionPrepare()

◆ _dump()

◆ _enableCellBalancing()

◆ _findCellEdgeNeighs()

◆ _findCellFaceNeighs()

◆ _findCellNeighs()

◆ _findCellVertexNeighs()

◆ _findGhostCellExchangeSources()

◆ _getCellAdaptionMarker()

◆ _getCellNativeIndex()

◆ _getDumpVersion()

◆ _getMaxHaloSize()

◆ _markCellForCoarsening()

◆ _markCellForRefinement()

◆ _partitioningAlter()

◆ _partitioningCleanup()

◆ _partitioningPrepare() [1/2]

◆ _partitioningPrepare() [2/2]

◆ _resetAdjacencies()

◆ _resetCellAdaptionMarker()

◆ _resetInterfaces()

◆ _resetTol()

◆ _restore()

◆ _setHaloSize()

◆ _setTol()

◆ _spawn()

◆ _updateAdjacencies()

◆ _updateInterfaces()

◆ _writeFinalize()

◆ _writePrepare()

◆ adaption()

◆ adaptionAlter()

◆ adaptionCleanup()

◆ adaptionPrepare()

◆ addCell() [1/15]

◆ addCell() [2/15]

◆ addCell() [3/15]

◆ addCell() [4/15]