An IJK Grid parametric representation define the cell corner positions by means of parameters along the pillars of the grid. Adjacent cell corner are supposed to be located the same so they are not repeated unless you define split lines or split nodes. More...

#include <IjkGridParametricRepresentation.h>

Inheritance diagram for resqml2::IjkGridParametricRepresentation:

Public Member Functions
virtual	~IjkGridParametricRepresentation ()

void	getXyzPointsOfKInterfaceSequence (unsigned int kInterfaceStart, unsigned int kInterfaceEnd, double *xyzPoints) final
	Gets all the XYZ points of a particular sequence of K interfaces. XYZ points are given in the local CRS. More...

void	getXyzPointsOfBlock (double *xyzPoints) final
	Gets all the XYZ points of the current block. XYZ points are given in the local CRS. Block information must be loaded. More...

virtual unsigned int	getControlPointMaxCountPerPillar () const =0

void	getControlPoints (double *controlPoints, bool reverseIAxis=false, bool reverseJAxis=false, bool reverseKAxis=false) const

virtual bool	hasControlPointParameters () const =0

void	getControlPointParameters (double *controlPointParameters, bool reverseIAxis=false, bool reverseJAxis=false, bool reverseKAxis=false) const

virtual bool	isParametricLineKindConstant () const =0

virtual short	getConstantParametricLineKind () const =0

void	getParametricLineKind (short *pillarKind, bool reverseIAxis=false, bool reverseJAxis=false) const

void	getParametersOfNodes (double *parameters, bool reverseIAxis=false, bool reverseJAxis=false, bool reverseKAxis=false) const

void	getParametersOfNodesOfKInterfaceSequence (unsigned int kInterfaceStart, unsigned int kInterfaceEnd, double *parameters)

void	setGeometryAsParametricNonSplittedPillarNodes (gsoap_resqml2_0_1::resqml20__PillarShape mostComplexPillarGeometry, bool isRightHanded, double const parameters, double const controlPoints, double const controlPointParameters, unsigned int controlPointMaxCountPerPillar, short const pillarKind, eml2::AbstractHdfProxy proxy=nullptr, resqml2::AbstractLocal3dCrs localCrs=nullptr)

void	setGeometryAsParametricNonSplittedPillarNodesUsingExistingDatasets (gsoap_resqml2_0_1::resqml20__PillarShape mostComplexPillarGeometry, gsoap_resqml2_0_1::resqml20__KDirection kDirectionKind, bool isRightHanded, const std::string &parameters, const std::string &controlPoints, const std::string &controlPointParameters, unsigned int controlPointMaxCountPerPillar, const std::string &pillarKind, const std::string &definedPillars, eml2::AbstractHdfProxy proxy=nullptr, resqml2::AbstractLocal3dCrs localCrs=nullptr)

virtual void	setGeometryAsParametricSplittedPillarNodes (gsoap_resqml2_0_1::resqml20__PillarShape mostComplexPillarGeometry, bool isRightHanded, double const parameters, double const controlPoints, double const controlPointParameters, unsigned int controlPointMaxCountPerPillar, short const pillarKind, eml2::AbstractHdfProxy proxy, unsigned long splitCoordinateLineCount, unsigned int const pillarOfCoordinateLine, unsigned int const splitCoordinateLineColumnCumulativeCount, unsigned int const splitCoordinateLineColumns, resqml2::AbstractLocal3dCrs *localCrs=nullptr)=0

virtual void	setGeometryAsParametricSplittedPillarNodesUsingExistingDatasets (gsoap_resqml2_0_1::resqml20__PillarShape mostComplexPillarGeometry, gsoap_resqml2_0_1::resqml20__KDirection kDirectionKind, bool isRightHanded, const std::string &parameters, const std::string &controlPoints, const std::string &controlPointParameters, unsigned int controlPointMaxCountPerPillar, const std::string &pillarKind, const std::string &definedPillars, eml2::AbstractHdfProxy proxy, unsigned long splitCoordinateLineCount, const std::string &pillarOfCoordinateLine, const std::string &splitCoordinateLineColumnCumulativeCount, const std::string &splitCoordinateLineColumns, resqml2::AbstractLocal3dCrs localCrs=nullptr)=0

void	setGeometryAsParametricSplittedPillarNodes (bool isRightHanded, double const parameters, double const controlPoints, double const controlPointParameters, unsigned int controlPointCountPerPillar, short pillarKind, eml2::AbstractHdfProxy proxy, unsigned long splitCoordinateLineCount, unsigned int const pillarOfCoordinateLine, unsigned int const splitCoordinateLineColumnCumulativeCount, unsigned int const splitCoordinateLineColumns, resqml2::AbstractLocal3dCrs localCrs=nullptr)

virtual void	setGeometryAsParametricSplittedPillarNodesUsingExistingDatasets (gsoap_resqml2_0_1::resqml20__KDirection kDirectionKind, bool isRightHanded, const std::string &parameters, const std::string &controlPoints, const std::string &controlPointParameters, unsigned int controlPointCountPerPillar, short pillarKind, eml2::AbstractHdfProxy proxy, unsigned long splitCoordinateLineCount, const std::string &pillarOfCoordinateLine, const std::string &splitCoordinateLineColumnCumulativeCount, const std::string &splitCoordinateLineColumns, resqml2::AbstractLocal3dCrs localCrs=nullptr)=0

bool	isNodeGeometryCompressed () const final

geometryKind	getGeometryKind () const final

Public Member Functions inherited from resqml2::AbstractIjkGridRepresentation
	AbstractIjkGridRepresentation (common::DataObjectRepository repo, const std::string &guid, const std::string &title, unsigned int iCount, unsigned int jCount, unsigned int kCount, bool kGaps=nullptr, eml2::AbstractHdfProxy *proxy=nullptr)

	AbstractIjkGridRepresentation (resqml2::AbstractFeatureInterpretation interp, const std::string &guid, const std::string &title, unsigned int iCount, unsigned int jCount, unsigned int kCount, bool kGaps=nullptr, eml2::AbstractHdfProxy *proxy=nullptr)

	AbstractIjkGridRepresentation (gsoap_resqml2_0_1::eml20__DataObjectReference *partialObject, bool withTruncatedPillars=false)

virtual	~AbstractIjkGridRepresentation ()

unsigned int	getICellCount () const

void	setICellCount (unsigned int iCount)

unsigned int	getJCellCount () const

void	setJCellCount (unsigned int jCount)
	Sets the count of cells in the J direction. More...

uint64_t	getCellCount () const final

unsigned int	getColumnCount () const

unsigned int	getPillarCount () const

unsigned int	getKGapsCount () const

void	getKGaps (bool *kGaps) const

unsigned int	getFaceCount () const

unsigned int	getIPillarFromGlobalIndex (unsigned int globalIndex) const

unsigned int	getJPillarFromGlobalIndex (unsigned int globalIndex) const

unsigned int	getGlobalIndexPillarFromIjIndex (unsigned int iPillar, unsigned int jPillar) const

unsigned int	getIColumnFromGlobalIndex (unsigned int globalIndex) const

unsigned int	getJColumnFromGlobalIndex (unsigned int globalIndex) const

unsigned int	getGlobalIndexColumnFromIjIndex (unsigned int iColumn, unsigned int jColumn) const

unsigned int	getGlobalIndexCellFromIjkIndex (unsigned int iCell, unsigned int jCell, unsigned int kCell) const

bool	isRightHanded () const

void	getPillarsOfSplitCoordinateLines (unsigned int *pillarIndices, bool reverseIAxis=false, bool reverseJAxis=false) const

void	getColumnsOfSplitCoordinateLines (unsigned int *columnIndices, bool reverseIAxis=false, bool reverseJAxis=false) const

void	getColumnCountOfSplitCoordinateLines (unsigned int *columnIndexCountPerSplitCoordinateLine) const

unsigned long	getSplitCoordinateLineCount () const

unsigned long	getBlockSplitCoordinateLineCount () const

uint64_t	getSplitNodeCount () const

void	getPillarGeometryIsDefined (bool *pillarGeometryIsDefined, bool reverseIAxis=false, bool reverseJAxis=false) const

bool	hasEnabledCellInformation () const

void	getEnabledCells (bool *enabledCells, bool reverseIAxis=false, bool reverseJAxis=false, bool reverseKAxis=false) const

void	setEnabledCells (unsigned char enabledCells, eml2::AbstractHdfProxy proxy=nullptr)

void	loadSplitInformation ()

void	loadBlockInformation (unsigned int iInterfaceStart, unsigned int iInterfaceEnd, unsigned int jInterfaceStart, unsigned int jInterfaceEnd, unsigned int kInterfaceStart, unsigned int kInterfaceEnd)

void	unloadSplitInformation ()

bool	isColumnEdgeSplitted (unsigned int iColumn, unsigned int jColumn, unsigned int edge) const
	Checks either a given column edge is splitted or not. This method requires that you have already loaded the split information. More...

uint64_t	getXyzPointIndexFromCellCorner (unsigned int iCell, unsigned int jCell, unsigned int kCell, unsigned int corner) const
	Gets the XYZ point index in the HDF dataset from the corner of a cell. This method requires that you have already loaded the split information. More...

void	getXyzPointOfBlockFromCellCorner (unsigned int iCell, unsigned int jCell, unsigned int kCell, unsigned int corner, const double *xyzPoints, double &x, double &y, double &z) const
	Gets the x, y and z values of the corner of a cell of a given block. This method requires that you have already both loaded the block information and get the geometry of the block thanks to getXyzPointsOfBlock(). More...

uint64_t	getXyzPointCountOfKInterface () const

uint64_t	getXyzPointCountOfBlock () const

void	getXyzPointsOfKInterface (unsigned int kInterface, double *xyzPoints)

gsoap_resqml2_0_1::resqml20__KDirection	getKDirection () const override

virtual common::DataObjectReference	getHdfProxyDor () const override
	Gets the data object reference of the HDF proxy which is used for storing the numerical values of this representation (i.e. its geometry). More...

virtual uint64_t	getXyzPointCountOfPatch (unsigned int patchIndex) const override

virtual void	getXyzPointsOfPatch (unsigned int patchIndex, double *xyzPoints) const override
	Gets all the xyz points of a particular patch of this representation. xyz points are given in the local CRS. More...

std::string	getXmlTag () const final

unsigned int	getPatchCount () const override

virtual std::string	getXmlNamespace () const override

Public Member Functions inherited from resqml2::AbstractColumnLayerGridRepresentation
virtual	~AbstractColumnLayerGridRepresentation ()=default

unsigned int	getKCellCount () const

void	setKCellCount (unsigned int kCount)

void	setIntervalAssociationWithStratigraphicOrganizationInterpretation (uint64_t stratiUnitIndices, uint64_t nullValue, resqml2::AbstractStratigraphicOrganizationInterpretation stratiOrgInterp, eml2::AbstractHdfProxy *hdfProxy=nullptr)

common::DataObjectReference	getStratigraphicOrganizationInterpretationDor () const final

bool	hasIntervalStratigraphicUnitIndices () const

uint64_t	getIntervalStratigraphicUnitIndices (uint64_t *stratiUnitIndices)

gsoap_resqml2_0_1::resqml20__PillarShape	getMostComplexPillarGeometry () const

Public Member Functions inherited from resqml2::AbstractGridRepresentation
virtual	~AbstractGridRepresentation ()=default

std::vector< class GridConnectionSetRepresentation * >	getGridConnectionSetRepresentationSet () const

unsigned int	getGridConnectionSetRepresentationCount () const

class GridConnectionSetRepresentation *	getGridConnectionSetRepresentation (unsigned int index) const

AbstractGridRepresentation *	getParentGrid () const

common::DataObjectReference	getParentGridDor () const

std::vector< resqml2::AbstractGridRepresentation * >	getChildGridSet () const

unsigned int	getChildGridCount () const

AbstractGridRepresentation *	getChildGrid (unsigned int index) const

void	setParentWindow (uint64_t cellIndices, uint64_t cellIndexCount, class UnstructuredGridRepresentation parentGrid, eml2::AbstractHdfProxy *proxy=nullptr)

void	setParentWindow (unsigned int columnIndices, unsigned int columnIndexCount, unsigned int kLayerIndexRegridStart, unsigned int childCellCountPerInterval, unsigned int parentCellCountPerInterval, unsigned int intervalCount, class AbstractColumnLayerGridRepresentation parentGrid, eml2::AbstractHdfProxy proxy=nullptr, double childCellWeights=nullptr)

void	setParentWindow (unsigned int iCellIndexRegridStart, unsigned int childCellCountPerIInterval, unsigned int parentCellCountPerIInterval, unsigned int iIntervalCount, unsigned int jCellIndexRegridStart, unsigned int childCellCountPerJInterval, unsigned int parentCellCountPerJInterval, unsigned int jIntervalCount, unsigned int kCellIndexRegridStart, unsigned int childCellCountPerKInterval, unsigned int parentCellCountPerKInterval, unsigned int kIntervalCount, class AbstractIjkGridRepresentation parentGrid, eml2::AbstractHdfProxy proxy=nullptr, double iChildCellWeights=nullptr, double jChildCellWeights=nullptr, double *kChildCellWeights=nullptr)

void	setParentWindow (unsigned int iCellIndexRegridStart, unsigned int constantChildCellCountPerIInterval, unsigned int constantParentCellCountPerIInterval, unsigned int iIntervalCount, unsigned int jCellIndexRegridStart, unsigned int constantChildCellCountPerJInterval, unsigned int constantParentCellCountPerJInterval, unsigned int jIntervalCount, unsigned int kCellIndexRegridStart, unsigned int constantChildCellCountPerKInterval, unsigned int constantParentCellCountPerKInterval, unsigned int kIntervalCount, class AbstractIjkGridRepresentation parentGrid, eml2::AbstractHdfProxy proxy=nullptr, double iChildCellWeights=nullptr, double jChildCellWeights=nullptr, double *kChildCellWeights=nullptr)
	Indicates that this grid takes place into another IJK parent grid. This method assumes that the count of cells per regrid interval is constant in both child and parent grids. More...

void	setParentWindow (unsigned int iCellIndexRegridStart, unsigned int iChildCellCount, unsigned int iParentCellCount, unsigned int jCellIndexRegridStart, unsigned int jChildCellCount, unsigned int jParentCellCount, unsigned int kCellIndexRegridStart, unsigned int kChildCellCount, unsigned int kParentCellCount, class AbstractIjkGridRepresentation parentGrid, eml2::AbstractHdfProxy proxy=nullptr, double iChildCellWeights=nullptr, double jChildCellWeights=nullptr, double *kChildCellWeights=nullptr)

void	setForcedNonRegridedParentCell (uint64_t *cellIndices, uint64_t cellIndexCount)

void	setCellOverlap (uint64_t parentChildCellPairCount, uint64_t parentChildCellPair, const std::string &volumeUom, double overlapVolumes=nullptr)

int64_t	getParentCellIndexCount () const

void	getParentCellIndices (uint64_t *parentCellIndices) const

int64_t	getParentColumnIndexCount () const

void	getParentColumnIndices (uint64_t *parentColumnIndices) const

uint64_t	getRegridStartIndexOnParentGrid (char dimension) const

uint64_t	getRegridIntervalCount (char dimension) const

bool	isRegridCellCountPerIntervalConstant (char dimension, bool childVsParentCellCount) const

uint64_t	getRegridConstantCellCountPerInterval (char dimension, bool childVsParentCellCount) const

void	getRegridCellCountPerInterval (char dimension, uint64_t *childCellCountPerInterval, bool childVsParentCellCount) const

bool	hasRegridChildCellWeights (char dimension) const

void	getRegridChildCellWeights (char dimension, double *childCellWeights) const

bool	hasForcedNonRegridedParentCell () const

void	setCellAssociationWithStratigraphicOrganizationInterpretation (uint64_t stratiUnitIndices, uint64_t nullValue, class AbstractStratigraphicOrganizationInterpretation stratiOrgInterp)

class AbstractStratigraphicOrganizationInterpretation *	getStratigraphicOrganizationInterpretation () const

bool	hasCellStratigraphicUnitIndices () const

uint64_t	getCellStratigraphicUnitIndices (uint64_t *stratiUnitIndices)

void	setCellAssociationWithRockFluidOrganizationInterpretation (uint64_t rockFluidUnitIndices, uint64_t nullValue, class RockFluidOrganizationInterpretation rockFluidOrgInterp)

class RockFluidOrganizationInterpretation *	getRockFluidOrganizationInterpretation () const

virtual common::DataObjectReference	getRockFluidOrganizationInterpretationDor () const

bool	hasCellFluidPhaseUnitIndices () const

uint64_t	getCellFluidPhaseUnitIndices (uint64_t *rockfluidUnitIndices)

bool	isTruncated () const

uint64_t	getTruncatedFaceCount () const

void	getNodeIndicesOfTruncatedFaces (uint64_t *nodeIndices) const

void	getCumulativeNodeCountPerTruncatedFace (uint64_t *nodeCountPerFace) const

void	getNodeCountPerTruncatedFace (uint64_t *nodeCountPerFace) const

uint64_t	getTruncatedCellCount () const

void	getTruncatedCellIndices (uint64_t *cellIndices) const

void	getTruncatedFaceIndicesOfTruncatedCells (uint64_t *faceIndices) const

void	getCumulativeTruncatedFaceCountPerTruncatedCell (uint64_t *cumulativeFaceCountPerCell) const

void	getTruncatedFaceCountPerTruncatedCell (uint64_t *faceCountPerCell) const

void	getNonTruncatedFaceIndicesOfTruncatedCells (uint64_t *faceIndices) const

void	getCumulativeNonTruncatedFaceCountPerTruncatedCell (uint64_t *cumulativeFaceCountPerCell) const

void	getNonTruncatedFaceCountPerTruncatedCell (uint64_t *faceCountPerCell) const

void	getTruncatedFaceIsRightHanded (unsigned char *cellFaceIsRightHanded) const

void	loadTargetRelationships ()

Public Member Functions inherited from resqml2::AbstractRepresentation
virtual	~AbstractRepresentation ()=default

class AbstractLocal3dCrs *	getLocalCrs (unsigned int patchIndex) const

virtual common::DataObjectReference	getLocalCrsDor (unsigned int patchIndex) const

std::vector< class AbstractProperty * >	getPropertySet () const

void	setInterpretation (class AbstractFeatureInterpretation *interp)

class AbstractFeatureInterpretation *	getInterpretation () const

common::DataObjectReference	getInterpretationDor () const

uint64_t	getXyzPointCountOfAllPatches () const

void	getXyzPointsOfPatchInGlobalCrs (unsigned int patchIndex, double *xyzPoints) const
	Gets all the xyz points of a particular patch of this representation. xyz points are given in the global CRS. More...

void	getXyzPointsOfAllPatches (double *xyzPoints) const
	Gets all the xyz points of all patches of this representation. xyz points are given in the local CRS. More...

bool	isInSingleLocalCrs () const

bool	isInSingleGlobalCrs () const

void	getXyzPointsOfAllPatchesInGlobalCrs (double *xyzPoints) const

AbstractRepresentation *	getSeismicSupportOfPatch (const unsigned int &patchIndex) const

std::set< AbstractRepresentation * >	getAllSeismicSupport () const

void	pushBackIntoRepresentationSet (class RepresentationSetRepresentation *repSet)

void	addSeismic3dCoordinatesToPatch (unsigned int patchIndex, double inlines, double crosslines, unsigned int pointCount, resqml2::AbstractRepresentation seismicSupport, eml2::AbstractHdfProxy proxy)

void	addSeismic3dCoordinatesToPatch (unsigned int patchIndex, double startInline, double incrInline, unsigned int countInline, double startCrossline, double incrCrossline, unsigned int countCrossline, resqml2::AbstractRepresentation *seismicSupport)

void	addSeismic2dCoordinatesToPatch (unsigned int patchIndex, double lineAbscissa, resqml2::AbstractRepresentation seismicSupport, eml2::AbstractHdfProxy *proxy)

void	getSeismicLineAbscissaOfPointsOfPatch (unsigned int patchIndex, double *values) const

void	getInlinesOfPointsOfPatch (unsigned int patchIndex, double *values) const

void	getCrosslinesOfPointsOfPatch (unsigned int patchIndex, double *values) const

Public Member Functions inherited from common::AbstractObject
bool	isPartial () const

virtual bool	isTopLevelElement () const

std::string	getUuid () const

std::string	getTitle () const

std::string	getEditor () const

time_t	getCreation () const

tm	getCreationAsTimeStructure () const

std::string	getOriginator () const

std::string	getDescription () const

time_t	getLastUpdate () const

tm	getLastUpdateAsTimeStructure () const

std::string	getFormat () const

std::string	getDescriptiveKeywords () const

std::string	getVersion () const

void	setTitle (const std::string &title)

void	setEditor (const std::string &editor)

void	setCreation (time_t creation)

void	setCreation (const tm &creation)

void	setOriginator (const std::string &originator)

void	setDescription (const std::string &description)

void	setLastUpdate (time_t lastUpdate)

void	setLastUpdate (const tm &lastUpdate)

void	setDescriptiveKeywords (const std::string &descriptiveKeywords)

void	setVersion (const std::string &version)

void	setMetadata (const std::string &title, const std::string &editor, time_t creation, const std::string &originator, const std::string &description, time_t lastUpdate, const std::string &descriptiveKeywords)

void	serializeIntoStream (std::ostream *stream)

void	setGsoapProxy (gsoap_resqml2_0_1::eml20__AbstractCitedDataObject *gsoapProxy)

void	setGsoapProxy (gsoap_eml2_1::eml21__AbstractObject *gsoapProxy)

gsoap_resqml2_0_1::eml20__AbstractCitedDataObject *	getEml20GsoapProxy () const

gsoap_eml2_1::eml21__AbstractObject *	getEml21GsoapProxy () const

gsoap_eml2_2::eml22__AbstractObject *	getEml22GsoapProxy () const

void	setGsoapProxy (gsoap_eml2_2::eml22__AbstractObject *gsoapProxy)

gsoap_eml2_3::eml23__AbstractObject *	getEml23GsoapProxy () const

void	setGsoapProxy (gsoap_eml2_3::eml23__AbstractObject *gsoapProxy)

soap *	getGsoapContext () const

int	getGsoapType () const

gsoap_resqml2_0_1::eml20__DataObjectReference *	newResqmlReference () const

gsoap_eml2_1::eml21__DataObjectReference *	newEmlReference () const

gsoap_eml2_2::eml22__DataObjectReference *	newEml22Reference () const

gsoap_eml2_3::eml23__DataObjectReference *	newEml23Reference () const

gsoap_resqml2_0_1::resqml20__ContactElementReference *	newContactElementReference2_0_1 () const

gsoap_eml2_3::resqml22__ContactElement *	newContactElementReference2_2 () const

common::DataObjectRepository *	getRepository () const

virtual std::string	getXmlNamespaceVersion () const

virtual std::string	getContentType () const

virtual std::string	getQualifiedType () const

virtual std::string	getPartNameInEpcDocument () const

std::string	serializeIntoString ()

void	addAlias (const std::string &authority, const std::string &title)

unsigned int	getAliasCount () const

std::string	getAliasAuthorityAtIndex (unsigned int index) const

std::string	getAliasTitleAtIndex (unsigned int index) const

std::vector< eml2::Activity * >	getActivitySet () const

unsigned int	getActivityCount () const

eml2::Activity *	getActivity (unsigned int index) const

void	pushBackExtraMetadata (const std::string &key, const std::string &value)

std::unordered_map< std::string, std::string >	getExtraMetadataSet () const

std::vector< std::string >	getExtraMetadata (const std::string &key) const

unsigned int	getExtraMetadataCount () const

std::string	getExtraMetadataKeyAtIndex (unsigned int index) const

std::string	getExtraMetadataStringValueAtIndex (unsigned int index) const

Additional Inherited Members
Public Types inherited from resqml2::AbstractIjkGridRepresentation
enum	geometryKind { UNKNOWN = 0 , EXPLICIT = 1 , PARAMETRIC = 2 , LATTICE = 3 , NO_GEOMETRY = 4 }

Public Types inherited from resqml2::AbstractRepresentation
enum	indexableElement { NODE = 0 , EDGE = 1 , FACE = 2 , VOLUME = 3 , PILLAR = 4 }

Public Types inherited from common::AbstractObject
enum	hdfDatatypeEnum { UNKNOWN = 0 , DOUBLE = 1 , FLOAT = 2 , LONG_64 = 3 , ULONG_64 = 4 , INT = 5 , UINT = 6 , SHORT = 7 , USHORT = 8 , CHAR = 9 , UCHAR = 10 }

Static Public Member Functions inherited from common::AbstractObject
static void	setFormat (const std::string &vendor, const std::string &applicationName, const std::string &applicationVersionNumber)

Static Public Attributes inherited from resqml2::AbstractIjkGridRepresentation
static const char *	XML_TAG

static const char *	XML_TAG_TRUNCATED

Static Public Attributes inherited from resqml2::AbstractGridRepresentation
static const char *	XML_TAG

Static Public Attributes inherited from resqml2::AbstractRepresentation
static const char *	XML_TAG

Detailed Description

An IJK Grid parametric representation define the cell corner positions by means of parameters along the pillars of the grid. Adjacent cell corner are supposed to be located the same so they are not repeated unless you define split lines or split nodes.

Constructor & Destructor Documentation

◆ ~IjkGridParametricRepresentation()

virtual resqml2::IjkGridParametricRepresentation::~IjkGridParametricRepresentation ( )

inlinevirtual

Destructor cleans the pillars information memory if allocated.

Reimplemented in resqml2_2::IjkGridParametricRepresentation, and resqml2_0_1::IjkGridParametricRepresentation.

Member Function Documentation

◆ getConstantParametricLineKind()

virtual short resqml2::IjkGridParametricRepresentation::getConstantParametricLineKind ( ) const

pure virtual

Gets the constant parametric line kind of this IJK parametric grid.

Exceptions

std::invalid_argument	If there is no geometry on this grid.
std::logic_error	If this grid is not actually a parametric one or if the getting of the constant parametric line kind is not supported yet for this grid.

Returns: The constant parametric line kind.

Implemented in resqml2_2::IjkGridParametricRepresentation, and resqml2_0_1::IjkGridParametricRepresentation.

◆ getControlPointMaxCountPerPillar()

virtual unsigned int resqml2::IjkGridParametricRepresentation::getControlPointMaxCountPerPillar ( ) const

pure virtual

Gets the maximum control points count on a pillar of this grid.

Exceptions

std::invalid_argument	If there is no geometry on this grid.
std::range_error	If the knot count of this grid is strictly greater than unsigned int max.
std::logic_error	If the computing of the maximum control points count is not yet supported for this grid.

Returns: The maximum control points count on a pillar of this grid.

Implemented in resqml2_2::IjkGridParametricRepresentation, and resqml2_0_1::IjkGridParametricRepresentation.

◆ getControlPointParameters()

void resqml2::IjkGridParametricRepresentation::getControlPointParameters	(	double *	controlPointParameters,
		bool	reverseIAxis = `false`,
		bool	reverseJAxis = `false`,
		bool	reverseKAxis = `false`
	)		const

Gets all the control point parameters of each pillar of this IJK parametric grid.

Exceptions

std::invalid_argument	If there is no geometry on this grid.
std::range_error	If the knot count of this grid is strictly greater than unsigned int max.
std::logic_error	If the reading of the control point parameters of this grid is not supported yet.

Parameters

[out]	controlPointParameters	An array for receiving the control point parameters. It must be preallocated with a size of `(getICellCount()` `+ 1) * (getJCellCount() + 1) *` `getControlPointMaxCountPerPillar()`. They are ordered first (quickest) by pillar and then (slowest) by control point : cp0 of pillar0, cp0 of pillar1, cp0 of pillar3, ..., cp0 of pillarCount-1, cp1 of pillar0, cp1 of pillar1, etc... Pad with nan values if necessary. For information, pillars are ordered first (quicket) by I and then (slowest) by J. Only relevant in case it contains at least one non vertical or non Z linear parametric line.
	reverseIAxis	(Optional) True to reverse i axis. Default value is false.
	reverseJAxis	(Optional) True to reverse j axis. Default value is false.
	reverseKAxis	(Optional) True to reverse k axis. Default value is false.

◆ getControlPoints()

void resqml2::IjkGridParametricRepresentation::getControlPoints	(	double *	controlPoints,
		bool	reverseIAxis = `false`,
		bool	reverseJAxis = `false`,
		bool	reverseKAxis = `false`
	)		const

Gets all the control points of each pillar of this IJK parametric grid.

Exceptions

std::invalid_argument	If there is no geometry on this grid.
std::range_error	If the knot count of this grid is strictly greater than unsigned int max.
std::logic_error	If the reading of the control points of this grid is not supported yet.

Parameters

[out]	controlPoints	An array for receiving the control points. It must be preallocated with a size of `(getICellCount() + 1) * (getJCellCount() + 1) * getControlPointMaxCountPerPillar() * 3`. They are ordered first (quickest) by pillar and then (slowest) by control point : cp0 of pillar0, cp0 of pillar1, cp0 of pillar3, ..., cp0 of pillarCount-1, cp1 of pillar0, cp1 of pillar1, etc... Pad with nan values if necessary. For information, pillars are ordered first (quicket) by I and then (slowest) by J.
	reverseIAxis	(Optional) True to reverse i axis. Default value is false.
	reverseJAxis	(Optional) True to reverse j axis. Default value is false.
	reverseKAxis	(Optional) True to reverse k axis. Default value is false.

◆ getGeometryKind()

geometryKind resqml2::IjkGridParametricRepresentation::getGeometryKind ( ) const

finalvirtual

Gets the geometry kind of this IJK grid.

Returns: The geometry kind of this IJK grid.

Reimplemented from resqml2::AbstractIjkGridRepresentation.

◆ getParametersOfNodes()

void resqml2::IjkGridParametricRepresentation::getParametersOfNodes	(	double *	parameters,
		bool	reverseIAxis = `false`,
		bool	reverseJAxis = `false`,
		bool	reverseKAxis = `false`
	)		const

Gets all the parameters of each node of this IJK parametric grid. They are ordered first (quickest) by coordinate line and then (slowest) by K level.

Exceptions

std::invalid_argument	If there is no geometry on this IJK grid.
std::range_error	If the count of split coordinate lines is strictly greater than unsigned int max.
std::logic_error	If the reading of nodes parameters is not yet supported for this grid.

Parameters

[out]	parameters	An array for receiving the parameter of each node. It must be preallocated with a size of `((getICellCount() + 1) * (getJCellCount() + 1) + getSplitCoordinateLineCount()) * (getKCellCount() + 1)`. They are ordered first (quickest) by coordinate line and then (slowest) by K level.
	reverseIAxis	(Optional) True to reverse i axis. Default value is false.
	reverseJAxis	(Optional) True to reverse j axis. Default value is false.
	reverseKAxis	(Optional) True to reverse k axis. Default value is false.

◆ getParametersOfNodesOfKInterfaceSequence()

void resqml2::IjkGridParametricRepresentation::getParametersOfNodesOfKInterfaceSequence	(	unsigned int	kInterfaceStart,
		unsigned int	kInterfaceEnd,
		double *	parameters
	)

Gets all the parameters of each node of a particular sequence of K interfaces of this IJK parametric grid.

Exceptions

std::invalid_argument	If there is no geometry on this IJK grid.
std::logic_error	If the reading of nodes parameters is not yet supported for this sequence of K interfaces.
std::out_of_range	If `kInterfaceStart > getKCellCount() \|\| kInterfaceEnd > getKCellCount())`.
std::range_error	If `kInterfaceStart > kInterfaceEnd`
std::invalid_argument	If `parameters` is `nullptr`.

Parameters

	kInterfaceStart	The K index of the starting interface taken from zero to getKCellCount().
	kInterfaceEnd	The K index of the ending interface taken from zero to getKCellCount().
[out]	parameters	An array for receiving the parameter of each node. It must be pre allocated with a size of `getXyzPointCountOfKInterface() * (kInterfaceEnd - kInterfaceStart + 1)`. They are ordered first (quickest) by coordinate line and then (slowest) by K level.

◆ getParametricLineKind()

void resqml2::IjkGridParametricRepresentation::getParametricLineKind	(	short *	pillarKind,
		bool	reverseIAxis = `false`,
		bool	reverseJAxis = `false`
	)		const

Gets the kind of each parametric line representing a pillar.

Exceptions

std::invalid_argument	If there is no geometry on this grid.
std::invalid_argument	If the parametric line kind count is inconsistent with the pillar count. @�xception std::logic_error If getting the parametric lines kind is not yet supported for this grid.

Parameters

[out]	pillarKind	An array for receiving the parametric lines kind. It must be preallocated with a size of `(getICellCount() + 1) * (getJCellCount() + 1)`. Semantic of values is: 0 = vertical, 1 = linear spline, 2 = natural cubic spline, 3 = cubic spline, 4 = Z linear cubic spline, 5 = minimum-curvature spline, (-1) = null: no line.
	reverseIAxis	(Optional) True to reverse i axis. Default value is false.
	reverseJAxis	(Optional) True to reverse j axis. Default value is false.

◆ getXyzPointsOfBlock()

void resqml2::IjkGridParametricRepresentation::getXyzPointsOfBlock ( double * xyzPoints )

finalvirtual

Gets all the XYZ points of the current block. XYZ points are given in the local CRS. Block information must be loaded.

Exceptions

std::logic_error	If the computing of XYZ points is not yet supported from this parametric grid.
std::invalid_argument	If the block information is not loaded.
std::invalid_argument	If `xyzPoints` is `nullptr`.

Parameters

[out] xyzPoints A linearized 2d array where the first (quickest) dimension is coordinate dimension (XYZ) and second dimension is vertex dimension. It must be pre allocated with a size of 3 * getXyzPointCountOfBlock().

Reimplemented from resqml2::AbstractIjkGridRepresentation.

◆ getXyzPointsOfKInterfaceSequence()

void resqml2::IjkGridParametricRepresentation::getXyzPointsOfKInterfaceSequence	(	unsigned int	kInterfaceStart,
		unsigned int	kInterfaceEnd,
		double *	xyzPoints
	)

finalvirtual

Gets all the XYZ points of a particular sequence of K interfaces. XYZ points are given in the local CRS.

Exceptions

std::out_of_range	If `kInterfaceStart` `>` getKCellCount() or `kInterfaceEnd` `>` getKCellCount() + getKGapsCount().
std::range_error	If `kInterfaceStart` `>` `kInterfaceEnd`.
std::invalid_argument	If `xyzPoints` is `nullptr`.

Parameters

	kInterfaceStart	The K index of the starting interface taken from zero to getKCellCount().
	kInterfaceEnd	The K index of the ending interface taken from zero to getKCellCount() + getKGapsCount().
[out]	xyzPoints	A linearized 2d array where the first (quickest) dimension is coordinate dimension (XYZ) and second dimension is vertex dimension. It must be preallocated with a size of `3 ` getXyzPointCountOfKInterface() ` (kInterfaceEnd - kInterfaceStart + 1)`.

Reimplemented from resqml2::AbstractIjkGridRepresentation.

◆ hasControlPointParameters()

virtual bool resqml2::IjkGridParametricRepresentation::hasControlPointParameters ( ) const

pure virtual

Checks if this IJK parametric grid contains some parameters on some control points. It happens when the grid contains at least one non vertical or a non Z linear parametric line.

Exceptions

std::invalid_argument	If there is no geometry on this grid.
std::logic_error	If the checking for the existance of control point parameters is not yet supported for this grid.

Returns: True if there exists some control point parameters, false if not.

Implemented in resqml2_2::IjkGridParametricRepresentation, and resqml2_0_1::IjkGridParametricRepresentation.

◆ isNodeGeometryCompressed()

bool resqml2::IjkGridParametricRepresentation::isNodeGeometryCompressed ( ) const

finalvirtual

Checks whether the node geometry dataset is compressed or not.

Exceptions

std::invalid_argument If this grid has no geometry.

Returns: True if the node geometry dataset is compressed, false if not.

Reimplemented from resqml2::AbstractIjkGridRepresentation.

◆ isParametricLineKindConstant()

virtual bool resqml2::IjkGridParametricRepresentation::isParametricLineKindConstant ( ) const

pure virtual

Checks if the parametric lines kind is constant in this IJK parametric grid.

Exceptions

std::invalid_argument	If there is no geometry on this grid.
std::logic_error	If this grid is not actually a parametric one or if the checking for the parametric lines kind constantness is not supported yet for this grid.

Returns: True if the parametric lines kind is constant, false if not.

Implemented in resqml2_2::IjkGridParametricRepresentation, and resqml2_0_1::IjkGridParametricRepresentation.

◆ setGeometryAsParametricNonSplittedPillarNodes()

void resqml2::IjkGridParametricRepresentation::setGeometryAsParametricNonSplittedPillarNodes	(	gsoap_resqml2_0_1::resqml20__PillarShape	mostComplexPillarGeometry,
		bool	isRightHanded,
		double const *	parameters,
		double const *	controlPoints,
		double const *	controlPointParameters,
		unsigned int	controlPointMaxCountPerPillar,
		short const *	pillarKind,
		eml2::AbstractHdfProxy *	proxy = `nullptr`,
		resqml2::AbstractLocal3dCrs *	localCrs = `nullptr`
	)

Sets the geometry of this IJK grid as parametric pillar nodes where no pillar is splitted. Defined pillars are deduced from pillarKind == -1.

Exceptions

std::invalid_argument	If there is no geometry on this grid.
std::invalid_argument	If some parameters values are inconsistent.
std::invalid_argument	If `proxy` is `nullptr` and no default HDF proxy is defined in the repository.
std::invalid_argument	If `localCrs` is `nullptr` and no default local 3d CRS is defined.

Parameters

	mostComplexPillarGeometry	The most complex pillar shape which we can find on this IJK grid.
	isRightHanded	Indicates that this IJK grid is right handed, as determined by the triple product of tangent vectors in the I, J, and K directions.
[in]	parameters	The parameter values (regarding the pillars) of each node of the grid.
[in]	controlPoints	The control points of the pillars of the grid. They are ordered first (quickest) by pillar and then (slowest) by control point : cp0 of pillar0, cp0 of pillar1, cp0 of pillar3, ..., cp0 of pillarCount-1, cp1 of pillar0, cp1 of pillar1, etc... Pad with nan values if necessary.
[in]	controlPointParameters	The value of the parameter at each control points. It must be `nullptr` for vertical and Z linear cubic parametric lines grid.
	controlPointMaxCountPerPillar	The maximum count of control points which defines a pillar of this grid.
[in]	pillarKind	The kind of each pillar: 0 = vertical, 1 = linear spline, 2 = natural cubic spline, 3 = cubic spline, 4 = Z linear cubic spline, 5 = minimum-curvature spline, (-1) = null: no line.
[in,out]	proxy	(Optional) The HDF proxy where all numerical values will be stored. If `nullptr` (default), then the default HDF proxy of the repository will be used.
[in]	localCrs	(Optional) The local CRS where the points are given. If `nullptr` (default) then the default CRS of the repository will be used.

◆ setGeometryAsParametricNonSplittedPillarNodesUsingExistingDatasets()

void resqml2::IjkGridParametricRepresentation::setGeometryAsParametricNonSplittedPillarNodesUsingExistingDatasets	(	gsoap_resqml2_0_1::resqml20__PillarShape	mostComplexPillarGeometry,
		gsoap_resqml2_0_1::resqml20__KDirection	kDirectionKind,
		bool	isRightHanded,
		const std::string &	parameters,
		const std::string &	controlPoints,
		const std::string &	controlPointParameters,
		unsigned int	controlPointMaxCountPerPillar,
		const std::string &	pillarKind,
		const std::string &	definedPillars,
		eml2::AbstractHdfProxy *	proxy = `nullptr`,
		resqml2::AbstractLocal3dCrs *	localCrs = `nullptr`
	)

Sets the geometry of this IJK grid as parametric pillar nodes where no pillar is splitted. Defined pillars are deduced from pillarKind == -1. Same as setGeometryAsParametricNonSplittedPillarNodes() where the HDF datasets are already written in the the file.

Exceptions

std::invalid_argument	If there is no geometry on this grid.
std::invalid_argument	If some parameters values are inconsistent.
std::invalid_argument	If `proxy` is `nullptr` and no default HDF proxy is defined in the repository.
std::invalid_argument	If `localCrs` is `nullptr` and no default local 3d CRS is defined.

Parameters

	mostComplexPillarGeometry	The most complex pillar shape which we can find on this IJK grid.
	kDirectionKind	The K direction kind.
	isRightHanded	Indicates that this IJK grid is right handed, as determined by the triple product of tangent vectors in the I, J, and K directions.
	parameters	Path to the HDF dataset containing the parameter values (regarding the pillars) of each node of the grid.
	controlPoints	Path to the HDF dataset containing the the control points of the pillars of the grid.
	controlPointParameters	Path to the HDF dataset containing the value of the parameter at each control points.
	controlPointMaxCountPerPillar	The maximum count of control points which defines a pillar of this grid.
	pillarKind	Path to the HDF dataset containing the kind of each pillar.
	definedPillars	Path to the HDF dataset where the defined pillars are identified : 0 value for not defined (i.e control points are NaN points, i.e pillarKind == -1) else the pillar is defined. This information overrides any pillar geometry information.
[in,out]	proxy	(Optional) The HDF proxy where all numerical values will be stored. If `nullptr` (default), then the default HDF proxy of the repository will be used.
[in]	localCrs	(Optional) The local CRS where the points are given. If `nullptr` (default) then the default CRS of the repository will be used.

◆ setGeometryAsParametricSplittedPillarNodes() [1/2]

void resqml2::IjkGridParametricRepresentation::setGeometryAsParametricSplittedPillarNodes	(	bool	isRightHanded,
		double const *	parameters,
		double const *	controlPoints,
		double const *	controlPointParameters,
		unsigned int	controlPointCountPerPillar,
		short	pillarKind,
		eml2::AbstractHdfProxy *	proxy,
		unsigned long	splitCoordinateLineCount,
		unsigned int const *	pillarOfCoordinateLine,
		unsigned int const *	splitCoordinateLineColumnCumulativeCount,
		unsigned int const *	splitCoordinateLineColumns,
		resqml2::AbstractLocal3dCrs *	localCrs = `nullptr`
	)

Set the geometry of the IJK grid as parametric pillar nodes where at least one pillar is supposed to be splitted and where all pillars are of the same kind. All pillars are assumed to be defined using this method.

Exceptions

std::invalid_argument	If there is no geometry on this grid.
std::invalid_argument	If some parameters values are inconsistent.
std::invalid_argument	If `proxy` is `nullptr` and no default HDF proxy is defined in the repository.
std::invalid_argument	If `localCrs` is `nullptr` and no default local 3d CRS is defined.

Parameters

	isRightHanded	Indicates that the IJK grid is right handed, as determined by the triple product of tangent vectors in the I, J, and K directions.
[in]	parameters	The parameter values (regarding the pillars) of each node of the grid.
[in]	controlPoints	The control points of the pillars of the grid. They are ordered first (quickest) by pillar and then (slowest) by control point : cp0 of pillar0, cp0 of pillar1, cp0 of pillar3, ..., cp0 of pillarCount-1, cp1 of pillar0, cp1 of pillar1, etc... Pad with nan values if necessary.
[in]	controlPointParameters	The value of the parameter at each control points. It must be nullptr for vertical and Z linear cubic parametric lines grid.
	controlPointCountPerPillar	The maximum count of control points which defines a pillar of this grid.
	pillarKind	The constant kind of each pillar : 0 = vertical, 1 = linear spline, 2 = natural cubic spline, 3 = cubic spline, 4 = Z linear cubic spline, 5 = minimum-curvature spline, (-1) = null: no line.
[in,out]	proxy	The HDF proxy where all numerical values will be stored. If `nullptr`, then the default HDF proxy of the repository will be used.
	splitCoordinateLineCount	The count of split coordinate line in this grid. A pillar being splitted by a maximum of 3 split coordinate lines (one coordinate line is always non splitted)
[in]	pillarOfCoordinateLine	For each split coordinate line, indicates the pillar it belongs to.
[in]	splitCoordinateLineColumnCumulativeCount	For each split coordinate line, indicates the count of grid column which are splitted by this coordinate line.
[in]	splitCoordinateLineColumns	For each split coordinate line, indicates the grid columns which are splitted by this coordinate line.
[in]	localCrs	(Optional) The local CRS where the points are given. If `nullptr` (default) then the default CRS of the repository will be used.

◆ setGeometryAsParametricSplittedPillarNodes() [2/2]

virtual void resqml2::IjkGridParametricRepresentation::setGeometryAsParametricSplittedPillarNodes	(	gsoap_resqml2_0_1::resqml20__PillarShape	mostComplexPillarGeometry,
		bool	isRightHanded,
		double const *	parameters,
		double const *	controlPoints,
		double const *	controlPointParameters,
		unsigned int	controlPointMaxCountPerPillar,
		short const *	pillarKind,
		eml2::AbstractHdfProxy *	proxy,
		unsigned long	splitCoordinateLineCount,
		unsigned int const *	pillarOfCoordinateLine,
		unsigned int const *	splitCoordinateLineColumnCumulativeCount,
		unsigned int const *	splitCoordinateLineColumns,
		resqml2::AbstractLocal3dCrs *	localCrs = `nullptr`
	)

pure virtual

Sets the geometry of this IJK grid as parametric pillar nodes where at least one pillar is supposed to be splitted. Defined pillars are deduced from pillarKind == -1.

Exceptions

std::invalid_argument	If there is no geometry on this grid.
std::invalid_argument	If some parameters values are inconsistent.
std::invalid_argument	If `proxy` is `nullptr` and no default HDF proxy is defined in the repository.
std::invalid_argument	If `localCrs` is `nullptr` and no default local 3d CRS is defined.

Parameters

	mostComplexPillarGeometry	The most complex pillar shape which we can find on this ijk grid.
	isRightHanded	Indicates that the IJK grid is right handed, as determined by the triple product of tangent vectors in the I, J, and K directions.
[in]	parameters	The parameter values (regarding the pillars) of each node of the grid.
[in]	controlPoints	The control points of the pillars of the grid. They are ordered first (quickest) by pillar and then (slowest) by control point : cp0 of pillar0, cp0 of pillar1, cp0 of pillar3, ..., cp0 of pillarCount-1, cp1 of pillar0, cp1 of pillar1, etc... Pad with nan values if necessary.
[in]	controlPointParameters	The value of the parameter at each control points. It must be nullptr for vertical and Z linear cubic parametric lines grid.
	controlPointMaxCountPerPillar	The maximum count of control points which defines a pillar of this grid.
[in]	pillarKind	The kind of each pillar : 0 = vertical, 1 = linear spline, 2 = natural cubic spline, 3 = cubic spline, 4 = Z linear cubic spline, 5 = minimum-curvature spline, (-1) = null: no line.
[in,out]	proxy	The HDF proxy where all numerical values will be stored. If `nullptr`, then the default HDF proxy of the repository will be used.
	splitCoordinateLineCount	The count of split coordinate line in this grid. A pillar being splitted by a maximum of 3 split coordinate lines (one coordinate line is always non splitted)
[in]	pillarOfCoordinateLine	For each split coordinate line, indicates the pillar it belongs to.
[in]	splitCoordinateLineColumnCumulativeCount	For each split coordinate line, indicates the count of grid column which are splitted by this coordinate line.
[in]	splitCoordinateLineColumns	For each split coordinate line, indicates the grid columns which are splitted by this coordinate line.
[in]	localCrs	(Optional) The local CRS where the points are given. If `nullptr` (default) then the default CRS of the repository will be used.

Implemented in resqml2_2::IjkGridParametricRepresentation, and resqml2_0_1::IjkGridParametricRepresentation.

◆ setGeometryAsParametricSplittedPillarNodesUsingExistingDatasets() [1/2]

virtual void resqml2::IjkGridParametricRepresentation::setGeometryAsParametricSplittedPillarNodesUsingExistingDatasets	(	gsoap_resqml2_0_1::resqml20__KDirection	kDirectionKind,
		bool	isRightHanded,
		const std::string &	parameters,
		const std::string &	controlPoints,
		const std::string &	controlPointParameters,
		unsigned int	controlPointCountPerPillar,
		short	pillarKind,
		eml2::AbstractHdfProxy *	proxy,
		unsigned long	splitCoordinateLineCount,
		const std::string &	pillarOfCoordinateLine,
		const std::string &	splitCoordinateLineColumnCumulativeCount,
		const std::string &	splitCoordinateLineColumns,
		resqml2::AbstractLocal3dCrs *	localCrs = `nullptr`
	)

pure virtual

Set the geometry of the IJK grid as parametric pillar nodes where at least one pillar is supposed to be splitted and where all pillars are of the same kind. All pillars are assumed to be defined using this method.Same as setGeometryAsParametricSplittedPillarNodes where the HDF datasets are already written in the the file.

Exceptions

std::invalid_argument	If there is no geometry on this grid.
std::invalid_argument	If some parameters values are inconsistent.
std::invalid_argument	If `proxy` is `nullptr` and no default HDF proxy is defined in the repository.
std::invalid_argument	If `localCrs` is `nullptr` and no default local 3d CRS is defined.

Parameters

	kDirectionKind	The K direction kind.
	isRightHanded	Indicates that the IJK grid is right handed, as determined by the triple product of tangent vectors in the I, J, and K directions.
	parameters	Path to the HDF dataset containing the parameter values (regarding the pillars) of each node of the grid.
	controlPoints	Path to the HDF dataset containing the the control points of the pillars of the grid.
	controlPointParameters	Path to the HDF dataset containing the value of the parameter at each control points.
	controlPointCountPerPillar	The maximum count of control points which defines a pillar of this grid.
	pillarKind	The constant kind of each pillar : 0 = vertical, 1 = linear spline, 2 = natural cubic spline, 3 = cubic spline, 4 = Z linear cubic spline, 5 = minimum-curvature spline, (-1) = null: no line.
[in,out]	proxy	The HDF proxy where all numerical values will be stored. If `nullptr`, then the default HDF proxy of the repository will be used.
	splitCoordinateLineCount	The count of split coordinate line in this grid. A pillar being splitted by a maximum of 3 split coordinate lines (one coordinate line is always non splitted)
	pillarOfCoordinateLine	Path to the HDF dataset indicating for each split coordinate line, which pillar it belongs to.
	splitCoordinateLineColumnCumulativeCount	Path to the HDF dataset indicating for each split coordinate line, the count of grid column which are splitted by this coordinate line.
	splitCoordinateLineColumns	Path to the HDF dataset indicating for each split coordinate line, the grid columns which are splitted by this coordinate line.
[in]	localCrs	(Optional) The local CRS where the points are given. If `nullptr` (default) then the default CRS of the repository will be used.

Implemented in resqml2_2::IjkGridParametricRepresentation, and resqml2_0_1::IjkGridParametricRepresentation.

◆ setGeometryAsParametricSplittedPillarNodesUsingExistingDatasets() [2/2]

virtual void resqml2::IjkGridParametricRepresentation::setGeometryAsParametricSplittedPillarNodesUsingExistingDatasets	(	gsoap_resqml2_0_1::resqml20__PillarShape	mostComplexPillarGeometry,
		gsoap_resqml2_0_1::resqml20__KDirection	kDirectionKind,
		bool	isRightHanded,
		const std::string &	parameters,
		const std::string &	controlPoints,
		const std::string &	controlPointParameters,
		unsigned int	controlPointMaxCountPerPillar,
		const std::string &	pillarKind,
		const std::string &	definedPillars,
		eml2::AbstractHdfProxy *	proxy,
		unsigned long	splitCoordinateLineCount,
		const std::string &	pillarOfCoordinateLine,
		const std::string &	splitCoordinateLineColumnCumulativeCount,
		const std::string &	splitCoordinateLineColumns,
		resqml2::AbstractLocal3dCrs *	localCrs = `nullptr`
	)

pure virtual

Sets the geometry of this IJK grid as parametric pillar nodes where at least one pillar is supposed to be splitted. Defined pillars are deduced from pillarKind == -1. Same as setGeometryAsParametricSplittedPillarNodes() where the HDF datasets are already written in the the file.

Exceptions

std::invalid_argument	If there is no geometry on this grid.
std::invalid_argument	If some parameters values are inconsistent.
std::invalid_argument	If `proxy` is `nullptr` and no default HDF proxy is defined in the repository.
std::invalid_argument	If `localCrs` is `nullptr` and no default local 3d CRS is defined.

Parameters

	mostComplexPillarGeometry	The most complex pillar shape which we can find on this ijk grid.
	kDirectionKind	The direction kind.
	isRightHanded	Indicates that the IJK grid is right handed, as determined by the triple product of tangent vectors in the I, J, and K directions.
	parameters	Path to the HDF dataset containing the parameter values (regarding the pillars) of each node of the grid.
	controlPoints	Path to the HDF dataset containing the the control points of the pillars of the grid.
	controlPointParameters	Path to the HDF dataset containing the value of the parameter at each control points.
	controlPointMaxCountPerPillar	The maximum count of control points which defines a pillar of this grid.
	pillarKind	Path to the HDF dataset containing the kind of each pillar.
	definedPillars	Path to the HDF dataset where the defined pillars are identified : 0 value for not defined (i.e control points are NaN points, i.e pillarKind == -1) else the pillar is defined. This information overrides any pillar geometry information.
[in,out]	proxy	The HDF proxy where all numerical values will be stored. If `nullptr`, then the default HDF proxy of the repository will be used.
	splitCoordinateLineCount	The count of split coordinate line in this grid. A pillar being splitted by a maximum of 3 split coordinate lines (one coordinate line is always non splitted)
	pillarOfCoordinateLine	Path to the HDF dataset indicating for each split coordinate line, which pillar it belongs to.
	splitCoordinateLineColumnCumulativeCount	Path to the HDF dataset indicating for each split coordinate line, the count of grid column which are splitted by this coordinate line.
	splitCoordinateLineColumns	Path to the HDF dataset indicating for each split coordinate line, the grid columns which are splitted by this coordinate line.
[in]	localCrs	(Optional) The local CRS where the points are given. If `nullptr` (default) then the default CRS of the repository will be used.

Implemented in resqml2_2::IjkGridParametricRepresentation, and resqml2_0_1::IjkGridParametricRepresentation.

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

C:/Users/philippe/dev/fesapiEnv/fesapi-2.0.0.0/src/resqml2/IjkGridParametricRepresentation.h

Public Member Functions

Additional Inherited Members

Detailed Description

Constructor & Destructor Documentation

◆ ~IjkGridParametricRepresentation()

Member Function Documentation

◆ getConstantParametricLineKind()

◆ getControlPointMaxCountPerPillar()

◆ getControlPointParameters()

◆ getControlPoints()

◆ getGeometryKind()

◆ getParametersOfNodes()

◆ getParametersOfNodesOfKInterfaceSequence()

◆ getParametricLineKind()

◆ getXyzPointsOfBlock()

◆ getXyzPointsOfKInterfaceSequence()

◆ hasControlPointParameters()

◆ isNodeGeometryCompressed()

◆ isParametricLineKindConstant()

◆ setGeometryAsParametricNonSplittedPillarNodes()

◆ setGeometryAsParametricNonSplittedPillarNodesUsingExistingDatasets()

◆ setGeometryAsParametricSplittedPillarNodes() [1/2]

◆ setGeometryAsParametricSplittedPillarNodes() [2/2]

◆ setGeometryAsParametricSplittedPillarNodesUsingExistingDatasets() [1/2]

◆ setGeometryAsParametricSplittedPillarNodesUsingExistingDatasets() [2/2]