create a 3D Voronoi tessellation of input points More...

#include <vtkVoronoiFlower3D.h>

Inheritance diagram for vtkVoronoiFlower3D:

Collaboration diagram for vtkVoronoiFlower3D:

Public Types

enum	GenerateCellScalarsStrategy { NO_CELL_SCALARS = 0 , POINT_IDS = 1 , REGION_IDS = 2 , NUMBER_FACES = 3 , PRIM_IDS = 4 , THREAD_IDS , RANDOM = 6 }
	Specify how to generate cell scalars for the outputs. More...

Public Types inherited from vtkDataSetAlgorithm
typedef vtkAlgorithm	Superclass

Public Types inherited from vtkAlgorithm
enum	DesiredOutputPrecision { SINGLE_PRECISION , DOUBLE_PRECISION , DEFAULT_PRECISION }
	Values used for setting the desired output precision for various algorithms. More...

typedef vtkObject	Superclass

Public Member Functions
int	GetMaximumNumberOfPoints ()
	Return the maximum number of points in any Voronoi hull.

int	GetMaximumNumberOfFaces ()
	Return the maximum number of faces in any Voronoi hull.

int	GetNumberOfThreads ()
	Return the number of threads actually used during execution.

int	GetNumberOfPrunes ()
	Return the number of prunes performed during execution.

vtkMTimeType	GetMTime () override
	Get the MTime of this object also considering the locator.

template<typename T>
void	UpdateExecutionInformation (T *voro)
	Method used to update this filter's execution parameters after the internal, templated instance of vtkVoronoiCore3D completes execution.


virtual void	SetPadding (double)
	Specify a padding for the bounding box of the points.

virtual double	GetPadding ()
	Specify a padding for the bounding box of the points.


virtual void	SetPassPointData (vtkTypeBool)
	Indicate whether to pass input point data through to the filter output.

virtual vtkTypeBool	GetPassPointData ()
	Indicate whether to pass input point data through to the filter output.

virtual void	PassPointDataOn ()
	Indicate whether to pass input point data through to the filter output.

virtual void	PassPointDataOff ()
	Indicate whether to pass input point data through to the filter output.


virtual void	SetGenerateCellScalars (int)
	Indicate whether to create a cell scalar array as part of the output.

virtual int	GetGenerateCellScalars ()
	Indicate whether to create a cell scalar array as part of the output.

void	SetGenerateCellScalarsToNone ()
	Indicate whether to create a cell scalar array as part of the output.

void	SetGenerateCellScalarsToPointIds ()
	Indicate whether to create a cell scalar array as part of the output.

void	SetGenerateCellScalarsToRegionIds ()
	Indicate whether to create a cell scalar array as part of the output.

void	SetGenerateCellScalarsToNumberFaces ()
	Indicate whether to create a cell scalar array as part of the output.

void	SetGenerateCellScalarsToPrimIds ()
	Indicate whether to create a cell scalar array as part of the output.

void	SetGenerateCellScalarsToThreadIds ()
	Indicate whether to create a cell scalar array as part of the output.

void	SetGenerateCellScalarsToRandom ()
	Indicate whether to create a cell scalar array as part of the output.


virtual vtkTypeBool	GetMergePoints ()
	Specify whether to merge (nearly) concident points in order to produce compatible output meshes.

virtual void	SetMergePoints (vtkTypeBool)
	Specify whether to merge (nearly) concident points in order to produce compatible output meshes.

virtual void	MergePointsOn ()
	Specify whether to merge (nearly) concident points in order to produce compatible output meshes.

virtual void	MergePointsOff ()
	Specify whether to merge (nearly) concident points in order to produce compatible output meshes.


vtkIdType	FindHull (double x[3])
	The following method–FindHull()–can be used to locate/query the Voronoi hull containing a point x (i.e., given that a Voronoi hull Vi is a region of closest proximity to the generating point x).


virtual void	SetPruneTolerance (double)
	Specify a relative tolerance to determine which spokes (i.e., small hull facets) to prune.

virtual double	GetPruneTolerance ()
	Specify a relative tolerance to determine which spokes (i.e., small hull facets) to prune.


vtkStaticPointLocator *	GetLocator ()
	Retrieve the internal locator to manually configure it, for example specifying the number of points per bucket.


virtual void	SetValidate (vtkTypeBool)
	Enable the validation of the Voronoi tesselation (which also affects the Delaunay triangulation and other output types if requested).

virtual vtkTypeBool	GetValidate ()
	Enable the validation of the Voronoi tesselation (which also affects the Delaunay triangulation and other output types if requested).

virtual void	ValidateOn ()
	Enable the validation of the Voronoi tesselation (which also affects the Delaunay triangulation and other output types if requested).

virtual void	ValidateOff ()
	Enable the validation of the Voronoi tesselation (which also affects the Delaunay triangulation and other output types if requested).


virtual void	SetBatchSize (unsigned int)
	Specify the number of input generating points in a batch, where a batch defines a contiguous subset of the input points operated on during threaded execution.

virtual unsigned int	GetBatchSize ()
	Specify the number of input generating points in a batch, where a batch defines a contiguous subset of the input points operated on during threaded execution.


virtual vtkTypeBool	GetBoundaryCapping ()
	Specify whether to cap the surface net along the domain boundary.

virtual void	SetBoundaryCapping (vtkTypeBool)
	Specify whether to cap the surface net along the domain boundary.

virtual void	BoundaryCappingOn ()
	Specify whether to cap the surface net along the domain boundary.

virtual void	BoundaryCappingOff ()
	Specify whether to cap the surface net along the domain boundary.


virtual void	SetPointOfInterest (vtkIdType)
	These methods are for debugging or instructional purposes.

virtual vtkIdType	GetPointOfInterest ()
	These methods are for debugging or instructional purposes.

virtual void	SetPointsOfInterest (vtkIdTypeArray *)
	These methods are for debugging or instructional purposes.

virtual vtkIdTypeArray *	GetPointsOfInterest ()
	These methods are for debugging or instructional purposes.

virtual void	SetMaximumNumberOfHullClips (vtkIdType)
	These methods are for debugging or instructional purposes.

virtual vtkIdType	GetMaximumNumberOfHullClips ()
	These methods are for debugging or instructional purposes.

Public Member Functions inherited from vtkDataSetAlgorithm
vtkDataSetAlgorithm *	NewInstance () const

vtkDataObject *	GetInput ()
	Get the input data object.

vtkPolyData *	GetPolyDataOutput ()
	Get the output as vtkPolyData.

vtkStructuredPoints *	GetStructuredPointsOutput ()
	Get the output as vtkStructuredPoints.

vtkImageData *	GetImageDataOutput ()
	Get the output as vtkStructuredPoints.

vtkStructuredGrid *	GetStructuredGridOutput ()
	Get the output as vtkStructuredGrid.

vtkUnstructuredGrid *	GetUnstructuredGridOutput ()
	Get the output as vtkUnstructuredGrid.

vtkRectilinearGrid *	GetRectilinearGridOutput ()
	Get the output as vtkRectilinearGrid.

vtkTypeBool	ProcessRequest (vtkInformation request, vtkInformationVector inputVector, vtkInformationVector outputVector) override
	see vtkAlgorithm for details

vtkDataSet *	GetOutput ()
	Get the output data object for a port on this algorithm.

vtkDataSet *	GetOutput (int)
	Get the output data object for a port on this algorithm.

void	SetInputData (vtkDataObject *)
	Assign a data object as input.

void	SetInputData (int, vtkDataObject *)
	Assign a data object as input.

void	SetInputData (vtkDataSet *)
	Assign a data object as input.

void	SetInputData (int, vtkDataSet *)
	Assign a data object as input.

void	AddInputData (vtkDataObject *)
	Assign a data object as input.

void	AddInputData (vtkDataSet *)
	Assign a data object as input.

void	AddInputData (int, vtkDataSet *)
	Assign a data object as input.

void	AddInputData (int, vtkDataObject *)
	Assign a data object as input.

Public Member Functions inherited from vtkAlgorithm
vtkAlgorithm *	NewInstance () const

vtkTypeBool	HasExecutive ()
	Check whether this algorithm has an assigned executive.

vtkExecutive *	GetExecutive ()
	Get this algorithm's executive.

virtual void	SetExecutive (vtkExecutive *executive)
	Set this algorithm's executive.

vtkTypeBool	ProcessRequest (vtkInformation request, vtkCollection inInfo, vtkInformationVector *outInfo)
	Version of ProcessRequest() that is wrapped.

virtual int	ComputePipelineMTime (vtkInformation request, vtkInformationVector inInfoVec, vtkInformationVector outInfoVec, int requestFromOutputPort, vtkMTimeType *mtime)
	A special version of ProcessRequest meant specifically for the pipeline modified time request.

virtual int	ModifyRequest (vtkInformation *request, int when)
	This method gives the algorithm a chance to modify the contents of a request before or after (specified in the when argument) it is forwarded.

vtkInformation *	GetInputPortInformation (int port)
	Get the information object associated with an input port.

vtkInformation *	GetOutputPortInformation (int port)
	Get the information object associated with an output port.

int	GetNumberOfInputPorts ()
	Get the number of input ports used by the algorithm.

int	GetNumberOfOutputPorts ()
	Get the number of output ports provided by the algorithm.

void	SetAbortExecuteAndUpdateTime ()
	Set AbortExecute Flag and update LastAbortTime.

void	UpdateProgress (double amount)
	Update the progress of the process object.

bool	CheckAbort ()
	Checks to see if this filter should abort.

virtual void	SetInputArrayToProcess (int idx, vtkInformation *info)
	Set the input data arrays that this algorithm will process.

int	GetNumberOfInputArraySpecifications ()
	Get the number of input array indices that have already been set.

bool	ResetInputArraySpecifications ()
	Clear all existing input array specifications (as if SetInputArrayToProcess had never been called).

vtkInformation *	GetInputArrayInformation (int idx)
	Get the info object for the specified input array to this algorithm.

void	RemoveAllInputs ()
	Remove all the input data.

vtkDataObject *	GetOutputDataObject (int port)
	Get the data object that will contain the algorithm output for the given port.

vtkDataObject *	GetInputDataObject (int port, int connection)
	Get the data object that will contain the algorithm input for the given port and given connection.

virtual void	RemoveInputConnection (int port, vtkAlgorithmOutput *input)
	Remove a connection from the given input port index.

virtual void	RemoveInputConnection (int port, int idx)
	Remove a connection given by index idx.

virtual void	RemoveAllInputConnections (int port)
	Removes all input connections.

virtual void	SetInputDataObject (int port, vtkDataObject *data)
	Sets the data-object as an input on the given port index.

virtual void	SetInputDataObject (vtkDataObject *data)

virtual void	AddInputDataObject (int port, vtkDataObject *data)
	Add the data-object as an input to this given port.

virtual void	AddInputDataObject (vtkDataObject *data)

vtkAlgorithmOutput *	GetOutputPort (int index)
	Get a proxy object corresponding to the given output port of this algorithm.

vtkAlgorithmOutput *	GetOutputPort ()

int	GetNumberOfInputConnections (int port)
	Get the number of inputs currently connected to a port.

int	GetTotalNumberOfInputConnections ()
	Get the total number of inputs for this algorithm.

vtkAlgorithmOutput *	GetInputConnection (int port, int index)
	Get the algorithm output port connected to an input port.

vtkAlgorithm *	GetInputAlgorithm (int port, int index, int &algPort)
	Returns the algorithm and the output port index of that algorithm connected to a port-index pair.

vtkAlgorithm *	GetInputAlgorithm (int port, int index)
	Returns the algorithm connected to a port-index pair.

vtkAlgorithm *	GetInputAlgorithm ()
	Equivalent to GetInputAlgorithm(0, 0).

vtkExecutive *	GetInputExecutive (int port, int index)
	Returns the executive associated with a particular input connection.

vtkExecutive *	GetInputExecutive ()
	Equivalent to GetInputExecutive(0, 0)

vtkInformation *	GetInputInformation (int port, int index)
	Return the information object that is associated with a particular input connection.

vtkInformation *	GetInputInformation ()
	Equivalent to GetInputInformation(0, 0)

vtkInformation *	GetOutputInformation (int port)
	Return the information object that is associated with a particular output port.

virtual vtkTypeBool	Update (int port, vtkInformationVector *requests)
	This method enables the passing of data requests to the algorithm to be used during execution (in addition to bringing a particular port up-to-date).

virtual vtkTypeBool	Update (vtkInformation *requests)
	Convenience method to update an algorithm after passing requests to its first output port.

virtual int	UpdatePiece (int piece, int numPieces, int ghostLevels, const int extents[6]=nullptr)
	Convenience method to update an algorithm after passing requests to its first output port.

virtual int	UpdateExtent (const int extents[6])
	Convenience method to update an algorithm after passing requests to its first output port.

virtual int	UpdateTimeStep (double time, int piece=-1, int numPieces=1, int ghostLevels=0, const int extents[6]=nullptr)
	Convenience method to update an algorithm after passing requests to its first output port.

virtual void	UpdateInformation ()
	Bring the algorithm's information up-to-date.

virtual void	UpdateDataObject ()
	Create output object(s).

virtual void	PropagateUpdateExtent ()
	Propagate meta-data upstream.

virtual void	UpdateWholeExtent ()
	Bring this algorithm's outputs up-to-date.

void	ConvertTotalInputToPortConnection (int ind, int &port, int &conn)
	Convenience routine to convert from a linear ordering of input connections to a port/connection pair.

void	RemoveNoPriorTemporalAccessInformationKey ()
	Removes any information key `vtkStreamingDemandDrivenPipeline::NO_PRIOR_TEMPORAL_ACCESS()` to all output ports of this `vtkAlgorithm`.

virtual vtkInformation *	GetInformation ()
	Set/Get the information object associated with this algorithm.

virtual void	SetInformation (vtkInformation *)
	Set/Get the information object associated with this algorithm.

bool	UsesGarbageCollector () const override
	Participate in garbage collection.

virtual void	SetAbortExecute (vtkTypeBool)
	Set/Get the AbortExecute flag for the process object.

virtual vtkTypeBool	GetAbortExecute ()
	Set/Get the AbortExecute flag for the process object.

virtual void	AbortExecuteOn ()
	Set/Get the AbortExecute flag for the process object.

virtual void	AbortExecuteOff ()
	Set/Get the AbortExecute flag for the process object.

virtual double	GetProgress ()
	Get the execution progress of a process object.

void	SetContainerAlgorithm (vtkAlgorithm *containerAlg)
	Set/get a Container algorithm for this algorithm.

vtkAlgorithm *	GetContainerAlgorithm ()
	Set/get a Container algorithm for this algorithm.

virtual void	SetAbortOutput (bool)
	Set/Get an internal variable used to communicate between the algorithm and executive.

virtual bool	GetAbortOutput ()
	Set/Get an internal variable used to communicate between the algorithm and executive.

void	SetProgressShiftScale (double shift, double scale)
	Specify the shift and scale values to use to apply to the progress amount when `UpdateProgress` is called.

virtual double	GetProgressShift ()
	Specify the shift and scale values to use to apply to the progress amount when `UpdateProgress` is called.

virtual double	GetProgressScale ()
	Specify the shift and scale values to use to apply to the progress amount when `UpdateProgress` is called.

void	SetProgressText (const char *ptext)
	Set the current text message associated with the progress state.

virtual char *	GetProgressText ()
	Set the current text message associated with the progress state.

virtual unsigned long	GetErrorCode ()
	The error code contains a possible error that occurred while reading or writing the file.

void	SetInputArrayToProcess (const char *name, int fieldAssociation, int component=vtkArrayComponents::AllComponents)
	Set the input data arrays that this algorithm will process.

virtual void	SetInputArrayToProcess (int idx, int port, int connection, int fieldAssociation, const char *name)
	Set the input data arrays that this algorithm will process.

virtual void	SetInputArrayToProcess (int idx, int port, int connection, int fieldAssociation, const char *name, int component)
	This method variant also accepts a component to consider rather than the entire tuple.

virtual void	SetInputArrayToProcess (int idx, int port, int connection, int fieldAssociation, int fieldAttributeType)
	Set the input data arrays that this algorithm will process.

virtual void	SetInputArrayToProcess (int idx, int port, int connection, int fieldAssociation, int fieldAttributeType, int component)
	This method variant also accepts a component to consider rather than the entire tuple.

virtual void	SetInputArrayToProcess (int idx, int port, int connection, const char fieldAssociation, const char attributeTypeorName)
	Set the input data arrays that this algorithm will process.

virtual void	SetInputArrayToProcess (int idx, int port, int connection, const char fieldAssociation, const char attributeTypeorName, const char *component)
	Set the input data arrays that this algorithm will process.

virtual void	SetInputConnection (int port, vtkAlgorithmOutput *input)
	Set the connection for the given input port index.

virtual void	SetInputConnection (vtkAlgorithmOutput *input)
	Set the connection for the given input port index.

virtual void	AddInputConnection (int port, vtkAlgorithmOutput *input)
	Add a connection to the given input port index.

virtual void	AddInputConnection (vtkAlgorithmOutput *input)
	Add a connection to the given input port index.

virtual bool	Update (int port)
	Bring this algorithm's outputs up-to-date.

virtual bool	Update ()
	Bring this algorithm's outputs up-to-date.

virtual void	SetReleaseDataFlag (vtkTypeBool)
	Turn release data flag on or off for all output ports.

virtual vtkTypeBool	GetReleaseDataFlag ()
	Turn release data flag on or off for all output ports.

void	ReleaseDataFlagOn ()
	Turn release data flag on or off for all output ports.

void	ReleaseDataFlagOff ()
	Turn release data flag on or off for all output ports.

int	UpdateExtentIsEmpty (vtkInformation pinfo, vtkDataObject output)
	This detects when the UpdateExtent will generate no data This condition is satisfied when the UpdateExtent has zero volume (0,-1,...) or the UpdateNumberOfPieces is 0.

int	UpdateExtentIsEmpty (vtkInformation *pinfo, int extentType)
	This detects when the UpdateExtent will generate no data This condition is satisfied when the UpdateExtent has zero volume (0,-1,...) or the UpdateNumberOfPieces is 0.

int *	GetUpdateExtent ()
	These functions return the update extent for output ports that use 3D extents.

int *	GetUpdateExtent (int port)
	These functions return the update extent for output ports that use 3D extents.

void	GetUpdateExtent (int &x0, int &x1, int &y0, int &y1, int &z0, int &z1)
	These functions return the update extent for output ports that use 3D extents.

void	GetUpdateExtent (int port, int &x0, int &x1, int &y0, int &y1, int &z0, int &z1)
	These functions return the update extent for output ports that use 3D extents.

void	GetUpdateExtent (int extent[6])
	These functions return the update extent for output ports that use 3D extents.

void	GetUpdateExtent (int port, int extent[6])
	These functions return the update extent for output ports that use 3D extents.

int	GetUpdatePiece ()
	These functions return the update extent for output ports that use piece extents.

int	GetUpdatePiece (int port)
	These functions return the update extent for output ports that use piece extents.

int	GetUpdateNumberOfPieces ()
	These functions return the update extent for output ports that use piece extents.

int	GetUpdateNumberOfPieces (int port)
	These functions return the update extent for output ports that use piece extents.

int	GetUpdateGhostLevel ()
	These functions return the update extent for output ports that use piece extents.

int	GetUpdateGhostLevel (int port)
	These functions return the update extent for output ports that use piece extents.

void	SetProgressObserver (vtkProgressObserver *)
	If an ProgressObserver is set, the algorithm will report progress through it rather than directly.

virtual vtkProgressObserver *	GetProgressObserver ()
	If an ProgressObserver is set, the algorithm will report progress through it rather than directly.

void	SetNoPriorTemporalAccessInformationKey (int key)
	Set to all output ports of this algorithm the information key `vtkStreamingDemandDrivenPipeline::NO_PRIOR_TEMPORAL_ACCESS()`.

void	SetNoPriorTemporalAccessInformationKey ()
	Set to all output ports of this algorithm the information key `vtkStreamingDemandDrivenPipeline::NO_PRIOR_TEMPORAL_ACCESS()`.

Public Member Functions inherited from vtkObject
	vtkBaseTypeMacro (vtkObject, vtkObjectBase)

virtual void	DebugOn ()
	Turn debugging output on.

virtual void	DebugOff ()
	Turn debugging output off.

bool	GetDebug ()
	Get the value of the debug flag.

void	SetDebug (bool debugFlag)
	Set the value of the debug flag.

virtual void	Modified ()
	Update the modification time for this object.

void	RemoveObserver (unsigned long tag)

void	RemoveObservers (unsigned long event)

void	RemoveObservers (const char *event)

void	RemoveAllObservers ()

vtkTypeBool	HasObserver (unsigned long event)

vtkTypeBool	HasObserver (const char *event)

vtkTypeBool	InvokeEvent (unsigned long event)

vtkTypeBool	InvokeEvent (const char *event)

std::string	GetObjectDescription () const override
	The object description printed in messages and PrintSelf output.

unsigned long	AddObserver (unsigned long event, vtkCommand *, float priority=0.0f)
	Allow people to add/remove/invoke observers (callbacks) to any VTK object.

unsigned long	AddObserver (const char event, vtkCommand , float priority=0.0f)
	Allow people to add/remove/invoke observers (callbacks) to any VTK object.

vtkCommand *	GetCommand (unsigned long tag)
	Allow people to add/remove/invoke observers (callbacks) to any VTK object.

void	RemoveObserver (vtkCommand *)
	Allow people to add/remove/invoke observers (callbacks) to any VTK object.

void	RemoveObservers (unsigned long event, vtkCommand *)
	Allow people to add/remove/invoke observers (callbacks) to any VTK object.

void	RemoveObservers (const char event, vtkCommand )
	Allow people to add/remove/invoke observers (callbacks) to any VTK object.

vtkTypeBool	HasObserver (unsigned long event, vtkCommand *)
	Allow people to add/remove/invoke observers (callbacks) to any VTK object.

vtkTypeBool	HasObserver (const char event, vtkCommand )
	Allow people to add/remove/invoke observers (callbacks) to any VTK object.

template<class U, class T>
unsigned long	AddObserver (unsigned long event, U observer, void(T::*callback)(), float priority=0.0f)
	Overloads to AddObserver that allow developers to add class member functions as callbacks for events.

template<class U, class T>
unsigned long	AddObserver (unsigned long event, U observer, void(T::callback)(vtkObject , unsigned long, void *), float priority=0.0f)
	Overloads to AddObserver that allow developers to add class member functions as callbacks for events.

template<class U, class T>
unsigned long	AddObserver (unsigned long event, U observer, bool(T::callback)(vtkObject , unsigned long, void *), float priority=0.0f)
	Allow user to set the AbortFlagOn() with the return value of the callback method.

vtkTypeBool	InvokeEvent (unsigned long event, void *callData)
	This method invokes an event and return whether the event was aborted or not.

vtkTypeBool	InvokeEvent (const char event, void callData)
	This method invokes an event and return whether the event was aborted or not.

virtual void	SetObjectName (const std::string &objectName)
	Set/get the name of this object for reporting purposes.

virtual std::string	GetObjectName () const
	Set/get the name of this object for reporting purposes.

Public Member Functions inherited from vtkObjectBase
const char *	GetClassName () const
	Return the class name as a string.

virtual vtkIdType	GetNumberOfGenerationsFromBase (const char *name)
	Given the name of a base class of this class type, return the distance of inheritance between this class type and the named class (how many generations of inheritance are there between this class and the named class).

virtual void	Delete ()
	Delete a VTK object.

virtual void	FastDelete ()
	Delete a reference to this object.

void	InitializeObjectBase ()

void	Print (ostream &os)
	Print an object to an ostream.

void	Register (vtkObjectBase *o)
	Increase the reference count (mark as used by another object).

virtual void	UnRegister (vtkObjectBase *o)
	Decrease the reference count (release by another object).

int	GetReferenceCount ()
	Return the current reference count of this object.

void	SetReferenceCount (int)
	Sets the reference count.

bool	GetIsInMemkind () const
	A local state flag that remembers whether this object lives in the normal or extended memory space.

virtual void	PrintHeader (ostream &os, vtkIndent indent)
	Methods invoked by print to print information about the object including superclasses.

virtual void	PrintTrailer (ostream &os, vtkIndent indent)
	Methods invoked by print to print information about the object including superclasses.

Protected Member Functions
	vtkVoronoiFlower3D ()

	~vtkVoronoiFlower3D () override=default

int	RequestData (vtkInformation , vtkInformationVector , vtkInformationVector ) override
	This is called within ProcessRequest when a request asks the algorithm to do its work.

int	FillInputPortInformation (int port, vtkInformation *info) override
	Fill the input port information objects for this algorithm.

int	FillOutputPortInformation (int port, vtkInformation *info) override
	Fill the output port information objects for this algorithm.

Protected Member Functions inherited from vtkDataSetAlgorithm
	vtkDataSetAlgorithm ()

	~vtkDataSetAlgorithm () override=default

virtual int	RequestDataObject (vtkInformation request, vtkInformationVector inputVector, vtkInformationVector outputVector)
	This is called within ProcessRequest when a request asks the algorithm to create empty output data objects.

virtual int	RequestInformation (vtkInformation , vtkInformationVector , vtkInformationVector )
	This is called within ProcessRequest when a request asks for Information.

virtual int	RequestUpdateExtent (vtkInformation , vtkInformationVector , vtkInformationVector )
	This is called within ProcessRequest when each filter in the pipeline decides what portion of its input is needed to create the portion of its output that the downstream filter asks for.

virtual int	RequestUpdateTime (vtkInformation , vtkInformationVector , vtkInformationVector )

vtkDataObject *	GetInput (int port)

Protected Member Functions inherited from vtkAlgorithm
	vtkAlgorithm ()

	~vtkAlgorithm () override

bool	CheckUpstreamAbort ()
	Checks to see if an upstream filter has been aborted.

virtual void	SetNumberOfInputPorts (int n)
	Set the number of input ports used by the algorithm.

virtual void	SetNumberOfOutputPorts (int n)
	Set the number of output ports provided by the algorithm.

int	InputPortIndexInRange (int index, const char *action)

int	OutputPortIndexInRange (int index, const char *action)

int	GetInputArrayAssociation (int idx, vtkInformationVector **inputVector)
	Get the association of the actual data array for the input array specified by idx, this is only reasonable during the REQUEST_DATA pass.

int	GetInputArrayComponent (int idx)
	Get the component to process of the actual data array for the input array specified by idx, this is only reasonable during the REQUEST_DATA pass.

vtkInformation *	GetInputArrayFieldInformation (int idx, vtkInformationVector **inputVector)
	This method takes in an index (as specified in SetInputArrayToProcess) and a pipeline information vector.

virtual vtkExecutive *	CreateDefaultExecutive ()
	Create a default executive.

void	ReportReferences (vtkGarbageCollector *) override

virtual void	SetNthInputConnection (int port, int index, vtkAlgorithmOutput *input)
	Replace the Nth connection on the given input port.

virtual void	SetNumberOfInputConnections (int port, int n)
	Set the number of input connections on the given input port.

void	SetInputDataInternal (int port, vtkDataObject *input)
	These methods are used by subclasses to implement methods to set data objects directly as input.

void	AddInputDataInternal (int port, vtkDataObject *input)

int	GetInputArrayAssociation (int idx, int connection, vtkInformationVector **inputVector)
	Filters that have multiple connections on one port can use this signature.

int	GetInputArrayAssociation (int idx, vtkDataObject *input)
	Filters that have multiple connections on one port can use this signature.

vtkDataArray *	GetInputArrayToProcess (int idx, vtkInformationVector **inputVector)
	Get the actual data array for the input array specified by idx, this is only reasonable during the REQUEST_DATA pass.

vtkDataArray *	GetInputArrayToProcess (int idx, vtkInformationVector **inputVector, int &association)
	Get the actual data array for the input array specified by idx, this is only reasonable during the REQUEST_DATA pass.

vtkDataArray *	GetInputArrayToProcess (int idx, int connection, vtkInformationVector **inputVector)
	Filters that have multiple connections on one port can use this signature.

vtkDataArray *	GetInputArrayToProcess (int idx, int connection, vtkInformationVector **inputVector, int &association)
	Filters that have multiple connections on one port can use this signature.

vtkDataArray *	GetInputArrayToProcess (int idx, vtkDataObject *input)
	Filters that have multiple connections on one port can use this signature.

vtkDataArray *	GetInputArrayToProcess (int idx, vtkDataObject *input, int &association)
	Filters that have multiple connections on one port can use this signature.

vtkAbstractArray *	GetInputAbstractArrayToProcess (int idx, vtkInformationVector **inputVector)
	Get the actual data array for the input array specified by idx, this is only reasonable during the REQUEST_DATA pass.

vtkAbstractArray *	GetInputAbstractArrayToProcess (int idx, vtkInformationVector **inputVector, int &association)
	Get the actual data array for the input array specified by idx, this is only reasonable during the REQUEST_DATA pass.

vtkAbstractArray *	GetInputAbstractArrayToProcess (int idx, int connection, vtkInformationVector **inputVector)
	Filters that have multiple connections on one port can use this signature.

vtkAbstractArray *	GetInputAbstractArrayToProcess (int idx, int connection, vtkInformationVector **inputVector, int &association)
	Filters that have multiple connections on one port can use this signature.

vtkAbstractArray *	GetInputAbstractArrayToProcess (int idx, vtkDataObject *input)
	Filters that have multiple connections on one port can use this signature.

vtkAbstractArray *	GetInputAbstractArrayToProcess (int idx, vtkDataObject *input, int &association)
	Filters that have multiple connections on one port can use this signature.

vtkSmartPointer< vtkAbstractArray >	GetInputArray (int idx, int connection, vtkInformationVector **inputVector, int &association, int requestedComponent=vtkArrayComponents::Requested)
	Get an array from the input at index idx.

vtkSmartPointer< vtkAbstractArray >	GetInputArray (int idx, vtkDataObject *input, int &association, int requestedComponent=vtkArrayComponents::Requested)
	Get an array from the input at index idx.

template<typename ArrayType, typename... Params>
vtkSmartPointer< ArrayType >	GetInputArrayAs (Params &&... params)
	Get an array from the input at index idx.

virtual void	SetErrorCode (unsigned long)
	The error code contains a possible error that occurred while reading or writing the file.

Protected Member Functions inherited from vtkObject
	vtkObject ()

	~vtkObject () override

void	RegisterInternal (vtkObjectBase *, vtkTypeBool check) override

void	UnRegisterInternal (vtkObjectBase *, vtkTypeBool check) override

void	InternalGrabFocus (vtkCommand mouseEvents, vtkCommand keypressEvents=nullptr)
	These methods allow a command to exclusively grab all events.

void	InternalReleaseFocus ()
	These methods allow a command to exclusively grab all events.

Protected Member Functions inherited from vtkObjectBase
	vtkObjectBase ()

virtual	~vtkObjectBase ()

	vtkObjectBase (const vtkObjectBase &)

void	operator= (const vtkObjectBase &)

enum	OutputTypeOptions { VORONOI = 0 , DELAUNAY = 1 , ADJACENCY_GRAPH = 2 , POLYGONAL_COMPLEX , BOUNDARY = 4 , SURFACE_NET , SPEED_TEST = 6 }
	Used to control the filter output. More...

virtual void	SetOutputType (int)
	Specify the type of output the filter creates.

virtual int	GetOutputType ()
	Used to control the filter output.

void	SetOutputTypeToVoronoi ()
	Used to control the filter output.

void	SetOutputTypeToDelaunay ()
	Used to control the filter output.

void	SetOutputTypeToAdjacencyGraph ()
	Used to control the filter output.

void	SetOutputTypeToPolygonalComplex ()
	Used to control the filter output.

void	SetOutputTypeToBoundary ()
	Used to control the filter output.

void	SetOutputTypeToSurfaceNet ()
	Used to control the filter output.

void	SetOutputTypeToSpeedTest ()
	Used to control the filter output.

enum	GeneratePointScalarsStrategy { NO_POINT_SCALARS = 0 , FLOWER_RADII = 1 }
	Used internally to generate point scalars for the output. More...

virtual int	GetGeneratePointScalars ()
	Used internally to generate point scalars for the output.

typedef vtkDataSetAlgorithm	Superclass
	Standard methods for instantiation, type information, and printing.

static vtkVoronoiFlower3D *	New ()
	Standard methods for instantiation, type information, and printing.

static vtkTypeBool	IsTypeOf (const char *type)
	Standard methods for instantiation, type information, and printing.

static vtkVoronoiFlower3D *	SafeDownCast (vtkObjectBase *o)
	Standard methods for instantiation, type information, and printing.

virtual vtkTypeBool	IsA (const char *type)
	Standard methods for instantiation, type information, and printing.

vtkVoronoiFlower3D *	NewInstance () const
	Standard methods for instantiation, type information, and printing.

void	PrintSelf (ostream &os, vtkIndent indent) override
	Standard methods for instantiation, type information, and printing.

virtual vtkObjectBase *	NewInstanceInternal () const
	Standard methods for instantiation, type information, and printing.

Additional Inherited Members
Static Public Member Functions inherited from vtkDataSetAlgorithm
static vtkDataSetAlgorithm *	New ()

static vtkTypeBool	IsTypeOf (const char *type)

static vtkDataSetAlgorithm *	SafeDownCast (vtkObjectBase *o)

Static Public Member Functions inherited from vtkAlgorithm
static vtkAlgorithm *	New ()

static vtkTypeBool	IsTypeOf (const char *type)

static vtkAlgorithm *	SafeDownCast (vtkObjectBase *o)

static vtkInformationIntegerKey *	INPUT_IS_OPTIONAL ()
	Keys used to specify input port requirements.

static vtkInformationIntegerKey *	INPUT_IS_REPEATABLE ()

static vtkInformationInformationVectorKey *	INPUT_REQUIRED_FIELDS ()

static vtkInformationStringVectorKey *	INPUT_REQUIRED_DATA_TYPE ()

static vtkInformationInformationVectorKey *	INPUT_ARRAYS_TO_PROCESS ()

static vtkInformationIntegerKey *	INPUT_PORT ()

static vtkInformationIntegerKey *	INPUT_CONNECTION ()

static vtkInformationIntegerKey *	CAN_PRODUCE_SUB_EXTENT ()
	This key tells the executive that a particular output port is capable of producing an arbitrary subextent of the whole extent.

static vtkInformationIntegerKey *	CAN_HANDLE_PIECE_REQUEST ()
	Key that tells the pipeline that a particular algorithm can or cannot handle piece request.

static vtkInformationIntegerKey *	ABORTED ()

static void	SetDefaultExecutivePrototype (vtkExecutive *proto)
	If the DefaultExecutivePrototype is set, a copy of it is created in CreateDefaultExecutive() using NewInstance().

Static Public Member Functions inherited from vtkObject
static vtkObject *	New ()
	Create an object with Debug turned off, modified time initialized to zero, and reference counting on.

static void	BreakOnError ()
	This method is called when vtkErrorMacro executes.

static void	SetGlobalWarningDisplay (vtkTypeBool val)
	This is a global flag that controls whether any debug, warning or error messages are displayed.

static void	GlobalWarningDisplayOn ()
	This is a global flag that controls whether any debug, warning or error messages are displayed.

static void	GlobalWarningDisplayOff ()
	This is a global flag that controls whether any debug, warning or error messages are displayed.

static vtkTypeBool	GetGlobalWarningDisplay ()
	This is a global flag that controls whether any debug, warning or error messages are displayed.

Static Public Member Functions inherited from vtkObjectBase
static vtkTypeBool	IsTypeOf (const char *name)
	Return 1 if this class type is the same type of (or a subclass of) the named class.

static vtkIdType	GetNumberOfGenerationsFromBaseType (const char *name)
	Given a the name of a base class of this class type, return the distance of inheritance between this class type and the named class (how many generations of inheritance are there between this class and the named class).

static vtkObjectBase *	New ()
	Create an object with Debug turned off, modified time initialized to zero, and reference counting on.

static void	SetMemkindDirectory (const char *directoryname)
	The name of a directory, ideally mounted -o dax, to memory map an extended memory space within.

static bool	GetUsingMemkind ()
	A global state flag that controls whether vtkObjects are constructed in the usual way (the default) or within the extended memory space.

Public Attributes inherited from vtkAlgorithm
std::atomic< vtkTypeBool >	AbortExecute

Static Protected Member Functions inherited from vtkAlgorithm
static vtkInformationIntegerKey *	PORT_REQUIREMENTS_FILLED ()

Static Protected Member Functions inherited from vtkObjectBase
static vtkMallocingFunction	GetCurrentMallocFunction ()

static vtkReallocingFunction	GetCurrentReallocFunction ()

static vtkFreeingFunction	GetCurrentFreeFunction ()

static vtkFreeingFunction	GetAlternateFreeFunction ()

Protected Attributes inherited from vtkAlgorithm
vtkTimeStamp	LastAbortCheckTime

vtkInformation *	Information

double	Progress

char *	ProgressText

vtkProgressObserver *	ProgressObserver

unsigned long	ErrorCode
	The error code contains a possible error that occurred while reading or writing the file.

Protected Attributes inherited from vtkObject
bool	Debug

vtkTimeStamp	MTime

vtkSubjectHelper *	SubjectHelper

std::string	ObjectName

Protected Attributes inherited from vtkObjectBase
std::atomic< int32_t >	ReferenceCount

vtkWeakPointerBase **	WeakPointers

Static Protected Attributes inherited from vtkAlgorithm
static vtkTimeStamp	LastAbortTime

static vtkExecutive *	DefaultExecutivePrototype

Detailed Description

create a 3D Voronoi tessellation of input points

vtkVoronoiFlower3D is a filter that constructs a 3D Voronoi tessellation of a list of input points. The points are presumed to lie within 3D-space and non-coincident. These points may be represented by any dataset of type vtkPointSet and subclasses. Multiple different outputs of the filter are produced depending on the output types selected (as described shortly); for example, an unstructured grid consisting of polyhedral cells, an unstructured grid consisting of a Delaunay tetrahedralization, an adjacency graph, a polygonal complex, exterior boundary of the tessellation, and/or a generalized surface net can be produced.

The 3D Voronoi tessellation is a tessellation of space, where each Voronoi n-dimensional tile (in 3D, a polyhedron, also referred to as a point hull, or more simply, hull) represents the region nearest to one of the input points. Voronoi tessellations are important in computational geometry (and many other fields), and form the dual of Delaunay triangulations. Note that in this implementation, points may be labeled (or segmented) with an optional region id, this is useful for specifiying inside / outside, so as to control the tessellation, as well as creating contours between regions (a surface net). (Please note that region ids < 0 mean that the associated point is considered "outside" or "exterior"; this can be used to carve away areas that should not be tessellated.)

This filter is a reference implementation written with simplicity in mind. Additional methods are available for debugging / instructional purposes. This includes producing a single hull under various stages of creation, as well as the Voronoi flower and circumflower, the error metric controlling Voronoi's point insertion / half-space clipping process.

Publications are in preparation to describe the algorithm. A brief summary is as follows. In parallel, each (generating) input point is associated with an initial Voronoi hull, which is simply the bounding box of the input point set. A locator is then used to identify nearby points: each neighbor in turn generates a clipping plane positioned halfway between the generating point and the neighboring point, and orthogonal to the line connecting them. Clips are readily performed by evaluationg the vertices of the convex Voronoi hull as being on either side (inside,outside) of the clip plane. If an intersection with the Voronoi 3D hull is found, the portion of the hull "outside" the clip line is discarded, resulting in a new convex, Voronoi hull. As each clip occurs, the Voronoi "Flower" error metric (the union of error spheres) is compared to the extent of the region containing the neighboring clip points. The clip region (along with the points contained in it) is grown by careful expansion, When the Voronoi circumflower is contained within the clip region, the algorithm terminates and the Voronoi hull is output. Once complete, it is possible to construct the Delaunay triangulation from the Voronoi tessellation, or extract a generalized surface net between regions. Note that topological and geometric information is used to generate a valid triangulation (e.g., merging points and validating topology).

The filter produces different outputs depending on how the filter is configured. The filter accepts any vtkPointSet (and derived classes) as input. vtkUnstructuredGrid output is produced when the requested output type is a Voronoi tessellation or Delaunay tetrahedralization. vtkPolyData is produced when all other types of output are requested (e.g., adjacency graph, boundary faces, surface net contours, etc. (Use the methods GetUnstructuredGridOutput() or GetPolyDataOutput() to retrieve the appropriate output.)

A useful, optional feature of this filter is its ability to control the tessellation process and/or generation of a surface net via an input region ids array. The optional region ids array is a single component, signed integer array (vtkIntArray) that labels each input point as part of a segmented region, with value <0 meaning outside. As a result, this filter can be used to tessellate different regions using convex polygons (i.e., Voronoi hulls), or create holes in Voronoi tessellations, using this supplemental input single-component, scalar data array (the region ids array). The size of the region ids array must match the number of input points (the region ids must be provided as input point data).

This input region ids array can also be used to create a generalized 3D surface net. (See vtkSurfaceNets3D and vtkSurfaceNets2D for surface nets algorithms specialized to image data; and vtkGeneralizedSurfaceNets3D for a general surface nets algorithm based on this Voronoi approach.) A surface net is a type of contour that partitions segmented portions of the input volumetric space into separate regions. (The segmentation process requires the labeling of the input points as a member of a specified region. The segmentation is represented by integral, input scalar point data "region ids".) The resulting surface contour is not necessarily manifold, and typically contains inner structures or "bubbles" demarcating separate portions of the input. (Note that the output surface net can be smoothed by the filters like the vtkConstrainedSmoothingFilter, or vtkWindowedSincPolyDataFilter.)

This class can also construct an adjacency graph, composed of edges (the spokes) that connect each Voronoi hull generating point (the wheels) with their face neigbors. The adjacency graph is a powerful data representation that captures proximal neighborhood information. It has many practical applications such as shortest path computation.

There are two common use cases when using this filter. The first case simply produces output for the purposes of visualization. In this case the resulting output meshes are not watertight and cannot be smoothed (so-called meshless complex of polygons or Voronoi polyhedra). The second use case produces connected, watertight surface meshes or polyhedra which can be processed via downstream filters. Note that this second case requires a fair amount of work to merge nearly coincident points to produce the watertight surfaces. (Note: a built-in topologically-based point merging process is used. Alternatively, users can disable the built in point merging process, and use subsequent filters like vtkStaticCleanPolyData to merge coincident points, remove degenerate face primitives, etc, and otherwise process the surfaces with smoothing etc. vtkStaticCleanPolyData uses a proximal geometric point merging process requiring a tolerance, this can cause problems in some cases.)

An implementation note: this filter is implemented using a parallel algorithm, but produces invariant output in terms of the construction of the geometric primitives (Voronoi cells, adjacency graphs, etc.) Each input generating point of ptId, produces convex Voronoi hulls of hullId, where ptId == hullId. This means for debugging purposes, picking output primitives with POINT_IDS enabled provides a means to select the original generating hull.

Note: Note that the class vtkGeneralizedSurfaceNets3D can also generate a surface net. However the difference is that in vtkGeneralizedSurfaceNets3D the label values are explicitly specified, only specified labels may generate surfaces. The class vtkVoronoiFlower3D will generate surfaces for each non-negative region id enumerated in the region ids array. In addition, vtkGeneralizedSurfaceNets3D has the ability to smooth the resulting surfaces, as well as perform auxiliary functions such as triangulating the output polygons.; There are several utility classes that can be used with vtkVoronoiFlower3D to massage data and improve performance.
vtkFillPointCloud can add points to a set of input points P. These points

are labeled "outside" of P, placed in areas where no existing points exist

in P. Adding these outside points can markedly improve performance and

improve the quality of the output mesh.

vtkLabeledImagePointSampler can be used to transform a segmented image

into a point cloud suitable for processing by vtkVoronoiFlower3D (and related

filters). By using this filter along with image crop filters it is

possible to "snip" out areas of interest, producing a sample of points

and processing them as an input point cloud.

vtkJogglePoints can be used to improve the performance and quality of the

output mesh. Voronoi and Delaunay methods are known for their sensitivity

to numerical degeneracies (e.g., more than n+1 points cospherical to a

n-dimensional simplex in a n-dimensional Delaunay trianglulation). The

filter randomly perturbs (i.e., joggles or jitters) a point set thereby

removing degeneracies.

vtkVoronoiFlower3D::vtkVoronoiFlower3D
vtkVoronoiFlower3D()

Warning: Coincident input points are discarded. The Voronoi tessellation requires unique input points.; This is a meshless Voronoi approach that implements an embarrassingly parallel algorithm. At the core of the algorithm a locator is used to determine points close to a specified position. Currently, a vtkStaticPointLocator is used because it is both threaded (when constructed) and supports thread-safe queries. While other locators could be used in principal, they must support thread-safe operations. This is done by defining and implementing an iterator that enables traversal of neighborhood points surrounding each generating point.; This class has been threaded with vtkSMPTools. Using TBB or other non-sequential type (set in the CMake variable VTK_SMP_IMPLEMENTATION_TYPE) may improve performance significantly. For example, in recent benchmarks using a 48-thread desktop, one million points can be processed in well under one second elapsed time.

See also: vtkVoronoiCore3D vtkGeneralizedSurfaceNets3D vtkShellBinIterator vtkVoronoiFlower2D vtkDelaunay2D vtkDelaunay3D vtkSurfaceNets3D vtkSurfaceNets2D vtkConstrainedSmoothingFilter vtkWindowedSincPolyDataFilter vtkJogglePoints vtkLabeledImagePointSampler vtkFillPointCloud

Tests:: vtkVoronoiFlower3D (Tests)

Definition at line 196 of file vtkVoronoiFlower3D.h.

Member Typedef Documentation

◆ Superclass

typedef vtkDataSetAlgorithm vtkVoronoiFlower3D::Superclass

Standard methods for instantiation, type information, and printing.

Definition at line 204 of file vtkVoronoiFlower3D.h.

Member Enumeration Documentation

◆ OutputTypeOptions

enum vtkVoronoiFlower3D::OutputTypeOptions

Used to control the filter output.

Note that output types VORONOI and DELAUNAY produce a vtkUnstructuredGrid output. All other output types produce vtkPolyData. Depending on the selected output type, use the methods GetUnstructuredGridOutput() and GetPolyDataOutput() as appropriate.

Enumerator
VORONOI
DELAUNAY
ADJACENCY_GRAPH
POLYGONAL_COMPLEX
BOUNDARY
SURFACE_NET
SPEED_TEST

Definition at line 216 of file vtkVoronoiFlower3D.h.

◆ GenerateCellScalarsStrategy

enum vtkVoronoiFlower3D::GenerateCellScalarsStrategy

Specify how to generate cell scalars for the outputs.

Note that some output styles (e.g., BOUNDARY) may produce multiple output primitives for each Voronoi hull processed, each of these primitives will take on the same cell scalar value as the generating hull (unless RANDOM is specified). So what's effectively happening here is that a scalar value is assigned to each generating Voronoi hull, and any surface primitives (surface primitives are convex polygons) generated by the hull assume that scalar value. On the other hand, the PRIM_ID option assigns different cell scalar values based on the primitive number (i.e., so primitive faces etc. will have different cell scalar values even if they originate from the same hull). Finally, random produces up to 64 random integer values for each output primitive.

Enumerator
NO_CELL_SCALARS
POINT_IDS
REGION_IDS
NUMBER_FACES
PRIM_IDS
THREAD_IDS
RANDOM

Definition at line 289 of file vtkVoronoiFlower3D.h.

◆ GeneratePointScalarsStrategy

enum vtkVoronoiFlower3D::GeneratePointScalarsStrategy

Used internally to generate point scalars for the output.

When a point of interest is defined, then additional point scalars which are the radii of the Voronoi flower are produced, which is useful for debugging or instructional purposes.

Enumerator
NO_POINT_SCALARS
FLOWER_RADII

Definition at line 435 of file vtkVoronoiFlower3D.h.

Constructor & Destructor Documentation

◆ vtkVoronoiFlower3D()

vtkVoronoiFlower3D::vtkVoronoiFlower3D ( )

protected

◆ ~vtkVoronoiFlower3D()

vtkVoronoiFlower3D::~vtkVoronoiFlower3D ( )

overrideprotecteddefault

Member Function Documentation

◆ New()

static vtkVoronoiFlower3D * vtkVoronoiFlower3D::New ( )

static

Standard methods for instantiation, type information, and printing.

◆ IsTypeOf()

static vtkTypeBool vtkVoronoiFlower3D::IsTypeOf ( const char * type )

static

Standard methods for instantiation, type information, and printing.

◆ IsA()

virtual vtkTypeBool vtkVoronoiFlower3D::IsA ( const char * type )

virtual

Standard methods for instantiation, type information, and printing.

Reimplemented from vtkDataSetAlgorithm.

◆ SafeDownCast()

static vtkVoronoiFlower3D * vtkVoronoiFlower3D::SafeDownCast ( vtkObjectBase * o )

static

Standard methods for instantiation, type information, and printing.

◆ NewInstanceInternal()

virtual vtkObjectBase * vtkVoronoiFlower3D::NewInstanceInternal ( ) const

protectedvirtual

Standard methods for instantiation, type information, and printing.

Reimplemented from vtkDataSetAlgorithm.

◆ NewInstance()

vtkVoronoiFlower3D * vtkVoronoiFlower3D::NewInstance ( ) const

Standard methods for instantiation, type information, and printing.

◆ PrintSelf()

void vtkVoronoiFlower3D::PrintSelf	(	ostream &	os,
		vtkIndent	indent )

overridevirtual

Standard methods for instantiation, type information, and printing.

Reimplemented from vtkDataSetAlgorithm.

◆ SetOutputType()

virtual void vtkVoronoiFlower3D::SetOutputType ( int )

virtual

Specify the type of output the filter creates.

Output types VORONOI and DELAUNAY produce vtkUnstructuredGrid; all other types create vtkPolyData. The SPEED_TEST simply computes Voronoi hulls, no compositing is performed / output generated (this is for performance benchmarking).

◆ GetOutputType()

virtual int vtkVoronoiFlower3D::GetOutputType ( )

virtual

Used to control the filter output.

Note that output types VORONOI and DELAUNAY produce a vtkUnstructuredGrid output. All other output types produce vtkPolyData. Depending on the selected output type, use the methods GetUnstructuredGridOutput() and GetPolyDataOutput() as appropriate.

◆ SetOutputTypeToVoronoi()

void vtkVoronoiFlower3D::SetOutputTypeToVoronoi ( )

inline

Used to control the filter output.

Note that output types VORONOI and DELAUNAY produce a vtkUnstructuredGrid output. All other output types produce vtkPolyData. Depending on the selected output type, use the methods GetUnstructuredGridOutput() and GetPolyDataOutput() as appropriate.

Definition at line 238 of file vtkVoronoiFlower3D.h.

◆ SetOutputTypeToDelaunay()

void vtkVoronoiFlower3D::SetOutputTypeToDelaunay ( )

inline

Used to control the filter output.

Note that output types VORONOI and DELAUNAY produce a vtkUnstructuredGrid output. All other output types produce vtkPolyData. Depending on the selected output type, use the methods GetUnstructuredGridOutput() and GetPolyDataOutput() as appropriate.

Definition at line 239 of file vtkVoronoiFlower3D.h.

◆ SetOutputTypeToAdjacencyGraph()

void vtkVoronoiFlower3D::SetOutputTypeToAdjacencyGraph ( )

inline

Used to control the filter output.

Note that output types VORONOI and DELAUNAY produce a vtkUnstructuredGrid output. All other output types produce vtkPolyData. Depending on the selected output type, use the methods GetUnstructuredGridOutput() and GetPolyDataOutput() as appropriate.

Definition at line 240 of file vtkVoronoiFlower3D.h.

◆ SetOutputTypeToPolygonalComplex()

void vtkVoronoiFlower3D::SetOutputTypeToPolygonalComplex ( )

inline

Used to control the filter output.

Note that output types VORONOI and DELAUNAY produce a vtkUnstructuredGrid output. All other output types produce vtkPolyData. Depending on the selected output type, use the methods GetUnstructuredGridOutput() and GetPolyDataOutput() as appropriate.

Definition at line 241 of file vtkVoronoiFlower3D.h.

◆ SetOutputTypeToBoundary()

void vtkVoronoiFlower3D::SetOutputTypeToBoundary ( )

inline

Used to control the filter output.

Note that output types VORONOI and DELAUNAY produce a vtkUnstructuredGrid output. All other output types produce vtkPolyData. Depending on the selected output type, use the methods GetUnstructuredGridOutput() and GetPolyDataOutput() as appropriate.

Definition at line 242 of file vtkVoronoiFlower3D.h.

◆ SetOutputTypeToSurfaceNet()

void vtkVoronoiFlower3D::SetOutputTypeToSurfaceNet ( )

inline

Used to control the filter output.

Note that output types VORONOI and DELAUNAY produce a vtkUnstructuredGrid output. All other output types produce vtkPolyData. Depending on the selected output type, use the methods GetUnstructuredGridOutput() and GetPolyDataOutput() as appropriate.

Definition at line 243 of file vtkVoronoiFlower3D.h.

◆ SetOutputTypeToSpeedTest()

void vtkVoronoiFlower3D::SetOutputTypeToSpeedTest ( )

inline

Used to control the filter output.

Note that output types VORONOI and DELAUNAY produce a vtkUnstructuredGrid output. All other output types produce vtkPolyData. Depending on the selected output type, use the methods GetUnstructuredGridOutput() and GetPolyDataOutput() as appropriate.

Definition at line 244 of file vtkVoronoiFlower3D.h.

◆ SetPadding()

virtual void vtkVoronoiFlower3D::SetPadding ( double )

virtual

Specify a padding for the bounding box of the points.

A >0 padding is necessary in order to create valid Voronoi hulls on the boundary of the tessellation. The padding is specified as a fraction of the diagonal length of the bounding box of the points. Large padding values can markedly degrade performance.

◆ GetPadding()

virtual double vtkVoronoiFlower3D::GetPadding ( )

virtual

Specify a padding for the bounding box of the points.

A >0 padding is necessary in order to create valid Voronoi hulls on the boundary of the tessellation. The padding is specified as a fraction of the diagonal length of the bounding box of the points. Large padding values can markedly degrade performance.

◆ SetPassPointData()

virtual void vtkVoronoiFlower3D::SetPassPointData ( vtkTypeBool )

virtual

Indicate whether to pass input point data through to the filter output.

If enabled, then the input point data is passed (for DELAUNAY output type) as point data; and passed (for ADJACENCY_GRAPH output type) as point data). In addition, if the number of output cells is equal to the number of input points (a common use case), then input point data is passed through (for VORONOI output type) as cell data. By default, passing input attribute point data is enabled.

◆ GetPassPointData()

virtual vtkTypeBool vtkVoronoiFlower3D::GetPassPointData ( )

virtual

Indicate whether to pass input point data through to the filter output.

If enabled, then the input point data is passed (for DELAUNAY output type) as point data; and passed (for ADJACENCY_GRAPH output type) as point data). In addition, if the number of output cells is equal to the number of input points (a common use case), then input point data is passed through (for VORONOI output type) as cell data. By default, passing input attribute point data is enabled.

◆ PassPointDataOn()

virtual void vtkVoronoiFlower3D::PassPointDataOn ( )

virtual

Indicate whether to pass input point data through to the filter output.

If enabled, then the input point data is passed (for DELAUNAY output type) as point data; and passed (for ADJACENCY_GRAPH output type) as point data). In addition, if the number of output cells is equal to the number of input points (a common use case), then input point data is passed through (for VORONOI output type) as cell data. By default, passing input attribute point data is enabled.

◆ PassPointDataOff()

virtual void vtkVoronoiFlower3D::PassPointDataOff ( )

virtual

Indicate whether to pass input point data through to the filter output.

If enabled, then the input point data is passed (for DELAUNAY output type) as point data; and passed (for ADJACENCY_GRAPH output type) as point data). In addition, if the number of output cells is equal to the number of input points (a common use case), then input point data is passed through (for VORONOI output type) as cell data. By default, passing input attribute point data is enabled.

◆ SetGenerateCellScalars()

virtual void vtkVoronoiFlower3D::SetGenerateCellScalars ( int )

virtual

Indicate whether to create a cell scalar array as part of the output.

Options include generating no scalars; using input point ids (and hence output hulls); using input region ids; using the number of faces produced by each Voronoi hull; defining scalars by execution thread ids; using primitive (i.e., output polygon id); or generating a random scalar value [0<=s<64] for each output primitive. By default point ids cell scalars are generated.

◆ GetGenerateCellScalars()

virtual int vtkVoronoiFlower3D::GetGenerateCellScalars ( )

virtual

Indicate whether to create a cell scalar array as part of the output.

Options include generating no scalars; using input point ids (and hence output hulls); using input region ids; using the number of faces produced by each Voronoi hull; defining scalars by execution thread ids; using primitive (i.e., output polygon id); or generating a random scalar value [0<=s<64] for each output primitive. By default point ids cell scalars are generated.

◆ SetGenerateCellScalarsToNone()

void vtkVoronoiFlower3D::SetGenerateCellScalarsToNone ( )

inline

Indicate whether to create a cell scalar array as part of the output.

Options include generating no scalars; using input point ids (and hence output hulls); using input region ids; using the number of faces produced by each Voronoi hull; defining scalars by execution thread ids; using primitive (i.e., output polygon id); or generating a random scalar value [0<=s<64] for each output primitive. By default point ids cell scalars are generated.

Definition at line 314 of file vtkVoronoiFlower3D.h.

◆ SetGenerateCellScalarsToPointIds()

void vtkVoronoiFlower3D::SetGenerateCellScalarsToPointIds ( )

inline

Indicate whether to create a cell scalar array as part of the output.

Options include generating no scalars; using input point ids (and hence output hulls); using input region ids; using the number of faces produced by each Voronoi hull; defining scalars by execution thread ids; using primitive (i.e., output polygon id); or generating a random scalar value [0<=s<64] for each output primitive. By default point ids cell scalars are generated.

Definition at line 315 of file vtkVoronoiFlower3D.h.

◆ SetGenerateCellScalarsToRegionIds()

void vtkVoronoiFlower3D::SetGenerateCellScalarsToRegionIds ( )

inline

Indicate whether to create a cell scalar array as part of the output.

Options include generating no scalars; using input point ids (and hence output hulls); using input region ids; using the number of faces produced by each Voronoi hull; defining scalars by execution thread ids; using primitive (i.e., output polygon id); or generating a random scalar value [0<=s<64] for each output primitive. By default point ids cell scalars are generated.

Definition at line 316 of file vtkVoronoiFlower3D.h.

◆ SetGenerateCellScalarsToNumberFaces()

void vtkVoronoiFlower3D::SetGenerateCellScalarsToNumberFaces ( )

inline

Indicate whether to create a cell scalar array as part of the output.

Options include generating no scalars; using input point ids (and hence output hulls); using input region ids; using the number of faces produced by each Voronoi hull; defining scalars by execution thread ids; using primitive (i.e., output polygon id); or generating a random scalar value [0<=s<64] for each output primitive. By default point ids cell scalars are generated.

Definition at line 317 of file vtkVoronoiFlower3D.h.

◆ SetGenerateCellScalarsToPrimIds()

void vtkVoronoiFlower3D::SetGenerateCellScalarsToPrimIds ( )

inline

Indicate whether to create a cell scalar array as part of the output.

Options include generating no scalars; using input point ids (and hence output hulls); using input region ids; using the number of faces produced by each Voronoi hull; defining scalars by execution thread ids; using primitive (i.e., output polygon id); or generating a random scalar value [0<=s<64] for each output primitive. By default point ids cell scalars are generated.

Definition at line 318 of file vtkVoronoiFlower3D.h.

◆ SetGenerateCellScalarsToThreadIds()

void vtkVoronoiFlower3D::SetGenerateCellScalarsToThreadIds ( )

inline

Indicate whether to create a cell scalar array as part of the output.

Options include generating no scalars; using input point ids (and hence output hulls); using input region ids; using the number of faces produced by each Voronoi hull; defining scalars by execution thread ids; using primitive (i.e., output polygon id); or generating a random scalar value [0<=s<64] for each output primitive. By default point ids cell scalars are generated.

Definition at line 319 of file vtkVoronoiFlower3D.h.

◆ SetGenerateCellScalarsToRandom()

void vtkVoronoiFlower3D::SetGenerateCellScalarsToRandom ( )

inline

Indicate whether to create a cell scalar array as part of the output.

Options include generating no scalars; using input point ids (and hence output hulls); using input region ids; using the number of faces produced by each Voronoi hull; defining scalars by execution thread ids; using primitive (i.e., output polygon id); or generating a random scalar value [0<=s<64] for each output primitive. By default point ids cell scalars are generated.

Definition at line 320 of file vtkVoronoiFlower3D.h.

◆ GetMergePoints()

virtual vtkTypeBool vtkVoronoiFlower3D::GetMergePoints ( )

virtual

Specify whether to merge (nearly) concident points in order to produce compatible output meshes.

Visualization of the output is possible without point merging; however subsequent operations that require compatible, connected meshes will not work. Note that point merging does require significant time to compute. By default this is on.

◆ SetMergePoints()

virtual void vtkVoronoiFlower3D::SetMergePoints ( vtkTypeBool )

virtual

Specify whether to merge (nearly) concident points in order to produce compatible output meshes.

Visualization of the output is possible without point merging; however subsequent operations that require compatible, connected meshes will not work. Note that point merging does require significant time to compute. By default this is on.

◆ MergePointsOn()

virtual void vtkVoronoiFlower3D::MergePointsOn ( )

virtual

Specify whether to merge (nearly) concident points in order to produce compatible output meshes.

Visualization of the output is possible without point merging; however subsequent operations that require compatible, connected meshes will not work. Note that point merging does require significant time to compute. By default this is on.

◆ MergePointsOff()

virtual void vtkVoronoiFlower3D::MergePointsOff ( )

virtual

Specify whether to merge (nearly) concident points in order to produce compatible output meshes.

Visualization of the output is possible without point merging; however subsequent operations that require compatible, connected meshes will not work. Note that point merging does require significant time to compute. By default this is on.

◆ FindHull()

vtkIdType vtkVoronoiFlower3D::FindHull ( double x[3] )

The following method–FindHull()–can be used to locate/query the Voronoi hull containing a point x (i.e., given that a Voronoi hull Vi is a region of closest proximity to the generating point x).

FindHull() returns the tile id/point id of a query location x. Note that if the query point x is outside of the bounds of the input point set, an id value <0 is returned.

Note: This method is only valid after the filter executes.

◆ SetPruneTolerance()

virtual void vtkVoronoiFlower3D::SetPruneTolerance ( double )

virtual

Specify a relative tolerance to determine which spokes (i.e., small hull facets) to prune.

See vtkVoronoiHull for more information.

◆ GetPruneTolerance()

virtual double vtkVoronoiFlower3D::GetPruneTolerance ( )

virtual

Specify a relative tolerance to determine which spokes (i.e., small hull facets) to prune.

See vtkVoronoiHull for more information.

◆ GetLocator()

vtkStaticPointLocator * vtkVoronoiFlower3D::GetLocator ( )

inline

Retrieve the internal locator to manually configure it, for example specifying the number of points per bucket.

This method is generally used for debugging or testing purposes.

Definition at line 365 of file vtkVoronoiFlower3D.h.

◆ SetValidate()

virtual void vtkVoronoiFlower3D::SetValidate ( vtkTypeBool )

virtual

Enable the validation of the Voronoi tesselation (which also affects the Delaunay triangulation and other output types if requested).

Enabling validation increases computation time. By default, validation is off. Validation is a necessary condition that must be satisfied to produce a valid output tessellation.

◆ GetValidate()

virtual vtkTypeBool vtkVoronoiFlower3D::GetValidate ( )

virtual

Enable the validation of the Voronoi tesselation (which also affects the Delaunay triangulation and other output types if requested).

Enabling validation increases computation time. By default, validation is off. Validation is a necessary condition that must be satisfied to produce a valid output tessellation.

◆ ValidateOn()

virtual void vtkVoronoiFlower3D::ValidateOn ( )

virtual

Enable the validation of the Voronoi tesselation (which also affects the Delaunay triangulation and other output types if requested).

Enabling validation increases computation time. By default, validation is off. Validation is a necessary condition that must be satisfied to produce a valid output tessellation.

◆ ValidateOff()

virtual void vtkVoronoiFlower3D::ValidateOff ( )

virtual

Enable the validation of the Voronoi tesselation (which also affects the Delaunay triangulation and other output types if requested).

Enabling validation increases computation time. By default, validation is off. Validation is a necessary condition that must be satisfied to produce a valid output tessellation.

◆ SetBatchSize()

virtual void vtkVoronoiFlower3D::SetBatchSize ( unsigned int )

virtual

Specify the number of input generating points in a batch, where a batch defines a contiguous subset of the input points operated on during threaded execution.

Generally this is only used for debugging or performance studies (since batch size affects the thread workload).

Default is 1000.

◆ GetBatchSize()

virtual unsigned int vtkVoronoiFlower3D::GetBatchSize ( )

virtual

Specify the number of input generating points in a batch, where a batch defines a contiguous subset of the input points operated on during threaded execution.

Generally this is only used for debugging or performance studies (since batch size affects the thread workload).

Default is 1000.

◆ GetBoundaryCapping()

virtual vtkTypeBool vtkVoronoiFlower3D::GetBoundaryCapping ( )

virtual

Specify whether to cap the surface net along the domain boundary.

This only applies if the OutputType==SURFACE_NET.

◆ SetBoundaryCapping()

virtual void vtkVoronoiFlower3D::SetBoundaryCapping ( vtkTypeBool )

virtual

Specify whether to cap the surface net along the domain boundary.

This only applies if the OutputType==SURFACE_NET.

◆ BoundaryCappingOn()

virtual void vtkVoronoiFlower3D::BoundaryCappingOn ( )

virtual

Specify whether to cap the surface net along the domain boundary.

This only applies if the OutputType==SURFACE_NET.

◆ BoundaryCappingOff()

virtual void vtkVoronoiFlower3D::BoundaryCappingOff ( )

virtual

Specify whether to cap the surface net along the domain boundary.

This only applies if the OutputType==SURFACE_NET.

◆ SetPointOfInterest()

virtual void vtkVoronoiFlower3D::SetPointOfInterest ( vtkIdType )

virtual

These methods are for debugging or instructional purposes.

When the point of interest is specified (i.e., set to a non-negative number) then the algorithm will process this single point (whose id is the PointOfInterest). When PointsOfInterest is specified through a supplied vtkIdTypeArray (this is in addition to the PointOfInterest), then only those hulls in the set (PointOfInterest + PointsOfInterestArray) will be produced. The maximum number of clips (the MaximumNumberOfHullClips) can be specified. If MaximumNumberOfHullClips=0, then the initial tile (single point within the bounding box) is produced; if =1 then the split with the closest point is produced; and so on. By default the PointOfInterest is set to (-1), and the number of clips is unlimited (i.e., MaximumNumberOfHullClips=VTK_ID_MAX and therefore automatically limited by the algorithm).

◆ GetPointOfInterest()

virtual vtkIdType vtkVoronoiFlower3D::GetPointOfInterest ( )

virtual

These methods are for debugging or instructional purposes.

When the point of interest is specified (i.e., set to a non-negative number) then the algorithm will process this single point (whose id is the PointOfInterest). When PointsOfInterest is specified through a supplied vtkIdTypeArray (this is in addition to the PointOfInterest), then only those hulls in the set (PointOfInterest + PointsOfInterestArray) will be produced. The maximum number of clips (the MaximumNumberOfHullClips) can be specified. If MaximumNumberOfHullClips=0, then the initial tile (single point within the bounding box) is produced; if =1 then the split with the closest point is produced; and so on. By default the PointOfInterest is set to (-1), and the number of clips is unlimited (i.e., MaximumNumberOfHullClips=VTK_ID_MAX and therefore automatically limited by the algorithm).

◆ SetPointsOfInterest()

virtual void vtkVoronoiFlower3D::SetPointsOfInterest ( vtkIdTypeArray * )

virtual

These methods are for debugging or instructional purposes.

When the point of interest is specified (i.e., set to a non-negative number) then the algorithm will process this single point (whose id is the PointOfInterest). When PointsOfInterest is specified through a supplied vtkIdTypeArray (this is in addition to the PointOfInterest), then only those hulls in the set (PointOfInterest + PointsOfInterestArray) will be produced. The maximum number of clips (the MaximumNumberOfHullClips) can be specified. If MaximumNumberOfHullClips=0, then the initial tile (single point within the bounding box) is produced; if =1 then the split with the closest point is produced; and so on. By default the PointOfInterest is set to (-1), and the number of clips is unlimited (i.e., MaximumNumberOfHullClips=VTK_ID_MAX and therefore automatically limited by the algorithm).

◆ GetPointsOfInterest()

virtual vtkIdTypeArray * vtkVoronoiFlower3D::GetPointsOfInterest ( )

virtual

These methods are for debugging or instructional purposes.

When the point of interest is specified (i.e., set to a non-negative number) then the algorithm will process this single point (whose id is the PointOfInterest). When PointsOfInterest is specified through a supplied vtkIdTypeArray (this is in addition to the PointOfInterest), then only those hulls in the set (PointOfInterest + PointsOfInterestArray) will be produced. The maximum number of clips (the MaximumNumberOfHullClips) can be specified. If MaximumNumberOfHullClips=0, then the initial tile (single point within the bounding box) is produced; if =1 then the split with the closest point is produced; and so on. By default the PointOfInterest is set to (-1), and the number of clips is unlimited (i.e., MaximumNumberOfHullClips=VTK_ID_MAX and therefore automatically limited by the algorithm).

◆ SetMaximumNumberOfHullClips()

virtual void vtkVoronoiFlower3D::SetMaximumNumberOfHullClips ( vtkIdType )

virtual

These methods are for debugging or instructional purposes.

When the point of interest is specified (i.e., set to a non-negative number) then the algorithm will process this single point (whose id is the PointOfInterest). When PointsOfInterest is specified through a supplied vtkIdTypeArray (this is in addition to the PointOfInterest), then only those hulls in the set (PointOfInterest + PointsOfInterestArray) will be produced. The maximum number of clips (the MaximumNumberOfHullClips) can be specified. If MaximumNumberOfHullClips=0, then the initial tile (single point within the bounding box) is produced; if =1 then the split with the closest point is produced; and so on. By default the PointOfInterest is set to (-1), and the number of clips is unlimited (i.e., MaximumNumberOfHullClips=VTK_ID_MAX and therefore automatically limited by the algorithm).

◆ GetMaximumNumberOfHullClips()

virtual vtkIdType vtkVoronoiFlower3D::GetMaximumNumberOfHullClips ( )

virtual

These methods are for debugging or instructional purposes.

When the point of interest is specified (i.e., set to a non-negative number) then the algorithm will process this single point (whose id is the PointOfInterest). When PointsOfInterest is specified through a supplied vtkIdTypeArray (this is in addition to the PointOfInterest), then only those hulls in the set (PointOfInterest + PointsOfInterestArray) will be produced. The maximum number of clips (the MaximumNumberOfHullClips) can be specified. If MaximumNumberOfHullClips=0, then the initial tile (single point within the bounding box) is produced; if =1 then the split with the closest point is produced; and so on. By default the PointOfInterest is set to (-1), and the number of clips is unlimited (i.e., MaximumNumberOfHullClips=VTK_ID_MAX and therefore automatically limited by the algorithm).

◆ GetGeneratePointScalars()

virtual int vtkVoronoiFlower3D::GetGeneratePointScalars ( )

virtual

Used internally to generate point scalars for the output.

When a point of interest is defined, then additional point scalars which are the radii of the Voronoi flower are produced, which is useful for debugging or instructional purposes.

◆ GetMaximumNumberOfPoints()

int vtkVoronoiFlower3D::GetMaximumNumberOfPoints ( )

inline

Return the maximum number of points in any Voronoi hull.

Note: This method is only valid after the filter executes.

Definition at line 448 of file vtkVoronoiFlower3D.h.

◆ GetMaximumNumberOfFaces()

int vtkVoronoiFlower3D::GetMaximumNumberOfFaces ( )

inline

Return the maximum number of faces in any Voronoi hull.

Note: This method is only valid after the filter executes.

Definition at line 455 of file vtkVoronoiFlower3D.h.

◆ GetNumberOfThreads()

int vtkVoronoiFlower3D::GetNumberOfThreads ( )

inline

Return the number of threads actually used during execution.

Note: This method is only valid after the filter executes.

Definition at line 462 of file vtkVoronoiFlower3D.h.

◆ GetNumberOfPrunes()

int vtkVoronoiFlower3D::GetNumberOfPrunes ( )

inline

Return the number of prunes performed during execution.

Note: This method is only valid after the filter executes.

Definition at line 469 of file vtkVoronoiFlower3D.h.

◆ GetMTime()

vtkMTimeType vtkVoronoiFlower3D::GetMTime ( )

overridevirtual

Get the MTime of this object also considering the locator.

Reimplemented from vtkObject.

◆ UpdateExecutionInformation()

template<typename T>

void vtkVoronoiFlower3D::UpdateExecutionInformation ( T * voro )

Method used to update this filter's execution parameters after the internal, templated instance of vtkVoronoiCore3D completes execution.

Definition at line 522 of file vtkVoronoiFlower3D.h.

◆ RequestData()

int vtkVoronoiFlower3D::RequestData	(	vtkInformation *	,
		vtkInformationVector **	,
		vtkInformationVector *	)

overrideprotectedvirtual

This is called within ProcessRequest when a request asks the algorithm to do its work.

This is the method you should override to do whatever the algorithm is designed to do. This happens during the final pass in the pipeline execution process.

Reimplemented from vtkDataSetAlgorithm.

◆ FillInputPortInformation()

int vtkVoronoiFlower3D::FillInputPortInformation	(	int	port,
		vtkInformation *	info )

overrideprotectedvirtual

Fill the input port information objects for this algorithm.

This is invoked by the first call to GetInputPortInformation for each port so subclasses can specify what they can handle.

Reimplemented from vtkDataSetAlgorithm.

◆ FillOutputPortInformation()

int vtkVoronoiFlower3D::FillOutputPortInformation	(	int	port,
		vtkInformation *	info )

overrideprotectedvirtual

Fill the output port information objects for this algorithm.

This is invoked by the first call to GetOutputPortInformation for each port so subclasses can specify what they can handle.

Reimplemented from vtkDataSetAlgorithm.

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

Filters/Meshing/vtkVoronoiFlower3D.h

Public Types

Public Member Functions

Protected Member Functions

Additional Inherited Members

Detailed Description

Member Typedef Documentation

◆ Superclass

Member Enumeration Documentation

◆ OutputTypeOptions

◆ GenerateCellScalarsStrategy

◆ GeneratePointScalarsStrategy

Constructor & Destructor Documentation

◆ vtkVoronoiFlower3D()

◆ ~vtkVoronoiFlower3D()

Member Function Documentation

◆ New()

◆ IsTypeOf()

◆ IsA()

◆ SafeDownCast()

◆ NewInstanceInternal()

◆ NewInstance()

◆ PrintSelf()

◆ SetOutputType()

◆ GetOutputType()

◆ SetOutputTypeToVoronoi()

◆ SetOutputTypeToDelaunay()

◆ SetOutputTypeToAdjacencyGraph()

◆ SetOutputTypeToPolygonalComplex()

◆ SetOutputTypeToBoundary()

◆ SetOutputTypeToSurfaceNet()

◆ SetOutputTypeToSpeedTest()

◆ SetPadding()

◆ GetPadding()

◆ SetPassPointData()

◆ GetPassPointData()

◆ PassPointDataOn()

◆ PassPointDataOff()

◆ SetGenerateCellScalars()

◆ GetGenerateCellScalars()

◆ SetGenerateCellScalarsToNone()

◆ SetGenerateCellScalarsToPointIds()

◆ SetGenerateCellScalarsToRegionIds()

◆ SetGenerateCellScalarsToNumberFaces()

◆ SetGenerateCellScalarsToPrimIds()

◆ SetGenerateCellScalarsToThreadIds()

◆ SetGenerateCellScalarsToRandom()

◆ GetMergePoints()

◆ SetMergePoints()

◆ MergePointsOn()

◆ MergePointsOff()

◆ FindHull()

◆ SetPruneTolerance()

◆ GetPruneTolerance()

◆ GetLocator()

◆ SetValidate()

◆ GetValidate()

◆ ValidateOn()

◆ ValidateOff()

◆ SetBatchSize()

◆ GetBatchSize()

◆ GetBoundaryCapping()

◆ SetBoundaryCapping()

◆ BoundaryCappingOn()

◆ BoundaryCappingOff()

◆ SetPointOfInterest()

◆ GetPointOfInterest()

◆ SetPointsOfInterest()

◆ GetPointsOfInterest()

◆ SetMaximumNumberOfHullClips()

◆ GetMaximumNumberOfHullClips()

◆ GetGeneratePointScalars()

◆ GetMaximumNumberOfPoints()

◆ GetMaximumNumberOfFaces()

◆ GetNumberOfThreads()

◆ GetNumberOfPrunes()

◆ GetMTime()

◆ UpdateExecutionInformation()

◆ RequestData()

◆ FillInputPortInformation()

◆ FillOutputPortInformation()