vtkYoungsMaterialInterface - reconstructs material interfaces More...

Inheritance diagram for Kitware.VTK.vtkYoungsMaterialInterface:

Collaboration diagram for Kitware.VTK.vtkYoungsMaterialInterface:

Public Types
enum	MAX_CELL_POINTS_WrapperEnum { MAX_CELL_POINTS = 256 }
	Removes all meterials previously added. More...

Public Member Functions
	vtkYoungsMaterialInterface (IntPtr rawCppThis, bool callDisposalMethod, bool strong)
	Automatically generated constructor - called from generated code. DO NOT call directly.
	vtkYoungsMaterialInterface ()
	*Undocumented Block
virtual void	AxisSymetricOff ()
	Turns on/off AxisSymetric computation of 2D interfaces. in axis symetric mode, 2D meshes are understood as volumes of revolution.
virtual void	AxisSymetricOn ()
	Turns on/off AxisSymetric computation of 2D interfaces. in axis symetric mode, 2D meshes are understood as volumes of revolution.
virtual void	FillMaterialOff ()
	When FillMaterial is set to 1, the volume containing material is output and not only the interface surface.
virtual void	FillMaterialOn ()
	When FillMaterial is set to 1, the volume containing material is output and not only the interface surface.
virtual int	GetAxisSymetric ()
	Turns on/off AxisSymetric computation of 2D interfaces. in axis symetric mode, 2D meshes are understood as volumes of revolution.
virtual int	GetFillMaterial ()
	When FillMaterial is set to 1, the volume containing material is output and not only the interface surface.
virtual int	GetInverseNormal ()
	Set/Get wether the normal vector has to be flipped.
virtual int	GetNumberOfMaterials ()
	Sets/Gets the number of materials.
virtual int	GetOnionPeel ()
	Set/Get OnionPeel flag. if this flag is on, the normal vector of the first material (which depends on material ordering) is used for all materials.
virtual int	GetReverseMaterialOrder ()
	If this flag is on, material order in reversed. Otherwise, materials are sorted in ascending order depending on the given ordering array.
virtual int	GetTwoMaterialsOptimization ()
	Triggers some additional optimizations for cells containing only two materials. This option might produce different result than expected if the sum of volume fractions is not 1.
virtual int	GetUseFractionAsDistance ()
	when UseFractionAsDistance is true, the volume fraction is interpreted as the distance of the cutting plane from the origin. in axis symetric mode, 2D meshes are understood as volumes of revolution.
virtual double[]	GetVolumeFractionRange ()
	Set/Get minimum and maximum volume fraction value. if a material fills a volume above the minimum value, the material is considered to be void. if a material fills a volume fraction beyond the maximum value it is considered as filling the whole volume.
virtual void	GetVolumeFractionRange (IntPtr data)
	Set/Get minimum and maximum volume fraction value. if a material fills a volume above the minimum value, the material is considered to be void. if a material fills a volume fraction beyond the maximum value it is considered as filling the whole volume.
virtual void	InverseNormalOff ()
	Set/Get wether the normal vector has to be flipped.
virtual void	InverseNormalOn ()
	Set/Get wether the normal vector has to be flipped.
override int	IsA (string type)
	*Undocumented Block
new vtkYoungsMaterialInterface	NewInstance ()
	*Undocumented Block
virtual void	OnionPeelOff ()
	Set/Get OnionPeel flag. if this flag is on, the normal vector of the first material (which depends on material ordering) is used for all materials.
virtual void	OnionPeelOn ()
	Set/Get OnionPeel flag. if this flag is on, the normal vector of the first material (which depends on material ordering) is used for all materials.
virtual void	RemoveAllMaterials ()
	Removes all meterials previously added.
virtual void	ReverseMaterialOrderOff ()
	If this flag is on, material order in reversed. Otherwise, materials are sorted in ascending order depending on the given ordering array.
virtual void	ReverseMaterialOrderOn ()
	If this flag is on, material order in reversed. Otherwise, materials are sorted in ascending order depending on the given ordering array.
virtual void	SetAxisSymetric (int _arg)
	Turns on/off AxisSymetric computation of 2D interfaces. in axis symetric mode, 2D meshes are understood as volumes of revolution.
virtual void	SetFillMaterial (int _arg)
	When FillMaterial is set to 1, the volume containing material is output and not only the interface surface.
virtual void	SetInverseNormal (int _arg)
	Set/Get wether the normal vector has to be flipped.
virtual void	SetMaterialArrays (int i, string volumeFraction, string interfaceNormal, string materialOrdering)
	Set ith Material arrays to be used as volume fraction, interface normal and material ordering. Each parameter name a cell array.
virtual void	SetMaterialNormalArray (int i, string normal)
	Set ith Material arrays to be used as volume fraction, interface normal and material ordering. Each parameter name a cell array.
virtual void	SetMaterialOrderingArray (int i, string ordering)
	Set ith Material arrays to be used as volume fraction, interface normal and material ordering. Each parameter name a cell array.
virtual void	SetMaterialVolumeFractionArray (int i, string volume)
	Set ith Material arrays to be used as volume fraction, interface normal and material ordering. Each parameter name a cell array.
virtual void	SetNumberOfMaterials (int n)
	Sets/Gets the number of materials.
virtual void	SetOnionPeel (int _arg)
	Set/Get OnionPeel flag. if this flag is on, the normal vector of the first material (which depends on material ordering) is used for all materials.
virtual void	SetReverseMaterialOrder (int _arg)
	If this flag is on, material order in reversed. Otherwise, materials are sorted in ascending order depending on the given ordering array.
virtual void	SetTwoMaterialsOptimization (int _arg)
	Triggers some additional optimizations for cells containing only two materials. This option might produce different result than expected if the sum of volume fractions is not 1.
virtual void	SetUseFractionAsDistance (int _arg)
	when UseFractionAsDistance is true, the volume fraction is interpreted as the distance of the cutting plane from the origin. in axis symetric mode, 2D meshes are understood as volumes of revolution.
virtual void	SetVolumeFractionRange (double _arg1, double _arg2)
	Set/Get minimum and maximum volume fraction value. if a material fills a volume above the minimum value, the material is considered to be void. if a material fills a volume fraction beyond the maximum value it is considered as filling the whole volume.
void	SetVolumeFractionRange (IntPtr _arg)
	Set/Get minimum and maximum volume fraction value. if a material fills a volume above the minimum value, the material is considered to be void. if a material fills a volume fraction beyond the maximum value it is considered as filling the whole volume.
virtual void	TwoMaterialsOptimizationOff ()
	Triggers some additional optimizations for cells containing only two materials. This option might produce different result than expected if the sum of volume fractions is not 1.
virtual void	TwoMaterialsOptimizationOn ()
	Triggers some additional optimizations for cells containing only two materials. This option might produce different result than expected if the sum of volume fractions is not 1.
virtual void	UseFractionAsDistanceOff ()
	when UseFractionAsDistance is true, the volume fraction is interpreted as the distance of the cutting plane from the origin. in axis symetric mode, 2D meshes are understood as volumes of revolution.
virtual void	UseFractionAsDistanceOn ()
	when UseFractionAsDistance is true, the volume fraction is interpreted as the distance of the cutting plane from the origin. in axis symetric mode, 2D meshes are understood as volumes of revolution.
Public Member Functions inherited from Kitware.VTK.vtkMultiBlockDataSetAlgorithm
	vtkMultiBlockDataSetAlgorithm (IntPtr rawCppThis, bool callDisposalMethod, bool strong)
	Automatically generated constructor - called from generated code. DO NOT call directly.
	vtkMultiBlockDataSetAlgorithm ()
	*Undocumented Block
vtkMultiBlockDataSet	GetOutput ()
	Get the output data object for a port on this algorithm.
vtkMultiBlockDataSet	GetOutput (int arg0)
	Get the output data object for a port on this algorithm.
void	SetInput (vtkDataObject arg0)
	Set an input of this algorithm. You should not override these methods because they are not the only way to connect a pipeline. Note that these methods support old-style pipeline connections. When writing new code you should use the more general vtkAlgorithm::SetInputConnection(). These methods transform the input index to the input port index, not an index of a connection within a single port.
void	SetInput (int arg0, vtkDataObject arg1)
	Set an input of this algorithm. You should not override these methods because they are not the only way to connect a pipeline. Note that these methods support old-style pipeline connections. When writing new code you should use the more general vtkAlgorithm::SetInputConnection(). These methods transform the input index to the input port index, not an index of a connection within a single port.
Public Member Functions inherited from Kitware.VTK.vtkAlgorithm
	vtkAlgorithm (IntPtr rawCppThis, bool callDisposalMethod, bool strong)
	Automatically generated constructor - called from generated code. DO NOT call directly.
	vtkAlgorithm ()
	*Undocumented Block
override void	Register (vtkObjectBase o)
	Participate in garbage collection.
virtual void	AbortExecuteOff ()
	Set/Get the AbortExecute flag for the process object. Process objects may handle premature termination of execution in different ways.
virtual void	AbortExecuteOn ()
	Set/Get the AbortExecute flag for the process object. Process objects may handle premature termination of execution in different ways.
virtual void	AddInputConnection (int port, vtkAlgorithmOutput input)
	Add a connection to the given input port index. See SetInputConnection() for details on input connections. This method is the complement to RemoveInputConnection() in that it adds only the connection specified without affecting other connections. Typical usage is.
virtual void	AddInputConnection (vtkAlgorithmOutput input)
	Add a connection to the given input port index. See SetInputConnection() for details on input connections. This method is the complement to RemoveInputConnection() in that it adds only the connection specified without affecting other connections. Typical usage is.
virtual double	ComputePriority ()
	Returns the priority of the piece described by the current update extent. The priority is a number between 0.0 and 1.0 with 0 meaning skippable (REQUEST_DATA not needed) and 1.0 meaning important.
void	ConvertTotalInputToPortConnection (int ind, ref int port, ref int conn)
	Convenience routine to convert from a linear ordering of input connections to a port/connection pair.
virtual int	GetAbortExecute ()
	Set/Get the AbortExecute flag for the process object. Process objects may handle premature termination of execution in different ways.
virtual uint	GetErrorCode ()
	The error code contains a possible error that occured while reading or writing the file.
vtkExecutive	GetExecutive ()
	Get this algorithm's executive. If it has none, a default executive will be created.
virtual vtkInformation	GetInformation ()
	Set/Get the information object associated with this algorithm.
vtkInformation	GetInputArrayInformation (int idx)
	Get the info object for the specified input array to this algorithm.
vtkAlgorithmOutput	GetInputConnection (int port, int index)
	Get the algorithm output port connected to an input port.
vtkDataObject	GetInputDataObject (int port, int connection)
	Get the data object that will contain the algorithm input for the given port and given connection.
vtkInformation	GetInputPortInformation (int port)
	Get the information object associated with an input port. There is one input port per kind of input to the algorithm. Each input port tells executives what kind of data and downstream requests this algorithm can handle for that input.
int	GetNumberOfInputConnections (int port)
	Get the number of inputs currently connected to a 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.
vtkDataObject	GetOutputDataObject (int port)
	Get the data object that will contain the algorithm output for the given port.
vtkAlgorithmOutput	GetOutputPort (int index)
	Get a proxy object corresponding to the given output port of this algorithm. The proxy object can be passed to another algorithm's SetInputConnection(), AddInputConnection(), and RemoveInputConnection() methods to modify pipeline connectivity.
vtkAlgorithmOutput	GetOutputPort ()
	Get a proxy object corresponding to the given output port of this algorithm. The proxy object can be passed to another algorithm's SetInputConnection(), AddInputConnection(), and RemoveInputConnection() methods to modify pipeline connectivity.
vtkInformation	GetOutputPortInformation (int port)
	Get the information object associated with an output port. There is one output port per output from the algorithm. Each output port tells executives what kind of upstream requests this algorithm can handle for that output.
virtual double	GetProgress ()
	Set/Get the execution progress of a process object.
virtual double	GetProgressMaxValue ()
	Set/Get the execution progress of a process object.
virtual double	GetProgressMinValue ()
	Set/Get the execution progress of a process object.
virtual string	GetProgressText ()
	Set the current text message associated with the progress state. This may be used by a calling process/GUI. Note: Because SetProgressText() is called from inside RequestData() it does not modify the algorithm object. Algorithms are not allowed to modify themselves from inside RequestData().
virtual int	GetReleaseDataFlag ()
	Turn release data flag on or off for all output ports.
int	GetTotalNumberOfInputConnections ()
	Get the total number of inputs for this algorithm.
int	HasExecutive ()
	Check whether this algorithm has an assigned executive. This will NOT create a default executive.
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. The default implementation is empty. Returns 1 on success, 0 on failure. When can be either vtkExecutive::BeforeForward or vtkExecutive::AfterForward.
int	ProcessRequest (vtkInformation request, vtkCollection inInfo, vtkInformationVector outInfo)
	Version of ProcessRequest() that is wrapped. This converts the collection to an array and calls the other version.
void	ReleaseDataFlagOff ()
	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	RemoveAllInputs ()
	Remove all the input data.
virtual void	RemoveInputConnection (int port, vtkAlgorithmOutput input)
	Remove a connection from the given input port index. See SetInputConnection() for details on input connection. This method is the complement to AddInputConnection() in that it removes only the connection specified without affecting other connections. Typical usage is.
virtual void	SetAbortExecute (int _arg)
	Set/Get the AbortExecute flag for the process object. Process objects may handle premature termination of execution in different ways.
virtual void	SetExecutive (vtkExecutive executive)
	Set this algorithm's executive. This algorithm is removed from any executive to which it has previously been assigned and then assigned to the given executive.
virtual void	SetInformation (vtkInformation arg0)
	Set/Get the information object associated with this algorithm.
virtual void	SetInputArrayToProcess (int idx, int port, int connection, int fieldAssociation, string name)
	Set the input data arrays that this algorithm will process. Specifically the idx array that this algorithm will process (starting from 0) is the array on port, connection with the specified association and name or attribute type (such as SCALARS). The fieldAssociation refers to which field in the data object the array is stored. See vtkDataObject::FieldAssociations for detail.
virtual void	SetInputArrayToProcess (int idx, int port, int connection, int fieldAssociation, int fieldAttributeType)
	Set the input data arrays that this algorithm will process. Specifically the idx array that this algorithm will process (starting from 0) is the array on port, connection with the specified association and name or attribute type (such as SCALARS). The fieldAssociation refers to which field in the data object the array is stored. See vtkDataObject::FieldAssociations for detail.
virtual void	SetInputArrayToProcess (int idx, vtkInformation info)
	Set the input data arrays that this algorithm will process. Specifically the idx array that this algorithm will process (starting from 0) is the array on port, connection with the specified association and name or attribute type (such as SCALARS). The fieldAssociation refers to which field in the data object the array is stored. See vtkDataObject::FieldAssociations for detail.
virtual void	SetInputArrayToProcess (int idx, int port, int connection, string fieldAssociation, string attributeTypeorName)
	String based versions of SetInputArrayToProcess(). Because fieldAssociation and fieldAttributeType are enums, they cannot be easily accessed from scripting language. These methods provides an easy and safe way of passing association and attribute type information. Field association is one of the following:
virtual void	SetInputConnection (int port, vtkAlgorithmOutput input)
	Set the connection for the given input port index. Each input port of a filter has a specific purpose. A port may have zero or more connections and the required number is specified by each filter. Setting the connection with this method removes all other connections from the port. To add more than one connection use AddInputConnection().
virtual void	SetInputConnection (vtkAlgorithmOutput input)
	Set the connection for the given input port index. Each input port of a filter has a specific purpose. A port may have zero or more connections and the required number is specified by each filter. Setting the connection with this method removes all other connections from the port. To add more than one connection use AddInputConnection().
virtual void	SetProgress (double _arg)
	Set/Get the execution progress of a process object.
void	SetProgressText (string ptext)
	Set the current text message associated with the progress state. This may be used by a calling process/GUI. Note: Because SetProgressText() is called from inside RequestData() it does not modify the algorithm object. Algorithms are not allowed to modify themselves from inside RequestData().
virtual void	SetReleaseDataFlag (int arg0)
	Turn release data flag on or off for all output ports.
virtual void	Update ()
	Bring this algorithm's outputs up-to-date.
int	UpdateExtentIsEmpty (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. The source uses this call to determine whether to call Execute.
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. The source uses this call to determine whether to call Execute.
virtual void	UpdateInformation ()
	Backward compatibility method to invoke UpdateInformation on executive.
void	UpdateProgress (double amount)
	Update the progress of the process object. If a ProgressMethod exists, executes it. Then set the Progress ivar to amount. The parameter amount should range between (0,1).
virtual void	UpdateWholeExtent ()
	Bring this algorithm's outputs up-to-date.
Public Member Functions inherited from Kitware.VTK.vtkObject
	vtkObject (IntPtr rawCppThis, bool callDisposalMethod, bool strong)
	Automatically generated constructor - called from generated code. DO NOT call directly.
	vtkObject ()
	Create an object with Debug turned off, modified time initialized to zero, and reference counting on.
uint	AddObserver (uint arg0, vtkCommand arg1, float priority)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
uint	AddObserver (string arg0, vtkCommand arg1, float priority)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
virtual void	DebugOff ()
	Turn debugging output off.
virtual void	DebugOn ()
	Turn debugging output on.
vtkCommand	GetCommand (uint tag)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
byte	GetDebug ()
	Get the value of the debug flag.
virtual uint	GetMTime ()
	Return this object's modified time.
int	HasObserver (uint arg0, vtkCommand arg1)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
int	HasObserver (string arg0, vtkCommand arg1)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
int	HasObserver (uint arg0)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
int	HasObserver (string arg0)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
int	InvokeEvent (uint arg0, IntPtr callData)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
int	InvokeEvent (string arg0, IntPtr callData)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
int	InvokeEvent (uint arg0)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
int	InvokeEvent (string arg0)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
virtual void	Modified ()
	Update the modification time for this object. Many filters rely on the modification time to determine if they need to recompute their data. The modification time is a unique monotonically increasing unsigned long integer.
void	RemoveAllObservers ()
	This is a global flag that controls whether any debug, warning or error messages are displayed.
void	RemoveObserver (vtkCommand arg0)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
void	RemoveObserver (uint tag)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
void	RemoveObservers (uint arg0, vtkCommand arg1)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
void	RemoveObservers (string arg0, vtkCommand arg1)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
void	RemoveObservers (uint arg0)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
void	RemoveObservers (string arg0)
	This is a global flag that controls whether any debug, warning or error messages are displayed.
void	SetDebug (byte debugFlag)
	Set the value of the debug flag. A non-zero value turns debugging on.
override string	ToString ()
	Returns the result of calling vtkObject::Print as a C# string.
delegate void	vtkObjectEventHandler (vtkObject sender, vtkObjectEventArgs e)
	Generic signature for all vtkObject events.
void	RemoveAllHandlersForAllEvents ()
	Call RemoveAllHandlers on each non-null vtkObjectEventRelay. TODO: This method needs to get called by the generated Dispose. Make that happen...
Public Member Functions inherited from Kitware.VTK.vtkObjectBase
	vtkObjectBase (IntPtr rawCppThis, bool callDisposalMethod, bool strong)
	Automatically generated constructor - called from generated code. DO NOT call directly.
	vtkObjectBase ()
	Create an object with Debug turned off, modified time initialized to zero, and reference counting on.
virtual void	FastDelete ()
	Delete a reference to this object. This version will not invoke garbage collection and can potentially leak the object if it is part of a reference loop. Use this method only when it is known that the object has another reference and would not be collected if a full garbage collection check were done.
string	GetClassName ()
	Return the class name as a string. This method is defined in all subclasses of vtkObjectBase with the vtkTypeMacro found in vtkSetGet.h.
int	GetReferenceCount ()
	Return the current reference count of this object.
void	SetReferenceCount (int arg0)
	Sets the reference count. (This is very dangerous, use with care.)

Static Public Member Functions
static new vtkYoungsMaterialInterface	New ()
	*Undocumented Block
static new int	IsTypeOf (string type)
	*Undocumented Block
static new vtkYoungsMaterialInterface	SafeDownCast (vtkObjectBase o)
	*Undocumented Block

Public Attributes
new const string	MRFullTypeName = "Kitware.VTK.vtkYoungsMaterialInterface"
	Automatically generated type registration mechanics.
Public Attributes inherited from Kitware.VTK.vtkMultiBlockDataSetAlgorithm
Public Attributes inherited from Kitware.VTK.vtkAlgorithm
Public Attributes inherited from Kitware.VTK.vtkObject
Public Attributes inherited from Kitware.VTK.vtkObjectBase
Public Attributes inherited from Kitware.VTK.WrappedObject
const string	vtkChartsEL_dll = "libKitware.VTK.vtkCharts.Unmanaged.so"
	Export layer functions for 'vtkCharts' are exported from the DLL named by the value of this variable.
const string	vtkCommonEL_dll = "libKitware.VTK.vtkCommon.Unmanaged.so"
	Export layer functions for 'vtkCommon' are exported from the DLL named by the value of this variable.
const string	vtkFilteringEL_dll = "libKitware.VTK.vtkFiltering.Unmanaged.so"
	Export layer functions for 'vtkFiltering' are exported from the DLL named by the value of this variable.
const string	vtkGenericFilteringEL_dll = "libKitware.VTK.vtkGenericFiltering.Unmanaged.so"
	Export layer functions for 'vtkGenericFiltering' are exported from the DLL named by the value of this variable.
const string	vtkGeovisEL_dll = "libKitware.VTK.vtkGeovis.Unmanaged.so"
	Export layer functions for 'vtkGeovis' are exported from the DLL named by the value of this variable.
const string	vtkGraphicsEL_dll = "libKitware.VTK.vtkGraphics.Unmanaged.so"
	Export layer functions for 'vtkGraphics' are exported from the DLL named by the value of this variable.
const string	vtkHybridEL_dll = "libKitware.VTK.vtkHybrid.Unmanaged.so"
	Export layer functions for 'vtkHybrid' are exported from the DLL named by the value of this variable.
const string	vtkIOEL_dll = "libKitware.VTK.vtkIO.Unmanaged.so"
	Export layer functions for 'vtkIO' are exported from the DLL named by the value of this variable.
const string	vtkImagingEL_dll = "libKitware.VTK.vtkImaging.Unmanaged.so"
	Export layer functions for 'vtkImaging' are exported from the DLL named by the value of this variable.
const string	vtkInfovisEL_dll = "libKitware.VTK.vtkInfovis.Unmanaged.so"
	Export layer functions for 'vtkInfovis' are exported from the DLL named by the value of this variable.
const string	vtkParallelEL_dll = "libKitware.VTK.vtkParallel.Unmanaged.so"
	Export layer functions for 'vtkParallel' are exported from the DLL named by the value of this variable.
const string	vtkRenderingEL_dll = "libKitware.VTK.vtkRendering.Unmanaged.so"
	Export layer functions for 'vtkRendering' are exported from the DLL named by the value of this variable.
const string	vtkViewsEL_dll = "libKitware.VTK.vtkViews.Unmanaged.so"
	Export layer functions for 'vtkViews' are exported from the DLL named by the value of this variable.
const string	vtkVolumeRenderingEL_dll = "libKitware.VTK.vtkVolumeRendering.Unmanaged.so"
	Export layer functions for 'vtkVolumeRendering' are exported from the DLL named by the value of this variable.
const string	vtkWidgetsEL_dll = "libKitware.VTK.vtkWidgets.Unmanaged.so"
	Export layer functions for 'vtkWidgets' are exported from the DLL named by the value of this variable.

Static Public Attributes
static new readonly string	MRClassNameKey = "26vtkYoungsMaterialInterface"
	Automatically generated type registration mechanics.
Static Public Attributes inherited from Kitware.VTK.vtkMultiBlockDataSetAlgorithm
Static Public Attributes inherited from Kitware.VTK.vtkAlgorithm
Static Public Attributes inherited from Kitware.VTK.vtkObject
Static Public Attributes inherited from Kitware.VTK.vtkObjectBase

Protected Member Functions
override void	Dispose (bool disposing)
	Automatically generated protected Dispose method - called from public Dispose or the C# destructor. DO NOT call directly.

Static Private Member Functions
static	vtkYoungsMaterialInterface ()
	Automatically generated type registration mechanics.

Detailed Description

vtkYoungsMaterialInterface - reconstructs material interfaces

Description Reconstructs material interfaces from a mesh containing mixed cells (where several materials are mixed) this implementation is based on the youngs algorithm, generalized to arbitrary cell types and works on both 2D and 3D meshes. the main advantage of the youngs algorithm is it guarantees the material volume correctness. for 2D meshes, the AxisSymetric flag allows to switch between a pure 2D (plannar) algorithm and an axis symetric 2D algorithm handling volumes of revolution.

Thanks This file is part of the generalized Youngs material interface reconstruction algorithm contributed by <br> CEA/DIF - Commissariat a l'Energie Atomique, Centre DAM Ile-De-France <br> BP12, F-91297 Arpajon, France. <br> Implementation by Thierry Carrard (thier.nosp@m.ry.c.nosp@m.arrar.nosp@m.d@ce.nosp@m.a.fr)

Member Enumeration Documentation

enum Kitware.VTK.vtkYoungsMaterialInterface.MAX_CELL_POINTS_WrapperEnum

Removes all meterials previously added.

Enumerator:

MAX_CELL_POINTS

enum member

Constructor & Destructor Documentation

static Kitware.VTK.vtkYoungsMaterialInterface.vtkYoungsMaterialInterface ( )

staticprivate

Automatically generated type registration mechanics.

Kitware.VTK.vtkYoungsMaterialInterface.vtkYoungsMaterialInterface	(	IntPtr	rawCppThis,
		bool	callDisposalMethod,
		bool	strong
	)

Automatically generated constructor - called from generated code. DO NOT call directly.

Kitware.VTK.vtkYoungsMaterialInterface.vtkYoungsMaterialInterface ( )

*Undocumented Block

Member Function Documentation

virtual void Kitware.VTK.vtkYoungsMaterialInterface.AxisSymetricOff ( )

virtual

Turns on/off AxisSymetric computation of 2D interfaces. in axis symetric mode, 2D meshes are understood as volumes of revolution.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.AxisSymetricOn ( )

virtual

Turns on/off AxisSymetric computation of 2D interfaces. in axis symetric mode, 2D meshes are understood as volumes of revolution.

override void Kitware.VTK.vtkYoungsMaterialInterface.Dispose ( bool disposing )

protected

Automatically generated protected Dispose method - called from public Dispose or the C# destructor. DO NOT call directly.

Reimplemented from Kitware.VTK.vtkMultiBlockDataSetAlgorithm.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.FillMaterialOff ( )

virtual

When FillMaterial is set to 1, the volume containing material is output and not only the interface surface.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.FillMaterialOn ( )

virtual

When FillMaterial is set to 1, the volume containing material is output and not only the interface surface.

virtual int Kitware.VTK.vtkYoungsMaterialInterface.GetAxisSymetric ( )

virtual

Turns on/off AxisSymetric computation of 2D interfaces. in axis symetric mode, 2D meshes are understood as volumes of revolution.

virtual int Kitware.VTK.vtkYoungsMaterialInterface.GetFillMaterial ( )

virtual

When FillMaterial is set to 1, the volume containing material is output and not only the interface surface.

virtual int Kitware.VTK.vtkYoungsMaterialInterface.GetInverseNormal ( )

virtual

Set/Get wether the normal vector has to be flipped.

virtual int Kitware.VTK.vtkYoungsMaterialInterface.GetNumberOfMaterials ( )

virtual

Sets/Gets the number of materials.

virtual int Kitware.VTK.vtkYoungsMaterialInterface.GetOnionPeel ( )

virtual

Set/Get OnionPeel flag. if this flag is on, the normal vector of the first material (which depends on material ordering) is used for all materials.

virtual int Kitware.VTK.vtkYoungsMaterialInterface.GetReverseMaterialOrder ( )

virtual

If this flag is on, material order in reversed. Otherwise, materials are sorted in ascending order depending on the given ordering array.

virtual int Kitware.VTK.vtkYoungsMaterialInterface.GetTwoMaterialsOptimization ( )

virtual

Triggers some additional optimizations for cells containing only two materials. This option might produce different result than expected if the sum of volume fractions is not 1.

virtual int Kitware.VTK.vtkYoungsMaterialInterface.GetUseFractionAsDistance ( )

virtual

when UseFractionAsDistance is true, the volume fraction is interpreted as the distance of the cutting plane from the origin. in axis symetric mode, 2D meshes are understood as volumes of revolution.

virtual double [] Kitware.VTK.vtkYoungsMaterialInterface.GetVolumeFractionRange ( )

virtual

Set/Get minimum and maximum volume fraction value. if a material fills a volume above the minimum value, the material is considered to be void. if a material fills a volume fraction beyond the maximum value it is considered as filling the whole volume.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.GetVolumeFractionRange ( IntPtr data )

virtual

Set/Get minimum and maximum volume fraction value. if a material fills a volume above the minimum value, the material is considered to be void. if a material fills a volume fraction beyond the maximum value it is considered as filling the whole volume.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.InverseNormalOff ( )

virtual

Set/Get wether the normal vector has to be flipped.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.InverseNormalOn ( )

virtual

Set/Get wether the normal vector has to be flipped.

override int Kitware.VTK.vtkYoungsMaterialInterface.IsA ( string type )

virtual

*Undocumented Block

Reimplemented from Kitware.VTK.vtkMultiBlockDataSetAlgorithm.

static new int Kitware.VTK.vtkYoungsMaterialInterface.IsTypeOf ( string type )

static

*Undocumented Block

Reimplemented from Kitware.VTK.vtkMultiBlockDataSetAlgorithm.

static new vtkYoungsMaterialInterface Kitware.VTK.vtkYoungsMaterialInterface.New ( )

static

*Undocumented Block

Reimplemented from Kitware.VTK.vtkMultiBlockDataSetAlgorithm.

new vtkYoungsMaterialInterface Kitware.VTK.vtkYoungsMaterialInterface.NewInstance ( )

*Undocumented Block

Reimplemented from Kitware.VTK.vtkMultiBlockDataSetAlgorithm.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.OnionPeelOff ( )

virtual

Set/Get OnionPeel flag. if this flag is on, the normal vector of the first material (which depends on material ordering) is used for all materials.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.OnionPeelOn ( )

virtual

Set/Get OnionPeel flag. if this flag is on, the normal vector of the first material (which depends on material ordering) is used for all materials.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.RemoveAllMaterials ( )

virtual

Removes all meterials previously added.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.ReverseMaterialOrderOff ( )

virtual

If this flag is on, material order in reversed. Otherwise, materials are sorted in ascending order depending on the given ordering array.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.ReverseMaterialOrderOn ( )

virtual

If this flag is on, material order in reversed. Otherwise, materials are sorted in ascending order depending on the given ordering array.

static new vtkYoungsMaterialInterface Kitware.VTK.vtkYoungsMaterialInterface.SafeDownCast ( vtkObjectBase o )

static

*Undocumented Block

Reimplemented from Kitware.VTK.vtkMultiBlockDataSetAlgorithm.

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virtual void Kitware.VTK.vtkYoungsMaterialInterface.SetAxisSymetric ( int _arg )

virtual

Turns on/off AxisSymetric computation of 2D interfaces. in axis symetric mode, 2D meshes are understood as volumes of revolution.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.SetFillMaterial ( int _arg )

virtual

When FillMaterial is set to 1, the volume containing material is output and not only the interface surface.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.SetInverseNormal ( int _arg )

virtual

Set/Get wether the normal vector has to be flipped.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.SetMaterialArrays	(	int	i,
		string	volumeFraction,
		string	interfaceNormal,
		string	materialOrdering
	)

virtual

Set ith Material arrays to be used as volume fraction, interface normal and material ordering. Each parameter name a cell array.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.SetMaterialNormalArray	(	int	i,
		string	normal
	)

virtual

Set ith Material arrays to be used as volume fraction, interface normal and material ordering. Each parameter name a cell array.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.SetMaterialOrderingArray	(	int	i,
		string	ordering
	)

virtual

Set ith Material arrays to be used as volume fraction, interface normal and material ordering. Each parameter name a cell array.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.SetMaterialVolumeFractionArray	(	int	i,
		string	volume
	)

virtual

Set ith Material arrays to be used as volume fraction, interface normal and material ordering. Each parameter name a cell array.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.SetNumberOfMaterials ( int n )

virtual

Sets/Gets the number of materials.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.SetOnionPeel ( int _arg )

virtual

Set/Get OnionPeel flag. if this flag is on, the normal vector of the first material (which depends on material ordering) is used for all materials.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.SetReverseMaterialOrder ( int _arg )

virtual

If this flag is on, material order in reversed. Otherwise, materials are sorted in ascending order depending on the given ordering array.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.SetTwoMaterialsOptimization ( int _arg )

virtual

Triggers some additional optimizations for cells containing only two materials. This option might produce different result than expected if the sum of volume fractions is not 1.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.SetUseFractionAsDistance ( int _arg )

virtual

when UseFractionAsDistance is true, the volume fraction is interpreted as the distance of the cutting plane from the origin. in axis symetric mode, 2D meshes are understood as volumes of revolution.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.SetVolumeFractionRange	(	double	_arg1,
		double	_arg2
	)

virtual

Set/Get minimum and maximum volume fraction value. if a material fills a volume above the minimum value, the material is considered to be void. if a material fills a volume fraction beyond the maximum value it is considered as filling the whole volume.

void Kitware.VTK.vtkYoungsMaterialInterface.SetVolumeFractionRange ( IntPtr _arg )

Set/Get minimum and maximum volume fraction value. if a material fills a volume above the minimum value, the material is considered to be void. if a material fills a volume fraction beyond the maximum value it is considered as filling the whole volume.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.TwoMaterialsOptimizationOff ( )

virtual

Triggers some additional optimizations for cells containing only two materials. This option might produce different result than expected if the sum of volume fractions is not 1.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.TwoMaterialsOptimizationOn ( )

virtual

Triggers some additional optimizations for cells containing only two materials. This option might produce different result than expected if the sum of volume fractions is not 1.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.UseFractionAsDistanceOff ( )

virtual

when UseFractionAsDistance is true, the volume fraction is interpreted as the distance of the cutting plane from the origin. in axis symetric mode, 2D meshes are understood as volumes of revolution.

virtual void Kitware.VTK.vtkYoungsMaterialInterface.UseFractionAsDistanceOn ( )

virtual

when UseFractionAsDistance is true, the volume fraction is interpreted as the distance of the cutting plane from the origin. in axis symetric mode, 2D meshes are understood as volumes of revolution.