itk::fem Namespace Reference

Classes
class	Element
	Abstract base element class. More...
class	Element1DStress
	Class that is used to define linear elasticity problem in 1D space. More...
class	Element2DC0LinearLine
	2-noded, linear, C0 continuous line element in 2D space. More...
class	Element2DC0LinearLineStress
	2-noded finite element class in 2D space for linear elasticity problem. More...
class	Element2DC0LinearQuadrilateral
	4-noded, linear, C0 continuous finite element in 2D space. More...
class	Element2DC0LinearQuadrilateralMembrane
	4-noded finite element class in 2D space for linear elasticity problem More...
class	Element2DC0LinearQuadrilateralStrain
	4-noded finite element class in 2D space for linear elasticity problem More...
class	Element2DC0LinearQuadrilateralStress
	4-noded finite element class in 2D space for linear elasticity problem More...
class	Element2DC0LinearTriangular
	3-noded, linear, C0 continuous finite element in 2D space. More...
class	Element2DC0LinearTriangularMembrane
	3-noded finite element class in 2D space for linear elasticity problem. More...
class	Element2DC0LinearTriangularStrain
	3-noded finite element class in 2D space for linear elasticity problem. More...
class	Element2DC0LinearTriangularStress
	3-noded finite element class in 2D space for linear elasticity problem. More...
class	Element2DC0QuadraticTriangular
	3-noded, quadratic, C0 continuous finite element in 2D space. More...
class	Element2DC0QuadraticTriangularStrain
	3-noded finite element class in 2D space for linear elasticity problem. More...
class	Element2DC0QuadraticTriangularStress
	3-noded finite element class in 2D space for linear elasticity problem. More...
class	Element2DC1Beam
	1D Beam (spring that also bends) finite element in 2D space. More...
class	Element2DMembrane
	Class that is used to define a membrane energy problem in 2D space. More...
class	Element2DStrain
	Class that is used to define linear elasticity problem in 2D space. More...
class	Element2DStress
	Class that is used to define linear elasticity problem in 2D space. More...
class	Element3DC0LinearHexahedron
	8-noded, linear, C0 continuous finite element in 3D space. More...
class	Element3DC0LinearHexahedronMembrane
	8-noded finite element class in 3D space for linear elasticity problem More...
class	Element3DC0LinearHexahedronStrain
	8-noded finite element class in 3D space for linear elasticity problem More...
class	Element3DC0LinearTetrahedron
	4-noded, linear, C0 continuous finite element in 3D space. More...
class	Element3DC0LinearTetrahedronMembrane
	4-noded finite element class in 3D space for linear elasticity problem More...
class	Element3DC0LinearTetrahedronStrain
	4-noded finite element class in 3D space for linear elasticity problem More...
class	Element3DMembrane
	Class that is used to define a membrane energy problem in 3D space. More...
class	Element3DStrain
	Class that is used to define linear elasticity problem in 3D space. More...
class	ElementStd
	Implements standard node management in the element classes. More...
class	FEMException
	Base class for all exception's that can occur within FEM classes. More...
class	FEMExceptionIO
class	FEMExceptionItpackSolver
class	FEMExceptionItpackSparseMatrixSbagn
class	FEMExceptionItpackSparseMatrixSbsij
class	FEMExceptionLinearSystem
class	FEMExceptionLinearSystemBounds
class	FEMExceptionObjectNotFound
class	FEMExceptionSolution
class	FEMExceptionWrongClass
class	FEMInitialization
class	FEMLightObject
	Base class for all classes that define the FEM system. More...
class	FEMObjectFactory
class	FEMP
	Pointer used to store polymorphic elements in STL arrays. More...
class	FEMPArray
	Array for FEMP objects. More...
class	FEMRegistrationFilter
	FEM Image registration filter. More...
class	FiniteDifferenceFunctionLoad
	General image pair load that uses the itkFiniteDifferenceFunctions. More...
class	ImageMetricLoad
	General image pair load that uses the itkImageToImageMetrics. More...
class	ImageMetricLoadImplementation
class	ItpackSparseMatrix
	a compressed row sparse matrix representation that makes use of itpack to dynamically assemble the matrix More...
class	LinearSystemWrapper
	Defines all functions required by Solver class to allocate, assemble and solve a linear system of equation. More...
class	LinearSystemWrapperDenseVNL
	LinearSystemWrapper class that uses VNL numeric library functions to define a sparse linear system of equations. More...
class	LinearSystemWrapperItpack
	LinearSystemWrapper class that uses Itpack numeric library functions to define and solve a sparse linear system of equations. More...
class	LinearSystemWrapperVNL
	LinearSystemWrapper class that uses VNL numeric library functions to define a sparse linear system of equations. More...
class	Load
	General abstract load base class. More...
class	LoadBC
	Generic essential (Dirichlet) boundary conditions. More...
class	LoadBCMFC
class	LoadEdge
	A generic load that can be applied to an edge of the element. More...
class	LoadElement
	Virtual element load base class. More...
class	LoadGrav
	Abstract gravity load class. More...
class	LoadGravConst
class	LoadImplementationGenericBodyLoad
	Class that holds a templated generic body load implementation. More...
class	LoadImplementationGenericLandmarkLoad
class	LoadImplementationTest
class	LoadLandmark
	This load is derived from the motion of a specific landmark. More...
class	LoadNode
	This load is applied on a specific point within the system. More...
class	LoadPoint
	This load is applied on a point in an element. More...
class	LoadTest
	Example to show how to define templated load classes. More...
class	Material
	Base class for storing all the implicit material and other properties required to fully define the element class. More...
class	MaterialLinearElasticity
class	ReadInfoType
	Helper class for storing additional information that is required when reading FEM objects from stream. More...
class	Solution
	Provides functions to access the values of the solution vector. More...
class	Solver
	Main FEM solver. More...
class	SolverCrankNicolson
class	SolverHyperbolic
	Solver class suitable for hyperbolic problems. More...
class	VisitorDispatcher
class	VisitorDispatcherTemplateHelper
Typedefs
typedef void(*	c_void_cast )()
typedef FEMObjectFactory< FEMLightObject >	FEMOF
typedef Element::Node	Node
Functions
void	Generate2DRectilinearMesh (itk::fem::Element::ConstPointer e0, Solver &S, vnl_vector< double > &orig, vnl_vector< double > &size, vnl_vector< double > &Nel)
void	Generate3DRectilinearMesh (itk::fem::Element::ConstPointer e0, Solver &S, vnl_vector< double > &orig, vnl_vector< double > &size, vnl_vector< double > &Nel)
virtual void	GetLoadVector (Element::LoadPointer l, Element::VectorType &Fe) const \
static INITClass	Initializer_ElementNode (Element::Node::CLID())
*class GaussIntegrate *brief Use the Gauss Legendre formula to perform integration **Numerical	integration (Gauss-Legendre formula).*Integrates function f(x) from x
*****Since this code is the same for all derived element you should *probably put it in the macro **Register each visitor class with the VisitorDispatcher class before it *is called This is done by calling the member function RegisterVisitor *of the VisitorDispatcher class and providing the pointer to the Visitor *function that performs the required task The visitor function must be *declared according to the VisitFunctionPointerType template parameter **ReturnType	MyVisitor_Function (...)
*class VisitorDispatcher *brief This class provides the functionality needed to apply the correct *visitor function to object of some class The specific visitor *function is based on a given pointer to some object **A visitor function is a that can perform various operations on *objects of various classes Usually we want this operation applied on *any of the polymorphic derived classes The specific operation is *defined in visitor functions **For is called the *visitor function A specific version of this function must be defined *for each on which you want the perform the	operation (Area(Circle *);*Area(Square *);...).**Now suppose that you want different operations performed on the shape *objects.Which operation will be performed is specified by the class of *the Visitor object.If the Visitor object is of class Area
*m lhs	push_back (LoadBCMFC::MFCTerm(elements.Find(5), 1, 2.1))
*m lhs	push_back (LoadBCMFC::MFCTerm(elements.Find(1), 0, 0.5))
it is good to set rho to something	small (for the itpack solver).*The advantage of choosing alpha=0.5 is that the solution is then stable for any *choice of time step
Variables
	alpha = 1.0
*class FEMObjectFactory *brief Create objects of derived classes by specifying a class ID **ObjectFactory is used to create various objects of derived classes by *specifying an ID of a derived class Before the objects can be created by *object you should first call the Register method for each *NewDerivedClassName ***	BaseClass
*class VisitorDispatcher *brief This class provides the functionality needed to apply the correct *visitor function to object of some class The specific visitor *function is	choosen
*class FEMObjectFactory *brief Create objects of derived classes by specifying a class ID **ObjectFactory is used to create various objects of derived classes by *specifying an ID of a derived class Before the objects can be created by *object you should first call the Register method for each	class
*class VisitorDispatcher *brief This class provides the functionality needed to apply the correct *visitor function to object of some class The specific visitor *function is based on a given pointer to some object **A visitor function is a that can perform various operations on *objects of various classes Usually we want this operation applied on *any of the polymorphic derived classes The specific operation is *defined in visitor functions **For is called the *visitor function A specific version of this function must be defined *for each on which you want the perform the then the *area of objects will be calculated If the visitor is object of class Circumference then the circumference of the shapes will be calculated **In order to be able to do that and provide the framework to easily add *new Visitor as well as Visited	classes
*class VisitorDispatcher *brief This class provides the functionality needed to apply the correct *visitor function to object of some class The specific visitor *function is based on a given pointer to some object **A visitor function is a that can perform various operations on *objects of various classes Usually we want this operation applied on *any of the polymorphic derived classes The specific operation is *defined in visitor functions **For is called the *visitor function A specific version of this function must be defined *for each on which you want the perform the then the *area of objects will be calculated If the visitor is object of class Circumference then the circumference of the shapes will be calculated **In order to be able to do that and provide the framework to easily add *new Visitor as well as Visited we create the VisitorDispatcher *class It is implemented as a singelton It stores pointers to Visitor *functions together with the information about which Visitor function must *be called in order to perform an operation specified by Visitor class on *objects of Visited class **To make a specific base class and all its derived classes visitable you *must make the following changes to your	code
*class LoadImplementationTest *brief Example implementation of templated LoadTest class **This is an example of how to define the implementation of a templated *Load class Since the Load class is templated its implementation must *also be templated Due to limitations of MS	compiler
***Once all this is	done
	dt = 1.0
*class VisitorDispatcher *brief This class provides the functionality needed to apply the correct *visitor function to object of some class The specific visitor *function is based on a given pointer to some object **A visitor function is a that can perform various operations on *objects of various classes Usually we want this operation applied on *any of the polymorphic derived classes The specific operation is *defined in visitor functions **For	example
***The Visitor class is templated over several classes that make its use *generic and simple **TVisitedClass Class of objects that will be visited **TVisitorBase Base class of Visitor objects Objects of class *TVisitedClass will be visited by object of any *registered class that is derived from TVisitorBase **TVisitFunctionPointerType Type of visit functions Visitor dispatcher *stores an array of pointers to these functions Default *function pointer type is provided **note Template parameter TVisitFunctionPointerType in general doesn t *have to be a pointer to function In	fact
*class FEMObjectFactory *brief Create objects of derived classes by specifying a class ID **ObjectFactory is used to create various objects of derived classes by *specifying an ID of a derived class Before the objects can be created by *object	factory
static FEMInitialization	FEMInitialization_var
it is good to set rho to something dt This class inherits and uses most of the Solver class *functionality One must call AssembleKandM instead of AssembleK and *AssembleFforTimeStep instead of AssembleF *	FIXMEs
*class VisitorDispatcher *brief This class provides the functionality needed to apply the correct *visitor function to object of some class The specific visitor *function is based on a given pointer to some object **A visitor function is a	function
Pointer type that specifies functions that can handle loads on this element *typedef void(*	LoadImplementationFunctionPointer )(ConstPointer, Element::LoadPointer, Element::VectorType &)
*template class	LoadImplementationTest< MyLoadTestClass >
**	NewDerivedClassname
*const int	OF_Derived = FEMObjectFactory<BaseClass>::Register( NewDerivedClass, "NewDerivedObjectName" )
*	Practically
uses Crank Nicolson implicit discretization scheme **This is the main class used for solving FEM time dependent problems *It solves the following	problem
*class SolverCrankNicolson *brief FEM Solver for time dependent	problems
***The Visitor class is templated over several classes that make its use *generic and simple **TVisitedClass Class of objects that will be visited **TVisitorBase Base class of Visitor objects Objects of class *TVisitedClass will be visited by object of any *registered class that is derived from TVisitorBase **TVisitFunctionPointerType Type of visit functions Visitor dispatcher *stores an array of pointers to these functions Default *function pointer type is provided **note Template parameter TVisitFunctionPointerType in general doesn t *have to be a pointer to function In it can be any type *Object of this type will be	returned
*m	rhs = 10.0
*class LoadImplementationTest *brief Example implementation of templated LoadTest class **This is an example of how to define the implementation of a templated *Load class Since the Load class is templated its implementation must *also be templated Due to limitations of MS we define this *implementation function as static a function inside a templated class **To make things easier to we template the class over the whole *templated load class and not only over the template parameters required *to define the templated Load class **You must manually instantiate this class to register the load *implementation function with the VisitorDispatcher The *instantiation is normally done like	this
*class LoadImplementationTest *brief Example implementation of templated LoadTest class **This is an example of how to define the implementation of a templated *Load class Since the Load class is templated its implementation must *also be templated Due to limitations of MS we define this *implementation function as static a function inside a templated class **To make things easier to	use
*class FEMInitialization *brief FEM Library initialization and housekeeping **Construction of FEMInitialization class is triggered whenever *FEM library is linked to a program Before the library can *be	used
****Implement this function in ALL derived classes like	VisitorBase

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Typedef Documentation

typedef void(* itk::fem::c_void_cast)()

Definition at line 214 of file itkFEMObjectFactory.h.

typedef FEMObjectFactory<FEMLightObject> itk::fem::FEMOF

Short alias for FEMObjectFactory<FEMLightObject> Definition at line 176 of file itkFEMLightObject.h.

typedef Element::Node itk::fem::Node

Definition at line 696 of file itkFEMElementBase.h.

---

Function Documentation

void itk::fem::Generate2DRectilinearMesh (  itk::fem::Element::ConstPointer  e0, Solver &  S, vnl_vector< double > &  orig, vnl_vector< double > &  size, vnl_vector< double > &  Nel )

Use this function to generate 2D meshes in Solver. Generate a rectangular mesh of quadrilateral elements

void itk::fem::Generate3DRectilinearMesh (  itk::fem::Element::ConstPointer  e0, Solver &  S, vnl_vector< double > &  orig, vnl_vector< double > &  size, vnl_vector< double > &  Nel )

Use this function to generate 3D meshes in Solver. Generate3DRectilinearMesh Generate a rectangular mesh of hexahedron elements. See also: Generate2DRectilinearMesh

virtual void itk::fem::GetLoadVector (  Element::LoadPointer  l, Element::VectorType &  Fe )  const [virtual]

Definition at line 73 of file itkFEMElementBase.h.

static INITClass itk::fem::Initializer_ElementNode (  Element::Node::  CLID()  )  [static]

* class GaussIntegrate* brief Use the Gauss Legendre formula to perform integration* * Numerical itk::fem::integration (  Gauss-Legendre  formula  )

* * * * * Since this code is the same for all derived element you should* probably put it in the macro* * Register each visitor class with the VisitorDispatcher class before it* is called This is done by calling the member function RegisterVisitor* of the VisitorDispatcher class and providing the pointer to the Visitor* function that performs the required task The visitor function must be* declared according to the VisitFunctionPointerType template parameter* * ReturnType itk::fem::MyVisitor_Function (    ...  )

* class VisitorDispatcher* brief This class provides the functionality needed to apply the correct* visitor function to object of some class The specific visitor* function is based on a given pointer to some object* * A visitor function is a that can perform various operations on* objects of various classes Usually we want this operation applied on* any of the polymorphic derived classes The specific operation is* defined in visitor functions* * For is called the* visitor function A specific version of this function must be defined* for each on which you want the perform the itk::fem::operation (  Area(Circle *);*Area(Square *);  ...  )

* m lhs itk::fem::push_back (  LoadBCMFC::  MFCTerm(elements.Find(5), 1, 2.1)  )

* m lhs itk::fem::push_back (  LoadBCMFC::  MFCTerm(elements.Find(1), 0, 0.5)  )

it is good to set rho to something itk::fem::small (  for the itpack  solver  )  [pure virtual]

---

Variable Documentation

itk::fem::alpha = 1.0

Definition at line 52 of file itkFEMSolverCrankNicolson.h.

* class FEMObjectFactory* brief Create objects of derived classes by specifying a class ID* * ObjectFactory is used to create various objects of derived classes by* specifying an ID of a derived class Before the objects can be created by* object you should first call the Register method for each * NewDerivedClassName* * * itk::fem::BaseClass

Definition at line 32 of file itkFEMObjectFactory.h.

* class VisitorDispatcher* brief This class provides the functionality needed to apply the correct* visitor function to object of some class The specific visitor* function is itk::fem::choosen

Definition at line 42 of file itkVisitorDispatcher.h.

*class VisitorDispatcher *brief This class provides the functionality needed to apply the correct *visitor function to object of some class The specific visitor *function is based on a given pointer to some object **A visitor function is a that can perform various operations on *objects of various classes Usually we want this operation applied on *any of the polymorphic derived classes The specific operation is *defined in visitor functions **For is called the *visitor function A specific version of this function must be defined *for each itk::fem::class

Definition at line 42 of file itkVisitorDispatcher.h.

*****Since this code is the same for all derived element itk::fem::classes

Definition at line 92 of file itkVisitorDispatcher.h.

* class VisitorDispatcher* brief This class provides the functionality needed to apply the correct* visitor function to object of some class The specific visitor* function is based on a given pointer to some object* * A visitor function is a that can perform various operations on* objects of various classes Usually we want this operation applied on* any of the polymorphic derived classes The specific operation is* defined in visitor functions* * For is called the* visitor function A specific version of this function must be defined* for each on which you want the perform the then the* area of objects will be calculated If the visitor is object of class Circumference then the circumference of the shapes will be calculated* * In order to be able to do that and provide the framework to easily add* new Visitor as well as Visited we create the VisitorDispatcher* class It is implemented as a singelton It stores pointers to Visitor* functions together with the information about which Visitor function must* be called in order to perform an operation specified by Visitor class on* objects of Visited class* * To make a specific base class and all its derived classes visitable you* must make the following changes to your itk::fem::code

Definition at line 70 of file itkVisitorDispatcher.h.

* class LoadImplementationTest* brief Example implementation of templated LoadTest class* * This is an example of how to define the implementation of a templated* Load class Since the Load class is templated its implementation must* also be templated Due to limitations of MS itk::fem::compiler

Definition at line 35 of file itkFEMLoadImplementationTest.h.

* * * Once all this is itk::fem::done

Definition at line 106 of file itkVisitorDispatcher.h. Referenced by itk::ImageRegionReverseConstIterator< TImage >::operator++(), and itk::ImageRegionReverseConstIterator< TImage >::operator--().

itk::fem::dt = 1.0

Definition at line 52 of file itkFEMSolverCrankNicolson.h.

* class VisitorDispatcher* brief This class provides the functionality needed to apply the correct* visitor function to object of some class The specific visitor* function is based on a given pointer to some object* * A visitor function is a that can perform various operations on* objects of various classes Usually we want this operation applied on* any of the polymorphic derived classes The specific operation is* defined in visitor functions* * For itk::fem::example

Definition at line 42 of file itkVisitorDispatcher.h.

* * * The Visitor class is templated over several classes that make its use* generic and simple* * TVisitedClass Class of objects that will be visited* * TVisitorBase Base class of Visitor objects Objects of class* TVisitedClass will be visited by object of any* registered class that is derived from TVisitorBase* * TVisitFunctionPointerType Type of visit functions Visitor dispatcher* stores an array of pointers to these functions Default* function pointer type is provided* * note Template parameter TVisitFunctionPointerType in general doesn t* have to be a pointer to function In itk::fem::fact

Definition at line 120 of file itkVisitorDispatcher.h.

* class FEMObjectFactory* brief Create objects of derived classes by specifying a class ID* * ObjectFactory is used to create various objects of derived classes by* specifying an ID of a derived class Before the objects can be created by* object itk::fem::factory

Definition at line 32 of file itkFEMObjectFactory.h.

FEMInitialization itk::fem::FEMInitialization_var [static]

Definition at line 58 of file itkFEMInitialization.h.

it is good to set rho to something dt This class inherits and uses most of the Solver class* functionality One must call AssembleKandM instead of AssembleK and* AssembleFforTimeStep instead of AssembleF* itk::fem::FIXMEs

Definition at line 55 of file itkFEMSolverCrankNicolson.h.

* class VisitorDispatcher* brief This class provides the functionality needed to apply the correct* visitor function to object of some class The specific visitor* function is based on a given pointer to some object* * A visitor function is a itk::fem::function

Definition at line 42 of file itkVisitorDispatcher.h.

Pointer type that specifies functions that can handle loads on this element* typedef void(* itk::fem::LoadImplementationFunctionPointer)(ConstPointer, Element::LoadPointer, Element::VectorType &)

Definition at line 72 of file itkFEMElementBase.h.

* template class itk::fem::LoadImplementationTest< MyLoadTestClass >

Definition at line 48 of file itkFEMLoadImplementationTest.h.

* * itk::fem::NewDerivedClassname

Definition at line 62 of file itkFEMObjectFactory.h.

* const int itk::fem::OF_Derived = FEMObjectFactory<BaseClass>::Register( NewDerivedClass, "NewDerivedObjectName" )

Definition at line 63 of file itkFEMObjectFactory.h.

* itk::fem::Practically

Definition at line 53 of file itkFEMSolverCrankNicolson.h.

uses Crank Nicolson implicit discretization scheme* * This is the main class used for solving FEM time dependent problems* It solves the following itk::fem::problem

Definition at line 45 of file itkFEMSolverCrankNicolson.h.

* class SolverCrankNicolson* brief FEM Solver for time dependent itk::fem::problems

Definition at line 42 of file itkFEMSolverCrankNicolson.h.

* * * The Visitor class is templated over several classes that make its use* generic and simple* * TVisitedClass Class of objects that will be visited* * TVisitorBase Base class of Visitor objects Objects of class* TVisitedClass will be visited by object of any* registered class that is derived from TVisitorBase* * TVisitFunctionPointerType Type of visit functions Visitor dispatcher* stores an array of pointers to these functions Default* function pointer type is provided* * note Template parameter TVisitFunctionPointerType in general doesn t* have to be a pointer to function In it can be any type* Object of this type will be itk::fem::returned

Definition at line 120 of file itkVisitorDispatcher.h.

* m itk::fem::rhs = 10.0

Definition at line 48 of file itkFEMLoadBCMFC.h.

****Implement this function in ALL derived classes like itk::fem::this [static]

Definition at line 80 of file itkVisitorDispatcher.h. Referenced by itk::InOrderTreeIterator< TTreeType >::Clone(), itk::SpatialObjectTreeNode< TDimension >::ComputeNodeToWorldTransform(), itk::ImageBase::ComputeOffset(), itk::Statistics::VariableDimensionHistogram< TMeasurement, TFrequencyContainer >::End(), itk::Statistics::MembershipSample< TSample >::End(), itk::Statistics::ImageToListAdaptor< TImage, FixedArray< TImage::PixelType, 1 > >::End(), itk::Point< double, VDimensions >::EuclideanDistanceTo(), itk::ExtrapolateImageFunction< TInputImage, TCoordRep >::Evaluate(), itk::BinaryThresholdImageFunction< TInputImage, TCoordRep >::Evaluate(), itk::NearestNeighborExtrapolateImageFunction< TInputImage, TCoordRep >::EvaluateAtContinuousIndex(), itk::NearestNeighborExtrapolateImageFunction< TInputImage, TCoordRep >::EvaluateAtIndex(), itk::InterpolateImageFunction< TImageType, TCoordRep >::EvaluateAtIndex(), itk::BSplineInterpolateImageFunction< TImageType, TCoordRep, TImageType::PixelType >::EvaluateDerivative(), itk::PostOrderTreeIterator< TTreeType >::FindNextNode(), itk::FloodFilledSpatialFunctionConditionalIterator< TImage, TFunction >::Get(), itk::FloodFilledImageFunctionConditionalIterator< TImage, TFunction >::Get(), itk::ConstNeighborhoodIterator< FixedImageType >::GetCenterPixel(), itk::NeighborhoodIterator< TImage, TBoundaryCondition >::GetCenterPointer(), itk::ConstNeighborhoodIterator< FixedImageType >::GetCenterPointer(), itk::Neighborhood< TImage::InternalPixelType *,::itk::GetImageDimension< TImage >::ImageDimension >::GetCenterValue(), itk::fem::Element::GetDegreeOfFreedom(), itk::VectorConnectedComponentImageFilter< TInputImage, TOutputImage, TMaskImage >::GetDistanceThreshold(), itk::ScalarConnectedComponentImageFilter< TInputImage, TOutputImage, TMaskImage >::GetDistanceThreshold(), itk::SegmentationLevelSetImageFilter< TInputImage, TFeatureImage, TOutputPixelType >::GetFeatureImage(), itk::NarrowBandLevelSetImageFilter< TInputImage, TFeatureImage, TOutputPixelType, Image< TOutputPixelType,::itk::GetImageDimension< TInputImage >::ImageDimension > >::GetFeatureImage(), itk::ConstNeighborhoodIterator< FixedImageType >::GetIndex(), itk::ConnectedComponentImageFilter< TInputImage, TOutputImage, TMaskImage >::GetMaskImage(), itk::ConstNeighborhoodIterator< FixedImageType >::GetNext(), itk::ConstNeighborhoodIterator< FixedImageType >::GetPixel(), itk::ConstNeighborhoodIterator< FixedImageType >::GetPrevious(), itk::DiffusionTensor3DReconstructionImageFilter< TReferenceImagePixelType, TGradientImagePixelType, TTensorPixelType >::GetReferenceImage(), itk::RGBPixel< TPixel >::GetScalarValue(), itk::RGBAPixel< float >::GetScalarValue(), itk::NarrowBandLevelSetImageFilter< TInputImage, TFeatureImage, TOutputPixelType, Image< TOutputPixelType,::itk::GetImageDimension< TInputImage >::ImageDimension > >::GetUseNegativeFeatures(), itk::UnsharpMaskLevelSetImageFilter< TInputImage, TOutputImage >::Halt(), itk::IsotropicFourthOrderLevelSetImageFilter< TInputImage, TOutputImage >::Halt(), itk::ImplicitManifoldNormalVectorFilter< TInputImage, TSparseOutputImage >::Halt(), itk::CurvatureFlowImageFilter< TInputImage, TOutputImage >::Halt(), itk::AnisotropicFourthOrderLevelSetImageFilter< TInputImage, TOutputImage >::Halt(), itk::VectorCurvatureAnisotropicDiffusionImageFilter< TInputImage, TOutputImage >::InitializeIteration(), itk::SparseFieldFourthOrderLevelSetImageFilter::InitializeIteration(), itk::SegmentationLevelSetImageFilter< TInputImage, TFeatureImage, TOutputPixelType >::InitializeIteration(), itk::NarrowBandLevelSetImageFilter< TInputImage, TFeatureImage, TOutputPixelType, Image< TOutputPixelType,::itk::GetImageDimension< TInputImage >::ImageDimension > >::InitializeIteration(), itk::CurvatureAnisotropicDiffusionImageFilter< TInputImage, TOutputImage >::InitializeIteration(), itk::ConstNeighborhoodIterator< FixedImageType >::IsAtBegin(), itk::ConstNeighborhoodIterator< FixedImageType >::IsAtEnd(), itk::TreeRemoveEvent::MakeObject(), itk::TreeAddEvent::MakeObject(), itk::watershed::SegmentTable< TScalarType >::edge_pair_t::operator for sorting the adjacency lists */bool operator<(), itk::CompositeValleyFunction::operator()(), itk::Statistics::Subsample< TSample >::ConstIterator::operator+(), itk::Statistics::Subsample< TSample >::Iterator::operator+(), itk::Statistics::ImageToListAdaptor< TImage, TMeasurementVector >::ConstIterator::operator+(), itk::Statistics::ImageToListAdaptor< TImage, TMeasurementVector >::Iterator::operator+(), itk::Statistics::Subsample< TSample >::ConstIterator::operator++(), itk::Statistics::Subsample< TSample >::Iterator::operator++(), itk::Statistics::PointSetToListAdaptor< TPointSet >::ConstIterator::operator++(), itk::Statistics::PointSetToListAdaptor< TPointSet >::Iterator::operator++(), itk::Statistics::MembershipSample< TSample >::ConstIterator::operator++(), itk::Statistics::ListSample< TMeasurementVector >::ConstIterator::operator++(), itk::Statistics::ListSample< TMeasurementVector >::Iterator::operator++(), itk::Statistics::ImageToListAdaptor< TImage, TMeasurementVector >::ConstIterator::operator++(), itk::Statistics::ImageToListAdaptor< TImage, TMeasurementVector >::Iterator::operator++(), itk::ImageRegionReverseConstIterator< TImage >::operator++(), itk::Statistics::Subsample< TSample >::ConstIterator::operator-(), itk::Statistics::Subsample< TSample >::Iterator::operator-(), itk::Statistics::ImageToListAdaptor< TImage, TMeasurementVector >::ConstIterator::operator-(), itk::Statistics::ImageToListAdaptor< TImage, TMeasurementVector >::Iterator::operator-(), itk::Statistics::PointSetToListAdaptor< TPointSet >::ConstIterator::operator--(), itk::Statistics::PointSetToListAdaptor< TPointSet >::Iterator::operator--(), itk::Statistics::ListSample< TMeasurementVector >::ConstIterator::operator--(), itk::Statistics::ListSample< TMeasurementVector >::Iterator::operator--(), itk::ImageRegionReverseConstIterator< TImage >::operator--(), itk::Statistics::VariableDimensionHistogram< TMeasurement, TFrequencyContainer >::ConstIterator::operator=(), itk::Statistics::VariableDimensionHistogram< TMeasurement, TFrequencyContainer >::Iterator::operator=(), itk::Statistics::Subsample< TSample >::ConstIterator::operator=(), itk::Statistics::Subsample< TSample >::Iterator::operator=(), itk::Statistics::MembershipSample< TSample >::ConstIterator::operator=(), itk::Statistics::ListSample< TMeasurementVector >::ConstIterator::operator=(), itk::Statistics::ListSample< TMeasurementVector >::Iterator::operator=(), itk::Statistics::ImageToListAdaptor< TImage, TMeasurementVector >::ConstIterator::operator=(), itk::Statistics::ImageToListAdaptor< TImage, TMeasurementVector >::Iterator::operator=(), itk::Statistics::Histogram::ConstIterator::operator=(), itk::Statistics::Histogram::Iterator::operator=(), itk::Neighborhood< TImage::InternalPixelType *,::itk::GetImageDimension< TImage >::ImageDimension >::operator[](), itk::ReflectiveImageRegionIterator< TImage >::Set(), itk::PathIterator< TImage, TPath >::Set(), itk::LineIterator< TImage >::Set(), itk::ImageSliceIteratorWithIndex< TImage >::Set(), itk::ImageReverseIterator< TImage >::Set(), itk::ImageRegionReverseIterator< TImage >::Set(), itk::ImageRegionIteratorWithIndex< TImage >::Set(), itk::ImageRegionIterator< TImage >::Set(), itk::ImageRegionExclusionIteratorWithIndex< TImage >::Set(), itk::ImageRandomNonRepeatingIteratorWithIndex< TImage >::Set(), itk::ImageRandomIteratorWithIndex< TImage >::Set(), itk::ImageLinearIteratorWithIndex< TImageType >::Set(), itk::ImageIteratorWithIndex< TImage >::Set(), itk::ImageIterator< TImage >::Set(), itk::FloodFilledSpatialFunctionConditionalIterator< TImage, TFunction >::Set(), itk::FloodFilledImageFunctionConditionalIterator< TImage, TFunction >::Set(), itk::Statistics::NeighborhoodSampler< TSample >::SetCenter(), itk::NeighborhoodIterator< TImage, TBoundaryCondition >::SetCenterPixel(), itk::VectorIndexSelectionCastImageFilter::SetIndex(), itk::WatershedImageFilter< TInputImage >::SetInput(), itk::BSplineResampleImageFunction< TImageType, TCoordRep >::SetInputImage(), itk::watershed::SegmentTreeGenerator< ScalarType >::SetInputSegmentTable(), itk::Statistics::GaussianDensityFunction< TMeasurementVector >::SetMean(), itk::NeighborhoodIterator< TImage, TBoundaryCondition >::SetNext(), itk::SparseFieldFourthOrderLevelSetImageFilter::SetNumberOfLayers(), itk::NeighborhoodIterator< TImage, TBoundaryCondition >::SetPixel(), itk::NeighborhoodIterator< TImage, TBoundaryCondition >::SetPrevious(), itk::ValarrayImageContainer< TElementIdentifier, TElement >::Squeeze(), itk::OrientedImage< TPixel, VImageDimension >::TransformPhysicalPointToIndex(), itk::LabelVotingImageFilter< TInputImage, TOutputImage >::UnsetLabelForUndecidedPixels(), itk::PathIterator< TImage, TPath >::Value(), and itk::LineIterator< TImage >::Value().

* class LoadImplementationTest* brief Example implementation of templated LoadTest class* * This is an example of how to define the implementation of a templated* Load class Since the Load class is templated its implementation must* also be templated Due to limitations of MS we define this* implementation function as static a function inside a templated class* * To make things easier to itk::fem::use [static]

Definition at line 35 of file itkFEMLoadImplementationTest.h.

* class FEMInitialization* brief FEM Library initialization and housekeeping* * Construction of FEMInitialization class is triggered whenever* FEM library is linked to a program Before the library can* be itk::fem::used

Definition at line 39 of file itkFEMInitialization.h. Referenced by itk::Statistics::MersenneTwisterRandomVariateGenerator::GetIntegerVariate().

* * * * Implement this function in ALL derived classes like itk::fem::VisitorBase

Definition at line 80 of file itkVisitorDispatcher.h.

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