vtkm::cont Namespace Reference

VTK-m Control Environment. More...

Namespaces
	arg
	Transportation controls for Control Environment Objects.
	cuda
	CUDA implementation for Control Environment.
	kokkos
	openmp
	OPenMP implementation for Control Environment.
	serial
	Serial implementation for Control Environment.
	tbb
	TBB implementation for Control Environment.

Classes
struct	Algorithm
class	ArrayHandle
	Manages an array-worth of data. More...
class	ArrayHandleBasic
class	ArrayHandleBitField
	The ArrayHandleBitField class is a boolean-valued ArrayHandle that is backed by a BitField. More...
class	ArrayHandleCartesianProduct
	ArrayHandleCartesianProduct is a specialization of ArrayHandle. More...
class	ArrayHandleCast
	Cast the values of an array to the specified type, on demand. More...
class	ArrayHandleCompositeVector
	An ArrayHandle that combines components from other arrays. More...
class	ArrayHandleConcatenate
class	ArrayHandleConstant
	An array handle with a constant value. More...
class	ArrayHandleCounting
	ArrayHandleCounting is a specialization of ArrayHandle. More...
class	ArrayHandleDecorator
	A fancy ArrayHandle that can be used to modify the results from one or more source ArrayHandle. More...
class	ArrayHandleDiscard
	ArrayHandleDiscard is a write-only array that discards all data written to it. More...
class	ArrayHandleExtractComponent
	A fancy ArrayHandle that turns a vector array into a scalar array by slicing out a single component of each vector. More...
class	ArrayHandleGroupVec
	Fancy array handle that groups values into vectors. More...
class	ArrayHandleGroupVecVariable
	Fancy array handle that groups values into vectors of different sizes. More...
class	ArrayHandleImplicit
	An ArrayHandle that computes values on the fly. More...
class	ArrayHandleIndex
	An implicit array handle containing the its own indices. More...
class	ArrayHandleMultiplexer
	An ArrayHandle that can behave like several other handles. More...
class	ArrayHandleOffsetsToNumComponents
	An ArrayHandle that converts an array of offsets to an array of Vec sizes. More...
class	ArrayHandlePermutation
	Implicitly permutes the values in an array. More...
class	ArrayHandleRandomStandardNormal
class	ArrayHandleRandomUniformBits
	An ArrayHandle that provides a source of random bits. More...
class	ArrayHandleRandomUniformReal
class	ArrayHandleRecombineVec
	A grouping of ArrayHandleStrides into an ArrayHandle of Vecs. More...
class	ArrayHandleReverse
	Reverse the order of an array, on demand. More...
class	ArrayHandleRuntimeVec
	Fancy array handle for a basic array with runtime selected vec size. More...
class	ArrayHandleSOA
	An ArrayHandle that for Vecs stores each component in a separate physical array. More...
class	ArrayHandleStride
	An ArrayHandle that accesses a basic array with strides and offsets. More...
class	ArrayHandleSwizzle
	Swizzle the components of the values in an ArrayHandle. More...
class	ArrayHandleTransform
	Implicitly transform values of one array to another with a functor. More...
class	ArrayHandleTransform< ArrayHandleType, FunctorType, internal::NullFunctorType >
class	ArrayHandleUniformPointCoordinates
	ArrayHandleUniformPointCoordinates is a specialization of ArrayHandle. More...
class	ArrayHandleView
class	ArrayHandleXGCCoordinates
class	ArrayHandleZip
	ArrayHandleZip is a specialization of ArrayHandle. More...
class	ArrayPortal
	A class that points to and access and array of data. More...
class	ArrayPortalToIterators
class	ArrayPortalToIterators< PortalType, std::false_type >
	Convert an ArrayPortal to STL iterators. More...
class	ArrayPortalToIterators< PortalType, std::true_type >
class	AssignerPartitionedDataSet
	Assigner for PartitionedDataSet partitions. More...
class	AtomicArray
	A type list containing types that can be used with an AtomicArray. More...
class	BitField
class	CellLocatorBoundingIntervalHierarchy
class	CellLocatorGeneral
	A CellLocator that works generally well for any supported cell set. More...
class	CellLocatorPartitioned
class	CellLocatorRectilinearGrid
class	CellLocatorTwoLevel
	A locator that uses 2 nested levels of grids. More...
class	CellLocatorUniformBins
	A locator that uses a uniform grid. More...
class	CellLocatorUniformGrid
class	CellSet
	Defines the topological structure of the data in a DataSet. More...
class	CellSetExplicit
	Defines an irregular collection of cells. More...
class	CellSetExtrude
	Defines a 3-dimensional extruded mesh representation. More...
class	CellSetPermutation
	Rearranges the cells of one cell set to create another cell set. More...
class	CellSetPermutation< CellSetPermutation< CellSetType, PermutationArrayHandleType1 >, PermutationArrayHandleType2 >
class	CellSetSingleType
	An explicit cell set with all cells of the same shape. More...
class	CellSetStructured
	Defines a 1-, 2-, or 3-dimensional structured grid of points. More...
class	ColorTable
	Color Table for coloring arbitrary fields. More...
class	ColorTableSamplesRGB
	Color Sample Table used with vtkm::cont::ColorTable for fast coloring. More...
class	ColorTableSamplesRGBA
	Color Sample Table used with vtkm::cont::ColorTable for fast coloring. More...
class	CoordinateSystem
	Manages a coordinate system for a DataSet. More...
class	DataSet
	Contains and manages the geometric data structures that VTK-m operates on. More...
class	DataSetBuilderCurvilinear
class	DataSetBuilderExplicit
class	DataSetBuilderExplicitIterative
	Helper class to build a DataSet by iteratively adding points and cells. More...
class	DataSetBuilderRectilinear
class	DataSetBuilderUniform
struct	DeviceAdapterAlgorithm
	Struct containing device adapter algorithms. More...
struct	DeviceAdapterAlgorithm< vtkm::cont::DeviceAdapterTagCuda >
struct	DeviceAdapterAlgorithm< vtkm::cont::DeviceAdapterTagKokkos >
struct	DeviceAdapterAlgorithm< vtkm::cont::DeviceAdapterTagOpenMP >
struct	DeviceAdapterAlgorithm< vtkm::cont::DeviceAdapterTagSerial >
struct	DeviceAdapterAlgorithm< vtkm::cont::DeviceAdapterTagTBB >
struct	DeviceAdapterId
	An object used to specify a device. More...
class	DeviceAdapterRuntimeDetector
	Class providing a device-specific runtime support detector. More...
class	DeviceAdapterRuntimeDetector< vtkm::cont::DeviceAdapterTagCuda >
	Class providing a CUDA runtime support detector. More...
class	DeviceAdapterRuntimeDetector< vtkm::cont::DeviceAdapterTagKokkos >
	Determine if this machine supports Kokkos backend. More...
class	DeviceAdapterRuntimeDetector< vtkm::cont::DeviceAdapterTagOpenMP >
	Determine if this machine supports Serial backend. More...
class	DeviceAdapterRuntimeDetector< vtkm::cont::DeviceAdapterTagSerial >
	Determine if this machine supports Serial backend. More...
class	DeviceAdapterRuntimeDetector< vtkm::cont::DeviceAdapterTagTBB >
	Determine if this machine supports Serial backend. More...
struct	DeviceAdapterTag___
	A tag specifying the interface between the control and execution environments. More...
struct	DeviceAdapterTagAny
	Tag for a device adapter used to specify that any device may be used for an operation. More...
struct	DeviceAdapterTagCuda
	Tag for a device adapter that uses a CUDA capable GPU device. More...
struct	DeviceAdapterTagKokkos
	Tag for a device adapter that uses the Kokkos library to run algorithms in parallel. More...
struct	DeviceAdapterTagOpenMP
	Tag for a device adapter that uses OpenMP compiler extensions to run algorithms on multiple threads. More...
struct	DeviceAdapterTagSerial
	Tag for a device adapter that performs all computation on the same single thread as the control environment. More...
struct	DeviceAdapterTagTBB
	Tag for a device adapter that uses the Intel Threading Building Blocks library to run algorithms on multiple threads. More...
struct	DeviceAdapterTagUndefined
	Tag for a device adapter used to avoid specifying a device. More...
class	DeviceAdapterTimerImplementation
	Class providing a device-specific timer. More...
class	DeviceAdapterTimerImplementation< vtkm::cont::DeviceAdapterTagCuda >
	Specialization of DeviceAdapterTimerImplementation for CUDA CUDA contains its own high resolution timer that are able to track how long it takes to execute async kernels. More...
class	DeviceAdapterTimerImplementation< vtkm::cont::DeviceAdapterTagTBB >
	TBB contains its own high resolution timer. More...
struct	DeviceAdapterTraits
struct	DeviceAdapterTraits< vtkm::cont::DeviceAdapterTagAny >
struct	DeviceAdapterTraits< vtkm::cont::DeviceAdapterTagCuda >
struct	DeviceAdapterTraits< vtkm::cont::DeviceAdapterTagKokkos >
struct	DeviceAdapterTraits< vtkm::cont::DeviceAdapterTagOpenMP >
struct	DeviceAdapterTraits< vtkm::cont::DeviceAdapterTagSerial >
struct	DeviceAdapterTraits< vtkm::cont::DeviceAdapterTagTBB >
struct	DeviceAdapterTraits< vtkm::cont::DeviceAdapterTagUndefined >
class	DeviceTaskTypes
	Class providing a device-specific support for selecting the optimal Task type for a given worklet. More...
class	DeviceTaskTypes< vtkm::cont::DeviceAdapterTagCuda >
class	DeviceTaskTypes< vtkm::cont::DeviceAdapterTagKokkos >
class	DeviceTaskTypes< vtkm::cont::DeviceAdapterTagOpenMP >
class	DeviceTaskTypes< vtkm::cont::DeviceAdapterTagSerial >
class	DeviceTaskTypes< vtkm::cont::DeviceAdapterTagTBB >
class	EnvironmentTracker
	Maintain MPI controller, if any, for distributed operation. More...
class	Error
	The superclass of all exceptions thrown by any VTKm function or method. More...
class	ErrorBadAllocation
	This class is thrown when VTK-m attempts to manipulate memory that it should not. More...
class	ErrorBadDevice
	This class is thrown when VTK-m performs an operation that is not supported on the current device. More...
class	ErrorBadType
	This class is thrown when VTK-m encounters data of a type that is incompatible with the current operation. More...
class	ErrorBadValue
	This class is thrown when a VTKm function or method encounters an invalid value that inhibits progress. More...
class	ErrorExecution
	This class is thrown in the control environment whenever an error occurs in the execution environment. More...
class	ErrorFilterExecution
	This class is primarily intended to filters to throw in the control environment to indicate an execution failure due to misconfiguration e.g. More...
class	ErrorInternal
	This class is thrown when VTKm detects an internal state that should never be reached. More...
class	ErrorUserAbort
	This class is thrown when vtk-m detects a request for aborting execution in the current thread. More...
struct	ExecutionAndControlObjectBase
	Base ExecutionAndControlObjectBase class. More...
struct	ExecutionObjectBase
	Base ExecutionObjectBase for execution objects to inherit from so that you can use an arbitrary object as a parameter in an execution environment function. More...
class	Field
	A Field encapsulates an array on some piece of the mesh, such as the points, a cell set, a point logical dimension, or the whole mesh. More...
struct	InitializeResult
struct	Invoker
	Allows launching any worklet without a dispatcher. More...
struct	IsArrayHandleDiscard
	Helper to determine if an ArrayHandle type is an ArrayHandleDiscard. More...
struct	IsArrayHandleDiscard< ArrayHandle< T, internal::StorageTagDiscard > >
struct	LogCondStream
	Conditionally logs a message with a stream-like interface. More...
class	PartitionedDataSet
	Comprises a set of vtkm::cont::DataSet objects. More...
class	PointLocatorSparseGrid
	A locator that bins points in a sparsely stored grid. More...
class	RuntimeDeviceInformation
	A class that can be used to determine if a given device adapter is supported on the current machine at runtime. More...
class	RuntimeDeviceTracker
	RuntimeDeviceTracker is the central location for determining which device adapter will be active for algorithm execution. More...
class	ScopedRuntimeDeviceTracker
	A class to create a scoped runtime device tracker object. More...
struct	StorageTag___
	A tag specifying client memory allocation. More...
struct	StorageTagBasic
	A tag for the basic implementation of a Storage object. More...
struct	StorageTagCartesianProduct
struct	StorageTagCast
struct	StorageTagCompositeVec
class	StorageTagConcatenate
struct	StorageTagConstant
struct	StorageTagCounting
class	StorageTagExtractComponent
struct	StorageTagGroupVec
struct	StorageTagGroupVecVariable
struct	StorageTagImplicit
	An implementation for read-only implicit arrays. More...
struct	StorageTagIndex
struct	StorageTagMultiplexer
struct	StorageTagOffsetsToNumComponents
struct	StorageTagPermutation
class	StorageTagReverse
struct	StorageTagRuntimeVec
struct	StorageTagSOA
struct	StorageTagStride
struct	StorageTagUniformPoints
struct	StorageTagView
struct	StorageTagXGCCoordinates
struct	StorageTagZip
class	Timer
	A class that can be used to time operations in VTK-m that might be occuring in parallel. More...
class	Token
	A token to hold the scope of an ArrayHandle or other object. More...
class	UncertainArrayHandle
	An ArrayHandle of an uncertain value type and storage. More...
class	UncertainCellSet
	A CellSet of an uncertain type. More...
class	UnknownArrayHandle
	An ArrayHandle of an unknown value type and storage. More...
class	UnknownCellSet
	A CellSet of an unknown type. More...

Typedefs
template<typename List >
using	ArrayHandleMultiplexerFromList = vtkm::ListApply< List, ArrayHandleMultiplexer >
	Converts avtkm::List to an ArrayHandleMultiplexer More...
template<typename CellSetType , typename CoordinateSystemArrayType >
using	CellLocatorChooser = typename detail::CellLocatorChooserImpl< CellSetType, CoordinateSystemArrayType >::type
	A template to select an appropriate CellLocator based on CellSet type. More...
using	CellSetListStructured1D = vtkm::List< vtkm::cont::CellSetStructured< 1 > >
using	CellSetListStructured2D = vtkm::List< vtkm::cont::CellSetStructured< 2 > >
using	CellSetListStructured3D = vtkm::List< vtkm::cont::CellSetStructured< 3 > >
template<typename ShapesStorageTag = VTKM_DEFAULT_STORAGE_TAG, typename ConnectivityStorageTag = VTKM_DEFAULT_STORAGE_TAG, typename OffsetsStorageTag = VTKM_DEFAULT_STORAGE_TAG>
using	CellSetListExplicit = vtkm::List< vtkm::cont::CellSetExplicit< ShapesStorageTag, ConnectivityStorageTag, OffsetsStorageTag > >
using	CellSetListExplicitDefault = CellSetListExplicit<>
using	CellSetListCommon = vtkm::List< vtkm::cont::CellSetStructured< 2 >, vtkm::cont::CellSetStructured< 3 >, vtkm::cont::CellSetExplicit<>, vtkm::cont::CellSetSingleType<> >
using	CellSetListStructured = vtkm::List< vtkm::cont::CellSetStructured< 2 >, vtkm::cont::CellSetStructured< 3 > >
using	CellSetListUnstructured = vtkm::List< vtkm::cont::CellSetExplicit<>, vtkm::cont::CellSetSingleType<> >
using	DeviceAdapterListCommon = vtkm::List< vtkm::cont::DeviceAdapterTagCuda, vtkm::cont::DeviceAdapterTagTBB, vtkm::cont::DeviceAdapterTagOpenMP, vtkm::cont::DeviceAdapterTagKokkos, vtkm::cont::DeviceAdapterTagSerial >
using	DeviceAdapterNameType = std::string
using	StorageListBasic = vtkm::List< vtkm::cont::StorageTagBasic >
using	StorageListCommon = vtkm::List< vtkm::cont::StorageTagBasic, vtkm::cont::StorageTagSOA, vtkm::cont::StorageTagUniformPoints, vtkm::cont::StorageTagCartesianProduct< vtkm::cont::StorageTagBasic, vtkm::cont::StorageTagBasic, vtkm::cont::StorageTagBasic > >

Enumerations
enum	InitializeOptions {   InitializeOptions::None = 0x00, InitializeOptions::RequireDevice = 0x01, InitializeOptions::DefaultAnyDevice = 0x02, InitializeOptions::AddHelp = 0x04,   InitializeOptions::ErrorOnBadOption = 0x08, InitializeOptions::ErrorOnBadArgument = 0x10, InitializeOptions::Strict = ErrorOnBadOption | ErrorOnBadArgument | AddHelp }
enum	LogLevel {   LogLevel::Off = -9, LogLevel::Fatal = -3, LogLevel::Error = -2, LogLevel::Warn = -1,   LogLevel::Info = 0, LogLevel::UserFirst = 1, LogLevel::UserLast = 255, LogLevel::DevicesEnabled,   LogLevel::Perf, LogLevel::MemCont, LogLevel::MemExec, LogLevel::MemTransfer,   LogLevel::KernelLaunches, LogLevel::Cast, LogLevel::UserVerboseFirst = 1024, LogLevel::UserVerboseLast = 2047 }
	Log levels for use with the logging macros. More...
enum	RuntimeDeviceTrackerMode { RuntimeDeviceTrackerMode::Force, RuntimeDeviceTrackerMode::Enable, RuntimeDeviceTrackerMode::Disable }
	Identifier used to specify whether to enable or disable a particular device. More...

Functions
template<typename SourceArrayType , typename DestArrayType >
void	ArrayCopy (const SourceArrayType &source, DestArrayType &destination)
	Does a deep copy from one array to another array. More...
template<typename SourceArrayType >
void	ArrayCopy (const SourceArrayType &source, vtkm::cont::UnknownArrayHandle &destination)
	Does a deep copy from one array to another array. More...
template<typename T , typename S >
void	ArrayCopy (const vtkm::cont::UnknownArrayHandle &, const vtkm::cont::ArrayHandle< T, S > &)
template<typename T , typename S >
void	ArrayCopyShallowIfPossible (const vtkm::cont::UnknownArrayHandle source, vtkm::cont::ArrayHandle< T, S > &destination)
	Copies from an unknown to a known array type. More...
template<typename T , typename S >
vtkm::cont::ArrayHandleStride< typename vtkm::VecTraits< T >::BaseComponentType >	ArrayExtractComponent (const vtkm::cont::ArrayHandle< T, S > &src, vtkm::IdComponent componentIndex, vtkm::CopyFlag allowCopy=vtkm::CopyFlag::On)
	Pulls a component out of an ArrayHandle. More...
template<typename T , typename StorageT >
void	printSummary_ArrayHandle (const vtkm::cont::ArrayHandle< T, StorageT > &array, std::ostream &out, bool full=false)
template<typename T >
vtkm::cont::ArrayHandleBasic< T >	make_ArrayHandle (const T *array, vtkm::Id numberOfValues, vtkm::CopyFlag copy)
	A convenience function for creating an ArrayHandle from a standard C array. More...
template<typename T >
vtkm::cont::ArrayHandleBasic< T >	make_ArrayHandleMove (T *&array, vtkm::Id numberOfValues, vtkm::cont::internal::BufferInfo::Deleter deleter=internal::SimpleArrayDeleter< T >, vtkm::cont::internal::BufferInfo::Reallocater reallocater=internal::SimpleArrayReallocater< T >)
	A convenience function to move a user-allocated array into an ArrayHandle. More...
template<typename T , typename Allocator >
vtkm::cont::ArrayHandleBasic< T >	make_ArrayHandle (const std::vector< T, Allocator > &array, vtkm::CopyFlag copy)
	A convenience function for creating an ArrayHandle from an std::vector. More...
template<typename T , typename Allocator >
vtkm::cont::ArrayHandleBasic< T >	make_ArrayHandleMove (std::vector< T, Allocator > &&array)
	Move an std::vector into an ArrayHandle. More...
template<typename T , typename Allocator >
vtkm::cont::ArrayHandleBasic< T >	make_ArrayHandle (std::vector< T, Allocator > &&array, vtkm::CopyFlag)
	Move an std::vector into an ArrayHandle. More...
template<typename T >
vtkm::cont::ArrayHandleBasic< T >	make_ArrayHandle (std::initializer_list< T > &&values)
	Create an ArrayHandle directly from an initializer list of values. More...
vtkm::cont::ArrayHandleBitField	make_ArrayHandleBitField (const vtkm::cont::BitField &bitField)
vtkm::cont::ArrayHandleBitField	make_ArrayHandleBitField (vtkm::cont::BitField &&bitField) noexcept
template<typename FirstHandleType , typename SecondHandleType , typename ThirdHandleType >
vtkm::cont::ArrayHandleCartesianProduct< FirstHandleType, SecondHandleType, ThirdHandleType >	make_ArrayHandleCartesianProduct (const FirstHandleType &first, const SecondHandleType &second, const ThirdHandleType &third)
	A convenience function for creating an ArrayHandleCartesianProduct. More...
template<typename T , typename ArrayType >
detail::MakeArrayHandleCastImpl< T, typename ArrayType::ValueType, ArrayType >::ReturnType	make_ArrayHandleCast (const ArrayType &array, const T &=T())
	make_ArrayHandleCast is convenience function to generate an ArrayHandleCast. More...
template<typename... ArrayTs>
ArrayHandleCompositeVector< ArrayTs... >	make_ArrayHandleCompositeVector (const ArrayTs &... arrays)
	Create a composite vector array from other arrays. More...
template<typename ArrayHandleType1 , typename ArrayHandleType2 >
ArrayHandleConcatenate< ArrayHandleType1, ArrayHandleType2 >	make_ArrayHandleConcatenate (const ArrayHandleType1 &array1, const ArrayHandleType2 &array2)
template<typename T >
vtkm::cont::ArrayHandleConstant< T >	make_ArrayHandleConstant (T value, vtkm::Id numberOfValues)
	make_ArrayHandleConstant is convenience function to generate an ArrayHandleImplicit. More...
template<typename CountingValueType >
vtkm::cont::ArrayHandleCounting< CountingValueType >	make_ArrayHandleCounting (CountingValueType start, CountingValueType step, vtkm::Id length)
	A convenience function for creating an ArrayHandleCounting. More...
template<typename DecoratorImplT , typename... ArrayTs>
ArrayHandleDecorator< typename std::decay< DecoratorImplT >::type, typename std::decay< ArrayTs >::type... >	make_ArrayHandleDecorator (vtkm::Id numValues, DecoratorImplT &&f, ArrayTs &&... arrays)
	Create an ArrayHandleDecorator with the specified number of values that uses the provided DecoratorImplT and source ArrayHandles. More...
template<typename ArrayHandleType >
ArrayHandleExtractComponent< ArrayHandleType >	make_ArrayHandleExtractComponent (const ArrayHandleType &array, vtkm::IdComponent component)
	make_ArrayHandleExtractComponent is convenience function to generate an ArrayHandleExtractComponent. More...
template<vtkm::IdComponent NUM_COMPONENTS, typename ArrayHandleType >
vtkm::cont::ArrayHandleGroupVec< ArrayHandleType, NUM_COMPONENTS >	make_ArrayHandleGroupVec (const ArrayHandleType &array)
	make_ArrayHandleGroupVec is convenience function to generate an ArrayHandleGroupVec. More...
template<typename ComponentsArrayHandleType , typename OffsetsArrayHandleType >
vtkm::cont::ArrayHandleGroupVecVariable< ComponentsArrayHandleType, OffsetsArrayHandleType >	make_ArrayHandleGroupVecVariable (const ComponentsArrayHandleType &componentsArray, const OffsetsArrayHandleType &offsetsArray)
	make_ArrayHandleGroupVecVariable is convenience function to generate an ArrayHandleGroupVecVariable. More...
template<typename FunctorType >
vtkm::cont::ArrayHandleImplicit< FunctorType >	make_ArrayHandleImplicit (FunctorType functor, vtkm::Id length)
	make_ArrayHandleImplicit is convenience function to generate an ArrayHandleImplicit. More...
vtkm::cont::ArrayHandleIndex	make_ArrayHandleIndex (vtkm::Id length)
	A convenience function for creating an ArrayHandleIndex. More...
template<typename OffsetsStorageTag >
vtkm::cont::ArrayHandleOffsetsToNumComponents< vtkm::cont::ArrayHandle< vtkm::Id, OffsetsStorageTag > >	make_ArrayHandleOffsetsToNumComponents (const vtkm::cont::ArrayHandle< vtkm::Id, OffsetsStorageTag > &array)
template<typename IndexArrayHandleType , typename ValueArrayHandleType >
vtkm::cont::ArrayHandlePermutation< IndexArrayHandleType, ValueArrayHandleType >	make_ArrayHandlePermutation (IndexArrayHandleType indexArray, ValueArrayHandleType valueArray)
	make_ArrayHandleTransform is convenience function to generate an ArrayHandleTransform. More...
template<typename HandleType >
ArrayHandleReverse< HandleType >	make_ArrayHandleReverse (const HandleType &handle)
	make_ArrayHandleReverse is convenience function to generate an ArrayHandleReverse. More...
template<typename T >
auto	make_ArrayHandleRuntimeVec (vtkm::IdComponent numComponents, const vtkm::cont::ArrayHandle< T, vtkm::cont::StorageTagBasic > &componentsArray=vtkm::cont::ArrayHandle< T, vtkm::cont::StorageTagBasic >{})
	make_ArrayHandleRuntimeVec is convenience function to generate an ArrayHandleRuntimeVec. More...
template<typename T >
auto	make_ArrayHandleRuntimeVec (const vtkm::cont::ArrayHandle< T, vtkm::cont::StorageTagBasic > &componentsArray)
template<typename T >
auto	make_ArrayHandleRuntimeVec (vtkm::IdComponent numComponents, const T *array, vtkm::Id numberOfValues, vtkm::CopyFlag copy)
	A convenience function for creating an ArrayHandleRuntimeVec from a standard C array. More...
template<typename T >
auto	make_ArrayHandleRuntimeVecMove (vtkm::IdComponent numComponents, T *&array, vtkm::Id numberOfValues, vtkm::cont::internal::BufferInfo::Deleter deleter=internal::SimpleArrayDeleter< T >, vtkm::cont::internal::BufferInfo::Reallocater reallocater=internal::SimpleArrayReallocater< T >)
	A convenience function to move a user-allocated array into an ArrayHandleRuntimeVec. More...
template<typename T , typename Allocator >
auto	make_ArrayHandleRuntimeVec (vtkm::IdComponent numComponents, const std::vector< T, Allocator > &array, vtkm::CopyFlag copy)
	A convenience function for creating an ArrayHandleRuntimeVec from an std::vector. More...
template<typename T , typename Allocator >
auto	make_ArrayHandleRuntimeVecMove (vtkm::IdComponent numComponents, std::vector< T, Allocator > &&array)
	Move an std::vector into an ArrayHandleRuntimeVec. More...
template<typename T , typename Allocator >
auto	make_ArrayHandleRuntimeVec (vtkm::IdComponent numComponents, std::vector< T, Allocator > &&array, vtkm::CopyFlag)
template<typename ValueType >
ArrayHandleSOA< ValueType >	make_ArrayHandleSOA (std::initializer_list< vtkm::cont::ArrayHandle< typename vtkm::VecTraits< ValueType >::ComponentType, vtkm::cont::StorageTagBasic >> &&componentArrays)
template<typename ComponentType , typename... RemainingArrays>
ArrayHandleSOA< vtkm::Vec< ComponentType, vtkm::IdComponent(sizeof...(RemainingArrays)+1)> >	make_ArrayHandleSOA (const vtkm::cont::ArrayHandle< ComponentType, vtkm::cont::StorageTagBasic > &componentArray0, const RemainingArrays &... componentArrays)
template<typename ValueType >
ArrayHandleSOA< ValueType >	make_ArrayHandleSOA (std::initializer_list< std::vector< typename vtkm::VecTraits< ValueType >::ComponentType >> &&componentVectors)
template<typename ComponentType , typename... RemainingVectors>
ArrayHandleSOA< vtkm::Vec< ComponentType, vtkm::IdComponent(sizeof...(RemainingVectors)+1)> >	make_ArrayHandleSOA (vtkm::CopyFlag copy, const std::vector< ComponentType > &vector0, RemainingVectors &&... componentVectors)
template<typename ComponentType , typename... RemainingVectors>
ArrayHandleSOA< vtkm::Vec< ComponentType, vtkm::IdComponent(sizeof...(RemainingVectors)+1)> >	make_ArrayHandleSOA (vtkm::CopyFlag copy, std::vector< ComponentType > &&vector0, RemainingVectors &&... componentVectors)
template<typename ComponentType , typename... RemainingVectors>
ArrayHandleSOA< vtkm::Vec< ComponentType, vtkm::IdComponent(sizeof...(RemainingVectors)+1)> >	make_ArrayHandleSOAMove (std::vector< ComponentType > &&vector0, RemainingVectors &&... componentVectors)
template<typename ValueType >
ArrayHandleSOA< ValueType >	make_ArrayHandleSOA (std::initializer_list< const typename vtkm::VecTraits< ValueType >::ComponentType * > &&componentVectors, vtkm::Id length, vtkm::CopyFlag copy)
template<typename ComponentType , typename... RemainingArrays>
ArrayHandleSOA< vtkm::Vec< ComponentType, vtkm::IdComponent(sizeof...(RemainingArrays)+1)> >	make_ArrayHandleSOA (vtkm::Id length, vtkm::CopyFlag copy, const ComponentType *array0, const RemainingArrays *... componentArrays)
template<typename T >
vtkm::cont::ArrayHandleStride< T >	make_ArrayHandleStride (const vtkm::cont::ArrayHandle< T, vtkm::cont::StorageTagBasic > &array, vtkm::Id numValues, vtkm::Id stride, vtkm::Id offset, vtkm::Id modulo=0, vtkm::Id divisor=1)
	Create an array by adding a stride to a basic array. More...
template<typename ArrayHandleType , vtkm::IdComponent OutSize>
ArrayHandleSwizzle< ArrayHandleType, OutSize >	make_ArrayHandleSwizzle (const ArrayHandleType &array, const vtkm::Vec< vtkm::IdComponent, OutSize > &map)
template<typename ArrayHandleType , typename... SwizzleIndexTypes>
ArrayHandleSwizzle< ArrayHandleType, vtkm::IdComponent(sizeof...(SwizzleIndexTypes)+1)>	make_ArrayHandleSwizzle (const ArrayHandleType &array, vtkm::IdComponent swizzleIndex0, SwizzleIndexTypes... swizzleIndices)
template<typename HandleType , typename FunctorType >
vtkm::cont::ArrayHandleTransform< HandleType, FunctorType >	make_ArrayHandleTransform (HandleType handle, FunctorType functor)
	make_ArrayHandleTransform is convenience function to generate an ArrayHandleTransform. More...
template<typename HandleType , typename FunctorType , typename InverseFunctorType >
vtkm::cont::ArrayHandleTransform< HandleType, FunctorType, InverseFunctorType >	make_ArrayHandleTransform (HandleType handle, FunctorType functor, InverseFunctorType inverseFunctor)
template<typename ArrayHandleType >
ArrayHandleView< ArrayHandleType >	make_ArrayHandleView (const ArrayHandleType &array, vtkm::Id startIndex, vtkm::Id numValues)
template<typename T >
vtkm::cont::ArrayHandleXGCCoordinates< T >	make_ArrayHandleXGCCoordinates (const vtkm::cont::ArrayHandle< T > &arrHandle, vtkm::Id numberOfPlanesOwned, bool cylindrical, vtkm::Id numberOfPlanes=-1, vtkm::Id planeStartId=0)
template<typename T >
vtkm::cont::ArrayHandleXGCCoordinates< T >	make_ArrayHandleXGCCoordinates (const T *array, vtkm::Id length, vtkm::Id numberOfPlanesOwned, bool cylindrical, vtkm::Id numberOfPlanes=-1, vtkm::Id planeStartId=0, vtkm::CopyFlag copy=vtkm::CopyFlag::Off)
template<typename T >
vtkm::cont::ArrayHandleXGCCoordinates< T >	make_ArrayHandleXGCCoordinates (const std::vector< T > &array, vtkm::Id numberOfPlanesOwned, bool cylindrical, vtkm::Id numberOfPlanes=-1, vtkm::Id planeStartId=0, vtkm::CopyFlag copy=vtkm::CopyFlag::Off)
template<typename FirstHandleType , typename SecondHandleType >
vtkm::cont::ArrayHandleZip< FirstHandleType, SecondHandleType >	make_ArrayHandleZip (const FirstHandleType &first, const SecondHandleType &second)
	A convenience function for creating an ArrayHandleZip. More...
template<typename PortalType >
vtkm::cont::ArrayPortalToIterators< PortalType >::IteratorType	ArrayPortalToIteratorBegin (const PortalType &portal)
	Convenience function for converting an ArrayPortal to a begin iterator. More...
template<typename PortalType >
vtkm::cont::ArrayPortalToIterators< PortalType >::IteratorType	ArrayPortalToIteratorEnd (const PortalType &portal)
	Convenience function for converting an ArrayPortal to an end iterator. More...
void	ThrowArrayRangeComputeFailed ()
template<typename ArrayHandleType >
vtkm::cont::ArrayHandle< vtkm::Range >	ArrayRangeCompute (const ArrayHandleType &input, vtkm::cont::DeviceAdapterId device=vtkm::cont::DeviceAdapterTagAny{})
vtkm::Bounds	BoundsCompute (const vtkm::cont::DataSet &dataset, vtkm::Id coordinate_system_index=0)
	Functions to compute bounds for a single dataSset or partition dataset. More...
vtkm::Bounds	BoundsCompute (const vtkm::cont::PartitionedDataSet &pds, vtkm::Id coordinate_system_index=0)
vtkm::Bounds	BoundsCompute (const vtkm::cont::DataSet &dataset, const std::string &coordinate_system_name)
vtkm::Bounds	BoundsCompute (const vtkm::cont::PartitionedDataSet &pds, const std::string &coordinate_system_name)
vtkm::Bounds	BoundsGlobalCompute (const vtkm::cont::DataSet &dataset, vtkm::Id coordinate_system_index=0)
	Functions to compute bounds for a single dataset or partitioned dataset globally. More...
vtkm::Bounds	BoundsGlobalCompute (const vtkm::cont::PartitionedDataSet &pds, vtkm::Id coordinate_system_index=0)
vtkm::Bounds	BoundsGlobalCompute (const vtkm::cont::DataSet &dataset, const std::string &coordinate_system_name)
vtkm::Bounds	BoundsGlobalCompute (const vtkm::cont::PartitionedDataSet &pds, const std::string &coordinate_system_name)
template<typename DynamicObject , typename Functor , typename... Args>
void	CastAndCall (const DynamicObject &dynamicObject, Functor &&f, Args &&... args)
	A Generic interface to CastAndCall. More...
template<typename Functor , typename... Args>
void	CastAndCall (const CoordinateSystem &coords, Functor &&f, Args &&... args)
	A specialization of CastAndCall for basic CoordinateSystem to make it be treated just like any other dynamic object. More...
template<typename Functor , typename... Args>
void	CastAndCall (const vtkm::cont::Field &field, Functor &&f, Args &&... args)
	A specialization of CastAndCall for basic Field to make it be treated just like any other dynamic object. More...
template<typename Functor , typename... Args>
void	CastAndCall (const vtkm::cont::UnknownCellSet &cellSet, Functor &&f, Args &&... args)
	A specialization of CastAndCall for unknown cell sets. More...
template<typename T , typename U , typename Functor , typename... Args>
void	CastAndCall (const vtkm::cont::ArrayHandle< T, U > &handle, Functor &&f, Args &&... args)
	A specialization of CastAndCall for basic ArrayHandle types, Since the type is already known no deduction is needed. More...
template<typename Functor , typename... Args>
void	CastAndCall (const UnknownArrayHandle &handle, Functor &&f, Args &&... args)
	A specialization of CastAndCall for UnknownArrayHandle. More...
template<vtkm::IdComponent Dim, typename Functor , typename... Args>
void	CastAndCall (const vtkm::cont::CellSetStructured< Dim > &cellset, Functor &&f, Args &&... args)
	A specialization of CastAndCall for basic CellSetStructured types, Since the type is already known no deduction is needed. More...
template<typename ConnectivityStorageTag , typename Functor , typename... Args>
void	CastAndCall (const vtkm::cont::CellSetSingleType< ConnectivityStorageTag > &cellset, Functor &&f, Args &&... args)
	A specialization of CastAndCall for basic CellSetSingleType types, Since the type is already known no deduction is needed. More...
template<typename T , typename S , typename U , typename Functor , typename... Args>
void	CastAndCall (const vtkm::cont::CellSetExplicit< T, S, U > &cellset, Functor &&f, Args &&... args)
	A specialization of CastAndCall for basic CellSetExplicit types, Since the type is already known no deduction is needed. More...
template<typename PermutationType , typename CellSetType , typename Functor , typename... Args>
void	CastAndCall (const vtkm::cont::CellSetPermutation< PermutationType, CellSetType > &cellset, Functor &&f, Args &&... args)
	A specialization of CastAndCall for basic CellSetPermutation types, Since the type is already known no deduction is needed. More...
template<typename Functor , typename... Args>
void	CastAndCall (const vtkm::cont::CellSetExtrude &cellset, Functor &&f, Args &&... args)
	A specialization of CastAndCall for basic CellSetExtrude types, Since the type is already known no deduction is needed. More...
template<typename... Args>
void	ConditionalCastAndCall (std::true_type, Args &&... args)
	CastAndCall if the condition is true. More...
template<typename... Args>
void	ConditionalCastAndCall (std::false_type, Args &&...)
	No-op variant since the condition is false. More...
template<typename CellSetType , typename Functor , typename... Args>
void	CastAndCallCellLocatorChooser (const CellSetType &cellSet, const vtkm::cont::CoordinateSystem &coordinateSystem, Functor &&functor, Args &&... args)
	Calls a functor with the appropriate type of CellLocator. More...
template<typename Functor , typename... Args>
void	CastAndCallCellLocatorChooser (const vtkm::cont::DataSet &dataSet, Functor &&functor, Args &&... args)
	Calls a functor with the appropriate type of CellLocator. More...
template<typename T >
CellSetExtrude	make_CellSetExtrude (const vtkm::cont::ArrayHandle< vtkm::Int32 > &conn, const vtkm::cont::ArrayHandleXGCCoordinates< T > &coords, const vtkm::cont::ArrayHandle< vtkm::Int32 > &nextNode, bool periodic=true)
template<typename T >
CellSetExtrude	make_CellSetExtrude (const std::vector< vtkm::Int32 > &conn, const vtkm::cont::ArrayHandleXGCCoordinates< T > &coords, const std::vector< vtkm::Int32 > &nextNode, bool periodic=true)
template<typename T >
CellSetExtrude	make_CellSetExtrude (std::vector< vtkm::Int32 > &&conn, const vtkm::cont::ArrayHandleXGCCoordinates< T > &coords, std::vector< vtkm::Int32 > &&nextNode, bool periodic=true)
template<typename OriginalCellSet , typename PermutationArrayHandleType >
vtkm::cont::CellSetPermutation< OriginalCellSet, PermutationArrayHandleType >	make_CellSetPermutation (const PermutationArrayHandleType &cellIndexMap, const OriginalCellSet &cellSet)
template<typename T , typename S >
bool	ColorTableMap (const vtkm::cont::ArrayHandle< T, S > &values, const vtkm::cont::ColorTableSamplesRGBA &samples, vtkm::cont::ArrayHandle< vtkm::Vec4ui_8 > &rgbaOut)
	Sample each value through an intermediate lookup/sample table to generate RGBA colors. More...
template<typename T , typename S >
bool	ColorTableMap (const vtkm::cont::ArrayHandle< T, S > &values, const vtkm::cont::ColorTableSamplesRGB &samples, vtkm::cont::ArrayHandle< vtkm::Vec3ui_8 > &rgbOut)
	Sample each value through an intermediate lookup/sample table to generate RGB colors. More...
template<typename T , int N, typename S >
bool	ColorTableMapMagnitude (const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &values, const vtkm::cont::ColorTableSamplesRGBA &samples, vtkm::cont::ArrayHandle< vtkm::Vec4ui_8 > &rgbaOut)
	Use magnitude of a vector with a sample table to generate RGBA colors. More...
template<typename T , int N, typename S >
bool	ColorTableMapMagnitude (const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &values, const vtkm::cont::ColorTableSamplesRGB &samples, vtkm::cont::ArrayHandle< vtkm::Vec3ui_8 > &rgbOut)
	Use magnitude of a vector with a sample table to generate RGB colors. More...
template<typename T , int N, typename S >
bool	ColorTableMapComponent (const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &values, vtkm::IdComponent comp, const vtkm::cont::ColorTableSamplesRGBA &samples, vtkm::cont::ArrayHandle< vtkm::Vec4ui_8 > &rgbaOut)
	Use a single component of a vector with a sample table to generate RGBA colors. More...
template<typename T , int N, typename S >
bool	ColorTableMapComponent (const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &values, vtkm::IdComponent comp, const vtkm::cont::ColorTableSamplesRGB &samples, vtkm::cont::ArrayHandle< vtkm::Vec3ui_8 > &rgbOut)
	Use a single component of a vector with a sample table to generate RGB colors. More...
template<typename T , typename S >
bool	ColorTableMap (const vtkm::cont::ArrayHandle< T, S > &values, const vtkm::cont::ColorTable &table, vtkm::cont::ArrayHandle< vtkm::Vec4ui_8 > &rgbaOut)
	Interpolate each value through the color table to generate RGBA colors. More...
template<typename T , typename S >
bool	ColorTableMap (const vtkm::cont::ArrayHandle< T, S > &values, const vtkm::cont::ColorTable &table, vtkm::cont::ArrayHandle< vtkm::Vec< vtkm::UInt8, 3 >> &rgbOut)
	Interpolate each value through the color table to generate RGB colors. More...
template<typename T , int N, typename S >
bool	ColorTableMapMagnitude (const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &values, const vtkm::cont::ColorTable &table, vtkm::cont::ArrayHandle< vtkm::Vec4ui_8 > &rgbaOut)
	Use magnitude of a vector to generate RGBA colors. More...
template<typename T , int N, typename S >
bool	ColorTableMapMagnitude (const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &values, const vtkm::cont::ColorTable &table, vtkm::cont::ArrayHandle< vtkm::Vec< vtkm::UInt8, 3 >> &rgbOut)
	Use magnitude of a vector to generate RGB colors. More...
template<typename T , int N, typename S >
bool	ColorTableMapComponent (const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &values, vtkm::IdComponent comp, const vtkm::cont::ColorTable &table, vtkm::cont::ArrayHandle< vtkm::Vec4ui_8 > &rgbaOut)
	Use a single component of a vector to generate RGBA colors. More...
template<typename T , int N, typename S >
bool	ColorTableMapComponent (const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &values, vtkm::IdComponent comp, const vtkm::cont::ColorTable &table, vtkm::cont::ArrayHandle< vtkm::Vec< vtkm::UInt8, 3 >> &rgbOut)
	Use a single component of a vector to generate RGB colors. More...
void	ConvertNumComponentsToOffsets (const vtkm::cont::UnknownArrayHandle &numComponentsArray, vtkm::cont::ArrayHandle< vtkm::Id > &offsetsArray, vtkm::Id &componentsArraySize, vtkm::cont::DeviceAdapterId device=vtkm::cont::DeviceAdapterTagAny{})
	ConvertNumComponentsToOffsets takes an array of Vec sizes (i.e. More...
void	ConvertNumComponentsToOffsets (const vtkm::cont::UnknownArrayHandle &numComponentsArray, vtkm::cont::ArrayHandle< vtkm::Id > &offsetsArray, vtkm::cont::DeviceAdapterId device=vtkm::cont::DeviceAdapterTagAny{})
vtkm::cont::ArrayHandle< vtkm::Id >	ConvertNumComponentsToOffsets (const vtkm::cont::UnknownArrayHandle &numComponentsArray, vtkm::Id &componentsArraySize, vtkm::cont::DeviceAdapterId device=vtkm::cont::DeviceAdapterTagAny{})
vtkm::cont::ArrayHandle< vtkm::Id >	ConvertNumComponentsToOffsets (const vtkm::cont::UnknownArrayHandle &numComponentsArray, vtkm::cont::DeviceAdapterId device=vtkm::cont::DeviceAdapterTagAny{})
template<typename T >
vtkm::cont::CoordinateSystem	make_CoordinateSystem (std::string name, const std::vector< T > &data, vtkm::CopyFlag copy=vtkm::CopyFlag::Off)
template<typename T >
vtkm::cont::CoordinateSystem	make_CoordinateSystem (std::string name, const T *data, vtkm::Id numberOfValues, vtkm::CopyFlag copy=vtkm::CopyFlag::Off)
std::string &	GlobalGhostCellFieldName () noexcept
const std::string &	GetGlobalGhostCellFieldName () noexcept
void	SetGlobalGhostCellFieldName (const std::string &name) noexcept
DeviceAdapterId	make_DeviceAdapterId (const DeviceAdapterNameType &name)
	Construct a device adapter id from a runtime string The string is case-insensitive. More...
DeviceAdapterId	make_DeviceAdapterId (vtkm::Int8 id)
	Construct a device adapter id a vtkm::Int8. More...
vtkm::cont::DeviceAdapterId	GetDIYDeviceAdapter ()
void	DIYMasterExchange (vtkmdiy::Master &master, bool remote=false)
	Wraps vtkmdiy::Master::exchange by setting its appropiate vtkmdiy::MemoryManagement. More...
void	throwFailedRuntimeDeviceTransfer (const std::string &className, vtkm::cont::DeviceAdapterId device)
	Throws an ErrorBadeDevice exception with the following message: "VTK-m was unable to transfer className to DeviceAdapter[id,name]. More...
void	throwFailedDynamicCast (const std::string &baseType, const std::string &derivedType)
	Throws an ErrorBadType exception with the following message: Cast failed: baseType --> derivedType". More...
template<typename T >
vtkm::cont::Field	make_Field (std::string name, Field::Association association, const T *data, vtkm::Id size, vtkm::CopyFlag copy)
	Convenience functions to build fields from C style arrays and std::vector. More...
template<typename T >
vtkm::cont::Field	make_Field (std::string name, Field::Association association, const std::vector< T > &data, vtkm::CopyFlag copy)
template<typename T >
vtkm::cont::Field	make_FieldMove (std::string name, Field::Association association, std::vector< T > &&data)
template<typename T >
vtkm::cont::Field	make_Field (std::string name, Field::Association association, std::vector< T > &&data, vtkm::CopyFlag)
template<typename T >
vtkm::cont::Field	make_Field (std::string name, Field::Association association, std::initializer_list< T > &&data)
template<typename T , typename S >
vtkm::cont::Field	make_FieldPoint (std::string name, const vtkm::cont::ArrayHandle< T, S > &data)
	Convenience function to build point fields from vtkm::cont::ArrayHandle. More...
vtkm::cont::Field	make_FieldPoint (std::string name, const vtkm::cont::UnknownArrayHandle &data)
	Convenience function to build point fields from vtkm::cont::UnknownArrayHandle. More...
template<typename T , typename S >
vtkm::cont::Field	make_FieldCell (std::string name, const vtkm::cont::ArrayHandle< T, S > &data)
	Convenience function to build cell fields from vtkm::cont::ArrayHandle. More...
vtkm::cont::Field	make_FieldCell (std::string name, const vtkm::cont::UnknownArrayHandle &data)
	Convenience function to build cell fields from vtkm::cont::UnknownArrayHandle. More...
vtkm::cont::ArrayHandle< vtkm::Range >	FieldRangeCompute (const vtkm::cont::DataSet &dataset, const std::string &name, vtkm::cont::Field::Association assoc=vtkm::cont::Field::Association::Any)
	Compute ranges for fields in a DataSet or PartitionedDataSet. More...
vtkm::cont::ArrayHandle< vtkm::Range >	FieldRangeCompute (const vtkm::cont::PartitionedDataSet &pds, const std::string &name, vtkm::cont::Field::Association assoc=vtkm::cont::Field::Association::Any)
	Returns the range for a field from a PartitionedDataSet. More...
vtkm::cont::ArrayHandle< vtkm::Range >	FieldRangeGlobalCompute (const vtkm::cont::DataSet &dataset, const std::string &name, vtkm::cont::Field::Association assoc=vtkm::cont::Field::Association::Any)
	utility functions to compute global ranges for dataset fields. More...
vtkm::cont::ArrayHandle< vtkm::Range >	FieldRangeGlobalCompute (const vtkm::cont::PartitionedDataSet &pds, const std::string &name, vtkm::cont::Field::Association assoc=vtkm::cont::Field::Association::Any)
	Returns the range for a field from a PartitionedDataSet. More...
InitializeOptions	operator| (const InitializeOptions &lhs, const InitializeOptions &rhs)
InitializeOptions	operator& (const InitializeOptions &lhs, const InitializeOptions &rhs)
vtkm::cont::LogLevel	GetStderrLogLevel ()
	Get the active highest log level that will be printed to stderr. More...
void	SetLogLevelName (vtkm::cont::LogLevel level, const std::string &name)
	Register a custom name to identify a log level. More...
std::string	GetLogLevelName (vtkm::cont::LogLevel level)
	Get a human readable name for the log level. More...
std::string	GetLogErrorContext ()
std::string	GetStackTrace (vtkm::Int32 skip=0)
	Returns a stacktrace on supported platforms. More...
std::string	GetHumanReadableSize (vtkm::UInt64 bytes, int prec=2)
	Convert a size in bytes to a human readable string (such as "64 bytes", "1.44 MiB", "128 GiB", etc). More...
template<typename T >
std::string	GetHumanReadableSize (T &&bytes, int prec=2)
std::string	GetSizeString (vtkm::UInt64 bytes, int prec=2)
	Returns "%1 (%2 bytes)" where %1 is the result from GetHumanReadableSize and %2 is the exact number of bytes. More...
template<typename T >
std::string	GetSizeString (T &&bytes, int prec=2)
void	LogCond (LogLevel level, bool cond, const char *file, unsigned line, const char *format...)
	Conditionally logs a message with a printf-like format. More...
vtkm::cont::DataSet	MergePartitionedDataSet (const vtkm::cont::PartitionedDataSet &partitionedDataSet, vtkm::Float64 invalidValue=vtkm::Nan64())
	This function can merge multiple data sets into on data set. More...
template<typename ParticleType >
void	ParticleArrayCopy (const vtkm::cont::ArrayHandle< ParticleType, vtkm::cont::StorageTagBasic > &inP, vtkm::cont::ArrayHandle< vtkm::Vec3f, vtkm::cont::StorageTagBasic > &outPos, bool CopyTerminatedOnly=false)
	Copy fields in vtkm::Particle to standard types. More...
template<typename ParticleType >
void	ParticleArrayCopy (const std::vector< vtkm::cont::ArrayHandle< ParticleType, vtkm::cont::StorageTagBasic >> &inputs, vtkm::cont::ArrayHandle< vtkm::Vec3f, vtkm::cont::StorageTagBasic > &outPos)
	Copy fields in vtkm::Particle to standard types. More...
template<typename ParticleType >
void	ParticleArrayCopy (const vtkm::cont::ArrayHandle< ParticleType, vtkm::cont::StorageTagBasic > &inP, vtkm::cont::ArrayHandle< vtkm::Vec3f, vtkm::cont::StorageTagBasic > &outPos, vtkm::cont::ArrayHandle< vtkm::Id, vtkm::cont::StorageTagBasic > &outID, vtkm::cont::ArrayHandle< vtkm::Id, vtkm::cont::StorageTagBasic > &outSteps, vtkm::cont::ArrayHandle< vtkm::ParticleStatus, vtkm::cont::StorageTagBasic > &outStatus, vtkm::cont::ArrayHandle< vtkm::FloatDefault, vtkm::cont::StorageTagBasic > &outTime)
	Copy all fields in vtkm::Particle to standard types. More...
vtkm::cont::RuntimeDeviceTracker &	GetRuntimeDeviceTracker ()
	Get the RuntimeDeviceTracker for the current thread. More...
bool	operator== (const vtkm::cont::Token &token, vtkm::cont::Token::Reference ref)
bool	operator!= (const vtkm::cont::Token &token, vtkm::cont::Token::Reference ref)
bool	operator== (vtkm::cont::Token::Reference ref, const vtkm::cont::Token &token)
bool	operator!= (vtkm::cont::Token::Reference ref, const vtkm::cont::Token &token)
template<typename ArrayHandleType >
bool	IsType (const vtkm::cont::UnknownArrayHandle &array)
	Returns true if variant matches the type of ArrayHandleType. More...
template<typename ArrayHandleType >
ArrayHandleType	Cast (const vtkm::cont::UnknownArrayHandle &array)
	Returns variant cast to the given ArrayHandle type. More...
template<typename CellSetType >
bool	IsType (const vtkm::cont::UnknownCellSet &unknownCellSet)
	Returns true if unknownCellSet matches the type of CellSetType. More...
template<typename CellSetType >
CellSetType	Cast (const vtkm::cont::UnknownCellSet &unknownCellSet)
	Returns unknownCellSet cast to the given CellSet type. More...

Detailed Description

VTK-m Control Environment.

vtkm::cont defines the publicly accessible API for the VTK-m Control Environment. Users of the VTK-m Toolkit can use this namespace to access the Control Environment.

Typedef Documentation

ArrayHandleMultiplexerFromList

template<typename List >

using vtkm::cont::ArrayHandleMultiplexerFromList = typedef vtkm::ListApply<List, ArrayHandleMultiplexer>

Converts avtkm::List to an ArrayHandleMultiplexer

The argument of this template must be a vtkm::List and furthermore all the types in the list tag must be some type of ArrayHandle. The templated type gets aliased to an ArrayHandleMultiplexer that can store any of these ArrayHandle types.

CellLocatorChooser

template<typename CellSetType , typename CoordinateSystemArrayType >

using vtkm::cont::CellLocatorChooser = typedef typename detail::CellLocatorChooserImpl<CellSetType, CoordinateSystemArrayType>::type

A template to select an appropriate CellLocator based on CellSet type.

Given a concrete type for a CellSet subclass and a type of ArrayHandle for the coordinate system, CellLocatorChooser picks an appropriate CellLocator for that type of grid. It is a convenient class to use when you can resolve your templates to discover the type of data set being used for location.

CellSetListCommon

using vtkm::cont::CellSetListCommon = typedef vtkm::List<vtkm::cont::CellSetStructured<2>, vtkm::cont::CellSetStructured<3>, vtkm::cont::CellSetExplicit<>, vtkm::cont::CellSetSingleType<> >

CellSetListExplicit

template<typename ShapesStorageTag = VTKM_DEFAULT_STORAGE_TAG, typename ConnectivityStorageTag = VTKM_DEFAULT_STORAGE_TAG, typename OffsetsStorageTag = VTKM_DEFAULT_STORAGE_TAG>

using vtkm::cont::CellSetListExplicit = typedef vtkm::List< vtkm::cont::CellSetExplicit<ShapesStorageTag, ConnectivityStorageTag, OffsetsStorageTag> >

CellSetListExplicitDefault

using vtkm::cont::CellSetListExplicitDefault = typedef CellSetListExplicit<>

CellSetListStructured

using vtkm::cont::CellSetListStructured = typedef vtkm::List<vtkm::cont::CellSetStructured<2>, vtkm::cont::CellSetStructured<3> >

CellSetListStructured1D

using vtkm::cont::CellSetListStructured1D = typedef vtkm::List<vtkm::cont::CellSetStructured<1> >

CellSetListStructured2D

using vtkm::cont::CellSetListStructured2D = typedef vtkm::List<vtkm::cont::CellSetStructured<2> >

CellSetListStructured3D

using vtkm::cont::CellSetListStructured3D = typedef vtkm::List<vtkm::cont::CellSetStructured<3> >

CellSetListUnstructured

using vtkm::cont::CellSetListUnstructured = typedef vtkm::List<vtkm::cont::CellSetExplicit<>, vtkm::cont::CellSetSingleType<> >

DeviceAdapterListCommon

using vtkm::cont::DeviceAdapterListCommon = typedef vtkm::List<vtkm::cont::DeviceAdapterTagCuda, vtkm::cont::DeviceAdapterTagTBB, vtkm::cont::DeviceAdapterTagOpenMP, vtkm::cont::DeviceAdapterTagKokkos, vtkm::cont::DeviceAdapterTagSerial>

DeviceAdapterNameType

using vtkm::cont::DeviceAdapterNameType = typedef std::string

StorageListBasic

using vtkm::cont::StorageListBasic = typedef vtkm::List<vtkm::cont::StorageTagBasic>

StorageListCommon

using vtkm::cont::StorageListCommon = typedef vtkm::List<vtkm::cont::StorageTagBasic, vtkm::cont::StorageTagSOA, vtkm::cont::StorageTagUniformPoints, vtkm::cont::StorageTagCartesianProduct<vtkm::cont::StorageTagBasic, vtkm::cont::StorageTagBasic, vtkm::cont::StorageTagBasic> >

Enumeration Type Documentation

InitializeOptions

enum vtkm::cont::InitializeOptions

strong

Enumerator
None	Placeholder used when no options are enabled. This is the value used when the third argument to vtkm::cont::Initialize is not provided.
RequireDevice	Issue an error if the device argument is not specified.
DefaultAnyDevice	If no device is specified, treat it as if the user gave --vtkm-device=Any. This means that DeviceAdapterTagUndefined will never be returned in the result.
AddHelp	Add a help argument. If -h or --vtkm-help is provided, prints a usage statement. Of course, the usage statement will only print out arguments processed by VTK-m, which is why help is not given by default. Alternatively, a string with usage help is returned from vtkm::cont::Initialize so that the calling program can provide VTK-m's help in its own usage statement.
ErrorOnBadOption	If an unknown option is encountered, the program terminates with an error and a usage statement is printed. If this option is not provided, any unknown options are returned in argv. If this option is used, it is a good idea to use AddHelp as well.
ErrorOnBadArgument	If an extra argument is encountered, the program terminates with an error and a usage statement is printed. If this option is not provided, any unknown arguments are returned in argv.
Strict	If supplied, Initialize treats its own arguments as the only ones supported by the application and provides an error if not followed exactly. This is a convenience option that is a combination of ErrorOnBadOption, ErrorOnBadArgument, and AddHelp.

LogLevel

enum vtkm::cont::LogLevel

strong

Log levels for use with the logging macros.

Enumerator
Off	A placeholder used to silence all logging. Do not actually log to this level.
Fatal	Fatal errors that should abort execution.
Error	Important but non-fatal errors, such as device fail-over.
Warn	Less important user errors, such as out-of-bounds parameters.
Info	Information messages (detected hardware, etc) and temporary debugging output.
UserFirst	The first in a range of logging levels reserved for code that uses VTK-m. Internal VTK-m code will not log on these levels but will report these logs.
UserLast	The last in a range of logging levels reserved for code that uses VTK-m.
DevicesEnabled	Information about which devices are enabled/disabled.
Perf	General timing data and algorithm flow information, such as filter execution, worklet dispatches, and device algorithm calls.
MemCont	Host-side resource allocations/frees (e.g. ArrayHandle control buffers).
MemExec	Device-side resource allocations/frees (e.g ArrayHandle device buffers).
MemTransfer	Transferring of data between a host and device.
KernelLaunches	Details on device-side kernel launches.
Cast	Reports when a dynamic object is (or is not) resolved via a CastAndCall or other casting method.
UserVerboseFirst	The first in a range of logging levels reserved for code that uses VTK-m. Internal VTK-m code will not log on these levels but will report these logs. These are used similarly to those in the UserFirst range but are at a lower precedence that also includes more verbose reporting from VTK-m.
UserVerboseLast	The last in a range of logging levels reserved for code that uses VTK-m.

RuntimeDeviceTrackerMode

enum vtkm::cont::RuntimeDeviceTrackerMode

strong

Identifier used to specify whether to enable or disable a particular device.

Enumerator
Force	Replaces the current list of devices to try with the device specified. This has the effect of forcing VTK-m to use the provided device. This is the default behavior for vtkm::cont::ScopedRuntimeDeviceTracker.
Enable	Adds the provided device adapter to the list of devices to try.
Disable	Removes the provided device adapter from the list of devices to try.

Function Documentation

ArrayCopy() [1/3]

template<typename SourceArrayType , typename DestArrayType >

void vtkm::cont::ArrayCopy ( const SourceArrayType &  source, DestArrayType &  destination  )

inline

Does a deep copy from one array to another array.

Given a source ArrayHandle and a destination ArrayHandle, this function allocates the destination ArrayHandle to the correct size and deeply copies all the values from the source to the destination.

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment, the runtime device tracker is used to try to find another device.

This should work on some non-writable array handles as well, as long as both source and destination are the same type.

This version of array copy uses a precompiled version of copy that is efficient for most standard memory layouts. However, there are some types of fancy ArrayHandle that cannot be handled directly, and the fallback for these arrays can be slow. If you see a warning in the log about an inefficient memory copy when extracting a component, pay heed and look for a different way to copy the data (perhaps using ArrayCopyDevice).

ArrayCopy() [2/3]

template<typename SourceArrayType >

void vtkm::cont::ArrayCopy ( const SourceArrayType &  source, vtkm::cont::UnknownArrayHandle &  destination  )

inline

Does a deep copy from one array to another array.

Given a source ArrayHandle and a destination ArrayHandle, this function allocates the destination ArrayHandle to the correct size and deeply copies all the values from the source to the destination.

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment, the runtime device tracker is used to try to find another device.

This should work on some non-writable array handles as well, as long as both source and destination are the same type.

This version of array copy uses a precompiled version of copy that is efficient for most standard memory layouts. However, there are some types of fancy ArrayHandle that cannot be handled directly, and the fallback for these arrays can be slow. If you see a warning in the log about an inefficient memory copy when extracting a component, pay heed and look for a different way to copy the data (perhaps using ArrayCopyDevice).

ArrayCopy() [3/3]

template<typename T , typename S >

void vtkm::cont::ArrayCopy	(	const vtkm::cont::UnknownArrayHandle &	,
		const vtkm::cont::ArrayHandle< T, S > &
	)

ArrayCopyDevice()

template<typename InValueType , typename InStorage , typename OutValueType , typename OutStorage >

void vtkm::cont::ArrayCopyDevice	(	const vtkm::cont::ArrayHandle< InValueType, InStorage > &	source,
		vtkm::cont::ArrayHandle< OutValueType, OutStorage > &	destination
	)

Does a deep copy from one array to another array.

Given a source ArrayHandle and a destination ArrayHandle, this function allocates the destination ArrayHandle to the correct size and deeply copies all the values from the source to the destination.

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment, the runtime device tracker is used to try to find another device.

This should work on some non-writable array handles as well, as long as both source and destination are the same type.

This version of array copy is templated to create custom code for the particular types of ArrayHandles that you are copying. This will ensure that you get the best possible copy, but requires a device compiler and tends to bloat the code.

ArrayCopyShallowIfPossible()

template<typename T , typename S >

void vtkm::cont::ArrayCopyShallowIfPossible	(	const vtkm::cont::UnknownArrayHandle	source,
		vtkm::cont::ArrayHandle< T, S > &	destination
	)

Copies from an unknown to a known array type.

Often times you have an array of an unknown type (likely from a data set), and you need it to be of a particular type (or can make a reasonable but uncertain assumption about it being a particular type). You really just want a shallow copy (a reference in a concrete ArrayHandle) if that is possible.

ArrayCopyShallowIfPossible pulls an array of a specific type from an UnknownArrayHandle. If the type is compatible, it will perform a shallow copy. If it is not possible, a deep copy is performed to get it to the correct type.

ArrayExtractComponent()

template<typename T , typename S >

vtkm::cont::ArrayHandleStride<typename vtkm::VecTraits<T>::BaseComponentType> vtkm::cont::ArrayExtractComponent	(	const vtkm::cont::ArrayHandle< T, S > &	src,
		vtkm::IdComponent	componentIndex,
		vtkm::CopyFlag	allowCopy = vtkm::CopyFlag::On
	)

Pulls a component out of an ArrayHandle.

Given an ArrayHandle of any type, ArrayExtractComponent returns an ArrayHandleStride of the base component type that contains the data for the specified array component. This function can be used to apply an operation on an ArrayHandle one component at a time. Because the array type is always ArrayHandleStride, you can drastically cut down on the number of templates to instantiate (at a possible cost to performance).

Note that ArrayExtractComponent will flatten out the indices of any vec value type and return an ArrayExtractComponent of the base component type. For example, if you call ArrayExtractComponent on an ArrayHandle with a value type of vtkm::Vec<vtkm::Vec<vtkm::Float32, 2>, 3>, you will get an ArrayExtractComponent<vtkm::Float32> returned. The componentIndex provided will be applied to the nested vector in depth first order. So in the previous example, a componentIndex of 0 gets the values at [0][0], componentIndex of 1 gets [0][1], componentIndex of 2 gets [1][0], and so on.

Some ArrayHandles allow this method to return an ArrayHandleStride that shares the same memory as the the original ArrayHandle. This form will be used if possible. In this case, if data are written into the ArrayHandleStride, they are also written into the original ArrayHandle. However, other forms will require copies into a new array. In this case, writes into ArrayHandleStride will not affect the original ArrayHandle.

For some operations, such as writing into an output array, this behavior of shared arrays is necessary. For this case, the optional argument allowCopy can be set to vtkm::CopyFlag::Off to prevent the copying behavior into the return ArrayHandleStride. If this is the case, an ErrorBadValue is thrown. If the arrays can be shared, they always will be regardless of the value of allowCopy.

Many forms of ArrayHandle have optimized versions to pull out a component. Some, however, do not. In these cases, a fallback array copy, done in serial, will be performed. A warning will be logged to alert users of this likely performance bottleneck.

As an implementation note, this function should not be overloaded directly. Instead, ArrayHandle implementations should provide a specialization of vtkm::cont::internal::ArrayExtractComponentImpl.

ArrayGetValue() [1/2]

template<typename T , typename S >

T vtkm::cont::ArrayGetValue	(	vtkm::Id	id,
		const vtkm::cont::ArrayHandle< T, S > &	data
	)

Obtain a small set of values from an ArrayHandle with minimal device transfers.

The values in data at the indices in ids are copied into a new array and returned. This is useful for retrieving a subset of an array from a device without transferring the entire array to the host.

These functions should not be called repeatedly in a loop to fetch all values from an array handle. The much more efficient way to do this is to use the proper control-side portals (ArrayHandle::WritePortal() and ArrayHandle::ReadPortal()).

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment or the device copy fails, a control-side copy is performed.

Since a serial control-side copy may be used, this method is only intended for copying small subsets of the input data. Larger subsets that would benefit from parallelization should prefer using the ArrayCopy method with an ArrayHandlePermutation.

This utility provides several convenient overloads:

A single id may be passed into ArrayGetValue, or multiple ids may be specified to ArrayGetValues as an ArrayHandle<vtkm::Id>, a std::vector<vtkm::Id>, a c-array (pointer and size), or as a brace-enclosed initializer list.

The single result from ArrayGetValue may be returned or written to an output argument. Multiple results from ArrayGetValues may be returned as an std::vector<T>, or written to an output argument as an ArrayHandle<T> or a std::vector<T>.

Examples:

vtkm::cont::ArrayHandle<T> data = ...;
 
// Fetch the first value in an array handle:
T firstVal = vtkm::cont::ArrayGetValue(0, data);
 
// Fetch the first and third values in an array handle:
std::vector<T> firstAndThird = vtkm::cont::ArrayGetValues({0, 2}, data);
 
// Fetch the first and last values in an array handle:
std::vector<T> firstAndLast =
    vtkm::cont::ArrayGetValues({0, data.GetNumberOfValues() - 1}, data);
 
// Fetch the first 4 values into an array handle:
const std::vector<vtkm::Id> ids{0, 1, 2, 3};
vtkm::cont::ArrayHandle<T> firstFour;
vtkm::cont::ArrayGetValues(ids, data, firstFour);

ArrayGetValue() [2/2]

template<typename T , typename S >

void vtkm::cont::ArrayGetValue	(	vtkm::Id	id,
		const vtkm::cont::ArrayHandle< T, S > &	data,
		T &	val
	)

Obtain a small set of values from an ArrayHandle with minimal device transfers.

The values in data at the indices in ids are copied into a new array and returned. This is useful for retrieving a subset of an array from a device without transferring the entire array to the host.

These functions should not be called repeatedly in a loop to fetch all values from an array handle. The much more efficient way to do this is to use the proper control-side portals (ArrayHandle::WritePortal() and ArrayHandle::ReadPortal()).

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment or the device copy fails, a control-side copy is performed.

Since a serial control-side copy may be used, this method is only intended for copying small subsets of the input data. Larger subsets that would benefit from parallelization should prefer using the ArrayCopy method with an ArrayHandlePermutation.

This utility provides several convenient overloads:

A single id may be passed into ArrayGetValue, or multiple ids may be specified to ArrayGetValues as an ArrayHandle<vtkm::Id>, a std::vector<vtkm::Id>, a c-array (pointer and size), or as a brace-enclosed initializer list.

The single result from ArrayGetValue may be returned or written to an output argument. Multiple results from ArrayGetValues may be returned as an std::vector<T>, or written to an output argument as an ArrayHandle<T> or a std::vector<T>.

Examples:

vtkm::cont::ArrayHandle<T> data = ...;
 
// Fetch the first value in an array handle:
T firstVal = vtkm::cont::ArrayGetValue(0, data);
 
// Fetch the first and third values in an array handle:
std::vector<T> firstAndThird = vtkm::cont::ArrayGetValues({0, 2}, data);
 
// Fetch the first and last values in an array handle:
std::vector<T> firstAndLast =
    vtkm::cont::ArrayGetValues({0, data.GetNumberOfValues() - 1}, data);
 
// Fetch the first 4 values into an array handle:
const std::vector<vtkm::Id> ids{0, 1, 2, 3};
vtkm::cont::ArrayHandle<T> firstFour;
vtkm::cont::ArrayGetValues(ids, data, firstFour);

ArrayGetValues() [1/13]

template<typename T , typename SData >

std::vector<T> vtkm::cont::ArrayGetValues	(	const std::initializer_list< vtkm::Id > &	ids,
		const vtkm::cont::ArrayHandle< T, SData > &	data
	)

Obtain a small set of values from an ArrayHandle with minimal device transfers.

The values in data at the indices in ids are copied into a new array and returned. This is useful for retrieving a subset of an array from a device without transferring the entire array to the host.

These functions should not be called repeatedly in a loop to fetch all values from an array handle. The much more efficient way to do this is to use the proper control-side portals (ArrayHandle::WritePortal() and ArrayHandle::ReadPortal()).

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment or the device copy fails, a control-side copy is performed.

Since a serial control-side copy may be used, this method is only intended for copying small subsets of the input data. Larger subsets that would benefit from parallelization should prefer using the ArrayCopy method with an ArrayHandlePermutation.

This utility provides several convenient overloads:

A single id may be passed into ArrayGetValue, or multiple ids may be specified to ArrayGetValues as an ArrayHandle<vtkm::Id>, a std::vector<vtkm::Id>, a c-array (pointer and size), or as a brace-enclosed initializer list.

The single result from ArrayGetValue may be returned or written to an output argument. Multiple results from ArrayGetValues may be returned as an std::vector<T>, or written to an output argument as an ArrayHandle<T> or a std::vector<T>.

Examples:

vtkm::cont::ArrayHandle<T> data = ...;
 
// Fetch the first value in an array handle:
T firstVal = vtkm::cont::ArrayGetValue(0, data);
 
// Fetch the first and third values in an array handle:
std::vector<T> firstAndThird = vtkm::cont::ArrayGetValues({0, 2}, data);
 
// Fetch the first and last values in an array handle:
std::vector<T> firstAndLast =
    vtkm::cont::ArrayGetValues({0, data.GetNumberOfValues() - 1}, data);
 
// Fetch the first 4 values into an array handle:
const std::vector<vtkm::Id> ids{0, 1, 2, 3};
vtkm::cont::ArrayHandle<T> firstFour;
vtkm::cont::ArrayGetValues(ids, data, firstFour);

ArrayGetValues() [2/13]

template<typename T , typename SData , typename Alloc >

void vtkm::cont::ArrayGetValues	(	const std::initializer_list< vtkm::Id > &	ids,
		const vtkm::cont::ArrayHandle< T, SData > &	data,
		std::vector< T, Alloc > &	output
	)

Obtain a small set of values from an ArrayHandle with minimal device transfers.

The values in data at the indices in ids are copied into a new array and returned. This is useful for retrieving a subset of an array from a device without transferring the entire array to the host.

These functions should not be called repeatedly in a loop to fetch all values from an array handle. The much more efficient way to do this is to use the proper control-side portals (ArrayHandle::WritePortal() and ArrayHandle::ReadPortal()).

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment or the device copy fails, a control-side copy is performed.

Since a serial control-side copy may be used, this method is only intended for copying small subsets of the input data. Larger subsets that would benefit from parallelization should prefer using the ArrayCopy method with an ArrayHandlePermutation.

This utility provides several convenient overloads:

A single id may be passed into ArrayGetValue, or multiple ids may be specified to ArrayGetValues as an ArrayHandle<vtkm::Id>, a std::vector<vtkm::Id>, a c-array (pointer and size), or as a brace-enclosed initializer list.

The single result from ArrayGetValue may be returned or written to an output argument. Multiple results from ArrayGetValues may be returned as an std::vector<T>, or written to an output argument as an ArrayHandle<T> or a std::vector<T>.

Examples:

vtkm::cont::ArrayHandle<T> data = ...;
 
// Fetch the first value in an array handle:
T firstVal = vtkm::cont::ArrayGetValue(0, data);
 
// Fetch the first and third values in an array handle:
std::vector<T> firstAndThird = vtkm::cont::ArrayGetValues({0, 2}, data);
 
// Fetch the first and last values in an array handle:
std::vector<T> firstAndLast =
    vtkm::cont::ArrayGetValues({0, data.GetNumberOfValues() - 1}, data);
 
// Fetch the first 4 values into an array handle:
const std::vector<vtkm::Id> ids{0, 1, 2, 3};
vtkm::cont::ArrayHandle<T> firstFour;
vtkm::cont::ArrayGetValues(ids, data, firstFour);

ArrayGetValues() [3/13]

template<typename T , typename SData , typename SOut >

void vtkm::cont::ArrayGetValues	(	const std::initializer_list< vtkm::Id > &	ids,
		const vtkm::cont::ArrayHandle< T, SData > &	data,
		vtkm::cont::ArrayHandle< T, SOut > &	output
	)

Obtain a small set of values from an ArrayHandle with minimal device transfers.

The values in data at the indices in ids are copied into a new array and returned. This is useful for retrieving a subset of an array from a device without transferring the entire array to the host.

These functions should not be called repeatedly in a loop to fetch all values from an array handle. The much more efficient way to do this is to use the proper control-side portals (ArrayHandle::WritePortal() and ArrayHandle::ReadPortal()).

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment or the device copy fails, a control-side copy is performed.

Since a serial control-side copy may be used, this method is only intended for copying small subsets of the input data. Larger subsets that would benefit from parallelization should prefer using the ArrayCopy method with an ArrayHandlePermutation.

This utility provides several convenient overloads:

A single id may be passed into ArrayGetValue, or multiple ids may be specified to ArrayGetValues as an ArrayHandle<vtkm::Id>, a std::vector<vtkm::Id>, a c-array (pointer and size), or as a brace-enclosed initializer list.

The single result from ArrayGetValue may be returned or written to an output argument. Multiple results from ArrayGetValues may be returned as an std::vector<T>, or written to an output argument as an ArrayHandle<T> or a std::vector<T>.

Examples:

vtkm::cont::ArrayHandle<T> data = ...;
 
// Fetch the first value in an array handle:
T firstVal = vtkm::cont::ArrayGetValue(0, data);
 
// Fetch the first and third values in an array handle:
std::vector<T> firstAndThird = vtkm::cont::ArrayGetValues({0, 2}, data);
 
// Fetch the first and last values in an array handle:
std::vector<T> firstAndLast =
    vtkm::cont::ArrayGetValues({0, data.GetNumberOfValues() - 1}, data);
 
// Fetch the first 4 values into an array handle:
const std::vector<vtkm::Id> ids{0, 1, 2, 3};
vtkm::cont::ArrayHandle<T> firstFour;
vtkm::cont::ArrayGetValues(ids, data, firstFour);

ArrayGetValues() [4/13]

template<typename T , typename Alloc , typename SData >

std::vector<T> vtkm::cont::ArrayGetValues	(	const std::vector< vtkm::Id, Alloc > &	ids,
		const vtkm::cont::ArrayHandle< T, SData > &	data
	)

Obtain a small set of values from an ArrayHandle with minimal device transfers.

The values in data at the indices in ids are copied into a new array and returned. This is useful for retrieving a subset of an array from a device without transferring the entire array to the host.

These functions should not be called repeatedly in a loop to fetch all values from an array handle. The much more efficient way to do this is to use the proper control-side portals (ArrayHandle::WritePortal() and ArrayHandle::ReadPortal()).

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment or the device copy fails, a control-side copy is performed.

Since a serial control-side copy may be used, this method is only intended for copying small subsets of the input data. Larger subsets that would benefit from parallelization should prefer using the ArrayCopy method with an ArrayHandlePermutation.

This utility provides several convenient overloads:

A single id may be passed into ArrayGetValue, or multiple ids may be specified to ArrayGetValues as an ArrayHandle<vtkm::Id>, a std::vector<vtkm::Id>, a c-array (pointer and size), or as a brace-enclosed initializer list.

The single result from ArrayGetValue may be returned or written to an output argument. Multiple results from ArrayGetValues may be returned as an std::vector<T>, or written to an output argument as an ArrayHandle<T> or a std::vector<T>.

Examples:

vtkm::cont::ArrayHandle<T> data = ...;
 
// Fetch the first value in an array handle:
T firstVal = vtkm::cont::ArrayGetValue(0, data);
 
// Fetch the first and third values in an array handle:
std::vector<T> firstAndThird = vtkm::cont::ArrayGetValues({0, 2}, data);
 
// Fetch the first and last values in an array handle:
std::vector<T> firstAndLast =
    vtkm::cont::ArrayGetValues({0, data.GetNumberOfValues() - 1}, data);
 
// Fetch the first 4 values into an array handle:
const std::vector<vtkm::Id> ids{0, 1, 2, 3};
vtkm::cont::ArrayHandle<T> firstFour;
vtkm::cont::ArrayGetValues(ids, data, firstFour);

ArrayGetValues() [5/13]

template<typename T , typename Alloc , typename SData , typename SOut >

void vtkm::cont::ArrayGetValues	(	const std::vector< vtkm::Id, Alloc > &	ids,
		const vtkm::cont::ArrayHandle< T, SData > &	data,
		vtkm::cont::ArrayHandle< T, SOut > &	output
	)

Obtain a small set of values from an ArrayHandle with minimal device transfers.

The values in data at the indices in ids are copied into a new array and returned. This is useful for retrieving a subset of an array from a device without transferring the entire array to the host.

These functions should not be called repeatedly in a loop to fetch all values from an array handle. The much more efficient way to do this is to use the proper control-side portals (ArrayHandle::WritePortal() and ArrayHandle::ReadPortal()).

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment or the device copy fails, a control-side copy is performed.

Since a serial control-side copy may be used, this method is only intended for copying small subsets of the input data. Larger subsets that would benefit from parallelization should prefer using the ArrayCopy method with an ArrayHandlePermutation.

This utility provides several convenient overloads:

A single id may be passed into ArrayGetValue, or multiple ids may be specified to ArrayGetValues as an ArrayHandle<vtkm::Id>, a std::vector<vtkm::Id>, a c-array (pointer and size), or as a brace-enclosed initializer list.

The single result from ArrayGetValue may be returned or written to an output argument. Multiple results from ArrayGetValues may be returned as an std::vector<T>, or written to an output argument as an ArrayHandle<T> or a std::vector<T>.

Examples:

vtkm::cont::ArrayHandle<T> data = ...;
 
// Fetch the first value in an array handle:
T firstVal = vtkm::cont::ArrayGetValue(0, data);
 
// Fetch the first and third values in an array handle:
std::vector<T> firstAndThird = vtkm::cont::ArrayGetValues({0, 2}, data);
 
// Fetch the first and last values in an array handle:
std::vector<T> firstAndLast =
    vtkm::cont::ArrayGetValues({0, data.GetNumberOfValues() - 1}, data);
 
// Fetch the first 4 values into an array handle:
const std::vector<vtkm::Id> ids{0, 1, 2, 3};
vtkm::cont::ArrayHandle<T> firstFour;
vtkm::cont::ArrayGetValues(ids, data, firstFour);

ArrayGetValues() [6/13]

template<typename T , typename AllocId , typename SData , typename AllocOut >

void vtkm::cont::ArrayGetValues	(	const std::vector< vtkm::Id, AllocId > &	ids,
		const vtkm::cont::ArrayHandle< T, SData > &	data,
		std::vector< T, AllocOut > &	output
	)

Obtain a small set of values from an ArrayHandle with minimal device transfers.

The values in data at the indices in ids are copied into a new array and returned. This is useful for retrieving a subset of an array from a device without transferring the entire array to the host.

These functions should not be called repeatedly in a loop to fetch all values from an array handle. The much more efficient way to do this is to use the proper control-side portals (ArrayHandle::WritePortal() and ArrayHandle::ReadPortal()).

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment or the device copy fails, a control-side copy is performed.

Since a serial control-side copy may be used, this method is only intended for copying small subsets of the input data. Larger subsets that would benefit from parallelization should prefer using the ArrayCopy method with an ArrayHandlePermutation.

This utility provides several convenient overloads:

A single id may be passed into ArrayGetValue, or multiple ids may be specified to ArrayGetValues as an ArrayHandle<vtkm::Id>, a std::vector<vtkm::Id>, a c-array (pointer and size), or as a brace-enclosed initializer list.

The single result from ArrayGetValue may be returned or written to an output argument. Multiple results from ArrayGetValues may be returned as an std::vector<T>, or written to an output argument as an ArrayHandle<T> or a std::vector<T>.

Examples:

vtkm::cont::ArrayHandle<T> data = ...;
 
// Fetch the first value in an array handle:
T firstVal = vtkm::cont::ArrayGetValue(0, data);
 
// Fetch the first and third values in an array handle:
std::vector<T> firstAndThird = vtkm::cont::ArrayGetValues({0, 2}, data);
 
// Fetch the first and last values in an array handle:
std::vector<T> firstAndLast =
    vtkm::cont::ArrayGetValues({0, data.GetNumberOfValues() - 1}, data);
 
// Fetch the first 4 values into an array handle:
const std::vector<vtkm::Id> ids{0, 1, 2, 3};
vtkm::cont::ArrayHandle<T> firstFour;
vtkm::cont::ArrayGetValues(ids, data, firstFour);

ArrayGetValues() [7/13]

template<typename SIds , typename T , typename SData >

std::vector<T> vtkm::cont::ArrayGetValues	(	const vtkm::cont::ArrayHandle< vtkm::Id, SIds > &	ids,
		const vtkm::cont::ArrayHandle< T, SData > &	data
	)

Obtain a small set of values from an ArrayHandle with minimal device transfers.

The values in data at the indices in ids are copied into a new array and returned. This is useful for retrieving a subset of an array from a device without transferring the entire array to the host.

These functions should not be called repeatedly in a loop to fetch all values from an array handle. The much more efficient way to do this is to use the proper control-side portals (ArrayHandle::WritePortal() and ArrayHandle::ReadPortal()).

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment or the device copy fails, a control-side copy is performed.

Since a serial control-side copy may be used, this method is only intended for copying small subsets of the input data. Larger subsets that would benefit from parallelization should prefer using the ArrayCopy method with an ArrayHandlePermutation.

This utility provides several convenient overloads:

A single id may be passed into ArrayGetValue, or multiple ids may be specified to ArrayGetValues as an ArrayHandle<vtkm::Id>, a std::vector<vtkm::Id>, a c-array (pointer and size), or as a brace-enclosed initializer list.

The single result from ArrayGetValue may be returned or written to an output argument. Multiple results from ArrayGetValues may be returned as an std::vector<T>, or written to an output argument as an ArrayHandle<T> or a std::vector<T>.

Examples:

vtkm::cont::ArrayHandle<T> data = ...;
 
// Fetch the first value in an array handle:
T firstVal = vtkm::cont::ArrayGetValue(0, data);
 
// Fetch the first and third values in an array handle:
std::vector<T> firstAndThird = vtkm::cont::ArrayGetValues({0, 2}, data);
 
// Fetch the first and last values in an array handle:
std::vector<T> firstAndLast =
    vtkm::cont::ArrayGetValues({0, data.GetNumberOfValues() - 1}, data);
 
// Fetch the first 4 values into an array handle:
const std::vector<vtkm::Id> ids{0, 1, 2, 3};
vtkm::cont::ArrayHandle<T> firstFour;
vtkm::cont::ArrayGetValues(ids, data, firstFour);

ArrayGetValues() [8/13]

template<typename SIds , typename T , typename SData , typename Alloc >

void vtkm::cont::ArrayGetValues	(	const vtkm::cont::ArrayHandle< vtkm::Id, SIds > &	ids,
		const vtkm::cont::ArrayHandle< T, SData > &	data,
		std::vector< T, Alloc > &	output
	)

Obtain a small set of values from an ArrayHandle with minimal device transfers.

The values in data at the indices in ids are copied into a new array and returned. This is useful for retrieving a subset of an array from a device without transferring the entire array to the host.

These functions should not be called repeatedly in a loop to fetch all values from an array handle. The much more efficient way to do this is to use the proper control-side portals (ArrayHandle::WritePortal() and ArrayHandle::ReadPortal()).

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment or the device copy fails, a control-side copy is performed.

Since a serial control-side copy may be used, this method is only intended for copying small subsets of the input data. Larger subsets that would benefit from parallelization should prefer using the ArrayCopy method with an ArrayHandlePermutation.

This utility provides several convenient overloads:

A single id may be passed into ArrayGetValue, or multiple ids may be specified to ArrayGetValues as an ArrayHandle<vtkm::Id>, a std::vector<vtkm::Id>, a c-array (pointer and size), or as a brace-enclosed initializer list.

The single result from ArrayGetValue may be returned or written to an output argument. Multiple results from ArrayGetValues may be returned as an std::vector<T>, or written to an output argument as an ArrayHandle<T> or a std::vector<T>.

Examples:

vtkm::cont::ArrayHandle<T> data = ...;
 
// Fetch the first value in an array handle:
T firstVal = vtkm::cont::ArrayGetValue(0, data);
 
// Fetch the first and third values in an array handle:
std::vector<T> firstAndThird = vtkm::cont::ArrayGetValues({0, 2}, data);
 
// Fetch the first and last values in an array handle:
std::vector<T> firstAndLast =
    vtkm::cont::ArrayGetValues({0, data.GetNumberOfValues() - 1}, data);
 
// Fetch the first 4 values into an array handle:
const std::vector<vtkm::Id> ids{0, 1, 2, 3};
vtkm::cont::ArrayHandle<T> firstFour;
vtkm::cont::ArrayGetValues(ids, data, firstFour);

ArrayGetValues() [9/13]

template<typename SIds , typename T , typename SData , typename SOut >

void vtkm::cont::ArrayGetValues	(	const vtkm::cont::ArrayHandle< vtkm::Id, SIds > &	ids,
		const vtkm::cont::ArrayHandle< T, SData > &	data,
		vtkm::cont::ArrayHandle< T, SOut > &	output
	)

Obtain a small set of values from an ArrayHandle with minimal device transfers.

The values in data at the indices in ids are copied into a new array and returned. This is useful for retrieving a subset of an array from a device without transferring the entire array to the host.

These functions should not be called repeatedly in a loop to fetch all values from an array handle. The much more efficient way to do this is to use the proper control-side portals (ArrayHandle::WritePortal() and ArrayHandle::ReadPortal()).

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment or the device copy fails, a control-side copy is performed.

Since a serial control-side copy may be used, this method is only intended for copying small subsets of the input data. Larger subsets that would benefit from parallelization should prefer using the ArrayCopy method with an ArrayHandlePermutation.

This utility provides several convenient overloads:

A single id may be passed into ArrayGetValue, or multiple ids may be specified to ArrayGetValues as an ArrayHandle<vtkm::Id>, a std::vector<vtkm::Id>, a c-array (pointer and size), or as a brace-enclosed initializer list.

The single result from ArrayGetValue may be returned or written to an output argument. Multiple results from ArrayGetValues may be returned as an std::vector<T>, or written to an output argument as an ArrayHandle<T> or a std::vector<T>.

Examples:

vtkm::cont::ArrayHandle<T> data = ...;
 
// Fetch the first value in an array handle:
T firstVal = vtkm::cont::ArrayGetValue(0, data);
 
// Fetch the first and third values in an array handle:
std::vector<T> firstAndThird = vtkm::cont::ArrayGetValues({0, 2}, data);
 
// Fetch the first and last values in an array handle:
std::vector<T> firstAndLast =
    vtkm::cont::ArrayGetValues({0, data.GetNumberOfValues() - 1}, data);
 
// Fetch the first 4 values into an array handle:
const std::vector<vtkm::Id> ids{0, 1, 2, 3};
vtkm::cont::ArrayHandle<T> firstFour;
vtkm::cont::ArrayGetValues(ids, data, firstFour);

ArrayGetValues() [10/13]

template<typename SIds , typename TIn , typename SData , typename TOut , typename SOut >

void vtkm::cont::ArrayGetValues	(	const vtkm::cont::ArrayHandle< vtkm::Id, SIds > &	ids,
		const vtkm::cont::ArrayHandle< TOut, vtkm::cont::StorageTagCast< TIn, SData >> &	data,
		vtkm::cont::ArrayHandle< TOut, SOut > &	output
	)

We need a specialization for ArrayHandleCasts to avoid runtime type missmatch errors inside ArrayGetValuesImpl.

ArrayGetValues() [11/13]

template<typename T , typename SData >

std::vector<T> vtkm::cont::ArrayGetValues	(	const vtkm::Id *	ids,
		const vtkm::Id	numIds,
		const vtkm::cont::ArrayHandle< T, SData > &	data
	)

Obtain a small set of values from an ArrayHandle with minimal device transfers.

The values in data at the indices in ids are copied into a new array and returned. This is useful for retrieving a subset of an array from a device without transferring the entire array to the host.

These functions should not be called repeatedly in a loop to fetch all values from an array handle. The much more efficient way to do this is to use the proper control-side portals (ArrayHandle::WritePortal() and ArrayHandle::ReadPortal()).

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment or the device copy fails, a control-side copy is performed.

Since a serial control-side copy may be used, this method is only intended for copying small subsets of the input data. Larger subsets that would benefit from parallelization should prefer using the ArrayCopy method with an ArrayHandlePermutation.

This utility provides several convenient overloads:

A single id may be passed into ArrayGetValue, or multiple ids may be specified to ArrayGetValues as an ArrayHandle<vtkm::Id>, a std::vector<vtkm::Id>, a c-array (pointer and size), or as a brace-enclosed initializer list.

The single result from ArrayGetValue may be returned or written to an output argument. Multiple results from ArrayGetValues may be returned as an std::vector<T>, or written to an output argument as an ArrayHandle<T> or a std::vector<T>.

Examples:

vtkm::cont::ArrayHandle<T> data = ...;
 
// Fetch the first value in an array handle:
T firstVal = vtkm::cont::ArrayGetValue(0, data);
 
// Fetch the first and third values in an array handle:
std::vector<T> firstAndThird = vtkm::cont::ArrayGetValues({0, 2}, data);
 
// Fetch the first and last values in an array handle:
std::vector<T> firstAndLast =
    vtkm::cont::ArrayGetValues({0, data.GetNumberOfValues() - 1}, data);
 
// Fetch the first 4 values into an array handle:
const std::vector<vtkm::Id> ids{0, 1, 2, 3};
vtkm::cont::ArrayHandle<T> firstFour;
vtkm::cont::ArrayGetValues(ids, data, firstFour);

ArrayGetValues() [12/13]

template<typename T , typename SData , typename Alloc >

void vtkm::cont::ArrayGetValues	(	const vtkm::Id *	ids,
		const vtkm::Id	numIds,
		const vtkm::cont::ArrayHandle< T, SData > &	data,
		std::vector< T, Alloc > &	output
	)

Obtain a small set of values from an ArrayHandle with minimal device transfers.

The values in data at the indices in ids are copied into a new array and returned. This is useful for retrieving a subset of an array from a device without transferring the entire array to the host.

These functions should not be called repeatedly in a loop to fetch all values from an array handle. The much more efficient way to do this is to use the proper control-side portals (ArrayHandle::WritePortal() and ArrayHandle::ReadPortal()).

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment or the device copy fails, a control-side copy is performed.

Since a serial control-side copy may be used, this method is only intended for copying small subsets of the input data. Larger subsets that would benefit from parallelization should prefer using the ArrayCopy method with an ArrayHandlePermutation.

This utility provides several convenient overloads:

A single id may be passed into ArrayGetValue, or multiple ids may be specified to ArrayGetValues as an ArrayHandle<vtkm::Id>, a std::vector<vtkm::Id>, a c-array (pointer and size), or as a brace-enclosed initializer list.

The single result from ArrayGetValue may be returned or written to an output argument. Multiple results from ArrayGetValues may be returned as an std::vector<T>, or written to an output argument as an ArrayHandle<T> or a std::vector<T>.

Examples:

vtkm::cont::ArrayHandle<T> data = ...;
 
// Fetch the first value in an array handle:
T firstVal = vtkm::cont::ArrayGetValue(0, data);
 
// Fetch the first and third values in an array handle:
std::vector<T> firstAndThird = vtkm::cont::ArrayGetValues({0, 2}, data);
 
// Fetch the first and last values in an array handle:
std::vector<T> firstAndLast =
    vtkm::cont::ArrayGetValues({0, data.GetNumberOfValues() - 1}, data);
 
// Fetch the first 4 values into an array handle:
const std::vector<vtkm::Id> ids{0, 1, 2, 3};
vtkm::cont::ArrayHandle<T> firstFour;
vtkm::cont::ArrayGetValues(ids, data, firstFour);

ArrayGetValues() [13/13]

template<typename T , typename SData , typename SOut >

void vtkm::cont::ArrayGetValues	(	const vtkm::Id *	ids,
		const vtkm::Id	numIds,
		const vtkm::cont::ArrayHandle< T, SData > &	data,
		vtkm::cont::ArrayHandle< T, SOut > &	output
	)

Obtain a small set of values from an ArrayHandle with minimal device transfers.

The values in data at the indices in ids are copied into a new array and returned. This is useful for retrieving a subset of an array from a device without transferring the entire array to the host.

These functions should not be called repeatedly in a loop to fetch all values from an array handle. The much more efficient way to do this is to use the proper control-side portals (ArrayHandle::WritePortal() and ArrayHandle::ReadPortal()).

This method will attempt to copy the data using the device that the input data is already valid on. If the input data is only valid in the control environment or the device copy fails, a control-side copy is performed.

Since a serial control-side copy may be used, this method is only intended for copying small subsets of the input data. Larger subsets that would benefit from parallelization should prefer using the ArrayCopy method with an ArrayHandlePermutation.

This utility provides several convenient overloads:

A single id may be passed into ArrayGetValue, or multiple ids may be specified to ArrayGetValues as an ArrayHandle<vtkm::Id>, a std::vector<vtkm::Id>, a c-array (pointer and size), or as a brace-enclosed initializer list.

The single result from ArrayGetValue may be returned or written to an output argument. Multiple results from ArrayGetValues may be returned as an std::vector<T>, or written to an output argument as an ArrayHandle<T> or a std::vector<T>.

Examples:

vtkm::cont::ArrayHandle<T> data = ...;
 
// Fetch the first value in an array handle:
T firstVal = vtkm::cont::ArrayGetValue(0, data);
 
// Fetch the first and third values in an array handle:
std::vector<T> firstAndThird = vtkm::cont::ArrayGetValues({0, 2}, data);
 
// Fetch the first and last values in an array handle:
std::vector<T> firstAndLast =
    vtkm::cont::ArrayGetValues({0, data.GetNumberOfValues() - 1}, data);
 
// Fetch the first 4 values into an array handle:
const std::vector<vtkm::Id> ids{0, 1, 2, 3};
vtkm::cont::ArrayHandle<T> firstFour;
vtkm::cont::ArrayGetValues(ids, data, firstFour);

ArrayPortalToIteratorBegin()

template<typename PortalType >

vtkm::cont::ArrayPortalToIterators<PortalType>::IteratorType vtkm::cont::ArrayPortalToIteratorBegin

(

const PortalType &

portal

)

Convenience function for converting an ArrayPortal to a begin iterator.

ArrayPortalToIteratorEnd()

template<typename PortalType >

vtkm::cont::ArrayPortalToIterators<PortalType>::IteratorType vtkm::cont::ArrayPortalToIteratorEnd

(

const PortalType &

portal

)

Convenience function for converting an ArrayPortal to an end iterator.

ArrayRangeCompute() [1/4]

template<typename ArrayHandleType >

vtkm::cont::ArrayHandle<vtkm::Range> vtkm::cont::ArrayRangeCompute ( const ArrayHandleType &  input, vtkm::cont::DeviceAdapterId  device = vtkm::cont::DeviceAdapterTagAny{}  )

inline

ArrayRangeCompute() [2/4]

vtkm::cont::ArrayHandle<vtkm::Range> vtkm::cont::ArrayRangeCompute	(	const vtkm::cont::UnknownArrayHandle &	array,
		bool	computeFiniteRange = false,
		vtkm::cont::DeviceAdapterId	device = vtkm::cont::DeviceAdapterTagAny{}
	)

Compute the range of the data in an array handle.

Given an ArrayHandle, this function computes the range (min and max) of the values in the array. For arrays containing Vec values, the range is computed for each component, and in the case of nested Vecs, ranges are computed for each of the leaf components.

The array parameter is the input array as a vtkm::cont::UnknownArrayHandle.

The optional maskArray parameter supports selectively choosing which entries to include in the range. It is an array handle of type vtkm::cont::ArrayHandle<vtkm::UInt8>. This array should have the same number of elements as the input array with each value representing the masking status of the corresponding value in the input array (masked if 0 else unmasked). Ignored if empty.

The optional computeFiniteRange parameter specifies whether if non-finite values in the array should be ignored to compute the finite range of the array. For Vec types, individual component values are considered independantly.

The optional device parameter can be used to specify a device to run the range computation on. The default value is vtkm::cont::DeviceAdapterTagAny{}.

Returns

The result is returned in an ArrayHandle of Range objects. There is one value in the returned array for every component of the input's value type. For nested Vecs the results are stored in depth-first order.

Note

ArrayRangeCompute takes an UnknownArrayHandle as the input. The implementation uses precompiled and specicialized code for several of the most commonly used value and storage types, with a fallback for other cases. This is so that ArrayRangeCompute.h can be included in code that does not use a device compiler. This should be sufficient for most cases, but if you need to compute the range for an array type that is not explicitly handled by ArrayRangeCompute and the fallback code is not performant, use the templated version ArrayRangeComputeTemplate. Specializations can be implemented by specializing the template class ArrayRangeComputeImpl. Please refer to ArrayRangeComputeTemplate.h for details

See also

ArrayRangeComputeTemplate

ArrayRangeCompute() [3/4]

vtkm::cont::ArrayHandle<vtkm::Range> vtkm::cont::ArrayRangeCompute	(	const vtkm::cont::UnknownArrayHandle &	array,
		const vtkm::cont::ArrayHandle< vtkm::UInt8 > &	maskArray,
		bool	computeFiniteRange = false,
		vtkm::cont::DeviceAdapterId	device = vtkm::cont::DeviceAdapterTagAny{}
	)

Compute the range of the data in an array handle.

Given an ArrayHandle, this function computes the range (min and max) of the values in the array. For arrays containing Vec values, the range is computed for each component, and in the case of nested Vecs, ranges are computed for each of the leaf components.

The array parameter is the input array as a vtkm::cont::UnknownArrayHandle.

The optional maskArray parameter supports selectively choosing which entries to include in the range. It is an array handle of type vtkm::cont::ArrayHandle<vtkm::UInt8>. This array should have the same number of elements as the input array with each value representing the masking status of the corresponding value in the input array (masked if 0 else unmasked). Ignored if empty.

The optional computeFiniteRange parameter specifies whether if non-finite values in the array should be ignored to compute the finite range of the array. For Vec types, individual component values are considered independantly.

The optional device parameter can be used to specify a device to run the range computation on. The default value is vtkm::cont::DeviceAdapterTagAny{}.

Returns

The result is returned in an ArrayHandle of Range objects. There is one value in the returned array for every component of the input's value type. For nested Vecs the results are stored in depth-first order.

Note

ArrayRangeCompute takes an UnknownArrayHandle as the input. The implementation uses precompiled and specicialized code for several of the most commonly used value and storage types, with a fallback for other cases. This is so that ArrayRangeCompute.h can be included in code that does not use a device compiler. This should be sufficient for most cases, but if you need to compute the range for an array type that is not explicitly handled by ArrayRangeCompute and the fallback code is not performant, use the templated version ArrayRangeComputeTemplate. Specializations can be implemented by specializing the template class ArrayRangeComputeImpl. Please refer to ArrayRangeComputeTemplate.h for details

See also

ArrayRangeComputeTemplate

ArrayRangeCompute() [4/4]

vtkm::cont::ArrayHandle<vtkm::Range> vtkm::cont::ArrayRangeCompute ( const vtkm::cont::UnknownArrayHandle &  array, vtkm::cont::DeviceAdapterId  device  )

inline

Compute the range of the data in an array handle.

Given an ArrayHandle, this function computes the range (min and max) of the values in the array. For arrays containing Vec values, the range is computed for each component, and in the case of nested Vecs, ranges are computed for each of the leaf components.

The array parameter is the input array as a vtkm::cont::UnknownArrayHandle.

The optional maskArray parameter supports selectively choosing which entries to include in the range. It is an array handle of type vtkm::cont::ArrayHandle<vtkm::UInt8>. This array should have the same number of elements as the input array with each value representing the masking status of the corresponding value in the input array (masked if 0 else unmasked). Ignored if empty.

The optional computeFiniteRange parameter specifies whether if non-finite values in the array should be ignored to compute the finite range of the array. For Vec types, individual component values are considered independantly.

The optional device parameter can be used to specify a device to run the range computation on. The default value is vtkm::cont::DeviceAdapterTagAny{}.

Returns

The result is returned in an ArrayHandle of Range objects. There is one value in the returned array for every component of the input's value type. For nested Vecs the results are stored in depth-first order.

Note

ArrayRangeCompute takes an UnknownArrayHandle as the input. The implementation uses precompiled and specicialized code for several of the most commonly used value and storage types, with a fallback for other cases. This is so that ArrayRangeCompute.h can be included in code that does not use a device compiler. This should be sufficient for most cases, but if you need to compute the range for an array type that is not explicitly handled by ArrayRangeCompute and the fallback code is not performant, use the templated version ArrayRangeComputeTemplate. Specializations can be implemented by specializing the template class ArrayRangeComputeImpl. Please refer to ArrayRangeComputeTemplate.h for details

See also

ArrayRangeComputeTemplate

ArrayRangeComputeMagnitude() [1/3]

vtkm::Range vtkm::cont::ArrayRangeComputeMagnitude	(	const vtkm::cont::UnknownArrayHandle &	array,
		bool	computeFiniteRange = false,
		vtkm::cont::DeviceAdapterId	device = vtkm::cont::DeviceAdapterTagAny{}
	)

Compute the range of the magnitude of the Vec data in an array handle.

Given an ArrayHandle, this function computes the range (min and max) of the magnitude of the values in the array.

The array parameter is the input array as a vtkm::cont::UnknownArrayHandle.

The optional maskArray parameter supports selectively choosing which entries to include in the range. It is an array handle of type vtkm::cont::ArrayHandle<vtkm::UInt8>. This array should have the same number of elements as the input array with each value representing the masking status of the corresponding value in the input array (masked if 0 else unmasked). Ignored if empty.

The optional computeFiniteRange parameter specifies whether if non-finite values in the array should be ignored to compute the finite range of the array. A Vec with any non-finite component will be ignored.

The optional device parameter can be used to specify a device to run the range computation on. The default value is vtkm::cont::DeviceAdapterTagAny{}.

Returns

The result is returned in a single Range objects.

Note

ArrayRangeComputeMagnitude takes an UnknownArrayHandle as the input. The implementation uses precompiled and specicialized code for several of the most commonly used value and storage types, with a fallback for other cases. This is so that ArrayRangeCompute.h can be included in code that does not use a device compiler. This should be sufficient for most cases, but if you need to compute the range for an array type that is not explicitly handled by ArrayRangeComputeMagnitude and the fallback code is not performant, use the templated version ArrayRangeComputeMagnitudeTemplate. Specializations can be implemented by specializing the template class ArrayRangeComputeMagnitudeImpl. Please refer to ArrayRangeComputeTemplate.h for details

See also

ArrayRangeComputeMagnitudeTemplate

ArrayRangeComputeMagnitude() [2/3]

vtkm::Range vtkm::cont::ArrayRangeComputeMagnitude	(	const vtkm::cont::UnknownArrayHandle &	array,
		const vtkm::cont::ArrayHandle< vtkm::UInt8 > &	maskArray,
		bool	computeFiniteRange = false,
		vtkm::cont::DeviceAdapterId	device = vtkm::cont::DeviceAdapterTagAny{}
	)

Compute the range of the magnitude of the Vec data in an array handle.

Given an ArrayHandle, this function computes the range (min and max) of the magnitude of the values in the array.

The array parameter is the input array as a vtkm::cont::UnknownArrayHandle.

The optional maskArray parameter supports selectively choosing which entries to include in the range. It is an array handle of type vtkm::cont::ArrayHandle<vtkm::UInt8>. This array should have the same number of elements as the input array with each value representing the masking status of the corresponding value in the input array (masked if 0 else unmasked). Ignored if empty.

The optional computeFiniteRange parameter specifies whether if non-finite values in the array should be ignored to compute the finite range of the array. A Vec with any non-finite component will be ignored.

The optional device parameter can be used to specify a device to run the range computation on. The default value is vtkm::cont::DeviceAdapterTagAny{}.

Returns

The result is returned in a single Range objects.

Note

ArrayRangeComputeMagnitude takes an UnknownArrayHandle as the input. The implementation uses precompiled and specicialized code for several of the most commonly used value and storage types, with a fallback for other cases. This is so that ArrayRangeCompute.h can be included in code that does not use a device compiler. This should be sufficient for most cases, but if you need to compute the range for an array type that is not explicitly handled by ArrayRangeComputeMagnitude and the fallback code is not performant, use the templated version ArrayRangeComputeMagnitudeTemplate. Specializations can be implemented by specializing the template class ArrayRangeComputeMagnitudeImpl. Please refer to ArrayRangeComputeTemplate.h for details

See also

ArrayRangeComputeMagnitudeTemplate

ArrayRangeComputeMagnitude() [3/3]

vtkm::Range vtkm::cont::ArrayRangeComputeMagnitude ( const vtkm::cont::UnknownArrayHandle &  array, vtkm::cont::DeviceAdapterId  device  )

inline

Compute the range of the magnitude of the Vec data in an array handle.

Given an ArrayHandle, this function computes the range (min and max) of the magnitude of the values in the array.

The array parameter is the input array as a vtkm::cont::UnknownArrayHandle.

The optional maskArray parameter supports selectively choosing which entries to include in the range. It is an array handle of type vtkm::cont::ArrayHandle<vtkm::UInt8>. This array should have the same number of elements as the input array with each value representing the masking status of the corresponding value in the input array (masked if 0 else unmasked). Ignored if empty.

The optional computeFiniteRange parameter specifies whether if non-finite values in the array should be ignored to compute the finite range of the array. A Vec with any non-finite component will be ignored.

The optional device parameter can be used to specify a device to run the range computation on. The default value is vtkm::cont::DeviceAdapterTagAny{}.

Returns

The result is returned in a single Range objects.

Note

ArrayRangeComputeMagnitude takes an UnknownArrayHandle as the input. The implementation uses precompiled and specicialized code for several of the most commonly used value and storage types, with a fallback for other cases. This is so that ArrayRangeCompute.h can be included in code that does not use a device compiler. This should be sufficient for most cases, but if you need to compute the range for an array type that is not explicitly handled by ArrayRangeComputeMagnitude and the fallback code is not performant, use the templated version ArrayRangeComputeMagnitudeTemplate. Specializations can be implemented by specializing the template class ArrayRangeComputeMagnitudeImpl. Please refer to ArrayRangeComputeTemplate.h for details

See also

ArrayRangeComputeMagnitudeTemplate

ArrayRangeComputeMagnitudeTemplate() [1/3]

template<typename T , typename S >

vtkm::Range vtkm::cont::ArrayRangeComputeMagnitudeTemplate ( const vtkm::cont::ArrayHandle< T, S > &  input, bool  computeFiniteRange = false, vtkm::cont::DeviceAdapterId  device = vtkm::cont::DeviceAdapterTagAny{}  )

inline

Templated version of ArrayRangeComputeMagnitude.

See also

ArrayRangeComputeMagnitude

ArrayRangeComputeMagnitudeTemplate() [2/3]

template<typename T , typename S >

vtkm::Range vtkm::cont::ArrayRangeComputeMagnitudeTemplate	(	const vtkm::cont::ArrayHandle< T, S > &	input,
		const vtkm::cont::ArrayHandle< vtkm::UInt8 > &	maskArray,
		bool	computeFiniteRange = false,
		vtkm::cont::DeviceAdapterId	device = vtkm::cont::DeviceAdapterTagAny{}
	)

Templated version of ArrayRangeComputeMagnitude.

See also

ArrayRangeComputeMagnitude

ArrayRangeComputeMagnitudeTemplate() [3/3]

template<typename T , typename S >

vtkm::Range vtkm::cont::ArrayRangeComputeMagnitudeTemplate ( const vtkm::cont::ArrayHandle< T, S > &  input, vtkm::cont::DeviceAdapterId  device  )

inline

Templated version of ArrayRangeComputeMagnitude.

See also

ArrayRangeComputeMagnitude

ArrayRangeComputeTemplate() [1/3]

template<typename T , typename S >

vtkm::cont::ArrayHandle<vtkm::Range> vtkm::cont::ArrayRangeComputeTemplate ( const vtkm::cont::ArrayHandle< T, S > &  input, bool  computeFiniteRange = false, vtkm::cont::DeviceAdapterId  device = vtkm::cont::DeviceAdapterTagAny{}  )

inline

Templated version of ArrayRangeCompute.

See also

ArrayRangeCompute

ArrayRangeComputeTemplate() [2/3]

template<typename T , typename S >

vtkm::cont::ArrayHandle<vtkm::Range> vtkm::cont::ArrayRangeComputeTemplate	(	const vtkm::cont::ArrayHandle< T, S > &	input,
		const vtkm::cont::ArrayHandle< vtkm::UInt8 > &	maskArray,
		bool	computeFiniteRange = false,
		vtkm::cont::DeviceAdapterId	device = vtkm::cont::DeviceAdapterTagAny{}
	)

Templated version of ArrayRangeCompute.

See also

ArrayRangeCompute

ArrayRangeComputeTemplate() [3/3]

template<typename T , typename S >

vtkm::cont::ArrayHandle<vtkm::Range> vtkm::cont::ArrayRangeComputeTemplate ( const vtkm::cont::ArrayHandle< T, S > &  input, vtkm::cont::DeviceAdapterId  device  )

inline

Templated version of ArrayRangeCompute.

See also

ArrayRangeCompute

BoundsCompute() [1/4]

vtkm::Bounds vtkm::cont::BoundsCompute	(	const vtkm::cont::DataSet &	dataset,
		const std::string &	coordinate_system_name
	)

BoundsCompute() [2/4]

vtkm::Bounds vtkm::cont::BoundsCompute	(	const vtkm::cont::DataSet &	dataset,
		vtkm::Id	coordinate_system_index = 0
	)

Functions to compute bounds for a single dataSset or partition dataset.

These are utility functions that compute bounds for a single dataset or partitioned dataset. When VTK-m is operating in an distributed environment, these are bounds on the local process. To get global bounds across all ranks, use vtkm::cont::BoundsGlobalCompute instead.

Note that if the provided CoordinateSystem does not exists, empty bounds are returned. Likewise, for PartitionedDataSet, partitions without the chosen CoordinateSystem are skipped.

BoundsCompute() [3/4]

vtkm::Bounds vtkm::cont::BoundsCompute	(	const vtkm::cont::PartitionedDataSet &	pds,
		const std::string &	coordinate_system_name
	)

BoundsCompute() [4/4]

vtkm::Bounds vtkm::cont::BoundsCompute	(	const vtkm::cont::PartitionedDataSet &	pds,
		vtkm::Id	coordinate_system_index = 0
	)

BoundsGlobalCompute() [1/4]

vtkm::Bounds vtkm::cont::BoundsGlobalCompute	(	const vtkm::cont::DataSet &	dataset,
		const std::string &	coordinate_system_name
	)

BoundsGlobalCompute() [2/4]

vtkm::Bounds vtkm::cont::BoundsGlobalCompute	(	const vtkm::cont::DataSet &	dataset,
		vtkm::Id	coordinate_system_index = 0
	)

Functions to compute bounds for a single dataset or partitioned dataset globally.

These are utility functions that compute bounds for a single dataset or partitioned dataset globally i.e. across all ranks when operating in a distributed environment. When VTK-m not operating in an distributed environment, these behave same as vtkm::cont::BoundsCompute.

Note that if the provided CoordinateSystem does not exists, empty bounds are returned. Likewise, for PartitionedDataSet, partitions without the chosen CoordinateSystem are skipped.

BoundsGlobalCompute() [3/4]

vtkm::Bounds vtkm::cont::BoundsGlobalCompute	(	const vtkm::cont::PartitionedDataSet &	pds,
		const std::string &	coordinate_system_name
	)

BoundsGlobalCompute() [4/4]

vtkm::Bounds vtkm::cont::BoundsGlobalCompute	(	const vtkm::cont::PartitionedDataSet &	pds,
		vtkm::Id	coordinate_system_index = 0
	)

Cast() [1/2]

template<typename ArrayHandleType >

ArrayHandleType vtkm::cont::Cast ( const vtkm::cont::UnknownArrayHandle &  array )

inline

Returns variant cast to the given ArrayHandle type.

Throws ErrorBadType if the cast does not work. Use IsType to check if the cast can happen.

Cast() [2/2]

template<typename CellSetType >

CellSetType vtkm::cont::Cast ( const vtkm::cont::UnknownCellSet &  unknownCellSet )

inline

Returns unknownCellSet cast to the given CellSet type.

Throws ErrorBadType if the cast does not work. Use IsType to check if the cast can happen.

CastAndCall() [1/11]

template<typename Functor , typename... Args>

void vtkm::cont::CastAndCall	(	const CoordinateSystem &	coords,
		Functor &&	f,
		Args &&...	args
	)

A specialization of CastAndCall for basic CoordinateSystem to make it be treated just like any other dynamic object.

CastAndCall() [2/11]

template<typename DynamicObject , typename Functor , typename... Args>

void vtkm::cont::CastAndCall	(	const DynamicObject &	dynamicObject,
		Functor &&	f,
		Args &&...	args
	)

A Generic interface to CastAndCall.

The default implementation simply calls DynamicObject's CastAndCall, but specializations of this function exist for other classes (e.g. Field, CoordinateSystem, ArrayHandle).

CastAndCall() [3/11]

template<typename Functor , typename... Args>

void vtkm::cont::CastAndCall	(	const UnknownArrayHandle &	handle,
		Functor &&	f,
		Args &&...	args
	)

A specialization of CastAndCall for UnknownArrayHandle.

Since we have no hints on the types, use VTKM_DEFAULT_TYPE_LIST and VTKM_DEFAULT_STORAGE_LIST.

CastAndCall() [4/11]

template<typename T , typename U , typename Functor , typename... Args>

void vtkm::cont::CastAndCall	(	const vtkm::cont::ArrayHandle< T, U > &	handle,
		Functor &&	f,
		Args &&...	args
	)

A specialization of CastAndCall for basic ArrayHandle types, Since the type is already known no deduction is needed.

This specialization is used to simplify numerous worklet algorithms

CastAndCall() [5/11]

template<typename T , typename S , typename U , typename Functor , typename... Args>

void vtkm::cont::CastAndCall	(	const vtkm::cont::CellSetExplicit< T, S, U > &	cellset,
		Functor &&	f,
		Args &&...	args
	)

A specialization of CastAndCall for basic CellSetExplicit types, Since the type is already known no deduction is needed.

This specialization is used to simplify numerous worklet algorithms

CastAndCall() [6/11]

template<typename Functor , typename... Args>

void vtkm::cont::CastAndCall	(	const vtkm::cont::CellSetExtrude &	cellset,
		Functor &&	f,
		Args &&...	args
	)

A specialization of CastAndCall for basic CellSetExtrude types, Since the type is already known no deduction is needed.

This specialization is used to simplify numerous worklet algorithms

CastAndCall() [7/11]

template<typename PermutationType , typename CellSetType , typename Functor , typename... Args>

void vtkm::cont::CastAndCall	(	const vtkm::cont::CellSetPermutation< PermutationType, CellSetType > &	cellset,
		Functor &&	f,
		Args &&...	args
	)

A specialization of CastAndCall for basic CellSetPermutation types, Since the type is already known no deduction is needed.

This specialization is used to simplify numerous worklet algorithms

CastAndCall() [8/11]

template<typename ConnectivityStorageTag , typename Functor , typename... Args>

void vtkm::cont::CastAndCall	(	const vtkm::cont::CellSetSingleType< ConnectivityStorageTag > &	cellset,
		Functor &&	f,
		Args &&...	args
	)

A specialization of CastAndCall for basic CellSetSingleType types, Since the type is already known no deduction is needed.

This specialization is used to simplify numerous worklet algorithms

CastAndCall() [9/11]

template<vtkm::IdComponent Dim, typename Functor , typename... Args>

void vtkm::cont::CastAndCall	(	const vtkm::cont::CellSetStructured< Dim > &	cellset,
		Functor &&	f,
		Args &&...	args
	)

A specialization of CastAndCall for basic CellSetStructured types, Since the type is already known no deduction is needed.

This specialization is used to simplify numerous worklet algorithms

CastAndCall() [10/11]

template<typename Functor , typename... Args>

void vtkm::cont::CastAndCall	(	const vtkm::cont::Field &	field,
		Functor &&	f,
		Args &&...	args
	)

A specialization of CastAndCall for basic Field to make it be treated just like any other dynamic object.

CastAndCall() [11/11]

template<typename Functor , typename... Args>

void vtkm::cont::CastAndCall	(	const vtkm::cont::UnknownCellSet &	cellSet,
		Functor &&	f,
		Args &&...	args
	)

A specialization of CastAndCall for unknown cell sets.

A specialization of CastAndCall for UnknownCellSet.

Since we have no hints on the types, use VTKM_DEFAULT_CELL_SET_LIST.

CastAndCallCellLocatorChooser() [1/2]

template<typename CellSetType , typename Functor , typename... Args>

void vtkm::cont::CastAndCallCellLocatorChooser	(	const CellSetType &	cellSet,
		const vtkm::cont::CoordinateSystem &	coordinateSystem,
		Functor &&	functor,
		Args &&...	args
	)

Calls a functor with the appropriate type of CellLocator.

Given a cell set and a coordinate system of unknown types, calls a functor with an appropriate CellLocator of the given type. The CellLocator is populated with the provided cell set and coordinate system.

Any additional args are passed to the functor.

CastAndCallCellLocatorChooser() [2/2]

template<typename Functor , typename... Args>

void vtkm::cont::CastAndCallCellLocatorChooser	(	const vtkm::cont::DataSet &	dataSet,
		Functor &&	functor,
		Args &&...	args
	)

Calls a functor with the appropriate type of CellLocator.

Given a DataSet, calls a functor with an appropriate CellLocator of the given type. The CellLocator is populated with the provided cell set and coordinate system.

Any additional args are passed to the functor.

ColorTableMap() [1/4]

template<typename T , typename S >

bool vtkm::cont::ColorTableMap	(	const vtkm::cont::ArrayHandle< T, S > &	values,
		const vtkm::cont::ColorTable &	table,
		vtkm::cont::ArrayHandle< vtkm::Vec4ui_8 > &	rgbaOut
	)

Interpolate each value through the color table to generate RGBA colors.

Each value in values will be sampled through the entire color table to determine a color.

Note: This is more costly than using Sample/Map with the generated intermediate lookup table

ColorTableMap() [2/4]

template<typename T , typename S >

bool vtkm::cont::ColorTableMap	(	const vtkm::cont::ArrayHandle< T, S > &	values,
		const vtkm::cont::ColorTable &	table,
		vtkm::cont::ArrayHandle< vtkm::Vec< vtkm::UInt8, 3 >> &	rgbOut
	)

Interpolate each value through the color table to generate RGB colors.

Each value in values will be sampled through the entire color table to determine a color.

Note: This is more costly than using Sample/Map with the generated intermediate lookup table

ColorTableMap() [3/4]

template<typename T , typename S >

bool vtkm::cont::ColorTableMap	(	const vtkm::cont::ArrayHandle< T, S > &	values,
		const vtkm::cont::ColorTableSamplesRGB &	samples,
		vtkm::cont::ArrayHandle< vtkm::Vec3ui_8 > &	rgbOut
	)

Sample each value through an intermediate lookup/sample table to generate RGB colors.

Each value in values is binned based on its value in relationship to the range of the color table and will use the color value at that bin from the samples. To generate the lookup table use Sample .

Here is a simple example.

vtkm::cont::ColorTableSamplesRGB samples;
vtkm::cont::ColorTable table("black-body radiation");
table.Sample(256, samples);
vtkm::cont::ArrayHandle<vtkm::Vec3ui_8> colors;
vtkm::cont::ColorTableMap(input, samples, colors);

ColorTableMap() [4/4]

template<typename T , typename S >

bool vtkm::cont::ColorTableMap	(	const vtkm::cont::ArrayHandle< T, S > &	values,
		const vtkm::cont::ColorTableSamplesRGBA &	samples,
		vtkm::cont::ArrayHandle< vtkm::Vec4ui_8 > &	rgbaOut
	)

Sample each value through an intermediate lookup/sample table to generate RGBA colors.

Each value in values is binned based on its value in relationship to the range of the color table and will use the color value at that bin from the samples. To generate the lookup table use Sample .

Here is a simple example.

vtkm::cont::ColorTableSamplesRGBA samples;
vtkm::cont::ColorTable table("black-body radiation");
table.Sample(256, samples);
vtkm::cont::ArrayHandle<vtkm::Vec4ui_8> colors;
vtkm::cont::ColorTableMap(input, samples, colors);

ColorTableMapComponent() [1/4]

template<typename T , int N, typename S >

bool vtkm::cont::ColorTableMapComponent	(	const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &	values,
		vtkm::IdComponent	comp,
		const vtkm::cont::ColorTable &	table,
		vtkm::cont::ArrayHandle< vtkm::Vec4ui_8 > &	rgbaOut
	)

Use a single component of a vector to generate RGBA colors.

ColorTableMapComponent() [2/4]

template<typename T , int N, typename S >

bool vtkm::cont::ColorTableMapComponent	(	const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &	values,
		vtkm::IdComponent	comp,
		const vtkm::cont::ColorTable &	table,
		vtkm::cont::ArrayHandle< vtkm::Vec< vtkm::UInt8, 3 >> &	rgbOut
	)

Use a single component of a vector to generate RGB colors.

ColorTableMapComponent() [3/4]

template<typename T , int N, typename S >

bool vtkm::cont::ColorTableMapComponent	(	const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &	values,
		vtkm::IdComponent	comp,
		const vtkm::cont::ColorTableSamplesRGB &	samples,
		vtkm::cont::ArrayHandle< vtkm::Vec3ui_8 > &	rgbOut
	)

Use a single component of a vector with a sample table to generate RGB colors.

ColorTableMapComponent() [4/4]

template<typename T , int N, typename S >

bool vtkm::cont::ColorTableMapComponent	(	const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &	values,
		vtkm::IdComponent	comp,
		const vtkm::cont::ColorTableSamplesRGBA &	samples,
		vtkm::cont::ArrayHandle< vtkm::Vec4ui_8 > &	rgbaOut
	)

Use a single component of a vector with a sample table to generate RGBA colors.

ColorTableMapMagnitude() [1/4]

template<typename T , int N, typename S >

bool vtkm::cont::ColorTableMapMagnitude	(	const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &	values,
		const vtkm::cont::ColorTable &	table,
		vtkm::cont::ArrayHandle< vtkm::Vec4ui_8 > &	rgbaOut
	)

Use magnitude of a vector to generate RGBA colors.

ColorTableMapMagnitude() [2/4]

template<typename T , int N, typename S >

bool vtkm::cont::ColorTableMapMagnitude	(	const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &	values,
		const vtkm::cont::ColorTable &	table,
		vtkm::cont::ArrayHandle< vtkm::Vec< vtkm::UInt8, 3 >> &	rgbOut
	)

Use magnitude of a vector to generate RGB colors.

ColorTableMapMagnitude() [3/4]

template<typename T , int N, typename S >

bool vtkm::cont::ColorTableMapMagnitude	(	const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &	values,
		const vtkm::cont::ColorTableSamplesRGB &	samples,
		vtkm::cont::ArrayHandle< vtkm::Vec3ui_8 > &	rgbOut
	)

Use magnitude of a vector with a sample table to generate RGB colors.

ColorTableMapMagnitude() [4/4]

template<typename T , int N, typename S >

bool vtkm::cont::ColorTableMapMagnitude	(	const vtkm::cont::ArrayHandle< vtkm::Vec< T, N >, S > &	values,
		const vtkm::cont::ColorTableSamplesRGBA &	samples,
		vtkm::cont::ArrayHandle< vtkm::Vec4ui_8 > &	rgbaOut
	)

Use magnitude of a vector with a sample table to generate RGBA colors.

ConditionalCastAndCall() [1/2]

template<typename... Args>

void vtkm::cont::ConditionalCastAndCall	(	std::false_type	,
		Args &&	...
	)

No-op variant since the condition is false.

ConditionalCastAndCall() [2/2]

template<typename... Args>

void vtkm::cont::ConditionalCastAndCall	(	std::true_type	,
		Args &&...	args
	)

CastAndCall if the condition is true.

ConvertNumComponentsToOffsets() [1/4]

void vtkm::cont::ConvertNumComponentsToOffsets	(	const vtkm::cont::UnknownArrayHandle &	numComponentsArray,
		vtkm::cont::ArrayHandle< vtkm::Id > &	offsetsArray,
		vtkm::cont::DeviceAdapterId	device = vtkm::cont::DeviceAdapterTagAny{}
	)

ConvertNumComponentsToOffsets() [2/4]

void vtkm::cont::ConvertNumComponentsToOffsets	(	const vtkm::cont::UnknownArrayHandle &	numComponentsArray,
		vtkm::cont::ArrayHandle< vtkm::Id > &	offsetsArray,
		vtkm::Id &	componentsArraySize,
		vtkm::cont::DeviceAdapterId	device = vtkm::cont::DeviceAdapterTagAny{}
	)

ConvertNumComponentsToOffsets takes an array of Vec sizes (i.e.

the number of components in each Vec) and returns an array of offsets to a packed array of such Vecs. The resulting array can be used with ArrayHandleGroupVecVariable.

Parameters

[in]	numComponentsArray	the input array that specifies the number of components in each group Vec.
[out]	offsetsArray	(optional) the output ArrayHandle, which must have a value type of vtkm::Id. If the output ArrayHandle is not given, it is returned.
[in]	componentsArraySize	(optional) a reference to a vtkm::Id and is filled with the expected size of the component values array.
[in]	device	(optional) specifies the device on which to run the conversion.

Note that this function is pre-compiled for some set of ArrayHandle types. If you get a warning about an inefficient conversion (or the operation fails outright), you might need to use vtkm::cont::internal::ConvertNumComponentsToOffsetsTemplate.

ConvertNumComponentsToOffsets() [3/4]

vtkm::cont::ArrayHandle<vtkm::Id> vtkm::cont::ConvertNumComponentsToOffsets	(	const vtkm::cont::UnknownArrayHandle &	numComponentsArray,
		vtkm::cont::DeviceAdapterId	device = vtkm::cont::DeviceAdapterTagAny{}
	)

ConvertNumComponentsToOffsets() [4/4]

vtkm::cont::ArrayHandle<vtkm::Id> vtkm::cont::ConvertNumComponentsToOffsets	(	const vtkm::cont::UnknownArrayHandle &	numComponentsArray,
		vtkm::Id &	componentsArraySize,
		vtkm::cont::DeviceAdapterId	device = vtkm::cont::DeviceAdapterTagAny{}
	)

DIYMasterExchange()

void vtkm::cont::DIYMasterExchange	(	vtkmdiy::Master &	master,
		bool	remote = false
	)

Wraps vtkmdiy::Master::exchange by setting its appropiate vtkmdiy::MemoryManagement.

FieldRangeCompute() [1/2]

vtkm::cont::ArrayHandle<vtkm::Range> vtkm::cont::FieldRangeCompute	(	const vtkm::cont::DataSet &	dataset,
		const std::string &	name,
		vtkm::cont::Field::Association	assoc = vtkm::cont::Field::Association::Any
	)

Compute ranges for fields in a DataSet or PartitionedDataSet.

These methods to compute ranges for fields in a single dataset or a partitioned dataset. When using VTK-m in a hybrid-parallel environment with distributed processing, this class uses ranges for locally available data alone. Use FieldRangeGlobalCompute to compute ranges globally across all ranks even in distributed mode. Returns the range for a field from a dataset. If the field is not present, an empty ArrayHandle will be returned.

FieldRangeCompute() [2/2]

vtkm::cont::ArrayHandle<vtkm::Range> vtkm::cont::FieldRangeCompute	(	const vtkm::cont::PartitionedDataSet &	pds,
		const std::string &	name,
		vtkm::cont::Field::Association	assoc = vtkm::cont::Field::Association::Any
	)

Returns the range for a field from a PartitionedDataSet.

If the field is not present on any of the partitions, an empty ArrayHandle will be returned. If the field is present on some partitions, but not all, those partitions without the field are skipped.

The returned array handle will have as many values as the maximum number of components for the selected field across all partitions.

FieldRangeGlobalCompute() [1/2]

vtkm::cont::ArrayHandle<vtkm::Range> vtkm::cont::FieldRangeGlobalCompute	(	const vtkm::cont::DataSet &	dataset,
		const std::string &	name,
		vtkm::cont::Field::Association	assoc = vtkm::cont::Field::Association::Any
	)

utility functions to compute global ranges for dataset fields.

These functions compute global ranges for fields in a single DataSet or a PartitionedDataSet. In non-distributed environments, this is exactly same as FieldRangeCompute. In distributed environments, however, the range is computed locally on each rank and then a reduce-all collective is performed to reduces the ranges on all ranks. Returns the range for a field from a dataset. If the field is not present, an empty ArrayHandle will be returned.

FieldRangeGlobalCompute() [2/2]

vtkm::cont::ArrayHandle<vtkm::Range> vtkm::cont::FieldRangeGlobalCompute	(	const vtkm::cont::PartitionedDataSet &	pds,
		const std::string &	name,
		vtkm::cont::Field::Association	assoc = vtkm::cont::Field::Association::Any
	)

Returns the range for a field from a PartitionedDataSet.

If the field is not present on any of the partitions, an empty ArrayHandle will be returned. If the field is present on some partitions, but not all, those partitions without the field are skipped.

The returned array handle will have as many values as the maximum number of components for the selected field across all partitions.

GetDIYDeviceAdapter()

vtkm::cont::DeviceAdapterId vtkm::cont::GetDIYDeviceAdapter

(

)

GetGlobalGhostCellFieldName()

const std::string& vtkm::cont::GetGlobalGhostCellFieldName ( )

noexcept

GetHumanReadableSize() [1/2]

template<typename T >

std::string vtkm::cont::GetHumanReadableSize ( T &&  bytes, int  prec = 2  )

inline

GetHumanReadableSize() [2/2]

std::string vtkm::cont::GetHumanReadableSize	(	vtkm::UInt64	bytes,
		int	prec = 2
	)

Convert a size in bytes to a human readable string (such as "64 bytes", "1.44 MiB", "128 GiB", etc).

prec controls the fixed point precision of the stringified number.

GetLogErrorContext()

std::string vtkm::cont::GetLogErrorContext

(

)

GetLogLevelName()

std::string vtkm::cont::GetLogLevelName

(

vtkm::cont::LogLevel

level

)

Get a human readable name for the log level.

If a name has not been registered via InitLogging or SetLogLevelName, the returned string just contains the integer representation of the level.

GetLogThreadName()

std::string vtkm::cont::GetLogThreadName

(

)

Specifies a humman-readable name to identify the current thread in the log output.

GetRuntimeDeviceTracker()

vtkm::cont::RuntimeDeviceTracker& vtkm::cont::GetRuntimeDeviceTracker

(

)

Get the RuntimeDeviceTracker for the current thread.

---

Many features in VTK-m will attempt to run algorithms on the "best available device." This often is determined at runtime as failures in one device are recorded and that device is disabled. To prevent having to check over and over again, VTK-m uses per thread runtime device tracker so that these choices are marked and shared.

GetSizeString() [1/2]

template<typename T >

std::string vtkm::cont::GetSizeString ( T &&  bytes, int  prec = 2  )

inline

GetSizeString() [2/2]

std::string vtkm::cont::GetSizeString	(	vtkm::UInt64	bytes,
		int	prec = 2
	)

Returns "%1 (%2 bytes)" where %1 is the result from GetHumanReadableSize and %2 is the exact number of bytes.

GetStackTrace()

std::string vtkm::cont::GetStackTrace

(

vtkm::Int32

skip = 0

)

Returns a stacktrace on supported platforms.

Argument is the number of frames to skip (GetStackTrace and below are already skipped).

GetStderrLogLevel()

vtkm::cont::LogLevel vtkm::cont::GetStderrLogLevel

(

)

Get the active highest log level that will be printed to stderr.

GlobalGhostCellFieldName()

std::string& vtkm::cont::GlobalGhostCellFieldName ( )

noexcept

Initialize() [1/2]

InitializeResult vtkm::cont::Initialize

(

)

Initialize the VTKm library, parsing arguments when provided:

• Sets log level names when logging is configured.
• Sets the calling thread as the main thread for logging purposes.
• Sets the default log level to the argument provided to --vtkm-log-level.
• Forces usage of the device name passed to --vtkm-device.
• Prints usage when -h or --vtkm-help is passed.

The parameterless version only sets up log level names.

Additional options may be supplied via the opts argument, such as requiring the --vtkm-device option.

Results are available in the returned InitializeResult.

Note

This method may call exit() on parse error.

Initialize() [2/2]

InitializeResult vtkm::cont::Initialize	(	int &	argc,
		char *	argv[],
		InitializeOptions	opts = InitializeOptions::None
	)

Initialize the VTKm library, parsing arguments when provided:

• Sets log level names when logging is configured.
• Sets the calling thread as the main thread for logging purposes.
• Sets the default log level to the argument provided to --vtkm-log-level.
• Forces usage of the device name passed to --vtkm-device.
• Prints usage when -h or --vtkm-help is passed.

The parameterless version only sets up log level names.

Additional options may be supplied via the opts argument, such as requiring the --vtkm-device option.

Results are available in the returned InitializeResult.

Note

This method may call exit() on parse error.

InitLogging() [1/2]

void vtkm::cont::InitLogging

(

)

This shouldn't be called directly – prefer calling vtkm::cont::Initialize, which takes care of logging as well as other initializations.

Initializes logging. Sets up custom log level and thread names. Parses any "--vtkm-log-level [LogLevel]" arguments to set the stderr log level. This argument may be either numeric, or the 4-character string printed in the output. Note that loguru will consume the "--vtkm-log-level [LogLevel]" argument and shrink the arg list.

If the parameterless overload is used, the --vtkm-log-level parsing is not used, but other functionality should still work.

Note

This function is not threadsafe and should only be called from a single thread (ideally the main thread).

InitLogging() [2/2]

void vtkm::cont::InitLogging	(	int &	argc,
		char *	argv[],
		const std::string &	loggingFlag = "--vtkm-log-level"
	)

This shouldn't be called directly – prefer calling vtkm::cont::Initialize, which takes care of logging as well as other initializations.

Initializes logging. Sets up custom log level and thread names. Parses any "--vtkm-log-level [LogLevel]" arguments to set the stderr log level. This argument may be either numeric, or the 4-character string printed in the output. Note that loguru will consume the "--vtkm-log-level [LogLevel]" argument and shrink the arg list.

If the parameterless overload is used, the --vtkm-log-level parsing is not used, but other functionality should still work.

Note

This function is not threadsafe and should only be called from a single thread (ideally the main thread).

IsType() [1/2]

template<typename ArrayHandleType >

bool vtkm::cont::IsType ( const vtkm::cont::UnknownArrayHandle &  array )

inline

Returns true if variant matches the type of ArrayHandleType.

IsType() [2/2]

template<typename CellSetType >

bool vtkm::cont::IsType ( const vtkm::cont::UnknownCellSet &  unknownCellSet )

inline

Returns true if unknownCellSet matches the type of CellSetType.

LogCond()

void vtkm::cont::LogCond	(	LogLevel	level,
		bool	cond,
		const char *	file,
		unsigned	line,
		const char *	format...
	)

Conditionally logs a message with a printf-like format.

Parameters

level	Desired LogLevel value for the log message.
cond	When false this function is no-op.
file	The source file where the log entry was genearted.
line	The line in the source file where the log entry was generated.
format	Printf like format string.

make_ArrayHandle() [1/4]

template<typename T , typename Allocator >

vtkm::cont::ArrayHandleBasic<T> vtkm::cont::make_ArrayHandle	(	const std::vector< T, Allocator > &	array,
		vtkm::CopyFlag	copy
	)

A convenience function for creating an ArrayHandle from an std::vector.

make_ArrayHandle() [2/4]

template<typename T >

vtkm::cont::ArrayHandleBasic<T> vtkm::cont::make_ArrayHandle	(	const T *	array,
		vtkm::Id	numberOfValues,
		vtkm::CopyFlag	copy
	)

A convenience function for creating an ArrayHandle from a standard C array.

make_ArrayHandle() [3/4]

template<typename T >

vtkm::cont::ArrayHandleBasic<T> vtkm::cont::make_ArrayHandle

(

std::initializer_list< T > &&

values

)

Create an ArrayHandle directly from an initializer list of values.

make_ArrayHandle() [4/4]

template<typename T , typename Allocator >

vtkm::cont::ArrayHandleBasic<T> vtkm::cont::make_ArrayHandle	(	std::vector< T, Allocator > &&	array,
		vtkm::CopyFlag
	)

Move an std::vector into an ArrayHandle.

make_ArrayHandleBitField() [1/2]

vtkm::cont::ArrayHandleBitField vtkm::cont::make_ArrayHandleBitField ( const vtkm::cont::BitField &  bitField )

inline

make_ArrayHandleBitField() [2/2]

vtkm::cont::ArrayHandleBitField vtkm::cont::make_ArrayHandleBitField ( vtkm::cont::BitField &&  bitField )

inlinenoexcept

make_ArrayHandleCartesianProduct()

template<typename FirstHandleType , typename SecondHandleType , typename ThirdHandleType >

vtkm::cont::ArrayHandleCartesianProduct<FirstHandleType, SecondHandleType, ThirdHandleType> vtkm::cont::make_ArrayHandleCartesianProduct	(	const FirstHandleType &	first,
		const SecondHandleType &	second,
		const ThirdHandleType &	third
	)

A convenience function for creating an ArrayHandleCartesianProduct.

It takes the two arrays to be zipped together.

make_ArrayHandleCast()

template<typename T , typename ArrayType >

detail::MakeArrayHandleCastImpl<T, typename ArrayType::ValueType, ArrayType>::ReturnType vtkm::cont::make_ArrayHandleCast	(	const ArrayType &	array,
		const T &	= T()
	)

make_ArrayHandleCast is convenience function to generate an ArrayHandleCast.

make_ArrayHandleCompositeVector()

template<typename... ArrayTs>

ArrayHandleCompositeVector<ArrayTs...> vtkm::cont::make_ArrayHandleCompositeVector

(

const ArrayTs &...

arrays

)

Create a composite vector array from other arrays.

make_ArrayHandleConcatenate()

template<typename ArrayHandleType1 , typename ArrayHandleType2 >

ArrayHandleConcatenate<ArrayHandleType1, ArrayHandleType2> vtkm::cont::make_ArrayHandleConcatenate	(	const ArrayHandleType1 &	array1,
		const ArrayHandleType2 &	array2
	)

make_ArrayHandleConstant()

template<typename T >

vtkm::cont::ArrayHandleConstant<T> vtkm::cont::make_ArrayHandleConstant	(	T	value,
		vtkm::Id	numberOfValues
	)

make_ArrayHandleConstant is convenience function to generate an ArrayHandleImplicit.

It takes a functor and the virtual length of the array.

make_ArrayHandleCounting()

template<typename CountingValueType >

vtkm::cont::ArrayHandleCounting<CountingValueType> vtkm::cont::make_ArrayHandleCounting	(	CountingValueType	start,
		CountingValueType	step,
		vtkm::Id	length
	)

A convenience function for creating an ArrayHandleCounting.

It takes the value to start counting from and and the number of times to increment.

make_ArrayHandleDecorator()

template<typename DecoratorImplT , typename... ArrayTs>

ArrayHandleDecorator<typename std::decay<DecoratorImplT>::type, typename std::decay<ArrayTs>::type...> vtkm::cont::make_ArrayHandleDecorator	(	vtkm::Id	numValues,
		DecoratorImplT &&	f,
		ArrayTs &&...	arrays
	)

Create an ArrayHandleDecorator with the specified number of values that uses the provided DecoratorImplT and source ArrayHandles.

make_ArrayHandleExtractComponent()

template<typename ArrayHandleType >

ArrayHandleExtractComponent<ArrayHandleType> vtkm::cont::make_ArrayHandleExtractComponent	(	const ArrayHandleType &	array,
		vtkm::IdComponent	component
	)

make_ArrayHandleExtractComponent is convenience function to generate an ArrayHandleExtractComponent.

make_ArrayHandleGroupVec()

template<vtkm::IdComponent NUM_COMPONENTS, typename ArrayHandleType >

vtkm::cont::ArrayHandleGroupVec<ArrayHandleType, NUM_COMPONENTS> vtkm::cont::make_ArrayHandleGroupVec

(

const ArrayHandleType &

array

)

make_ArrayHandleGroupVec is convenience function to generate an ArrayHandleGroupVec.

It takes in an ArrayHandle and the number of components (as a specified template parameter), and returns an array handle with consecutive entries grouped in a Vec.

make_ArrayHandleGroupVecVariable()

template<typename ComponentsArrayHandleType , typename OffsetsArrayHandleType >

vtkm::cont::ArrayHandleGroupVecVariable<ComponentsArrayHandleType, OffsetsArrayHandleType> vtkm::cont::make_ArrayHandleGroupVecVariable	(	const ComponentsArrayHandleType &	componentsArray,
		const OffsetsArrayHandleType &	offsetsArray
	)

make_ArrayHandleGroupVecVariable is convenience function to generate an ArrayHandleGroupVecVariable.

It takes in an ArrayHandle of values and an array handle of offsets and returns an array handle with consecutive entries grouped in a Vec.

make_ArrayHandleImplicit()

template<typename FunctorType >

vtkm::cont::ArrayHandleImplicit<FunctorType> vtkm::cont::make_ArrayHandleImplicit	(	FunctorType	functor,
		vtkm::Id	length
	)

make_ArrayHandleImplicit is convenience function to generate an ArrayHandleImplicit.

It takes a functor and the virtual length of the arry.

make_ArrayHandleIndex()

vtkm::cont::ArrayHandleIndex vtkm::cont::make_ArrayHandleIndex ( vtkm::Id  length )

inline

A convenience function for creating an ArrayHandleIndex.

It takes the size of the array and generates an array holding vtkm::Id from [0, size - 1]

make_ArrayHandleMove() [1/2]

template<typename T , typename Allocator >

vtkm::cont::ArrayHandleBasic<T> vtkm::cont::make_ArrayHandleMove

(

std::vector< T, Allocator > &&

array

)

Move an std::vector into an ArrayHandle.

make_ArrayHandleMove() [2/2]

template<typename T >

vtkm::cont::ArrayHandleBasic<T> vtkm::cont::make_ArrayHandleMove	(	T *&	array,
		vtkm::Id	numberOfValues,
		vtkm::cont::internal::BufferInfo::Deleter	deleter = internal::SimpleArrayDeleter<T>,
		vtkm::cont::internal::BufferInfo::Reallocater	reallocater = internal::SimpleArrayReallocater<T>
	)

A convenience function to move a user-allocated array into an ArrayHandle.

The provided array pointer will be reset to nullptr. If the array was not allocated with the new[] operator, then deleter and reallocater functions must be provided.

make_ArrayHandleOffsetsToNumComponents()

template<typename OffsetsStorageTag >

vtkm::cont::ArrayHandleOffsetsToNumComponents< vtkm::cont::ArrayHandle<vtkm::Id, OffsetsStorageTag> > vtkm::cont::make_ArrayHandleOffsetsToNumComponents

(

const vtkm::cont::ArrayHandle< vtkm::Id, OffsetsStorageTag > &

array

)

make_ArrayHandlePermutation()

template<typename IndexArrayHandleType , typename ValueArrayHandleType >

vtkm::cont::ArrayHandlePermutation<IndexArrayHandleType, ValueArrayHandleType> vtkm::cont::make_ArrayHandlePermutation	(	IndexArrayHandleType	indexArray,
		ValueArrayHandleType	valueArray
	)

make_ArrayHandleTransform is convenience function to generate an ArrayHandleTransform.

It takes in an ArrayHandle and a functor to apply to each element of the Handle.

make_ArrayHandleReverse()

template<typename HandleType >

ArrayHandleReverse<HandleType> vtkm::cont::make_ArrayHandleReverse

(

const HandleType &

handle

)

make_ArrayHandleReverse is convenience function to generate an ArrayHandleReverse.

make_ArrayHandleRuntimeVec() [1/5]

template<typename T >

auto vtkm::cont::make_ArrayHandleRuntimeVec

(

const vtkm::cont::ArrayHandle< T, vtkm::cont::StorageTagBasic > &

componentsArray

)

make_ArrayHandleRuntimeVec() [2/5]

template<typename T , typename Allocator >

auto vtkm::cont::make_ArrayHandleRuntimeVec	(	vtkm::IdComponent	numComponents,
		const std::vector< T, Allocator > &	array,
		vtkm::CopyFlag	copy
	)

A convenience function for creating an ArrayHandleRuntimeVec from an std::vector.

make_ArrayHandleRuntimeVec() [3/5]

template<typename T >

auto vtkm::cont::make_ArrayHandleRuntimeVec	(	vtkm::IdComponent	numComponents,
		const T *	array,
		vtkm::Id	numberOfValues,
		vtkm::CopyFlag	copy
	)

A convenience function for creating an ArrayHandleRuntimeVec from a standard C array.

make_ArrayHandleRuntimeVec() [4/5]

template<typename T >

auto vtkm::cont::make_ArrayHandleRuntimeVec	(	vtkm::IdComponent	numComponents,
		const vtkm::cont::ArrayHandle< T, vtkm::cont::StorageTagBasic > &	componentsArray = vtkm::cont::ArrayHandle<T, vtkm::cont::StorageTagBasic>{}
	)

make_ArrayHandleRuntimeVec is convenience function to generate an ArrayHandleRuntimeVec.

It takes the number of components stored in each value's Vec, which must be specified on the construction of the ArrayHandleRuntimeVec. If not specified, the number of components is set to 1. make_ArrayHandleRuntimeVec can also optionally take an existing array of components, which will be grouped into Vec values based on the specified number of components.

make_ArrayHandleRuntimeVec() [5/5]

template<typename T , typename Allocator >

auto vtkm::cont::make_ArrayHandleRuntimeVec	(	vtkm::IdComponent	numComponents,
		std::vector< T, Allocator > &&	array,
		vtkm::CopyFlag
	)

make_ArrayHandleRuntimeVecMove() [1/2]

template<typename T , typename Allocator >

auto vtkm::cont::make_ArrayHandleRuntimeVecMove	(	vtkm::IdComponent	numComponents,
		std::vector< T, Allocator > &&	array
	)

Move an std::vector into an ArrayHandleRuntimeVec.

make_ArrayHandleRuntimeVecMove() [2/2]

template<typename T >

auto vtkm::cont::make_ArrayHandleRuntimeVecMove	(	vtkm::IdComponent	numComponents,
		T *&	array,
		vtkm::Id	numberOfValues,
		vtkm::cont::internal::BufferInfo::Deleter	deleter = internal::SimpleArrayDeleter<T>,
		vtkm::cont::internal::BufferInfo::Reallocater	reallocater = internal::SimpleArrayReallocater<T>
	)

A convenience function to move a user-allocated array into an ArrayHandleRuntimeVec.

The provided array pointer will be reset to nullptr. If the array was not allocated with the new[] operator, then deleter and reallocater functions must be provided.

make_ArrayHandleSOA() [1/7]

template<typename ComponentType , typename... RemainingArrays>

ArrayHandleSOA<vtkm::Vec<ComponentType, vtkm::IdComponent(sizeof...(RemainingArrays) + 1)> > vtkm::cont::make_ArrayHandleSOA	(	const vtkm::cont::ArrayHandle< ComponentType, vtkm::cont::StorageTagBasic > &	componentArray0,
		const RemainingArrays &...	componentArrays
	)

make_ArrayHandleSOA() [2/7]

template<typename ValueType >

ArrayHandleSOA<ValueType> vtkm::cont::make_ArrayHandleSOA	(	std::initializer_list< const typename vtkm::VecTraits< ValueType >::ComponentType * > &&	componentVectors,
		vtkm::Id	length,
		vtkm::CopyFlag	copy
	)

make_ArrayHandleSOA() [3/7]

template<typename ValueType >

ArrayHandleSOA<ValueType> vtkm::cont::make_ArrayHandleSOA

(

std::initializer_list< std::vector< typename vtkm::VecTraits< ValueType >::ComponentType >> &&

componentVectors

)

make_ArrayHandleSOA() [4/7]

template<typename ValueType >

ArrayHandleSOA<ValueType> vtkm::cont::make_ArrayHandleSOA

(

std::initializer_list< vtkm::cont::ArrayHandle< typename vtkm::VecTraits< ValueType >::ComponentType, vtkm::cont::StorageTagBasic >> &&

componentArrays

)

make_ArrayHandleSOA() [5/7]

template<typename ComponentType , typename... RemainingVectors>

ArrayHandleSOA<vtkm::Vec<ComponentType, vtkm::IdComponent(sizeof...(RemainingVectors) + 1)> > vtkm::cont::make_ArrayHandleSOA	(	vtkm::CopyFlag	copy,
		const std::vector< ComponentType > &	vector0,
		RemainingVectors &&...	componentVectors
	)

make_ArrayHandleSOA() [6/7]

template<typename ComponentType , typename... RemainingVectors>

ArrayHandleSOA<vtkm::Vec<ComponentType, vtkm::IdComponent(sizeof...(RemainingVectors) + 1)> > vtkm::cont::make_ArrayHandleSOA	(	vtkm::CopyFlag	copy,
		std::vector< ComponentType > &&	vector0,
		RemainingVectors &&...	componentVectors
	)

make_ArrayHandleSOA() [7/7]

template<typename ComponentType , typename... RemainingArrays>

ArrayHandleSOA<vtkm::Vec<ComponentType, vtkm::IdComponent(sizeof...(RemainingArrays) + 1)> > vtkm::cont::make_ArrayHandleSOA	(	vtkm::Id	length,
		vtkm::CopyFlag	copy,
		const ComponentType *	array0,
		const RemainingArrays *...	componentArrays
	)

make_ArrayHandleSOAMove()

template<typename ComponentType , typename... RemainingVectors>

ArrayHandleSOA<vtkm::Vec<ComponentType, vtkm::IdComponent(sizeof...(RemainingVectors) + 1)> > vtkm::cont::make_ArrayHandleSOAMove	(	std::vector< ComponentType > &&	vector0,
		RemainingVectors &&...	componentVectors
	)

make_ArrayHandleStride()

template<typename T >

vtkm::cont::ArrayHandleStride<T> vtkm::cont::make_ArrayHandleStride	(	const vtkm::cont::ArrayHandle< T, vtkm::cont::StorageTagBasic > &	array,
		vtkm::Id	numValues,
		vtkm::Id	stride,
		vtkm::Id	offset,
		vtkm::Id	modulo = 0,
		vtkm::Id	divisor = 1
	)

Create an array by adding a stride to a basic array.

make_ArrayHandleSwizzle() [1/2]

template<typename ArrayHandleType , vtkm::IdComponent OutSize>

ArrayHandleSwizzle<ArrayHandleType, OutSize> vtkm::cont::make_ArrayHandleSwizzle	(	const ArrayHandleType &	array,
		const vtkm::Vec< vtkm::IdComponent, OutSize > &	map
	)

make_ArrayHandleSwizzle() [2/2]

template<typename ArrayHandleType , typename... SwizzleIndexTypes>

ArrayHandleSwizzle<ArrayHandleType, vtkm::IdComponent(sizeof...(SwizzleIndexTypes) + 1)> vtkm::cont::make_ArrayHandleSwizzle	(	const ArrayHandleType &	array,
		vtkm::IdComponent	swizzleIndex0,
		SwizzleIndexTypes...	swizzleIndices
	)

make_ArrayHandleTransform() [1/2]

template<typename HandleType , typename FunctorType >

vtkm::cont::ArrayHandleTransform<HandleType, FunctorType> vtkm::cont::make_ArrayHandleTransform	(	HandleType	handle,
		FunctorType	functor
	)

make_ArrayHandleTransform is convenience function to generate an ArrayHandleTransform.

It takes in an ArrayHandle and a functor to apply to each element of the Handle.

make_ArrayHandleTransform() [2/2]

template<typename HandleType , typename FunctorType , typename InverseFunctorType >

vtkm::cont::ArrayHandleTransform<HandleType, FunctorType, InverseFunctorType> vtkm::cont::make_ArrayHandleTransform	(	HandleType	handle,
		FunctorType	functor,
		InverseFunctorType	inverseFunctor
	)

make_ArrayHandleView()

template<typename ArrayHandleType >

ArrayHandleView<ArrayHandleType> vtkm::cont::make_ArrayHandleView	(	const ArrayHandleType &	array,
		vtkm::Id	startIndex,
		vtkm::Id	numValues
	)

make_ArrayHandleXGCCoordinates() [1/3]

template<typename T >

vtkm::cont::ArrayHandleXGCCoordinates<T> vtkm::cont::make_ArrayHandleXGCCoordinates	(	const std::vector< T > &	array,
		vtkm::Id	numberOfPlanesOwned,
		bool	cylindrical,
		vtkm::Id	numberOfPlanes = -1,
		vtkm::Id	planeStartId = 0,
		vtkm::CopyFlag	copy = vtkm::CopyFlag::Off
	)

make_ArrayHandleXGCCoordinates() [2/3]

template<typename T >

vtkm::cont::ArrayHandleXGCCoordinates<T> vtkm::cont::make_ArrayHandleXGCCoordinates	(	const T *	array,
		vtkm::Id	length,
		vtkm::Id	numberOfPlanesOwned,
		bool	cylindrical,
		vtkm::Id	numberOfPlanes = -1,
		vtkm::Id	planeStartId = 0,
		vtkm::CopyFlag	copy = vtkm::CopyFlag::Off
	)

make_ArrayHandleXGCCoordinates() [3/3]

template<typename T >

vtkm::cont::ArrayHandleXGCCoordinates<T> vtkm::cont::make_ArrayHandleXGCCoordinates	(	const vtkm::cont::ArrayHandle< T > &	arrHandle,
		vtkm::Id	numberOfPlanesOwned,
		bool	cylindrical,
		vtkm::Id	numberOfPlanes = -1,
		vtkm::Id	planeStartId = 0
	)

make_ArrayHandleZip()

template<typename FirstHandleType , typename SecondHandleType >

vtkm::cont::ArrayHandleZip<FirstHandleType, SecondHandleType> vtkm::cont::make_ArrayHandleZip	(	const FirstHandleType &	first,
		const SecondHandleType &	second
	)

A convenience function for creating an ArrayHandleZip.

It takes the two arrays to be zipped together.

make_CellSetExtrude() [1/3]

template<typename T >

CellSetExtrude vtkm::cont::make_CellSetExtrude	(	const std::vector< vtkm::Int32 > &	conn,
		const vtkm::cont::ArrayHandleXGCCoordinates< T > &	coords,
		const std::vector< vtkm::Int32 > &	nextNode,
		bool	periodic = true
	)

make_CellSetExtrude() [2/3]

template<typename T >

CellSetExtrude vtkm::cont::make_CellSetExtrude	(	const vtkm::cont::ArrayHandle< vtkm::Int32 > &	conn,
		const vtkm::cont::ArrayHandleXGCCoordinates< T > &	coords,
		const vtkm::cont::ArrayHandle< vtkm::Int32 > &	nextNode,
		bool	periodic = true
	)

make_CellSetExtrude() [3/3]

template<typename T >

CellSetExtrude vtkm::cont::make_CellSetExtrude	(	std::vector< vtkm::Int32 > &&	conn,
		const vtkm::cont::ArrayHandleXGCCoordinates< T > &	coords,
		std::vector< vtkm::Int32 > &&	nextNode,
		bool	periodic = true
	)

make_CellSetPermutation()

template<typename OriginalCellSet , typename PermutationArrayHandleType >

vtkm::cont::CellSetPermutation<OriginalCellSet, PermutationArrayHandleType> vtkm::cont::make_CellSetPermutation	(	const PermutationArrayHandleType &	cellIndexMap,
		const OriginalCellSet &	cellSet
	)

make_CoordinateSystem() [1/2]

template<typename T >

vtkm::cont::CoordinateSystem vtkm::cont::make_CoordinateSystem	(	std::string	name,
		const std::vector< T > &	data,
		vtkm::CopyFlag	copy = vtkm::CopyFlag::Off
	)

make_CoordinateSystem() [2/2]

template<typename T >

vtkm::cont::CoordinateSystem vtkm::cont::make_CoordinateSystem	(	std::string	name,
		const T *	data,
		vtkm::Id	numberOfValues,
		vtkm::CopyFlag	copy = vtkm::CopyFlag::Off
	)

make_DeviceAdapterId() [1/2]

DeviceAdapterId vtkm::cont::make_DeviceAdapterId

(

const DeviceAdapterNameType &

name

)

Construct a device adapter id from a runtime string The string is case-insensitive.

So CUDA will be selected with 'cuda', 'Cuda', or 'CUDA'.

make_DeviceAdapterId() [2/2]

DeviceAdapterId vtkm::cont::make_DeviceAdapterId ( vtkm::Int8  id )

inline

Construct a device adapter id a vtkm::Int8.

The mapping of integer value to devices are:

DeviceAdapterTagSerial == 1 DeviceAdapterTagCuda == 2 DeviceAdapterTagTBB == 3 DeviceAdapterTagOpenMP == 4 DeviceAdapterTagKokkos == 5

make_Field() [1/4]

template<typename T >

vtkm::cont::Field vtkm::cont::make_Field	(	std::string	name,
		Field::Association	association,
		const std::vector< T > &	data,
		vtkm::CopyFlag	copy
	)

make_Field() [2/4]

template<typename T >

vtkm::cont::Field vtkm::cont::make_Field	(	std::string	name,
		Field::Association	association,
		const T *	data,
		vtkm::Id	size,
		vtkm::CopyFlag	copy
	)

Convenience functions to build fields from C style arrays and std::vector.

make_Field() [3/4]

template<typename T >

vtkm::cont::Field vtkm::cont::make_Field	(	std::string	name,
		Field::Association	association,
		std::initializer_list< T > &&	data
	)

make_Field() [4/4]

template<typename T >

vtkm::cont::Field vtkm::cont::make_Field	(	std::string	name,
		Field::Association	association,
		std::vector< T > &&	data,
		vtkm::CopyFlag
	)

make_FieldCell() [1/2]

template<typename T , typename S >

vtkm::cont::Field vtkm::cont::make_FieldCell	(	std::string	name,
		const vtkm::cont::ArrayHandle< T, S > &	data
	)

Convenience function to build cell fields from vtkm::cont::ArrayHandle.

make_FieldCell() [2/2]

vtkm::cont::Field vtkm::cont::make_FieldCell ( std::string  name, const vtkm::cont::UnknownArrayHandle &  data  )

inline

Convenience function to build cell fields from vtkm::cont::UnknownArrayHandle.

make_FieldMove()

template<typename T >

vtkm::cont::Field vtkm::cont::make_FieldMove	(	std::string	name,
		Field::Association	association,
		std::vector< T > &&	data
	)

make_FieldPoint() [1/2]

template<typename T , typename S >

vtkm::cont::Field vtkm::cont::make_FieldPoint	(	std::string	name,
		const vtkm::cont::ArrayHandle< T, S > &	data
	)

Convenience function to build point fields from vtkm::cont::ArrayHandle.

make_FieldPoint() [2/2]

vtkm::cont::Field vtkm::cont::make_FieldPoint ( std::string  name, const vtkm::cont::UnknownArrayHandle &  data  )

inline

Convenience function to build point fields from vtkm::cont::UnknownArrayHandle.

MergePartitionedDataSet()

vtkm::cont::DataSet vtkm::cont::MergePartitionedDataSet	(	const vtkm::cont::PartitionedDataSet &	partitionedDataSet,
		vtkm::Float64	invalidValue = vtkm::Nan64()
	)

This function can merge multiple data sets into on data set.

This function assume all input partitions have the same coordinates systems. If a field does not exist in a specific partition but exists in other partitions, the invalide value will be used to fill the coresponding region of that field in the merged data set.

operator!=() [1/2]

bool vtkm::cont::operator!= ( const vtkm::cont::Token &  token, vtkm::cont::Token::Reference  ref  )

inline

operator!=() [2/2]

bool vtkm::cont::operator!= ( vtkm::cont::Token::Reference  ref, const vtkm::cont::Token &  token  )

inline

operator&()

InitializeOptions vtkm::cont::operator& ( const InitializeOptions &  lhs, const InitializeOptions &  rhs  )

inline

operator==() [1/2]

bool vtkm::cont::operator== ( const vtkm::cont::Token &  token, vtkm::cont::Token::Reference  ref  )

inline

operator==() [2/2]

bool vtkm::cont::operator== ( vtkm::cont::Token::Reference  ref, const vtkm::cont::Token &  token  )

inline

operator|()

InitializeOptions vtkm::cont::operator| ( const InitializeOptions &  lhs, const InitializeOptions &  rhs  )

inline

ParticleArrayCopy() [1/3]

template<typename ParticleType >

void vtkm::cont::ParticleArrayCopy ( const std::vector< vtkm::cont::ArrayHandle< ParticleType, vtkm::cont::StorageTagBasic >> &  inputs, vtkm::cont::ArrayHandle< vtkm::Vec3f, vtkm::cont::StorageTagBasic > &  outPos  )

inline

Copy fields in vtkm::Particle to standard types.

Given a std::vector of ArrayHandle of vtkm::Particle, this function copies the position field into an ArrayHandle of Vec3f objects.

ParticleArrayCopy() [2/3]

template<typename ParticleType >

void vtkm::cont::ParticleArrayCopy ( const vtkm::cont::ArrayHandle< ParticleType, vtkm::cont::StorageTagBasic > &  inP, vtkm::cont::ArrayHandle< vtkm::Vec3f, vtkm::cont::StorageTagBasic > &  outPos, bool  CopyTerminatedOnly = false  )

inline

Copy fields in vtkm::Particle to standard types.

Given an ArrayHandle of vtkm::Particle, this function copies the position field into an ArrayHandle of Vec3f objects.

ParticleArrayCopy() [3/3]

template<typename ParticleType >

void vtkm::cont::ParticleArrayCopy ( const vtkm::cont::ArrayHandle< ParticleType, vtkm::cont::StorageTagBasic > &  inP, vtkm::cont::ArrayHandle< vtkm::Vec3f, vtkm::cont::StorageTagBasic > &  outPos, vtkm::cont::ArrayHandle< vtkm::Id, vtkm::cont::StorageTagBasic > &  outID, vtkm::cont::ArrayHandle< vtkm::Id, vtkm::cont::StorageTagBasic > &  outSteps, vtkm::cont::ArrayHandle< vtkm::ParticleStatus, vtkm::cont::StorageTagBasic > &  outStatus, vtkm::cont::ArrayHandle< vtkm::FloatDefault, vtkm::cont::StorageTagBasic > &  outTime  )

inline

Copy all fields in vtkm::Particle to standard types.

Given an ArrayHandle of vtkm::Particle, this function copies the position, ID, number of steps, status and time into a separate ArrayHandle.

printSummary_ArrayHandle()

template<typename T , typename StorageT >

void vtkm::cont::printSummary_ArrayHandle ( const vtkm::cont::ArrayHandle< T, StorageT > &  array, std::ostream &  out, bool  full = false  )

inline

SetGlobalGhostCellFieldName()

void vtkm::cont::SetGlobalGhostCellFieldName ( const std::string &  name )

noexcept

SetLogLevelName()

void vtkm::cont::SetLogLevelName	(	vtkm::cont::LogLevel	level,
		const std::string &	name
	)

Register a custom name to identify a log level.

The name will be truncated to 4 characters internally.

Must not be called after InitLogging. Such calls will fail and log an error.

There is no need to call this for the default vtkm::cont::LogLevels. They are populated in InitLogging and will be overwritten.

SetLogThreadName()

void vtkm::cont::SetLogThreadName

(

const std::string &

name

)

Specifies a humman-readable name to identify the current thread in the log output.

SetStderrLogLevel() [1/2]

void vtkm::cont::SetStderrLogLevel

(

const char *

verbosity

)

Set the range of log levels that will be printed to stderr.

All levels with an enum value less-than-or-equal-to level will be printed.

SetStderrLogLevel() [2/2]

void vtkm::cont::SetStderrLogLevel

(

vtkm::cont::LogLevel

level

)

Set the range of log levels that will be printed to stderr.

All levels with an enum value less-than-or-equal-to level will be printed.

ThrowArrayRangeComputeFailed()

void vtkm::cont::ThrowArrayRangeComputeFailed ( )

inline

throwFailedDynamicCast()

void vtkm::cont::throwFailedDynamicCast	(	const std::string &	baseType,
		const std::string &	derivedType
	)

Throws an ErrorBadType exception with the following message: Cast failed: baseType --> derivedType".

This is generally caused by asking for a casting of a UnknownArrayHandle or UncertainArrayhandle with an insufficient type list.

throwFailedRuntimeDeviceTransfer()

void vtkm::cont::throwFailedRuntimeDeviceTransfer	(	const std::string &	className,
		vtkm::cont::DeviceAdapterId	device
	)

Throws an ErrorBadeDevice exception with the following message: "VTK-m was unable to transfer className to DeviceAdapter[id,name].

This is generally caused by asking for execution on a DeviceAdapter that isn't compiled into VTK-m. In the case of CUDA it can also be caused by accidentally compiling source files as C++ files instead of CUDA."

TryExecute()

template<typename Functor , typename... Args>

bool vtkm::cont::TryExecute	(	Functor &&	functor,
		Args &&...	args
	)

Try to execute a functor on a set of devices until one succeeds.

This function takes a functor and optionally a set of devices to compile support. It then tries to run the functor for each device (in the order given in the list) until the execution succeeds.

The TryExecute is also able to perfectly forward arbitrary arguments onto the functor. These arguments must be placed after the optional device adapter list and will passed to the functor in the same order as listed.

The functor must implement the function call operator ( operator() ) with a return type of bool and that is true if the execution succeeds, false if it fails. If an exception is thrown from the functor, then the execution is assumed to have failed. The functor call operator must also take at least one argument being the required DeviceAdapterTag to use.

struct TryCallExample
{
  template<typename DeviceList>
  bool operator()(DeviceList tags, int) const
  {
    return true;
  }
};
 
 
// Executing without a deviceId, or device list
vtkm::cont::TryExecute(TryCallExample(), int{42});
 
// Executing with a device list
using DeviceList = vtkm::List<vtkm::cont::DeviceAdapterTagSerial>;
vtkm::cont::TryExecute(TryCallExample(), DeviceList(), int{42});

This function returns true if the functor succeeded on a device, false otherwise.

If no device list is specified, then VTKM_DEFAULT_DEVICE_ADAPTER_LIST is used.

TryExecuteOnDevice() [1/2]

template<typename Functor >

bool vtkm::cont::TryExecuteOnDevice	(	vtkm::cont::DeviceAdapterId	devId,
		Functor &&	functor
	)

Try to execute a functor on a specific device selected at runtime.

This function takes a functor and a DeviceAdapterId which represents a specific device to attempt to run on at runtime. It also optionally accepts a set of devices to compile support for.

It then iterates over the set of devices finding which one matches the provided adapter Id and is also enabled in the runtime. The function will return true only if the device adapter was valid, and the task was successfully run.

The TryExecuteOnDevice is also able to perfectly forward arbitrary arguments onto the functor. These arguments must be placed after the optional device adapter list and will passed to the functor in the same order as listed.

The functor must implement the function call operator ( operator() ) with a return type of bool and that is true if the execution succeeds, false if it fails. If an exception is thrown from the functor, then the execution is assumed to have failed. The functor call operator must also take at least one argument being the required DeviceAdapterTag to use.

struct TryCallExample
{
  template<typename DeviceList>
  bool operator()(DeviceList tags, int) const
  {
    return true;
  }
};
 
 
// Execute only on the device which corresponds to devId
// Will not execute all if devId is
vtkm::cont::TryExecuteOnDevice(devId, TryCallExample(), int{42});

This function returns true if the functor succeeded on a device, false otherwise.

If no device list is specified, then VTKM_DEFAULT_DEVICE_ADAPTER_LIST is used.

TryExecuteOnDevice() [2/2]

template<typename Functor , typename Arg1 , typename... Args>

bool vtkm::cont::TryExecuteOnDevice	(	vtkm::cont::DeviceAdapterId	devId,
		Functor &&	functor,
		Arg1 &&	arg1,
		Args &&...	args
	)

Try to execute a functor on a specific device selected at runtime.

This function takes a functor and a DeviceAdapterId which represents a specific device to attempt to run on at runtime. It also optionally accepts a set of devices to compile support for.

It then iterates over the set of devices finding which one matches the provided adapter Id and is also enabled in the runtime. The function will return true only if the device adapter was valid, and the task was successfully run.

The TryExecuteOnDevice is also able to perfectly forward arbitrary arguments onto the functor. These arguments must be placed after the optional device adapter list and will passed to the functor in the same order as listed.

The functor must implement the function call operator ( operator() ) with a return type of bool and that is true if the execution succeeds, false if it fails. If an exception is thrown from the functor, then the execution is assumed to have failed. The functor call operator must also take at least one argument being the required DeviceAdapterTag to use.

struct TryCallExample
{
  template<typename DeviceList>
  bool operator()(DeviceList tags, int) const
  {
    return true;
  }
};
 
 
// Execute only on the device which corresponds to devId
// Will not execute all if devId is
vtkm::cont::TryExecuteOnDevice(devId, TryCallExample(), int{42});

This function returns true if the functor succeeded on a device, false otherwise.

If no device list is specified, then VTKM_DEFAULT_DEVICE_ADAPTER_LIST is used.

TypeToString() [1/4]

template<typename T >

std::string vtkm::cont::TypeToString ( )

inline

Use RTTI information to retrieve the name of the type T.

If logging is enabled and the platform supports it, the type name will also be demangled.

TypeToString() [2/4]

std::string vtkm::cont::TypeToString

(

const std::type_index &

t

)

Use RTTI information to retrieve the name of the type T.

If logging is enabled and the platform supports it, the type name will also be demangled.

TypeToString() [3/4]

std::string vtkm::cont::TypeToString

(

const std::type_info &

t

)

Use RTTI information to retrieve the name of the type T.

If logging is enabled and the platform supports it, the type name will also be demangled.

TypeToString() [4/4]

template<typename T >

std::string vtkm::cont::TypeToString ( const T &  )

inline

Use RTTI information to retrieve the name of the type T.

If logging is enabled and the platform supports it, the type name will also be demangled.