A Grid is a set of Skeleton objects, each of them accessed via some unique SkeletonID object. More...

#include <Grid.hpp>

Inheritance diagram for Fiber::Grid:

Classes
struct	FragmentFilter
	Filter callback functions per fragment. More...

Public Types
typedef Fiber::SkeletonInfo	SkeletonInfo
typedef SkeletonIterator	Iterator
	Associated Iterator class.
template<class index_type>
using	filter = std::function<bool(Chunk<index_type>&indirection, const RefPtr<FragmentID>&fid, CreativeArrayBase&CAB)>
	A filter function provided by a SkeletonFilter that fills the given indirection array based for the given fragment based on the given coordinates.
using	metafilter = FragmentMetaIndirector::MetaInfoProvider_t
	A callback function that will be called once a source fragment has been processed such that meta-data can be set on the newly create target Creator.
template<class index_type>
using	SkeletonFilter = std::function<FragmentFilter<index_type>(Skeleton&SourceVertices, const Representer&theRepresenter, const Representation&R)>
	A function invoked per skeleton to provide a filter function, given a certain Representation and Representer.
Public Types inherited from Fiber::SkeletonMap
typedef std::list< RefPtr< Skeleton > >	Skeletons_t
typedef SkeletonIterator	Iterator
	Associated Iterator class.
Public Types inherited from Fiber::OwnerBase
template<class ItemType>
using	Item = MemCore::InterfaceData<ItemType>
	An optional convenience class that allows to easily add arbitrary types to Intercubes .

Public Member Functions
	Grid (const OwnerOf< Grid > &GridOwner, const WeakPtr< GridContainer > &GC, const RefPtr< GlobalCharts > &GAtlas)
	The constructor.
	Grid (const WeakPtr< GridContainer > &GC, const RefPtr< GlobalCharts > &GAtlas)
	~Grid ()
	Destructor.
const RefPtr< Atlas > &	MyAtlas () const
	Return the Atlas of this Grid.
const Atlas::Atlas_t &	getCharts () const
	Return the set of all charts on this Grid.
Atlas::Atlas_t	getCharts (const type_info &ChartType) const
	Return the set of all charts on this Grid of a given type.
Atlas::Atlas_t	getCartesianCharts3D () const
	Return the set of all three-dimensional cartesian charts defined on this Gri.
const RefPtr< Chart >	getUniqueCartesianChart3D () const
	Return a chart of type cartesian of only one such exists.
string	getUniqueCartesianChart3DName () const
RefPtr< Chart >	findChart (const RefPtr< ChartID > &id) const
	Search for a chart on this grid.
RefPtr< Chart >	findChart (const type_info &ChartType, const string &name=string()) const
	Search for a named chart of the given type and the given name, using a standard chart if no name is given.
RefPtr< Chart >	makeChart (const type_info &ChartType, const string &name={}, uint16_t epsg_code=0)
	Make a chart on this grid with the given name, ie create one if not yet existent.
RefPtr< Chart >	findChart (uint16_t epsg_code) const
	Search for a chart by epsg number on this grid.
RefPtr< ChartID >	findChartID (uint16_t epsg_code) const
bool	insertSharedChart (const RefPtr< Chart > &ExistingChart)
RefPtr< Chart >	makeCartesianChart (const string &name={}, uint16_t epsg_code=0)
	Create a cartesian chart here, if not existent yet.
RefPtr< Chart >	findCartesianChart (const string &name={}) const
	Find a cartesian chart here.
RefPtr< Representation >	getCartesianRepresentation (const Skeleton &Skel, const string &ChartName={}) const
	Return the representation of the given Skeleton in cartesian coordinates on this Grid.
RefPtr< Representation >	getCartesianRepresentation (const string &ChartName={}) const
	Return the representation of the Vertices on this Grid in cartesian coordinates.
RefPtr< Representation >	operator() () const
	Shortcut for getCartesianRepresentation().
RefPtr< Representation >	getTimePolar2DRepresentation (const Skeleton &Skel) const
	Return the representation of the given Skeleton in TimePolar2D coordinates on this Grid.
RefPtr< Representation >	getTimePolar2DRepresentation () const
Representation &	makeCartesianRepresentation (int Dims, const string &name={}, uint16_t epsg_code=0)
	Provide a representation in an n-dimensional skeleton of the vertices.
Representation &	operator[] (int Dims)
	Shortcut operator function: Create a vertex representation of this Grid with the given dimensionality.
RefPtr< Field >	operator() (const string &fieldname, const string &ChartName=string()) const
	Retrieve a field on the vertices.
RefPtr< Field >	operator() (const string &fieldname, const RefPtr< Chart > &theChart) const
FieldProxy	operator[] (const string &fieldname)
	Convenience shortcut function: Create a field in 3D cartesian vertices, if no vertices and no cartesian represenation yet exists.
RefPtr< Field >	CartesianPositions () const
	Shortcut function: get the coordinates of the vertices in the default cartesian chart.
RefPtr< Field >	TimePolar2DPositions () const
RefPtr< Field >	getCartesianPositions () const
	Shortcut function: get the coordinates of the vertices in the default cartesian chart.
void	setCartesianPositions (const MemCore::RefPtr< MemBase > &Coordinates, const string &ChartName={}, uint16_t epsg_code=0)
	Convenience function to easily set cartesian coordinates directly from data as unfragmented field.
Representation &	setCartesianPositions (const MemBase &Coordinates, const string &ChartName={}, uint16_t epsg_code=0)
	Convenience function to create a cartesian representation directly from a set of coordinates.
template<class SkeletonFunctor>
int	iterate_skeletons (const SkeletonFunctor &F) const
	Lambda functor iteration over skeletons:
RefPtr< Field >	getField (const RefPtr< ChartID > &theChartID, const string &fieldname, const RefPtr< Skeleton > &theSkeleton) const
	Get a field of the specified Skeleton, which must reside on the Grid, in the given Chart.
RefPtr< Field >	getField (const RefPtr< Chart > &theChart, const string &fieldname, const RefPtr< Skeleton > &theSkeleton) const
RefPtr< Field >	getField (const RefPtr< ChartID > &theChartID, const string &fieldname) const
	Get a field of the Grid's vertices in the given Chart.
RefPtr< Field >	getField (const RefPtr< Chart > &theChart, const string &fieldname) const
RefPtr< Field >	getPositions (const RefPtr< ChartID > &theChartID, const RefPtr< Skeleton > &theSkeleton) const
	Get the positional field of the specified Skeleton, which must reside on the Grid, in the given Chart.
RefPtr< Field >	getPositions (const string &ChartName={}) const
RefPtr< Field >	getVertexPositions (const RefPtr< ChartID > &theChartID) const
	Get the positional field of the vertices of this Grid for the specified chart.
RefPtr< Representation >	getRepresentation (const RefPtr< ChartID > &theChartID, const RefPtr< Skeleton > &theSkeleton) const
	Get the representation of this Grid's Skeleton in the specified Chart.
RefPtr< Representation >	getRepresentation (const RefPtr< Chart > &theChart, const SkeletonID &theSkeletonID) const
	Get the representation of a Skeleton in the specified Chart.
RefPtr< Representation >	getRepresentation (const RefPtr< ChartID > &theChartID, const SkeletonID &theSkeletonID) const
RefPtr< Representation >	getVertexRepresentation (const RefPtr< ChartID > &theChartID) const
	Get the representation of this Grid's vertices in the specified Chart.
RefPtr< Skeleton >	findHighestHomogenousRefinement (int MaxLevel, int IndexDepth, int Dimensionality) const
	Find the refinement of the highest homogeneous refinement level with the given index depth and dimensionality, i.e.
RefPtr< Skeleton >	findHighestHomogenousVertexRefinement (int MaxLevel) const
	Find the vertex refinement of the highest homogeneous refinement level, i.e.
template<is_field_identifier... FieldIdentifiers>
std::array< RefPtr< Field >, sizeof...(FieldIdentifiers)>	getVertexFields (const RefPtr< Chart > &chart, FieldIdentifiers... theFieldIdentifiers) const
template<is_field_identifier... FieldIdentifiers>
auto	getVertexFields (uint16_t epsg_code, FieldIdentifiers... theFieldIdentifiers) const
template<is_field_identifier... FieldIdentifiers>
auto	getVertexFields (const type_info &ChartType, const string &ChartName, FieldIdentifiers... theFieldIdentifiers) const
template<is_field_identifier... FieldIdentifiers>
auto	getCartesianVertexFields (const string &ChartName, FieldIdentifiers... theFieldIdentifiers) const
template<is_field_identifier... FieldIdentifiers>
auto	getVertexFieldCreators (const RefPtr< FragmentID > &fID, const RefPtr< Chart > &chart, FieldIdentifiers... theFieldIdentifiers) const
template<is_field_identifier... FieldIdentifiers>
auto	getVertexFieldCreators (const RefPtr< FragmentID > &fID, uint16_t epsg_code, FieldIdentifiers... theFieldIdentifiers) const
template<is_field_identifier... FieldIdentifiers>
auto	getVertexFieldCreators (const RefPtr< FragmentID > &fID, const type_info &ChartType, const string &ChartName, FieldIdentifiers... theFieldIdentifiers) const
template<is_field_identifier... FieldIdentifiers>
auto	getCartesianVertexFieldCreators (const RefPtr< FragmentID > &fID, const string &ChartName, FieldIdentifiers... theFieldIdentifiers) const
string	xml () const
RefPtr< Skeleton >	findSkeleton (const RefPtr< FragmentID > &fID)
	Investigation function to find the skeleton that corresponds to a certain fragment ID.
void	establishSkeletonFilter (Skeleton &TargetVertices, Skeleton &SourceVertices, SkeletonFilter< uint32_t > SF)
	Establish a connection between the SourceVertices from another Grid to the TargetVertices on this grid given the specified SkeletonFilter relationship.
void	establishVertexFilter (const Grid &SourceGrid, SkeletonFilter< uint32_t > SF)
	Establish a connection between all Vertices from another Grid to all Vertices on this grid given the specified SkeletonFilter relationship, which means possibly traversal of a hierarchy.
Skeleton &	operator[] (const SkeletonID &Sid)
	Create a Skeleton.
RefPtr< Skeleton >	operator() (const SkeletonID &Sid) const
	Find a Skeleton.
int	iterate (ConstSkeletonIterator &) const
	Iterate over all skeletons of this Grid.
int	iterate (SkeletonIterator &)
	Iterate over all skeletons of this Grid.
int	iterate (std::function< bool(const SkeletonID &id, Skeleton &S)>) const
template<class Functor>
int	iterate_all (const Functor &F) const
	Lambda functor iteration over all data.
RefPtr< Skeleton >	findMaxHomogenousRefinement (int IndexDepth) const
	Find the skeleton with the maximal homogenous refinement level.
Public Member Functions inherited from Fiber::SkeletonMap
RefPtr< Skeleton >	findVertices (int TotalRefinement=-1) const
	Find the Skeleton describing the Vertices on this Grid.
RefPtr< Skeleton >	getVerticesInfo (int TotalRefinement=-1) const
	Find the skeleton describing the vertices of this Grid.
RefPtr< Skeleton >	getEdgeInfo (int TotalRefinement=-1) const
	Find the skeleton describing the faces of this Grid.
RefPtr< Skeleton >	getFaceInfo (int TotalRefinement=-1) const
	Find the skeleton describing the edges of this Grid.
double	NumberOfHoles (int TotalRefinement=-1) const
	Implements the Euler-Poincare formula to determine the topological number of holes within some surface.
Skeleton &	makeVertices (int dims)
	Create a Skeleton describing the vertices of a Grid.
Skeleton &	operator[] (const SkeletonID &Sid)
	Create a Skeleton.
RefPtr< Skeleton >	getSkeleton (const SkeletonID &Sid) const
	Find a Skeleton.
RefPtr< Skeleton >	operator() (const SkeletonID &Sid) const
	Find a Skeleton.
RefPtr< Representation >	CellsAsVertices (int dims) const
int	MinLevel (int IndexDepth=0) const
	Get a Skeleton that would describe the topology of the fragments of a given Skeleton, which is corresponds to a skeleton of index depth two larger.
int	MaxLevel (int IndexDepth=0) const
	Find the maximal refinement level for the given index depth.
RefPtr< Skeleton >	findMaxHomogenousRefinement (int IndexDepth) const
	Find the skeleton with the maximal homogenous refinement level.
bool	replaceSkeletonID (const SkeletonID &old_id, const SkeletonID &new_id)
RefPtr< Skeleton >	findIsotropicRefinementFactor (int Factor, int IndexDepth) const
	Find a Skeleton that corresponds to isotropic refinement by the given factor.
int	iterate (ConstSkeletonIterator &) const
	Iterate over all skeletons of this Grid.
int	iterate (SkeletonIterator &)
	Iterate over all skeletons of this Grid.
int	iterate (std::function< bool(const SkeletonID &id, Skeleton &S)>) const
int	iterate_const (std::function< bool(const SkeletonID &id, const Skeleton &S)>) const
template<class SkeletonFunctor>
int	Iterate (const SkeletonFunctor &F) const
	Lambda functor iteration over skeletons:
template<class Functor>
int	iterate_all (const Functor &F) const
int	nSkeletons () const
	Return the number of skeletons defined on this grid.
int	nSkeletons (int IndexDepth) const
int	getMemoryUsage (memsize_t &UsedMemory, memsize_t &WantedMemory) const
	Get the memory occupied by this Grid (and all of its fields).
void	Speak (int indent=0, int maxindent=-1) const
	Informative debug message.
string	xml () const
Public Member Functions inherited from Fiber::Ownable< Grid >
void	x_updateOwnershipAge (const MemCore::Ageable &theNewAge) override
	Forward some age to all Owners.
void	insertOwner (const Container &theOwner)
	Add some owner.
void	addOwner (const Container &theOwner, const MemCore::Ageable &theNewAge)
	Add some owner and broadcast a new age to all Ownerrs.
	Ownable ()
	Default constructor, empty Ownership list.
Ownable &	operator= (const Ownable &)
	Assignment, does NOT copy any ownership information, the assigned Ownable will retain all its ownership information.
MemCore::WeakPtr< Container >	getPrimaryOwner () const
	Get the first valid owner.
size_t	getNumberOfValidOwners () const
	Get the first valid owner.
bool	processOwnership (MemCore::Intercube &Output, const MemCore::Intercube &Input) const override
	Process some ownership action.
Public Member Functions inherited from Fiber::OwnerBase
bool	processOwnership (MemCore::Intercube &OutputAndInput) const
	Process ownership where the input information is shared with the output information in the same Intercube.
Public Member Functions inherited from Wizt::Intercube
void	addInterface (const RefPtr< InterfaceBase > &I) const
void	addInterfaceData (const Data &D)
void	addInterfaceData (const Data &D)
void	clearInterfaces ()
bool	const_iterateInterfaces (const RefPtr< InterfaceIterationParameter > &IIP) const
virtual RefPtr< InterfaceBase >	createInterface (const type_info &) const
RefPtr< InterfaceBase >	findInterface (const type_info &t) const
RefPtr< InterfaceBase >	getInterface (const type_info &t)
std::string	getInterfaceNames (const char delim=';') const
bool	gotNewInterfaceData (const Data &D)
bool	gotNewInterfaceData (mutex &M, const Data &D)
bool	gotNewInterfaceData (mutex &M, const Data &D)
bool	gotNewInterfaceData (mutex &M, const Data &D, const Selector &S)
bool	gotNewInterfaceData (mutex &M, const Data &D, const Selector *S)
bool	hasChangedInterfaceData (const Data &D) const
bool	hasChangedInterfaceData (const Data &D) const
bool	hasChangedInterfaceData (const Data &D, const Selector &) const
bool	hasChangedInterfaceData (const Data &D, const Selector *) const
bool	hasInterface (const type_info &t) const
bool	iterateInterfaces (const RefPtr< InterfaceIterationParameter > &IIP)
void	printInterfaces () const
void	registerInterface (const type_info &t)
void	removeInterface ()
void	removeInterfaceBase (const type_info &InterfaceBaseID)
Public Member Functions inherited from Fiber::SaveableAttributes
void	attributesHaveBeenSaved () const
bool	attributesNeedSaving () const
Public Member Functions inherited from MemCore::Attributes
MemCore::RefPtr< MemCore::ChunkBase >	getAttribute (const std::string &name) const
const Ageable &	getAttributeAge () const
std::pair< bool, T >	getAttributeValue (const string &AttributeName, size_t ElementNumber=0) const
attributes_t &	getAttributeValues ()
const attributes_t &	getAttributeValues () const
size_t	getNumberOfAttributes () const
bool	hasAttribute (const std::string &name) const
int	Iterate (const Functor &L) const
int	iterate (Iterator &it) const
int	iterate_attributes (const Functor &L) const
size_t	NumberOfAttributes () const
void	setAttribute (const std::string &name, const MemCore::RefPtr< MemCore::ChunkBase > &AttribData)
ResizableChunk< T > &	setAttributeValue (const std::string &name, const T &AttribData)
ResizableChunk< T > &	setAttributeValues (const std::string &name, const std::initializer_list< T > &AttribData)
const T &	setValue (const T &AttribData, const std::string &name)
const T &	setValue (const T &AttribData, const std::string &name, const std::string &Comment, const std::string &CommentPrefix="Comment")
string	toString () const
const Ageable &	touchAttributes () const
const Ageable &	updateAttributeAge (const Ageable &A) const

Static Public Member Functions
static string	getChartName (const type_info &ChartType, const string &name)
static RefPtr< Representation >	getRepresentation (const RefPtr< Chart > &theChart, const RefPtr< Skeleton > &theSkeleton)
	Get the representation of a Skeleton in the specified Chart.

Additional Inherited Members
Public Attributes inherited from Fiber::SkeletonMap
Skeletons_t	Skeletons
Public Attributes inherited from Fiber::Ownable< Grid >
std::unordered_set< MemCore::WeakPtr< Container > >	Owners
	The (internal) list of owners.
Public Attributes inherited from Fiber::SaveableAttributes
MemCore::Ageable	LastSavedAttributes
Protected Member Functions inherited from Fiber::SkeletonMap
	~SkeletonMap ()
	Destructor.
void	extremeUnction () override

Detailed Description

A Grid is a set of Skeleton objects, each of them accessed via some unique SkeletonID object.

The Grid class that describes a geometrical entity at a certain point within a parameter space. It is the host of geometrical and topological information together with fields on each set describing these components. The geometrical shape as well as any fields is available in multiple coordinate systems. Topological information includes relationships among edges, vertices, polygons etc. as well as multi-level refinement information originating from adaptive mesh refinements (AMR) and also relationships relative to other grids on the same parameter space point.

Examples: EvolutionSurface.cpp, HelicalLines.cpp, XF_LineSetFragmented.cpp, XF_LineSetHierarchical.cpp, XF_LineSetHierarchicalRegularized.cpp, trimesh.cpp, and uniform_scalar.cpp.

Member Typedef Documentation

◆ filter

template<class index_type>

using Fiber::Grid::filter = std::function<bool(Chunk<index_type>&indirection, const RefPtr<FragmentID>&fid, CreativeArrayBase&CAB)>

A filter function provided by a SkeletonFilter that fills the given indirection array based for the given fragment based on the given coordinates.

Parameters

indirection	OUTPUT array of indices, it has its size already reserved, such that using push_back() is fine. It must contain indices into the source skeleton to tell which elements there may be used on the target skeleton.
fid	Fragment ID, may be used optionally to consider properties of other fields as well - in this case, the providing SkeletonFilter function must also pass the appropriate Representation.
CAB	A creator for a positional fragment for a fragment, probably holding coordinates in a chart.

◆ metafilter

using Fiber::Grid::metafilter = FragmentMetaIndirector::MetaInfoProvider_t

A callback function that will be called once a source fragment has been processed such that meta-data can be set on the newly create target Creator.

Ideally, such meta-data may allow to avoid creation of actual data, for instance by providing a bounding box.

◆ SkeletonFilter

template<class index_type>

using Fiber::Grid::SkeletonFilter = std::function<FragmentFilter<index_type>(Skeleton&SourceVertices, const Representer&theRepresenter, const Representation&R)>

A function invoked per skeleton to provide a filter function, given a certain Representation and Representer.

It must return a nullptr if the given Representation shall not be used as source for a filter.

Constructor & Destructor Documentation

◆ Grid()

Fiber::Grid::Grid	(	const OwnerOf< Grid > &	GridOwner,
		const WeakPtr< GridContainer > &	GC,
		const RefPtr< GlobalCharts > &	GAtlas )

The constructor.

Give it an object that may hold Grid objects, which is weakly stored as backlink - i.e. when the GridContainer is destroyed by external means this backlink pointer will automatically become invalid. The Grid object also requires an Atlas of global charts.

References Fiber::Ownable< Grid >::insertOwner().

Member Function Documentation

◆ findHighestHomogenousRefinement()

RefPtr< Skeleton > Fiber::Grid::findHighestHomogenousRefinement	(	int	MaxLevel,
		int	IndexDepth,
		int	Dimensionality ) const

Find the refinement of the highest homogeneous refinement level with the given index depth and dimensionality, i.e.

the highest resolution available for this Skeleton.

See also: findMaxHomogenousRefinement(int IndexDepth) const;

References apply(), Fiber::SkeletonID::getHomogeneousLevel(), Fiber::SkeletonID::getRank(), Fiber::SkeletonID::IndexDepth(), Fiber::SkeletonMap::iterate(), and Fiber::SkeletonMap::MaxLevel().

◆ findHighestHomogenousVertexRefinement()

RefPtr< Skeleton > Fiber::Grid::findHighestHomogenousVertexRefinement ( int MaxLevel ) const

Find the vertex refinement of the highest homogeneous refinement level, i.e.

the highest resolution available for vertices.

See also: findMaxHomogenousRefinement(int IndexDepth) const;

References apply(), Fiber::SkeletonID::getHomogeneousLevel(), Fiber::SkeletonID::IndexDepth(), Fiber::SkeletonMap::iterate(), and Fiber::SkeletonMap::MaxLevel().

◆ findMaxHomogenousRefinement()

RefPtr< Skeleton > Fiber::SkeletonMap::findMaxHomogenousRefinement ( int IndexDepth ) const

Find the skeleton with the maximal homogenous refinement level.

Will return a null ptr if none such is found, for instance there are no skeletons of the given index depth or all Skeletons of this index depth are inhomogeneous (different refinement resolution in each coordinate direction).

◆ findSkeleton()

RefPtr< Skeleton > Fiber::Grid::findSkeleton ( const RefPtr< FragmentID > & fID )

Investigation function to find the skeleton that corresponds to a certain fragment ID.

This is a slow search function and should not be used in production code.

◆ getCartesianPositions()

RefPtr< Field > Fiber::Grid::getCartesianPositions ( ) const

inline

Shortcut function: get the coordinates of the vertices in the default cartesian chart.

Same as CartesianPositions().

References CartesianPositions().

Referenced by Fiber::RegularlyFragmentedGridWithCartesianVertices< VertexDims >::create().

◆ getCartesianRepresentation() [1/2]

RefPtr< Representation > Fiber::Grid::getCartesianRepresentation	(	const Skeleton &	Skel,
		const string &	ChartName = {} ) const

Return the representation of the given Skeleton in cartesian coordinates on this Grid.

References findChart().

Referenced by CartesianPositions(), Fiber::hasExplicitCartesianCoordinates::checkGrid(), Fiber::isCurvilinearGrid::checkGrid(), Fiber::isUniformCartesianGrid::checkGrid(), getCartesianRepresentation(), Fiber::getTangentialVectors(), operator()(), operator()(), operator[](), and Fiber::GridSelector::providesFieldTypes().

◆ getCartesianRepresentation() [2/2]

RefPtr< Representation > Fiber::Grid::getCartesianRepresentation ( const string & ChartName = {} ) const

Return the representation of the Vertices on this Grid in cartesian coordinates.

References Fiber::SkeletonMap::findVertices(), and getCartesianRepresentation().

◆ getCharts()

const Atlas::Atlas_t & Fiber::Grid::getCharts ( ) const

Return the set of all charts on this Grid.

for(const auto&theChart : MyGrid.getCharts() )
{
        Verbose(0) << "Have Chart: " << theChart->Name();
 
}

Referenced by getCartesianCharts3D().

◆ getField() [1/2]

RefPtr< Field > Fiber::Grid::getField	(	const RefPtr< ChartID > &	theChartID,
		const string &	fieldname ) const

inline

Get a field of the Grid's vertices in the given Chart.

This function might invoke coordinate transformations.

References Fiber::SkeletonMap::findVertices(), and getField().

◆ getField() [2/2]

RefPtr< Field > Fiber::Grid::getField	(	const RefPtr< ChartID > &	theChartID,
		const string &	fieldname,
		const RefPtr< Skeleton > &	theSkeleton ) const

Get a field of the specified Skeleton, which must reside on the Grid, in the given Chart.

This function might invoke coordinate transformations.

References findChart().

Referenced by getField(), getPositions(), and getVertexPositions().

◆ getPositions()

RefPtr< Field > Fiber::Grid::getPositions	(	const RefPtr< ChartID > &	theChartID,
		const RefPtr< Skeleton > &	theSkeleton ) const

Get the positional field of the specified Skeleton, which must reside on the Grid, in the given Chart.

This function might invoke coordinate transformations.

References getField().

◆ getRepresentation() [1/3]

RefPtr< Representation > Fiber::Grid::getRepresentation	(	const RefPtr< Chart > &	theChart,
		const RefPtr< Skeleton > &	theSkeleton )

static

Get the representation of a Skeleton in the specified Chart.

This function is independent of a grid and resides here as mere convenience function providing a shortcut.

◆ getRepresentation() [2/3]

RefPtr< Representation > Fiber::Grid::getRepresentation	(	const RefPtr< Chart > &	theChart,
		const SkeletonID &	theSkeletonID ) const

Get the representation of a Skeleton in the specified Chart.

This function is independent of a grid and resides here as mere convenience function providing a shortcut.

References getRepresentation(), and Fiber::SkeletonMap::getSkeleton().

◆ getRepresentation() [3/3]

RefPtr< Representation > Fiber::Grid::getRepresentation	(	const RefPtr< ChartID > &	theChartID,
		const RefPtr< Skeleton > &	theSkeleton ) const

Get the representation of this Grid's Skeleton in the specified Chart.

Note that the Skeleton rather be one on this Grid, otherwise this function will return something which is no good.

References findChart(), and getRepresentation().

Referenced by getRepresentation(), getRepresentation(), and getVertexRepresentation().

◆ getTimePolar2DRepresentation()

RefPtr< Representation > Fiber::Grid::getTimePolar2DRepresentation ( const Skeleton & Skel ) const

Return the representation of the given Skeleton in TimePolar2D coordinates on this Grid.

References findChart().

◆ getUniqueCartesianChart3D()

const RefPtr< Chart > Fiber::Grid::getUniqueCartesianChart3D ( ) const

Return a chart of type cartesian of only one such exists.

Otherwise return a nullptr.

References getCartesianCharts3D().

◆ getVertexPositions()

RefPtr< Field > Fiber::Grid::getVertexPositions ( const RefPtr< ChartID > & theChartID ) const

Get the positional field of the vertices of this Grid for the specified chart.

This function might invoke coordinate transformations.

References Fiber::SkeletonMap::findVertices(), and getField().

◆ getVertexRepresentation()

RefPtr< Representation > Fiber::Grid::getVertexRepresentation ( const RefPtr< ChartID > & theChartID ) const

inline

Get the representation of this Grid's vertices in the specified Chart.

This function will not invoke coordinate transformations, the returned Representation will only contain fields that already exist on this Representation. Calling the getField() member function is recommendable as it might compute Fields from different Representations.

References Fiber::SkeletonMap::findVertices(), and getRepresentation().

◆ iterate_all()

template<class Functor>

int Fiber::SkeletonMap::iterate_all ( const Functor & F ) const

inline

Lambda functor iteration over all data.

More control is provided via iterate_skeletons().

g.iterate_all( [](const Skeleton&S,
                  const Representer&theRepresenter, const Representation&R,
                  const FieldID&theFieldID, const Field&theField,
                  const RefPtr<CreativeArrayBase>&CAB, const RefPtr<FragmentID>&fid)
{
}
);

See also: iterate_skeletons()

References apply(), iterate(), iterate_all(), and Fiber::RepresentationMap::iterate_all().

Referenced by iterate_all().

◆ iterate_skeletons()

template<class SkeletonFunctor>

int Fiber::Grid::iterate_skeletons ( const SkeletonFunctor & F ) const

inline

Lambda functor iteration over skeletons:

g.iterate_skeletons( [](const SkeletonID&id, const Skeleton&S)
{
        return true;
}
);

References Fiber::SkeletonMap::iterate().

Referenced by Fiber::ShapefileSaver::apply_const(), and establishVertexFilter().

◆ makeCartesianChart()

RefPtr< Chart > Fiber::Grid::makeCartesianChart	(	const string &	name = {},
		uint16_t	epsg_code = 0 )

Create a cartesian chart here, if not existent yet.

This is a convenience call to:

makeChart( typeid(CartesianChart3D) );

Fiber::CartesianChart3D

Chart object for cartesian coordinates.

Definition CartesianChart.hpp:15

Fiber::Grid::makeChart

RefPtr< Chart > makeChart(const type_info &ChartType, const string &name={}, uint16_t epsg_code=0)

Make a chart on this grid with the given name, ie create one if not yet existent.

Definition Grid.cpp:272

Examples: XF_LineSetHierarchical.cpp, and XF_LineSetHierarchicalRegularized.cpp.

References makeChart().

◆ makeCartesianRepresentation()

Representation & Fiber::Grid::makeCartesianRepresentation	(	int	Dims,
		const string &	name = {},
		uint16_t	epsg_code = 0 )

Provide a representation in an n-dimensional skeleton of the vertices.

Creates one if not existent yet.

Examples: XF_LineSetFragmented.cpp.

References findChart(), makeChart(), and Fiber::SkeletonMap::makeVertices().

Referenced by Fiber::PointSearch::PointSearch(), Fiber::TriangularSurface::addVerticesAndConnectivity(), Fiber::FragmentedUniformGrid3DPoints::create(), main(), and operator[]().

◆ makeChart()

RefPtr< Chart > Fiber::Grid::makeChart	(	const type_info &	ChartType,
		const string &	name = {},
		uint16_t	epsg_code = 0 )

Make a chart on this grid with the given name, ie create one if not yet existent.

Make a standard chart on this grid if no name is given.

Examples: Sphere.cpp, trimesh.cpp, and uniform_scalar.cpp.

References findChart().

Referenced by Fiber::TangentialVectorsAndCurveParameter::TangentialVectorsAndCurveParameter(), Fiber::ComputeIsosurface(), Fiber::FragmentedUniformGrid3DPoints::create(), Fiber::EvalFieldOnRepresentation(), Fiber::EvalGrid(), makeCartesianChart(), makeCartesianRepresentation(), operator[](), Fiber::FragmentIsoSurfacer::setFields(), and GridConv::GridConvolver::update().

◆ operator()()

RefPtr< Field > Fiber::Grid::operator()	(	const string &	fieldname,
		const string &	ChartName = string() ) const

Retrieve a field on the vertices.

Shortcut function for convenience, it queries the vertices Skeleton and employs its default chart.

References getCartesianRepresentation().

◆ operator[]()

Representation & Fiber::Grid::operator[] ( int Dims )

inline

Shortcut operator function: Create a vertex representation of this Grid with the given dimensionality.

This function is provided for convenience.

References makeCartesianRepresentation().

Classes

Public Types

Public Member Functions

Static Public Member Functions

Additional Inherited Members

Detailed Description

Member Typedef Documentation

◆ filter

◆ metafilter

◆ SkeletonFilter

Constructor & Destructor Documentation

◆ Grid()

Member Function Documentation

◆ findHighestHomogenousRefinement()

◆ findHighestHomogenousVertexRefinement()

◆ findMaxHomogenousRefinement()

◆ findSkeleton()

◆ getCartesianPositions()

◆ getCartesianRepresentation() [1/2]

◆ getCartesianRepresentation() [2/2]

◆ getCharts()

◆ getField() [1/2]

◆ getField() [2/2]

◆ getPositions()

◆ getRepresentation() [1/3]

◆ getRepresentation() [2/3]

◆ getRepresentation() [3/3]

◆ getTimePolar2DRepresentation()

◆ getUniqueCartesianChart3D()

◆ getVertexPositions()

◆ getVertexRepresentation()

◆ iterate_all()

◆ iterate_skeletons()

◆ makeCartesianChart()

◆ makeCartesianRepresentation()

◆ makeChart()

◆ operator()()

◆ operator[]()