IgA base class (no reference data) More...

#include </home/runner/work/iganet/iganet/include/igabase.hpp>

Inheritance diagram for iganet::IgABaseNoRefData< GeometryMap, Variable >:

Public Types
using	geometryMap_collPts_type = std::pair< typename GeometryMap::eval_type, typename GeometryMap::boundary_eval_type >
	Type of the geometry map collocation points.

using	geometryMap_type = GeometryMap
	Type of the geometry map function space(s)

using	value_type = typename std::common_type< typename GeometryMap::value_type, typename Variable::value_type >::type
	Value type.

using	variable_collPts_type = std::pair< typename Variable::eval_type, typename Variable::boundary_eval_type >
	Type of the variable collocation points.

using	variable_type = Variable
	Type of the variable function space(s)

Public Member Functions
	IgABaseNoRefData (iganet::Options< value_type > options=iganet::Options< value_type >{})
	Default constructor.

GeometryMap &	G ()
	Returns a non-constant reference to the spline representation of the geometry map.

const GeometryMap &	G () const
	Returns a constant reference to the spline representation of the geometry map.

virtual geometryMap_collPts_type	geometryMap_collPts (enum collPts collPts) const
	Returns the geometry map collocation points.

Variable &	u ()
	Returns a non-constant reference to the spline representation of the solution.

const Variable &	u () const
	Returns a constant reference to the spline representation of the solution.

virtual variable_collPts_type	variable_collPts (enum collPts collPts) const
	Returns the variable collocation points.

Static Public Attributes
static bool constexpr	has_GeometryMap = true
	Indicates whether this class provides a geometry map.

static bool constexpr	has_RefData = false
	Indicates whether this class provides reference data.

static bool constexpr	has_Solution = true
	Indicates whether this class provides a solution.

Protected Attributes
GeometryMap	G_
	Spline representation of the geometry map.

Variable	u_
	Spline representation of the solution.

Private Member Functions
template<std::size_t... GeometryMapNumCoeffs, size_t... Is, std::size_t... VariableNumCoeffs, size_t... Js>
	IgABaseNoRefData (std::tuple< std::array< int64_t, GeometryMapNumCoeffs >... > geometryMapNumCoeffs, std::index_sequence< Is... >, std::tuple< std::array< int64_t, VariableNumCoeffs >... > variableNumCoeffs, std::index_sequence< Js... >, iganet::Options< value_type > options=iganet::Options< value_type >{})
	Constructor: number of spline coefficients (different for Geometry and Variable types)

template<size_t... Is>
geometryMap_collPts_type	geometryMap_collPts (enum collPts collPts, std::index_sequence< Is... >) const
	Returns the geometry map collocation points.

template<size_t... Is>
variable_collPts_type	variable_collPts (enum collPts collPts, std::index_sequence< Is... >) const
	Returns the variable collocation points.

Detailed Description

template<typename GeometryMap, typename Variable>
class iganet::IgABaseNoRefData< GeometryMap, Variable >

IgA base class (no reference data)

This class implements the base functionality of IgA solvers and nets for the case that no reference solution is required

Member Typedef Documentation

◆ geometryMap_collPts_type

template<typename GeometryMap , typename Variable >

using iganet::IgABaseNoRefData< GeometryMap, Variable >::geometryMap_collPts_type = std::pair<typename GeometryMap::eval_type, typename GeometryMap::boundary_eval_type>

Type of the geometry map collocation points.

◆ geometryMap_type

template<typename GeometryMap , typename Variable >

using iganet::IgABaseNoRefData< GeometryMap, Variable >::geometryMap_type = GeometryMap

Type of the geometry map function space(s)

◆ value_type

template<typename GeometryMap , typename Variable >

using iganet::IgABaseNoRefData< GeometryMap, Variable >::value_type = typename std::common_type<typename GeometryMap::value_type, typename Variable::value_type>::type

Value type.

◆ variable_collPts_type

template<typename GeometryMap , typename Variable >

using iganet::IgABaseNoRefData< GeometryMap, Variable >::variable_collPts_type = std::pair<typename Variable::eval_type, typename Variable::boundary_eval_type>

Type of the variable collocation points.

◆ variable_type

template<typename GeometryMap , typename Variable >

using iganet::IgABaseNoRefData< GeometryMap, Variable >::variable_type = Variable

Type of the variable function space(s)

Constructor & Destructor Documentation

◆ IgABaseNoRefData() [1/6]

template<typename GeometryMap , typename Variable >

template<std::size_t... GeometryMapNumCoeffs, size_t... Is, std::size_t... VariableNumCoeffs, size_t... Js>

iganet::IgABaseNoRefData< GeometryMap, Variable >::IgABaseNoRefData	(	std::tuple< std::array< int64_t, GeometryMapNumCoeffs >... >	geometryMapNumCoeffs,
		std::index_sequence< Is... >	,
		std::tuple< std::array< int64_t, VariableNumCoeffs >... >	variableNumCoeffs,
		std::index_sequence< Js... >	,
		iganet::Options< value_type >	options = `iganet::Options<value_type>{}`
	)

inlineprivate

Constructor: number of spline coefficients (different for Geometry and Variable types)

◆ IgABaseNoRefData() [2/6]

template<typename GeometryMap , typename Variable >

iganet::IgABaseNoRefData< GeometryMap, Variable >::IgABaseNoRefData ( iganet::Options< value_type > options = iganet::Options<value_type>{} )

inlineexplicit

Default constructor.

◆ IgABaseNoRefData() [3/6]

template<typename GeometryMap , typename Variable >

template<std::size_t NumCoeffs>

iganet::IgABaseNoRefData< GeometryMap, Variable >::IgABaseNoRefData	(	std::array< int64_t, NumCoeffs >	ncoeffs,
		iganet::Options< value_type >	options = `iganet::Options<value_type>{}`
	)

inline

Constructor: number of spline coefficients (same for geometry map and variables)

◆ IgABaseNoRefData() [4/6]

template<typename GeometryMap , typename Variable >

template<std::size_t... NumCoeffs>

iganet::IgABaseNoRefData< GeometryMap, Variable >::IgABaseNoRefData	(	std::tuple< std::array< int64_t, NumCoeffs >... >	ncoeffs,
		iganet::Options< value_type >	options = `iganet::Options<value_type>{}`
	)

inline

Constructor: number of spline coefficients (same for geometry map and variables)

◆ IgABaseNoRefData() [5/6]

template<typename GeometryMap , typename Variable >

template<std::size_t GeometryMapNumCoeffs, std::size_t VariableNumCoeffs>

iganet::IgABaseNoRefData< GeometryMap, Variable >::IgABaseNoRefData	(	std::array< int64_t, GeometryMapNumCoeffs >	geometryMapNumCoeffs,
		std::array< int64_t, VariableNumCoeffs >	variableNumCoeffs,
		iganet::Options< value_type >	options = `iganet::Options<value_type>{}`
	)

inline

Constructor: number of spline coefficients (different for geometry map and variables)

◆ IgABaseNoRefData() [6/6]

template<typename GeometryMap , typename Variable >

template<std::size_t... GeometryMapNumCoeffs, std::size_t... VariableNumCoeffs>

iganet::IgABaseNoRefData< GeometryMap, Variable >::IgABaseNoRefData	(	std::tuple< std::array< int64_t, GeometryMapNumCoeffs >... >	geometryMapNumCoeffs,
		std::tuple< std::array< int64_t, VariableNumCoeffs >... >	variableNumCoeffs,
		iganet::Options< value_type >	options = `iganet::Options<value_type>{}`
	)

inline

Constructor: number of spline coefficients (different for geometry map and variables)

Member Function Documentation

◆ G() [1/2]

template<typename GeometryMap , typename Variable >

GeometryMap & iganet::IgABaseNoRefData< GeometryMap, Variable >::G ( )

inline

Returns a non-constant reference to the spline representation of the geometry map.

◆ G() [2/2]

template<typename GeometryMap , typename Variable >

const GeometryMap & iganet::IgABaseNoRefData< GeometryMap, Variable >::G ( ) const

inline

Returns a constant reference to the spline representation of the geometry map.

◆ geometryMap_collPts() [1/2]

template<typename GeometryMap , typename Variable >

virtual geometryMap_collPts_type iganet::IgABaseNoRefData< GeometryMap, Variable >::geometryMap_collPts ( enum collPts collPts ) const

inlinevirtual

Returns the geometry map collocation points.

In the default implementation the collocation points are the Greville abscissae in the interior of the domain and on the boundary faces. This behavior can be changed by overriding this virtual function in a derived class.

◆ geometryMap_collPts() [2/2]

template<typename GeometryMap , typename Variable >

template<size_t... Is>

geometryMap_collPts_type iganet::IgABaseNoRefData< GeometryMap, Variable >::geometryMap_collPts	(	enum collPts	collPts,
		std::index_sequence< Is... >
	)		const

inlineprivate

Returns the geometry map collocation points.

In the default implementation the collocation points are the Greville abscissae in the interior of the domain and on the boundary faces. This behavior can be changed by overriding this virtual function in a derived class.

◆ u() [1/2]

template<typename GeometryMap , typename Variable >

Variable & iganet::IgABaseNoRefData< GeometryMap, Variable >::u ( )

inline

Returns a non-constant reference to the spline representation of the solution.

◆ u() [2/2]

template<typename GeometryMap , typename Variable >

const Variable & iganet::IgABaseNoRefData< GeometryMap, Variable >::u ( ) const

inline

Returns a constant reference to the spline representation of the solution.

◆ variable_collPts() [1/2]

template<typename GeometryMap , typename Variable >

virtual variable_collPts_type iganet::IgABaseNoRefData< GeometryMap, Variable >::variable_collPts ( enum collPts collPts ) const

inlinevirtual

Returns the variable collocation points.

In the default implementation the collocation points are the Greville abscissae in the interior of the domain and on the boundary faces. This behavior can be changed by overriding this virtual function in a derived class.

◆ variable_collPts() [2/2]

template<typename GeometryMap , typename Variable >

template<size_t... Is>

variable_collPts_type iganet::IgABaseNoRefData< GeometryMap, Variable >::variable_collPts	(	enum collPts	collPts,
		std::index_sequence< Is... >
	)		const

inlineprivate

Returns the variable collocation points.

In the default implementation the collocation points are the Greville abscissae in the interior of the domain and on the boundary faces. This behavior can be changed by overriding this virtual function in a derived class.