#include <deal.II/meshworker/scratch_data.h>

Public Member Functions
	ScratchData (const Mapping< dim, spacedim > &mapping, const FiniteElement< dim, spacedim > &fe, const Quadrature< dim > &quadrature, const UpdateFlags &update_flags, const Quadrature< dim - 1 > &face_quadrature=Quadrature< dim - 1 >(), const UpdateFlags &face_update_flags=update_default)

	ScratchData (const Mapping< dim, spacedim > &mapping, const FiniteElement< dim, spacedim > &fe, const Quadrature< dim > &quadrature, const UpdateFlags &update_flags, const UpdateFlags &neighbor_update_flags, const Quadrature< dim - 1 > &face_quadrature=Quadrature< dim - 1 >(), const UpdateFlags &face_update_flags=update_default, const UpdateFlags &neighbor_face_update_flags=update_default)

	ScratchData (const FiniteElement< dim, spacedim > &fe, const Quadrature< dim > &quadrature, const UpdateFlags &update_flags, const Quadrature< dim - 1 > &face_quadrature=Quadrature< dim - 1 >(), const UpdateFlags &face_update_flags=update_default)

	ScratchData (const FiniteElement< dim, spacedim > &fe, const Quadrature< dim > &quadrature, const UpdateFlags &update_flags, const UpdateFlags &neighbor_update_flags, const Quadrature< dim - 1 > &face_quadrature=Quadrature< dim - 1 >(), const UpdateFlags &face_update_flags=update_default, const UpdateFlags &neighbor_face_update_flags=update_default)

	ScratchData (const hp::MappingCollection< dim, spacedim > &mapping_collection, const hp::FECollection< dim, spacedim > &fe_collection, const hp::QCollection< dim > &cell_quadrature_collection, const UpdateFlags &cell_update_flags, const hp::QCollection< dim - 1 > &face_quadrature_collection=hp::QCollection< dim - 1 >(), const UpdateFlags &face_update_flags=update_default)

	ScratchData (const hp::MappingCollection< dim, spacedim > &mapping_collection, const hp::FECollection< dim, spacedim > &fe_collection, const hp::QCollection< dim > &cell_quadrature_collection, const UpdateFlags &cell_update_flags, const UpdateFlags &neighbor_cell_update_flags, const hp::QCollection< dim - 1 > &face_quadrature_collection=hp::QCollection< dim - 1 >(), const UpdateFlags &face_update_flags=update_default, const UpdateFlags &neighbor_face_update_flags=update_default)

	ScratchData (const hp::FECollection< dim, spacedim > &fe_collection, const hp::QCollection< dim > &cell_quadrature_collection, const UpdateFlags &cell_update_flags, const hp::QCollection< dim - 1 > &face_quadrature_collection=hp::QCollection< dim - 1 >(), const UpdateFlags &face_update_flags=update_default)

	ScratchData (const hp::FECollection< dim, spacedim > &fe_collection, const hp::QCollection< dim > &cell_quadrature_collection, const UpdateFlags &cell_update_flags, const UpdateFlags &neighbor_cell_update_flags, const hp::QCollection< dim - 1 > &face_quadrature_collection=hp::QCollection< dim - 1 >(), const UpdateFlags &face_update_flags=update_default, const UpdateFlags &neighbor_face_update_flags=update_default)

	ScratchData (const ScratchData< dim, spacedim > &scratch)

GeneralDataStorage &	get_general_data_storage ()

const GeneralDataStorage &	get_general_data_storage () const

const Mapping< dim, spacedim > &	get_mapping () const

const FiniteElement< dim, spacedim > &	get_fe () const

const Quadrature< dim > &	get_cell_quadrature () const

const Quadrature< dim - 1 > &	get_face_quadrature () const

const hp::MappingCollection< dim, spacedim > &	get_mapping_collection () const

const hp::FECollection< dim, spacedim > &	get_fe_collection () const

const hp::QCollection< dim > &	get_cell_quadrature_collection () const

const hp::QCollection< dim - 1 > &	get_face_quadrature_collection () const

bool	has_hp_capabilities () const

UpdateFlags	get_cell_update_flags () const

UpdateFlags	get_neighbor_cell_update_flags () const

UpdateFlags	get_face_update_flags () const

UpdateFlags	get_neighbor_face_update_flags () const

Methods to work on current cell
const FEValues< dim, spacedim > &	reinit (const typename DoFHandler< dim, spacedim >::active_cell_iterator &cell)

const FEFaceValues< dim, spacedim > &	reinit (const typename DoFHandler< dim, spacedim >::active_cell_iterator &cell, const unsigned int face_no)

const FEFaceValuesBase< dim, spacedim > &	reinit (const typename DoFHandler< dim, spacedim >::active_cell_iterator &cell, const unsigned int face_no, const unsigned int subface_no)

const FEInterfaceValues< dim, spacedim > &	reinit (const typename DoFHandler< dim, spacedim >::active_cell_iterator &cell, const unsigned int face_no, const unsigned int sub_face_no, const typename DoFHandler< dim, spacedim >::active_cell_iterator &cell_neighbor, const unsigned int face_no_neighbor, const unsigned int sub_face_no_neighbor)

const FEValuesBase< dim, spacedim > &	get_current_fe_values () const

const FEInterfaceValues< dim, spacedim > &	get_current_interface_fe_values () const

const std::vector< Point< spacedim > > &	get_quadrature_points () const

const std::vector< double > &	get_JxW_values () const

const std::vector< Tensor< 1, spacedim > > &	get_normal_vectors () const

const std::vector< types::global_dof_index > &	get_local_dof_indices () const

unsigned int	n_dofs_per_cell () const

Methods to work on neighbor cell
const FEValues< dim, spacedim > &	reinit_neighbor (const typename DoFHandler< dim, spacedim >::active_cell_iterator &cell)

const FEFaceValues< dim, spacedim > &	reinit_neighbor (const typename DoFHandler< dim, spacedim >::active_cell_iterator &cell, const unsigned int face_no)

const FEFaceValuesBase< dim, spacedim > &	reinit_neighbor (const typename DoFHandler< dim, spacedim >::active_cell_iterator &cell, const unsigned int face_no, const unsigned int subface_no)

const FEValuesBase< dim, spacedim > &	get_current_neighbor_fe_values () const

const std::vector< double > &	get_neighbor_JxW_values () const

const std::vector< Tensor< 1, spacedim > > &	get_neighbor_normal_vectors ()

const std::vector< types::global_dof_index > &	get_neighbor_dof_indices () const

unsigned int	n_neighbor_dofs_per_cell () const

hp-compatible methods to work on cells and neighbor cells
const FEFaceValues< dim, spacedim > &	reinit (const typename DoFHandler< dim, spacedim >::active_cell_iterator &cell, const typename DoFHandler< dim, spacedim >::active_cell_iterator &neighbor_cell, const unsigned int face_no)

const FEFaceValuesBase< dim, spacedim > &	reinit (const typename DoFHandler< dim, spacedim >::active_cell_iterator &cell, const typename DoFHandler< dim, spacedim >::active_cell_iterator &neighbor_cell, const unsigned int face_no, const unsigned int subface_no)

const FEFaceValues< dim, spacedim > &	reinit_neighbor (const typename DoFHandler< dim, spacedim >::active_cell_iterator &cell, const typename DoFHandler< dim, spacedim >::active_cell_iterator &neighbor_cell, const unsigned int face_no)

const FEFaceValuesBase< dim, spacedim > &	reinit_neighbor (const typename DoFHandler< dim, spacedim >::active_cell_iterator &cell, const typename DoFHandler< dim, spacedim >::active_cell_iterator &neighbor_cell, const unsigned int face_no, const unsigned int subface_no)

Evaluation of finite element fields and their derivatives on the current cell
template<typename VectorType , typename Number = double>
void	extract_local_dof_values (const std::string &global_vector_name, const VectorType &input_vector, const Number dummy=Number(0))

template<typename Number = double>
const std::vector< Number > &	get_local_dof_values (const std::string &global_vector_name, Number dummy=Number(0)) const

template<typename Extractor , typename Number = double>
const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >::template solution_value_type< Number > > &	get_values (const std::string &global_vector_name, const Extractor &variable, const Number dummy=Number(0))

template<typename Extractor , typename Number = double>
const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >::template solution_gradient_type< Number > > &	get_gradients (const std::string &global_vector_name, const Extractor &variable, const Number dummy=Number(0))

template<typename Extractor , typename Number = double>
const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >::template solution_symmetric_gradient_type< Number > > &	get_symmetric_gradients (const std::string &global_vector_name, const Extractor &variable, const Number dummy=Number(0))

template<typename Extractor , typename Number = double>
const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >::template solution_divergence_type< Number > > &	get_divergences (const std::string &global_vector_name, const Extractor &variable, const Number dummy=Number(0))

template<typename Extractor , typename Number = double>
const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >::template solution_curl_type< Number > > &	get_curls (const std::string &global_vector_name, const Extractor &variable, const Number dummy=Number(0))

template<typename Extractor , typename Number = double>
const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >::template solution_hessian_type< Number > > &	get_hessians (const std::string &global_vector_name, const Extractor &variable, const Number dummy=Number(0))

template<typename Extractor , typename Number = double>
const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >::template solution_laplacian_type< Number > > &	get_laplacians (const std::string &global_vector_name, const Extractor &variable, const Number dummy=Number(0))

template<typename Extractor , typename Number = double>
const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >::template solution_third_derivative_type< Number > > &	get_third_derivatives (const std::string &global_vector_name, const Extractor &variable, const Number dummy=Number(0))

Evaluation of jumps in finite element fields and their derivatives on the current interface
template<typename Extractor , typename Number = double>
const std::vector< typename FEInterfaceViews::View< dim, spacedim, Extractor >::template solution_value_type< Number > > &	get_jumps_in_values (const std::string &global_vector_name, const Extractor &variable, const Number dummy=Number(0))

template<typename Extractor , typename Number = double>
const std::vector< typename FEInterfaceViews::View< dim, spacedim, Extractor >::template solution_gradient_type< Number > > &	get_jumps_in_gradients (const std::string &global_vector_name, const Extractor &variable, const Number dummy=Number(0))

template<typename Extractor , typename Number = double>
const std::vector< typename FEInterfaceViews::View< dim, spacedim, Extractor >::template solution_hessian_type< Number > > &	get_jumps_in_hessians (const std::string &global_vector_name, const Extractor &variable, const Number dummy=Number(0))

template<typename Extractor , typename Number = double>
const std::vector< typename FEInterfaceViews::View< dim, spacedim, Extractor >::template solution_third_derivative_type< Number > > &	get_jumps_in_third_derivatives (const std::string &global_vector_name, const Extractor &variable, const Number dummy=Number(0))

Evaluation of averages of finite element fields and their derivatives on the current interface
template<typename Extractor , typename Number = double>
const std::vector< typename FEInterfaceViews::View< dim, spacedim, Extractor >::template solution_value_type< Number > > &	get_averages_of_values (const std::string &global_vector_name, const Extractor &variable, const Number dummy=Number(0))

template<typename Extractor , typename Number = double>
const std::vector< typename FEInterfaceViews::View< dim, spacedim, Extractor >::template solution_gradient_type< Number > > &	get_averages_of_gradients (const std::string &global_vector_name, const Extractor &variable, const Number dummy=Number(0))

template<typename Extractor , typename Number = double>
const std::vector< typename FEInterfaceViews::View< dim, spacedim, Extractor >::template solution_hessian_type< Number > > &	get_averages_of_hessians (const std::string &global_vector_name, const Extractor &variable, const Number dummy=Number(0))

Private Member Functions
template<typename Extractor , typename Number = double>
std::string	get_unique_name (const std::string &global_vector_name, const Extractor &variable, const std::string &object_type, const unsigned int size, const Number &exemplar_number) const

template<typename Number = double>
std::string	get_unique_dofs_name (const std::string &global_vector_name, const unsigned int size, const Number &exemplar_number) const

Private Attributes
UpdateFlags	cell_update_flags

UpdateFlags	neighbor_cell_update_flags

UpdateFlags	face_update_flags

UpdateFlags	neighbor_face_update_flags

std::vector< types::global_dof_index >	local_dof_indices

std::vector< types::global_dof_index >	neighbor_dof_indices

GeneralDataStorage	user_data_storage

GeneralDataStorage	internal_data_storage

SmartPointer< const FEValuesBase< dim, spacedim > >	current_fe_values

SmartPointer< const FEValuesBase< dim, spacedim > >	current_neighbor_fe_values

Data that supports the standard FE implementation
SmartPointer< const Mapping< dim, spacedim > >	mapping

SmartPointer< const FiniteElement< dim, spacedim > >	fe

Quadrature< dim >	cell_quadrature

Quadrature< dim - 1 >	face_quadrature

std::unique_ptr< FEValues< dim, spacedim > >	fe_values

std::unique_ptr< FEFaceValues< dim, spacedim > >	fe_face_values

std::unique_ptr< FESubfaceValues< dim, spacedim > >	fe_subface_values

std::unique_ptr< FEValues< dim, spacedim > >	neighbor_fe_values

std::unique_ptr< FEFaceValues< dim, spacedim > >	neighbor_fe_face_values

std::unique_ptr< FESubfaceValues< dim, spacedim > >	neighbor_fe_subface_values

std::unique_ptr< FEInterfaceValues< dim, spacedim > >	interface_fe_values

Data that supports the hp-FE implementation
SmartPointer< const hp::MappingCollection< dim, spacedim > >	mapping_collection

SmartPointer< const hp::FECollection< dim, spacedim > >	fe_collection

hp::QCollection< dim >	cell_quadrature_collection

hp::QCollection< dim - 1 >	face_quadrature_collection

bool	hp_capability_enabled

std::unique_ptr< hp::FEValues< dim, spacedim > >	hp_fe_values

std::unique_ptr< hp::FEFaceValues< dim, spacedim > >	hp_fe_face_values

std::unique_ptr< hp::FESubfaceValues< dim, spacedim > >	hp_fe_subface_values

std::unique_ptr< hp::FEValues< dim, spacedim > >	neighbor_hp_fe_values

std::unique_ptr< hp::FEFaceValues< dim, spacedim > >	neighbor_hp_fe_face_values

std::unique_ptr< hp::FESubfaceValues< dim, spacedim > >	neighbor_hp_fe_subface_values

static ::ExceptionBase &	ExcOnlyAvailableWithoutHP ()

static ::ExceptionBase &	ExcOnlyAvailableWithHP ()

Detailed Description

template<int dim, int spacedim = dim>
class MeshWorker::ScratchData< dim, spacedim >

A helper class to simplify the parallel assembly of linear and non-linear problems, and the evaluation of finite element fields.

This class is a drop in ScratchData to use with the WorkStream::run() function and with the MeshWorker::mesh_loop() function.

The ScratchData class has three main goals:

to create FEValues, FEFaceValues, FESubfaceValues, and FEInterfaceValues for the current cell and for its neighbor cell on demand (only if they are necessary for the algorithm provided by the user), and to provide a uniform interface to access the FEValues objects when assembling cell, face, or subface contributions
to store arbitrary data types (or references to arbitrary data types), that can be retrieved by name (for example, when the assembly needs to make reference to other objects such as previous time steps' solution vectors, previous nonlinear iteration vectors, geometry descriptions, etc.) in an object of type
to provide a reasonable interface for those use cases where the user may need temporary vectors of data at quadrature points, allowing the construction of these temporaries on demand, and easy access to values, gradients, etc., of already computed solution vectors.

The methods in the section "Methods to work on current cell" initialize on demand internal FEValues, FEFaceValues, FESubfaceValues, and FEInterfaceValues objects on the current cell, allowing the use of this class as a single substitute for four different objects used to integrate and query finite element values on cells, faces, and subfaces.

Similarly, the methods in the section "Methods to work on neighbor cell" initialize on demand (different) internal FEValues, FEFaceValues, and FESubfaceValues, on neighbor cells, allowing the use of this class also as a single substitute for the additional three objects you would typically need to integrate on the neighbor cell, and on its faces and subfaces (for example, in discontinuous Galerkin methods).

If you need to retrieve values or gradients of finite element solution vectors, on the cell, face, or subface that has just been initialized with one of the functions in the section "Methods to work on current cell", you can use the methods in the section "Evaluation of finite element fields and their derivatives on the current cell".

An example usage for this class is given by the following snippet of code:

ScratchData<dim,spacedim> scratch(fe,
                                  cell_quadrature,
                                  update_values | update_gradients);
 
FEValuesExtractors::Vector velocity(0);
FEValuesExtractors::Scalar pressure(dim);
 
...
 
for(const auto &cell : dof_handler.active_cell_iterators())
{
   const auto &fe_values = scratch.reinit(cell);
   scratch.extract_local_dof_values("current_solution",
                                    current_solution);
 
   scratch.extract_local_dof_values("previous_solution",
                                    previous_solution);
 
   const auto &local_solution_values =
         scratch.get_local_dof_values("current_solution",
                                      current_solution);
 
   const auto &local_previous_solution_values =
         scratch.get_local_dof_values("previous_solution",
                                      previous_solution);
 
   const auto &previous_solution_values_velocity =
         scratch.get_values("previous_solution", velocity);
   const auto &previous_solution_values_pressure =
         scratch.get_values("previous_solution", pressure);
 
   const auto &solution_values_velocity =
         scratch.get_values("solution", velocity);
   const auto &solution_values_pressure =
         scratch.get_values("solution", pressure);
 
   const auto &solution_symmetric_gradients_velocity =
         scratch.get_symmetric_gradients("solution", velocity);
 
   // Do something with the above.
}

The order in which you call functions of this class matters: if you call the ScratchData::reinit() function that takes an active cell iterator, then subsequent calls to methods that internally need an FEValuesBase object will use the internal FEValues object initialized with the given cell to perform their calculations. On the other hand, if you have called the ScratchData::reinit() method that also takes a face index, all subsequent calls to methods that need an FEValuesBase object, will use an internally stored FEFaceValues object, initialized with the cell and face index passed to the ScratchData::reinit() function. The same applies for the ScratchData::reinit() method that takes three arguments: the cell, the face index, and the subface index.

The user code should be structured without interleaving work on cells and work on faces.

Consider, for example, the following snippet of code:

ScratchData<dim,spacedim> scratch(...);
FEValuesExtractors::Scalar temperature(0);
 
for(const auto &cell : dof_handler.active_cell_iterators())
{
  const auto &fe_values = scratch.reinit(cell);
  const auto &local_dof_values =
        scratch.extract_local_dof_values("solution", solution);
 
  // This will contain all values of the temperature on the cell
  // quadrature points
  const auto &solution_values_cell =
        scratch.get_values("solution", temperature);
 
  // Do something with values on the cell
  ...
 
  // Now start working on the faces
  for(unsigned int f=0; f<GeometryInfo<dim>::faces_per_cell; ++f)
  {
     const auto &fe_face_values = scratch.reinit(cell, f);
 
     // Now we'll have access to the values of the temperature on the faces
     const auto &solution_values_face =
           scratch.get_values("solution", temperature);
 
     // Notice how the function call is the same, but the result depends
     // on what was the last reinit() function that was called. In this
     // case, we called reinit(cell, f), triggering internal work on
     // faces.
  }
 
  // At this point, we would like to go back and work on cells,
  // for example querying the values of the gradients:
  const auto &solution_gradients =
        scratch.get_gradients("solution", temperature);
 
  // This assertion would be triggered in debug mode
  AssertDimension(solution_gradients.size(), quadrature_cell.size());
 
  // However, with the above call the content of solution_gradients is the
  // gradient of the temperature on the quadrature points of the last face
  // visited in the previous loop.
  // If you really want to have the values of the gradients on the cell,
  // at this point your only option is to call
  scratch.reinit(cell);
 
  // (again) before querying for the gradients:
  const auto &solution_gradients_cell =
        scratch.get_gradients("solution", temperature);
 
  // The call to reinit(cell), however, is an expensive one. You
  // should make sure you only call it once per cell by grouping together
  // all queries that concern cells in the same place (right after you
  // call the reinit(cell) method).
  // A similar argument holds for all calls on each face and subface.
}

When using this class, please cite

@article{SartoriGiulianiBardelloni-2018-a,
        Author  = {Sartori, Alberto and Giuliani, Nicola and
           Bardelloni, Mauro and Heltai, Luca},
        Journal = {SoftwareX},
        Pages   = {318--327},
        Title   = {{deal2lkit: A toolkit library for high performance
             programming in deal.II}},
 Doi     = {10.1016/j.softx.2018.09.004},
        Volume  = {7},
        Year    = {2018}}

Definition at line 223 of file scratch_data.h.

Constructor & Destructor Documentation

◆ ScratchData() [1/9]

template<int dim, int spacedim>

MeshWorker::ScratchData< dim, spacedim >::ScratchData	(	const Mapping< dim, spacedim > &	mapping,
		const FiniteElement< dim, spacedim > &	fe,
		const Quadrature< dim > &	quadrature,
		const UpdateFlags &	update_flags,
		const Quadrature< dim - 1 > &	face_quadrature = `Quadrature<dim - 1>()`,
		const UpdateFlags &	face_update_flags = `update_default`
	)

Create an empty ScratchData object. A SmartPointer pointing to mapping and fe is stored internally. Make sure they live longer than this class instance.

The constructor does not initialize any of the internal FEValues objects. These are initialized the first time one of the reinit() functions is called, using the arguments passed here.

Parameters

mapping	The mapping to use in the internal FEValues objects
fe	The finite element
quadrature	The cell quadrature
update_flags	UpdateFlags for the current cell FEValues and neighbor cell FEValues
face_quadrature	Face quadrature, used for FEFaceValues and FESubfaceValues for both the current cell and the neighbor cell
face_update_flags	UpdateFlags used for FEFaceValues and FESubfaceValues for both the current cell and the neighbor cell

Definition at line 25 of file scratch_data.cc.

◆ ScratchData() [2/9]

template<int dim, int spacedim>

MeshWorker::ScratchData< dim, spacedim >::ScratchData	(	const Mapping< dim, spacedim > &	mapping,
		const FiniteElement< dim, spacedim > &	fe,
		const Quadrature< dim > &	quadrature,
		const UpdateFlags &	update_flags,
		const UpdateFlags &	neighbor_update_flags,
		const Quadrature< dim - 1 > &	face_quadrature = `Quadrature<dim - 1>()`,
		const UpdateFlags &	face_update_flags = `update_default`,
		const UpdateFlags &	neighbor_face_update_flags = `update_default`
	)

Similar to the other constructor, but this one allows to specify different flags for neighbor cells and faces.

Parameters

mapping	The mapping to use in the internal FEValues objects
fe	The finite element
quadrature	The cell quadrature
update_flags	UpdateFlags for the current cell FEValues
neighbor_update_flags	UpdateFlags for the neighbor cell FEValues
face_quadrature	Face quadrature, used for FEFaceValues and FESubfaceValues for both the current cell and the neighbor cell
face_update_flags	UpdateFlags used for FEFaceValues and FESubfaceValues for the current cell
neighbor_face_update_flags	UpdateFlags used for FEFaceValues and FESubfaceValues for the neighbor cell

Definition at line 48 of file scratch_data.cc.

◆ ScratchData() [3/9]

template<int dim, int spacedim>

MeshWorker::ScratchData< dim, spacedim >::ScratchData	(	const FiniteElement< dim, spacedim > &	fe,
		const Quadrature< dim > &	quadrature,
		const UpdateFlags &	update_flags,
		const Quadrature< dim - 1 > &	face_quadrature = `Quadrature<dim - 1>()`,
		const UpdateFlags &	face_update_flags = `update_default`
	)

Same as the other constructor, using the default linear mapping.

Parameters

fe	The finite element
quadrature	The cell quadrature
update_flags	UpdateFlags for the current cell FEValues and neighbor cell FEValues
face_quadrature	Face quadrature, used for FEFaceValues and FESubfaceValues for both the current cell and the neighbor cell
face_update_flags	UpdateFlags used for FEFaceValues and FESubfaceValues for both the current cell and the neighbor cell

Definition at line 73 of file scratch_data.cc.

◆ ScratchData() [4/9]

template<int dim, int spacedim>

MeshWorker::ScratchData< dim, spacedim >::ScratchData	(	const FiniteElement< dim, spacedim > &	fe,
		const Quadrature< dim > &	quadrature,
		const UpdateFlags &	update_flags,
		const UpdateFlags &	neighbor_update_flags,
		const Quadrature< dim - 1 > &	face_quadrature = `Quadrature<dim - 1>()`,
		const UpdateFlags &	face_update_flags = `update_default`,
		const UpdateFlags &	neighbor_face_update_flags = `update_default`
	)

Same as the other constructor, using the default linear mapping.

Parameters

fe	The finite element
quadrature	The cell quadrature
update_flags	UpdateFlags for the current cell FEValues
neighbor_update_flags	UpdateFlags for the neighbor cell FEValues
face_quadrature	Face quadrature, used for FEFaceValues and FESubfaceValues for both the current cell and the neighbor cell
face_update_flags	UpdateFlags used for FEFaceValues and FESubfaceValues for the current cell
neighbor_face_update_flags	UpdateFlags used for FEFaceValues and FESubfaceValues for the neighbor cell

Definition at line 91 of file scratch_data.cc.

◆ ScratchData() [5/9]

template<int dim, int spacedim>

MeshWorker::ScratchData< dim, spacedim >::ScratchData	(	const hp::MappingCollection< dim, spacedim > &	mapping_collection,
		const hp::FECollection< dim, spacedim > &	fe_collection,
		const hp::QCollection< dim > &	cell_quadrature_collection,
		const UpdateFlags &	cell_update_flags,
		const hp::QCollection< dim - 1 > &	face_quadrature_collection = `hp::QCollection<dim - 1>()`,
		const UpdateFlags &	face_update_flags = `update_default`
	)

Create an empty ScratchData object. A SmartPointer pointing to mapping_collection and fe_collection is stored internally. Make sure they live longer than this class instance.

The constructor does not initialize any of the internal hp::FEValues objects. These are initialized the first time one of the reinit() functions is called, using the arguments passed here.

Parameters

mapping_collection	The mapping collection to use in the internal hp::FEValues objects
fe_collection	The finite element collection
cell_quadrature_collection	The cell quadrature collection
cell_update_flags	UpdateFlags for the current cell hp::FEValues and neighbor cell hp::FEValues
face_quadrature_collection	The face quadrature collection, used for hp::FEFaceValues and hp::FESubfaceValues for both the current cell and the neighbor cell
face_update_flags	UpdateFlags used for FEFaceValues and hp::FESubfaceValues for both the current cell and the neighbor cell

Definition at line 113 of file scratch_data.cc.

◆ ScratchData() [6/9]

template<int dim, int spacedim>

MeshWorker::ScratchData< dim, spacedim >::ScratchData	(	const hp::MappingCollection< dim, spacedim > &	mapping_collection,
		const hp::FECollection< dim, spacedim > &	fe_collection,
		const hp::QCollection< dim > &	cell_quadrature_collection,
		const UpdateFlags &	cell_update_flags,
		const UpdateFlags &	neighbor_cell_update_flags,
		const hp::QCollection< dim - 1 > &	face_quadrature_collection = `hp::QCollection<dim - 1>()`,
		const UpdateFlags &	face_update_flags = `update_default`,
		const UpdateFlags &	neighbor_face_update_flags = `update_default`
	)

Similar to the other constructor, but this one allows to specify different flags for neighbor cells and faces.

Parameters

mapping_collection	The mapping collection to use in the internal hp::FEValues objects
fe_collection	The finite element collection
cell_quadrature_collection	The cell quadrature collection
cell_update_flags	UpdateFlags for the current cell hp::FEValues
neighbor_cell_update_flags	UpdateFlags for the neighbor cell hp::FEValues
face_quadrature_collection	The face quadrature collection, used for hp::FEFaceValues and hp::FESubfaceValues for both the current cell and the neighbor cell
face_update_flags	UpdateFlags used for FEFaceValues and hp::FESubfaceValues for the current cell
neighbor_face_update_flags	UpdateFlags used for hp::FEFaceValues and hp::FESubfaceValues for the neighbor cell

Definition at line 137 of file scratch_data.cc.

◆ ScratchData() [7/9]

template<int dim, int spacedim>

MeshWorker::ScratchData< dim, spacedim >::ScratchData	(	const hp::FECollection< dim, spacedim > &	fe_collection,
		const hp::QCollection< dim > &	cell_quadrature_collection,
		const UpdateFlags &	cell_update_flags,
		const hp::QCollection< dim - 1 > &	face_quadrature_collection = `hp::QCollection<dim - 1>()`,
		const UpdateFlags &	face_update_flags = `update_default`
	)

Same as the other constructor, using the default linear mapping.

Parameters

fe_collection	The finite element collection
cell_quadrature_collection	The cell quadrature collection
cell_update_flags	UpdateFlags for the current cell hp::FEValues and neighbor cell hp::FEValues
face_quadrature_collection	The face quadrature collection, used for hp::FEFaceValues and hp::FESubfaceValues for both the current cell and the neighbor cell
face_update_flags	UpdateFlags used for FEFaceValues and hp::FESubfaceValues for both the current cell and the neighbor cell

Definition at line 163 of file scratch_data.cc.

◆ ScratchData() [8/9]

template<int dim, int spacedim>

MeshWorker::ScratchData< dim, spacedim >::ScratchData	(	const hp::FECollection< dim, spacedim > &	fe_collection,
		const hp::QCollection< dim > &	cell_quadrature_collection,
		const UpdateFlags &	cell_update_flags,
		const UpdateFlags &	neighbor_cell_update_flags,
		const hp::QCollection< dim - 1 > &	face_quadrature_collection = `hp::QCollection<dim - 1>()`,
		const UpdateFlags &	face_update_flags = `update_default`,
		const UpdateFlags &	neighbor_face_update_flags = `update_default`
	)

Same as the other constructor, using the default linear mapping.

Parameters

fe_collection	The finite element collection
cell_quadrature_collection	The cell quadrature collection
cell_update_flags	UpdateFlags for the current cell hp::FEValues
neighbor_cell_update_flags	UpdateFlags for the neighbor cell hp::FEValues
face_quadrature_collection	The face quadrature collection, used for hp::FEFaceValues and hp::FESubfaceValues for both the current cell and the neighbor cell
face_update_flags	UpdateFlags used for FEFaceValues and hp::FESubfaceValues for the current cell
neighbor_face_update_flags	UpdateFlags used for hp::FEFaceValues and hp::FESubfaceValues for the neighbor cell

Definition at line 180 of file scratch_data.cc.

◆ ScratchData() [9/9]

template<int dim, int spacedim>

MeshWorker::ScratchData< dim, spacedim >::ScratchData ( const ScratchData< dim, spacedim > & scratch )

Deep copy constructor. FEValues objects are not copied.

Definition at line 201 of file scratch_data.cc.

Member Function Documentation

◆ reinit() [1/6]

template<int dim, int spacedim>

const FEValues< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::reinit ( const typename DoFHandler< dim, spacedim >::active_cell_iterator & cell )

Initialize the internal FEValues with the given cell, and return a reference to it.

After calling this function, get_current_fe_values() will return the same object of this method, as an FEValuesBase reference.

Definition at line 226 of file scratch_data.cc.

◆ reinit() [2/6]

template<int dim, int spacedim>

const FEFaceValues< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::reinit	(	const typename DoFHandler< dim, spacedim >::active_cell_iterator &	cell,
		const unsigned int	face_no
	)

Initialize the internal FEFaceValues to use the given face_no on the given cell, and return a reference to it.

After calling this function, get_current_fe_values() will return the same object of this method, as an FEValuesBase reference.

Definition at line 268 of file scratch_data.cc.

◆ reinit() [3/6]

template<int dim, int spacedim>

const FEFaceValuesBase< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::reinit	(	const typename DoFHandler< dim, spacedim >::active_cell_iterator &	cell,
		const unsigned int	face_no,
		const unsigned int	subface_no
	)

Initialize the internal FESubfaceValues to use the given subface_no, on face_no, on the given cell, and return a reference to it.

After calling this function, get_current_fe_values() will return the same object of this method, as an FEValuesBase reference.

If subface_no is numbers::invalid_unsigned_int, the reinit() function that takes only the cell and the face_no is called.

Definition at line 344 of file scratch_data.cc.

◆ reinit() [4/6]

template<int dim, int spacedim>

const FEInterfaceValues< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::reinit	(	const typename DoFHandler< dim, spacedim >::active_cell_iterator &	cell,
		const unsigned int	face_no,
		const unsigned int	sub_face_no,
		const typename DoFHandler< dim, spacedim >::active_cell_iterator &	cell_neighbor,
		const unsigned int	face_no_neighbor,
		const unsigned int	sub_face_no_neighbor
	)

Initialize the internal FEInterfaceValues with the given arguments, and return a reference to it.

After calling this function, get_local_dof_indices(), get_quadrature_points(), get_normal_vectors(), and get_JxW_values() will be forwarded to the local FEInterfaceValues object. The methods get_current_fe_values() will return the FEValuesBase associated to the current cell, while get_neighbor_fe_values() will be associated with the neighbor cell. The method get_local_dof_indices() will return the same result of FEInterfaceValues::get_interface_dof_indices(), while the get_neighbor_dof_indices() will return the local dof indices of the neighbor cell.

Definition at line 438 of file scratch_data.cc.

◆ get_current_fe_values()

template<int dim, int spacedim>

const FEValuesBase< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::get_current_fe_values

Get the currently initialized FEValues.

This function will return the internal FEValues if the reinit(cell) function was called last. If the reinit(cell, face_no) function was called, then this function returns the internal FEFaceValues, and if the reinit(cell, face_no, subface_no) function was called (with a valid subface_no argument), it returns the internal FESubfaceValues object.

Definition at line 694 of file scratch_data.cc.

◆ get_current_interface_fe_values()

template<int dim, int spacedim>

const FEInterfaceValues< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::get_current_interface_fe_values

Get the currently initialized FEInterfaceValues.

Definition at line 706 of file scratch_data.cc.

◆ get_quadrature_points()

template<int dim, int spacedim>

const std::vector< Point< spacedim > > & MeshWorker::ScratchData< dim, spacedim >::get_quadrature_points

Return the quadrature points of the internal FEValues object.

Definition at line 730 of file scratch_data.cc.

◆ get_JxW_values()

template<int dim, int spacedim>

const std::vector< double > & MeshWorker::ScratchData< dim, spacedim >::get_JxW_values

Return the JxW values of the internal FEValues object.

Definition at line 739 of file scratch_data.cc.

◆ get_normal_vectors()

template<int dim, int spacedim>

const std::vector< Tensor< 1, spacedim > > & MeshWorker::ScratchData< dim, spacedim >::get_normal_vectors

Return the last computed normal vectors.

Definition at line 757 of file scratch_data.cc.

◆ get_local_dof_indices()

template<int dim, int spacedim>

const std::vector< types::global_dof_index > & MeshWorker::ScratchData< dim, spacedim >::get_local_dof_indices

Return the local dof indices for the cell passed the last time the reinit() function was called.

Definition at line 775 of file scratch_data.cc.

◆ n_dofs_per_cell()

template<int dim, int spacedim>

unsigned int MeshWorker::ScratchData< dim, spacedim >::n_dofs_per_cell

Return the number of local dof indices for the cell passed the last time the reinit() function was called.

Definition at line 784 of file scratch_data.cc.

◆ reinit_neighbor() [1/5]

template<int dim, int spacedim>

const FEValues< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::reinit_neighbor ( const typename DoFHandler< dim, spacedim >::active_cell_iterator & cell )

Initialize the internal neighbor FEValues to use the given cell, and return a reference to it.

After calling this function, get_current_neighbor_fe_values() will return the same object of this method, as an FEValuesBase reference.

Definition at line 479 of file scratch_data.cc.

◆ reinit_neighbor() [2/5]

template<int dim, int spacedim>

const FEFaceValues< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::reinit_neighbor	(	const typename DoFHandler< dim, spacedim >::active_cell_iterator &	cell,
		const unsigned int	face_no
	)

Initialize the internal FEFaceValues to use the given face_no on the given cell, and return a reference to it.

After calling this function, get_current_neighbor_fe_values() will return the same object of this method, as an FEValuesBase reference.

Definition at line 521 of file scratch_data.cc.

◆ reinit_neighbor() [3/5]

template<int dim, int spacedim>

const FEFaceValuesBase< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::reinit_neighbor	(	const typename DoFHandler< dim, spacedim >::active_cell_iterator &	cell,
		const unsigned int	face_no,
		const unsigned int	subface_no
	)

Initialize the internal FESubfaceValues to use the given subface_no, on face_no, on the given cell, and return a reference to it.

After calling this function, get_current_neighbor_fe_values() will return the same object of this method, as an FEValuesBase reference.

If subface_no is numbers::invalid_unsigned_int, the reinit() function that takes only the cell and the face_no is called.

Definition at line 599 of file scratch_data.cc.

◆ get_current_neighbor_fe_values()

template<int dim, int spacedim>

const FEValuesBase< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::get_current_neighbor_fe_values

Get the currently initialized neighbor FEValues.

This function will return the neighbor FEValues if the reinit_neighbor(cell) function was called last. If the reinit_neighbor(cell, face_no) function was called, then this function returns the internal neighbor FEFaceValues, and if the reinit_neighbor(cell, face_no, subface_no) function was called (with a valid subface_no argument), it returns the internal neighbor FESubfaceValues object.

Definition at line 718 of file scratch_data.cc.

◆ get_neighbor_JxW_values()

template<int dim, int spacedim>

const std::vector< double > & MeshWorker::ScratchData< dim, spacedim >::get_neighbor_JxW_values

Return the JxW values of the neighbor FEValues object.

Definition at line 748 of file scratch_data.cc.

◆ get_neighbor_normal_vectors()

template<int dim, int spacedim>

const std::vector< Tensor< 1, spacedim > > & MeshWorker::ScratchData< dim, spacedim >::get_neighbor_normal_vectors

Return the last computed normal vectors on the neighbor.

Definition at line 766 of file scratch_data.cc.

◆ get_neighbor_dof_indices()

template<int dim, int spacedim>

const std::vector< types::global_dof_index > & MeshWorker::ScratchData< dim, spacedim >::get_neighbor_dof_indices

Return the local dof indices of the neighbor passed the last time the reinit_neighbor() function was called.

Definition at line 793 of file scratch_data.cc.

◆ n_neighbor_dofs_per_cell()

template<int dim, int spacedim>

unsigned int MeshWorker::ScratchData< dim, spacedim >::n_neighbor_dofs_per_cell

Return the number of local dof indices for the neighbor passed the last time the reinit_neighbor() function was called.

Definition at line 802 of file scratch_data.cc.

◆ reinit() [5/6]

template<int dim, int spacedim>

const FEFaceValues< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::reinit	(	const typename DoFHandler< dim, spacedim >::active_cell_iterator &	cell,
		const typename DoFHandler< dim, spacedim >::active_cell_iterator &	neighbor_cell,
		const unsigned int	face_no
	)

Initialize the internal FEFaceValues to use the given face_no on the given cell, and return a reference to it.

This variant of the reinit() function compares the active finite element on each cell, and chooses the dominated finite element's index to select the quadrature rule and mapping for the returned FEFaceValues object. This is useful in instances where the shape functions of the elements on either side of a face are being evaluated at the same time (such as is done in DG methods). See FECollection::find_dominated_fe() for more information on the selection process.

After calling this function, get_current_fe_values() will return the same object of this method, as an FEValuesBase reference.

Definition at line 294 of file scratch_data.cc.

◆ reinit() [6/6]

template<int dim, int spacedim>

const FEFaceValuesBase< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::reinit	(	const typename DoFHandler< dim, spacedim >::active_cell_iterator &	cell,
		const typename DoFHandler< dim, spacedim >::active_cell_iterator &	neighbor_cell,
		const unsigned int	face_no,
		const unsigned int	subface_no
	)

Initialize the internal FESubfaceValues to use the given subface_no, on face_no, on the given cell, and return a reference to it.

This variant of the reinit() function compares the active finite element on each cell, and chooses the dominated finite element's index to select the quadrature rule and mapping for the returned FEFaceValues object. This is useful in instances where the shape functions of the elements on either side of a face are being evaluated at the same time (such as is done in DG methods). See FECollection::find_dominated_fe() for more information on the selection process.

After calling this function, get_current_fe_values() will return the same object of this method, as an FEValuesBase reference.

If subface_no is numbers::invalid_unsigned_int, the reinit() function that takes only the cell and the face_no is called.

Definition at line 377 of file scratch_data.cc.

◆ reinit_neighbor() [4/5]

template<int dim, int spacedim>

const FEFaceValues< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::reinit_neighbor	(	const typename DoFHandler< dim, spacedim >::active_cell_iterator &	cell,
		const typename DoFHandler< dim, spacedim >::active_cell_iterator &	neighbor_cell,
		const unsigned int	face_no
	)

Initialize the internal FEFaceValues to use the given face_no on the given neighbor_cell, and return a reference to it.

This variant of the reinit() function compares the active finite element on each cell, and chooses the dominated finite element's index to select the quadrature rule and mapping for the returned FEFaceValues object. This is useful in instances where the shape functions of the elements on either side of a face are being evaluated at the same time (such as is done in DG methods). See FECollection::find_dominated_fe() for more information on the selection process.

After calling this function, get_current_neighbor_fe_values() will return the same object of this method, as an FEValuesBase reference.

Definition at line 546 of file scratch_data.cc.

◆ reinit_neighbor() [5/5]

template<int dim, int spacedim>

const FEFaceValuesBase< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::reinit_neighbor	(	const typename DoFHandler< dim, spacedim >::active_cell_iterator &	cell,
		const typename DoFHandler< dim, spacedim >::active_cell_iterator &	neighbor_cell,
		const unsigned int	face_no,
		const unsigned int	subface_no
	)

Initialize the internal FESubfaceValues to use the given subface_no, on face_no, on the given neighbor_cell, and return a reference to it.

This variant of the reinit() function compares the active finite element on each cell, and chooses the dominated finite element's index to select the quadrature rule and mapping for the returned FEFaceValues object. This is useful in instances where the shape functions of the elements on either side of a face are being evaluated at the same time (such as is done in DG methods). See FECollection::find_dominated_fe() for more information on the selection process.

After calling this function, get_current_neighbor_fe_values() will return the same object of this method, as an FEValuesBase reference.

If subface_no is numbers::invalid_unsigned_int, the reinit() function that takes only the neighbor_cell and the face_no is called.

Definition at line 630 of file scratch_data.cc.

◆ get_general_data_storage() [1/2]

template<int dim, int spacedim>

GeneralDataStorage & MeshWorker::ScratchData< dim, spacedim >::get_general_data_storage

Return a GeneralDataStorage object that can be used to store any amount of data, of any type, which is then made accessible by an identifier string.

Definition at line 811 of file scratch_data.cc.

◆ get_general_data_storage() [2/2]

template<int dim, int spacedim>

const GeneralDataStorage & MeshWorker::ScratchData< dim, spacedim >::get_general_data_storage

Return a GeneralDataStorage object that can be used to store any amount of data, of any type, which is then made accessible by an identifier string.

Definition at line 820 of file scratch_data.cc.

◆ get_mapping()

template<int dim, int spacedim>

const Mapping< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::get_mapping

Return a reference to the used mapping.

Definition at line 829 of file scratch_data.cc.

◆ get_fe()

template<int dim, int spacedim>

const FiniteElement< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::get_fe

Return a reference to the selected finite element object.

Definition at line 840 of file scratch_data.cc.

◆ get_cell_quadrature()

template<int dim, int spacedim>

const Quadrature< dim > & MeshWorker::ScratchData< dim, spacedim >::get_cell_quadrature

Return a reference to the cell quadrature object in use.

Definition at line 851 of file scratch_data.cc.

◆ get_face_quadrature()

template<int dim, int spacedim>

const Quadrature< dim - 1 > & MeshWorker::ScratchData< dim, spacedim >::get_face_quadrature

Return a reference to the face quadrature object in use.

Definition at line 861 of file scratch_data.cc.

◆ get_mapping_collection()

template<int dim, int spacedim>

const hp::MappingCollection< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::get_mapping_collection

Return a reference to the used mapping.

Definition at line 871 of file scratch_data.cc.

◆ get_fe_collection()

template<int dim, int spacedim>

const hp::FECollection< dim, spacedim > & MeshWorker::ScratchData< dim, spacedim >::get_fe_collection

Return a reference to the selected finite element object.

Definition at line 882 of file scratch_data.cc.

◆ get_cell_quadrature_collection()

template<int dim, int spacedim>

const hp::QCollection< dim > & MeshWorker::ScratchData< dim, spacedim >::get_cell_quadrature_collection

Return a reference to the cell quadrature object in use.

Definition at line 893 of file scratch_data.cc.

◆ get_face_quadrature_collection()

template<int dim, int spacedim>

const hp::QCollection< dim - 1 > & MeshWorker::ScratchData< dim, spacedim >::get_face_quadrature_collection

Return a reference to the face quadrature object in use.

Definition at line 903 of file scratch_data.cc.

◆ has_hp_capabilities()

template<int dim, int spacedim>

bool MeshWorker::ScratchData< dim, spacedim >::has_hp_capabilities

Returns a boolean indicating whether or not this ScratchData object has hp-capabilities enabled.

Definition at line 913 of file scratch_data.cc.

◆ get_cell_update_flags()

template<int dim, int spacedim>

UpdateFlags MeshWorker::ScratchData< dim, spacedim >::get_cell_update_flags

Return the cell update flags set.

Definition at line 922 of file scratch_data.cc.

◆ get_neighbor_cell_update_flags()

template<int dim, int spacedim>

UpdateFlags MeshWorker::ScratchData< dim, spacedim >::get_neighbor_cell_update_flags

Return the neighbor cell update flags set.

Definition at line 931 of file scratch_data.cc.

◆ get_face_update_flags()

template<int dim, int spacedim>

UpdateFlags MeshWorker::ScratchData< dim, spacedim >::get_face_update_flags

Return the face update flags set.

Definition at line 940 of file scratch_data.cc.

◆ get_neighbor_face_update_flags()

template<int dim, int spacedim>

UpdateFlags MeshWorker::ScratchData< dim, spacedim >::get_neighbor_face_update_flags

Return the neighbor face update flags set.

Definition at line 949 of file scratch_data.cc.

◆ extract_local_dof_values()

template<int dim, int spacedim = dim>

template<typename VectorType , typename Number = double>

void MeshWorker::ScratchData< dim, spacedim >::extract_local_dof_values	(	const std::string &	global_vector_name,
		const VectorType &	input_vector,
		const Number	dummy = `Number(0)`
	)

Extract the local dof values associated with the internally initialized cell.

Before you call this function, you have to make sure you have previously called one of the reinit() functions.

At every call of this function, a new vector of dof values is generated and stored internally, unless a previous vector with the same name is found. If this is the case, the content of that vector is overwritten.

If you give a unique global_vector_name, then for each cell you are guaranteed to get a unique vector of independent dofs of the same type as the dummy variable. If you use an automatic differentiation number type (like Sacado::Fad::DFad<double>, Sacado::Fad::DFad<Sacado::Fad::DFad<double>>, etc.) this method will also initialize the independent variables internally, allowing you to perform automatic differentiation.

You can access the extracted local dof values by calling the method get_local_dof_values() with the same global_vector_name argument you passed here.

Notice that using this initialization strategy renders the use of this ScratchData object incompatible with the AD helper classes (since they do their own data management). In particular, it is necessary for the user to manage all of the AD data themselves (both before and after this call).

◆ get_local_dof_values()

template<int dim, int spacedim = dim>

template<typename Number = double>

const std::vector< Number > & MeshWorker::ScratchData< dim, spacedim >::get_local_dof_values	(	const std::string &	global_vector_name,
		Number	dummy = `Number(0)`
	)		const

After calling extract_local_dof_values(), you can retrieve the stored information through this method.

Both the argument global_vector_name and the type of the dummy variable should match the ones you passed to the extract_local_dof_values() function.

◆ get_values()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >:: template solution_value_type< Number > > & MeshWorker::ScratchData< dim, spacedim >::get_values	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const Number	dummy = `Number(0)`
	)

For the solution vector identified by global_vector_name, compute the values of the function at the quadrature points, and return a vector with the correct type deduced by the Extractor you passed as the variable argument.

Before you can call this method, you need to call the extract_local_dof_values() method at least once, passing the same global_vector_name string, and the same type for the variable dummy.

If you have not previously called the extract_local_dof_values() method, this function will throw an exception.

For this function to work properly, the underlying FEValues, FEFaceValues, or FESubfaceValues object for which you called one of the reinit() functions, must have computed the information you are requesting. To do so, the update_values flag must be an element of the list of UpdateFlags that you passed to the constructor of this object. See "The interplay of UpdateFlags, Mapping, and FiniteElement" in the documentation of the FEValues class for more information.

◆ get_gradients()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >:: template solution_gradient_type< Number > > & MeshWorker::ScratchData< dim, spacedim >::get_gradients	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const Number	dummy = `Number(0)`
	)

For the solution vector identified by global_vector_name, compute the gradients of the function at the quadrature points, and return a vector with the correct type deduced by the Extractor you passed as the variable argument.

Before you can call this method, you need to call the extract_local_dof_values() method at least once, passing the same global_vector_name string, and the same type for the variable dummy.

If you have not previously called the extract_local_dof_values() method, this function will throw an exception.

For this function to work properly, the underlying FEValues, FEFaceValues, or FESubfaceValues object for which you called one of the reinit() functions, must have computed the information you are requesting. To do so, the update_gradients flag must be an element of the list of UpdateFlags that you passed to the constructor of this object. See "The interplay of UpdateFlags, Mapping, and FiniteElement" in the documentation of the FEValues class for more information.

◆ get_symmetric_gradients()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >:: template solution_symmetric_gradient_type< Number > > & MeshWorker::ScratchData< dim, spacedim >::get_symmetric_gradients	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const Number	dummy = `Number(0)`
	)

For the solution vector identified by global_vector_name, compute the symmetric gradients of the function at the quadrature points, and return a vector with the correct type deduced by the Extractor you passed as the variable argument.

Before you can call this method, you need to call the extract_local_dof_values() method at least once, passing the same global_vector_name string, and the same type for the variable dummy.

If you have not previously called the extract_local_dof_values() method, this function will throw an exception.

For this function to work properly, the underlying FEValues, FEFaceValues, or FESubfaceValues object for which you called one of the reinit() functions, must have computed the information you are requesting. To do so, the update_gradients flag must be an element of the list of UpdateFlags that you passed to the constructor of this object. See "The interplay of UpdateFlags, Mapping, and FiniteElement" in the documentation of the FEValues class for more information.

◆ get_divergences()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >:: template solution_divergence_type< Number > > & MeshWorker::ScratchData< dim, spacedim >::get_divergences	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const Number	dummy = `Number(0)`
	)

For the solution vector identified by global_vector_name, compute the divergences of the function at the quadrature points, and return a vector with the correct type deduced by the Extractor you passed as the variable argument.

Before you can call this method, you need to call the extract_local_dof_values() method at least once, passing the same global_vector_name string, and the same type for the variable dummy.

If you have not previously called the extract_local_dof_values() method, this function will throw an exception.

For this function to work properly, the underlying FEValues, FEFaceValues, or FESubfaceValues object for which you called one of the reinit() functions, must have computed the information you are requesting. To do so, the update_gradients flag must be an element of the list of UpdateFlags that you passed to the constructor of this object. See "The interplay of UpdateFlags, Mapping, and FiniteElement" in the documentation of the FEValues class for more information.

◆ get_curls()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >:: template solution_curl_type< Number > > & MeshWorker::ScratchData< dim, spacedim >::get_curls	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const Number	dummy = `Number(0)`
	)

For the solution vector identified by global_vector_name, compute the curls of the function at the quadrature points, and return a vector with the correct type deduced by the Extractor you passed as the variable argument.

Before you can call this method, you need to call the extract_local_dof_values() method at least once, passing the same global_vector_name string, and the same type for the variable dummy.

If you have not previously called the extract_local_dof_values() method, this function will throw an exception.

For this function to work properly, the underlying FEValues, FEFaceValues, or FESubfaceValues object for which you called one of the reinit() functions, must have computed the information you are requesting. To do so, the update_gradients flag must be an element of the list of UpdateFlags that you passed to the constructor of this object. See "The interplay of UpdateFlags, Mapping, and FiniteElement" in the documentation of the FEValues class for more information.

◆ get_hessians()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >:: template solution_hessian_type< Number > > & MeshWorker::ScratchData< dim, spacedim >::get_hessians	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const Number	dummy = `Number(0)`
	)

For the solution vector identified by global_vector_name, compute the Hessians of the function at the quadrature points, and return a vector with the correct type deduced by the Extractor you passed as the variable argument.

Before you can call this method, you need to call the extract_local_dof_values() method at least once, passing the same global_vector_name string, and the same type for the variable dummy.

If you have not previously called the extract_local_dof_values() method, this function will throw an exception.

For this function to work properly, the underlying FEValues, FEFaceValues, or FESubfaceValues object for which you called one of the reinit() functions, must have computed the information you are requesting. To do so, the update_hessians flag must be an element of the list of UpdateFlags that you passed to the constructor of this object. See "The interplay of UpdateFlags, Mapping, and FiniteElement" in the documentation of the FEValues class for more information.

◆ get_laplacians()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >:: template solution_laplacian_type< Number > > & MeshWorker::ScratchData< dim, spacedim >::get_laplacians	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const Number	dummy = `Number(0)`
	)

For the solution vector identified by global_vector_name, compute the Laplacians of the function at the quadrature points, and return a vector with the correct type deduced by the Extractor you passed as the variable argument.

Before you can call this method, you need to call the extract_local_dof_values() method at least once, passing the same global_vector_name string, and the same type for the variable dummy.

If you have not previously called the extract_local_dof_values() method, this function will throw an exception.

For this function to work properly, the underlying FEValues, FEFaceValues, or FESubfaceValues object for which you called one of the reinit() functions, must have computed the information you are requesting. To do so, the update_hessians flag must be an element of the list of UpdateFlags that you passed to the constructor of this object. See "The interplay of UpdateFlags, Mapping, and FiniteElement" in the documentation of the FEValues class for more information.

◆ get_third_derivatives()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

const std::vector< typename FEValuesViews::View< dim, spacedim, Extractor >:: template solution_third_derivative_type< Number > > & MeshWorker::ScratchData< dim, spacedim >::get_third_derivatives	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const Number	dummy = `Number(0)`
	)

For the solution vector identified by global_vector_name, compute the third derivatives of the function at the quadrature points, and return a vector with the correct type deduced by the Extractor you passed as the variable argument.

Before you can call this method, you need to call the extract_local_dof_values() method at least once, passing the same global_vector_name string, and the same type for the variable dummy.

If you have not previously called the extract_local_dof_values() method, this function will throw an exception.

For this function to work properly, the underlying FEValues, FEFaceValues, or FESubfaceValues object for which you called one of the reinit() functions, must have computed the information you are requesting. To do so, the update_3rd_derivatives flag must be an element of the list of UpdateFlags that you passed to the constructor of this object. See "The interplay of UpdateFlags, Mapping, and FiniteElement" in the documentation of the FEValues for more information.

◆ get_jumps_in_values()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

const std::vector< typename FEInterfaceViews::View< dim, spacedim, Extractor >:: template solution_value_type< Number > > & MeshWorker::ScratchData< dim, spacedim >::get_jumps_in_values	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const Number	dummy = `Number(0)`
	)

For the solution vector identified by global_vector_name, compute the jumps in the values of the function at the quadrature points, and return a vector with the correct type deduced by the interface Extractor you passed as the variable argument.

Before you can call this method, you need to call the extract_local_dof_values() method at least once, passing the same global_vector_name string, and the same type for the variable dummy.

If you have not previously called the extract_local_dof_values() method, this function will throw an exception.

For this function to work properly, the underlying FEInterfaceValues object for which you called one of the reinit() functions, must have computed the information you are requesting. To do so, the update_values flag must be an element of the list of UpdateFlags that you passed to the constructor of this object. See "The interplay of UpdateFlags, Mapping, and FiniteElement" in the documentation of the FEValues class for more information.

◆ get_jumps_in_gradients()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

const std::vector< typename FEInterfaceViews::View< dim, spacedim, Extractor >:: template solution_gradient_type< Number > > & MeshWorker::ScratchData< dim, spacedim >::get_jumps_in_gradients	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const Number	dummy = `Number(0)`
	)

For the solution vector identified by global_vector_name, compute the jumps in the gradients of the function at the quadrature points, and return a vector with the correct type deduced by the interface Extractor you passed as the variable argument.

Before you can call this method, you need to call the extract_local_dof_values() method at least once, passing the same global_vector_name string, and the same type for the variable dummy.

If you have not previously called the extract_local_dof_values() method, this function will throw an exception.

For this function to work properly, the underlying FEInterfaceValues object for which you called one of the reinit() functions, must have computed the information you are requesting. To do so, the update_gradients flag must be an element of the list of UpdateFlags that you passed to the constructor of this object. See "The interplay of UpdateFlags, Mapping, and FiniteElement" in the documentation of the FEValues class for more information.

◆ get_jumps_in_hessians()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

const std::vector< typename FEInterfaceViews::View< dim, spacedim, Extractor >:: template solution_hessian_type< Number > > & MeshWorker::ScratchData< dim, spacedim >::get_jumps_in_hessians	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const Number	dummy = `Number(0)`
	)

For the solution vector identified by global_vector_name, compute the jumps in the Hessians of the function at the quadrature points, and return a vector with the correct type deduced by the interface Extractor you passed as the variable argument.

Before you can call this method, you need to call the extract_local_dof_values() method at least once, passing the same global_vector_name string, and the same type for the variable dummy.

If you have not previously called the extract_local_dof_values() method, this function will throw an exception.

For this function to work properly, the underlying FEInterfaceValues object for which you called one of the reinit() functions, must have computed the information you are requesting. To do so, the update_hessians flag must be an element of the list of UpdateFlags that you passed to the constructor of this object. See "The interplay of UpdateFlags, Mapping, and FiniteElement" in the documentation of the FEValues class for more information.

◆ get_jumps_in_third_derivatives()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

const std::vector< typename FEInterfaceViews::View< dim, spacedim, Extractor >:: template solution_third_derivative_type< Number > > & MeshWorker::ScratchData< dim, spacedim >::get_jumps_in_third_derivatives	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const Number	dummy = `Number(0)`
	)

For the solution vector identified by global_vector_name, compute the jumps in the third derivatives of the function at the quadrature points, and return a vector with the correct type deduced by the interface Extractor you passed as the variable argument.

Before you can call this method, you need to call the extract_local_dof_values() method at least once, passing the same global_vector_name string, and the same type for the variable dummy.

If you have not previously called the extract_local_dof_values() method, this function will throw an exception.

For this function to work properly, the underlying FEInterfaceValues object for which you called one of the reinit() functions, must have computed the information you are requesting. To do so, the update_3rd_derivatives flag must be an element of the list of UpdateFlags that you passed to the constructor of this object. See "The interplay of UpdateFlags, Mapping, and FiniteElement" in the documentation of the FEValues for more information.

◆ get_averages_of_values()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

const std::vector< typename FEInterfaceViews::View< dim, spacedim, Extractor >:: template solution_value_type< Number > > & MeshWorker::ScratchData< dim, spacedim >::get_averages_of_values	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const Number	dummy = `Number(0)`
	)

For the solution vector identified by global_vector_name, compute the averages of the values of the function at the quadrature points, and return a vector with the correct type deduced by the interface Extractor you passed as the variable argument.

Before you can call this method, you need to call the extract_local_dof_values() method at least once, passing the same global_vector_name string, and the same type for the variable dummy.

If you have not previously called the extract_local_dof_values() method, this function will throw an exception.

For this function to work properly, the underlying FEInterfaceValues object for which you called one of the reinit() functions, must have computed the information you are requesting. To do so, the update_values flag must be an element of the list of UpdateFlags that you passed to the constructor of this object. See "The interplay of UpdateFlags, Mapping, and FiniteElement" in the documentation of the FEValues class for more information.

◆ get_averages_of_gradients()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

const std::vector< typename FEInterfaceViews::View< dim, spacedim, Extractor >:: template solution_gradient_type< Number > > & MeshWorker::ScratchData< dim, spacedim >::get_averages_of_gradients	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const Number	dummy = `Number(0)`
	)

For the solution vector identified by global_vector_name, compute the averages of the gradients of the function at the quadrature points, and return a vector with the correct type deduced by the interface Extractor you passed as the variable argument.

Before you can call this method, you need to call the extract_local_dof_values() method at least once, passing the same global_vector_name string, and the same type for the variable dummy.

If you have not previously called the extract_local_dof_values() method, this function will throw an exception.

For this function to work properly, the underlying FEInterfaceValues object for which you called one of the reinit() functions, must have computed the information you are requesting. To do so, the update_gradients flag must be an element of the list of UpdateFlags that you passed to the constructor of this object. See "The interplay of UpdateFlags, Mapping, and FiniteElement" in the documentation of the FEValues class for more information.

◆ get_averages_of_hessians()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

const std::vector< typename FEInterfaceViews::View< dim, spacedim, Extractor >:: template solution_hessian_type< Number > > & MeshWorker::ScratchData< dim, spacedim >::get_averages_of_hessians	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const Number	dummy = `Number(0)`
	)

For the solution vector identified by global_vector_name, compute the averages of the Hessians of the function at the quadrature points, and return a vector with the correct type deduced by the interface Extractor you passed as the variable argument.

Before you can call this method, you need to call the extract_local_dof_values() method at least once, passing the same global_vector_name string, and the same type for the variable dummy.

If you have not previously called the extract_local_dof_values() method, this function will throw an exception.

For this function to work properly, the underlying FEInterfaceValues object for which you called one of the reinit() functions, must have computed the information you are requesting. To do so, the update_hessians flag must be an element of the list of UpdateFlags that you passed to the constructor of this object. See "The interplay of UpdateFlags, Mapping, and FiniteElement" in the documentation of the FEValues class for more information.

◆ get_unique_name()

template<int dim, int spacedim = dim>

template<typename Extractor , typename Number = double>

std::string MeshWorker::ScratchData< dim, spacedim >::get_unique_name	(	const std::string &	global_vector_name,
		const Extractor &	variable,
		const std::string &	object_type,
		const unsigned int	size,
		const Number &	exemplar_number
	)		const

private

Construct a unique name to store vectors of values, gradients, divergences, etc., in the internal GeneralDataStorage object.

◆ get_unique_dofs_name()

template<int dim, int spacedim = dim>

template<typename Number = double>

std::string MeshWorker::ScratchData< dim, spacedim >::get_unique_dofs_name	(	const std::string &	global_vector_name,
		const unsigned int	size,
		const Number &	exemplar_number
	)		const

private

Construct a unique name to store local dof values.

Member Data Documentation

◆ mapping

template<int dim, int spacedim = dim>

SmartPointer<const Mapping<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::mapping

private

The mapping used by the internal FEValues. Make sure it lives longer than this class.

Definition at line 1356 of file scratch_data.h.

◆ fe

template<int dim, int spacedim = dim>

SmartPointer<const FiniteElement<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::fe

private

The finite element used by the internal FEValues. Make sure it lives longer than this class.

Definition at line 1362 of file scratch_data.h.

◆ cell_quadrature

template<int dim, int spacedim = dim>

Quadrature<dim> MeshWorker::ScratchData< dim, spacedim >::cell_quadrature

private

Quadrature formula used to integrate on the current cell, and on its neighbor.

Definition at line 1368 of file scratch_data.h.

◆ face_quadrature

template<int dim, int spacedim = dim>

Quadrature<dim - 1> MeshWorker::ScratchData< dim, spacedim >::face_quadrature

private

Quadrature formula used to integrate on faces, subfaces, and neighbor faces and subfaces.

Definition at line 1374 of file scratch_data.h.

◆ fe_values

template<int dim, int spacedim = dim>

std::unique_ptr<FEValues<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::fe_values

private

Finite element values on the current cell.

Definition at line 1379 of file scratch_data.h.

◆ fe_face_values

template<int dim, int spacedim = dim>

std::unique_ptr<FEFaceValues<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::fe_face_values

private

Finite element values on the current face.

Definition at line 1384 of file scratch_data.h.

◆ fe_subface_values

template<int dim, int spacedim = dim>

std::unique_ptr<FESubfaceValues<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::fe_subface_values

private

Finite element values on the current subface.

Definition at line 1389 of file scratch_data.h.

◆ neighbor_fe_values

template<int dim, int spacedim = dim>

std::unique_ptr<FEValues<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::neighbor_fe_values

private

Finite element values on the neighbor cell.

Definition at line 1394 of file scratch_data.h.

◆ neighbor_fe_face_values

template<int dim, int spacedim = dim>

std::unique_ptr<FEFaceValues<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::neighbor_fe_face_values

private

Finite element values on the neighbor face.

Definition at line 1399 of file scratch_data.h.

◆ neighbor_fe_subface_values

template<int dim, int spacedim = dim>

std::unique_ptr<FESubfaceValues<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::neighbor_fe_subface_values

private

Finite element values on the neighbor subface.

Definition at line 1404 of file scratch_data.h.

◆ interface_fe_values

template<int dim, int spacedim = dim>

std::unique_ptr<FEInterfaceValues<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::interface_fe_values

private

Interface values on facets.

Definition at line 1409 of file scratch_data.h.

◆ mapping_collection

template<int dim, int spacedim = dim>

SmartPointer<const hp::MappingCollection<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::mapping_collection

private

The mapping collection used by the internal hp::FEValues. Make sure it lives longer than this class.

Definition at line 1422 of file scratch_data.h.

◆ fe_collection

template<int dim, int spacedim = dim>

SmartPointer<const hp::FECollection<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::fe_collection

private

The finite element used by the internal FEValues. Make sure it lives longer than this class.

Definition at line 1428 of file scratch_data.h.

◆ cell_quadrature_collection

template<int dim, int spacedim = dim>

hp::QCollection<dim> MeshWorker::ScratchData< dim, spacedim >::cell_quadrature_collection

private

Quadrature formula used to integrate on the current cell, and on its neighbor.

Definition at line 1434 of file scratch_data.h.

◆ face_quadrature_collection

template<int dim, int spacedim = dim>

hp::QCollection<dim - 1> MeshWorker::ScratchData< dim, spacedim >::face_quadrature_collection

private

Quadrature formula used to integrate on faces, subfaces, and neighbor faces and subfaces.

Definition at line 1440 of file scratch_data.h.

◆ hp_capability_enabled

template<int dim, int spacedim = dim>

bool MeshWorker::ScratchData< dim, spacedim >::hp_capability_enabled

private

Boolean indicating whether or not the current ScratchData has hp- capabilities.

Definition at line 1446 of file scratch_data.h.

◆ hp_fe_values

template<int dim, int spacedim = dim>

std::unique_ptr<hp::FEValues<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::hp_fe_values

private

Finite element values on the current cell.

Definition at line 1451 of file scratch_data.h.

◆ hp_fe_face_values

template<int dim, int spacedim = dim>

std::unique_ptr<hp::FEFaceValues<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::hp_fe_face_values

private

Finite element values on the current face.

Definition at line 1456 of file scratch_data.h.

◆ hp_fe_subface_values

template<int dim, int spacedim = dim>

std::unique_ptr<hp::FESubfaceValues<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::hp_fe_subface_values

private

Finite element values on the current subface.

Definition at line 1461 of file scratch_data.h.

◆ neighbor_hp_fe_values

template<int dim, int spacedim = dim>

std::unique_ptr<hp::FEValues<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::neighbor_hp_fe_values

private

Finite element values on the neighbor cell.

Definition at line 1466 of file scratch_data.h.

◆ neighbor_hp_fe_face_values

template<int dim, int spacedim = dim>

std::unique_ptr<hp::FEFaceValues<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::neighbor_hp_fe_face_values

private

Finite element values on the neighbor face.

Definition at line 1471 of file scratch_data.h.

◆ neighbor_hp_fe_subface_values

template<int dim, int spacedim = dim>

std::unique_ptr<hp::FESubfaceValues<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::neighbor_hp_fe_subface_values

private

Finite element values on the neighbor subface.

Definition at line 1477 of file scratch_data.h.

◆ cell_update_flags

template<int dim, int spacedim = dim>

UpdateFlags MeshWorker::ScratchData< dim, spacedim >::cell_update_flags

private

UpdateFlags to use when initializing the cell FEValues object.

Definition at line 1504 of file scratch_data.h.

◆ neighbor_cell_update_flags

template<int dim, int spacedim = dim>

UpdateFlags MeshWorker::ScratchData< dim, spacedim >::neighbor_cell_update_flags

private

UpdateFlags to use when initializing the neighbor cell FEValues objects.

Definition at line 1509 of file scratch_data.h.

◆ face_update_flags

template<int dim, int spacedim = dim>

UpdateFlags MeshWorker::ScratchData< dim, spacedim >::face_update_flags

private

UpdateFlags to use when initializing FEFaceValues and FESubfaceValues objects.

Definition at line 1515 of file scratch_data.h.

◆ neighbor_face_update_flags

template<int dim, int spacedim = dim>

UpdateFlags MeshWorker::ScratchData< dim, spacedim >::neighbor_face_update_flags

private

UpdateFlags to use when initializing neighbor FEFaceValues and FESubfaceValues objects.

Definition at line 1521 of file scratch_data.h.

◆ local_dof_indices

template<int dim, int spacedim = dim>

std::vector<types::global_dof_index> MeshWorker::ScratchData< dim, spacedim >::local_dof_indices

private

Dof indices on the current cell.

Definition at line 1526 of file scratch_data.h.

◆ neighbor_dof_indices

template<int dim, int spacedim = dim>

std::vector<types::global_dof_index> MeshWorker::ScratchData< dim, spacedim >::neighbor_dof_indices

private

Dof indices on the neighbor cell.

Definition at line 1531 of file scratch_data.h.

◆ user_data_storage

template<int dim, int spacedim = dim>

GeneralDataStorage MeshWorker::ScratchData< dim, spacedim >::user_data_storage

private

User data storage.

Definition at line 1536 of file scratch_data.h.

◆ internal_data_storage

template<int dim, int spacedim = dim>

GeneralDataStorage MeshWorker::ScratchData< dim, spacedim >::internal_data_storage

private

Internal data storage.

Definition at line 1541 of file scratch_data.h.

◆ current_fe_values

template<int dim, int spacedim = dim>

SmartPointer<const FEValuesBase<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::current_fe_values

private

A pointer to the last used FEValues/FEFaceValues, or FESubfaceValues object on this cell.

Definition at line 1547 of file scratch_data.h.

◆ current_neighbor_fe_values

template<int dim, int spacedim = dim>

SmartPointer<const FEValuesBase<dim, spacedim> > MeshWorker::ScratchData< dim, spacedim >::current_neighbor_fe_values

private

A pointer to the last used FEValues/FEFaceValues, or FESubfaceValues object on the neighbor cell.

Definition at line 1553 of file scratch_data.h.

The documentation for this class was generated from the following files:

include/deal.II/meshworker/scratch_data.h
source/meshworker/scratch_data.cc

Public Member Functions

Private Member Functions

Private Attributes

Data that supports the hp-FE implementation

Detailed Description

Constructor & Destructor Documentation

◆ ScratchData() [1/9]

◆ ScratchData() [2/9]

◆ ScratchData() [3/9]

◆ ScratchData() [4/9]

◆ ScratchData() [5/9]

◆ ScratchData() [6/9]

◆ ScratchData() [7/9]

◆ ScratchData() [8/9]

◆ ScratchData() [9/9]

Member Function Documentation

◆ reinit() [1/6]

◆ reinit() [2/6]

◆ reinit() [3/6]

◆ reinit() [4/6]

◆ get_current_fe_values()

◆ get_current_interface_fe_values()

◆ get_quadrature_points()

◆ get_JxW_values()

◆ get_normal_vectors()

◆ get_local_dof_indices()

◆ n_dofs_per_cell()

◆ reinit_neighbor() [1/5]

◆ reinit_neighbor() [2/5]

◆ reinit_neighbor() [3/5]

◆ get_current_neighbor_fe_values()

◆ get_neighbor_JxW_values()

◆ get_neighbor_normal_vectors()

◆ get_neighbor_dof_indices()

◆ n_neighbor_dofs_per_cell()

◆ reinit() [5/6]

◆ reinit() [6/6]

◆ reinit_neighbor() [4/5]

◆ reinit_neighbor() [5/5]

◆ get_general_data_storage() [1/2]

◆ get_general_data_storage() [2/2]

◆ get_mapping()

◆ get_fe()

◆ get_cell_quadrature()

◆ get_face_quadrature()

◆ get_mapping_collection()

◆ get_fe_collection()

◆ get_cell_quadrature_collection()

◆ get_face_quadrature_collection()

◆ has_hp_capabilities()

◆ get_cell_update_flags()

◆ get_neighbor_cell_update_flags()

◆ get_face_update_flags()

◆ get_neighbor_face_update_flags()

◆ extract_local_dof_values()

◆ get_local_dof_values()

◆ get_values()

◆ get_gradients()

◆ get_symmetric_gradients()

◆ get_divergences()

◆ get_curls()

◆ get_hessians()

◆ get_laplacians()

◆ get_third_derivatives()

◆ get_jumps_in_values()

◆ get_jumps_in_gradients()

◆ get_jumps_in_hessians()

◆ get_jumps_in_third_derivatives()

◆ get_averages_of_values()

◆ get_averages_of_gradients()

◆ get_averages_of_hessians()

◆ get_unique_name()

◆ get_unique_dofs_name()

Member Data Documentation

◆ mapping

◆ fe

◆ cell_quadrature

◆ face_quadrature

◆ fe_values

◆ fe_face_values