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Commit 6b0d1620 authored by Stenger, Florian's avatar Stenger, Florian
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namespace Vtk engulfs all

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dune/vtk/CMakeLists.txt
View file @ 6b0d1620
dune_add_library("vtktypes" OBJECT
vtktypes.cc)
types.cc)
#install headers
install(FILES
......@@ -8,20 +8,22 @@ install(FILES
defaultvtkfunction.hh
filereader.hh
filewriter.hh
forward.hh
gridcreatorinterface.hh
legacyvtkfunction.hh
pvdwriter.hh
pvdwriter.impl.hh
vtkfunction.hh
vtklocalfunction.hh
vtklocalfunctioninterface.hh
vtkreader.hh
vtkreader.impl.hh
vtktimeserieswriter.hh
vtktimeserieswriter.impl.hh
vtktypes.hh
vtkwriter.hh
vtkwriterinterface.hh
vtkwriterinterface.impl.hh
function.hh
localfunction.hh
localfunctioninterface.hh
reader.hh
reader.impl.hh
timeserieswriter.hh
timeserieswriter.impl.hh
types.hh
writer.hh
writerinterface.hh
writerinterface.impl.hh
DESTINATION ${CMAKE_INSTALL_INCLUDEDIR}/dune/vtkwriter)
add_subdirectory(datacollectors)
......
dune/vtk/datacollectorinterface.hh
View file @ 6b0d1620
......@@ -5,130 +5,135 @@
namespace Dune
{
/// Base class for data collectors in a CRTP style.
/**
* \tparam GridViewType Model of Dune::GridView
* \tparam Derived Implementation of a concrete DataCollector.
* \tparam Partition Dune::PartitionType [Partitions::InteriorBorder]
**/
template <class GridViewType, class Derived, class Partition>
class DataCollectorInterface
{
public:
/// The partitionset to collect data from
static constexpr auto partition = Partition{};
using GridView = GridViewType;
/// The dimension of the grid
enum { dim = GridView::dimension };
/// The dimension of the world
enum { dow = GridView::dimensionworld };
public:
/// Store a copy of the GridView
DataCollectorInterface (GridView const& gridView)
: gridView_(gridView)
{}
/// Update the DataCollector on the current GridView
void update ()
{
asDerived().updateImpl();
}
/// Return the number of ghost elements
int ghostLevel () const
{
return asDerived().ghostLevelImpl();
}
/// Return the number of cells in (this partition of the) grid
std::uint64_t numCells () const
{
return asDerived().numCellsImpl();
}
/// Return the number of points in (this partition of the) grid
std::uint64_t numPoints () const
{
return asDerived().numPointsImpl();
}
/// \brief Return a flat vector of point coordinates
/**
* All coordinates are extended to 3 components and concatenated.
* [p0_x, p0_y, p0_z, p1_x, p1_y, p1_z, ...]
* If the GridView::dimensionworld < 3, the remaining components are
* set to 0
**/
template <class T>
std::vector<T> points () const
{
return asDerived().template pointsImpl<T>();
}
namespace Vtk
{
/// \brief Return a flat vector of function values evaluated at the points.
/// Base class for data collectors in a CRTP style.
/**
* In case of a vector valued function, flat the vector entries:
* [fct(p0)_0, fct(p0)_1, fct(p0)_2, fct(p1)_0, ...]
* where the vector dimension must be 3 (possible extended by 0s)
* In case of tensor valued function, flat the tensor row-wise:
* [fct(p0)_00, fct(p0)_01, fct(p0)_02, fct(p0)_10, fct(p0)_11, fct(p0)_12, fct(p0)_20...]
* where the tensor dimension must be 3x3 (possible extended by 0s)
* \tparam GridViewType Model of Dune::GridView
* \tparam Derived Implementation of a concrete DataCollector.
* \tparam Partition Dune::PartitionType [Partitions::InteriorBorder]
**/
template <class T, class VtkFunction>
std::vector<T> pointData (VtkFunction const& fct) const
template <class GridViewType, class Derived, class Partition>
class DataCollectorInterface
{
return asDerived().template pointDataImpl<T>(fct);
}
/// \brief Return a flat vector of function values evaluated at the cells in the order of traversal.
/**
* \see pointData.
* Note: Cells might be described explicitly by connectivity, offsets, and types, e.g. in
* an UnstructuredGrid, or might be described implicitly by the grid type, e.g. in
* StructuredGrid.
*/
template <class T, class VtkFunction>
std::vector<T> cellData (VtkFunction const& fct) const
{
return asDerived().template cellDataImpl<T>(fct);
}
protected: // cast to derived type
Derived& asDerived ()
{
return static_cast<Derived&>(*this);
}
const Derived& asDerived () const
{
return static_cast<const Derived&>(*this);
}
public: // default implementations
void updateImpl ()
{
/* do nothing */
}
int ghostLevelImpl () const
{
return gridView_.overlapSize(0);
}
// Evaluate `fct` in center of cell.
template <class T, class VtkFunction>
std::vector<T> cellDataImpl (VtkFunction const& fct) const;
protected:
GridView gridView_;
};
public:
/// The partitionset to collect data from
static constexpr auto partition = Partition{};
using GridView = GridViewType;
/// The dimension of the grid
enum { dim = GridView::dimension };
/// The dimension of the world
enum { dow = GridView::dimensionworld };
public:
/// Store a copy of the GridView
DataCollectorInterface (GridView const& gridView)
: gridView_(gridView)
{}
/// Update the DataCollector on the current GridView
void update ()
{
asDerived().updateImpl();
}
/// Return the number of ghost elements
int ghostLevel () const
{
return asDerived().ghostLevelImpl();
}
/// Return the number of cells in (this partition of the) grid
std::uint64_t numCells () const
{
return asDerived().numCellsImpl();
}
/// Return the number of points in (this partition of the) grid
std::uint64_t numPoints () const
{
return asDerived().numPointsImpl();
}
/// \brief Return a flat vector of point coordinates
/**
* All coordinates are extended to 3 components and concatenated.
* [p0_x, p0_y, p0_z, p1_x, p1_y, p1_z, ...]
* If the GridView::dimensionworld < 3, the remaining components are
* set to 0
**/
template <class T>
std::vector<T> points () const
{
return asDerived().template pointsImpl<T>();
}
/// \brief Return a flat vector of function values evaluated at the points.
/**
* In case of a vector valued function, flat the vector entries:
* [fct(p0)_0, fct(p0)_1, fct(p0)_2, fct(p1)_0, ...]
* where the vector dimension must be 3 (possible extended by 0s)
* In case of tensor valued function, flat the tensor row-wise:
* [fct(p0)_00, fct(p0)_01, fct(p0)_02, fct(p0)_10, fct(p0)_11, fct(p0)_12, fct(p0)_20...]
* where the tensor dimension must be 3x3 (possible extended by 0s)
**/
template <class T, class VtkFunction>
std::vector<T> pointData (VtkFunction const& fct) const
{
return asDerived().template pointDataImpl<T>(fct);
}
/// \brief Return a flat vector of function values evaluated at the cells in the order of traversal.
/**
* \see pointData.
* Note: Cells might be described explicitly by connectivity, offsets, and types, e.g. in
* an UnstructuredGrid, or might be described implicitly by the grid type, e.g. in
* StructuredGrid.
*/
template <class T, class VtkFunction>
std::vector<T> cellData (VtkFunction const& fct) const
{
return asDerived().template cellDataImpl<T>(fct);
}
protected: // cast to derived type
Derived& asDerived ()
{
return static_cast<Derived&>(*this);
}
const Derived& asDerived () const
{
return static_cast<const Derived&>(*this);
}
public: // default implementations
void updateImpl ()
{
/* do nothing */
}
int ghostLevelImpl () const
{
return gridView_.overlapSize(0);
}
// Evaluate `fct` in center of cell.
template <class T, class VtkFunction>
std::vector<T> cellDataImpl (VtkFunction const& fct) const;
protected:
GridView gridView_;
};
} // end namespace Vtk
} // end namespace Dune
#include "datacollectorinterface.impl.hh"
dune/vtk/datacollectorinterface.impl.hh
View file @ 6b0d1620
......@@ -2,25 +2,30 @@
#include <dune/geometry/referenceelements.hh>
namespace Dune {
template <class GV, class D, class P>
template <class T, class VtkFunction>
std::vector<T> DataCollectorInterface<GV,D,P>
::cellDataImpl (VtkFunction const& fct) const
namespace Dune
{
std::vector<T> data;
data.reserve(this->numCells() * fct.ncomps());
auto localFct = localFunction(fct);
for (auto const& e : elements(gridView_, partition)) {
localFct.bind(e);
auto refElem = referenceElement<T,dim>(e.type());
for (int comp = 0; comp < fct.ncomps(); ++comp)
data.emplace_back(localFct.evaluate(comp, refElem.position(0,0)));
localFct.unbind();
}
return data;
}
namespace Vtk
{
template <class GV, class D, class P>
template <class T, class VtkFunction>
std::vector<T> DataCollectorInterface<GV,D,P>
::cellDataImpl (VtkFunction const& fct) const
{
std::vector<T> data;
data.reserve(this->numCells() * fct.ncomps());
auto localFct = localFunction(fct);
for (auto const& e : elements(gridView_, partition)) {
localFct.bind(e);
auto refElem = referenceElement<T,dim>(e.type());
for (int comp = 0; comp < fct.ncomps(); ++comp)
data.emplace_back(localFct.evaluate(comp, refElem.position(0,0)));
localFct.unbind();
}
return data;
}
} // end namespace Vtk
} // end namespace Dune
dune/vtk/datacollectors/continuousdatacollector.hh
View file @ 6b0d1620
<
......@@ -7,140 +7,144 @@
#include <dune/grid/utility/globalindexset.hh>
#include <dune/vtk/forward.hh>
#include <dune/vtk/vtktypes.hh>
#include <dune/vtk/types.hh>
#include "unstructureddatacollector.hh"
namespace Dune
{
/// Implementation of \ref DataCollector for linear cells, with continuous data.
template <class GridView, class Partition>
class ContinuousDataCollector
: public UnstructuredDataCollectorInterface<GridView, ContinuousDataCollector<GridView,Partition>, Partition>
{
using Self = ContinuousDataCollector;
using Super = UnstructuredDataCollectorInterface<GridView, Self, Partition>;
namespace Vtk
{
public:
using Super::dim;
using Super::partition;
/// Implementation of \ref DataCollector for linear cells, with continuous data.
template <class GridView, class Partition>
class ContinuousDataCollector
: public UnstructuredDataCollectorInterface<GridView, ContinuousDataCollector<GridView,Partition>, Partition>
{
using Self = ContinuousDataCollector;
using Super = UnstructuredDataCollectorInterface<GridView, Self, Partition>;
public:
using Super::dim;
using Super::partition;
public:
ContinuousDataCollector (GridView const& gridView)
: Super(gridView)
{}
/// Collect the vertex indices
void updateImpl ()
{
numPoints_ = 0;
indexMap_.resize(gridView_.size(dim));
auto const& indexSet = gridView_.indexSet();
for (auto const& vertex : vertices(gridView_, partition))
indexMap_[indexSet.index(vertex)] = std::int64_t(numPoints_++);
if (gridView_.comm().size() > 1) {
auto&& e = elements(gridView_, partition);
numCells_ = std::distance(std::begin(e), std::end(e));
} else {
numCells_ = gridView_.size(0);
}
}
public:
ContinuousDataCollector (GridView const& gridView)
: Super(gridView)
{}
/// Return number of grid vertices
std::uint64_t numPointsImpl () const
{
return numPoints_;
}
/// Collect the vertex indices
void updateImpl ()
{
numPoints_ = 0;
indexMap_.resize(gridView_.size(dim));
auto const& indexSet = gridView_.indexSet();
for (auto const& vertex : vertices(gridView_, partition))
indexMap_[indexSet.index(vertex)] = std::int64_t(numPoints_++);
if (gridView_.comm().size() > 1) {
auto&& e = elements(gridView_, partition);
numCells_ = std::distance(std::begin(e), std::end(e));
} else {
numCells_ = gridView_.size(0);
}
}
/// Return number of grid vertices
std::uint64_t numPointsImpl () const
{
return numPoints_;
}
/// Return the coordinates of all grid vertices in the order given by the indexSet
template <class T>
std::vector<T> pointsImpl () const
{
std::vector<T> data;
data.reserve(numPoints_ * 3);
for (auto const& vertex : vertices(gridView_, partition)) {
auto v = vertex.geometry().center();
for (std::size_t j = 0; j < v.size(); ++j)
data.emplace_back(v[j]);
for (std::size_t j = v.size(); j < 3u; ++j)
data.emplace_back(0);
}
return data;
}
/// Return the coordinates of all grid vertices in the order given by the indexSet
template <class T>
std::vector<T> pointsImpl () const
{
std::vector<T> data;
data.reserve(numPoints_ * 3);
for (auto const& vertex : vertices(gridView_, partition)) {
auto v = vertex.geometry().center();
for (std::size_t j = 0; j < v.size(); ++j)
data.emplace_back(v[j]);
for (std::size_t j = v.size(); j < 3u; ++j)
data.emplace_back(0);
}
return data;
}
/// Return a vector of global unique ids of the points
std::vector<std::uint64_t> pointIdsImpl () const
{
std::vector<std::uint64_t> data;
data.reserve(numPoints_);
GlobalIndexSet<GridView> globalIndexSet(gridView_, dim);
for (auto const& vertex : vertices(gridView_, partition)) {
data.emplace_back(globalIndexSet.index(vertex));
}
return data;
}
/// Return number of grid cells
std::uint64_t numCellsImpl () const
{
return numCells_;
}
/// Return a vector of global unique ids of the points
std::vector<std::uint64_t> pointIdsImpl () const
{
std::vector<std::uint64_t> data;
data.reserve(numPoints_);
GlobalIndexSet<GridView> globalIndexSet(gridView_, dim);
for (auto const& vertex : vertices(gridView_, partition)) {
data.emplace_back(globalIndexSet.index(vertex));
}
return data;
}
/// Return the types, offsets and connectivity of the cells, using the same connectivity as
/// given by the grid.
Cells cellsImpl () const
{
auto const& indexSet = gridView_.indexSet();
auto types = indexSet.types(0);
int maxVertices = std::accumulate(types.begin(), types.end(), 1, [](int m, GeometryType t) {
auto refElem = referenceElement<double,dim>(t);
return std::max(m, refElem.size(dim));
});
Cells cells;
cells.connectivity.reserve(numCells_ * maxVertices);
cells.offsets.reserve(numCells_);
cells.types.reserve(numCells_);
std::int64_t old_o = 0;
for (auto const& c : elements(gridView_, partition)) {
Vtk::CellType cellType(c.type());
for (unsigned int j = 0; j < c.subEntities(dim); ++j)
cells.connectivity.emplace_back(indexMap_[indexSet.subIndex(c,cellType.permutation(j),dim)]);
cells.offsets.push_back(old_o += c.subEntities(dim));
cells.types.push_back(cellType.type());
}
return cells;
}
/// Evaluate the `fct` at the corners of the elements
template <class T, class GlobalFunction>
std::vector<T> pointDataImpl (GlobalFunction const& fct) const
{
std::vector<T> data(numPoints_ * fct.ncomps());
auto const& indexSet = gridView_.indexSet();
auto localFct = localFunction(fct);
for (auto const& e : elements(gridView_, partition)) {
localFct.bind(e);
Vtk::CellType cellType{e.type()};
auto refElem = referenceElement(e.geometry());
for (unsigned int j = 0; j < e.subEntities(dim); ++j) {
std::size_t idx = fct.ncomps() * indexMap_[indexSet.subIndex(e,cellType.permutation(j),dim)];
for (int comp = 0; comp < fct.ncomps(); ++comp)
data[idx + comp] = T(localFct.evaluate(comp, refElem.position(cellType.permutation(j),dim)));
/// Return number of grid cells
std::uint64_t numCellsImpl () const
{
return numCells_;
}
localFct.unbind();
}
return data;
}
protected:
using Super::gridView_;
std::uint64_t numPoints_ = 0;
std::uint64_t numCells_ = 0;
std::vector<std::int64_t> indexMap_;
};
/// Return the types, offsets and connectivity of the cells, using the same connectivity as
/// given by the grid.
Cells cellsImpl () const
{
auto const& indexSet = gridView_.indexSet();
auto types = indexSet.types(0);
int maxVertices = std::accumulate(types.begin(), types.end(), 1, [](int m, GeometryType t) {
auto refElem = referenceElement<double,dim>(t);
return std::max(m, refElem.size(dim));
});
Cells cells;
cells.connectivity.reserve(numCells_ * maxVertices);
cells.offsets.reserve(numCells_);
cells.types.reserve(numCells_);
std::int64_t old_o = 0;
for (auto const& c : elements(gridView_, partition)) {
Vtk::CellType cellType(c.type());
for (unsigned int j = 0; j < c.subEntities(dim); ++j)
cells.connectivity.emplace_back(indexMap_[indexSet.subIndex(c,cellType.permutation(j),dim)]);
cells.offsets.push_back(old_o += c.subEntities(dim));
cells.types.push_back(cellType.type());
}
return cells;
}
/// Evaluate the `fct` at the corners of the elements
template <class T, class GlobalFunction>
std::vector<T> pointDataImpl (GlobalFunction const& fct) const
{
std::vector<T> data(numPoints_ * fct.ncomps());
auto const& indexSet = gridView_.indexSet();
auto localFct = localFunction(fct);
for (auto const& e : elements(gridView_, partition)) {
localFct.bind(e);
Vtk::CellType cellType{e.type()};
auto refElem = referenceElement(e.geometry());
for (unsigned int j = 0; j < e.subEntities(dim); ++j) {
std::size_t idx = fct.ncomps() * indexMap_[indexSet.subIndex(e,cellType.permutation(j),dim)];
for (int comp = 0; comp < fct.ncomps(); ++comp)
data[idx + comp] = T(localFct.evaluate(comp, refElem.position(cellType.permutation(j),dim)));
}
localFct.unbind();
}
return data;