cgal/Linear_cell_complex/demo/Linear_cell_complex/MainWindow.cpp

3421 lines
104 KiB
C++

// Copyright (c) 2011 CNRS and LIRIS' Establishments (France).
// All rights reserved.
//
// This file is part of CGAL (www.cgal.org)
//
// $URL$
// $Id$
// SPDX-License-Identifier: LGPL-3.0-or-later OR LicenseRef-Commercial
//
// Author(s) : Guillaume Damiand <guillaume.damiand@liris.cnrs.fr>
// Contributor(s): Kumar Snehasish <kumar.snehasish@gmail.com>
// Sylvain Brandel <sylvain.brandel@liris.cnrs.fr>
//
#include "MainWindow.h"
#include <CGAL/Delaunay_triangulation_3.h>
#include <CGAL/Polyhedron_3_to_lcc.h>
#include <CGAL/Triangulation_3_to_lcc.h>
#include <QSettings>
#include <QHeaderView>
#include <CGAL/Timer.h>
#include <CGAL/ipower.h>
#include "import_moka.h"
// Function defined in Linear_cell_complex_3_subivision.cpp
void subdivide_lcc_3 (LCC & m);
// Function defined in Linear_cell_complex_pqq_subivision.cpp
void subdivide_lcc_pqq (LCC & m);
#define DELAY_STATUSMSG 1500
MainWindow::MainWindow (QWidget * parent) : CGAL::Qt::DemosMainWindow (parent),
nbcube (0),
dialogmesh (this),
dialogmenger(this),
dialogsierpinskicarpet(this),
dialogsierpinskitriangle(this)
{
setupUi (this);
scene.lcc = new LCC;
volumeListDock = new QDockWidget(QString(tr("Volume List")),this);
volumeListDock->setAllowedAreas(Qt::RightDockWidgetArea |
Qt::LeftDockWidgetArea);
volumeList = new QTableWidget(0,4,volumeListDock);
volumeList->verticalHeader()->hide();
volumeList->setColumnHidden(3,true);
QObject::connect(this->volumeList, SIGNAL(cellChanged(int,int)),
this, SLOT(onCellChanged(int,int)));
QStringList labels(QString(tr("Color")));
labels.append(QString(tr("Filled")));
labels.append(QString(tr("Hidden")));
volumeList->setHorizontalHeaderLabels(labels);
//volumeList->resizeColumnsToContents();
volumeList->setFixedWidth(220);
/* volumeList->setColumnWidth(0,85);
volumeList->setColumnWidth(1,35);
volumeList->setColumnWidth(2,35);*/
volumeList->horizontalHeader()->setSectionResizeMode(QHeaderView::Stretch);
volumeList->setSelectionMode(QAbstractItemView::NoSelection);
//volumeList->setSelectionBehavior(QAbstractItemView::SelectRows);
volumeListDock->setWidget(volumeList);
addDockWidget(Qt::RightDockWidgetArea,volumeListDock);
menuView->addAction(volumeListDock->toggleViewAction());
QObject::connect(&dialogmesh, SIGNAL(accepted()),
this, SLOT(onCreateMeshOk()));
this->viewer->setScene(&scene, false);
connect_actions ();
this->addAboutDemo (":/cgal/help/about_Linear_cell_complex_3.html");
this->addAboutCGAL ();
this->addRecentFiles (this->menuFile, this->actionQuit);
connect (this, SIGNAL (openRecentFile (QString)),
this, SLOT (load_depend_on_extension(QString)));
statusMessage = new QLabel
("Darts: 0, Vertices: 0 (Points: 0), Edges: 0, Facets: 0,"
" Volume: 0 (Vol color: 0), Connected components: 0");
statusBar ()->addWidget (statusMessage);
}
void MainWindow::connect_actions ()
{
QObject::connect (this->actionQuit, SIGNAL (triggered ()),
qApp, SLOT (quit ()));
QObject::connect (this, SIGNAL (sceneChanged ()),
this, SLOT (onSceneChanged ()));
QObject::connect(this->volumeList->horizontalHeader(),
SIGNAL(sectionClicked(int)),
this, SLOT(onHeaderClicked(int)));
QObject::connect(dialogmenger.mengerLevel, SIGNAL(valueChanged(int)),
this, SLOT(onMengerChange(int)));
QObject::connect(dialogmenger.updateAttributes, SIGNAL(clicked(bool)),
this, SLOT(onMengerUpdateAttributes(bool)));
QObject::connect(&dialogmenger, SIGNAL(accepted()),
this, SLOT(onMengerOk()));
QObject::connect(&dialogmenger, SIGNAL(rejected()),
this, SLOT(onMengerCancel()));
QObject::connect(dialogsierpinskicarpet.level, SIGNAL(valueChanged(int)),
this, SLOT(onSierpinskiCarpetChangeLevel(int)));
QObject::connect(dialogsierpinskicarpet.updateAttributes, SIGNAL(clicked(bool)),
this, SLOT(onSierpinskiCarpetUpdateAttributes(bool)));
/* QObject::connect(dialogsierpinskicarpet.never, SIGNAL(clicked(bool)),
this, SLOT(onSierpinskiCarpetNeverUpdateAttributes(bool)));
QObject::connect(dialogsierpinskicarpet.during, SIGNAL(clicked(bool)),
this, SLOT(onSierpinskiCarpetDuringConstructionUpdateAttributes(bool)));
QObject::connect(dialogsierpinskicarpet.after, SIGNAL(clicked(bool)),
this, SLOT(onSierpinskiCarpetAfterConstructionUpdateAttributes(bool)));
QObject::connect(dialogsierpinskicarpet.stdmap, SIGNAL(clicked(bool)),
this, SLOT(onSierpinskiCarpetUpdateAttributesMethodStdMap(bool)));
QObject::connect(dialogsierpinskicarpet.traversal, SIGNAL(clicked(bool)),
this, SLOT(onSierpinskiCarpetUpdateAttributesMethodTraversal(bool)));
QObject::connect(dialogsierpinskicarpet.computeGeometry, SIGNAL(clicked(bool)),
this, SLOT(onSierpinskiCarpetComputeGeometry(bool)));*/
QObject::connect(&dialogsierpinskicarpet, SIGNAL(accepted()),
this, SLOT(onSierpinskiCarpetOk()));
QObject::connect(&dialogsierpinskicarpet, SIGNAL(rejected()),
this, SLOT(onSierpinskiCarpetCancel()));
QObject::connect(dialogsierpinskitriangle.level, SIGNAL(valueChanged(int)),
this, SLOT(onSierpinskiTriangleChangeLevel(int)));
QObject::connect(dialogsierpinskitriangle.updateAttributes, SIGNAL(clicked(bool)),
this, SLOT(onSierpinskiTriangleUpdateAttributes(bool)));
QObject::connect(&dialogsierpinskitriangle, SIGNAL(accepted()),
this, SLOT(onSierpinskiTriangleOk()));
QObject::connect(&dialogsierpinskitriangle, SIGNAL(rejected()),
this, SLOT(onSierpinskiTriangleCancel()));
}
void MainWindow::connectVolumeListHandlers()
{
QObject::connect(this->volumeList, SIGNAL(cellChanged(int,int)),
this, SLOT(onCellChanged(int,int)));
}
void MainWindow::update_operations_entries(bool show)
{
actionImportOFF->setEnabled(show);
actionImport3DTDS->setEnabled(show);
actionCompute_Voronoi_3D->setEnabled(show);
actionClear->setEnabled(show);
menuCreations->setEnabled(show);
menuOperations->setEnabled(show);
}
void MainWindow::onSceneChanged ()
{
QApplication::setOverrideCursor( Qt::WaitCursor );
LCC::size_type mark = scene.lcc->get_new_mark ();
scene.lcc->negate_mark (mark);
std::vector<unsigned int> cells;
cells.push_back(0);
cells.push_back(1);
cells.push_back(2);
cells.push_back(3);
cells.push_back(4);
std::vector<unsigned int> res = scene.lcc->count_cells (cells);
std::ostringstream os;
os << "Darts: " << scene.lcc->number_of_darts ()
<< ", Vertices:" << res[0]
<<", (Points:"<<scene.lcc->number_of_attributes<0>()<<")"
<< ", Edges:" << res[1]
<< ", Facets:" << res[2]
<< ", Volumes:" << res[3]
<<", (Vol color:"<<scene.lcc->number_of_attributes<3>()<<")"
<< ", Connected components:" << res[4]
<<", Valid:"<<(scene.lcc->is_valid()?"true":"FALSE");
scene.lcc->negate_mark (mark);
scene.lcc->free_mark (mark);
// statusBar()->showMessage (QString ("Update OpenGL lists"), DELAY_STATUSMSG);
viewer->sceneChanged ();
statusMessage->setText (os.str().c_str ());
QApplication::restoreOverrideCursor();
}
void MainWindow::clear_all()
{
scene.lcc->clear();
nbcube=0;
volumeList->clearContents();
volumeList->setRowCount(0);
}
void MainWindow::on_new_volume(Dart_descriptor adart)
{
CGAL_assertion( scene.lcc->attribute<3>(adart)==LCC::null_descriptor);
scene.lcc->set_attribute<3>(adart, scene.lcc->create_attribute<3>());
update_volume_list_add(scene.lcc->attribute<3>(adart));
}
void MainWindow::init_all_new_volumes()
{
for (LCC::One_dart_per_cell_range<3>::iterator
it(scene.lcc->one_dart_per_cell<3>().begin());
it.cont(); ++it)
if ( scene.lcc->attribute<3>(it)==LCC::null_descriptor )
{ on_new_volume(it); }
}
void MainWindow::on_actionSave_triggered ()
{
QString fileName = QFileDialog::getSaveFileName (this,
tr ("Save"),
"save.3map",
tr ("3-map files (*.3map)"));
if (!fileName.isEmpty ())
{
save(fileName);
}
}
void MainWindow::on_actionLoad_triggered ()
{
QString fileName = QFileDialog::getOpenFileName (this,
tr ("Load"),
"./3map",
tr ("3-map files (*.3map)"));
if (!fileName.isEmpty ())
{
load(fileName, false);
}
}
void MainWindow::on_actionImportOFF_triggered ()
{
QString fileName = QFileDialog::getOpenFileName (this,
tr ("Import OFF"),
"./off",
tr ("off files (*.off)"));
if (!fileName.isEmpty ())
{
load_off (fileName, false);
}
}
void MainWindow::on_actionImportMoka_triggered()
{
QString fileName = QFileDialog::getOpenFileName (this,
tr ("Import Moka"),
"./moka",
tr ("Moka files (*.moka)"));
if (!fileName.isEmpty ())
{
load_moka(fileName, false);
}
}
void MainWindow::on_actionImport3DTDS_triggered ()
{
QString fileName = QFileDialog::getOpenFileName (this,
tr ("Import 3DTDS"),
".",
tr ("Data file (*)"));
if (!fileName.isEmpty ())
{
load_3DTDS (fileName, false);
statusBar ()->showMessage (QString ("Import 3DTDS file") + fileName,
DELAY_STATUSMSG);
}
}
void MainWindow::load_depend_on_extension(const QString & fileName, bool clear)
{
QString ext = QFileInfo(fileName).suffix();
if ( ext=="3map")
{
load(fileName, clear);
}
else if (ext=="off")
{
load_off(fileName, clear);
}
else if (ext=="moka")
{
load_moka(fileName, clear);
}
else
{
std::cout<<"Extension not considered."<<std::endl;
}
}
void MainWindow::load(const QString & fileName, bool clear)
{
QApplication::setOverrideCursor (Qt::WaitCursor);
if (clear) this->clear_all();
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
bool res = load_combinatorial_map(fileName.toStdString().c_str(), *(scene.lcc));
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to load 3-map "<<qPrintable(fileName)<<": "
<<timer.time()<<" seconds."<<std::endl;
#endif
init_all_new_volumes();
recreate_whole_volume_list();
this->addToRecentFiles(fileName);
QApplication::restoreOverrideCursor ();
if (res)
statusBar ()->showMessage (QString ("3-map loaded ") + fileName,
DELAY_STATUSMSG);
else
statusBar ()->showMessage (QString ("Problem: 3-map not loaded ") + fileName,
DELAY_STATUSMSG);
Q_EMIT (sceneChanged ());
}
void MainWindow::save(const QString & fileName)
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
if ( save_combinatorial_map(*(scene.lcc), fileName.toStdString().c_str()) )
statusBar ()->showMessage (QString ("3-map saved ") + fileName,
DELAY_STATUSMSG);
else
statusBar ()->showMessage (QString ("Problem: 3-map not saved ") + fileName,
DELAY_STATUSMSG);
QApplication::restoreOverrideCursor ();
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to save 3-map "<<qPrintable(fileName)<<": "
<<timer.time()<<" seconds."<<std::endl;
#endif
}
void MainWindow::load_off (const QString & fileName, bool clear)
{
QApplication::setOverrideCursor (Qt::WaitCursor);
if (clear) this->clear_all();
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
std::ifstream ifs (qPrintable (fileName));
CGAL::import_from_polyhedron_3_flux < LCC > (*scene.lcc, ifs);
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to load off "<<qPrintable(fileName)<<": "
<<timer.time()<<" seconds."<<std::endl;
#endif
init_all_new_volumes();
this->addToRecentFiles (fileName);
QApplication::restoreOverrideCursor ();
if (clear)
statusBar ()->showMessage (QString ("Load off file") + fileName,
DELAY_STATUSMSG);
else
statusBar ()->showMessage (QString ("Add off file") + fileName,
DELAY_STATUSMSG);
Q_EMIT (sceneChanged ());
}
void MainWindow::load_3DTDS (const QString & fileName, bool clear)
{
QApplication::setOverrideCursor (Qt::WaitCursor);
if (clear) this->clear_all();
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
typedef CGAL::Delaunay_triangulation_3 < LCC::Traits > Triangulation;
Triangulation T;
std::ifstream ifs (qPrintable (fileName));
T.insert (std::istream_iterator < Point_3 >(ifs),
std::istream_iterator < Point_3 >() );
CGAL::import_from_triangulation_3 < LCC, Triangulation >(*scene.lcc, T);
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to import the 3DTDS from "<<qPrintable(fileName)<<": "
<<timer.time()
<<" seconds (counting the time to compute denaulay triangulation)."
<<std::endl;
#endif
init_all_new_volumes();
QApplication::restoreOverrideCursor ();
Q_EMIT (sceneChanged ());
}
void MainWindow::load_moka(const QString & fileName, bool clear)
{
QApplication::setOverrideCursor (Qt::WaitCursor);
if (clear) this->clear_all();
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
CGAL::import_from_moka < LCC > (*scene.lcc, qPrintable (fileName));
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to load moka "<<qPrintable(fileName)<<": "
<<timer.time()<<" seconds."<<std::endl;
#endif
init_all_new_volumes();
recreate_whole_volume_list();
this->addToRecentFiles (fileName);
QApplication::restoreOverrideCursor ();
if (clear)
statusBar ()->showMessage (QString ("Load moka file") + fileName,
DELAY_STATUSMSG);
else
statusBar ()->showMessage (QString ("Add moka file") + fileName,
DELAY_STATUSMSG);
Q_EMIT (sceneChanged ());
}
Dart_descriptor MainWindow::make_iso_cuboid(const Point_3 basepoint, LCC::FT lg)
{
Dart_descriptor dh = scene.lcc->make_hexahedron(basepoint,
LCC::Traits::Construct_translated_point()
(basepoint,LCC::Traits::Vector(lg,0,0)),
LCC::Traits::Construct_translated_point()
(basepoint,LCC::Traits::Vector(lg,lg,0)),
LCC::Traits::Construct_translated_point()
(basepoint,LCC::Traits::Vector(0,lg,0)),
LCC::Traits::Construct_translated_point()
(basepoint,LCC::Traits::Vector(0,lg,lg)),
LCC::Traits::Construct_translated_point()
(basepoint,LCC::Traits::Vector(0,0,lg)),
LCC::Traits::Construct_translated_point()
(basepoint,LCC::Traits::Vector(lg,0,lg)),
LCC::Traits::Construct_translated_point()
(basepoint,LCC::Traits::Vector(lg,lg,lg)));
scene.lcc->reverse_orientation_connected_component(dh);
return dh;
}
Dart_descriptor MainWindow::on_actionCreate_cube_triggered ()
{
Point_3 basepoint(nbcube%5, (nbcube/5)%5, nbcube/25);
Dart_descriptor d = make_iso_cuboid(basepoint, 1);
on_new_volume(d);
++nbcube;
statusBar ()->showMessage (QString ("Cube created"),DELAY_STATUSMSG);
Q_EMIT (sceneChanged ());
return d;
}
void MainWindow::on_actionCreate3Cubes_triggered ()
{
Dart_descriptor d1 = make_iso_cuboid (Point_3 (nbcube, nbcube, nbcube),1);
Dart_descriptor d2 = make_iso_cuboid (Point_3 (nbcube + 1, nbcube, nbcube),1);
Dart_descriptor d3 = make_iso_cuboid (Point_3 (nbcube, nbcube + 1, nbcube), 1);
on_new_volume(d1);
on_new_volume(d2);
on_new_volume(d3);
scene.lcc->sew<3>(scene.lcc->beta(d1,1,1,2), scene.lcc->beta(d2,2));
scene.lcc->sew<3>(scene.lcc->beta(d1,2,1,1,2), d3);
++nbcube;
statusBar ()->showMessage (QString ("3 cubes were created"),
DELAY_STATUSMSG);
Q_EMIT (sceneChanged ());
}
void MainWindow::on_actionCreate2Volumes_triggered ()
{
Dart_descriptor d1 = make_iso_cuboid(Point_3(nbcube, nbcube, nbcube),1);
Dart_descriptor d2 = make_iso_cuboid(Point_3(nbcube + 1, nbcube, nbcube), 1);
Dart_descriptor d3 = make_iso_cuboid(Point_3(nbcube, nbcube + 1, nbcube), 1);
Dart_descriptor d4 = make_iso_cuboid(Point_3(nbcube + 1, nbcube + 1, nbcube), 1);
scene.lcc->sew<3>(scene.lcc->beta(d1,1,1,2), scene.lcc->beta(d2,2));
scene.lcc->sew<3>(scene.lcc->beta(d1,2,1,1,2), d3);
scene.lcc->sew<3>(scene.lcc->beta(d3,1,1,2), scene.lcc->beta(d4,2));
scene.lcc->sew<3>(scene.lcc->beta(d2,2,1,1,2), d4);
scene.lcc->remove_cell<2>(d3);
scene.lcc->remove_cell<2>(scene.lcc->beta(d2,2));
on_new_volume(d1);
on_new_volume(d4);
++nbcube;
statusBar ()->showMessage (QString ("2 volumes were created"),
DELAY_STATUSMSG);
Q_EMIT (sceneChanged());
}
void MainWindow::on_actionCreate_mesh_triggered ()
{
dialogmesh.show();
}
void MainWindow::onCreateMeshOk()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
for (int x=0; x<dialogmesh.getX(); ++x)
for (int y=0; y<dialogmesh.getY(); ++y)
for (int z=0; z<dialogmesh.getZ(); ++z)
{
Dart_descriptor d = make_iso_cuboid
(Point_3 (x+nbcube, y+nbcube, z+nbcube), 1);
on_new_volume(d);
}
nbcube+=dialogmesh.getX();
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to create mesh ("<<dialogmesh.getX()<<", "
<<dialogmesh.getY()<<", "<<dialogmesh.getZ()<<"): "
<<timer.time()<<" seconds."<<std::endl;
#endif
statusBar ()->showMessage (QString ("Mesh created"),DELAY_STATUSMSG);
QApplication::restoreOverrideCursor ();
Q_EMIT (sceneChanged ());
}
void MainWindow::on_actionSubdivide_triggered ()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
subdivide_lcc_3(*(scene.lcc));
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to subdivide the current LCC: "
<<timer.time()<<" seconds."<<std::endl;
#endif
QApplication::restoreOverrideCursor ();
Q_EMIT (sceneChanged ());
statusBar ()->showMessage (QString ("Objects were subdivided"),
DELAY_STATUSMSG);
}
void MainWindow::on_actionSubdivide_pqq_triggered ()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
subdivide_lcc_pqq (*(scene.lcc));
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to pqq-subdivide the current LCC: "
<<timer.time()<<" seconds."<<std::endl;
#endif
QApplication::restoreOverrideCursor ();
Q_EMIT (sceneChanged ());
statusBar ()->showMessage (QString ("Objects were subdivided"),
DELAY_STATUSMSG);
}
void MainWindow::on_actionClear_triggered()
{
clear_all();
statusBar ()->showMessage (QString ("Scene cleared"), DELAY_STATUSMSG);
Q_EMIT (sceneChanged ());
}
void MainWindow::on_actionCompute_Voronoi_3D_triggered ()
{
QString fileName = QFileDialog::getOpenFileName (this,
tr ("Voronoi 3D"),
".",
tr ("Data file (*)"));
if (fileName.isEmpty ()) return;
QApplication::setOverrideCursor (Qt::WaitCursor);
this->clear_all();
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
typedef CGAL::Delaunay_triangulation_3 < LCC::Traits > Triangulation;
Triangulation T;
LCC delaunay_lcc;
Dart_descriptor dh;
std::ifstream ifs (qPrintable (fileName));
T.insert (std::istream_iterator < Point_3 >(ifs),
std::istream_iterator < Point_3 >() );
std::map<Triangulation::Cell_handle,
LCC::Dart_descriptor > vol_to_dart;
dh = CGAL::import_from_triangulation_3 < LCC, Triangulation >
(delaunay_lcc, T, &vol_to_dart);
Dart_descriptor ddh=delaunay_lcc.dual(*scene.lcc, dh);
// We transform all the darts in vol_to_dart into their dual.
{
LCC::Dart_range::iterator it1=delaunay_lcc.darts().begin();
LCC::Dart_range::iterator it2=scene.lcc->darts().begin();
std::map<LCC::Dart_descriptor, LCC::Dart_descriptor> dual;
for ( ; it1!=delaunay_lcc.darts().end(); ++it1, ++it2 )
{
dual[it1]=it2;
}
// We update the geometry of dual_lcc by using the std::map face_to_dart.
for ( std::map<Triangulation::Cell_handle, LCC::Dart_descriptor>
::iterator it=vol_to_dart.begin(), itend=vol_to_dart.end();
it!=itend; ++it)
{
vol_to_dart[it->first]=dual[it->second];
if ( !T.is_infinite(it->first) )
scene.lcc->set_vertex_attribute
(it->second,scene.lcc->create_vertex_attribute(T.dual(it->first)));
/* else
alcc.set_vertex_attribute(it->second,alcc.create_vertex_attribute());*/
}
}
// We remove the infinite volume and all its adjacent volumes.
{
std::stack<Dart_descriptor> toremove;
LCC::size_type mark_toremove=scene.lcc->get_new_mark();
toremove.push(ddh);
CGAL::mark_cell<LCC,3>(*scene.lcc, ddh, mark_toremove);
for (LCC::Dart_of_cell_range<3>::iterator
it=scene.lcc->darts_of_cell<3>(ddh).begin(),
itend=scene.lcc->darts_of_cell<3>(ddh).end(); it!=itend; ++it)
{
if ( !scene.lcc->is_marked(scene.lcc->beta(it,3), mark_toremove) )
{
CGAL::mark_cell<LCC,3>(*scene.lcc,
scene.lcc->beta(it,3), mark_toremove);
toremove.push(scene.lcc->beta(it,3));
}
}
while( !toremove.empty() )
{
scene.lcc->remove_cell<3>(toremove.top());
toremove.pop();
}
CGAL_assertion(scene.lcc->is_whole_map_unmarked(mark_toremove));
scene.lcc->free_mark(mark_toremove);
}
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to compute Voronoi 3D from "<<qPrintable(fileName)<<": "
<<timer.time()<<" seconds."<<std::endl;
#endif
init_all_new_volumes();
QApplication::restoreOverrideCursor ();
Q_EMIT (sceneChanged ());
statusBar ()->showMessage (QString ("Voronoi 3D of points in ") + fileName,
DELAY_STATUSMSG);
}
void MainWindow::on_actionDual_3_triggered ()
{
if ( !scene.lcc->is_without_boundary(3) )
{
statusBar()->showMessage
(QString ("Dual impossible: the lcc has some 3-boundary"),
DELAY_STATUSMSG);
return;
}
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
LCC* duallcc = new LCC;
scene.lcc->dual_points_at_barycenter(*duallcc);
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to compute the dual: "
<<timer.time()<<" seconds."<<std::endl;
#endif
this->clear_all();
delete scene.lcc;
scene.lcc = duallcc;
this->viewer->setScene(&scene);
init_all_new_volumes();
statusBar ()->showMessage (QString ("Dual_3 computed"), DELAY_STATUSMSG);
QApplication::restoreOverrideCursor ();
Q_EMIT (sceneChanged ());
}
void MainWindow::on_actionClose_volume_triggered()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
if ( scene.lcc->close<3>() > 0 )
{
init_all_new_volumes();
statusBar ()->showMessage (QString ("All volume(s) closed"),
DELAY_STATUSMSG);
Q_EMIT (sceneChanged ());
}
else
statusBar ()->showMessage
(QString ("LCC already 3-closed"), DELAY_STATUSMSG);
QApplication::restoreOverrideCursor ();
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to 3-close the current lcc: "
<<timer.time()<<" seconds."<<std::endl;
#endif
}
void MainWindow::on_actionSew3_same_facets_triggered()
{
LCC::size_type mymark = scene.lcc->get_new_mark();
mark_all_filled_and_visible_volumes(mymark);
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
if ( scene.lcc->sew3_same_facets(mymark) > 0 )
{
statusBar()->showMessage
(QString ("Same facets of visible and filled volume(s) are 3-sewn"),
DELAY_STATUSMSG);
Q_EMIT (sceneChanged ());
}
else
statusBar()->showMessage (QString ("No facets 3-sewn"), DELAY_STATUSMSG);
scene.lcc->free_mark(mymark);
QApplication::restoreOverrideCursor ();
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to sew3 all same facets: "
<<timer.time()<<" seconds."<<std::endl;
#endif
}
void MainWindow::on_actionUnsew3_all_triggered()
{
unsigned int nb=0;
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
for (LCC::Dart_range::iterator it=scene.lcc->darts().begin();
it!=scene.lcc->darts().end(); ++it)
{
if ( !scene.lcc->is_free(it,3) &&
scene.lcc->info<3>(it).is_filled_and_visible() &&
scene.lcc->info<3>(scene.lcc->beta(it,3))
.is_filled_and_visible())
{ scene.lcc->unsew<3>(it); ++nb; }
}
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to unsew3 all filled volumes: "
<<timer.time()<<" seconds."<<std::endl;
#endif
QApplication::restoreOverrideCursor ();
if ( nb > 0 )
{
statusBar()->showMessage
(QString ("Darts between visible and filled volume(s) are 3-unsewn"),
DELAY_STATUSMSG);
Q_EMIT (sceneChanged ());
}
else
statusBar()->showMessage (QString ("No dart 3-unsewn"), DELAY_STATUSMSG);
}
void MainWindow::on_actionInsideOut_triggered()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
LCC::size_type mymark=scene.lcc->get_new_mark();
for (LCC::Attribute_range<3>::type::iterator
it=scene.lcc->attributes<3>().begin(),
itend=scene.lcc->attributes<3>().end(); it!=itend; )
{
LCC::Attribute_descriptor<3>::type cur = it++;
if( !scene.lcc->is_marked(scene.lcc->get_attribute<3>(cur).dart(), mymark) &&
scene.lcc->get_attribute<3>(cur).info().is_filled_and_visible() )
{
scene.lcc->reverse_orientation_connected_component
(scene.lcc->get_attribute<3>(cur).dart(), mymark);
}
}
// unmark all the darts by iterating on all the darts
// but we cannot do really better
scene.lcc->free_mark(mymark);
QApplication::restoreOverrideCursor ();
Q_EMIT( sceneChanged());
statusBar()->showMessage
(QString("Orientation of visible and filled volume(s) reversed"),
DELAY_STATUSMSG);
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to reverse the orientation of all filled volumes: "
<<timer.time()<<" seconds."<<std::endl;
#endif
}
void MainWindow::on_actionRemove_filled_volumes_triggered()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
unsigned int count = 0;
for (LCC::Attribute_range<3>::type::iterator
it=scene.lcc->attributes<3>().begin(),
itend=scene.lcc->attributes<3>().end(); it!=itend; )
{
LCC::Attribute_descriptor<3>::type cur = it++;
if( scene.lcc->get_attribute<3>(cur).info().is_filled_and_visible() )
{
scene.lcc->remove_cell<3>(scene.lcc->get_attribute<3>(cur).dart());
++count;
}
}
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to remove all filled volumes: "
<<timer.time()<<" seconds."<<std::endl;
#endif
recreate_whole_volume_list();
QApplication::restoreOverrideCursor ();
Q_EMIT( sceneChanged());
statusBar()->showMessage
(QString::number(count)+QString("Visible and filled volume(s) removed"),
DELAY_STATUSMSG);
}
void MainWindow::on_actionInsert_center_vertices_triggered()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
std::vector<LCC::Dart_descriptor> v;
for (LCC::One_dart_per_cell_range<2>::iterator
it(scene.lcc->one_dart_per_cell<2>().begin()); it.cont(); ++it)
{
if ( scene.lcc->info<3>(it).is_filled_and_visible() )
v.push_back(it);
}
for (std::vector<LCC::Dart_descriptor>::iterator itv(v.begin());
itv!=v.end(); ++itv)
scene.lcc->insert_barycenter_in_cell<2>(*itv);
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to insert center vertices in all filled faces: "
<<timer.time()<<" seconds."<<std::endl;
#endif
QApplication::restoreOverrideCursor ();
Q_EMIT (sceneChanged ());
statusBar()->showMessage
(QString ("Vertices are inserted in center of facets of visible and filled volume(s)"),
DELAY_STATUSMSG);
}
double compute_angle3d(const Vector_3& v1, const Vector_3& v2)
{
double a = CGAL::to_double( (v1*v2) /
( sqrt(v1.squared_length()) * sqrt(v2.squared_length()) ) ) ;
if (a < -1.0) return acos(-1.0)/CGAL_PI*180.0;
else if (a > 1.0) return acos(1.0)/CGAL_PI*180.0;
else return acos(a)/CGAL_PI*180.0;
}
void MainWindow::on_actionMerge_coplanar_faces_triggered()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
scene.lcc->set_automatic_attributes_management(false);
std::vector<Dart_descriptor> edges;
LCC::size_type treated = scene.lcc->get_new_mark();
LCC::size_type treated2 = scene.lcc->get_new_mark();
for ( LCC::Dart_range::iterator it= scene.lcc->darts().begin(),
itend = scene.lcc->darts().end(); it!=itend; ++it )
{
if (!scene.lcc->is_marked(it, treated) )
{
if ( scene.lcc->is_removable<1>(it) )
{
LCC::Vector normal1 = CGAL::compute_normal_of_cell_2(*scene.lcc,it);
LCC::Vector normal2 = CGAL::compute_normal_of_cell_2(*scene.lcc, scene.lcc->beta<2>(it) );
double angle = compute_angle3d(normal1, normal2);
if ( ((angle<5.0 || angle>355.0) || (angle<185.0 && angle>175.0)) )
{
edges.push_back(it);
}
}
CGAL::mark_cell<LCC, 1>(*scene.lcc, it, treated);
}
}
for (std::vector<Dart_descriptor>::iterator it=edges.begin(),
itend=edges.end(); it!=itend; ++it)
{
CGAL::mark_cell<LCC, 1>(*scene.lcc, *it, treated2);
if ( scene.lcc->beta<0, 2>(*it)==*it || scene.lcc->beta<1, 2>(*it)==*it)
{ // To process dangling edges
Dart_descriptor actu = *it, prev=LCC::null_descriptor;
do
{
if ( scene.lcc->beta<0, 2>(actu)==actu ) prev = scene.lcc->beta<1>(actu);
else prev = scene.lcc->beta<0>(actu);
if (scene.lcc->is_marked(actu, treated2) &&
(scene.lcc->beta<0, 2>(actu)!=actu || scene.lcc->beta<1, 2>(actu)!=actu) )
{
scene.lcc->remove_cell<1>(actu);
actu = prev;
}
else
actu=LCC::null_descriptor;
}
while (actu!=LCC::null_descriptor && (scene.lcc->beta<0, 2>(actu)==actu || scene.lcc->beta<1, 2>(actu)==actu));
}
else if ( !CGAL::belong_to_same_cell<LCC, 2>(*scene.lcc, *it,
scene.lcc->beta<2>(*it)) )
scene.lcc->remove_cell<1>(*it);
}
assert(scene.lcc->is_whole_map_marked(treated));
scene.lcc->free_mark(treated);
scene.lcc->free_mark(treated2);
scene.lcc->set_automatic_attributes_management(true);
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to merge all coplanar faces: "
<<timer.time()<<" seconds."<<std::endl;
#endif
recreate_whole_volume_list();
QApplication::restoreOverrideCursor ();
Q_EMIT (sceneChanged ());
statusBar()->showMessage
(QString ("Coplanar face(s) merged"), DELAY_STATUSMSG);
}
void MainWindow::on_actionMerge_all_volumes_triggered()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
LCC::Dart_range::iterator prev;
bool first = true;
scene.lcc->set_automatic_attributes_management(false);
for (LCC::Dart_range::iterator it(scene.lcc->darts().begin()),
itend=scene.lcc->darts().end(); it!=itend; )
{
if ( !scene.lcc->is_free(it,3) &&
scene.lcc->info<3>(it).is_filled_and_visible() &&
scene.lcc->info<3>(scene.lcc->beta(it,3))
.is_filled_and_visible() )
{
scene.lcc->remove_cell<2>(it);
itend=scene.lcc->darts().end();
if ( first ) it=scene.lcc->darts().begin();
else
{
it=prev;
if ( it!=itend ) ++it;
}
}
else
{
first=false;
prev=it;
++it;
}
}
scene.lcc->set_automatic_attributes_management(true);
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to merge all filled volumes: "
<<timer.time()<<" seconds."<<std::endl;
#endif
recreate_whole_volume_list();
QApplication::restoreOverrideCursor ();
Q_EMIT (sceneChanged ());
statusBar()->showMessage
(QString ("Visible and filled volume(s) merged"), DELAY_STATUSMSG);
}
bool is_external(CDT::Face_handle fh)
{
return fh->info().is_external;
}
int number_of_existing_edge(CDT::Face_handle fh)
{
unsigned res=0;
for (int i=0; i<3; ++i)
if (fh->info().exist_edge[i]) ++res;
return res;
}
int get_free_edge(CDT::Face_handle fh)
{
CGAL_assertion( number_of_existing_edge(fh)==2 );
for (int i=0; i<3; ++i)
if (!fh->info().exist_edge[i]) return i;
CGAL_assertion(false);
return -1;
}
void constrained_delaunay_triangulation(LCC &lcc, Dart_descriptor d1)
{
Vector_3 normal = CGAL::compute_normal_of_cell_2(lcc,d1);
P_traits cdt_traits(normal);
CDT cdt(cdt_traits);
//inserting the constraints edge by edge
LCC::Dart_of_orbit_range<1>::iterator
it(lcc.darts_of_orbit<1>(d1).begin());
CDT::Vertex_handle previous=nullptr, first=nullptr, vh=nullptr;
for (LCC::Dart_of_orbit_range<1>::iterator
itend(lcc.darts_of_orbit<1>(d1).end()); it!=itend; ++it)
{
vh = cdt.insert(lcc.point(it));
vh->info().dh=it;
if(first==nullptr)
{
first=vh;
}
if(previous!=nullptr)
{
CGAL_assertion( previous !=vh );
cdt.insert_constraint(previous,vh);
}
previous=vh;
}
cdt.insert_constraint(previous,first);
CGAL_assertion(cdt.is_valid());
// sets mark is_external
for( CDT::All_faces_iterator fit = cdt.all_faces_begin(),
fitend = cdt.all_faces_end(); fit != fitend; ++fit)
{
fit->info().is_external = true;
fit->info().is_process = false;
fit->info().exist_edge[0]=false;
fit->info().exist_edge[1]=false;
fit->info().exist_edge[2]=false;
}
std::queue<CDT::Face_handle> face_queue;
CDT::Face_handle face_internal=nullptr;
face_queue.push(cdt.infinite_vertex()->face());
while(! face_queue.empty() )
{
CDT::Face_handle fh = face_queue.front();
face_queue.pop();
if(!fh->info().is_process)
{
fh->info().is_process = true;
for(int i = 0; i <3; ++i)
{
if(!cdt.is_constrained(std::make_pair(fh, i)))
{
face_queue.push(fh->neighbor(i));
}
else if (face_internal==nullptr)
{
face_internal = fh->neighbor(i);
}
}
}
}
if (face_internal!=nullptr)
face_queue.push(face_internal);
while(! face_queue.empty() )
{
CDT::Face_handle fh = face_queue.front();
face_queue.pop();
if(!fh->info().is_process)
{
fh->info().is_process = true;
fh->info().is_external = false;
for(int i = 0; i <3; ++i)
{
if(!cdt.is_constrained(std::make_pair(fh, i)))
{
face_queue.push(fh->neighbor(i));
}
}
}
}
for( CDT::Finite_edges_iterator eit = cdt.finite_edges_begin(),
eitend = cdt.finite_edges_end(); eit != eitend; ++eit)
{
CDT::Face_handle fh = eit->first;
int index = eit->second;
CDT::Face_handle opposite_fh = fh->neighbor(index);
if(cdt.is_constrained(std::make_pair(fh, index)))
{
fh->info().exist_edge[index]=true;
opposite_fh->info().exist_edge[cdt.mirror_index(fh,index)]=true;
if ( !fh->info().is_external && number_of_existing_edge(fh)==2 )
face_queue.push(fh);
if ( !opposite_fh->info().is_external &&
number_of_existing_edge(opposite_fh)==2 )
face_queue.push(opposite_fh);
}
}
while( !face_queue.empty() )
{
CDT::Face_handle fh = face_queue.front();
face_queue.pop();
CGAL_assertion( number_of_existing_edge(fh)>=2 ); // i.e. ==2 or ==3
CGAL_assertion( !fh->info().is_external );
if (number_of_existing_edge(fh)==2)
{
int index = get_free_edge(fh);
CDT::Face_handle opposite_fh = fh->neighbor(index);
CGAL_assertion( !fh->info().exist_edge[index] );
CGAL_assertion( !opposite_fh->info().
exist_edge[cdt.mirror_index(fh,index)] );
// triangle is (vc, vb, va)
const CDT::Vertex_handle va = fh->vertex(cdt. cw(index));
const CDT::Vertex_handle vb = fh->vertex(cdt.ccw(index));
const CDT::Vertex_handle vc = fh->vertex(index);
Dart_descriptor dd1 = LCC::null_descriptor;
for (LCC::Dart_of_cell_range<0, 2>::iterator it(lcc.darts_of_cell<0, 2>(va->info().dh).begin());
dd1==LCC::null_descriptor && it.cont(); ++it)
{
if (lcc.point(lcc.beta<1>(it))==vc->point())
dd1=it;
}
Dart_descriptor dd2 = LCC::null_descriptor;
for (LCC::Dart_of_cell_range<0, 2>::iterator it(lcc.darts_of_cell<0, 2>(vb->info().dh).begin());
dd2==LCC::null_descriptor && it.cont(); ++it)
{
if (lcc.point(lcc.beta<0>(it))==vc->point())
dd2=it;
}
// assert(((lcc.beta<0,0>(dd1)==dd2) || lcc.beta<1,1>(dd1)==dd2));
Dart_descriptor ndart=lcc.insert_cell_1_in_cell_2(dd1, dd2);
va->info().dh=lcc.beta<2>(ndart);
fh->info().exist_edge[index]=true;
opposite_fh->info().exist_edge[cdt.mirror_index(fh,index)]=true;
if ( !opposite_fh->info().is_external &&
number_of_existing_edge(opposite_fh)==2 )
face_queue.push(opposite_fh);
}
}
}
void MainWindow::on_actionTriangulate_all_facets_triggered()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
std::vector<LCC::Dart_descriptor> v;
for (LCC::One_dart_per_cell_range<2>::iterator
it(scene.lcc->one_dart_per_cell<2>().begin()); it.cont(); ++it)
{
if ( scene.lcc->info<3>(it).is_filled_and_visible() ||
(!scene.lcc->is_free<3>(it) &&
scene.lcc->info<3>(scene.lcc->beta<3>(it)).is_filled_and_visible()) )
v.push_back(it);
}
for (std::vector<LCC::Dart_descriptor>::iterator itv(v.begin());
itv!=v.end(); ++itv)
constrained_delaunay_triangulation(*scene.lcc, *itv);
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Time to triangulate all filled faces: "
<<timer.time()<<" seconds."<<std::endl;
#endif
recreate_whole_volume_list();
QApplication::restoreOverrideCursor ();
Q_EMIT (sceneChanged ());
statusBar()->showMessage
(QString ("All visible and filled faces were triangulated"), DELAY_STATUSMSG);
}
bool MainWindow::is_volume_in_list(LCC::Attribute_descriptor<3>::type ah)
{
for(int row=0; row < volumeList->rowCount(); ++row)
{
LCC::Attribute_type<3>::type* ptr=
reinterpret_cast<LCC::Attribute_type<3>::type*>
( volumeList->item(row,3)->data(Qt::UserRole).value<quintptr>() );
if(ptr==&(scene.lcc->get_attribute<3>(ah))) return true;
}
return false;
}
void MainWindow::update_volume_list_add(LCC::Attribute_descriptor<3>::type ah)
{
// CGAL_assertion( !is_volume_in_list(ah) );
volumeList->disconnect(this);
int newRow = volumeList->rowCount();
volumeList->setRowCount(newRow+1);
QTableWidgetItem* volumeLabel = new QTableWidgetItem
(QString((scene.lcc->get_attribute<3>(ah).info().color_name().c_str())));
volumeLabel->setFlags(Qt::ItemIsEnabled | Qt::ItemIsSelectable);
volumeLabel->setTextAlignment(Qt::AlignRight|Qt::AlignVCenter);
volumeList->setItem(newRow,0,volumeLabel);
QTableWidgetItem* fillCB = new QTableWidgetItem;
fillCB->setFlags(Qt::ItemIsUserCheckable | Qt::ItemIsEnabled);
if ( scene.lcc->get_attribute<3>(ah).info().is_filled() )
fillCB->setCheckState(Qt::Checked);
else
fillCB->setCheckState(Qt::Unchecked);
volumeList->setItem(newRow,1, fillCB);
QTableWidgetItem* hiddenCB = new QTableWidgetItem();
hiddenCB->setFlags(Qt::ItemIsUserCheckable | Qt::ItemIsEnabled);
if ( scene.lcc->get_attribute<3>(ah).info().is_visible() )
hiddenCB->setCheckState(Qt::Unchecked);
else
hiddenCB->setCheckState(Qt::Checked);
volumeList->setItem(newRow,2,hiddenCB);
QTableWidgetItem* attribHandle = new QTableWidgetItem;
attribHandle->setData
(Qt::UserRole,
reinterpret_cast<quintptr>(&scene.lcc->get_attribute<3>(ah)));
volumeList->setItem(newRow,3,attribHandle);
connectVolumeListHandlers();
}
void MainWindow::update_volume_list_remove(int i)
{
CGAL_assertion(i<volumeList->rowCount());
volumeList->removeRow(i);
}
void MainWindow::update_volume_list_remove(LCC::Attribute_descriptor<3>::type ah)
{
for(int row=0; row < volumeList->rowCount(); ++row)
{
LCC::Attribute_type<3>::type* ptr=
reinterpret_cast<LCC::Attribute_type<3>::type*>
( volumeList->item(row,3)->data(Qt::UserRole).value<quintptr>() );
if(ptr==&scene.lcc->get_attribute<3>(ah))
{
update_volume_list_remove(row);
return;
}
}
}
void MainWindow::update_volume_list_all_ckeckstates()
{
volumeList->disconnect(this);
for(int row=0; row < volumeList->rowCount(); ++row)
{
LCC::Attribute_type<3>::type* ptr=
reinterpret_cast<LCC::Attribute_type<3>::type*>
( volumeList->item(row,3)->data(Qt::UserRole).value<quintptr>() );
if ( ptr->info().is_filled() )
volumeList->item(row,1)->setCheckState(Qt::Checked);
else
volumeList->item(row,1)->setCheckState(Qt::Unchecked);
if ( !ptr->info().is_visible() )
volumeList->item(row,2)->setCheckState(Qt::Checked);
else
volumeList->item(row,2)->setCheckState(Qt::Unchecked);
}
connectVolumeListHandlers();
}
void MainWindow::recreate_whole_volume_list()
{
volumeList->clearContents();
volumeList->setRowCount(0);
for (LCC::Attribute_range<3>::type::iterator
it=scene.lcc->attributes<3>().begin(),
itend=scene.lcc->attributes<3>().end(); it!=itend; ++it)
update_volume_list_add(it);
}
void MainWindow::onCellChanged(int row, int col)
{
volumeList->disconnect(this);
LCC::Attribute_type<3>::type* ptr=
reinterpret_cast<LCC::Attribute_type<3>::type*>
( volumeList->item(row,3)->data(Qt::UserRole).value<quintptr>() );
if ( col==1 )
{
ptr->info().negate_filled();
}
else if ( col==2 )
{
ptr->info().negate_visible();
if ( !ptr->info().is_visible() )
volumeList->item(row,1)->setFlags
(volumeList->item(row,1)->flags()^Qt::ItemIsEnabled);
else
volumeList->item(row,1)->setFlags
(volumeList->item(row,1)->flags()|Qt::ItemIsEnabled);
}
connectVolumeListHandlers();
Q_EMIT( sceneChanged());
}
void MainWindow::onHeaderClicked(int col)
{
if(col != 0)
{
volumeList->disconnect(this);
for(int i = 0; i < volumeList->rowCount(); ++i)
{
LCC::Attribute_type<3>::type* ptr=
reinterpret_cast<LCC::Attribute_type<3>::type*>
( volumeList->item(i,3)->data(Qt::UserRole).value<quintptr>() );
switch(qApp->keyboardModifiers())
{
case(Qt::ShiftModifier):
if (col==1)
ptr->info().set_filled(false);
else if (col==2)
{
ptr->info().set_visible(true);
volumeList->item(i,1)->setFlags
(volumeList->item(i,1)->flags()|Qt::ItemIsEnabled);
}
volumeList->item(i,col)->setCheckState(Qt::Unchecked);
break;
case(Qt::ControlModifier):
if (col==1)
ptr->info().negate_filled();
else if (col==2)
{
ptr->info().negate_visible();
if ( !ptr->info().is_visible() )
volumeList->item(i,1)->setFlags
(volumeList->item(i,1)->flags()^Qt::ItemIsEnabled);
else
volumeList->item(i,1)->setFlags
(volumeList->item(i,1)->flags()|Qt::ItemIsEnabled);
}
volumeList->item(i,col)->
setCheckState(volumeList->item(i,col)->checkState() ?
Qt::Unchecked: Qt::Checked);
break;
default:
if (col==1)
ptr->info().set_filled(true);
else if (col==2)
{
if ( ptr->info().is_visible() )
{
ptr->info().set_visible(false);
volumeList->item(i,1)->setFlags
(volumeList->item(i,1)->flags()^Qt::ItemIsEnabled);
}
}
volumeList->item(i,col)->setCheckState(Qt::Checked);
break;
}
}
connectVolumeListHandlers();
Q_EMIT( sceneChanged());
}
}
void MainWindow::mark_all_filled_and_visible_volumes(LCC::size_type amark)
{
for (LCC::Attribute_range<3>::type::iterator
it=scene.lcc->attributes<3>().begin(),
itend=scene.lcc->attributes<3>().end(); it!=itend; ++it)
{
if ( scene.lcc->get_attribute<3>(it).info().is_filled_and_visible() &&
!scene.lcc->is_marked(it->dart(), amark) )
CGAL::mark_cell<LCC,3>(*scene.lcc,
scene.lcc->get_attribute<3>(it).dart(), amark);
}
}
void MainWindow::on_actionExtend_filled_volumes_triggered()
{
volumeList->disconnect(this);
std::vector<LCC::Attribute_descriptor<3>::type> tofill;
LCC::size_type mark_volume = scene.lcc->get_new_mark();
bool already_tofill;
for (LCC::Attribute_range<3>::type::iterator
it=scene.lcc->attributes<3>().begin(),
itend=scene.lcc->attributes<3>().end(); it!=itend; ++it)
{
if ( !scene.lcc->is_marked(it->dart(), mark_volume) )
{
if ( !scene.lcc->get_attribute<3>(it).info().is_filled() )
{
already_tofill = false;
for (LCC::Dart_of_cell_basic_range<3>::iterator it2=
scene.lcc->darts_of_cell_basic<3>(it->dart(), mark_volume).begin();
it2.cont(); ++it2 )
{
scene.lcc->mark(it2, mark_volume);
if ( !scene.lcc->is_free(it2,3) &&
scene.lcc->info<3>(scene.lcc->beta(it2,3)).
is_filled() && !already_tofill)
{
tofill.push_back(scene.lcc->attribute<3>(it2));
already_tofill = true;
}
}
}
else
CGAL::mark_cell<LCC,3>(*scene.lcc, it->dart(), mark_volume);
}
}
CGAL_assertion( scene.lcc->is_whole_map_marked(mark_volume) );
scene.lcc->free_mark(mark_volume);
if ( tofill.size()>0 )
{
for ( std::vector<LCC::Attribute_descriptor<3>::type>::iterator
it=tofill.begin(), itend=tofill.end(); it!=itend; ++it )
{
scene.lcc->get_attribute<3>(*it).info().set_filled(true);
}
update_volume_list_all_ckeckstates();
Q_EMIT( sceneChanged());
}
connectVolumeListHandlers();
}
void MainWindow::on_actionExtend_hidden_volumes_triggered()
{
volumeList->disconnect(this);
std::vector<LCC::Attribute_descriptor<3>::type> tohide;
LCC::size_type mark_volume = scene.lcc->get_new_mark();
bool already_tohide;
for (LCC::Attribute_range<3>::type::iterator
it=scene.lcc->attributes<3>().begin(),
itend=scene.lcc->attributes<3>().end(); it!=itend; ++it)
{
if ( !scene.lcc->is_marked(it->dart(), mark_volume) )
{
if ( scene.lcc->get_attribute<3>(it).info().is_visible() )
{
already_tohide = false;
for (LCC::Dart_of_cell_basic_range<3>::iterator it2=
scene.lcc->darts_of_cell_basic<3>(it->dart(), mark_volume).begin();
it2.cont(); ++it2 )
{
scene.lcc->mark(it2, mark_volume);
if ( !scene.lcc->is_free(it2,3) &&
!scene.lcc->info<3>(scene.lcc->beta(it2,3)).
is_visible() && !already_tohide)
{
tohide.push_back(scene.lcc->attribute<3>(it2));
already_tohide = true;
}
}
}
else
CGAL::mark_cell<LCC,3>(*scene.lcc, it->dart(), mark_volume);
}
}
CGAL_assertion( scene.lcc->is_whole_map_marked(mark_volume) );
scene.lcc->free_mark(mark_volume);
if ( tohide.size()>0 )
{
for ( std::vector<LCC::Attribute_descriptor<3>::type>::iterator
it=tohide.begin(), itend=tohide.end(); it!=itend; ++it )
{
scene.lcc->get_attribute<3>(*it).info().set_visible(false);
}
update_volume_list_all_ckeckstates();
Q_EMIT( sceneChanged());
}
connectVolumeListHandlers();
}
void MainWindow::on_actionCreate_Menger_Sponge_triggered ()
{
dialogmenger.mengerLevel->disconnect(this);
mengerUpdateAttributes = dialogmenger.updateAttributes->isChecked();
dialogmenger.mengerLevel->setValue(0);
mengerLevel=0;
CGAL_assertion( mengerVolumes.empty() );
mengerVolumes.push_back(on_actionCreate_cube_triggered());
update_operations_entries(false);
QObject::connect(dialogmenger.mengerLevel, SIGNAL(valueChanged(int)),
this, SLOT(onMengerChange(int)));
dialogmenger.show();
}
void MainWindow::onMengerCancel()
{
for(std::vector<Dart_descriptor>::iterator it=mengerVolumes.begin();
it!=mengerVolumes.end(); ++it)
{
scene.lcc->remove_cell<3>(*it);
}
recreate_whole_volume_list();
mengerVolumes.clear();
update_operations_entries(true);
statusBar()->showMessage (QString ("Menger sponge creation canceled"),
DELAY_STATUSMSG);
Q_EMIT( sceneChanged());
}
void MainWindow::onMengerOk()
{
update_operations_entries(true);
mengerVolumes.clear();
}
void MainWindow::onMengerChange(int newLevel)
{
while ( newLevel > mengerLevel ) onMengerInc();
while ( newLevel < mengerLevel ) onMengerDec();
}
void MainWindow::onMengerUpdateAttributes(bool newValue)
{
mengerUpdateAttributes = newValue;
}
void MainWindow::onMengerInc()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
this->mengerLevel++;
if (!mengerUpdateAttributes)
{
scene.lcc->set_automatic_attributes_management(false);
}
std::vector<Dart_descriptor> edges;
std::vector<Dart_descriptor> faces;
std::size_t nbvolinit = mengerVolumes.size();
LCC::size_type markEdges = (scene.lcc)->get_new_mark();
LCC::size_type markFaces = (scene.lcc)->get_new_mark();
LCC::size_type markVols = (scene.lcc)->get_new_mark();
for(std::vector<Dart_descriptor>::iterator itvol=mengerVolumes.begin();
itvol!=mengerVolumes.end(); ++itvol)
{
CGAL_assertion( !(scene.lcc)->is_marked(*itvol, markVols) );
for (LCC::Dart_of_cell_basic_range<3>::iterator
it=(scene.lcc)->darts_of_cell_basic<3>(*itvol, markVols).begin(),
itend=(scene.lcc)->darts_of_cell_basic<3>(*itvol, markVols).end();
it!=itend; ++it)
{
if ( !(scene.lcc)->is_marked(it, markEdges) )
{
edges.push_back(it);
CGAL::mark_cell<LCC,1>(*(scene.lcc), it, markEdges);
}
if ( !(scene.lcc)->is_marked(it, markFaces) )
{
faces.push_back(it);
CGAL::mark_cell<LCC,2>(*(scene.lcc), it, markFaces);
}
}
}
(scene.lcc)->negate_mark(markVols);
for(std::vector<Dart_descriptor>::iterator itvol=mengerVolumes.begin();
itvol!=mengerVolumes.end(); ++itvol)
{
for (LCC::Dart_of_cell_basic_range<3>::iterator
it=(scene.lcc)->darts_of_cell_basic<3>(*itvol, markVols).begin(),
itend=(scene.lcc)->darts_of_cell_basic<3>(*itvol, markVols).end();
it!=itend; ++it)
{
(scene.lcc)->unmark(it, markEdges);
(scene.lcc)->unmark(it, markFaces);
}
}
(scene.lcc)->negate_mark(markVols);
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markVols) );
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markFaces) );
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markEdges) );
(scene.lcc)->free_mark(markEdges);
(scene.lcc)->free_mark(markFaces);
(scene.lcc)->free_mark(markVols);
for(std::size_t i = 0; i < edges.size(); i++)
{
split_edge_in_three(edges[i]);
}
edges.clear();
for(std::size_t i = 0; i < faces.size(); i++)
{
split_face_in_nine(faces[i]);
}
faces.clear();
for(std::size_t i = 0; i < nbvolinit; i++)
{
split_vol_in_twentyseven(mengerVolumes[i]);
}
if (!mengerUpdateAttributes)
{
for(std::size_t i = nbvolinit; i < mengerVolumes.size(); i++)
{
LCC::Attribute_descriptor<3>::type ah = (scene.lcc)->create_attribute<3>();
scene.lcc->set_attribute<3>(mengerVolumes[i], ah);
scene.lcc->info<3>(mengerVolumes[i]).color()=
(CGAL::IO::Color(myrandom.get_int(0,256),
myrandom.get_int(0,256),
myrandom.get_int(0,256)));
update_volume_list_add(scene.lcc->attribute<3>(mengerVolumes[i]));
}
scene.lcc->set_automatic_attributes_management(true);
}
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Menger sponge "
<<this->mengerLevel-1<<" -> "<<this->mengerLevel<<", "
<<"attributes updated "
<<(mengerUpdateAttributes ? "DURING" : "AFTER")
<< " construction: "
<<timer.time()<<" seconds."<<std::endl;
#endif
CGAL_assertion( (scene.lcc)->is_valid() );
QApplication::restoreOverrideCursor ();
statusBar()->showMessage(QString ("Menger sponge creation %1 -> %2").
arg(this->mengerLevel-1).arg(this->mengerLevel),
DELAY_STATUSMSG);
Q_EMIT( sceneChanged());
}
void MainWindow::split_edge_in_three(Dart_descriptor dh)
{
LCC::Point p1 = scene.lcc->point(dh);
LCC::Point p2 = scene.lcc->point(scene.lcc->other_extremity(dh));
LCC::Vector v1 = LCC::Traits::Construct_vector() (p1,p2);
LCC::Vector v2 = LCC::Traits::Construct_scaled_vector() (v1,1.0/3);
LCC::Vector v3 = LCC::Traits::Construct_scaled_vector() (v1,2.0/3);
LCC::Point p3 = LCC::Traits::Construct_translated_point() (p1,v2);
LCC::Point p4 = LCC::Traits::Construct_translated_point() (p1,v3);
(scene.lcc)->insert_point_in_cell<1>(dh,p4);
(scene.lcc)->insert_point_in_cell<1>(dh,p3);
}
void MainWindow::split_face_in_three(Dart_descriptor dh)
{
scene.lcc->insert_cell_1_in_cell_2(scene.lcc->beta(dh,1,1,1),
scene.lcc->beta(dh,0,0));
scene.lcc->insert_cell_1_in_cell_2(scene.lcc->beta(dh,1,1),
scene.lcc->beta(dh,0));
}
void MainWindow::split_face_in_nine(Dart_descriptor dh)
{
Dart_descriptor d2 = scene.lcc->beta(dh,1,1,1,1,1,1,1);
Dart_descriptor e2= scene.lcc->insert_cell_1_in_cell_2
(scene.lcc->beta(dh,1,1),d2);
Dart_descriptor e1= scene.lcc->insert_cell_1_in_cell_2
(scene.lcc->beta(dh,1),scene.lcc->beta(d2,1));
split_edge_in_three(e1);
split_edge_in_three(e2);
split_face_in_three(dh);
split_face_in_three(d2);
split_face_in_three(scene.lcc->beta(e2,0));
}
void MainWindow::split_vol_in_three(Dart_descriptor dh, bool removecenter)
{
std::vector<Dart_descriptor> edges1;
std::vector<Dart_descriptor> edges2;
Dart_descriptor curd = scene.lcc->beta(dh,2,1,1,2);
for (unsigned int i=0;i<4;++i)
{
edges1.push_back(curd);
curd=scene.lcc->beta(curd,1,2,1);
}
CGAL_assertion( curd==scene.lcc->beta(dh,2,1,1,2) );
curd = scene.lcc->beta(curd,1,1,2);
for (unsigned int i=0;i<4;++i)
{
edges2.push_back(curd);
curd=scene.lcc->beta(curd,1,2,1);
}
CGAL_assertion( curd==
scene.lcc->beta(dh,2,1,1,2,1,1,2) );
Dart_descriptor f1=
scene.lcc->insert_cell_2_in_cell_3(edges1.begin(),edges1.end());
Dart_descriptor f2=
scene.lcc->insert_cell_2_in_cell_3(edges2.begin(),edges2.end());
if (scene.lcc->are_attributes_automatically_managed())
{
scene.lcc->info<3>(f1).color()=
(CGAL::IO::Color(myrandom.get_int(0,256),
myrandom.get_int(0,256),
myrandom.get_int(0,256)));
scene.lcc->info<3>(f2).color()=
(CGAL::IO::Color(myrandom.get_int(0,256),
myrandom.get_int(0,256),
myrandom.get_int(0,256)));
update_volume_list_add(scene.lcc->attribute<3>(dh));
}
if ( removecenter )
scene.lcc->remove_cell<3>(f1);
else
{
mengerVolumes.push_back(f1);
if (scene.lcc->are_attributes_automatically_managed())
update_volume_list_add(scene.lcc->attribute<3>(f1));
}
mengerVolumes.push_back(f2);
}
void MainWindow::split_vol_in_nine(Dart_descriptor dh, bool removecenter)
{
std::vector<Dart_descriptor> edges1;
std::vector<Dart_descriptor> edges2;
Dart_descriptor curd = scene.lcc->beta(dh,1,2);
for (unsigned int i=0;i<8;++i)
{
edges1.push_back(curd);
curd=scene.lcc->beta(curd,1,2,1);
}
CGAL_assertion( curd==scene.lcc->beta(dh,1,2) );
curd = scene.lcc->beta(curd,1,1,2);
for (unsigned int i=0;i<8;++i)
{
edges2.push_back(curd);
curd=scene.lcc->beta(curd,1,2,1);
}
CGAL_assertion( curd==scene.lcc->beta(dh,1,2,1,1,2) );
Dart_descriptor f1=
scene.lcc->insert_cell_2_in_cell_3(edges1.begin(),edges1.end());
Dart_descriptor f2=
scene.lcc->insert_cell_2_in_cell_3(edges2.begin(),edges2.end());
if (scene.lcc->are_attributes_automatically_managed())
{
scene.lcc->info<3>(f1).color()=
(CGAL::IO::Color(myrandom.get_int(0,256),
myrandom.get_int(0,256),
myrandom.get_int(0,256)));
scene.lcc->info<3>(f2).color()=
(CGAL::IO::Color(myrandom.get_int(0,256),
myrandom.get_int(0,256),
myrandom.get_int(0,256)));
update_volume_list_add(scene.lcc->attribute<3>(dh));
if ( !removecenter)
update_volume_list_add(scene.lcc->attribute<3>(f1));
}
split_face_in_three(f1);
split_face_in_three(f2);
split_vol_in_three(dh,removecenter);
mengerVolumes.push_back(scene.lcc->beta(f2,2,1));
split_vol_in_three(scene.lcc->beta(f2,2,1),removecenter);
if ( removecenter )
scene.lcc->remove_cell<3>(f1);
else
{
mengerVolumes.push_back(scene.lcc->beta(f1,2,1));
split_vol_in_three(scene.lcc->beta(f1,2,1),true);
}
}
void MainWindow::split_vol_in_twentyseven(Dart_descriptor dh)
{
std::vector<Dart_descriptor> edges1;
std::vector<Dart_descriptor> edges2;
Dart_descriptor curd = scene.lcc->beta(dh,1,1,2);
for (unsigned int i=0;i<12;++i)
{
edges1.push_back(curd);
curd=scene.lcc->beta(curd,1,2,1);
}
CGAL_assertion( curd==scene.lcc->beta(dh,1,1,2) );
curd = scene.lcc->beta(curd,1,1,2);
for (unsigned int i=0;i<12;++i)
{
edges2.push_back(curd);
curd=scene.lcc->beta(curd,1,2,1);
}
CGAL_assertion( curd==scene.lcc->beta(dh,1,1,2,1,1,2) );
Dart_descriptor f1=
scene.lcc->insert_cell_2_in_cell_3(edges1.begin(),edges1.end());
Dart_descriptor f2=
scene.lcc->insert_cell_2_in_cell_3(edges2.begin(),edges2.end());
if (scene.lcc->are_attributes_automatically_managed())
{
scene.lcc->info<3>(f1).color()=
(CGAL::IO::Color(myrandom.get_int(0,256),
myrandom.get_int(0,256),
myrandom.get_int(0,256)));
scene.lcc->info<3>(f2).color()=
(CGAL::IO::Color(myrandom.get_int(0,256),
myrandom.get_int(0,256),
myrandom.get_int(0,256)));
update_volume_list_add(scene.lcc->attribute<3>(dh));
update_volume_list_add(scene.lcc->attribute<3>(f1));
}
mengerVolumes.push_back(scene.lcc->beta(f1,2));
mengerVolumes.push_back(scene.lcc->beta(f2,2));
split_face_in_nine(scene.lcc->beta(f1,1));
split_face_in_nine(scene.lcc->beta(f2,1));
split_vol_in_nine(dh,false);
split_vol_in_nine(scene.lcc->beta(f1,2),true);
split_vol_in_nine(scene.lcc->beta(f2,2),false);
}
void MainWindow::process_full_slice(Dart_descriptor init,
std::vector<Dart_descriptor>& faces,
LCC::size_type markVols)
{
Dart_descriptor d[12];
d[0]=scene.lcc->beta(init,1,2);
d[1]=scene.lcc->beta(d[0],3,1,2,1);
d[2]=scene.lcc->beta(d[1],1,2,1);
d[3]=scene.lcc->beta(d[2],3,1,2,1);
d[4]=scene.lcc->beta(init,1,1,2);
d[5]=scene.lcc->beta(d[4],3,0,2,0);
d[6]=scene.lcc->beta(d[5],0,2,0);
d[7]=scene.lcc->beta(d[6],3,0,2,0);
d[8]=scene.lcc->beta(d[7],3,0,2,0);
d[9]=scene.lcc->beta(d[8],0,2,0);
d[10]=scene.lcc->beta(d[9],3,0,2,0);
d[11]=scene.lcc->beta(d[10],3,0,2,0);
for (unsigned int j=0; j<12; ++j)
{
if ( !(scene.lcc)->is_marked(d[j], markVols) )
{
CGAL::mark_cell<LCC,3>(*(scene.lcc), d[j], markVols);
}
faces.push_back(d[j]);
}
}
void MainWindow::process_inter_slice(Dart_descriptor init,
std::vector<Dart_descriptor>& faces,
LCC::size_type markVols)
{
Dart_descriptor d[24];
d[0]=init;
d[1]=scene.lcc->beta(d[0],0,2,3,2,0);
d[2]=scene.lcc->beta(d[1],0,2,3,2,0);
d[3]=scene.lcc->beta(d[2],1,1,2,3,2);
d[4]=scene.lcc->beta(d[3],1,1,2,3,2);
d[5]=scene.lcc->beta(d[0],1,1,2,3,2);
d[6]=scene.lcc->beta(d[5],1,1,2,3,2);
d[7]=scene.lcc->beta(d[6],0,2,3,2,0);
init = scene.lcc->beta(init,3,2,1,1,2);
d[8]=init;
d[9]=scene.lcc->beta(d[8],3,1,2,3,2,1);
d[10]=scene.lcc->beta(d[9],1,2,3,2,1,3);
d[11]=scene.lcc->beta(d[10],3,0,0,2,3,2);
d[12]=scene.lcc->beta(d[11],0,0,2,3,2,3);
d[13]=scene.lcc->beta(d[8],3,0,0,2,3,2);
d[14]=scene.lcc->beta(d[13],0,0,2,3,2,3);
d[15]=scene.lcc->beta(d[14],3,1,2,3,2,1);
d[16]=scene.lcc->beta(d[0],3,1,2);
d[17]=scene.lcc->beta(d[0],3,1,1,2);
d[18]=scene.lcc->beta(d[4],3,2);
d[19]=scene.lcc->beta(d[4],3,0,2);
d[20]=scene.lcc->beta(d[2],3,0,2);
d[21]=scene.lcc->beta(d[2],3,1,1,2);
d[22]=scene.lcc->beta(d[6],3,2);
d[23]=scene.lcc->beta(d[6],3,1,2);
for (unsigned int j=0; j<24; ++j)
{
CGAL_assertion( d[j]!=(scene.lcc)->null_dart_descriptor );
if ( !(scene.lcc)->is_marked(d[j], markVols) )
{
CGAL::mark_cell<LCC,3>(*(scene.lcc), d[j], markVols);
}
faces.push_back(d[j]);
}
}
void MainWindow::onMengerDec()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
this->mengerLevel--;
// We know here the number of Menger volume: 20^mengerLevel
// thus we can directly "cut" the std::vector to the correct size.
mengerVolumes.resize(CGAL::ipower(20,mengerLevel));
LCC::size_type markVols = (scene.lcc)->get_new_mark();
LCC::size_type markVertices = (scene.lcc)->get_new_mark();
std::vector<Dart_descriptor> faces;
std::vector<Dart_descriptor> edges;
std::vector<Dart_descriptor> vertices;
// First we remove faces.
for ( std::vector<Dart_descriptor>::iterator itvol=mengerVolumes.begin();
itvol!=mengerVolumes.end(); ++itvol)
{
if ( !(scene.lcc)->is_marked(*itvol, markVols) )
{
Dart_descriptor init=*itvol;
CGAL::mark_cell<LCC,3>(*(scene.lcc), init, markVols);
process_full_slice(init, faces, markVols);
init=scene.lcc->beta(init, 2,1,1,2);
process_inter_slice(init, faces, markVols);
init=scene.lcc->beta(init, 3,2,1,1,2,3);
process_full_slice(init, faces, markVols);
}
}
for(std::size_t i = 0; i < faces.size(); i++)
{
scene.lcc->remove_cell<2>(faces[i],mengerUpdateAttributes);
}
faces.clear();
// Now we remove edges.
for ( std::vector<Dart_descriptor>::iterator itvol=mengerVolumes.begin();
itvol!=mengerVolumes.end(); ++itvol)
{
if ( (scene.lcc)->is_marked(*itvol, markVols) )
CGAL::unmark_cell<LCC,3>(*(scene.lcc), *itvol, markVols);
for (LCC::Dart_of_cell_range<3>::iterator
it=scene.lcc->darts_of_cell<3>(*itvol).begin(),
itend=scene.lcc->darts_of_cell<3>(*itvol).end();
it!=itend; ++it)
{
if ( scene.lcc->is_free(it,2) &&
( scene.lcc->is_free(it,3) || it<scene.lcc->beta(it,3) ) )
edges.push_back(it);
}
}
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markVols) );
for(std::size_t i = 0; i < edges.size(); i++)
{
scene.lcc->remove_cell<1>(scene.lcc->beta(edges[i],0),mengerUpdateAttributes);
scene.lcc->remove_cell<1>(scene.lcc->beta(edges[i],1),mengerUpdateAttributes);
scene.lcc->remove_cell<1>(edges[i],mengerUpdateAttributes);
}
edges.clear();
// Lastly we remove vertices.
for ( std::vector<Dart_descriptor>::iterator itvol=mengerVolumes.begin();
itvol!=mengerVolumes.end(); ++itvol)
{
for (LCC::Dart_of_cell_basic_range<3>::iterator
it=(scene.lcc)->darts_of_cell_basic<3>
(*itvol, markVols).begin(),
itend=(scene.lcc)->darts_of_cell_basic<3>
(*itvol, markVols).end(); it!=itend; ++it)
{
if ( !(scene.lcc)->is_marked(it, markVertices) )
{
if ( scene.lcc->is_removable<0>(it) )
vertices.push_back(it);
CGAL::mark_cell<LCC, 0>(*scene.lcc, it, markVertices);
}
}
}
(scene.lcc)->negate_mark(markVols);
for ( std::vector<Dart_descriptor>::iterator itvol=mengerVolumes.begin();
itvol!=mengerVolumes.end(); ++itvol)
{
for (LCC::Dart_of_cell_basic_range<3>::iterator
it=(scene.lcc)->darts_of_cell_basic<3>
(*itvol, markVols).begin(),
itend=(scene.lcc)->darts_of_cell_basic<3>
(*itvol, markVols).end(); it!=itend; ++it)
{
if ( (scene.lcc)->is_marked(it, markVertices) )
CGAL::unmark_cell<LCC, 0>(*scene.lcc, it, markVertices);
}
}
(scene.lcc)->negate_mark(markVols);
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markVols) );
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markVertices) );
for(std::size_t i = 0; i < vertices.size(); i++)
{
scene.lcc->remove_cell<0>(vertices[i],mengerUpdateAttributes);
}
vertices.clear();
(scene.lcc)->free_mark(markVols);
(scene.lcc)->free_mark(markVertices);
if (!mengerUpdateAttributes)
{
scene.lcc->correct_invalid_attributes();
}
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Menger sponge "
<<this->mengerLevel+1<<" -> "<<this->mengerLevel<<", "
<<"attributes updated "
<<(mengerUpdateAttributes ? "DURING" : "AFTER")
<< " construction: "
<<timer.time()<<" seconds."<<std::endl;
#endif
recreate_whole_volume_list();
statusBar()->showMessage(QString ("Menger sponge creation %1 -> %2").
arg(this->mengerLevel+1).arg(this->mengerLevel),
DELAY_STATUSMSG);
QApplication::restoreOverrideCursor ();
Q_EMIT( sceneChanged());
}
///////////////////////////////////////////////////////////////////////////////////
// SIERPINSKI CARPET
///////////////////////////////////////////////////////////////////////////////////
void MainWindow::on_actionCreate_Sierpinski_Carpet_triggered ()
{
/*neverUpdateAttributes = dialogsierpinskicarpet.never->isChecked();
duringConstructionUpdateAttributes = dialogsierpinskicarpet.during->isChecked();
afterConstructionUpdateAttributes = dialogsierpinskicarpet.after->isChecked();
updateAttributesMethodStdMap = dialogsierpinskicarpet.stdmap->isChecked();
updateAttributesMethodTraversal = dialogsierpinskicarpet.traversal->isChecked();
// By default, the geometry will be computed after the construction
isComputableGeometry = true;*/
computeGeometry = false;
sierpinskiCarpetUpdateAttributes
= dialogsierpinskicarpet.updateAttributes->isChecked();
dialogsierpinskicarpet.level->disconnect(this);
dialogsierpinskicarpet.level->setValue(0);
sierpinskiCarpetLevel=0;
CGAL_assertion( sierpinskiCarpetSurfaces.empty() );
Point_3 basepoint(nbcube%5, (nbcube/5)%5, nbcube/25);
Dart_descriptor d = scene.lcc->make_quadrangle(basepoint,
LCC::Traits::Construct_translated_point()
(basepoint,LCC::Traits::Vector(1,0,0)),
LCC::Traits::Construct_translated_point()
(basepoint,LCC::Traits::Vector(1,1,0)),
LCC::Traits::Construct_translated_point()
(basepoint,LCC::Traits::Vector(0,1,0)));
on_new_volume(d);
++nbcube;
statusBar ()->showMessage (QString ("Square created"),DELAY_STATUSMSG);
Q_EMIT (sceneChanged ());
sierpinskiCarpetSurfaces.push_back(d);
update_operations_entries(false);
QObject::connect(dialogsierpinskicarpet.level, SIGNAL(valueChanged(int)),
this, SLOT(onSierpinskiCarpetChangeLevel(int)));
dialogsierpinskicarpet.show();
}
void MainWindow::onSierpinskiCarpetCancel()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
for(std::vector<Dart_descriptor>::iterator it=sierpinskiCarpetSurfaces.begin();
it!=sierpinskiCarpetSurfaces.end(); ++it)
{
scene.lcc->remove_cell<2>(*it);
}
recreate_whole_volume_list();
sierpinskiCarpetSurfaces.clear();
update_operations_entries(true);
QApplication::restoreOverrideCursor ();
Q_EMIT( sceneChanged());
}
void MainWindow::onSierpinskiCarpetOk()
{
update_operations_entries(true);
sierpinskiCarpetSurfaces.clear();
}
void MainWindow::onSierpinskiCarpetChangeLevel(int newLevel)
{
while ( newLevel > sierpinskiCarpetLevel ) onSierpinskiCarpetInc();
while ( newLevel < sierpinskiCarpetLevel ) onSierpinskiCarpetDec();
}
void MainWindow::onSierpinskiCarpetUpdateAttributes(bool newValue)
{
sierpinskiCarpetUpdateAttributes = newValue;
}
void MainWindow::onSierpinskiCarpetInc()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
this->sierpinskiCarpetLevel++;
/* if (computeGeometry)
{
// Here case where the geometry could be computed after the construction, but it was not updated.
computeGeometry = false;
dialogsierpinskicarpet.computeGeometry->setEnabled(false);
// => geometry will not be computed later.
isComputableGeometry = false;
}*/
std::vector<Dart_descriptor> edges;
nbfacesinit = sierpinskiCarpetSurfaces.size();
LCC::size_type markEdges = (scene.lcc)->get_new_mark();
LCC::size_type markFaces = (scene.lcc)->get_new_mark();
for(std::vector<Dart_descriptor>::iterator itfaces=sierpinskiCarpetSurfaces.begin();
itfaces!=sierpinskiCarpetSurfaces.end(); ++itfaces)
{
CGAL_assertion( !(scene.lcc)->is_marked(*itfaces, markFaces) );
for (LCC::Dart_of_cell_basic_range<2>::iterator
it=(scene.lcc)->darts_of_cell_basic<2>(*itfaces, markFaces).begin(),
itend=(scene.lcc)->darts_of_cell_basic<2>(*itfaces, markFaces).end();
it!=itend; ++it)
{
if ( !(scene.lcc)->is_marked(it, markEdges) )
{
edges.push_back(it);
CGAL::mark_cell<LCC,1>(*(scene.lcc), it, markEdges);
}
}
}
(scene.lcc)->negate_mark(markFaces);
for(std::vector<Dart_descriptor>::iterator itfaces=sierpinskiCarpetSurfaces.begin();
itfaces!=sierpinskiCarpetSurfaces.end(); ++itfaces)
{
for (LCC::Dart_of_cell_basic_range<2>::iterator
it=(scene.lcc)->darts_of_cell_basic<2>(*itfaces, markFaces).begin(),
itend=(scene.lcc)->darts_of_cell_basic<2>(*itfaces, markFaces).end();
it!=itend; ++it)
{
(scene.lcc)->unmark(it, markEdges);
}
}
(scene.lcc)->negate_mark(markFaces);
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markFaces) );
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markEdges) );
(scene.lcc)->free_mark(markEdges);
(scene.lcc)->free_mark(markFaces);
/* if (afterConstructionUpdateAttributes)
{
if (updateAttributesMethodStdMap)
{
// We create a map to associate embeddings to new darts
for(std::size_t i = 0; i < edges.size(); i++)
{
dart_map.insert(std::pair<Dart_descriptor, LCC::Point>
(edges[i], scene.lcc->point(edges[i])));
if (!(scene.lcc)->is_free(edges[i],2))
{
dart_map.insert(std::pair<Dart_descriptor, LCC::Point>
((scene.lcc)->beta(edges[i],2),
scene.lcc->point((scene.lcc)->beta(edges[i],2))));
}
}
}
}*/
for(std::size_t i = 0; i < edges.size(); i++)
{
sierpinski_carpet_split_edge_in_three(edges[i]);
}
edges.clear();
for(std::size_t i = 0; i < nbfacesinit; i++)
{
sierpinski_carpet_split_face_in_nine(sierpinskiCarpetSurfaces[i]);
}
if (!sierpinskiCarpetUpdateAttributes)
{
sierpinski_carpet_update_geometry();
}
/* if (neverUpdateAttributes)
{
scene.lcc->correct_invalid_attributes();
// Now that the map is valid, we can compute the geometry
if (isComputableGeometry)
{
computeGeometry = true;
dialogsierpinskicarpet.computeGeometry->setEnabled(true);
}
}*/
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Sierpinski carpet "
<<this->sierpinskiCarpetLevel-1<<" -> "
<<this->sierpinskiCarpetLevel<<", "
<<"attributes updated "
<<(sierpinskiCarpetUpdateAttributes ? "DURING" : "AFTER")
<< " construction: "
<<timer.time()<<" seconds."<<std::endl;
#endif
CGAL_assertion( (scene.lcc)->is_valid() );
statusBar()->showMessage(QString ("Sierpinski carpet creation %1 -> %2").
arg(this->sierpinskiCarpetLevel-1).
arg(this->sierpinskiCarpetLevel),
DELAY_STATUSMSG);
QApplication::restoreOverrideCursor ();
Q_EMIT( sceneChanged());
}
void MainWindow::sierpinski_carpet_update_geometry()
{
/* if (updateAttributesMethodStdMap)
{
for(std::size_t i = 0; i < new_darts.size(); i++)
{
sierpinski_carpet_copy_attributes_and_embed_vertex(new_darts[i], dart_map[new_darts[i]]);
}
dart_map.clear();
new_darts.clear();
}
if (updateAttributesMethodTraversal)*/
{
LCC::size_type markVertices = (scene.lcc)->get_new_mark();
for(std::size_t i = 0; i < nbfacesinit; i++)
{
// Geometry of the 4 corners of the current face
LCC::Point p[4][4];
Dart_descriptor d00 = sierpinskiCarpetSurfaces[i];
Dart_descriptor d03 = scene.lcc->beta(d00,1,2,1,1,2,1,1);
Dart_descriptor d33 = scene.lcc->beta(d03,1,2,1,1,2,1,1);
Dart_descriptor d30 = scene.lcc->beta(d33,1,2,1,1,2,1,1);
sierpinski_carpet_compute_4x4_geometry_matrix(p,
scene.lcc->point(d00),
scene.lcc->point(d03),
scene.lcc->point(d33),
scene.lcc->point(d30));
Dart_descriptor dh = sierpinskiCarpetSurfaces[i];
// bottom border
dh = scene.lcc->beta(dh,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
sierpinski_carpet_copy_attributes_and_embed_vertex(dh, p[0][1]);
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
dh = scene.lcc->beta(dh,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
sierpinski_carpet_copy_attributes_and_embed_vertex(dh, p[0][2]);
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
// right border
dh = scene.lcc->beta(dh,1,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
sierpinski_carpet_copy_attributes_and_embed_vertex(dh, p[1][3]);
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
dh = scene.lcc->beta(dh,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
sierpinski_carpet_copy_attributes_and_embed_vertex(dh, p[2][3]);
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
// top border
dh = scene.lcc->beta(dh,1,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
sierpinski_carpet_copy_attributes_and_embed_vertex(dh, p[3][2]);
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
dh = scene.lcc->beta(dh,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
sierpinski_carpet_copy_attributes_and_embed_vertex(dh, p[3][1]);
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
// left border
dh = scene.lcc->beta(dh,1,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
sierpinski_carpet_copy_attributes_and_embed_vertex(dh, p[2][0]);
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
dh = scene.lcc->beta(dh,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
sierpinski_carpet_copy_attributes_and_embed_vertex(dh, p[1][0]);
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
dh = sierpinskiCarpetSurfaces[i];
// middle vertex, bottom left
dh = scene.lcc->beta(dh,1,1);
sierpinski_carpet_copy_attributes_and_embed_vertex(dh, p[1][1]);
// middle vertex, top left
dh = scene.lcc->beta(dh,2,1,1);
sierpinski_carpet_copy_attributes_and_embed_vertex(dh, p[2][1]);
// middle vertex, top right
dh = scene.lcc->beta(dh,2,1,2,1,1,2,1);
sierpinski_carpet_copy_attributes_and_embed_vertex(dh, p[2][2]);
// middle vertex, bottom right
dh = scene.lcc->beta(dh,2,1,1);
sierpinski_carpet_copy_attributes_and_embed_vertex(dh, p[1][2]);
}
scene.lcc->unmark_all(markVertices);
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markVertices) );
}
}
void MainWindow::sierpinski_carpet_compute_geometry()
{
LCC::size_type markVertices = (scene.lcc)->get_new_mark();
for(std::size_t i = 0; i < nbfacesinit; i++)
{
// on récupère la géométrie des 4 coins de la face courante
LCC::Point p[4][4];
Dart_descriptor d00 = sierpinskiCarpetSurfaces[i];
Dart_descriptor d03 = scene.lcc->beta(d00,1,2,1,1,2,1,1);
Dart_descriptor d33 = scene.lcc->beta(d03,1,2,1,1,2,1,1);
Dart_descriptor d30 = scene.lcc->beta(d33,1,2,1,1,2,1,1);
sierpinski_carpet_compute_4x4_geometry_matrix(p, scene.lcc->point(d00), scene.lcc->point(d03), scene.lcc->point(d33), scene.lcc->point(d30));
Dart_descriptor dh = sierpinskiCarpetSurfaces[i];
// Geometry of the 4 corners of the current face
// bottom border
dh = scene.lcc->beta(dh,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
scene.lcc->point(dh) = p[0][1];
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
dh = scene.lcc->beta(dh,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
scene.lcc->point(dh) = p[0][2];
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
// right border
dh = scene.lcc->beta(dh,1,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
scene.lcc->point(dh) = p[1][3];
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
dh = scene.lcc->beta(dh,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
scene.lcc->point(dh) = p[2][3];
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
// top border
dh = scene.lcc->beta(dh,1,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
scene.lcc->point(dh) = p[3][2];
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
dh = scene.lcc->beta(dh,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
scene.lcc->point(dh) = p[3][1];
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
// left border
dh = scene.lcc->beta(dh,1,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
scene.lcc->point(dh) = p[2][0];
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
dh = scene.lcc->beta(dh,1,2,1);
if ( ! (scene.lcc)->is_marked(dh, markVertices) )
{
scene.lcc->point(dh) = p[1][0];
CGAL::mark_cell<LCC,0>(*(scene.lcc), dh, markVertices);
}
dh = sierpinskiCarpetSurfaces[i];
// middle vertex, bottom left
dh = scene.lcc->beta(dh,1,1);
scene.lcc->point(dh) = p[1][1];
// middle vertex, top left
dh = scene.lcc->beta(dh,2,1,1);
scene.lcc->point(dh) = p[2][1];
// middle vertex, top right
dh = scene.lcc->beta(dh,2,1,2,1,1,2,1);
scene.lcc->point(dh) = p[2][2];
// middle vertex, bottom right
dh = scene.lcc->beta(dh,2,1,1);
scene.lcc->point(dh) = p[1][2];
}
scene.lcc->unmark_all(markVertices);
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markVertices) );
}
void MainWindow::sierpinski_carpet_compute_4x4_geometry_matrix
(LCC::Point p[4][4], LCC::Point& p00, LCC::Point& p03,
LCC::Point& p33, LCC::Point& p30)
{
p[0][0] = p00;
p[0][3] = p03;
p[3][3] = p33;
p[3][0] = p30;
LCC::Vector v1, v2, v3;
// bottom border
v1 = LCC::Traits::Construct_vector() (p[0][0],p[0][3]);
v2 = LCC::Traits::Construct_scaled_vector() (v1,1.0/3);
v3 = LCC::Traits::Construct_scaled_vector() (v1,2.0/3);
p[0][1] = LCC::Traits::Construct_translated_point() (p[0][0],v2);
p[0][2] = LCC::Traits::Construct_translated_point() (p[0][0],v3);
// right border
v1 = LCC::Traits::Construct_vector() (p[0][3],p[3][3]);
v2 = LCC::Traits::Construct_scaled_vector() (v1,1.0/3);
v3 = LCC::Traits::Construct_scaled_vector() (v1,2.0/3);
p[1][3] = LCC::Traits::Construct_translated_point() (p[0][3],v2);
p[2][3] = LCC::Traits::Construct_translated_point() (p[0][3],v3);
// top border
v1 = LCC::Traits::Construct_vector() (p[3][3],p[3][0]);
v2 = LCC::Traits::Construct_scaled_vector() (v1,1.0/3);
v3 = LCC::Traits::Construct_scaled_vector() (v1,2.0/3);
p[3][2] = LCC::Traits::Construct_translated_point() (p[3][3],v2);
p[3][1] = LCC::Traits::Construct_translated_point() (p[3][3],v3);
// left border
v1 = LCC::Traits::Construct_vector() (p[3][0],p[0][0]);
v2 = LCC::Traits::Construct_scaled_vector() (v1,1.0/3);
v3 = LCC::Traits::Construct_scaled_vector() (v1,2.0/3);
p[2][0] = LCC::Traits::Construct_translated_point() (p[3][0],v2);
p[1][0] = LCC::Traits::Construct_translated_point() (p[3][0],v3);
// middle, left column
v1 = LCC::Traits::Construct_vector() (p[0][1],p[3][1]);
v2 = LCC::Traits::Construct_scaled_vector() (v1,1.0/3);
v3 = LCC::Traits::Construct_scaled_vector() (v1,2.0/3);
p[1][1] = LCC::Traits::Construct_translated_point() (p[0][1],v2);
p[2][1] = LCC::Traits::Construct_translated_point() (p[0][1],v3);
// middle, right column
v1 = LCC::Traits::Construct_vector() (p[3][2],p[0][2]);
v2 = LCC::Traits::Construct_scaled_vector() (v1,1.0/3);
v3 = LCC::Traits::Construct_scaled_vector() (v1,2.0/3);
p[2][2] = LCC::Traits::Construct_translated_point() (p[3][2],v2);
p[1][2] = LCC::Traits::Construct_translated_point() (p[3][2],v3);
}
void MainWindow::sierpinski_carpet_copy_attributes_and_embed_vertex
(Dart_descriptor dh, LCC::Point& p)
{
LCC::Attribute_descriptor<0>::type ah = (scene.lcc)->create_vertex_attribute(p);
for ( LCC::Dart_of_cell_range<0>::iterator
it=(scene.lcc)->darts_of_cell<0>(dh).begin();
it != (scene.lcc)->darts_of_cell<0>(dh).end(); ++it )
{
// We copy all the attributes except for dim=0
LCC::Helper::Foreach_enabled_attributes_except
<CGAL::internal::Group_attribute_functor_of_dart<LCC>, 0>::
run(*(scene.lcc),sierpinskiCarpetSurfaces[0],it);
// We initialize the 0-atttrib to ah
scene.lcc->set_dart_attribute<0>(it, ah);
}
}
void MainWindow::sierpinski_carpet_split_edge_in_three(Dart_descriptor dh)
{
if (sierpinskiCarpetUpdateAttributes)
{
LCC::Point p1 = scene.lcc->point(dh);
LCC::Point p2 = scene.lcc->point(scene.lcc->other_extremity(dh));
LCC::Vector v1 = LCC::Traits::Construct_vector() (p1,p2);
LCC::Vector v2 = LCC::Traits::Construct_scaled_vector() (v1,1.0/3);
LCC::Vector v3 = LCC::Traits::Construct_scaled_vector() (v1,2.0/3);
LCC::Point p3 = LCC::Traits::Construct_translated_point() (p1,v2);
LCC::Point p4 = LCC::Traits::Construct_translated_point() (p1,v3);
(scene.lcc)->insert_point_in_cell<1>(dh,p4);
(scene.lcc)->insert_point_in_cell<1>(dh,p3);
}
else
{
LCC::Point p3, p4;
/*if (afterConstructionUpdateAttributes && updateAttributesMethodStdMap)
{
LCC::Point p1 = dart_map[dh];
LCC::Point p2 = dart_map[scene.lcc->other_extremity(dh)];
LCC::Vector v1 = LCC::Traits::Construct_vector() (p1,p2);
LCC::Vector v2 = LCC::Traits::Construct_scaled_vector() (v1,1.0/3);
LCC::Vector v3 = LCC::Traits::Construct_scaled_vector() (v1,2.0/3);
p3 = LCC::Traits::Construct_translated_point() (p1,v2);
p4 = LCC::Traits::Construct_translated_point() (p1,v3);
}*/
// Dart_descriptor d1=
scene.lcc->insert_cell_0_in_cell_1
(dh, LCC::null_descriptor, false);
/*if (afterConstructionUpdateAttributes && updateAttributesMethodStdMap)
{
dart_map.insert(std::pair<Dart_descriptor, LCC::Point>(d1, p4));
if (!(scene.lcc)->is_free(d1,2))
{
dart_map.insert(std::pair<Dart_descriptor, LCC::Point>((scene.lcc)->beta(d1,2,1), p4));
}
new_darts.push_back((scene.lcc)->beta(dh,1));
}*/
// Dart_descriptor d2=
scene.lcc->insert_cell_0_in_cell_1
(dh,LCC::null_descriptor,false);
/*if (afterConstructionUpdateAttributes && updateAttributesMethodStdMap)
{
dart_map.insert(std::pair<Dart_descriptor, LCC::Point>(d2, p3));
if (!(scene.lcc)->is_free(d2,2))
{
dart_map.insert(std::pair<Dart_descriptor, LCC::Point>((scene.lcc)->beta(d2,2,1), p3));
}
new_darts.push_back((scene.lcc)->beta(dh,1));
}*/
}
}
void MainWindow::sierpinski_carpet_split_face_in_three(Dart_descriptor dh,
bool removecenter)
{
Dart_descriptor d1=
scene.lcc->insert_cell_1_in_cell_2
(scene.lcc->beta(dh,1,1,1),scene.lcc->beta(dh,0,0),
sierpinskiCarpetUpdateAttributes);
Dart_descriptor d2=
scene.lcc->insert_cell_1_in_cell_2
(scene.lcc->beta(dh,1,1),scene.lcc->beta(dh,0),
sierpinskiCarpetUpdateAttributes);
if ( removecenter )
{
scene.lcc->remove_cell<2>(d2,sierpinskiCarpetUpdateAttributes);
}
else
{
sierpinskiCarpetSurfaces.push_back(d2);
}
sierpinskiCarpetSurfaces.push_back(d1);
}
void MainWindow::sierpinski_carpet_split_face_in_nine(Dart_descriptor dh)
{
Dart_descriptor d1 = scene.lcc->beta(dh,1,1);
Dart_descriptor d2 = scene.lcc->beta(dh,1,1,1,1,1,1,1);
Dart_descriptor d3 = scene.lcc->beta(dh,1);
Dart_descriptor d4 = scene.lcc->beta(d2,1);
Dart_descriptor e2=
scene.lcc->insert_cell_1_in_cell_2
(d1,d2,sierpinskiCarpetUpdateAttributes);
/*if (afterConstructionUpdateAttributes && updateAttributesMethodStdMap)
{
dart_map.insert(std::pair<Dart_descriptor, LCC::Point>(e2, dart_map[d2]));
dart_map.insert(std::pair<Dart_descriptor, LCC::Point>((scene.lcc)->beta(e2,2), dart_map[d1]));
}*/
Dart_descriptor e1=
scene.lcc->insert_cell_1_in_cell_2
(d3,d4,sierpinskiCarpetUpdateAttributes);
/*if (afterConstructionUpdateAttributes && updateAttributesMethodStdMap)
{
dart_map.insert(std::pair<Dart_descriptor, LCC::Point>(e1, dart_map[d4]));
dart_map.insert(std::pair<Dart_descriptor, LCC::Point>((scene.lcc)->beta(e1,2), dart_map[d3]));
}*/
sierpinskiCarpetSurfaces.push_back(e2);
sierpinskiCarpetSurfaces.push_back(e1);
// We give the beta2 to not insert in new_darts a dart that will be removed
// during the removal of the middle face
sierpinski_carpet_split_edge_in_three(scene.lcc->beta(e1,2));
sierpinski_carpet_split_edge_in_three(e2);
sierpinski_carpet_split_face_in_three(dh, false);
sierpinski_carpet_split_face_in_three(d2, true);
sierpinski_carpet_split_face_in_three(scene.lcc->beta(e2,0), false);
}
void MainWindow::onSierpinskiCarpetDec()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
this->sierpinskiCarpetLevel--;
// We know here the number of Sierpinski surfaces: 8^sierpinskiCarpetLevel
// thus we can directly "cut" the std::vector to the correct size.
sierpinskiCarpetSurfaces.resize(CGAL::ipower(8,sierpinskiCarpetLevel));
LCC::size_type markSurfaces = (scene.lcc)->get_new_mark();
LCC::size_type markVertices = (scene.lcc)->get_new_mark();
std::vector<Dart_descriptor> edges;
std::vector<Dart_descriptor> vertices;
// First we remove edges.
for ( std::vector<Dart_descriptor>::iterator
itsurfaces=sierpinskiCarpetSurfaces.begin();
itsurfaces!=sierpinskiCarpetSurfaces.end(); ++itsurfaces)
{
Dart_descriptor dh = *itsurfaces;
dh = scene.lcc->beta(dh,1,1,2,1);
edges.push_back(dh);
dh = scene.lcc->beta(dh,1,2,1,2,1);
edges.push_back(dh);
dh = scene.lcc->beta(dh,1,2,1,2,1);
edges.push_back(dh);
dh = scene.lcc->beta(dh,1,2,1,2,1);
edges.push_back(dh);
}
for(std::size_t i = 0; i < edges.size(); i++)
{
scene.lcc->remove_cell<1>(scene.lcc->beta(edges[i],0),
sierpinskiCarpetUpdateAttributes);
scene.lcc->remove_cell<1>(scene.lcc->beta(edges[i],1),
sierpinskiCarpetUpdateAttributes);
scene.lcc->remove_cell<1>(edges[i],
sierpinskiCarpetUpdateAttributes);
}
edges.clear();
// Lastly we remove vertices.
for ( std::vector<Dart_descriptor>::iterator
itsurfaces=sierpinskiCarpetSurfaces.begin();
itsurfaces!=sierpinskiCarpetSurfaces.end(); ++itsurfaces)
{
Dart_descriptor dh = scene.lcc->beta(*itsurfaces,1);
// we proceed side by side
for (unsigned int i = 0; i < 4; i++)
{
if ( !(scene.lcc)->is_marked(dh, markVertices) )
{
vertices.push_back(dh);
CGAL::mark_cell<LCC, 0>(*scene.lcc, dh, markVertices);
}
dh = scene.lcc->beta(dh,1);
if ( !(scene.lcc)->is_marked(dh, markVertices) )
{
vertices.push_back(dh);
CGAL::mark_cell<LCC, 0>(*scene.lcc, dh, markVertices);
}
dh = scene.lcc->beta(dh,1,1);
}
}
(scene.lcc)->negate_mark(markSurfaces);
for ( std::vector<Dart_descriptor>::iterator
itsurfaces=sierpinskiCarpetSurfaces.begin();
itsurfaces!=sierpinskiCarpetSurfaces.end(); ++itsurfaces)
{
Dart_descriptor dh = scene.lcc->beta(*itsurfaces,1);
for (unsigned int i = 0; i < 4; i++)
{
if ( (scene.lcc)->is_marked(dh, markVertices) )
CGAL::unmark_cell<LCC, 0>(*scene.lcc, dh, markVertices);
dh = scene.lcc->beta(dh,1);
if ( (scene.lcc)->is_marked(dh, markVertices) )
CGAL::unmark_cell<LCC, 0>(*scene.lcc, dh, markVertices);
dh = scene.lcc->beta(dh,1,1);
}
}
(scene.lcc)->negate_mark(markSurfaces);
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markSurfaces) );
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markVertices) );
for(std::size_t i = 0; i < vertices.size(); i++)
{
scene.lcc->remove_cell<0>(vertices[i],
sierpinskiCarpetUpdateAttributes);
}
vertices.clear();
(scene.lcc)->free_mark(markSurfaces);
(scene.lcc)->free_mark(markVertices);
if (!sierpinskiCarpetUpdateAttributes)
{
scene.lcc->correct_invalid_attributes();
}
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Sierpinski carpet "
<<this->sierpinskiCarpetLevel+1<<" -> "
<<this->sierpinskiCarpetLevel<<", "
<<"attributes updated "
<<(sierpinskiCarpetUpdateAttributes ? "DURING" : "AFTER")
<< " construction: "
<<timer.time()<<" seconds."<<std::endl;
#endif
recreate_whole_volume_list();
QApplication::restoreOverrideCursor ();
statusBar()->showMessage(QString ("Sierpinski carpet creation %1 -> %2").
arg(this->sierpinskiCarpetLevel+1).
arg(this->sierpinskiCarpetLevel),
DELAY_STATUSMSG);
Q_EMIT( sceneChanged());
}
///////////////////////////////////////////////////////////////////////////////////
// SIERPINSKI TRIANGLE
///////////////////////////////////////////////////////////////////////////////////
void MainWindow::on_actionCreate_Sierpinski_Triangle_triggered ()
{
sierpinskiTriangleUpdateAttributes
= dialogsierpinskitriangle.updateAttributes->isChecked();
dialogsierpinskitriangle.level->disconnect(this);
dialogsierpinskitriangle.level->setValue(0);
sierpinskiTriangleLevel=0;
CGAL_assertion( sierpinskiTriangleSurfaces.empty() );
CGAL_assertion( removedTriangles.empty() );
Point_3 basepoint(nbcube%5, (nbcube/5)%5, nbcube/25);
Dart_descriptor d = scene.lcc->make_triangle(basepoint,
LCC::Traits::Construct_translated_point()
(basepoint,LCC::Traits::Vector(1,0,0)),
LCC::Traits::Construct_translated_point()
(basepoint,LCC::Traits::Vector(0.5f,CGAL::sqrt(3.f)/2.f,0)));
on_new_volume(d);
++nbcube;
statusBar ()->showMessage (QString ("Triangle created"),DELAY_STATUSMSG);
Q_EMIT (sceneChanged ());
sierpinskiTriangleSurfaces.push_back(d);
update_operations_entries(false);
QObject::connect(dialogsierpinskitriangle.level, SIGNAL(valueChanged(int)),
this, SLOT(onSierpinskiTriangleChangeLevel(int)));
dialogsierpinskitriangle.show();
}
void MainWindow::onSierpinskiTriangleCancel()
{
for(std::vector<Dart_descriptor>::iterator it=sierpinskiTriangleSurfaces.begin();
it!=sierpinskiTriangleSurfaces.end(); ++it)
{
scene.lcc->remove_cell<2>(*it);
}
recreate_whole_volume_list();
sierpinskiTriangleSurfaces.clear();
update_operations_entries(true);
Q_EMIT( sceneChanged());
}
void MainWindow::onSierpinskiTriangleOk()
{
update_operations_entries(true);
sierpinskiTriangleSurfaces.clear();
}
void MainWindow::onSierpinskiTriangleChangeLevel(int newLevel)
{
while ( newLevel > sierpinskiTriangleLevel ) onSierpinskiTriangleInc();
while ( newLevel < sierpinskiTriangleLevel ) onSierpinskiTriangleDec();
}
void MainWindow::onSierpinskiTriangleUpdateAttributes(bool newValue)
{
sierpinskiTriangleUpdateAttributes = newValue;
}
void MainWindow::onSierpinskiTriangleInc()
{
QApplication::setOverrideCursor (Qt::WaitCursor);
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
this->sierpinskiTriangleLevel++;
std::vector<Dart_descriptor> edges;
nbfacesinit = sierpinskiTriangleSurfaces.size();
LCC::size_type markEdges = (scene.lcc)->get_new_mark();
LCC::size_type markFaces = (scene.lcc)->get_new_mark();
for(std::vector<Dart_descriptor>::iterator itfaces=sierpinskiTriangleSurfaces.begin();
itfaces!=sierpinskiTriangleSurfaces.end(); ++itfaces)
{
CGAL_assertion( !(scene.lcc)->is_marked(*itfaces, markFaces) );
for (LCC::Dart_of_cell_basic_range<2>::iterator
it=(scene.lcc)->darts_of_cell_basic<2>(*itfaces, markFaces).begin(),
itend=(scene.lcc)->darts_of_cell_basic<2>(*itfaces, markFaces).end();
it!=itend; ++it)
{
if ( !(scene.lcc)->is_marked(it, markEdges) )
{
edges.push_back(it);
CGAL::mark_cell<LCC,1>(*(scene.lcc), it, markEdges);
}
}
}
(scene.lcc)->negate_mark(markFaces);
for(std::vector<Dart_descriptor>::iterator itfaces=sierpinskiTriangleSurfaces.begin();
itfaces!=sierpinskiTriangleSurfaces.end(); ++itfaces)
{
for (LCC::Dart_of_cell_basic_range<2>::iterator
it=(scene.lcc)->darts_of_cell_basic<2>(*itfaces, markFaces).begin(),
itend=(scene.lcc)->darts_of_cell_basic<2>(*itfaces, markFaces).end();
it!=itend; ++it)
{
(scene.lcc)->unmark(it, markEdges);
}
}
(scene.lcc)->negate_mark(markFaces);
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markFaces) );
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markEdges) );
(scene.lcc)->free_mark(markEdges);
(scene.lcc)->free_mark(markFaces);
for(std::size_t i = 0; i < edges.size(); i++)
{
sierpinski_triangle_split_edge_in_two(edges[i]);
}
edges.clear();
for(std::size_t i = 0; i < nbfacesinit; i++)
{
sierpinski_triangle_split_face_in_four(sierpinskiTriangleSurfaces[i],true);
}
if (!sierpinskiTriangleUpdateAttributes)
{
for(std::size_t i = nbfacesinit; i < sierpinskiTriangleSurfaces.size(); i++)
{
LCC::Attribute_descriptor<3>::type ah = (scene.lcc)->create_attribute<3>();
scene.lcc->set_attribute<3>(sierpinskiTriangleSurfaces[i], ah);
scene.lcc->info<3>(sierpinskiTriangleSurfaces[i]).color()=
(CGAL::IO::Color(myrandom.get_int(0,256),
myrandom.get_int(0,256),
myrandom.get_int(0,256)));
update_volume_list_add(scene.lcc->attribute<3>(sierpinskiTriangleSurfaces[i]));
}
scene.lcc->correct_invalid_attributes();
}
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Sierpinski triangle "
<<this->sierpinskiTriangleLevel-1<<" -> "
<<this->sierpinskiTriangleLevel<<", "
<<"attributes updated "
<<(sierpinskiTriangleUpdateAttributes ? "DURING" : "AFTER")
<< " construction: "
<<timer.time()<<" seconds."<<std::endl;
#endif
//CGAL_assertion( (scene.lcc)->is_valid() );
statusBar()->showMessage(QString ("Sierpinski triangle creation %1 -> %2").
arg(this->sierpinskiTriangleLevel-1).
arg(this->sierpinskiTriangleLevel),
DELAY_STATUSMSG);
QApplication::restoreOverrideCursor ();
Q_EMIT( sceneChanged());
}
void MainWindow::sierpinski_triangle_split_edge_in_two(Dart_descriptor dh)
{
LCC::Point p1 = scene.lcc->point(dh);
LCC::Point p2 = scene.lcc->point(scene.lcc->other_extremity(dh));
LCC::Vector v1 = LCC::Traits::Construct_vector() (p1,p2);
LCC::Vector v2 = LCC::Traits::Construct_scaled_vector() (v1,1.0/2);
LCC::Point p3 = LCC::Traits::Construct_translated_point() (p1,v2);
(scene.lcc)->insert_point_in_cell<1>(dh,p3,sierpinskiTriangleUpdateAttributes);
}
void MainWindow::sierpinski_triangle_split_face_in_four(Dart_descriptor dh, bool removecenter)
{
Dart_descriptor d1=
scene.lcc->insert_cell_1_in_cell_2
(scene.lcc->beta(dh,1),scene.lcc->beta(dh,1,1,1),
sierpinskiTriangleUpdateAttributes);
Dart_descriptor d2=
scene.lcc->insert_cell_1_in_cell_2
(scene.lcc->beta(d1,2,1),scene.lcc->beta(d1,2,1,1,1),
sierpinskiTriangleUpdateAttributes);
Dart_descriptor d3=
scene.lcc->insert_cell_1_in_cell_2
(scene.lcc->beta(d2,2,1),scene.lcc->beta(d2,2,1,1,1),
sierpinskiTriangleUpdateAttributes);
if ( removecenter )
{
Triplet <Dart_descriptor, Dart_descriptor, Dart_descriptor> triplet(d1,d2,d3);
removedTriangles.push_back(triplet);
// at this step, the map is correctly 0-embedded, any other attribute is set
// (call of insert_point_in_cell<1> with update_attributes set to true)
scene.lcc->remove_cell<2>(scene.lcc->beta(d3,2),sierpinskiTriangleUpdateAttributes);
if (sierpinskiTriangleUpdateAttributes)
{
update_volume_list_add(scene.lcc->attribute<3>(scene.lcc->beta(d2,0)));
update_volume_list_add(scene.lcc->attribute<3>(scene.lcc->beta(d1,0)));
}
else
{
// we duplicate all 0-embeddings to set them to the split vertices
(scene.lcc)->set_dart_attribute<0>(scene.lcc->beta(d2,1),(scene.lcc)->create_vertex_attribute(scene.lcc->point(d1)));
(scene.lcc)->set_dart_attribute<0>(scene.lcc->beta(d3,1),(scene.lcc)->create_vertex_attribute(scene.lcc->point(d2)));
(scene.lcc)->set_dart_attribute<0>(scene.lcc->beta(d1,1),(scene.lcc)->create_vertex_attribute(scene.lcc->point(d3)));
}
}
else
{
sierpinskiTriangleSurfaces.push_back(scene.lcc->beta(d3,2));
}
sierpinskiTriangleSurfaces.push_back(scene.lcc->beta(d2,0));
sierpinskiTriangleSurfaces.push_back(scene.lcc->beta(d1,0));
}
void MainWindow::onSierpinskiTriangleDec()
{
QApplication::setOverrideCursor( Qt::WaitCursor );
#ifdef CGAL_PROFILE_LCC_DEMO
CGAL::Timer timer;
timer.start();
#endif
this->sierpinskiTriangleLevel--;
int nbt = CGAL::ipower(3,this->sierpinskiTriangleLevel);
// First we add triangles removed during construction process
for ( std::size_t i = removedTriangles.size() - nbt; i < removedTriangles.size(); i++)
{
Dart_descriptor d1 = scene.lcc->create_dart();
Dart_descriptor d2 = scene.lcc->create_dart();
Dart_descriptor d3 = scene.lcc->create_dart();
scene.lcc->sew<1>(d1,d2);
scene.lcc->sew<1>(d2,d3);
scene.lcc->sew<1>(d3,d1);
scene.lcc->sew<2>(d1, removedTriangles[i].first);
scene.lcc->sew<2>(d2, removedTriangles[i].second);
scene.lcc->sew<2>(d3, removedTriangles[i].third);
}
removedTriangles.resize(removedTriangles.size() - nbt);
// We know here the number of Sierpinski surfaces: 3^sierpinskiTriangleLevel
// thus we can directly "cut" the std::vector to the correct size.
sierpinskiTriangleSurfaces.resize(CGAL::ipower(3,sierpinskiTriangleLevel));
LCC::size_type markSurfaces = (scene.lcc)->get_new_mark();
LCC::size_type markVertices = (scene.lcc)->get_new_mark();
std::vector<Dart_descriptor> edges;
std::vector<Dart_descriptor> vertices;
// Now we remove edges.
for ( std::vector<Dart_descriptor>::iterator
itsurfaces=sierpinskiTriangleSurfaces.begin();
itsurfaces!=sierpinskiTriangleSurfaces.end(); ++itsurfaces)
{
Dart_descriptor dh = *itsurfaces;
dh = scene.lcc->beta(dh,1);
edges.push_back(dh);
dh = scene.lcc->beta(dh,2,1,2);
edges.push_back(dh);
dh = scene.lcc->beta(dh,2,1,2);
edges.push_back(dh);
}
for(std::size_t i = 0; i < edges.size(); i++)
{
scene.lcc->remove_cell<1>(edges[i],
sierpinskiTriangleUpdateAttributes);
}
edges.clear();
// Lastly we remove vertices.
for ( std::vector<Dart_descriptor>::iterator
itsurfaces=sierpinskiTriangleSurfaces.begin();
itsurfaces!=sierpinskiTriangleSurfaces.end(); ++itsurfaces)
{
Dart_descriptor dh = scene.lcc->beta(*itsurfaces,1);
if ( !(scene.lcc)->is_marked(dh, markVertices) )
{
vertices.push_back(dh);
CGAL::mark_cell<LCC, 0>(*scene.lcc, dh, markVertices);
}
dh = scene.lcc->beta(dh,1,1);
if ( !(scene.lcc)->is_marked(dh, markVertices) )
{
vertices.push_back(dh);
CGAL::mark_cell<LCC, 0>(*scene.lcc, dh, markVertices);
}
dh = scene.lcc->beta(dh,1,1);
if ( !(scene.lcc)->is_marked(dh, markVertices) )
{
vertices.push_back(dh);
CGAL::mark_cell<LCC, 0>(*scene.lcc, dh, markVertices);
}
}
(scene.lcc)->negate_mark(markSurfaces);
for ( std::vector<Dart_descriptor>::iterator
itsurfaces=sierpinskiTriangleSurfaces.begin();
itsurfaces!=sierpinskiTriangleSurfaces.end(); ++itsurfaces)
{
Dart_descriptor dh = scene.lcc->beta(*itsurfaces,1);
if ( (scene.lcc)->is_marked(dh, markVertices) )
CGAL::unmark_cell<LCC, 0>(*scene.lcc, dh, markVertices);
dh = scene.lcc->beta(dh,1,1);
if ( (scene.lcc)->is_marked(dh, markVertices) )
CGAL::unmark_cell<LCC, 0>(*scene.lcc, dh, markVertices);
dh = scene.lcc->beta(dh,1,1);
if ( (scene.lcc)->is_marked(dh, markVertices) )
CGAL::unmark_cell<LCC, 0>(*scene.lcc, dh, markVertices);
}
(scene.lcc)->negate_mark(markSurfaces);
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markSurfaces) );
CGAL_assertion( (scene.lcc)->is_whole_map_unmarked(markVertices) );
for(std::size_t i = 0; i < vertices.size(); i++)
{
scene.lcc->remove_cell<0>(vertices[i],
sierpinskiTriangleUpdateAttributes);
}
vertices.clear();
(scene.lcc)->free_mark(markSurfaces);
(scene.lcc)->free_mark(markVertices);
if (!sierpinskiTriangleUpdateAttributes)
{
scene.lcc->correct_invalid_attributes();
}
#ifdef CGAL_PROFILE_LCC_DEMO
timer.stop();
std::cout<<"Sierpinski triangle "
<<this->sierpinskiTriangleLevel+1<<" -> "
<<this->sierpinskiTriangleLevel<<", "
<<"attributes updated "
<<(sierpinskiTriangleUpdateAttributes ? "DURING" : "AFTER")
<< " construction: "
<<timer.time()<<" seconds."<<std::endl;
#endif
recreate_whole_volume_list();
statusBar()->showMessage(QString ("Sierpinski triangle creation %1 -> %2").
arg(this->sierpinskiTriangleLevel+1).
arg(this->sierpinskiTriangleLevel),
DELAY_STATUSMSG);
QApplication::restoreOverrideCursor ();
Q_EMIT( sceneChanged());
}
#undef DELAY_STATUSMSG