void run() {
AVThread *avt = demux_thread->videoThread();
avt->packetQueue()->clear(); // clear here
if (pts <= 0) {
demux_thread->demuxer->seek(qint64(-pts*1000.0) - 500LL);
QVector<qreal> ts;
qreal t = -1.0;
while (t < -pts) {
demux_thread->demuxer->readFrame();
if (demux_thread->demuxer->stream() != demux_thread->demuxer->videoStream())
continue;
t = demux_thread->demuxer->packet().pts;
ts.push_back(t);
}
const qreal t0 = ts.back();
ts.pop_back();
const qreal dt = t0 - ts.back();
pts = ts.back();
// FIXME: sometimes can not seek to the previous pts, the result pts is always current pts, so let the target pts a little earlier
pts -= dt/2.0;
}
qDebug("step backward: %lld, %f", qint64(pts*1000.0), pts);
demux_thread->video_thread->setDropFrameOnSeek(false);
demux_thread->seekInternal(qint64(pts*1000.0), AccurateSeek);
}
/** Returns a list of points on the bandwidth graph based on the supplied set
* of rsdht or alldht values. */
void RSGraphWidget::pointsFromData(const std::vector<QPointF>& values,QVector<QPointF>& points)
{
points.clear();
int x = _rec.width();
int y = _rec.height();
float time_step = 1.0f ; // number of seconds per pixel
/* Translate all data points to points on the graph frame */
// take 0 as the origin, otherwise the different curves are not aligned properly
float last = 0;//values.back().x();
//std::cerr << "Got " << values.size() << " values for index 0" << std::endl;
float last_px = SCALE_WIDTH ;
float last_py = 0.0f ;
for (uint i = 0; i < values.size(); ++i)
{
//std::cerr << "Value: (" << values[i].x() << " , " << values[i].y() << ")" << std::endl;
// compute point in pixels
qreal px = x - (values[i].x()-last)*_time_scale ;
qreal py = y - valueToPixels(values[i].y()) ;
if(px >= SCALE_WIDTH && last_px < SCALE_WIDTH)
{
float alpha = (SCALE_WIDTH - last_px)/(px - last_px) ;
float ipx = SCALE_WIDTH ;
float ipy = (1-alpha)*last_py + alpha*py ;
points << QPointF(ipx,y) ;
points << QPointF(ipx,ipy) ;
}
else if(i==0)
points << QPointF(px,y) ;
last_px = px ;
last_py = py ;
if(px < SCALE_WIDTH)
continue ;
_maxValue = std::max(_maxValue,values[i].y()) ;
// remove midle point when 3 consecutive points have the same value.
if(points.size() > 1 && points[points.size()-2].y() == points.back().y() && points.back().y() == py)
points.pop_back() ;
points << QPointF(px,py) ;
if(i==values.size()-1)
points << QPointF(px,y) ;
}
}
QVector<double> DataContainer::combineXVectors(const QVector<double> x1, const QVector<double> x2)
{
//union of xdata
// QVector<double> ret;
// ret.resize(std::max(x1.size(), x2.size()));
// int ind1 = 0;
// int ind2 = 0;
// while (ind1 < x1.size() || ind2 < x2.size()) {
// if (ind1 == x1.size()) {
// ret.push_back(x2[ind2++]);
// } else if (ind2 == x2.size()) {
// ret.push_back(x1[ind1++]);
// } else {
// if (x1[ind1] < x2[ind2])
// ret.push_back(x1[ind1++]);
// else
// ret.push_back(x2[ind2++]);
// }
// }
//TODO - make algorithm more optimal
if (x1.isEmpty() | x2.isEmpty())
return QVector<double>();
if (x1.size() == x2.size()) {
if (x1 == x2)
return x1;
}
QVector<double> retBuf = x1;
retBuf += x2;
qSort(retBuf.begin(), retBuf.end());
// double xlow = std::max(x1[0], x2[0]);
// double xhigh = std::min(x1[x1.size() - 1], x2[x2.size() - 1]);
double xlow = std::max(x1[0], x2[0]);
double xhigh = std::min(x1.back(), x2.back());
QVector<double> ret;
ret.reserve(std::max(x1.size(), x2.size()) / 2);
foreach (double x, retBuf) {
if (x >= xlow && x <= xhigh) {
// if (ret.size() == 0 || x != ret[ret.size() - 1]) //avoiding equal numbers
// ret.push_back(x);
if (ret.size() == 0 || x != ret.back()) //avoiding equal numbers
ret.push_back(x);
}
}
return ret;
}
void appendMessage(const QString &text, OutputFormat format) final
{
const bool isTrace = (format == StdErrFormat
|| format == StdErrFormatSameLine)
&& (text.startsWith("Traceback (most recent call last):")
|| text.startsWith("\nTraceback (most recent call last):"));
if (!isTrace) {
OutputFormatter::appendMessage(text, format);
return;
}
const QTextCharFormat frm = charFormat(format);
const Core::Id id(PythonErrorTaskCategory);
QVector<Task> tasks;
const QStringList lines = text.split('\n');
unsigned taskId = unsigned(lines.size());
for (const QString &line : lines) {
const QRegularExpressionMatch match = filePattern.match(line);
if (match.hasMatch()) {
QTextCursor tc = plainTextEdit()->textCursor();
tc.movePosition(QTextCursor::End, QTextCursor::MoveAnchor);
tc.insertText('\n' + match.captured(1));
tc.insertText(match.captured(2), linkFormat(frm, match.captured(2)));
const auto fileName = FileName::fromString(match.captured(3));
const int lineNumber = match.capturedRef(4).toInt();
Task task(Task::Warning,
QString(), fileName, lineNumber, id);
task.taskId = --taskId;
tasks.append(task);
} else {
if (!tasks.isEmpty()) {
Task &task = tasks.back();
if (!task.description.isEmpty())
task.description += ' ';
task.description += line.trimmed();
}
OutputFormatter::appendMessage('\n' + line, format);
}
}
if (!tasks.isEmpty()) {
tasks.back().type = Task::Error;
for (auto rit = tasks.crbegin(), rend = tasks.crend(); rit != rend; ++rit)
TaskHub::addTask(*rit);
}
}
void CorrespondenceSearch::applyCorrespondence(const PartsCorrespondence & correspondence)
{
QVector<ParticleMesh*> input; input << sA << sB;
QVector<Particles> particles;
particles << sA->particles << sB->particles;
for( auto & pairing : correspondence )
{
PartCorresponder::correspondSegments( pairing, input, particles );
// DEBUG:
if( true )
{
auto ls = new starlab::LineSegments(3);
auto boxA = sA->segmentBoundingBox( input[0]->property["segments"].value<Segments>()[pairing.first] );
auto boxB = sB->segmentBoundingBox( input[1]->property["segments"].value<Segments>()[pairing.second] );
ls->addLine( Vector3( boxA.center() ), Vector3(boxB.center() + Vector3(1,0,0)), Qt::black );
debug << ls;
}
}
// Assign back
sA->particles = particles.front();
sB->particles = particles.back();
}
QVector<chatMes> sql::getHistoryChat(QMap<QString, QVariant> map)
{
QSqlQuery query(db);
QVector<chatMes> mesVec;
int userID = getFriendID(map["friendQQ"].toLongLong()) ;
int friendID = getFriendID(map["meQQ"].toLongLong());
int offset = map[ "offset" ].toInt();
if ( !query.exec(sql_statement::historyChat_str(userID,friendID,offset) ) ) {
qDebug()<<"getHistoryChat fail: "<<query.lastError().text();
return mesVec;
} qDebug()<<sql_statement::historyChat_str(userID,friendID,offset);
int size = query.size();
if (size==0) {
return mesVec;
}
int i=0;
while(query.next()) {
chatMes mes;
int fromID = query.value(0).toInt();
mes.fromAccount = QString::number(fromID+N);
mes.content = query.value(1).toString();
mes.time=QDateTime::fromString(query.value(2).toString(),"yyyy-MM-dd hh:mm");
mes.type = query.value(3).toInt();
mesVec.push_back(mes);
qDebug()<<" getHistoryChat"<<mesVec.count() <<mesVec.back().fromAccount<< " "<<mesVec.back().content;
}
return mesVec;
}
void PartCorresponder::match1DGridChunk( QVector< QVector<SliceChunk> > sortedChunk, const QVector<ParticleMesh *> & input, QVector<Particles> & particles )
{
QVector< QVector<SliceChunk> > readyChunkPairs;
auto & sortedChunkFront = sortedChunk.front();
auto & sortedChunkBack = sortedChunk.back();
// Different number of chunks
if( sortedChunkFront.size() != sortedChunkBack.size() )
{
int targetSize = std::min( sortedChunkFront.size(), sortedChunkBack.size() );
if(targetSize == 1)
{
QVector<SliceChunk> chunkPairs;
if( sortedChunkFront.size() == 1 ) chunkPairs.push_back( sortedChunkFront.front() );
else chunkPairs.push_back( mergeChunks( sortedChunkFront, input.front(), particles.front() ) );
if( sortedChunkBack.size() == 1) chunkPairs.push_back( sortedChunkBack.front() );
else chunkPairs.push_back( mergeChunks( sortedChunkBack, input.back(), particles.back() ) );
readyChunkPairs.push_back( chunkPairs );
}
else
{
// For now we use basic matching.. later we should either split / merge
for(auto v : distributeVectors(sortedChunkFront.size(), sortedChunkBack.size()))
{
QVector<SliceChunk> p;
p << sortedChunkFront[v.first] << sortedChunkBack[v.second];
readyChunkPairs.push_back( p );
}
}
}
else
{
// Same number of elements, simply match them up
for(size_t i = 0; i < sortedChunk.front().size(); i++)
{
readyChunkPairs.push_back( QVector<SliceChunk>() << sortedChunkFront.at(i) << sortedChunkBack.at(i) );
}
}
// Match each pair of chunks
for(auto & pairChunk : readyChunkPairs)
matchChunk(pairChunk, input, particles);
}
value_type *AddVariable(const char_type *varName, void *userData)
{
(void)varName;
QVector<value_type> *vec = (QVector<value_type> *)userData;
vec->push_back(0);
return &vec->back();
}
void PaintWidget::waypointsChanged()
{
m_request.target = RoutingLogic::instance()->target();
QVector< UnsignedCoordinate > waypoints = RoutingLogic::instance()->waypoints();
if ( waypoints.size() > 0 && RoutingLogic::instance()->target() == waypoints.back() )
waypoints.pop_back();
m_request.waypoints = waypoints;
update();
}
void Record::createWaveFormPic(Ffmpeg_t *ffmpeg, QString recortPath) {
std::pair<std::vector<double>, std::vector<double> > dataWaveForm = ffmpeg->getSamplesForWaveformPlotting(recortPath + "/" + m_Name);
QCustomPlot Plotter;
Plotter.setBackground(QBrush(Qt::transparent) );
Plotter.xAxis->setVisible(false);
Plotter.yAxis->setVisible(false);
Plotter.axisRect()->setAutoMargins(QCP::msNone);
Plotter.axisRect()->setMargins(QMargins(0, 5, 0, 5));
QCPGraph *Waveform = Plotter.addGraph();
Waveform->setPen(QPen(Qt::green) );
if (!Waveform)
{
qDebug("addGraph failed\n");
}
QVector<double> Amplitudes(QVector<double>::fromStdVector(dataWaveForm.first) );
QVector<double> Time;
double CurrentTime = 0;
auto TimeSlotCount = Amplitudes.size();
for (int64_t i = 1; i < TimeSlotCount; i++)
{
Time.append(CurrentTime);
CurrentTime += 0.5;
}
Waveform->setData(Time, Amplitudes);
Plotter.xAxis->setRange(0, Time.back() );
Plotter.yAxis->setRange(SHRT_MIN, SHRT_MAX);
QByteArray ByteArray;
QBuffer Buffer(&ByteArray);
Buffer.open(QBuffer::WriteOnly);
uint32_t time = m_EndTime - m_StartTime;
for (int i = 1; i < 10000; i*=10) {
Plotter.toPixmap(time/(i), this->height()).save(&Buffer, "PNG", 0);
//Plotter.saveJpg(recortPath + "/plot" + QString::number(m_Id) + QString::number(i) + ".jpg", time/(i), this->height());
QPixmap Pixmap;
Pixmap.loadFromData(ByteArray, "PNG");
v_PixWaves.append(Pixmap);
ByteArray.clear();
Buffer.reset();
}
Buffer.close();
qDebug() << m_WavePic->margin();
// místo 2 podle toho jaký zoom
m_WavePic->setPixmap(v_PixWaves[2]);
}
void TaskSheet::executeGrowShrinkSheet(double t)
{
Structure::Sheet* structure_sheet = ((Structure::Sheet*)node());
QVector<Link*> edges = active->getEdges( property["edges"].value< QVector<int> >() );
/// Single edge case
if ( property.contains("deltas") )
{
Array2D_Vector3 cpts = property["orgCtrlPoints"].value<Array2D_Vector3>();
Array2D_Vector3 deltas = property["deltas"].value<Array2D_Vector3>();
// Grow sheet
for(size_t u = 0; u < structure_sheet->surface.mNumUCtrlPoints; u++)
for(size_t v = 0; v < structure_sheet->surface.mNumVCtrlPoints; v++)
structure_sheet->surface.mCtrlPoint[u][v] = cpts[u][v] + (deltas[u][v] * t);
}
/// Two edges case
if( property.contains("pathA") && property.contains("pathB") && property.contains("cpCoords") )
{
QVector< GraphDistance::PathPointPair > pathA = property["pathA"].value< QVector< GraphDistance::PathPointPair > >();
QVector< GraphDistance::PathPointPair > pathB = property["pathB"].value< QVector< GraphDistance::PathPointPair > >();
if(pathA.size() == 0 || pathB.size() == 0) return;
double dt = t;
if(type == SHRINK) dt = 1 - t;
double decodeT = qMin(1.0, dt * 2.0);
int idxA = dt * (pathA.size() - 1);
int idxB = dt * (pathB.size() - 1);
// Move to next step
Vector3 pointA = pathA[idxA].position(active);
Vector3 pointB = pathB[idxB].position(active);
Structure::Link *linkA = edges.front(), *linkB = edges.back();
if (type == GROW){
linkA = target->getEdge(linkA->property["correspond"].toInt());
linkB = target->getEdge(linkB->property["correspond"].toInt());
}
Vector3d deltaA = linkA->property["delta"].value<Vector3d>() * dt;
Vector3d deltaB = linkB->property["delta"].value<Vector3d>() * dt;
Array1D_Vector3 decoded = Curve::decodeCurve(property["cpCoords"].value<CurveEncoding>(), pointA + deltaA, pointB + deltaB, decodeT);
structure_sheet->setControlPoints( decoded );
}
}
void checkVColour(QVector< QVector<Candy*> > board, int dimension) {
QVector<Candy*> same;
for (int j = 0; j < dimension; j++) {
for (int i = 0; i < dimension; i++) {
if (same.empty())
same.push_back(board[i][j]);
else if (!same.empty()) {
if (same.size() == 5) {
same = checkXColour(board, same);
for (int k = 0; k < 5; k++)
same[k]->setCandy(0);
same.clear();
same.push_back(board[i][j]);
}
else if (board[i][j]->getCol() == same.back()->getCol() + 1) {
if (board[i][j]->getCandy() == same.back()->getCandy())
same.push_back(board[i][j]);
else {
same.clear();
same.push_back(board[i][j]);
}
}
}
}
if (same.size() == 5) {
for (int k = 0; k < 5; k++)
same[k]->setCandy(0);
}
same.clear();
}
}
void OsmAnd::RoutePlanner::addRouteSegmentToRoute( QVector< std::shared_ptr<RouteSegment> >& route, const std::shared_ptr<RouteSegment>& segment, bool reverse )
{
if (segment->startPointIndex == segment->endPointIndex)
return;
if (route.size() > 0)
{
auto last = route.back();
if (last->road->id == segment->road->id)
{
if (combineTwoSegmentResult(segment, last, reverse))
return;
}
}
route.push_back(segment);
}
QVector<rpp::pp_macro*> computeGccStandardMacros(bool withStdCpp0x = true)
{
QVector<rpp::pp_macro*> ret;
//Get standard macros from gcc
KProcess proc;
proc.setOutputChannelMode(KProcess::MergedChannels);
// The output of the following gcc commands is several line in the format:
// "#define MACRO [definition]", where definition may or may not be present.
// Parsing each line sequentially, we can easily build the macro set.
proc << "gcc";
if (withStdCpp0x) {
// see also: https://bugs.kde.org/show_bug.cgi?id=298252
proc << "-std=c++0x";
}
proc << "-xc++" << "-E" << "-dM" <<NULL_DEVICE;
if (proc.execute(5000) == 0) {
QString line;
while (proc.canReadLine()) {
QByteArray buff = proc.readLine();
if (!buff.isEmpty()) {
line = buff;
if (line.startsWith("#define ")) {
line = line.right(line.length() - 8).trimmed();
int pos = line.indexOf(' ');
ret.append(new rpp::pp_macro);
rpp::pp_macro& macro(*ret.back());
if (pos != -1) {
macro.name = IndexedString( line.left(pos) );
macro.setDefinitionText( line.right(line.length() - pos - 1).toUtf8() );
} else {
macro.name = IndexedString( line );
}
}
}
}
} else if (withStdCpp0x) {
// fallback to macro computation without -std=c++0x arg for old gcc versions
return computeGccStandardMacros(false);
} else {
kDebug(9007) <<"Unable to read standard c++ macro definitions from gcc:" <<QString(proc.readAll()) ;
}
return ret;
}
void TaskSheet::prepareGrowShrinkSheet()
{
Structure::Node * n = node();
QVector<Structure::Link*> edges = filterEdges(n, active->getEdges(n->id));
property["edges"].setValue( active->getEdgeIDs(edges) );
if (edges.size() == 1)
{
prepareSheetOneEdge( edges.front() );
}
if (edges.size() == 2)
{
prepareSheetTwoEdges( edges.front(), edges.back() );
}
}
uint32_t TimelineBar::processDraws(QVector<Marker> &markers, QVector<uint32_t> &draws,
const rdcarray<DrawcallDescription> &curDraws)
{
uint32_t maxEID = 0;
for(const DrawcallDescription &d : curDraws)
{
if(!d.children.isEmpty())
{
markers.push_back(Marker());
Marker &m = markers.back();
m.name = d.name;
m.eidStart = d.eventId;
m.eidEnd = processDraws(m.children, m.draws, d.children);
maxEID = qMax(maxEID, m.eidEnd);
if(d.markerColor[3] > 0.0f)
{
m.color = QColor::fromRgb(
qRgb(d.markerColor[0] * 255.0f, d.markerColor[1] * 255.0f, d.markerColor[2] * 255.0f));
}
else
{
m.color = QColor(Qt::gray);
}
}
else
{
if(!(d.flags & DrawFlags::SetMarker))
{
m_Draws.push_back(d.eventId);
draws.push_back(d.eventId);
}
}
maxEID = qMax(maxEID, d.eventId);
}
return maxEID;
}
void CollectionWindow::addToCollection(const QVector<QPair<int, int>>& additions)
{
for (const QPair<int,int>& add : additions)
{
auto currentQuantity = collectionTableModel_.getQuantity(add.first);
collectionTableModel_.setQuantity(add.first, currentQuantity + add.second);
}
if (!additions.empty())
{
int rowIndex = mtg::Collection::instance().getRowIndex(additions.back().first);
if (rowIndex >= 0)
{
int columnIndex = ui_.collectionTbl_->horizontalHeader()->logicalIndexAt(0);
QModelIndex sourceIndex = collectionTableModel_.sourceModel()->index(rowIndex, columnIndex);
QModelIndex proxyIndex = collectionTableModel_.mapFromSource(sourceIndex);
ui_.collectionTbl_->setCurrentIndex(proxyIndex);
}
}
updateStatusBar();
}
void CollectionWindow::addToCollection(const QVector<int>& dataRowIndices)
{
for (const int dataRowIndex : dataRowIndices)
{
auto currentQuantity = collectionTableModel_.getQuantity(dataRowIndex);
collectionTableModel_.setQuantity(dataRowIndex, currentQuantity + 1);
}
if (!dataRowIndices.empty())
{
int rowIndex = mtg::Collection::instance().getRowIndex(dataRowIndices.back());
if (rowIndex >= 0)
{
int columnIndex = ui_.collectionTbl_->horizontalHeader()->logicalIndexAt(0);
QModelIndex sourceIndex = collectionTableModel_.sourceModel()->index(rowIndex, columnIndex);
QModelIndex proxyIndex = collectionTableModel_.mapFromSource(sourceIndex);
ui_.collectionTbl_->setCurrentIndex(proxyIndex);
}
}
updateStatusBar();
}
QVector<rpp::pp_macro*> computeGccStandardMacros()
{
QVector<rpp::pp_macro*> ret;
//Get standard macros from gcc
KProcess proc;
proc.setOutputChannelMode(KProcess::MergedChannels);
proc.setTextModeEnabled(true);
// The output of the following gcc commands is several line in the format:
// "#define MACRO [definition]", where definition may or may not be present.
// Parsing each line sequentially, we can easily build the macro set.
proc <<"gcc" <<"-xc++" <<"-E" <<"-dM" <<"/dev/null";
if (proc.execute(5000) == 0) {
QString line;
while (proc.canReadLine()) {
QByteArray buff = proc.readLine();
if (!buff.isEmpty()) {
line = buff;
if (line.startsWith("#define ")) {
line = line.right(line.length() - 8).trimmed();
int pos = line.indexOf(' ');
ret.append(new rpp::pp_macro);
rpp::pp_macro& macro(*ret.back());
if (pos != -1) {
macro.name = IndexedString( line.left(pos) );
macro.setDefinitionText( line.right(line.length() - pos - 1).toUtf8() );
} else {
macro.name = IndexedString( line );
}
}
}
}
} else {
kDebug(9007) <<"Unable to read standard c++ macro definitions from gcc:" <<QString(proc.readAll()) ;
}
return ret;
}
void TaskSheet::prepareCrossingSheet()
{
Structure::Node * n = node();
//QVector<Structure::Link*> edges = filterEdges(n, active->getEdges(n->id));
// For now, let us only use one edge:
QVector<Structure::Link*> edges;
edges.push_back( filterEdges(n, active->getEdges(n->id)).front() );
if (edges.size() == 1)
{
// Start and end
Link * link = edges.front();
Vector3d start = link->positionOther(n->id);
NodeCoord futureNodeCord = futureLinkCoord(link);
Vector3d end = active->position(futureNodeCord.first,futureNodeCord.second);
// Geodesic distances on the active graph excluding the running tasks
QVector< GraphDistance::PathPointPair > path;
QVector<QString> exclude = active->property["activeTasks"].value< QVector<QString> >();
GraphDistance gd( active, exclude );
gd.computeDistances( end, DIST_RESOLUTION );
gd.smoothPathCoordTo( start, path );
// Check
if(path.size() < 2) { path.clear(); path.push_back(GraphDistance::PathPointPair( PathPoint(futureNodeCord.first, futureNodeCord.second))); }
property["path"].setValue( GraphDistance::positionalPath(active, path) );
// Save links paths
path.back() = GraphDistance::PathPointPair( PathPoint(futureNodeCord.first, futureNodeCord.second) );
link->setProperty("path", path);
}
property["edges"].setValue( active->getEdgeIDs(edges) );
}
RowStore RowStoreModel::cacheFromLiveNodes(LiveNodes const &livenodes)
{
if(LiveNodeModel *model = livenodes.model())
{
if(RowStoreModel *modeldata = dynamic_cast<RowStoreModel *>(model))
return modeldata->row_store;
QVector<QStringList> ret;
int columns = model->columnCount();
for(int r = 0, rend = model->rowCount(); r < rend; ++r)
{
ret.push_back(QStringList());
QStringList &b = ret.back();
for(int c = 0; c < columns; ++c)
b.push_back(model->data(model->index(r, c), Qt::DisplayRole).toString());
}
return RowStore(ret);
}
QVector<QStringList> ret;
QList<LiveNode> const &nodes = livenodes.nodes();
ret.reserve(nodes.size());
for(QList<LiveNode>::const_iterator ni = nodes.begin(), niend = nodes.end(); ni != niend; ++ni)
ret.push_back(QStringList(ni->toString()));
return RowStore(ret);
}
int main( int argc, char ** argv )
{
#if defined (FC_OS_LINUX) || defined(FC_OS_BSD)
// Make sure to setup the Qt locale system before setting LANG and LC_ALL to C.
// which is needed to use the system locale settings.
(void)QLocale::system();
// http://www.freecadweb.org/tracker/view.php?id=399
// Because of setting LANG=C the Qt automagic to use the correct encoding
// for file names is broken. This is a workaround to force the use of UTF-8 encoding
QFile::setEncodingFunction(myEncoderFunc);
QFile::setDecodingFunction(myDecoderFunc);
// Make sure that we use '.' as decimal point. See also
// http://bugs.debian.org/cgi-bin/bugreport.cgi?bug=559846
putenv("LC_NUMERIC=C");
putenv("PYTHONPATH=");
#elif defined(FC_OS_MACOSX)
(void)QLocale::system();
putenv("LC_NUMERIC=C");
putenv("PYTHONPATH=");
#else
setlocale(LC_NUMERIC, "C");
_putenv("PYTHONPATH=");
#endif
#if defined (FC_OS_WIN32)
int argc_ = argc;
QVector<QByteArray> data;
QVector<char *> argv_;
// get the command line arguments as unicode string
{
QCoreApplication app(argc, argv);
QStringList args = app.arguments();
for (QStringList::iterator it = args.begin(); it != args.end(); ++it) {
data.push_back(it->toUtf8());
argv_.push_back(data.back().data());
}
argv_.push_back(0); // 0-terminated string
}
#endif
// Name and Version of the Application
App::Application::Config()["ExeName"] = "FreeCAD";
App::Application::Config()["ExeVendor"] = "FreeCAD";
App::Application::Config()["AppDataSkipVendor"] = "true";
App::Application::Config()["MaintainerUrl"] = "http://www.freecadweb.org/wiki/index.php?title=Main_Page";
// set the banner (for logging and console)
App::Application::Config()["CopyrightInfo"] = sBanner;
App::Application::Config()["AppIcon"] = "freecad";
App::Application::Config()["SplashScreen"] = "freecadsplash";
App::Application::Config()["StartWorkbench"] = "StartWorkbench";
//App::Application::Config()["HiddenDockWindow"] = "Property editor";
App::Application::Config()["SplashAlignment" ] = "Bottom|Left";
App::Application::Config()["SplashTextColor" ] = "#ffffff"; // white
App::Application::Config()["SplashInfoColor" ] = "#c8c8c8"; // light grey
try {
// Init phase ===========================================================
// sets the default run mode for FC, starts with gui if not overridden in InitConfig...
App::Application::Config()["RunMode"] = "Gui";
// Inits the Application
#if defined (FC_OS_WIN32)
App::Application::init(argc_, argv_.data());
#else
App::Application::init(argc, argv);
#endif
#if defined(_MSC_VER)
// create a dump file when the application crashes
std::string dmpfile = App::Application::getUserAppDataDir();
dmpfile += "crash.dmp";
InitMiniDumpWriter(dmpfile);
#endif
std::map<std::string, std::string>::iterator it = App::Application::Config().find("NavigationStyle");
if (it != App::Application::Config().end()) {
ParameterGrp::handle hGrp = App::GetApplication().GetParameterGroupByPath("User parameter:BaseApp/Preferences/View");
// if not already defined do it now (for the very first start)
std::string style = hGrp->GetASCII("NavigationStyle", it->second.c_str());
hGrp->SetASCII("NavigationStyle", style.c_str());
}
Gui::Application::initApplication();
// Only if 'RunMode' is set to 'Gui' do the replacement
if (App::Application::Config()["RunMode"] == "Gui")
Base::Interpreter().replaceStdOutput();
}
catch (const Base::UnknownProgramOption& e) {
QApplication app(argc,argv);
QString appName = QString::fromAscii(App::Application::Config()["ExeName"].c_str());
QString msg = QString::fromAscii(e.what());
QString s = QLatin1String("<pre>") + msg + QLatin1String("</pre>");
QMessageBox::critical(0, appName, s);
exit(1);
}
catch (const Base::ProgramInformation& e) {
QApplication app(argc,argv);
QString appName = QString::fromAscii(App::Application::Config()["ExeName"].c_str());
QString msg = QString::fromAscii(e.what());
QString s = QLatin1String("<pre>") + msg + QLatin1String("</pre>");
QMessageBox::information(0, appName, s);
exit(0);
}
catch (const Base::Exception& e) {
// Popup an own dialog box instead of that one of Windows
QApplication app(argc,argv);
QString appName = QString::fromAscii(App::Application::Config()["ExeName"].c_str());
QString msg;
msg = QObject::tr("While initializing %1 the following exception occurred: '%2'\n\n"
"Python is searching for its files in the following directories:\n%3\n\n"
"Python version information:\n%4\n")
.arg(appName).arg(QString::fromUtf8(e.what()))
.arg(QString::fromUtf8(Py_GetPath())).arg(QString::fromAscii(Py_GetVersion()));
const char* pythonhome = getenv("PYTHONHOME");
if (pythonhome) {
msg += QObject::tr("\nThe environment variable PYTHONHOME is set to '%1'.")
.arg(QString::fromUtf8(pythonhome));
msg += QObject::tr("\nSetting this environment variable might cause Python to fail. "
"Please contact your administrator to unset it on your system.\n\n");
} else {
msg += QObject::tr("\nPlease contact the application's support team for more information.\n\n");
}
QMessageBox::critical(0, QObject::tr("Initialization of %1 failed").arg(appName), msg);
exit(100);
}
catch (...) {
// Popup an own dialog box instead of that one of Windows
QApplication app(argc,argv);
QString appName = QString::fromAscii(App::Application::Config()["ExeName"].c_str());
QString msg = QObject::tr("Unknown runtime error occurred while initializing %1.\n\n"
"Please contact the application's support team for more information.\n\n").arg(appName);
QMessageBox::critical(0, QObject::tr("Initialization of %1 failed").arg(appName), msg);
exit(101);
}
// Run phase ===========================================================
Base::RedirectStdOutput stdcout;
Base::RedirectStdLog stdclog;
Base::RedirectStdError stdcerr;
std::streambuf* oldcout = std::cout.rdbuf(&stdcout);
std::streambuf* oldclog = std::clog.rdbuf(&stdclog);
std::streambuf* oldcerr = std::cerr.rdbuf(&stdcerr);
try {
if (App::Application::Config()["RunMode"] == "Gui")
Gui::Application::runApplication();
else
App::Application::runApplication();
}
catch (const Base::SystemExitException&) {
exit(0);
}
catch (const Base::Exception& e) {
Base::Console().Error("%s\n", e.what());
}
catch (...) {
Base::Console().Error("Application unexpectedly terminated\n");
}
std::cout.rdbuf(oldcout);
std::clog.rdbuf(oldclog);
std::cerr.rdbuf(oldcerr);
// Destruction phase ===========================================================
Base::Console().Log("%s terminating...\n",App::Application::Config()["ExeName"].c_str());
// cleans up
App::Application::destruct();
Base::Console().Log("%s completely terminated\n",App::Application::Config()["ExeName"].c_str());
return 0;
}
int main( int argc, char ** argv )
{
#if defined (FC_OS_LINUX) || defined(FC_OS_BSD)
// Make sure to setup the Qt locale system before setting LANG and LC_ALL to C.
// which is needed to use the system locale settings.
(void)QLocale::system();
#if QT_VERSION < 0x050000
// http://www.freecadweb.org/tracker/view.php?id=399
// Because of setting LANG=C the Qt automagic to use the correct encoding
// for file names is broken. This is a workaround to force the use of UTF-8 encoding
QFile::setEncodingFunction(myEncoderFunc);
QFile::setDecodingFunction(myDecoderFunc);
#endif
// See https://forum.freecadweb.org/viewtopic.php?f=18&t=20600
// See Gui::Application::runApplication()
putenv("LC_NUMERIC=C");
putenv("PYTHONPATH=");
#elif defined(FC_OS_MACOSX)
(void)QLocale::system();
putenv("PYTHONPATH=");
#else
_putenv("PYTHONPATH=");
// https://forum.freecadweb.org/viewtopic.php?f=4&t=18288
// https://forum.freecadweb.org/viewtopic.php?f=3&t=20515
const char* fc_py_home = getenv("FC_PYTHONHOME");
if (fc_py_home)
_putenv_s("PYTHONHOME", fc_py_home);
else
_putenv("PYTHONHOME=");
#endif
#if defined (FC_OS_WIN32)
int argc_ = argc;
QVector<QByteArray> data;
QVector<char *> argv_;
// get the command line arguments as unicode string
{
QCoreApplication app(argc, argv);
QStringList args = app.arguments();
for (QStringList::iterator it = args.begin(); it != args.end(); ++it) {
data.push_back(it->toUtf8());
argv_.push_back(data.back().data());
}
argv_.push_back(0); // 0-terminated string
}
#endif
#if PY_MAJOR_VERSION >= 3
#if defined(_MSC_VER) && _MSC_VER <= 1800
// See InterpreterSingleton::init
Redirection out(stdout), err(stderr), inp(stdin);
#endif
#endif // PY_MAJOR_VERSION
// Name and Version of the Application
App::Application::Config()["ExeName"] = "FreeCAD";
App::Application::Config()["ExeVendor"] = "FreeCAD";
App::Application::Config()["AppDataSkipVendor"] = "true";
App::Application::Config()["MaintainerUrl"] = "http://www.freecadweb.org/wiki/Main_Page";
// set the banner (for logging and console)
App::Application::Config()["CopyrightInfo"] = sBanner;
App::Application::Config()["AppIcon"] = "freecad";
App::Application::Config()["SplashScreen"] = "freecadsplash";
App::Application::Config()["StartWorkbench"] = "StartWorkbench";
//App::Application::Config()["HiddenDockWindow"] = "Property editor";
App::Application::Config()["SplashAlignment" ] = "Bottom|Left";
App::Application::Config()["SplashTextColor" ] = "#ffffff"; // white
App::Application::Config()["SplashInfoColor" ] = "#c8c8c8"; // light grey
try {
// Init phase ===========================================================
// sets the default run mode for FC, starts with gui if not overridden in InitConfig...
App::Application::Config()["RunMode"] = "Gui";
App::Application::Config()["Console"] = "0";
// Inits the Application
#if defined (FC_OS_WIN32)
App::Application::init(argc_, argv_.data());
#else
App::Application::init(argc, argv);
#endif
#if defined(_MSC_VER)
// create a dump file when the application crashes
std::string dmpfile = App::Application::getUserAppDataDir();
dmpfile += "crash.dmp";
InitMiniDumpWriter(dmpfile);
#endif
std::map<std::string, std::string>::iterator it = App::Application::Config().find("NavigationStyle");
if (it != App::Application::Config().end()) {
ParameterGrp::handle hGrp = App::GetApplication().GetParameterGroupByPath("User parameter:BaseApp/Preferences/View");
// if not already defined do it now (for the very first start)
std::string style = hGrp->GetASCII("NavigationStyle", it->second.c_str());
hGrp->SetASCII("NavigationStyle", style.c_str());
}
Gui::Application::initApplication();
// Only if 'RunMode' is set to 'Gui' do the replacement
if (App::Application::Config()["RunMode"] == "Gui")
Base::Interpreter().replaceStdOutput();
}
catch (const Base::UnknownProgramOption& e) {
QApplication app(argc,argv);
QString appName = QString::fromLatin1(App::Application::Config()["ExeName"].c_str());
QString msg = QString::fromLatin1(e.what());
QString s = QLatin1String("<pre>") + msg + QLatin1String("</pre>");
QMessageBox::critical(0, appName, s);
exit(1);
}
catch (const Base::ProgramInformation& e) {
QApplication app(argc,argv);
QString appName = QString::fromLatin1(App::Application::Config()["ExeName"].c_str());
QString msg = QString::fromUtf8(e.what());
QString s = QLatin1String("<pre>") + msg + QLatin1String("</pre>");
QMessageBox msgBox;
msgBox.setIcon(QMessageBox::Information);
msgBox.setWindowTitle(appName);
msgBox.setDetailedText(msg);
msgBox.setText(s);
msgBox.exec();
exit(0);
}
catch (const Base::Exception& e) {
// Popup an own dialog box instead of that one of Windows
QApplication app(argc,argv);
QString appName = QString::fromLatin1(App::Application::Config()["ExeName"].c_str());
QString msg;
msg = QObject::tr("While initializing %1 the following exception occurred: '%2'\n\n"
"Python is searching for its files in the following directories:\n%3\n\n"
"Python version information:\n%4\n")
.arg(appName).arg(QString::fromUtf8(e.what()))
#if PY_MAJOR_VERSION >= 3
#if PY_MINOR_VERSION >= 5
.arg(QString::fromUtf8(Py_EncodeLocale(Py_GetPath(),NULL))).arg(QString::fromLatin1(Py_GetVersion()));
#else
.arg(QString::fromUtf8(_Py_wchar2char(Py_GetPath(),NULL))).arg(QString::fromLatin1(Py_GetVersion()));
#endif
#else
.arg(QString::fromUtf8(Py_GetPath())).arg(QString::fromLatin1(Py_GetVersion()));
void GraphConnection::render(QPainter &painter)
{
assert(_impl);
//dont draw connections with missing endpoints
if (not _impl->outputEp.isValid()) return;
if (not _impl->inputEp.isValid()) return;
//query the connectable info
const auto outputAttrs = _impl->outputEp.getConnectableAttrs();
const auto inputAttrs = _impl->inputEp.getConnectableAttrs();
//make the minimal output protrusion
const auto op0 = outputAttrs.point;
QTransform otrans; otrans.rotate(outputAttrs.rotation);
const auto op1 = outputAttrs.point + otrans.map(QPointF(GraphConnectionMinPling, 0));
//make the minimal input protrusion
const auto ip0 = inputAttrs.point;
QTransform itrans; itrans.rotate(inputAttrs.rotation + 180);
const auto ip1 = inputAttrs.point + itrans.map(QPointF(GraphConnectionMinPling+GraphConnectionArrowLen, 0));
//create a path for the connection lines
QVector<QPointF> points;
points.push_back(op0);
points.push_back(op1);
makeLines(points, op1, outputAttrs.rotation, ip1, inputAttrs.rotation + 180);
points.push_back(ip1);
points.push_back(ip0);
//create a painter path with curves for corners
QPainterPath path(points.front());
for (int i = 1; i < points.size()-1; i++)
{
const auto last = points[i-1];
const auto curr = points[i];
const auto next = points[i+1];
path.lineTo(lineShorten(QLineF(last, curr)).p2());
path.quadTo(curr, lineShorten(QLineF(next, curr)).p2());
}
path.lineTo(points.back());
//draw the painter path
QColor color(getSelected()?GraphConnectionHighlightColor:GraphConnectionDefaultColor);
painter.setBrush(Qt::NoBrush);
QPen pen(color);
pen.setWidthF(GraphConnectionGirth);
painter.setPen(pen);
painter.drawPath(path);
_impl->points = points;
//create arrow head
QTransform trans0; trans0.rotate(inputAttrs.rotation + GraphConnectionArrowAngle);
QTransform trans1; trans1.rotate(inputAttrs.rotation - GraphConnectionArrowAngle);
const auto p0 = trans0.map(QPointF(-GraphConnectionArrowLen, 0));
const auto p1 = trans1.map(QPointF(-GraphConnectionArrowLen, 0));
QPolygonF arrowHead;
arrowHead << ip0 << (ip0+p0) << (ip0+p1);
painter.setBrush(QBrush(color));
painter.drawPolygon(arrowHead);
_impl->arrowHead = arrowHead;
}
/*!
Draw the shape in response to an update event.
*/
void QgsRubberBand::paint( QPainter* p )
{
if ( !mPoints.isEmpty() )
{
p->setBrush( mBrush );
p->setPen( mPen );
Q_FOREACH ( const QList<QgsPoint>& line, mPoints )
{
QVector<QPointF> pts;
Q_FOREACH ( const QgsPoint& pt, line )
{
const QPointF cur = toCanvasCoordinates( QgsPoint( pt.x() + mTranslationOffsetX, pt.y() + mTranslationOffsetY ) ) - pos();
if ( pts.empty() || std::abs( pts.back().x() - cur.x() ) > 1 || std::abs( pts.back().y() - cur.y() ) > 1 )
pts.append( cur );
}
switch ( mGeometryType )
{
case QgsWkbTypes::PolygonGeometry:
{
p->drawPolygon( pts );
}
break;
case QgsWkbTypes::PointGeometry:
{
Q_FOREACH ( QPointF pt, pts )
{
double x = pt.x();
double y = pt.y();
qreal s = ( mIconSize - 1 ) / 2.0;
switch ( mIconType )
{
case ICON_NONE:
break;
case ICON_CROSS:
p->drawLine( QLineF( x - s, y, x + s, y ) );
p->drawLine( QLineF( x, y - s, x, y + s ) );
break;
case ICON_X:
p->drawLine( QLineF( x - s, y - s, x + s, y + s ) );
p->drawLine( QLineF( x - s, y + s, x + s, y - s ) );
break;
case ICON_BOX:
p->drawLine( QLineF( x - s, y - s, x + s, y - s ) );
p->drawLine( QLineF( x + s, y - s, x + s, y + s ) );
p->drawLine( QLineF( x + s, y + s, x - s, y + s ) );
p->drawLine( QLineF( x - s, y + s, x - s, y - s ) );
break;
case ICON_FULL_BOX:
p->drawRect( x - s, y - s, mIconSize, mIconSize );
break;
case ICON_CIRCLE:
p->drawEllipse( x - s, y - s, mIconSize, mIconSize );
break;
}
}
}
break;
case QgsWkbTypes::LineGeometry:
default:
{
p->drawPolyline( pts );
}
break;
}
/// Display a form layout with an edit box
/// \param const QString& title title to display
/// \param const QScriptValue form to display (array containing labels and values)
/// \return QScriptValue result form (unchanged is dialog canceled)
QScriptValue WindowScriptingInterface::showForm(const QString& title, QScriptValue form) {
if (form.isArray() && form.property("length").toInt32() > 0) {
QDialog* editDialog = new QDialog(Application::getInstance()->getWindow());
editDialog->setWindowTitle(title);
QVBoxLayout* layout = new QVBoxLayout();
editDialog->setLayout(layout);
QScrollArea* area = new QScrollArea();
layout->addWidget(area);
area->setWidgetResizable(true);
QWidget* container = new QWidget();
QFormLayout* formLayout = new QFormLayout();
container->setLayout(formLayout);
container->sizePolicy().setHorizontalStretch(1);
formLayout->setRowWrapPolicy(QFormLayout::DontWrapRows);
formLayout->setFieldGrowthPolicy(QFormLayout::ExpandingFieldsGrow);
formLayout->setFormAlignment(Qt::AlignHCenter | Qt::AlignTop);
formLayout->setLabelAlignment(Qt::AlignLeft);
area->setWidget(container);
QVector<QLineEdit*> edits;
for (int i = 0; i < form.property("length").toInt32(); ++i) {
QScriptValue item = form.property(i);
edits.push_back(new QLineEdit(item.property("value").toString()));
formLayout->addRow(item.property("label").toString(), edits.back());
}
QDialogButtonBox* buttons = new QDialogButtonBox(QDialogButtonBox::Ok);
connect(buttons, SIGNAL(accepted()), editDialog, SLOT(accept()));
layout->addWidget(buttons);
if (editDialog->exec() == QDialog::Accepted) {
for (int i = 0; i < form.property("length").toInt32(); ++i) {
QScriptValue item = form.property(i);
QScriptValue value = item.property("value");
bool ok = true;
if (value.isNumber()) {
value = edits.at(i)->text().toDouble(&ok);
} else if (value.isString()) {
value = edits.at(i)->text();
} else if (value.isBool()) {
if (edits.at(i)->text() == "true") {
value = true;
} else if (edits.at(i)->text() == "false") {
value = false;
} else {
ok = false;
}
}
if (ok) {
item.setProperty("value", value);
form.setProperty(i, item);
}
}
}
delete editDialog;
}
return form;
}
void QSvgText::draw(QPainter *p, QSvgExtraStates &states)
{
applyStyle(p, states);
qreal oldOpacity = p->opacity();
p->setOpacity(oldOpacity * states.fillOpacity);
// Force the font to have a size of 100 pixels to avoid truncation problems
// when the font is very small.
qreal scale = 100.0 / p->font().pointSizeF();
Qt::Alignment alignment = states.textAnchor;
QTransform oldTransform = p->worldTransform();
p->scale(1 / scale, 1 / scale);
qreal y = 0;
bool initial = true;
qreal px = m_coord.x() * scale;
qreal py = m_coord.y() * scale;
QSizeF scaledSize = m_size * scale;
if (m_type == TEXTAREA) {
if (alignment == Qt::AlignHCenter)
px += scaledSize.width() / 2;
else if (alignment == Qt::AlignRight)
px += scaledSize.width();
}
QRectF bounds;
if (m_size.height() != 0)
bounds = QRectF(0, py, 1, scaledSize.height()); // x and width are not used.
bool appendSpace = false;
QVector<QString> paragraphs;
QStack<QTextCharFormat> formats;
QVector<QList<QTextLayout::FormatRange> > formatRanges;
paragraphs.push_back(QString());
formatRanges.push_back(QList<QTextLayout::FormatRange>());
for (int i = 0; i < m_tspans.size(); ++i) {
if (m_tspans[i] == LINEBREAK) {
if (m_type == TEXTAREA) {
if (paragraphs.back().isEmpty()) {
QFont font = p->font();
font.setPixelSize(font.pointSizeF() * scale);
QTextLayout::FormatRange range;
range.start = 0;
range.length = 1;
range.format.setFont(font);
formatRanges.back().append(range);
paragraphs.back().append(QLatin1Char(' '));;
}
appendSpace = false;
paragraphs.push_back(QString());
formatRanges.push_back(QList<QTextLayout::FormatRange>());
}
} else {
WhitespaceMode mode = m_tspans[i]->whitespaceMode();
m_tspans[i]->applyStyle(p, states);
QFont font = p->font();
font.setPixelSize(font.pointSizeF() * scale);
QString newText(m_tspans[i]->text());
newText.replace(QLatin1Char('\t'), QLatin1Char(' '));
newText.replace(QLatin1Char('\n'), QLatin1Char(' '));
bool prependSpace = !appendSpace && !m_tspans[i]->isTspan() && (mode == Default) && !paragraphs.back().isEmpty() && newText.startsWith(QLatin1Char(' '));
if (appendSpace || prependSpace)
paragraphs.back().append(QLatin1Char(' '));
bool appendSpaceNext = (!m_tspans[i]->isTspan() && (mode == Default) && newText.endsWith(QLatin1Char(' ')));
if (mode == Default) {
newText = newText.simplified();
if (newText.isEmpty())
appendSpaceNext = false;
}
QTextLayout::FormatRange range;
range.start = paragraphs.back().length();
range.length = newText.length();
range.format.setFont(font);
range.format.setTextOutline(p->pen());
range.format.setForeground(p->brush());
if (appendSpace) {
Q_ASSERT(!formatRanges.back().isEmpty());
++formatRanges.back().back().length;
} else if (prependSpace) {
--range.start;
++range.length;
}
formatRanges.back().append(range);
appendSpace = appendSpaceNext;
paragraphs.back() += newText;
m_tspans[i]->revertStyle(p, states);
}
}
if (states.svgFont) {
// SVG fonts not fully supported...
QString text = paragraphs.front();
for (int i = 1; i < paragraphs.size(); ++i) {
text.append(QLatin1Char('\n'));
text.append(paragraphs[i]);
}
states.svgFont->draw(p, m_coord * scale, text, p->font().pointSizeF() * scale, states.textAnchor);
} else {
for (int i = 0; i < paragraphs.size(); ++i) {
QTextLayout tl(paragraphs[i]);
QTextOption op = tl.textOption();
op.setWrapMode(QTextOption::WrapAtWordBoundaryOrAnywhere);
tl.setTextOption(op);
tl.setAdditionalFormats(formatRanges[i]);
tl.beginLayout();
forever {
QTextLine line = tl.createLine();
if (!line.isValid())
break;
if (m_size.width() != 0)
line.setLineWidth(scaledSize.width());
}
tl.endLayout();
bool endOfBoundsReached = false;
for (int i = 0; i < tl.lineCount(); ++i) {
QTextLine line = tl.lineAt(i);
qreal x = 0;
if (alignment == Qt::AlignHCenter)
x -= 0.5 * line.naturalTextWidth();
else if (alignment == Qt::AlignRight)
x -= line.naturalTextWidth();
if (initial && m_type == TEXT)
y -= line.ascent();
initial = false;
line.setPosition(QPointF(x, y));
// Check if the current line fits into the bounding rectangle.
if ((m_size.width() != 0 && line.naturalTextWidth() > scaledSize.width())
|| (m_size.height() != 0 && y + line.height() > scaledSize.height())) {
// I need to set the bounds height to 'y-epsilon' to avoid drawing the current
// line. Since the font is scaled to 100 units, 1 should be a safe epsilon.
bounds.setHeight(y - 1);
endOfBoundsReached = true;
break;
}
y += 1.1 * line.height();
}
tl.draw(p, QPointF(px, py), QVector<QTextLayout::FormatRange>(), bounds);
if (endOfBoundsReached)
break;
}
}
p->setWorldTransform(oldTransform, false);
p->setOpacity(oldOpacity);
revertStyle(p, states);
}
int main(int argc, char *argv[])
{
QCoreApplication a(argc, argv);
QString programName = QFileInfo(
QCoreApplication::applicationFilePath()).fileName();
// Retrieve command line arguments from Qt and parse options
int appArgC = a.arguments().size();
QVector<QByteArray> arguments;
char** appArgV = new char*[appArgC];
for (int i = 0; i < appArgC; ++i) {
arguments.push_back(a.arguments()[i].toLocal8Bit());
appArgV[i] = arguments.back().data();
}
const char shortOptions[] = "h";
option longOptions[] = {
{"help", 0, NULL, 'h'}
};
opterr = 0; // disable getopt error messages
int lastOption;
while ((lastOption = getopt_long(appArgC, appArgV,
shortOptions, longOptions, NULL)) != -1)
{
switch (lastOption) {
case '?':
cerr << QString("%1: invalid option -- '%2'\n")
.arg(programName)
.arg(static_cast<char>(optopt));
cerr << endl;
printHelp(programName);
return 1;
case 'h':
printHelp(programName);
return 0;
default:
abort();
}
}
if (optind == appArgC) {
printHelp(programName);
return 99;
}
// Map the RIFF file into memory
QFile rifffile(appArgV[optind]);
if (! rifffile.open(QIODevice::ReadOnly)) {
cerr << QString("%1: %2\n").arg(programName).arg(rifffile.errorString());
return 10;
}
// QFile::map doesn't allow options like MAP_HUGETLB, MAP_PRIVATE or MAP_LOCKED
// but it is more portable between different operating systems than mmap().
// Previously, we tried to use MAP_HUGETLB with mmap() syscall but it is only
// valid for anonymous memory.
uchar* buffer = rifffile.map(0, rifffile.size());
if(buffer == NULL) {
cerr << QString("%1: %2\n")
.arg(programName)
.arg(rifffile.errorString());
return 11;
}
riff::RiffChunk<>* chunk = reinterpret_cast<riff::RiffChunk<>*>(buffer);
if (! chunk->hasTypeRiff()) {
cerr << QString("%1: '%2' is not a valid RIFF file\n")
.arg(programName)
.arg(rifffile.fileName());
return 20;
}
// Traverse the RIFF file and print its structure
traverseRiff(chunk->castTo<riff::RiffList<> >(), 0);
// return a.exec();
}
bool RTRModel::loadModelFromObjFile(const QString& filePath)
{
QFileInfo info(filePath);
modelPath = info.dir().path();
QFile objModelFile(filePath);
if(!objModelFile.open(QIODevice::ReadOnly))
{
return false;
}
QTextStream objModelStream(&objModelFile);
QString currentObjectName = "";
QString currentGroupName = "";
QString materialName = "";
QVector<RTRModelVertex*> tempVertexPositions;
QVector<RTRVector3D> tempVertexNormals;
QVector<RTRVector2D> tempVertexUVPositions;
bool currentSmoothShading = true;
while(!objModelStream.atEnd())
{
//Read a line, spaces and begin and end are trimmed
QString line = objModelStream.readLine().trimmed();
//Ignore empty lines and comment lines
if (line.isEmpty()) continue;
if (line[0] == '#') continue;
QStringList param = line.split(' ', QString::SkipEmptyParts);
QString command = param[0];
command.toLower();
param.removeFirst();
if (command == "mtllib") loadMaterialLibraryFromMtlFile(modelPath + "/" + param[0]);
else if (command == "usemtl") materialName = param[0];
else if (command == "o") currentObjectName = param[0];
else if (command == "g")
{
currentGroupName = param[0];
}
else if (command == "s")
{
if (param[0] == "off") currentSmoothShading = false;
else currentSmoothShading = true;
}
else if (command == "v")
{
tempVertexPositions.append(
addVertex(param[0].toDouble(), param[1].toDouble(), param[2].toDouble()));
}
else if (command == "vn")
{
tempVertexNormals.append(RTRVector3D(param[0].toDouble(), param[1].toDouble(), param[2].toDouble()));
tempVertexNormals.back().vectorNormalize();
}
else if (command == "vt")
{
tempVertexUVPositions.append(RTRVector2D(param[0].toDouble(), param[1].toDouble()));
}
else if (command == "f")
{
RTRModelPolygen* poly = new RTRModelPolygen();
poly->objectName = currentObjectName;
poly->groupName = currentGroupName;
poly->materialName = materialName;
poly->smoothShading = currentSmoothShading;
for (int i = 0; i < param.size(); i++)
{
QStringList list = param[i].split("/");
switch (list.size())
{
case 1:
poly->vertices.append(tempVertexPositions[list[0].toInt() - 1]);
break;
case 2:
poly->vertices.append(tempVertexPositions[list[0].toInt() - 1]);
poly->uvMaps.append(tempVertexUVPositions[list[1].toInt() - 1]);
break;
case 3:
poly->vertices.append(tempVertexPositions[list[0].toInt() - 1]);
if (!list[1].isEmpty()) poly->uvMaps.append(tempVertexUVPositions[list[1].toInt() - 1]);
poly->normals.append(tempVertexNormals[list[2].toInt() - 1]);
break;
default:
break;
}
}
polygens.insert(poly);
}
else
{
qDebug() << "Ignoring Unsupported Line : " << command << param;
}
}
objModelFile.close();
return true;
}
QVector<Vector3> SimilarSampler::FaceSamples(SurfaceMeshModel * m, int sampleNum, QVector<Vector3> & samplesNormals, double * avgSpacing)
{
QVector<Vector3> samples;
// Compute face areas
SurfaceMeshHelper h( m );
h.computeFaceAreas();
ScalarFaceProperty farea = m->face_property<Scalar>(FAREA);
Scalar area = 0;
for(auto f : m->faces()) area += farea[f];
// Compute edge lengths
ScalarEdgeProperty elength = h.computeEdgeLengths();
m->update_face_normals();
Vector3FaceProperty fnormals = m->get_face_property<Vector3>(FNORMAL);
Scalar samplePerAreaUnit = sampleNum / area;
// Mesh points
Vector3VertexProperty points = h.getVector3VertexProperty(VPOINT);
// Similar Triangles sampling
for(auto f : m->faces())
{
// Collect vector of triangle points, and map to vertices
std::vector<Eigen::Vector3d, Eigen::aligned_allocator<Eigen::Vector3d> > triangle, virtualTri;
QMap<Surface_mesh::Vertex, int> verts;
for(auto vit : m->vertices(f))
{
verts[vit] = triangle.size();
triangle.push_back(points[vit]);
}
virtualTri = triangle;
// Force virtual triangle to be isosceles
{
QMap<Surface_mesh::Halfedge,double> edgeMap;
// Classify edges by their lengths
for(auto hj : m->halfedges(f)) edgeMap[hj] = elength[m->edge(hj)];
QList< QPair<double,Surface_mesh::Halfedge> > edges = sortQMapByValue(edgeMap);
Surface_mesh::Halfedge S = edges.at(0).second, M = edges.at(1).second, L = edges.at(2).second;
Surface_mesh::Vertex vP = m->to_vertex(m->next_halfedge(L));
Surface_mesh::Vertex v0 = (vP == m->to_vertex(S)) ? m->from_vertex(S) : m->to_vertex(S);
Surface_mesh::Vertex vM = (vP == m->to_vertex(M)) ? m->from_vertex(M) : m->to_vertex(M);
Eigen::Vector3d deltaS = (points[vP] - points[v0]).normalized();
Eigen::Vector3d deltaL = (points[vM] - points[v0]).normalized();
// Push vertex towards triangle with two equal edges
virtualTri[ verts[vP] ] = points[v0] + (deltaS * elength[m->edge(M)]);
// Shrink triangle to avoid sampling edges
triangle[ verts[vP] ] = points[vP] + (-deltaS * elength[m->edge(S)] * 0.001);
triangle[ verts[vM] ] = points[vM] + (-deltaL * elength[m->edge(L)] * 0.001);
}
double varea = 0.5 * Vector3(virtualTri[1] - virtualTri[0]).cross(Vector3(virtualTri[2] - virtualTri[0])).norm();
// compute # samples in the current face
int n_samples = (int) (0.5 * varea * samplePerAreaUnit);
// Minimum number of samples per face
n_samples = qMax(n_samples, 2);
if(n_samples > 1)
{
int n_samples_per_edge = (int)((sqrt(1.0 + 8.0 * (Scalar)n_samples) + 5.0) / 2.0);
Scalar segmentNum = n_samples_per_edge - 1 ;
Scalar segmentLen = 1.0 / segmentNum;
// face sampling
for(int i = 1; i < (n_samples_per_edge - 1); i++)
{
for(int j = 1; j < (n_samples_per_edge - 1) - i; j++)
{
Scalar uvw[] = {i*segmentLen, j*segmentLen, 1.0 - (i*segmentLen + j*segmentLen)};
// Get point from current barycentric coordinate
Eigen::Vector3d p = Eigen::Vector3d::Zero();
for(int vi = 0; vi < 3; vi++)
p = p + (virtualTri[vi] * uvw[vi]);
Eigen::Vector3d coord = barycentric(p, triangle[0], triangle[1], triangle[2]);
if( !isValidBaryCoord (coord) ) continue;
samples.push_back( p );
samplesNormals.push_back( fnormals[f] );
if(avgSpacing && j > 1 && samples.size() > 1)
{
double dist = (samples.back() - samples[samples.size()-2]).norm();
if(dist != 0.0) *avgSpacing = dist;
}
}
}
}
}
return samples;
}