void CorrespondenceEvaluate::generateInbetween(double t)
{
auto scheduler = QSharedPointer<Scheduler>(new Scheduler);
auto blender = QSharedPointer<TopoBlender>(new TopoBlender(GraphCorr, scheduler.data()));
auto synthManager = QSharedPointer<SynthesisManager>(new SynthesisManager(GraphCorr, scheduler.data(), blender.data(), 1000));
synthManager->genSynData();
scheduler->timeStep = 1.0 / 100.0;
scheduler->defaultSchedule();
scheduler->executeAll();
auto blendedModel = scheduler->allGraphs[t * (scheduler->allGraphs.size() - 1)];
synthManager->renderGraph(*blendedModel, "test", false, 5);
}
ExteriorLights::ExteriorLights(const ExteriorLightsDefinition& definition,
bool useControlOptionAstronomicalClock)
: ModelObject(ExteriorLights::iddObjectType(),definition.model())
{
OS_ASSERT(getImpl<detail::ExteriorLights_Impl>());
bool ok = true;
ok = setExteriorLightsDefinition(definition);
OS_ASSERT(ok);
ScheduleConstant defaultSchedule(model());
defaultSchedule.setValue(1.0);
defaultSchedule.setName(name().get() + " Always On Schedule");
ok = setSchedule(defaultSchedule);
OS_ASSERT(ok);
if (useControlOptionAstronomicalClock) {
ok = setControlOption("AstronomicalClock");
OS_ASSERT(ok);
}
}
void AutoBlend::doBlend()
{
auto selected = gallery->getSelected();
if (selected.size() < 2) return;
for(auto t : results->items) t->deleteLater();
results->items.clear();
((GraphicsScene*)scene())->showPopup("Please wait..");
for(int shapeI = 0; shapeI < selected.size(); shapeI++)
{
for(int shapeJ = shapeI + 1; shapeJ < selected.size(); shapeJ++)
{
//auto sourceName = selected.front()->data["targetName"].toString();
//auto targetName = selected.back()->data["targetName"].toString();
auto sourceName = selected[shapeI]->data.value("targetName").toString();
auto targetName = selected[shapeJ]->data.value("targetName").toString();
auto cacheSource = document->cacheModel(sourceName);
auto cacheTarget = document->cacheModel(targetName);
if(cacheSource == nullptr || cacheTarget == nullptr) continue;
auto source = QSharedPointer<Structure::Graph>(cacheSource->cloneAsShapeGraph());
auto target = QSharedPointer<Structure::Graph>(cacheTarget->cloneAsShapeGraph());
auto gcorr = QSharedPointer<GraphCorresponder>(new GraphCorresponder(source.data(), target.data()));
// Apply computed correspondence
//if (false) // enable/disable auto correspondence
{
QVector<QPair<QString, QString> > all_pairs;
for(auto n : source->nodes)
{
if (!document->datasetCorr[sourceName][n->id][targetName].empty())
{
for(auto nj : document->datasetCorr[sourceName][n->id][targetName])
{
all_pairs << qMakePair(n->id, nj);
}
}
}
ResolveCorrespondence(source.data(), target.data(), all_pairs, gcorr.data());
}
gcorr->computeCorrespondences();
// Schedule blending sequence
auto scheduler = QSharedPointer<Scheduler>(new Scheduler);
auto blender = QSharedPointer<TopoBlender>(new TopoBlender(gcorr.data(), scheduler.data()));
// Sample geometries
int numSamples = 100;
int reconLevel = 4;
int LOD = widget->levelDetails->currentIndex();
switch (LOD){
case 0: numSamples = 100; reconLevel = 4; break;
case 1: numSamples = 1000; reconLevel = 5; break;
case 2: numSamples = 10000; reconLevel = 7; break;
}
/// Visualize schedule:
if (false)
{
blender->parentWidget = new QMainWindow();
blender->parentWidget->show();
blender->setupUI();
QStringList corr;
for(auto n : scheduler->activeGraph->nodes){
corr << QString("%1-%2").arg(n->id, n->property["correspond"].toString());
}
QMessageBox::information(blender->parentWidget, "Correspondence", corr.join("\n"));
}
auto synthManager = QSharedPointer<SynthesisManager>(new SynthesisManager(gcorr.data(), scheduler.data(), blender.data(), numSamples));
synthManager->genSynData();
// Compute blending
scheduler->timeStep = 1.0 / 100.0;
scheduler->defaultSchedule();
scheduler->executeAll();
int numResults = widget->count->value();
for (int i = 0; i < numResults; i++)
{
double a = ((double(i) / (numResults - 1)) * 0.9) + 0.05;
auto blendedModel = scheduler->allGraphs[a * (scheduler->allGraphs.size() - 1)];
synthManager->renderGraph(*blendedModel, "", false, reconLevel );
auto t = results->addTextItem("");
t->setCamera(cameraPos, cameraMatrix);
QVariantMap data;
data["name"] = QString("%1_%2").arg(sourceName).arg(targetName);
t->setData(data);
// Add parts of target shape
for (auto n : blendedModel->nodes){
t->addAuxMesh(toBasicMesh(blendedModel->getMesh(n->id), n->vis_property["color"].value<QColor>()));
}
}
}
}
((GraphicsScene*)scene())->hidePopup();
}
void PathEvaluator::test_filtering()
{
/// Export results:
QString sessionName = QString("session_%1").arg(QDateTime::currentDateTime().toString("dd.MM.yyyy_hh.mm.ss"));
QString path = "results/" + sessionName;
QDir d(""); d.mkpath( path ); d.mkpath( path + "/images" );
int timeLimit = 5000; // ms
int numInBetweens = 8;
int numSamplesPerPath = numInBetweens * 3;
/// Get number of paths to evaluate:
int numPaths = 0;
{
Scheduler defaultSchedule( *b->m_scheduler );
// Find time it takes for a single path
QElapsedTimer timer; timer.start();
{
defaultSchedule.setSchedule( b->m_scheduler->getSchedule() ); // default
defaultSchedule.timeStep = 1.0 / numSamplesPerPath;
defaultSchedule.executeAll();
}
// FIXME
// numPaths = qMax(1.0, double(timeLimit) / timer.elapsed() * omp_get_num_threads());
numPaths = qMax(1.0, double(timeLimit) / timer.elapsed() * 4);
// Export source and target images
QColor inputColor(255,255,255);
b->renderer->quickRender(defaultSchedule.allGraphs.front(), inputColor).save(path + "/images/source.png");
b->renderer->quickRender(defaultSchedule.allGraphs.back(), inputColor).save(path + "/images/target.png");
}
// Force number of paths
numPaths = 30;
// Do this once for input graphs
QVector<Structure::Graph*> inputGraphs;
inputGraphs << b->s->inputGraphs[0]->g << b->s->inputGraphs[1]->g;
ScorerManager r_manager(b->m_gcorr, b->m_scheduler.data(), inputGraphs);
r_manager.parseConstraintPair();
r_manager.parseConstraintGroup();
r_manager.parseGlobalReflectionSymm();
QVector<ScorerManager::PathScore> ps( numPaths );
MatrixXd allRanges( numPaths, 3 * 4 );
QVector<ScheduleType> allPaths = b->m_scheduler->manyRandomSchedules( numPaths );
QElapsedTimer evalTimer; evalTimer.start();
//#pragma omp parallel for
for(int i = 0; i < allPaths.size(); i++)
{
// Setup schedule
Scheduler s( *b->m_scheduler );
s.setSchedule( allPaths[i] );
s.timeStep = 1.0 / numSamplesPerPath;
// Execute blend
s.executeAll();
// Compute its score
ps[i] = r_manager.pathScore( s.allGraphs );
QVector<QColor> colors;
colors.push_back(QColor(255,0,0));
colors.push_back(QColor(0,255,0));
colors.push_back(QColor(0,0,255));
// Range of values
MatrixXd ranges = ps[i].computeRange();
allRanges.row(i) = VectorXd::Map(ranges.data(), ranges.rows()*ranges.cols());
//#pragma omp critical
{
QImage img(QSize(600,130), QImage::Format_ARGB32);
img.fill(qRgba(0,0,0,0));
QPainter painter(&img);
painter.setRenderHints(QPainter::Antialiasing | QPainter::SmoothPixmapTransform);
// Text option
QFont font("Monospace",8);
font.setStyleHint(QFont::TypeWriter);
painter.setFont(font);
QVector<Structure::Graph*> inBetweens = s.topoVaryingInBetweens( numInBetweens );
QVector< QVector<double> > scores(numInBetweens);
int imgWidth = 0;
for(int k = 0; k < numInBetweens; k++)
{
inBetweens[k]->moveCenterTo( AlphaBlend(inBetweens[k]->property["t"].toDouble(),
inBetweens[k]->property["sourceGraphCenter"].value<Vector3>(),
inBetweens[k]->property["targetGraphCenter"].value<Vector3>()), true);
// Draw images
QImage inBetween = b->renderer->quickRender(inBetweens[k], Qt::white);
imgWidth = inBetween.width();
// Rendered shape
int newWidth = inBetween.width() * 0.5;
int startX = k * newWidth;
painter.drawImage(startX, 0, inBetween);
// Store scores
int idx = inBetweens[k]->property["graphIndex"].toInt();
QVector<double> vals;
vals << ps[i].connectivity[idx] << ps[i].localSymmetry[idx] << ps[i].globalSymmetry[idx];
scores[k] = vals;
}
// Draw score lines
for(int u = 0; u < scores.front().size(); u++)
{
// Graph
QPainterPath poly;
int padding = 0;
QColor clr = colors[u];
painter.setPen(QPen(clr, 1));
// Render path
for(int k = 0; k < numInBetweens; k++)
{
// Score graph
//double minVal = ranges(u,0);
//double range = ranges(u,2);
//double val = (scores[k][u] - minVal) / range;
double val = scores[k][u];
// Graph line
int newWidth = imgWidth * 0.5;
int startX = k * newWidth;
int x = startX + newWidth;
int y = padding + (img.height() - (img.height() * val));
if(k == 0)
poly.moveTo(x, y);
else
poly.lineTo(x, y);
// Dots
painter.drawEllipse(QPoint(x,y), 2, 2);
}
painter.setBrush(Qt::NoBrush);
painter.drawPath(poly);
}
// Draw ranges
QStringList vals;
for(int r = 0; r < 3; r++){
QStringList curVals;
for(int c = 0; c < 4; c++)
curVals << QString::number(ranges(r,c),'f',2);
vals << curVals.join(" ");
}
if( false )
{
painter.setPen(Qt::white);
painter.drawText(11, img.height() - 9, vals.join(" # "));
painter.setPen(Qt::black);
painter.drawText(10, img.height() - 10, vals.join(" # "));
}
img.save( path + QString("/images/%1.png").arg(i) );
}
}
// Get global average for the measures
Vector3d globalAvg (allRanges.col(9).mean(), allRanges.col(10).mean(), allRanges.col(11).mean());
// Sort based on score
QMap<int,double> scoreMap;
for(int i = 0; i < numPaths; i++) scoreMap[i] = ps[i].score();
QVector<int> sortedIndices;
typedef QPair<double,int> ValIdx;
foreach(ValIdx d, sortQMapByValue( scoreMap )){
sortedIndices.push_back( d.second );
}
