float WaterElevationLayer::WaterElevationCurveData::getSampleLength(CurvePtr c)
{
float width = min(c->getWidth(), 20.0f);
if (c->getType() == LAKE) {
width = 6.0f;
}
return 20.0f * width / 6.0f;
}
WaterElevationLayer::WaterElevationCurveData::WaterElevationCurveData(CurveId id, CurvePtr flattenCurve, ptr<TileProducer> elevations) :
ElevationCurveData(id, flattenCurve, elevations, true)
{
if (flattenCurve->getType() == LAKE && flattenCurve->getWidth() > 12) { // large river
if (startCapLength + endCapLength > 2 * length / 3) {
startCapLength = endCapLength = length / 3;
}
}
}
void LazyGraph::movePoint(CurvePtr c, int i, const vec2d &p)
{
if (i == 0 || i == c->getSize() - 1) {
NodePtr n = i == 0 ? c->getStart() : c->getEnd();
nodeCache->add(n.get(), true);
} else {
curveCache->add(c.get(), true);
}
Graph::movePoint(c, i, p);
}
void
TrackMarker::getCenterKeyframes(std::set<double>* keyframes) const
{
CurvePtr curve = _imp->center.lock()->getAnimationCurve(ViewIdx(0), DimIdx(0));
assert(curve);
KeyFrameSet keys = curve->getKeyFrames_mt_safe();
for (KeyFrameSet::iterator it = keys.begin(); it != keys.end(); ++it) {
keyframes->insert( it->getTime() );
}
}
CurvePtr LazyGraph::newCurve(CurvePtr parent, bool setParent)
{
CurveId id = nextCurveId;
nextCurveId.id++;
CurvePtr c = new LazyCurve(this, id);
curves.insert(make_pair(id, c.get()));
if (curveOffsets.find(id) == curveOffsets.end()) {
curveOffsets.insert(make_pair(id, (long int) - 1));
}
curveCache->add(c.get(), true);
return c;
}
double WaterElevationLayer::WaterElevationMargin::getMargin(double clipSize, CurvePtr p)
{
float pwidth = p->getWidth();
if (p->getType() == WaterElevationCurveData::RIVER) {
float scale = 2.0f * (samplesPerTile - 1) / clipSize;
if (p->getParent() != NULL && pwidth * scale >= 1) {
return TOTALWIDTH(BASEWIDTH(pwidth, scale));
} else {
return 0;
}
} else {
return pwidth / 2;
}
}
float WaterElevationLayer::WaterElevationCurveData::getCapLength(NodePtr p, vec2d q)
{
vec2d o = p->getPos();
float capLength = 0;
bool largeRiver = false;
for (int i = 0; i < p->getCurveCount(); ++i) {
CurvePtr ipath = p->getCurve(i);
if ((ipath->getAncestor()->getId() == id) == false) {
if (ipath->getType() == LAKE && ipath->getWidth() > 12) {
largeRiver = true;
}
vec2d r = ipath->getXY(p, 1);
if (abs(angle(q - o, r - o) - M_PI) < 0.01) {
continue;
}
float pw = flattenCurve->getType() == RIVER ? 2 * flattenCurve->getWidth() : flattenCurve->getWidth();
float ipw = ipath->getType() == RIVER ? 2 * ipath->getWidth() : ipath->getWidth();
vec2d corner = proland::corner(o, q, r, (double) pw, (double) ipw);
float dot = (q - o).dot(corner - o);
capLength = max((double) capLength, dot / (o - q).length());
}
}
if (largeRiver && flattenCurve->getType() == RIVER) {
capLength = (q - o).length();
}
return ceil(capLength);
}
NodePtr LazyHydroGraph::addNode(CurvePtr c, int i, Graph::Changes &changed)
{
CurveId riverId = c.cast<HydroCurve>()->getRiver();
float potential = c.cast<HydroCurve>()->getPotential();
NodePtr n = Graph::addNode(c, i, changed);
for (int i = 0; i < 2; i++) {
CurvePtr cc = n->getCurve(i);
if (!(cc->getId() == c->getId())) {
cc.cast<HydroCurve>()->setRiver(riverId);
cc.cast<HydroCurve>()->setPotential(potential);
}
}
return n;
}
static void
deleteKnobAnimation(const std::set<double>& userKeyframes,
const KnobIPtr& knob,
DeleteKnobAnimationEnum type,
double currentTime)
{
for (int i = 0; i < knob->getNDimensions(); ++i) {
CurvePtr curve = knob->getAnimationCurve(ViewIdx(0), DimIdx(i));
assert(curve);
KeyFrameSet keys = curve->getKeyFrames_mt_safe();
std::list<double> toRemove;
switch (type) {
case eDeleteKnobAnimationAll: {
for (KeyFrameSet::iterator it = keys.begin(); it != keys.end(); ++it) {
std::set<double>::iterator found = userKeyframes.find( it->getTime() );
if ( found == userKeyframes.end() ) {
toRemove.push_back( it->getTime() );
}
}
break;
}
case eDeleteKnobAnimationBeforeTime: {
for (KeyFrameSet::iterator it = keys.begin(); it != keys.end(); ++it) {
if (it->getTime() >= currentTime) {
break;
}
std::set<double>::iterator found = userKeyframes.find( it->getTime() );
if ( found == userKeyframes.end() ) {
toRemove.push_back( it->getTime() );
}
}
break;
}
case eDeleteKnobAnimationAfterTime: {
for (KeyFrameSet::reverse_iterator it = keys.rbegin(); it != keys.rend(); ++it) {
if (it->getTime() <= currentTime) {
break;
}
std::set<double>::iterator found = userKeyframes.find( it->getTime() );
if ( found == userKeyframes.end() ) {
toRemove.push_back( it->getTime() );
}
}
break;
}
}
knob->deleteValuesAtTime(toRemove, ViewSetSpec::all(), DimIdx(i), eValueChangedReasonUserEdited);
}
}
void C2M::buildRings(CurvePtr sp){
if (!sp)
return;
cout<<"rwfer:"<<sp->size()<<endl;
ac = new ArrCurve(sp->toArr(), sp->size(), true);
RingPtr pre = 0;
for(int i=0; i<ac->size(); i++){
Vec3 o = ac->getP(i);
Vec3 no = (o - Eye::get()->P).normalize();
Vec3 tan = ac->getT(i);
Vec3 up = (no%tan).normalize();
double z = (o - Eye::get()->P).norm();
Vec3 pmid = Eye::get()->P + no*( PZ / (no*Eye::get()->N) );
ac->setP(i, pmid);
double t0 = getHit(pmid, up);
double t1 = getHit(pmid, -up);
//cout<<"..........................................."<<endl;
if (t0<0 || t1<0)
continue;
Vec3 p0 = pmid + up*t0;
Vec3 p1 = pmid - up*t1;
o = (p0+p1)*0.5;
z = (o - Eye::get()->P).norm();
//o = Eye::get()->P + ((p0+p1)*0.5 - Eye::get()->P ).normalize()*z;
no = (o - Eye::get()->P).normalize();
Vec3 n0 = (p0 - Eye::get()->P).normalize();
Vec3 n1 = (p1 - Eye::get()->P).normalize();
double a0 = z * (n0*no);
double a1 = z * (n1*no);
double a = (a0+a1)*0.5;
//recompute center to be exactly in the middle of p0 and p1
RingPtr rng = new Ring(o, Eye::get()->P + a*n0, Eye::get()->P + a*n1);
//rng->reorient(tan);
if (pre)
rng->setPrevNext(pre,0);
else
_rings.push_back(rng);
pre = rng;
}
}
void ChooseColorDialog::apply() {
CurveList curveList = _store->getObjects<Curve>();
for (CurveList::iterator curve_iter = curveList.begin(); curve_iter != curveList.end(); ++curve_iter)
{
VectorPtr vector;
CurvePtr curve = kst_cast<Curve>(*curve_iter);
if (_xVector->isChecked()) {
vector = curve->xVector();
} else {
vector = curve->yVector();
}
if (DataVectorPtr dataVector = kst_cast<DataVector>(vector))
{
curve->writeLock();
curve->setColor(getColorForFile(dataVector->filename()));
curve->registerChange();
curve->unlock();
}
}
// Store the selected colors in the corresponding datasource objects
QMutableMapIterator<DataSourcePtr, QColor> itDatasource(_dataSourceColors);
QListIterator<ColorButton*> itColorButton(_colorButtons);
DataSourcePtr ds;
while (itDatasource.hasNext()) {
ds = itDatasource.next().key();
ds->setColor(itColorButton.next()->color()); // Per construction there should always be as many color buttons as datasources
}
updateColorGroup(); // This will update the _dataSourceColors map
UpdateManager::self()->doUpdates(true);
kstApp->mainWindow()->document()->setChanged(true);
}
CurvePtr LazyGraph::newCurve(CurvePtr model, NodePtr start, NodePtr end)
{
CurveId id = nextCurveId;
nextCurveId.id++;
CurvePtr c = new LazyCurve(this, id, start->getId(), end->getId());
start->addCurve(id);
end->addCurve(id);
if (model != NULL) {
map<CurveId, long int>::iterator ci = curveOffsets.find(model->getId());
curveOffsets.insert(make_pair(id, ci->second));
} else {
curveOffsets.insert(make_pair(id, (long int) -1));
}
curves.insert(make_pair(id, c.get()));
curveCache->add(c.get(), true);
return c;
}
void LazyGraph::removeArea(AreaId id)
{
AreaPtr a = getArea(id);
if (a != NULL) {
for (int i = 0; i < a->getCurveCount(); i++) {
CurvePtr c = a->getCurve(i);
c->removeArea(a->getId());
curveCache->add(c.get(), true);
}
while (a->getCurveCount()) {
a->removeCurve(0);
}
}
areaCache->changedResources.erase(a.get());
map<AreaId, long int>::iterator k = areaOffsets.find(id);
if (k != areaOffsets.end()) {
areaOffsets.erase(k);
}
}
double HydroFlowProducer::RiverMargin::getMargin(double clipSize, CurvePtr p)
{
if (p->getType() != HydroCurve::BANK) {
float pwidth = p->getWidth();
if (p->getType() == HydroCurve::AXIS) {
float scale = 2.0f * (samplesPerTile - 1) / clipSize;
if (pwidth * scale >= 1) {
return TOTALWIDTH(BASEWIDTH(pwidth, scale));
} else {
return 0.0f;
}
} else {
return pwidth / 2.0f;
}
}
if (p.cast<HydroCurve>()->getRiver().id == NULL_ID) {
return 0.f;
}
CurvePtr ancestor = p.cast<HydroCurve>()->getRiverPtr();
assert(ancestor != NULL);
return getMargin(clipSize, ancestor) * 2.0f;
}
void DifferentiateCurvesDialog::apply() {
bool lineColorOrder = !_selectedListBox->findItems(tr("Line Color"), Qt::MatchExactly).empty();
bool pointStyleOrder = !_selectedListBox->findItems(tr("Point Style"), Qt::MatchExactly).empty();
bool lineStyleOrder = !_selectedListBox->findItems(tr("Line Style"), Qt::MatchExactly).empty();
bool lineWidthOrder = !_selectedListBox->findItems(tr("Line Width"), Qt::MatchExactly).empty();
int maxLineWidth = _maxLineWidth->value();
int pointDensity = _pointDensity->currentIndex();
int sequenceNum = 0;
CurveList curveList = _store->getObjects<Curve>();
for (CurveList::iterator curve_iter = curveList.begin(); curve_iter != curveList.end(); ++curve_iter)
{
CurvePtr curve = kst_cast<Curve>(*curve_iter);
curve->writeLock();
if (lineColorOrder) {
curve->setColor(ColorSequence::entry(sequenceNum));
}
if (pointStyleOrder) {
curve->setPointType(sequenceNum % KSTPOINT_MAXTYPE);
curve->setHasPoints(true);
curve->setPointDensity(pointDensity);
}
if (lineStyleOrder) {
curve->setLineStyle(sequenceNum % LINESTYLE_MAXTYPE);
}
if (lineWidthOrder) {
curve->setLineWidth((sequenceNum + 1) % maxLineWidth);
}
curve->registerChange();
curve->unlock();
++sequenceNum;
}
resetLists();
UpdateManager::self()->doUpdates(true);
kstApp->mainWindow()->document()->setChanged(true);
}
void LazyGraph::removeCurve(CurveId id)
{
CurvePtr c = getCurve(id);
if (c != NULL) {
NodePtr start = c->getStart();
NodePtr end = c->getEnd();
NodeId nId;
nId.id = NULL_ID;
c->addVertex(nId, 0);
c->addVertex(nId, 1);
if (start != end && start != NULL) {
start->removeCurve(id);
if (start->getCurveCount() == 0) {
NodeId sid = start->getId();
start = NULL;
removeNode(sid);
} else {
nodeCache->add(start.get(), true);
}
}
if (end != NULL) {
end->removeCurve(id);
if (end->getCurveCount() == 0) {
NodeId eid = end->getId();
end = NULL;
removeNode(eid);
} else {
nodeCache->add(end.get(), true);
}
}
}
curveCache->changedResources.erase(c.get());
map<CurveId, long int>::iterator k = curveOffsets.find(id);
if (k != curveOffsets.end()) {
curveOffsets.erase(k);
}
}
CurvePtr LazyGraph::getCurve(CurveId id)
{
if (id.id == NULL_ID) {
return NULL;
}
map<CurveId, Curve *>::iterator i = curves.find(id);
if (i != curves.end()) { // if the requested resource has already been loaded
CurvePtr r = i->second;
curveCache->remove(r);// we remove it from the unusedResources Cache
//r->owner = this;
// and we return the resource
return r;
}
if (Logger::DEBUG_LOGGER != NULL) {
ostringstream os;
os << "Loading curve '" << id.id << "'";
Logger::DEBUG_LOGGER->log("GRAPH", os.str());
}
// otherwise the resource is not already loaded; we first load its descriptor
CurvePtr r = NULL;
long int offset;
map<CurveId, long int>::iterator j = curveOffsets.find(id);
if (j != curveOffsets.end()) {
offset = j->second;
r = loadCurve(offset, id);
curves.insert(make_pair(id, r.get()));
return r;
}
if (Logger::ERROR_LOGGER != NULL) {
ostringstream os;
os << "Loading : Missing or invalid curve '" << id.id << "'";
Logger::ERROR_LOGGER->log("GRAPH", os.str());
}
throw exception();
// return NULL;
}
void ChooseColorDialog::apply() {
CurveList curveList = _store->getObjects<Curve>();
for (CurveList::iterator curve_iter = curveList.begin(); curve_iter != curveList.end(); ++curve_iter)
{
VectorPtr vector;
CurvePtr curve = kst_cast<Curve>(*curve_iter);
if (_xVector->isChecked()) {
vector = curve->xVector();
} else {
vector = curve->yVector();
}
if (DataVectorPtr dataVector = kst_cast<DataVector>(vector))
{
curve->writeLock();
curve->setColor(getColorForFile(dataVector->dp()->filename()));
curve->registerChange();
curve->unlock();
}
}
updateColorGroup();
UpdateManager::self()->doUpdates(true);
kstApp->mainWindow()->document()->setChanged(true);
}
void
CurveGui::drawCurve(int curveIndex,
int curvesCount)
{
// always running in the main thread
assert( qApp && qApp->thread() == QThread::currentThread() );
AnimItemBasePtr item = _imp->item.lock();
if (!item) {
return;
}
std::vector<float> vertices, exprVertices;
const double widgetWidth = _imp->curveWidget->width();
KeyFrameSet keyframes;
bool hasDrawnExpr = false;
if (item->hasExpression(_imp->dimension, _imp->view)) {
//we have no choice but to evaluate the expression at each time
for (int i = 0; i < widgetWidth; ++i) {
double x = _imp->curveWidget->toZoomCoordinates(i, 0).x();
double y = evaluate(true /*useExpr*/, x);
exprVertices.push_back(x);
exprVertices.push_back(y);
}
hasDrawnExpr = true;
}
QPointF btmLeft = _imp->curveWidget->toZoomCoordinates(0, _imp->curveWidget->height() - 1);
QPointF topRight = _imp->curveWidget->toZoomCoordinates(_imp->curveWidget->width() - 1, 0);
bool isPeriodic = false;
std::pair<double,double> parametricRange = std::make_pair(-std::numeric_limits<double>::infinity(), std::numeric_limits<double>::infinity());
keyframes = getInternalCurve()->getKeyFrames_mt_safe();
isPeriodic = getInternalCurve()->isCurvePeriodic();
parametricRange = getInternalCurve()->getXRange();
if ( keyframes.empty() ) {
// Add a horizontal line for constant knobs, except string knobs.
KnobIPtr isKnob = boost::dynamic_pointer_cast<KnobI>(item->getInternalAnimItem());
if (isKnob) {
KnobStringBasePtr isString = boost::dynamic_pointer_cast<KnobStringBase>(isKnob);
if (!isString) {
double value = evaluate(false, 0);
vertices.push_back(btmLeft.x() + 1);
vertices.push_back(value);
vertices.push_back(topRight.x() - 1);
vertices.push_back(value);
}
}
} else {
try {
double x1 = 0;
double x2;
bool isX1AKey = false;
KeyFrame x1Key;
KeyFrameSet::const_iterator lastUpperIt = keyframes.end();
while ( x1 < (widgetWidth - 1) ) {
double x, y;
if (!isX1AKey) {
x = _imp->curveWidget->toZoomCoordinates(x1, 0).x();
y = evaluate(false, x);
} else {
x = x1Key.getTime();
y = x1Key.getValue();
}
vertices.push_back( (float)x );
vertices.push_back( (float)y );
nextPointForSegment(x, keyframes, isPeriodic, parametricRange.first, parametricRange.second, &lastUpperIt, &x2, &x1Key, &isX1AKey);
x1 = x2;
}
//also add the last point
{
double x = _imp->curveWidget->toZoomCoordinates(x1, 0).x();
double y = evaluate(false, x);
vertices.push_back( (float)x );
vertices.push_back( (float)y );
}
} catch (...) {
}
}
// No Expr curve or no vertices for the curve, don't draw anything else
if (exprVertices.empty() && vertices.empty()) {
return;
}
AnimationModuleSelectionModelPtr selectionModel = item->getModel()->getSelectionModel();
assert(selectionModel);
const AnimItemDimViewKeyFramesMap& selectedKeys = selectionModel->getCurrentKeyFramesSelection();
const KeyFrameWithStringSet* foundThisCurveSelectedKeys = 0;
{
AnimItemDimViewIndexID k;
k.item = item;
k.dim = _imp->dimension;
k.view = _imp->view;
AnimItemDimViewKeyFramesMap::const_iterator foundDimView = selectedKeys.find(k);
if (foundDimView != selectedKeys.end()) {
foundThisCurveSelectedKeys = &foundDimView->second;
}
}
{
GLProtectAttrib<GL_GPU> a(GL_HINT_BIT | GL_ENABLE_BIT | GL_LINE_BIT | GL_COLOR_BUFFER_BIT | GL_POINT_BIT | GL_CURRENT_BIT);
// If this is the only curve selected, draw min/max
if (foundThisCurveSelectedKeys && selectedKeys.size()) {
// Draw y min/max axis so the user understands why the value is clamped
Curve::YRange curveYRange = getCurveYRange();
if (curveYRange.min != INT_MIN &&
curveYRange.min != -std::numeric_limits<double>::infinity() &&
curveYRange.max != INT_MAX &&
curveYRange.max != std::numeric_limits<double>::infinity() ) {
QColor minMaxColor;
minMaxColor.setRgbF(0.398979, 0.398979, 0.398979);
GL_GPU::Color4d(minMaxColor.redF(), minMaxColor.greenF(), minMaxColor.blueF(), 1.);
GL_GPU::Begin(GL_LINES);
GL_GPU::Vertex2d(btmLeft.x(), curveYRange.min);
GL_GPU::Vertex2d(topRight.x(), curveYRange.min);
GL_GPU::Vertex2d(btmLeft.x(), curveYRange.max);
GL_GPU::Vertex2d(topRight.x(), curveYRange.max);
GL_GPU::End();
GL_GPU::Color4d(1., 1., 1., 1.);
double xText = _imp->curveWidget->toZoomCoordinates(10, 0).x();
_imp->curveWidget->renderText( xText, curveYRange.min, tr("min").toStdString(), minMaxColor.redF(), minMaxColor.greenF(), minMaxColor.blueF(), minMaxColor.alphaF());
_imp->curveWidget->renderText( xText, curveYRange.max, tr("max").toStdString(), minMaxColor.redF(), minMaxColor.greenF(), minMaxColor.blueF(), minMaxColor.alphaF());
}
}
GL_GPU::Color4f(_imp->color[0], _imp->color[1], _imp->color[2], _imp->color[3]);
GL_GPU::PointSize(_imp->lineWidth);
GL_GPU::Enable(GL_BLEND);
GL_GPU::BlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_ALPHA);
GL_GPU::Enable(GL_LINE_SMOOTH);
GL_GPU::Hint(GL_LINE_SMOOTH_HINT, GL_DONT_CARE);
GL_GPU::LineWidth(1.5);
glCheckError(GL_GPU);
if (hasDrawnExpr) {
drawLineStrip(exprVertices, btmLeft, topRight);
GL_GPU::LineStipple(2, 0xAAAA);
GL_GPU::Enable(GL_LINE_STIPPLE);
}
drawLineStrip(vertices, btmLeft, topRight);
if (hasDrawnExpr) {
GL_GPU::Disable(GL_LINE_STIPPLE);
}
glCheckErrorIgnoreOSXBug(GL_GPU);
//render the name of the curve
GL_GPU::Color4f(1.f, 1.f, 1.f, 1.f);
double interval = ( topRight.x() - btmLeft.x() ) / (double)curvesCount;
double textX = _imp->curveWidget->toZoomCoordinates(15, 0).x() + interval * (double)curveIndex;
double textY;
CurvePtr internalCurve = _imp->internalCurve.lock();
QString curveName = getName();
QColor thisColor;
thisColor.setRgbF(Image::clamp(_imp->color[0], 0., 1.),
Image::clamp(_imp->color[1], 0., 1.),
Image::clamp(_imp->color[2], 0., 1.));
try {
// Use expression to place the text if the curve is not animated
textY = evaluate(internalCurve && !internalCurve->isAnimated(), textX);
} catch (...) {
// if it fails attempt without expression, this will most likely return a constant value
textY = evaluate(false /*useExpression*/, textX);
}
if ( ( textX >= btmLeft.x() ) && ( textX <= topRight.x() ) && ( textY >= btmLeft.y() ) && ( textY <= topRight.y() ) ) {
_imp->curveWidget->renderText( textX, textY, curveName.toStdString(), thisColor.redF(), thisColor.greenF(), thisColor.blueF(), thisColor.alphaF());
}
GL_GPU::Color4f(_imp->color[0], _imp->color[1], _imp->color[2], _imp->color[3]);
//draw keyframes
GL_GPU::PointSize(7.f);
GL_GPU::Enable(GL_POINT_SMOOTH);
KeyFrameWithStringSet::const_iterator foundSelectedKey;
if (foundThisCurveSelectedKeys) {
foundSelectedKey = foundThisCurveSelectedKeys->end();
}
for (KeyFrameSet::const_iterator k = keyframes.begin(); k != keyframes.end(); ++k) {
const KeyFrame & key = (*k);
// Do not draw keyframes out of range
if ( ( key.getTime() < btmLeft.x() ) || ( key.getTime() > topRight.x() ) || ( key.getValue() < btmLeft.y() ) || ( key.getValue() > topRight.y() ) ) {
continue;
}
GL_GPU::Color4f(_imp->color[0], _imp->color[1], _imp->color[2], _imp->color[3]);
bool drawKeySelected = false;
if (foundThisCurveSelectedKeys) {
KeyFrameWithStringSet::const_iterator start = foundSelectedKey == foundThisCurveSelectedKeys->end() ? foundThisCurveSelectedKeys->begin() : foundSelectedKey;
foundSelectedKey = std::find_if(start, foundThisCurveSelectedKeys->end(), KeyFrameWithStringTimePredicate(key.getTime()));
drawKeySelected = foundSelectedKey != foundThisCurveSelectedKeys->end();
if (!drawKeySelected) {
// Also draw the keyframe as selected if it is inside the selection rectangle (but not yet selected)
RectD selectionRect = _imp->curveWidget->getSelectionRectangle();
drawKeySelected |= _imp->curveWidget->_imp->eventTriggeredFromCurveEditor && (!selectionRect.isNull() && selectionRect.contains(key.getTime(), key.getValue()));
}
}
// If the key is selected change its color
if (drawKeySelected) {
GL_GPU::Color4f(0.8f, 0.8f, 0.8f, 1.f);
}
RectD keyframeBbox = _imp->curveWidget->_imp->getKeyFrameBoundingRectCanonical(_imp->curveWidget->_imp->curveEditorZoomContext, key.getTime(), key.getValue());
// draw texture of the keyframe
{
AnimationModuleViewPrivate::KeyframeTexture texType = AnimationModuleViewPrivate::kfTextureFromKeyframeType( key.getInterpolation(), drawKeySelected);
if (texType != AnimationModuleViewPrivate::kfTextureNone) {
_imp->curveWidget->_imp->drawTexturedKeyframe(texType, keyframeBbox, false /*drawdimed*/);
}
}
// Draw tangents if not constant
bool drawTangents = drawKeySelected && internalCurve->isYComponentMovable() && (key.getInterpolation() != eKeyframeTypeConstant);
if (drawTangents) {
QFontMetrics m( _imp->curveWidget->font());
// If interpolation is not free and not broken display with dashes the tangents lines
if ( (key.getInterpolation() != eKeyframeTypeFree) && (key.getInterpolation() != eKeyframeTypeBroken) ) {
GL_GPU::LineStipple(2, 0xAAAA);
GL_GPU::Enable(GL_LINE_STIPPLE);
}
QPointF leftTanPos, rightTanPos;
_imp->curveWidget->getKeyTangentPoints(k, keyframes, &leftTanPos, &rightTanPos);
// Draw the derivatives lines
GL_GPU::Begin(GL_LINES);
GL_GPU::Color4f(1., 0.35, 0.35, 1.);
GL_GPU::Vertex2f( leftTanPos.x(), leftTanPos.y() );
GL_GPU::Vertex2f(key.getTime(), key.getValue());
GL_GPU::Vertex2f(key.getTime(), key.getValue());
GL_GPU::Vertex2f( rightTanPos.x(), rightTanPos.y());
GL_GPU::End();
if ( (key.getInterpolation() != eKeyframeTypeFree) && (key.getInterpolation() != eKeyframeTypeBroken) ) {
GL_GPU::Disable(GL_LINE_STIPPLE);
}
// Draw the tangents handles
GL_GPU::Begin(GL_POINTS);
GL_GPU::Vertex2f( leftTanPos.x(), leftTanPos.y() );
GL_GPU::Vertex2f( rightTanPos.x(), rightTanPos.y());
GL_GPU::End();
// If only one keyframe is selected, also draw the coordinates
if (selectedKeys.size() == 1 && foundThisCurveSelectedKeys && foundThisCurveSelectedKeys->size() == 1) {
double rounding = std::pow(10., CURVEWIDGET_DERIVATIVE_ROUND_PRECISION);
QString leftDerivStr = QString::fromUtf8("l: %1").arg(std::floor( (key.getLeftDerivative() * rounding) + 0.5 ) / rounding);
QString rightDerivStr = QString::fromUtf8("r: %1").arg(std::floor( (key.getRightDerivative() * rounding) + 0.5 ) / rounding);
double yLeftWidgetCoord = _imp->curveWidget->toWidgetCoordinates(0, leftTanPos.y()).y();
yLeftWidgetCoord += (m.height() + 4);
double yRightWidgetCoord = _imp->curveWidget->toWidgetCoordinates(0, rightTanPos.y()).y();
yRightWidgetCoord += (m.height() + 4);
GL_GPU::Color4f(1., 1., 1., 1.);
glCheckFramebufferError(GL_GPU);
_imp->curveWidget->renderText( leftTanPos.x(), _imp->curveWidget->toZoomCoordinates(0, yLeftWidgetCoord).y(),
leftDerivStr.toStdString(), 0.9, 0.9, 0.9, 1.);
_imp->curveWidget->renderText( rightTanPos.x(), _imp->curveWidget->toZoomCoordinates(0, yRightWidgetCoord).y(),
rightDerivStr.toStdString(), 0.9, 0.9, 0.9, 1.);
QString coordStr = QString::fromUtf8("x: %1, y: %2");
coordStr = coordStr.arg(key.getTime()).arg(key.getValue());
double yWidgetCoord = _imp->curveWidget->toWidgetCoordinates( 0, key.getValue() ).y();
yWidgetCoord += (m.height() + 4);
GL_GPU::Color4f(1., 1., 1., 1.);
glCheckFramebufferError(GL_GPU);
_imp->curveWidget->renderText( key.getTime(), _imp->curveWidget->toZoomCoordinates(0, yWidgetCoord).y(),
coordStr.toStdString(), 0.9, 0.9, 0.9, 1.);
}
} // drawTangents
} // for (KeyFrameSet::const_iterator k = keyframes.begin(); k != keyframes.end(); ++k) {
} // GLProtectAttrib(GL_HINT_BIT | GL_ENABLE_BIT | GL_LINE_BIT | GL_COLOR_BUFFER_BIT | GL_POINT_BIT | GL_CURRENT_BIT);
glCheckError(GL_GPU);
} // drawCurve
ObjectPtr FilterFitDialog::createNewDataObject() {
BasicPluginPtr dataObject = kst_cast<BasicPlugin>(DataObject::createPlugin(_filterFitTab->pluginName(), _document->objectStore(), _filterFitTab->configWidget()));
Q_ASSERT(dataObject);
if (!dataObject->isValid()) {
_document->objectStore()->removeObject(dataObject);
QString msg(tr("Unable to create Plugin Object using provided parameters.\n\n"));
msg += dataObject->errorMessage();
QMessageBox::warning(this, tr("Kst"), msg);
return 0;
}
if(editMode()==New) {
PlotItem *plotItem = 0;
switch (_filterFitTab->curvePlacement()->place()) {
case CurvePlacement::NoPlot:
break;
case CurvePlacement::ExistingPlot:
{
plotItem = static_cast<PlotItem*>(_filterFitTab->curvePlacement()->existingPlot());
break;
}
case CurvePlacement::NewPlotNewTab:
_document->createView();
// fall through to case NewPlot.
case CurvePlacement::NewPlot:
{
CreatePlotForCurve *cmd = new CreatePlotForCurve();
cmd->createItem();
plotItem = static_cast<PlotItem*>(cmd->item());
if (_filterFitTab->curvePlacement()->scaleFonts()) {
plotItem->view()->resetPlotFontSizes(plotItem);
plotItem->view()->configurePlotFontDefaults(plotItem); // copy plots already in window
}
plotItem->view()->appendToLayout(_filterFitTab->curvePlacement()->layout(), plotItem,
_filterFitTab->curvePlacement()->gridColumns());
if (_filterFitTab->curvePlacement()->layout() == CurvePlacement::Custom) {
plotItem->createCustomLayout(_filterFitTab->curvePlacement()->gridColumns());
}
break;
}
default:
break;
}
if (plotItem) {
CurvePtr curve = _document->objectStore()->createObject<Curve>();
Q_ASSERT(curve);
if (!_vectorX) {
setVectorX(dataObject->inputVectors().value(dataObject->inputVectorList().first()));
}
Q_ASSERT(_vectorX);
curve->setXVector(_vectorX);
VectorPtr yVector = dataObject->outputVectors().value(dataObject->outputVectorList().first());
Q_ASSERT(yVector);
curve->setYVector(yVector);
curve->setColor(_filterFitTab->curveAppearance()->color());
curve->setHasPoints(_filterFitTab->curveAppearance()->showPoints());
curve->setHasLines(_filterFitTab->curveAppearance()->showLines());
curve->setHasBars(_filterFitTab->curveAppearance()->showBars());
curve->setLineWidth(_filterFitTab->curveAppearance()->lineWidth());
curve->setPointSize(_filterFitTab->curveAppearance()->pointSize());
curve->setLineStyle(_filterFitTab->curveAppearance()->lineStyle());
curve->setPointType(_filterFitTab->curveAppearance()->pointType());
curve->setPointDensity(_filterFitTab->curveAppearance()->pointDensity());
curve->setBarFillColor(_filterFitTab->curveAppearance()->barFillColor());
curve->writeLock();
curve->registerChange();
curve->unlock();
_filterFitTab->curveAppearance()->setWidgetDefaults();
PlotRenderItem *renderItem = plotItem->renderItem(PlotRenderItem::Cartesian);
renderItem->addRelation(kst_cast<Relation>(curve));
dataObject->writeLock();
dataObject->internalUpdate();
dataObject->unlock();
if (dataObject->hasParameterVector()) {
CreateLabelCommand *cmd = new CreateLabelCommand;
QString *tmpstring = new QString(dataObject->parameterVectorToString());
cmd->createItem(tmpstring);
}
plotItem->update();
}
}
_filterFitTab->configWidget()->save();
return dataObject;
}
RelationPtr Curve::makeDuplicate(QMap<RelationPtr, RelationPtr> &duplicatedRelations) {
CurvePtr curve = store()->createObject<Curve>();
if (descriptiveNameIsManual()) {
curve->setDescriptiveName(descriptiveName());
}
curve->setXVector(xVector());
curve->setYVector(yVector());
if (hasXError()) {
curve->setXError(xErrorVector());
}
if (hasYError()) {
curve->setYError(yErrorVector());
}
if (hasXMinusError()) {
curve->setXMinusError(xMinusErrorVector());
}
if (hasYMinusError()) {
curve->setYMinusError(yMinusErrorVector());
}
curve->setColor(Color);
curve->setHasPoints(HasPoints);
curve->setHasLines(HasLines);
curve->setHasBars(HasBars);
curve->setLineWidth(LineWidth);
curve->setLineStyle(LineStyle);
curve->setPointType(PointDensity);
curve->setPointDensity(PointDensity);
curve->setBarStyle(BarStyle);
curve->writeLock();
curve->registerChange();
curve->unlock();
duplicatedRelations.insert(this, RelationPtr(curve));
return RelationPtr(curve);
}
bool WaterElevationLayer::doCreateTile(int level, int tx, int ty, TileStorage::Slot *data)
{
if (Logger::DEBUG_LOGGER != NULL) {
ostringstream oss;
oss << "ElevationRoad tile " << getProducerId() << " " << level << " " << tx << " " << ty;
Logger::DEBUG_LOGGER->log("DEM", oss.str());
}
if (level >= displayLevel) {
TileCache::Tile *t = graphProducer->findTile(level, tx, ty);
assert(t != NULL);
ObjectTileStorage::ObjectSlot *graphData = dynamic_cast<ObjectTileStorage::ObjectSlot*>(t->getData());
GraphPtr g = graphData->data.cast<Graph>();
if (g->getCurveCount() == 0) {
return false;
}
ptr<FrameBuffer> fb = SceneManager::getCurrentFrameBuffer();
vec3d q = getTileCoords(level, tx, ty);
vec2d nx, ny, lx, ly;
getDeformParameters(q, nx, ny, lx, ly);
float scale = 2.0f * (getTileSize() - 1.0f - (2.0f * getTileBorder())) / q.z;
vec3d tileOffset = vec3d(q.x + q.z / 2.0f, q.y + q.z / 2.0f, scale / getTileSize());
//tileOffsetU->set(vec3f(q.x + q.z / 2.0f, q.y + q.z / 2.0f, scale / getTileSize()));
tileOffsetU->set(vec3f(0.0, 0.0, 1.0));
fb->clear(false, false, true);
if (g->getAreaCount() > 0) {
//fillOffsetU->set(vec3f(q.x + q.z / 2.0f, q.y + q.z / 2.0f, scale / getTileSize()));
fillOffsetU->set(vec3f(0.0, 0.0, 1.0));
depthU->set(0.02f);
colorU->set(vec4f(0.0f, 0.0f, 0.0f, 0.0f));
fb->setDepthTest(true, ALWAYS);
fb->setColorMask(false, false, false, true);
fb->setDepthMask(true);
mesh->setMode(TRIANGLES);
mesh->clear();
tess->beginPolygon(mesh);
ptr<Graph::AreaIterator> ai = g->getAreas();
while (ai->hasNext()) {
AreaPtr a = ai->next();
GraphLayer::drawArea(tileOffset, a, *tess);
}
tess->endPolygon();
fb->draw(fillProg, *mesh);
riverU->set(1);
ai = g->getAreas();
while (ai->hasNext()) {
AreaPtr a = ai->next();
bool island = true;
for (int j = 0; j < a->getCurveCount(); ++j) {
int o;
island &= (a->getCurve(j, o)->getType() == WaterElevationCurveData::ISLAND);
if (!island) {
break;
}
}
for (int j = 0; j < a->getCurveCount(); ++j) {
int orientation;
CurvePtr p = a->getCurve(j, orientation);
if (island) {
orientation = 1 - orientation;
} else {
if (p->getType() == WaterElevationCurveData::ISLAND) {
continue;
}
}
if (orientation != 0) {
GraphLayer::drawCurve(tileOffset, p, vec4f(0, 12, 1, 2), fb, layerProgram, *(meshuv), &nx, &ny, &lx, &ly);
} else {
GraphLayer::drawCurve(tileOffset, p, vec4f(0, -12, 1, 2), fb, layerProgram, *(meshuv), &nx, &ny, &lx, &ly);
}
}
}
fb->setDepthTest(true, NOTEQUAL);
fb->setColorMask(false, false, true, false);
fb->setDepthMask(false);
riverU->set(2);
ptr<Graph::CurveIterator> ci = g->getCurves();
while (ci->hasNext()) {
CurvePtr c = ci->next();
float w = c->getWidth();
float tw = w;
if (w * scale <= 1 || (c->getParent() == NULL && level != 0) || c->getType() == WaterElevationCurveData::LAKE || c->getType() == WaterElevationCurveData::RIVER || c->getArea1() != NULL) {//== WaterElevationCurveData::RIVER) {
continue;
}
ElevationCurveData *cData = dynamic_cast<ElevationCurveData*>(findCurveData(c));
ElevationGraphLayer::drawCurveAltitude(tileOffset, c, cData, tw, tw / w, max(1.0f, 1.0f / scale), false, fb, layerProgram, *meshuv, &nx, &ny, &lx, &ly);
}
}
fb->setColorMask(false, false, true, true);
fb->setDepthTest(true, LESS);
fb->setDepthMask(true);
riverU->set(1);
ptr<Graph::CurveIterator> ci = g->getCurves();
while (ci->hasNext()) {
CurvePtr c = ci->next();
float cwidth = c->getWidth();
if (cwidth * scale <= 1 || c->getType() != WaterElevationCurveData::RIVER || (c->getParent() == NULL && level != 0)) {
continue;
}
float w = BASEWIDTH(cwidth, scale);
float tw = TOTALWIDTH(w);
ElevationCurveData *cData = dynamic_cast<ElevationCurveData*>(findCurveData(c));
ElevationGraphLayer::drawCurveAltitude(tileOffset, c, cData, tw, tw / w, max(1.0f, 1.0f / scale), true, fb, layerProgram, *meshuv, &nx, &ny, &lx, &ly);
}
fb->setColorMask(true, true, true, true);
}
return true;
}
std::pair<MoveTangentCommand::SelectedTangentEnum, AnimItemDimViewKeyFrame >
AnimationModuleViewPrivate::isNearbySelectedTangentText(const QPoint & pt) const
{
QFontMetrics fm( _publicInterface->font() );
int yOffset = TO_DPIY(4);
std::pair<MoveTangentCommand::SelectedTangentEnum, AnimItemDimViewKeyFrame > ret;
AnimationModuleBasePtr model = _model.lock();
const AnimItemDimViewKeyFramesMap& selectedKeys = model->getSelectionModel()->getCurrentKeyFramesSelection();
if (selectedKeys.empty() || selectedKeys.size() > 1) {
return ret;
}
AnimItemDimViewKeyFramesMap::const_iterator curveIT = selectedKeys.begin();
const KeyFrameWithStringSet& keys = curveIT->second;
if (keys.empty() || keys.size() > 1) {
return ret;
}
const KeyFrameWithString& key = *keys.begin();
CurvePtr curve = curveIT->first.item->getCurve(curveIT->first.dim, curveIT->first.view);
if (!curve) {
return ret;
}
KeyFrameSet curveKeys = curve->getKeyFrames_mt_safe();
KeyFrameSet::iterator foundKey = Curve::findWithTime(curveKeys, curveKeys.begin(), key.key.getTime());
assert(foundKey != curveKeys.end());
if (foundKey == curveKeys.end()) {
return ret;
}
for (KeyFrameWithStringSet::const_iterator it = keys.begin(); it != keys.end(); ++it) {
QPointF leftTanPos, rightTanPos;
_publicInterface->getKeyTangentPoints(foundKey, curveKeys, &leftTanPos, &rightTanPos);
double rounding = std::pow(10., CURVEWIDGET_DERIVATIVE_ROUND_PRECISION);
QPointF topLeft_LeftTanWidget = curveEditorZoomContext.toWidgetCoordinates( leftTanPos.x(), leftTanPos.y() );
QPointF topLeft_RightTanWidget = curveEditorZoomContext.toWidgetCoordinates( rightTanPos.x(), rightTanPos.y() );
topLeft_LeftTanWidget.ry() += yOffset;
topLeft_RightTanWidget.ry() += yOffset;
QString leftCoordStr = QString( tr("l: %1") ).arg(std::floor( ( key.key.getLeftDerivative() * rounding ) + 0.5 ) / rounding);
QString rightCoordStr = QString( tr("r: %1") ).arg(std::floor( ( key.key.getRightDerivative() * rounding ) + 0.5 ) / rounding);
QPointF btmRight_LeftTanWidget( topLeft_LeftTanWidget.x() + fm.width(leftCoordStr), topLeft_LeftTanWidget.y() + fm.height() );
QPointF btmRight_RightTanWidget( topLeft_RightTanWidget.x() + fm.width(rightCoordStr), topLeft_RightTanWidget.y() + fm.height() );
if ( (pt.x() >= topLeft_LeftTanWidget.x() - TO_DPIX(CLICK_DISTANCE_TOLERANCE)) && (pt.x() <= btmRight_LeftTanWidget.x() + TO_DPIX(CLICK_DISTANCE_TOLERANCE)) &&
( pt.y() >= topLeft_LeftTanWidget.y() - TO_DPIX(CLICK_DISTANCE_TOLERANCE)) && ( pt.y() <= btmRight_LeftTanWidget.y() + TO_DPIX(CLICK_DISTANCE_TOLERANCE)) ) {
ret.second.key.key = key.key;
StringAnimationManagerPtr stringAnim = curveIT->first.item->getInternalAnimItem()->getStringAnimation();
if (stringAnim) {
stringAnim->stringFromInterpolatedIndex(key.key.getValue(), curveIT->first.view, &ret.second.key.string);
}
ret.second.id = curveIT->first;
ret.first = MoveTangentCommand::eSelectedTangentLeft;
} else if ( (pt.x() >= topLeft_RightTanWidget.x() - TO_DPIX(CLICK_DISTANCE_TOLERANCE)) && (pt.x() <= btmRight_RightTanWidget.x() + TO_DPIX(CLICK_DISTANCE_TOLERANCE)) &&
( pt.y() >= topLeft_RightTanWidget.y() - TO_DPIX(CLICK_DISTANCE_TOLERANCE)) && ( pt.y() <= btmRight_RightTanWidget.y() + TO_DPIX(CLICK_DISTANCE_TOLERANCE)) ) {
ret.second.key.key = key.key;
StringAnimationManagerPtr stringAnim = curveIT->first.item->getInternalAnimItem()->getStringAnimation();
if (stringAnim) {
stringAnim->stringFromInterpolatedIndex(key.key.getValue(), curveIT->first.view, &ret.second.key.string);
}
ret.second.id = curveIT->first;
ret.first = MoveTangentCommand::eSelectedTangentRight;
}
} // for all curves
return ret;
} // isNearbySelectedTangentText
ObjectPtr PowerSpectrumDialog::createNewDataObject() const {
Q_ASSERT(_document && _document->objectStore());
ObjectTag tag = _document->objectStore()->suggestObjectTag<PSD>(tagString(), ObjectTag::globalTagContext);
PSDPtr powerspectrum = _document->objectStore()->createObject<PSD>(tag);
Q_ASSERT(powerspectrum);
powerspectrum->setVector(_powerSpectrumTab->vector());
powerspectrum->setFreq(_powerSpectrumTab->FFTOptionsWidget()->sampleRate());
powerspectrum->setAverage(_powerSpectrumTab->FFTOptionsWidget()->interleavedAverage());
powerspectrum->setLen(_powerSpectrumTab->FFTOptionsWidget()->FFTLength());
powerspectrum->setApodize(_powerSpectrumTab->FFTOptionsWidget()->apodize());
powerspectrum->setRemoveMean(_powerSpectrumTab->FFTOptionsWidget()->removeMean());
powerspectrum->setVUnits(_powerSpectrumTab->FFTOptionsWidget()->vectorUnits());
powerspectrum->setRUnits(_powerSpectrumTab->FFTOptionsWidget()->rateUnits());
powerspectrum->setApodizeFxn(_powerSpectrumTab->FFTOptionsWidget()->apodizeFunction());
powerspectrum->setGaussianSigma(_powerSpectrumTab->FFTOptionsWidget()->sigma());
powerspectrum->setOutput(_powerSpectrumTab->FFTOptionsWidget()->output());
powerspectrum->setInterpolateHoles(_powerSpectrumTab->FFTOptionsWidget()->interpolateOverHoles());
powerspectrum->writeLock();
powerspectrum->update(0);
powerspectrum->unlock();
//FIXME this should be a command...
//FIXME need some smart placement...
tag = _document->objectStore()->suggestObjectTag<Curve>(powerspectrum->tag().tagString(), ObjectTag::globalTagContext);
CurvePtr curve = _document->objectStore()->createObject<Curve>(tag);
Q_ASSERT(curve);
curve->setXVector(powerspectrum->vX());
curve->setYVector(powerspectrum->vY());
curve->setColor(_powerSpectrumTab->curveAppearance()->color());
curve->setHasPoints(_powerSpectrumTab->curveAppearance()->showPoints());
curve->setHasLines(_powerSpectrumTab->curveAppearance()->showLines());
curve->setHasBars(_powerSpectrumTab->curveAppearance()->showBars());
curve->setLineWidth(_powerSpectrumTab->curveAppearance()->lineWidth());
curve->setLineStyle(_powerSpectrumTab->curveAppearance()->lineStyle());
curve->pointType = _powerSpectrumTab->curveAppearance()->pointType();
curve->setPointDensity(_powerSpectrumTab->curveAppearance()->pointDensity());
curve->setBarStyle(_powerSpectrumTab->curveAppearance()->barStyle());
curve->writeLock();
curve->update(0);
curve->unlock();
PlotItem *plotItem = 0;
switch (_powerSpectrumTab->curvePlacement()->place()) {
case CurvePlacement::NoPlot:
break;
case CurvePlacement::ExistingPlot:
{
plotItem = static_cast<PlotItem*>(_powerSpectrumTab->curvePlacement()->existingPlot());
break;
}
case CurvePlacement::NewPlot:
{
CreatePlotForCurve *cmd = new CreatePlotForCurve(
_powerSpectrumTab->curvePlacement()->createLayout(),
_powerSpectrumTab->curvePlacement()->appendToLayout());
cmd->createItem();
plotItem = static_cast<PlotItem*>(cmd->item());
break;
}
default:
break;
}
PlotRenderItem *renderItem = plotItem->renderItem(PlotRenderItem::Cartesian);
renderItem->addRelation(kst_cast<Relation>(curve));
plotItem->update();
return ObjectPtr(powerspectrum.data());
}
void
NodeAnimPrivate::computeGroupRange()
{
NodeGuiPtr nodeUI = nodeGui.lock();
NodePtr node = nodeUI->getNode();
if (!node) {
return;
}
AnimationModulePtr isAnimModel = toAnimationModule(model.lock());
if (!isAnimModel) {
return;
}
NodeGroupPtr nodegroup = node->isEffectNodeGroup();
assert(nodegroup);
if (!nodegroup) {
return;
}
AnimationModuleTreeView* treeView = isAnimModel->getEditor()->getTreeView();
NodesList nodes = nodegroup->getNodes();
std::set<double> times;
for (NodesList::const_iterator it = nodes.begin(); it != nodes.end(); ++it) {
NodeAnimPtr childAnim = isAnimModel->findNodeAnim(*it);
if (!childAnim) {
continue;
}
if (!treeView->isItemVisibleRecursive(childAnim->getTreeItem())) {
continue;
}
childAnim->refreshFrameRange();
RangeD childRange = childAnim->getFrameRange();
times.insert(childRange.min);
times.insert(childRange.max);
// Also check the child knobs keyframes
NodeGuiPtr childGui = childAnim->getNodeGui();
const KnobsVec &knobs = childGui->getNode()->getKnobs();
for (KnobsVec::const_iterator it2 = knobs.begin(); it2 != knobs.end(); ++it2) {
if ( !(*it2)->isAnimationEnabled() || !(*it2)->hasAnimation() ) {
continue;
} else {
// For each dimension and for each split view get the first/last keyframe (if any)
int nDims = (*it2)->getNDimensions();
std::list<ViewIdx> views = (*it2)->getViewsList();
for (std::list<ViewIdx>::const_iterator it3 = views.begin(); it3 != views.end(); ++it3) {
for (int i = 0; i < nDims; ++i) {
CurvePtr curve = (*it2)->getCurve(*it3, DimIdx(i));
if (!curve) {
continue;
}
int nKeys = curve->getKeyFramesCount();
if (nKeys > 0) {
KeyFrame k;
if (curve->getKeyFrameWithIndex(0, &k)) {
times.insert( k.getTime() );
}
if (curve->getKeyFrameWithIndex(nKeys - 1, &k)) {
times.insert( k.getTime() );
}
}
}
}
}
} // for all knobs
} // for all children nodes
if (times.size() <= 1) {
frameRange.min = 0;
frameRange.max = 0;
} else {
frameRange.min = *times.begin();
frameRange.max = *times.rbegin();
}
} // computeGroupRange