void TrackView::editToggleInterpolationType()
{
SyncDocument *doc = getDocument();
if (editTrack < getTrackCount()) {
SyncTrack *t = getTrack(editTrack);
QMap<int, SyncTrack::TrackKey> keyMap = t->getKeyMap();
QMap<int, SyncTrack::TrackKey>::const_iterator it = keyMap.lowerBound(editRow);
if (it != keyMap.constBegin() && it.key() != editRow)
--it;
if (it.key() > editRow || it == keyMap.constEnd()) {
QApplication::beep();
return;
}
// copy and modify
SyncTrack::TrackKey newKey = *it;
newKey.type = (SyncTrack::TrackKey::KeyType)
((newKey.type + 1) % SyncTrack::TrackKey::KEY_TYPE_COUNT);
// apply change to data-set
doc->setKeyFrame(t, newKey);
// update user interface
dirtyCurrentValue();
} else
QApplication::beep();
}
QRgb ColorElement::get_color(double v, bool smooth) {
/* exact match */
//if(colorMap.contains(v)) return colorMap.value(v);
/* out of bounderies */
if(v<=minVal) return colorMap.begin().value();
if(v>=maxVal) return (colorMap.end()-1).value();
/* std case */
QMap<double,QRgb>::Iterator it=colorMap.lowerBound(v);
if(smooth) {
double fact=(v-(it-1).key())/((it).key()-(it-1).key());
double fact2=1-fact;
QRgb minVal=(it-1).value();
QRgb maxVal=it.value();
int r,g,b;
r=(int)(fact2*qRed(minVal)+fact*qRed(maxVal)+0.5);
g=(int)(fact2*qGreen(minVal)+fact*qGreen(maxVal)+0.5);
b=(int)(fact2*qBlue(minVal)+fact*qBlue(maxVal)+0.5);
return qRgba(r,g,b,transparence);
}
else {
if(v-(it-1).key()<it.key()-v)
return (it).value();
else
return (it-1).value();
}
}
void HoleFinderPrivate::finalizeHoles()
{
QMap<double, Hole> tmpMap;
double totalVolume = 0.0;
for (QVector<Hole>::const_iterator it = this->holes.constBegin(),
it_end = this->holes.constEnd(); it != it_end; ++it) {
double volume = it->volume();
tmpMap.insertMulti(volume, *it);
totalVolume += volume;
}
QMap<double, Hole>::const_iterator largestHole = tmpMap.constEnd() - 1;
QMap<double, Hole>::const_iterator smallestHole =
tmpMap.lowerBound(this->minVolume);
if (smallestHole == tmpMap.constEnd()) {
smallestHole = tmpMap.lowerBound(0.1 * largestHole.key());
qWarning() << "HoleFinderPrivate::finalizeHoles No holes satisfying the "
"minimum specified volume of " << this->minVolume << "."
" Using a minimum volume that is 10% of the largest hole,"
<< smallestHole.key();
}
this->holeMap.clear();
double trimmedVolume = 0.0;
for (QMap<double, Hole>::const_iterator it = smallestHole,
it_end = tmpMap.constEnd(); it != it_end; ++it) {
trimmedVolume += it.key();
this->holeMap.insertMulti(it.key(), it.value());
}
this->holes.clear();
DEBUGOUT("finalizeHoles") "Total hole volume:" << totalVolume;
DEBUGOUT("finalizeHoles") "Trimmed hole volume:" << trimmedVolume;
DEBUGOUT("finalizeHoles") "Largest hole volume:" << largestHole.key();
DEBUGOUT("finalizeHoles") "Smallest hole volume:" << smallestHole.key();
DEBUGOUT("finalizeHoles") "Total holes:" << tmpMap.size();
DEBUGOUT("finalizeHoles") "Trimmed holes:" << this->holeMap.size();
}
/*!
\internal
*/
static QPair<int, int> findMissingKey(const QMap<int, QPlaceContent> &map)
{
int start = 0;
while (map.contains(start))
++start;
QMap<int, QPlaceContent>::const_iterator it = map.lowerBound(start);
if (it == map.end())
return qMakePair(start, -1);
int end = start;
while (!map.contains(end))
++end;
return qMakePair(start, end - 1);
}
float calculateRenderAccuracy(const glm::vec3& position,
const AABox& bounds,
float octreeSizeScale,
int boundaryLevelAdjust) {
float largestDimension = bounds.getLargestDimension();
const float maxScale = (float)TREE_SCALE;
float visibleDistanceAtMaxScale = boundaryDistanceForRenderLevel(boundaryLevelAdjust, octreeSizeScale) / OCTREE_TO_MESH_RATIO;
static std::once_flag once;
static QMap<float, float> shouldRenderTable;
std::call_once(once, [&] {
float SMALLEST_SCALE_IN_TABLE = 0.001f; // 1mm is plenty small
float scale = maxScale;
float factor = 1.0f;
while (scale > SMALLEST_SCALE_IN_TABLE) {
scale /= 2.0f;
factor /= 2.0f;
shouldRenderTable[scale] = factor;
}
});
float closestScale = maxScale;
float visibleDistanceAtClosestScale = visibleDistanceAtMaxScale;
QMap<float, float>::const_iterator lowerBound = shouldRenderTable.lowerBound(largestDimension);
if (lowerBound != shouldRenderTable.constEnd()) {
closestScale = lowerBound.key();
visibleDistanceAtClosestScale = visibleDistanceAtMaxScale * lowerBound.value();
}
if (closestScale < largestDimension) {
visibleDistanceAtClosestScale *= 2.0f;
}
// FIXME - for now, it's either visible or not visible. We want to adjust this to eventually return
// a floating point for objects that have small angular size to indicate that they may be rendered
// with lower preciscion
float distanceToCamera = glm::length(bounds.calcCenter() - position);
return (distanceToCamera <= visibleDistanceAtClosestScale) ? 1.0f : 0.0f;
}
bool LODManager::shouldRender(const RenderArgs* args, const AABox& bounds) {
const float maxScale = (float)TREE_SCALE;
const float octreeToMeshRatio = 4.0f; // must be this many times closer to a mesh than a voxel to see it.
float octreeSizeScale = args->_sizeScale;
int boundaryLevelAdjust = args->_boundaryLevelAdjust;
float visibleDistanceAtMaxScale = boundaryDistanceForRenderLevel(boundaryLevelAdjust, octreeSizeScale) / octreeToMeshRatio;
float distanceToCamera = glm::length(bounds.calcCenter() - args->_viewFrustum->getPosition());
float largestDimension = bounds.getLargestDimension();
static bool shouldRenderTableNeedsBuilding = true;
static QMap<float, float> shouldRenderTable;
if (shouldRenderTableNeedsBuilding) {
float SMALLEST_SCALE_IN_TABLE = 0.001f; // 1mm is plenty small
float scale = maxScale;
float factor = 1.0f;
while (scale > SMALLEST_SCALE_IN_TABLE) {
scale /= 2.0f;
factor /= 2.0f;
shouldRenderTable[scale] = factor;
}
shouldRenderTableNeedsBuilding = false;
}
float closestScale = maxScale;
float visibleDistanceAtClosestScale = visibleDistanceAtMaxScale;
QMap<float, float>::const_iterator lowerBound = shouldRenderTable.lowerBound(largestDimension);
if (lowerBound != shouldRenderTable.constEnd()) {
closestScale = lowerBound.key();
visibleDistanceAtClosestScale = visibleDistanceAtMaxScale * lowerBound.value();
}
if (closestScale < largestDimension) {
visibleDistanceAtClosestScale *= 2.0f;
}
return distanceToCamera <= visibleDistanceAtClosestScale;
};
void TextEditorOverlay::mapEquivalentSelections()
{
m_equivalentSelections.clear();
m_equivalentSelections.resize(m_selections.size());
QMap<QString, int> all;
for (int i = 0; i < m_selections.size(); ++i)
all.insertMulti(selectionText(i).toLower(), i);
const QList<QString> &uniqueKeys = all.uniqueKeys();
foreach (const QString &key, uniqueKeys) {
QList<int> indexes;
QMap<QString, int>::const_iterator lbit = all.lowerBound(key);
QMap<QString, int>::const_iterator ubit = all.upperBound(key);
while (lbit != ubit) {
indexes.append(lbit.value());
++lbit;
}
foreach (int index, indexes)
m_equivalentSelections[index] = indexes;
}
Map *TileStamp::randomVariation() const
{
if (d->variations.isEmpty())
return 0;
QMap<qreal, const TileStampVariation *> probabilityThresholds;
qreal sum = 0.0;
for (const TileStampVariation &variation : d->variations) {
sum += variation.probability;
probabilityThresholds.insert(sum, &variation);
}
qreal random = ((qreal)rand() / RAND_MAX) * sum;
auto it = probabilityThresholds.lowerBound(random);
const TileStampVariation *variation;
if (it != probabilityThresholds.end())
variation = it.value();
else
variation = &d->variations.last(); // floating point may have failed us
return variation->map;
}
int ScriptInfo::lineOffset(int lineNumber)
{
QMap<int, int>::const_iterator it = m_lineOffsets.constFind(lineNumber);
if (it != m_lineOffsets.constEnd())
return it.value();
int offset;
it = m_lineOffsets.constFind(lineNumber - 1);
if (it != m_lineOffsets.constEnd()) {
offset = it.value();
offset = m_code.indexOf(QLatin1Char('\n'), offset);
if (offset != -1)
++offset;
m_lineOffsets.insert(lineNumber, offset);
} else {
int index;
it = m_lineOffsets.lowerBound(lineNumber);
--it;
if (it != m_lineOffsets.constBegin()) {
index = it.key();
offset = it.value();
} else {
index = m_lineNumber;
offset = 0;
}
int j = index;
for ( ; j < lineNumber; ++j) {
m_lineOffsets.insert(j, offset);
offset = m_code.indexOf(QLatin1Char('\n'), offset);
if (offset == -1)
break;
++offset;
}
m_lineOffsets.insert(j, offset);
}
return offset;
}
void PluginGauss::loadRefDatas()//const ProjectSettings& settings)
{
mRefDatas.clear();
QString calibPath = getRefsPath();
QDir calibDir(calibPath);
QFileInfoList files = calibDir.entryInfoList(QStringList(), QDir::Files);
for(int i=0; i<files.size(); ++i)
{
if(files[i].suffix().toLower() == "csv")
{
QFile file(files[i].absoluteFilePath());
if(file.open(QIODevice::ReadOnly | QIODevice::Text))
{
QMap<QString, QMap<double, double> > curves;
QMap<double, double> curveG;
QMap<double, double> curveG95Sup;
QMap<double, double> curveG95Inf;
QTextStream stream(&file);
while(!stream.atEnd())
{
QString line = stream.readLine();
if(!isComment(line))
{
QStringList values = line.split(",");
if(values.size() >= 3)
{
double t = values[0].toDouble();
double g = values[1].toDouble();
double gSup = g + 1.96 * values[2].toDouble();
double gInf = g - 1.96 * values[2].toDouble();
curveG[t] = g;
curveG95Sup[t] = gSup;
curveG95Inf[t] = gInf;
}
}
}
file.close();
// The curves do not have 1-year precision!
// We have to interpolate in the blanks
double tmin = curveG.firstKey();
double tmax = curveG.lastKey();
for(double t=tmin; t<tmax; ++t)//t+=settings.mStep)//++t)
{
if(curveG.find(t) == curveG.end())
{
// This actually return the iterator with the nearest greater key !!!
QMap<double, double>::const_iterator iter = curveG.lowerBound(t);
if(iter != curveG.end())
{
double t_upper = iter.key();
--iter;
if(iter != curveG.begin())
{
double t_under = iter.key();
//qDebug() << t_under << " < " << t << " < " << t_upper;
double g_under = curveG[t_under];
double g_upper = curveG[t_upper];
double gsup_under = curveG95Sup[t_under];
double gsup_upper = curveG95Sup[t_upper];
double ginf_under = curveG95Inf[t_under];
double ginf_upper = curveG95Inf[t_upper];
curveG[t] = interpolate(t, t_under, t_upper, g_under, g_upper);
curveG95Sup[t] = interpolate(t, t_under, t_upper, gsup_under, gsup_upper);
curveG95Inf[t] = interpolate(t, t_under, t_upper, ginf_under, ginf_upper);
}
else
{
curveG[t] = 0;
curveG95Sup[t] = 0;
curveG95Inf[t] = 0;
}
}
else
{
curveG[t] = 0;
curveG95Sup[t] = 0;
curveG95Inf[t] = 0;
}
}
}
// Store the resulting curves :
curves["G"] = curveG;
curves["G95Sup"] = curveG95Sup;
curves["G95Inf"] = curveG95Inf;
mRefDatas[files[i].fileName().toLower()] = curves;
}
}
}
}