/**
* Returns a new stamp where all variations have been rotated in the given
* \a direction.
*/
TileStamp TileStamp::rotated(RotateDirection direction) const
{
TileStamp rotated(*this);
rotated.d.detach();
for (const TileStampVariation &variation : rotated.variations()) {
const QRect mapRect(QPoint(), variation.map->size());
QSize rotatedSize;
for (auto layer : variation.map->tileLayers()) {
TileLayer *tileLayer = static_cast<TileLayer*>(layer);
// Synchronize tile layer size to map size (assumes map contains all layers)
if (tileLayer->rect() != mapRect) {
tileLayer->resize(mapRect.size(), tileLayer->position());
tileLayer->setPosition(0, 0);
}
if (variation.map->orientation() == Map::Hexagonal)
tileLayer->rotateHexagonal(direction, variation.map);
else
tileLayer->rotate(direction);
rotatedSize = tileLayer->size();
}
variation.map->setWidth(rotatedSize.width());
variation.map->setHeight(rotatedSize.height());
}
return rotated;
}
void BucketFillTool::randomFill(TileLayer &tileLayer, const QRegion ®ion) const
{
if (region.isEmpty() || mRandomCellPicker.isEmpty())
return;
for (const QRect &rect : region.translated(-tileLayer.position()).rects()) {
for (int _x = rect.left(); _x <= rect.right(); ++_x) {
for (int _y = rect.top(); _y <= rect.bottom(); ++_y) {
tileLayer.setCell(_x, _y,
mRandomCellPicker.pick());
}
}
}
}
/**
* Returns a new stamp where all variations have been flipped in the given
* \a direction.
*/
TileStamp TileStamp::flipped(FlipDirection direction) const
{
TileStamp flipped(*this);
flipped.d.detach();
for (const TileStampVariation &variation : flipped.variations()) {
const QRect mapRect(QPoint(), variation.map->size());
for (auto layer : variation.map->tileLayers()) {
TileLayer *tileLayer = static_cast<TileLayer*>(layer);
// Synchronize tile layer size to map size (assumes map contains all layers)
if (tileLayer->rect() != mapRect) {
tileLayer->resize(mapRect.size(), tileLayer->position());
tileLayer->setPosition(0, 0);
}
if (variation.map->orientation() == Map::Hexagonal)
tileLayer->flipHexagonal(direction);
else
tileLayer->flip(direction);
}
if (variation.map->isStaggered()) {
Map::StaggerAxis staggerAxis = variation.map->staggerAxis();
if (staggerAxis == Map::StaggerY) {
if ((direction == FlipVertically && !(variation.map->height() & 1)) || direction == FlipHorizontally)
variation.map->invertStaggerIndex();
} else {
if ((direction == FlipHorizontally && !(variation.map->width() & 1)) || direction == FlipVertically)
variation.map->invertStaggerIndex();
}
}
}
return flipped;
}
QVariant MapToVariantConverter::toVariant(const TileLayer &tileLayer,
Map::LayerDataFormat format) const
{
QVariantMap tileLayerVariant;
tileLayerVariant[QLatin1String("type")] = QLatin1String("tilelayer");
QRect bounds = tileLayer.bounds().translated(-tileLayer.position());
if (tileLayer.map()->infinite()) {
tileLayerVariant[QLatin1String("width")] = bounds.width();
tileLayerVariant[QLatin1String("height")] = bounds.height();
tileLayerVariant[QLatin1String("startx")] = bounds.left();
tileLayerVariant[QLatin1String("starty")] = bounds.top();
} else {
tileLayerVariant[QLatin1String("width")] = tileLayer.width();
tileLayerVariant[QLatin1String("height")] = tileLayer.height();
}
addLayerAttributes(tileLayerVariant, tileLayer);
switch (format) {
case Map::XML:
case Map::CSV:
break;
case Map::Base64:
case Map::Base64Zlib:
case Map::Base64Gzip:
tileLayerVariant[QLatin1String("encoding")] = QLatin1String("base64");
if (format == Map::Base64Zlib)
tileLayerVariant[QLatin1String("compression")] = QLatin1String("zlib");
else if (format == Map::Base64Gzip)
tileLayerVariant[QLatin1String("compression")] = QLatin1String("gzip");
break;
}
if (tileLayer.map()->infinite()) {
QVariantList chunkVariants;
for (const QRect &rect : tileLayer.sortedChunksToWrite()) {
QVariantMap chunkVariant;
chunkVariant[QLatin1String("x")] = rect.x();
chunkVariant[QLatin1String("y")] = rect.y();
chunkVariant[QLatin1String("width")] = rect.width();
chunkVariant[QLatin1String("height")] = rect.height();
addTileLayerData(chunkVariant, tileLayer, format, rect);
chunkVariants.append(chunkVariant);
}
tileLayerVariant[QLatin1String("chunks")] = chunkVariants;
} else {
addTileLayerData(tileLayerVariant, tileLayer, format,
QRect(0, 0, tileLayer.width(), tileLayer.height()));
}
return tileLayerVariant;
}
TileLayer *WangFiller::fillRegion(const TileLayer &back,
const QRegion &fillRegion) const
{
Q_ASSERT(mWangSet);
QRect boundingRect = fillRegion.boundingRect();
TileLayer *tileLayer = new TileLayer(QString(),
boundingRect.x(),
boundingRect.y(),
boundingRect.width(),
boundingRect.height());
QVector<WangId> wangIds(tileLayer->width() * tileLayer->height(), 0);
for (const QRect &rect : fillRegion.rects()) {
for (int x = rect.left(); x <= rect.right(); ++x) {
int index = x - tileLayer->x() + (rect.top() - tileLayer->y()) * tileLayer->width();
wangIds[index] = wangIdFromSurroundings(back,
fillRegion,
QPoint(x, rect.top()));
index = x - tileLayer->x() + (rect.bottom() - tileLayer->y())*tileLayer->width();
wangIds[index] = wangIdFromSurroundings(back,
fillRegion,
QPoint(x, rect.bottom()));
}
for (int y = rect.top() + 1; y < rect.bottom(); ++y) {
int index = rect.left() - tileLayer->x() + (y - tileLayer->y())*tileLayer->width();
wangIds[index] = wangIdFromSurroundings(back,
fillRegion,
QPoint(rect.left(), y));
index = rect.right() - tileLayer->x() + (y - tileLayer->y())*tileLayer->width();
wangIds[index] = wangIdFromSurroundings(back,
fillRegion,
QPoint(rect.right(), y));
}
}
for (const QRect &rect : fillRegion.rects()) {
for (int y = rect.top(); y <= rect.bottom(); ++y) {
for (int x = rect.left(); x <= rect.right(); ++x) {
QPoint currentPoint(x, y);
int currentIndex = (currentPoint.y() - tileLayer->y()) * tileLayer->width() + (currentPoint.x() - tileLayer->x());
QList<WangTile> wangTilesList = mWangSet->findMatchingWangTiles(wangIds[currentIndex]);
RandomPicker<WangTile> wangTiles;
for (const WangTile &wangTile : wangTilesList)
wangTiles.add(wangTile, mWangSet->wangTileProbability(wangTile));
while (!wangTiles.isEmpty()) {
WangTile wangTile = wangTiles.take();
bool fill = true;
if (!mWangSet->isComplete()) {
QPoint adjacentPoints[8];
getSurroundingPoints(currentPoint, mStaggeredRenderer, mStaggerAxis, adjacentPoints);
for (int i = 0; i < 8; ++i) {
QPoint p = adjacentPoints[i];
if (!fillRegion.contains(p) || !tileLayer->cellAt(p - tileLayer->position()).isEmpty())
continue;
p -= tileLayer->position();
int index = p.y() * tileLayer->width() + p.x();
WangId adjacentWangId = wangIds[index];
adjacentWangId.updateToAdjacent(wangTile.wangId(), (i + 4) % 8);
if (!mWangSet->wildWangIdIsUsed(adjacentWangId)) {
fill = wangTiles.isEmpty();
break;
}
}
}
if (fill) {
tileLayer->setCell(currentPoint.x() - tileLayer->x(),
currentPoint.y() - tileLayer->y(),
wangTile.makeCell());
QPoint adjacentPoints[8];
getSurroundingPoints(currentPoint, mStaggeredRenderer, mStaggerAxis, adjacentPoints);
for (int i = 0; i < 8; ++i) {
QPoint p = adjacentPoints[i];
if (!fillRegion.contains(p) || !tileLayer->cellAt(p - tileLayer->position()).isEmpty())
continue;
p -= tileLayer->position();
int index = p.y() * tileLayer->width() + p.x();
wangIds[index].updateToAdjacent(wangTile.wangId(), (i + 4) % 8);
}
break;
}
}
}
}
}
return tileLayer;
}
void AbstractTileFillTool::randomFill(TileLayer &tileLayer, const QRegion ®ion) const
{
if (region.isEmpty() || mRandomCellPicker.isEmpty())
return;
const auto localRegion = region.translated(-tileLayer.position());
#if QT_VERSION < 0x050800
const auto rects = localRegion.rects();
for (const QRect &rect : rects) {
#else
for (const QRect &rect : localRegion) {
#endif
for (int y = rect.top(); y <= rect.bottom(); ++y) {
for (int x = rect.left(); x <= rect.right(); ++x) {
tileLayer.setCell(x, y,
mRandomCellPicker.pick());
}
}
}
}
void AbstractTileFillTool::wangFill(TileLayer &tileLayerToFill,
const TileLayer &backgroundTileLayer,
const QRegion ®ion) const
{
if (!mWangSet)
return;
WangFiller wangFiller(mWangSet,
dynamic_cast<StaggeredRenderer *>(mapDocument()->renderer()),
mapDocument()->map()->staggerAxis());
auto stamp = wangFiller.fillRegion(backgroundTileLayer, region);
tileLayerToFill.setCells(0, 0, stamp.get());
}
void AbstractTileFillTool::fillWithStamp(Map &map,
const TileStamp &stamp,
const QRegion &mask)
{
if (stamp.isEmpty())
return;
const QSize size = stamp.maxSize();
if (size.isEmpty())
return;
const QRect bounds = mask.boundingRect();
// Fill the entire map with random variations of the stamp
for (int y = 0; y < bounds.height(); y += size.height()) {
for (int x = 0; x < bounds.width(); x += size.width()) {
const Map *stampMap = stamp.randomVariation().map;
for (Layer *layer : stampMap->tileLayers()) {
TileLayer *target = static_cast<TileLayer*>(map.findLayer(layer->name(), Layer::TileLayerType));
if (!target) {
target = new TileLayer(layer->name(), bounds.topLeft(), bounds.size());
map.addLayer(target);
}
target->setCells(x, y, static_cast<TileLayer*>(layer));
}
}
}
// Erase tiles outside of the masked region. This can easily be faster than
// avoiding to place tiles outside of the region in the first place.
for (Layer *layer : map.tileLayers()) {
auto tileLayer = static_cast<TileLayer*>(layer);
tileLayer->erase((QRegion(tileLayer->bounds()) - mask).translated(-tileLayer->position()));
}
}
void AbstractTileFillTool::invalidateRandomAndMissingCache()
{
mRandomAndMissingCacheValid = false;
}