TilePoint Tile::corner(float rX, float rY, float w, float h, TileParam& t) {
// Evaluate maps
if (t.tileRound) {
bool inCorner = false;
float cX=0.0f, cY=0.0f;
// Detect corner
if (rX < t.tileCrnrRad) {
if (rY < t.tileCrnrRad) { // Bottom left
cX = t.tileCrnrRad - rX;
cY = t.tileCrnrRad - rY;
inCorner = true;
} else if (rY > h - t.tileCrnrRad) { // Top left
cX = t.tileCrnrRad - rX;
cY = h - rY - t.tileCrnrRad;
inCorner = true;
}
} else if (rX > w - t.tileCrnrRad) {
if (rY < t.tileCrnrRad) { // Bottom right
cX = w - rX - t.tileCrnrRad;
cY = t.tileCrnrRad - rY;
inCorner = true;
} else if (rY > h - t.tileCrnrRad) { // Top right
cX = w - rX - t.tileCrnrRad;
cY = h - rY - t.tileCrnrRad;
inCorner = true;
}
}
float d = cY*cY + cX*cX;
if (inCorner) {
if (d > t.tileCrnrRad*t.tileCrnrRad)
return TilePoint();
// Calculate corner blur
d = t.tileCrnrRad - sqrt(d);
if (t.tileBlur > 0 && d <t. tileBlurRad)
return TilePoint(Point3(rX/w, rY/h, 0.f), edgeBlur(d, t.tileBlurRad, t.tileBlur));
}
}
if (t.tileBlur) {
bool inCorner = false;
float dX = rX;
float dY = rY;
// Distance to vertical walls
if (rX < t.tileBlurRad) {
inCorner = true;
} else if (rX > w - t.tileBlurRad) {
dX = w - rX;
inCorner = true;
}
// Distance to horizontal walls
if (rY < t.tileBlurRad) {
inCorner = true;
} else if (rY > h - t.tileBlurRad) {
dY = h - rY;
inCorner = true;
}
if (inCorner)
return dX<dY?TilePoint(Point3(rX/w, rY/h, 0.f), edgeBlur(dX, t.tileBlurRad, t.tileBlur)):TilePoint(Point3(rX/w, rY/h, 0.f), edgeBlur(dY, t.tileBlurRad, t.tileBlur));
}
return TilePoint(Point3(rX/w, rY/h, 0.f), 1.f);
}
TilePoint Tile::pat_xBond(Point3 p, TileParam& t) {
TilePattern* pat = t.pattern;
if (!pat) return TilePoint();
float edges[4];
int id = 0;
int id2 = 0;
// Tile top and bottom
float rand = 3.14f;
int row = rowcol(edges[3], edges[1], id, p.y, pat->totalHeight, pat->heights, t.tileHeight, t.tileHeightVar, rand);
if (row == -1) return TilePoint();
// Tile sides
rand = edges[3] * 1.325f + 31.41213f;
float offset = pat->rows[row].offset * t.tileWidth;
if (offset < 0) offset *= -id;
row = rowcol(edges[0], edges[2], id2, p.x + offset, pat->rows[row].totalWidth, pat->rows[row].tiles, t.tileWidth, t.tileWidthVar, rand);
if (row == -1) return TilePoint();
edges[0] -= offset;
edges[2] -= offset;
id = generateID(id2, id);
// Draw it
return drawTile(p, edges, t, id);
}
TilePoint Tile::drawTile(Point3 p, float edges[4], TileParam& t, int id, int dir) {
float hEdgeW = t.edgeWidth * .5f;
float hEdgeH = t.edgeHeight * .5f;
float randomSeed = (float)id * 1.23f + 0.1234f;
if (dir) {
edges[0] += t.eH_var ? hEdgeH * (1.f + noise(edges[0], randomSeed) * t.edgeHeightVar) : hEdgeH;
edges[2] -= t.eH_var ? hEdgeH * (1.f + noise(edges[2], randomSeed) * t.edgeHeightVar) : hEdgeH;
edges[3] += t.eW_var ? hEdgeW * (1.f + noise(edges[3], randomSeed) * t.edgeWidthVar) : hEdgeW;
edges[1] -= t.eW_var ? hEdgeW * (1.f + noise(edges[1], randomSeed) * t.edgeWidthVar) : hEdgeW;
} else {
edges[0] += t.eW_var ? hEdgeW * (1.f + noise(edges[0], randomSeed) * t.edgeWidthVar) : hEdgeW;
edges[2] -= t.eW_var ? hEdgeW * (1.f + noise(edges[2], randomSeed) * t.edgeWidthVar) : hEdgeW;
edges[3] += t.eH_var ? hEdgeH * (1.f + noise(edges[3], randomSeed) * t.edgeHeightVar) : hEdgeH;
edges[1] -= t.eH_var ? hEdgeH * (1.f + noise(edges[1], randomSeed) * t.edgeHeightVar) : hEdgeH;
}
if (p.x < edges[0]) return TilePoint();
if (p.x > edges[2]) return TilePoint();
if (p.y < edges[3]) return TilePoint();
if (p.y > edges[1]) return TilePoint();
float width = edges[2] - edges[0];
float height = edges[1] - edges[3];
if (width < 0 || height < 0) return TilePoint();
TilePoint tp = corner(p.x - edges[0], p.y - edges[3], width, height, t);
if (tp.d < 0) return tp; // On edge
//if (t.tileID || t.mapUV)
tp.id = id;
if (t.center || (t.mapUV && dir))
tp.center = Point3(edges[0] + (edges[2] - edges[0]) * .5f,
edges[3] + (edges[1] - edges[3]) * .5f, p.z);
if (dir) {
offsetEdges(edges, -tp.center.x, -tp.center.y);
rotate90(edges[0], edges[3]);
rotate90(edges[2], edges[1]);
offsetEdges(edges, tp.center.x, tp.center.y);
p -= tp.center; rotate90(p.x, p.y); p += tp.center;
}
if (t.mapUV)
uvMapping(tp, p, edges, t, dir);
if (dir) {
offsetEdges(edges, -tp.center.x, -tp.center.y);
rotate270(edges[0], edges[3]);
rotate270(edges[2], edges[1]);
offsetEdges(edges, tp.center.x, tp.center.y);
p -= tp.center; rotate270(p.x, p.y); p += tp.center;
}
return tp;
}
TilePoint TilePoint::createFromIndex(int indexInArray, TileMapSize mapSize)
{
return TilePoint(indexInArray%mapSize.width, indexInArray/mapSize.width);
}
XGTile* XGTile::createWithXY(int x, int y)
{
return create(TilePoint(x, y));
}
TilePoint MapModel::tileCoordForMapPoint(MapPoint mapLoc, int level){
const int MH = _tileMap->getMapSize().height;
return TilePoint(mapLoc.x, (MH - (mapLoc.y + 1) * 2 - level + 1));
}
TilePoint MapModel::tileCoordForPosition(Point position){
int x = position.x / _tileMap->getTileSize().width;
int y = (_tileMap->getMapSize().height *_tileMap->getTileSize().height - position.y) / _tileMap->getTileSize().height;
return TilePoint(x, y);
}
TilePoint Transform::transformPoint(
const ProjectedPoint& p, uint16_t extent, uint32_t z2, uint32_t tx, uint32_t ty) {
int16_t x = trans(p.x, extent, z2, tx);
int16_t y = trans(p.y, extent, z2, ty);
return TilePoint(x, y);
}