private ImageData writeImageTOBEMOVED(
FileFormatOption fileFormatOption, OutputStream os, Animation affineTransforms)
throws IOException {
final LimitFinder limitFinder = new LimitFinder(TextBlockUtils.getDummyStringBounder(), true);
udrawable.drawU(limitFinder);
Dimension2D dim =
new Dimension2DDouble(
limitFinder.getMaxX() + 1 + margin1 + margin2,
limitFinder.getMaxY() + 1 + margin1 + margin2);
double dx = 0;
double dy = 0;
if (affineTransforms != null) {
final MinMax minmax = affineTransformations.getMinMax(dim);
affineTransforms.setDimension(dim);
dim = minmax.getDimension();
dx = -minmax.getMinX();
dy = -minmax.getMinY();
}
final UGraphic2 ug = createUGraphic(fileFormatOption, dim, affineTransforms, dx, dy);
udrawable.drawU(handwritten(ug.apply(new UTranslate(margin1, margin1))));
ug.flushUg();
ug.writeImageTOBEMOVED(os, metadata, 96);
os.flush();
if (ug instanceof UGraphicG2d) {
final Set<Url> urls = ((UGraphicG2d) ug).getAllUrlsEncountered();
if (urls.size() > 0) {
final CMapData cmap = CMapData.cmapString(urls, dpiFactor);
return new ImageDataComplex(dim, cmap, warningOrError);
}
}
return new ImageDataSimple(dim);
}
public MinMax getMinMax() {
final MinMax result = new MinMax();
for (CubicCurve2D.Double c : beziers) {
result.manage(c.x1, c.y1);
result.manage(c.x2, c.y2);
result.manage(c.ctrlx1, c.ctrly1);
result.manage(c.ctrlx2, c.ctrly2);
}
return result;
}
@Override
public MinMax getRangeMinMax() {
if (isstacked) {
return new MinMax(0, getStackedMaxRange());
} else {
MinMax minmax = super.getRangeMinMax();
if (minmax.min > 0) {
minmax.min = 0;
}
return minmax;
}
}
private void addInternal(USegment segment) {
segments.add(segment);
final double coord[] = segment.getCoord();
if (segment.getSegmentType() == USegmentType.SEG_ARCTO) {
minmax = minmax.addPoint(coord[5], coord[6]);
// minmax = minmax.addPoint(coord[5] + coord[0], coord[6] + coord[1]);
// minmax = minmax.addPoint(coord[5] - coord[0], coord[6] - coord[1]);
} else {
for (int i = 0; i < coord.length; i += 2) {
minmax = minmax.addPoint(coord[i], coord[i + 1]);
}
}
}
public static MinMax getMinMax(double[] values) {
MinMax res = new MinMax(values[0], 0, values[0], 0);
for (int i = 1; i < values.length; i++) {
if (res.min > values[i]) {
res.min = values[i];
res.iMin = i;
}
if (res.max < values[i]) {
res.max = values[i];
res.iMax = i;
}
}
return res;
}
/**
* Makes this player's moves until the referee says the game is over or one of the players has
* won.
*/
public static void makeMoves() {
Move move;
while (true) {
if (currentGameState.getTurn() == Player.MAX) {
move =
MinMax.getInstance()
.getNextBestMove(currentGameState, timelimit, Heuristic.getInstance());
Communicator.getInstance().sendCmd(Main.getMoveAsCommand(move));
logger.log(Level.INFO, "Player " + playerNumber + " move: " + move.toString());
} else {
String command = Communicator.getInstance().getCmd();
if (Main.gameIsOver(command)) {
break;
}
String args[] = command.split(" ");
int col = Integer.parseInt(args[0]);
int moveType = Integer.parseInt(args[1]);
move = new Move((moveType == 0) ? MoveType.POP : MoveType.DROP, col);
}
currentGameState.move(move);
}
}
@Override
public RoofHookPoint[] getRoofHookPoints(int pNumber, DormerRow dormerRow, int dormerRowNum) {
Vector2d v = new Vector2d(this.v1);
MinMax polygonMinMaxY = findMinMaxY(this.polygon);
if (polygonMinMaxY == null) {
// XXX
polygonMinMaxY = new MinMax(0, 1d);
}
v.scale(1d / (pNumber + 1d));
Point2d p = new Point2d(this.p1);
RoofHookPoint[] ret = new RoofHookPoint[pNumber];
for (int i = 0; i < pNumber; i++) {
p.add(v);
MinMax minMaxY = limitZToPolygon(p.x);
double z = calcRowPosition(minMaxY, dormerRow, dormerRowNum);
// double z = minMaxY.getMin();
double y = this.plane.calcYOfPlane(p.x, -z);
Point3d pp = new Point3d(p.x, y, -z);
double b = minMaxY.getMax() - z; // (minMaxY.getMax() - minMaxY.getMin()) - z;
RoofHookPoint hook = new RoofHookPoint(pp, Math.toRadians(0), b, Math.toRadians(0));
ret[i] = hook;
}
return ret;
}
/**
* TODO: chunkNumericPK definition.
*
* @param table
* @param columns
* @param chunkSize
* @throws ReplicatorException
* @throws InterruptedException
*/
private void chunkNumericPK(Table table, String[] columns, long chunkSize)
throws ReplicatorException, InterruptedException {
// Retrieve PK range
MinMax minmax = retrieveMinMaxCountPK(connection, table);
if (minmax != null) {
if (logger.isDebugEnabled())
logger.debug(
"Min = "
+ minmax.getMin()
+ " -- Max = "
+ minmax.getMax()
+ " -- Count = "
+ minmax.getCount());
if (minmax.getCount() <= chunkSize)
// Get the whole table at once
chunks.put(new NumericChunk(table, columns));
else {
// Share the joy among threads,
// if primary key is evenly distributed
if (!minmax.isDecimal()) {
long gap = (Long) minmax.getMax() - (Long) minmax.getMin();
long blockSize = chunkSize * gap / minmax.getCount();
long nbBlocks = gap / blockSize;
if (gap % blockSize > 0) nbBlocks++;
long start = (Long) minmax.getMin() - 1;
long end;
do {
end = start + blockSize;
if (end > (Long) minmax.getMax()) end = (Long) minmax.getMax();
NumericChunk e = new NumericChunk(table, start, end, columns, nbBlocks);
chunks.put(e);
start = end;
} while (start < (Long) minmax.getMax());
} else {
BigInteger start =
((BigDecimal) minmax.getMin())
.setScale(0, RoundingMode.FLOOR)
.toBigInteger()
.subtract(BigInteger.valueOf(1));
BigInteger max =
((BigDecimal) minmax.getMax()).setScale(0, RoundingMode.CEILING).toBigInteger();
BigInteger gap = max.subtract(start);
BigInteger blockSize =
gap.multiply(BigInteger.valueOf(chunkSize))
.divide(BigInteger.valueOf(minmax.getCount()));
long nbBlocks = gap.divide(blockSize).longValue();
if (!gap.remainder(blockSize).equals(BigInteger.ZERO)) {
nbBlocks++;
blockSize =
gap.divide(BigInteger.valueOf(nbBlocks))
.add(
gap.remainder(blockSize).equals(BigInteger.ZERO)
? BigInteger.ZERO
: BigInteger.ONE);
}
BigInteger end;
do {
end = start.add(blockSize);
if (end.compareTo(
(((BigDecimal) minmax.getMax()).setScale(0, RoundingMode.CEILING))
.toBigInteger())
== 1)
end =
(((BigDecimal) minmax.getMax()).setScale(0, RoundingMode.CEILING)).toBigInteger();
NumericChunk e = new NumericChunk(table, start, end, columns, nbBlocks);
chunks.put(e);
start = end;
} while (start.compareTo(
(((BigDecimal) minmax.getMax()).setScale(0, RoundingMode.CEILING)).toBigInteger())
== -1);
}
}
} else {
// table is empty or does not have a
// good candidate as a PK for chunking.
// Fall back to limit method
chunks.put(new NumericChunk(table, columns));
}
}
public class UPath extends AbstractShadowable implements Iterable<USegment> {
private final List<USegment> segments = new ArrayList<USegment>();
private MinMax minmax = MinMax.getEmpty(false);
private boolean isOpenIconic;
public void add(double[] coord, USegmentType pathType) {
addInternal(new USegment(coord, pathType));
}
private void addInternal(USegment segment) {
segments.add(segment);
final double coord[] = segment.getCoord();
if (segment.getSegmentType() == USegmentType.SEG_ARCTO) {
minmax = minmax.addPoint(coord[5], coord[6]);
// minmax = minmax.addPoint(coord[5] + coord[0], coord[6] + coord[1]);
// minmax = minmax.addPoint(coord[5] - coord[0], coord[6] - coord[1]);
} else {
for (int i = 0; i < coord.length; i += 2) {
minmax = minmax.addPoint(coord[i], coord[i + 1]);
}
}
}
public UPath translate(double dx, double dy) {
final UPath result = new UPath();
for (USegment seg : segments) {
result.addInternal(seg.translate(dx, dy));
}
return result;
}
public UPath rotate(double theta) {
final UPath result = new UPath();
for (USegment seg : segments) {
result.addInternal(seg.rotate(theta));
}
return result;
}
public void moveTo(Point2D pt) {
moveTo(pt.getX(), pt.getY());
}
public void lineTo(Point2D pt) {
lineTo(pt.getX(), pt.getY());
}
public void moveTo(double x, double y) {
add(new double[] {x, y}, USegmentType.SEG_MOVETO);
}
public void lineTo(double x, double y) {
add(new double[] {x, y}, USegmentType.SEG_LINETO);
}
public void cubicTo(
double ctrlx1, double ctrly1, double ctrlx2, double ctrly2, double x2, double y2) {
add(new double[] {ctrlx1, ctrly1, ctrlx2, ctrly2, x2, y2}, USegmentType.SEG_CUBICTO);
}
public void quadTo(double ctrlx, double ctrly, double x2, double y2) {
add(new double[] {ctrlx, ctrly, ctrlx, ctrly, x2, y2}, USegmentType.SEG_CUBICTO);
}
public void quadTo(Point2D ctrl, Point2D pt) {
quadTo(ctrl.getX(), ctrl.getY(), pt.getX(), pt.getY());
}
public void arcTo(
double rx,
double ry,
double x_axis_rotation,
double large_arc_flag,
double sweep_flag,
double x,
double y) {
add(
new double[] {rx, ry, x_axis_rotation, large_arc_flag, sweep_flag, x, y},
USegmentType.SEG_ARCTO);
// lineTo(x, y);
}
public void arcTo(Point2D pt, double radius, double large_arc_flag, double sweep_flag) {
add(
new double[] {radius, radius, 0, large_arc_flag, sweep_flag, pt.getX(), pt.getY()},
USegmentType.SEG_ARCTO);
// lineTo(x, y);
}
public void closePath() {
// System.err.println("CLOSE_PATH");
}
public double getMaxX() {
return minmax.getMaxX();
}
public double getMaxY() {
return minmax.getMaxY();
}
public double getMinX() {
return minmax.getMinX();
}
public double getMinY() {
return minmax.getMinY();
}
@Override
public String toString() {
return segments.toString();
}
public Iterator<USegment> iterator() {
return segments.iterator();
}
public boolean isOpenIconic() {
return isOpenIconic;
}
public void setOpenIconic(boolean isOpenIconic) {
this.isOpenIconic = isOpenIconic;
}
// public boolean isEmpty() {
// return segments.size() == 0;
// }
}
public double getMinY() {
return minmax.getMinY();
}
public double getMaxX() {
return minmax.getMaxX();
}
private double calcRowPosition(MinMax minMaxY, DormerRow dormerRow, int dormerRowNum) {
double row = (dormerRow.getRowNum() - 1) / (double) dormerRowNum;
return minMaxY.getMin() + (minMaxY.getMax() - minMaxY.getMin()) * row;
}
