/**
* Writes the <code>shape</code>, <code>coords</code>, <code>href</code>,
* <code>nohref</code> Attribute for the specified figure and shape.
*
* @return Returns true, if the polygon is inside of the image bounds.
*/
private boolean writePolyAttributes(IXMLElement elem, SVGFigure f, Shape shape) {
AffineTransform t = TRANSFORM.getClone(f);
if (t == null) {
t = drawingTransform;
} else {
t.preConcatenate(drawingTransform);
}
StringBuilder buf = new StringBuilder();
float[] coords = new float[6];
GeneralPath path = new GeneralPath();
for (PathIterator i = shape.getPathIterator(t, 1.5f);
! i.isDone(); i.next()) {
switch (i.currentSegment(coords)) {
case PathIterator.SEG_MOVETO :
if (buf.length() != 0) {
throw new IllegalArgumentException("Illegal shape "+shape);
}
if (buf.length() != 0) {
buf.append(',');
}
buf.append((int) coords[0]);
buf.append(',');
buf.append((int) coords[1]);
path.moveTo(coords[0], coords[1]);
break;
case PathIterator.SEG_LINETO :
if (buf.length() != 0) {
buf.append(',');
}
buf.append((int) coords[0]);
buf.append(',');
buf.append((int) coords[1]);
path.lineTo(coords[0], coords[1]);
break;
case PathIterator.SEG_CLOSE :
path.closePath();
break;
default :
throw new InternalError("Illegal segment type "+i.currentSegment(coords));
}
}
elem.setAttribute("shape", "poly");
elem.setAttribute("coords", buf.toString());
writeHrefAttribute(elem, f);
return path.intersects(new Rectangle2D.Float(bounds.x, bounds.y, bounds.width, bounds.height));
}
/**
* returns the skew transform
*
* @param svgHandle a svg handle
* @param bounds the bounds of the area to transform
* @param firstPoint the first clicked point by the user
* @param currentPoint the current point of the drag action by the user
* @param item the selection item
* @return the skew transform
*/
protected AffineTransform getSkewTransform(
SVGHandle svgHandle,
Rectangle2D bounds,
Point2D firstPoint,
Point2D currentPoint,
SelectionItem item) {
// getting the skew factor
double skewX = 0, skewY = 0;
boolean isHorizontal =
(item.getType() == SelectionItem.NORTH || item.getType() == SelectionItem.SOUTH);
if (bounds.getWidth() > 0 && bounds.getHeight() > 0) {
if (isHorizontal) {
skewX = (currentPoint.getX() - firstPoint.getX()) / bounds.getHeight();
} else {
skewY = (currentPoint.getY() - firstPoint.getY()) / bounds.getWidth();
}
}
// getting the center point
Point2D centerPoint = getRotationSkewCenterPoint(svgHandle, bounds);
// creating the affine transform
AffineTransform af =
AffineTransform.getTranslateInstance(-centerPoint.getX(), -centerPoint.getY());
af.preConcatenate(AffineTransform.getShearInstance(skewX, skewY));
af.preConcatenate(AffineTransform.getTranslateInstance(centerPoint.getX(), centerPoint.getY()));
return af;
}
/**
* Perform a zooming operation centered on the given point (dx, dy) and using the given scale
* factor. The given AffineTransform instance is preconcatenated.
*
* @param dx center x
* @param dy center y
* @param scale zoom rate
* @param af original affinetransform
*/
public void centerZoom(double dx, double dy, double scale, AffineTransform af) {
af.preConcatenate(AffineTransform.getTranslateInstance(-dx, -dy));
af.preConcatenate(AffineTransform.getScaleInstance(scale, scale));
af.preConcatenate(AffineTransform.getTranslateInstance(dx, dy));
transform = af;
syncScrollBars();
}
public GranuleOverviewLevelDescriptor(
final double scaleX, final double scaleY, final int width, final int height) {
this.scaleX = scaleX;
this.scaleY = scaleY;
this.baseToLevelTransform =
new AffineTransform2D(XAffineTransform.getScaleInstance(scaleX, scaleY, 0, 0));
final AffineTransform gridToWorldTransform_ = new AffineTransform(baseToLevelTransform);
gridToWorldTransform_.preConcatenate(CoverageUtilities.CENTER_TO_CORNER);
gridToWorldTransform_.preConcatenate(baseGridToWorld);
this.gridToWorldTransformCorner = new AffineTransform2D(gridToWorldTransform_);
this.width = width;
this.height = height;
this.rasterDimensions = new Rectangle(0, 0, width, height);
}
/**
* Writes the <code>shape</code>, <code>coords</code>, <code>href</code>,
* <code>nohref</code> Attribute for the specified figure and ellipse.
*
* @return Returns true, if the circle is inside of the image bounds.
*/
private boolean writeCircleAttributes(IXMLElement elem, SVGFigure f, Ellipse2D.Double ellipse) {
AffineTransform t = TRANSFORM.getClone(f);
if (t == null) {
t = drawingTransform;
} else {
t.preConcatenate(drawingTransform);
}
if ((t.getType() &
(AffineTransform.TYPE_UNIFORM_SCALE | AffineTransform.TYPE_TRANSLATION)) ==
t.getType() &&
ellipse.width == ellipse.height
) {
Point2D.Double start = new Point2D.Double(ellipse.x, ellipse.y);
Point2D.Double end = new Point2D.Double(ellipse.x + ellipse.width, ellipse.y + ellipse.height);
t.transform(start, start);
t.transform(end, end);
ellipse.x = Math.min(start.x, end.x);
ellipse.y = Math.min(start.y, end.y);
ellipse.width = Math.abs(start.x - end.x);
ellipse.height = Math.abs(start.y - end.y);
elem.setAttribute("shape", "circle");
elem.setAttribute("coords",
(int) (ellipse.x + ellipse.width / 2d)+","+
(int) (ellipse.y + ellipse.height / 2d)+","+
(int) (ellipse.width / 2d)
);
writeHrefAttribute(elem, f);
return bounds.intersects(ellipse.getBounds());
} else {
return writePolyAttributes(elem, f, (Shape) ellipse);
}
}
@Override
public void paintPreview(JEnvironment env, JRequest req, Graphics2D g) {
g.setColor(getPreviewColor());
AffineTransform af = new AffineTransform(totalTransform);
if (addingTransform != null) af.preConcatenate(addingTransform);
Shape s = getShape();
if (addingTransform != null) s = addingTransform.createTransformedShape(s);
s = env.getToScreenTransform().createTransformedShape(s);
g.draw(s);
PathIterator path = s.getPathIterator(null);
double radius = JEnvironment.PATH_SELECTOR_SIZE / 2;
Rectangle2D.Double sr = new Rectangle2D.Double(0, 0, radius * 2, radius * 2);
double[] coords = new double[6];
while (!path.isDone()) {
int type = path.currentSegment(coords);
if (type == path.SEG_MOVETO || type == path.SEG_LINETO) {
sr.x = coords[0] - radius;
sr.y = coords[1] - radius;
g.fill(sr);
} else if (type == path.SEG_CUBICTO) {
sr.x = coords[4] - radius;
sr.y = coords[5] - radius;
g.fill(sr);
} else if (type == path.SEG_QUADTO) {
sr.x = coords[2] - radius;
sr.y = coords[3] - radius;
g.fill(sr);
}
path.next();
}
}
/**
* Transforms the figure.
*
* @param tx the transformation.
*/
public void transform(AffineTransform tx) {
if (TRANSFORM.get(this) != null
|| tx.getType() != (tx.getType() & AffineTransform.TYPE_TRANSLATION)) {
if (TRANSFORM.get(this) == null) {
TRANSFORM.basicSet(this, (AffineTransform) tx.clone());
} else {
AffineTransform t = TRANSFORM.getClone(this);
t.preConcatenate(tx);
TRANSFORM.basicSet(this, t);
}
} else {
for (int i = 0; i < coordinates.length; i++) {
tx.transform(coordinates[i], coordinates[i]);
}
if (FILL_GRADIENT.get(this) != null && !FILL_GRADIENT.get(this).isRelativeToFigureBounds()) {
Gradient g = FILL_GRADIENT.getClone(this);
g.transform(tx);
FILL_GRADIENT.basicSet(this, g);
}
if (STROKE_GRADIENT.get(this) != null
&& !STROKE_GRADIENT.get(this).isRelativeToFigureBounds()) {
Gradient g = STROKE_GRADIENT.getClone(this);
g.transform(tx);
STROKE_GRADIENT.basicSet(this, g);
}
}
invalidate();
}
public static BufferedImage rotateImage(BufferedImage image, double theta) {
int degrees = (int) Math.abs(Math.toDegrees(theta));
double xCenter = image.getWidth() / 2;
double yCenter = image.getHeight() / 2;
AffineTransform rotateTransform = AffineTransform.getRotateInstance(-theta, xCenter, yCenter);
// Translation adjustments so image still centered after rotate width/height changes
if (image.getHeight() != image.getWidth() && degrees != 180 && degrees != 0) {
Point2D origin = new Point2D.Double(0.0, 0.0);
origin = rotateTransform.transform(origin, null);
double yTranslate = origin.getY();
Point2D yMax = new Point2D.Double(0, image.getHeight());
yMax = rotateTransform.transform(yMax, null);
double xTranslate = yMax.getX();
AffineTransform translationAdjustment =
AffineTransform.getTranslateInstance(-xTranslate, -yTranslate);
rotateTransform.preConcatenate(translationAdjustment);
}
AffineTransformOp op = new AffineTransformOp(rotateTransform, AffineTransformOp.TYPE_BILINEAR);
// Have to recopy image because of JDK bug #4723021, AffineTransformationOp throwing exception
// sometimes
image = copyImage(image, BufferedImage.TYPE_INT_ARGB);
// Need to create filter dest image ourselves since AffineTransformOp's own dest image creation
// throws exceptions in some cases.
Rectangle bounds = op.getBounds2D(image).getBounds();
BufferedImage finalImage =
new BufferedImage(
(int) bounds.getWidth(), (int) bounds.getHeight(), BufferedImage.TYPE_INT_ARGB);
return op.filter(image, finalImage);
}
/**
* @param drop
* @param i
* @return
*/
public static BufferedImage rotate(final BufferedImage src, final int degree) {
final int w = src.getWidth(null);
final int h = src.getHeight(null);
// final Graphics2D g = image.createGraphics();
// g.setRenderingHint(RenderingHints.KEY_ANTIALIASING,
// RenderingHints.VALUE_ANTIALIAS_ON);
final AffineTransform at = new AffineTransform();
at.rotate(degree * Math.PI / 180.0);
Point2D p2din, p2dout;
p2din = new Point2D.Double(0.0, 0.0);
p2dout = at.transform(p2din, null);
double ytrans = p2dout.getY();
double xtrans = p2dout.getX();
p2din = new Point2D.Double(0, h);
p2dout = at.transform(p2din, null);
ytrans = Math.min(ytrans, p2dout.getY());
xtrans = Math.min(xtrans, p2dout.getX());
p2din = new Point2D.Double(w, h);
p2dout = at.transform(p2din, null);
ytrans = Math.min(ytrans, p2dout.getY());
xtrans = Math.min(xtrans, p2dout.getX());
p2din = new Point2D.Double(w, 0);
p2dout = at.transform(p2din, null);
ytrans = Math.min(ytrans, p2dout.getY());
xtrans = Math.min(xtrans, p2dout.getX());
final AffineTransform tat = new AffineTransform();
tat.translate(-xtrans, -ytrans);
at.preConcatenate(tat);
final AffineTransformOp bio = new AffineTransformOp(at, AffineTransformOp.TYPE_BILINEAR);
final Rectangle r = bio.getBounds2D(src).getBounds();
BufferedImage image = new BufferedImage(r.width, r.height, BufferedImage.TYPE_INT_ARGB);
image = bio.filter(src, image);
// final Graphics g = image.getGraphics();
// g.setColor(Color.RED);
// g.drawRect(0, 0, image.getWidth() - 1, image.getHeight() - 1);
// g.dispose();
// try {
// Dialog.getInstance().showConfirmDialog(0, "", "", new
// ImageIcon(image), null, null);
// } catch (final DialogClosedException e) {
// // TODO Auto-generated catch block
// e.printStackTrace();
// } catch (final DialogCanceledException e) {
// // TODO Auto-generated catch block
// e.printStackTrace();
// }
return image;
}
/* Scroll horizontally */
private void scrollHorizontally(ScrollBar scrollBar) {
if (sourceImage == null) return;
AffineTransform af = transform;
double tx = af.getTranslateX();
double select = -scrollBar.getSelection();
af.preConcatenate(AffineTransform.getTranslateInstance(select - tx, 0));
transform = af;
syncScrollBars();
}
/* Scroll vertically */
private void scrollVertically(ScrollBar scrollBar) {
if (sourceImage == null) return;
AffineTransform af = transform;
double ty = af.getTranslateY();
double select = -scrollBar.getSelection();
af.preConcatenate(AffineTransform.getTranslateInstance(0, select - ty));
transform = af;
syncScrollBars();
}
/**
* Performs a translation using the "Resample" operation.
*
* @param grid the {@link GridCoverage2D} to apply the translation on.
* @throws NoninvertibleTransformException If a "grid to CRS" transform is not invertible.
*/
private void doTranslation(GridCoverage2D grid) throws NoninvertibleTransformException {
final int transX = -253;
final int transY = -456;
final double scaleX = 0.04;
final double scaleY = -0.04;
final ParameterBlock block =
new ParameterBlock()
.addSource(grid.getRenderedImage())
.add((float) transX)
.add((float) transY);
RenderedImage image = JAI.create("Translate", block);
assertEquals("Incorrect X translation", transX, image.getMinX());
assertEquals("Incorrect Y translation", transY, image.getMinY());
/*
* Create a grid coverage from the translated image but with the same envelope.
* Consequently, the 'gridToCoordinateSystem' should be translated by the same
* amount, with the opposite sign.
*/
AffineTransform expected = getAffineTransform(grid);
assertNotNull(expected);
expected = new AffineTransform(expected); // Get a mutable instance.
final GridCoverageFactory factory = CoverageFactoryFinder.getGridCoverageFactory(null);
grid =
factory.create(
"Translated",
image,
grid.getEnvelope(),
grid.getSampleDimensions(),
new GridCoverage2D[] {grid},
grid.getProperties());
expected.translate(-transX, -transY);
assertTransformEquals(expected, getAffineTransform(grid));
/*
* Apply the "Resample" operation with a specific 'gridToCoordinateSystem' transform.
* The envelope is left unchanged. The "Resample" operation should compute automatically
* new image bounds.
*/
final AffineTransform at = AffineTransform.getScaleInstance(scaleX, scaleY);
final MathTransform tr = ProjectiveTransform.create(at);
// account for the half pixel correction between the two spaces since we are talking raster here
// but the resample will talk model!
final MathTransform correctedTransform =
PixelTranslation.translate(tr, PixelInCell.CELL_CORNER, PixelInCell.CELL_CENTER);
final GridGeometry2D geometry = new GridGeometry2D(null, correctedTransform, null);
final GridCoverage2D newGrid =
(GridCoverage2D)
Operations.DEFAULT.resample(grid, grid.getCoordinateReferenceSystem(), geometry, null);
assertEquals(correctedTransform, getAffineTransform(newGrid));
image = newGrid.getRenderedImage();
expected.preConcatenate(at.createInverse());
final Point point = new Point(transX, transY);
assertSame(point, expected.transform(point, point)); // Round toward neareast integer
}
/**
* Returns a Filter that represents a svg document or element as an image.
*
* @param ctx the bridge context
* @param primitiveRegion the primitive region
* @param refElement the referenced element
* @param toBBoxNeeded true if there is a need to transform to ObjectBoundingBox space
* @param filterElement parent filter element
* @param filteredNode node to which the filter applies
*/
protected static Filter createSVGFeImage(
BridgeContext ctx,
Rectangle2D primitiveRegion,
Element refElement,
boolean toBBoxNeeded,
Element filterElement,
GraphicsNode filteredNode) {
//
// <!> FIX ME
// Unresolved issue on the feImage behavior when referencing an
// image (PNG, JPEG or SVG image).
// VH & TK, 03/08/2002
// Furthermore, for feImage referencing doc fragment, should act
// like a <use>, i.e., CSS cascading and the whole zing bang.
//
GraphicsNode node = ctx.getGVTBuilder().build(ctx, refElement);
Filter filter = node.getGraphicsNodeRable(true);
AffineTransform at = new AffineTransform();
if (toBBoxNeeded) {
// 'primitiveUnits' attribute - default is userSpaceOnUse
short coordSystemType;
Element filterDefElement = (Element) (filterElement.getParentNode());
String s =
SVGUtilities.getChainableAttributeNS(
filterDefElement, null, SVG_PRIMITIVE_UNITS_ATTRIBUTE, ctx);
if (s.length() == 0) {
coordSystemType = SVGUtilities.USER_SPACE_ON_USE;
} else {
coordSystemType =
SVGUtilities.parseCoordinateSystem(
filterDefElement, SVG_PRIMITIVE_UNITS_ATTRIBUTE, s, ctx);
}
if (coordSystemType == SVGUtilities.OBJECT_BOUNDING_BOX) {
at = SVGUtilities.toObjectBBox(at, filteredNode);
}
Rectangle2D bounds = filteredNode.getGeometryBounds();
at.preConcatenate(
AffineTransform.getTranslateInstance(
primitiveRegion.getX() - bounds.getX(), primitiveRegion.getY() - bounds.getY()));
} else {
// Need to translate the image to the x, y coordinate to
// have the same behavior as the <use> element
at.translate(primitiveRegion.getX(), primitiveRegion.getY());
}
return new AffineRable8Bit(filter, at);
}
/**
* Synchronize the scrollbar with the image. If the transform is out of range, it will correct it.
* This function considers only following factors :<b> transform, image size, client area</b>.
*/
public void syncScrollBars() {
if (sourceImage == null) {
redraw();
return;
}
AffineTransform af = transform;
double sx = af.getScaleX(), sy = af.getScaleY();
double tx = af.getTranslateX(), ty = af.getTranslateY();
if (tx > 0) tx = 0;
if (ty > 0) ty = 0;
ScrollBar horizontal = getHorizontalBar();
horizontal.setIncrement((int) (getClientArea().width / 20));
horizontal.setPageIncrement(getClientArea().width);
Rectangle imageBound = sourceImage.getBounds();
int cw = getClientArea().width, ch = getClientArea().height;
if (imageBound.width * sx > cw) {
/* image is wider than client area */
horizontal.setMaximum((int) (imageBound.width * sx));
horizontal.setEnabled(true);
if (((int) -tx) > horizontal.getMaximum() - cw) tx = -horizontal.getMaximum() + cw;
} else {
/* image is narrower than client area */
horizontal.setEnabled(false);
tx = (cw - imageBound.width * sx) / 2; // center if too small.
}
horizontal.setSelection((int) (-tx));
horizontal.setThumb((int) (getClientArea().width));
ScrollBar vertical = getVerticalBar();
vertical.setIncrement((int) (getClientArea().height / 20));
vertical.setPageIncrement((int) (getClientArea().height));
if (imageBound.height * sy > ch) {
/* image is higher than client area */
vertical.setMaximum((int) (imageBound.height * sy));
vertical.setEnabled(true);
if (((int) -ty) > vertical.getMaximum() - ch) ty = -vertical.getMaximum() + ch;
} else {
/* image is less higher than client area */
vertical.setEnabled(false);
ty = (ch - imageBound.height * sy) / 2; // center if too small.
}
vertical.setSelection((int) (-ty));
vertical.setThumb((int) (getClientArea().height));
/* update transform. */
af = AffineTransform.getScaleInstance(sx, sy);
af.preConcatenate(AffineTransform.getTranslateInstance(tx, ty));
transform = af;
redraw();
}
private void inspectCoordinateReferenceSystems() throws DataSourceException {
// get the crs for the requested bbox
requestCRS = CRS.getHorizontalCRS(requestedBBox.getCoordinateReferenceSystem());
//
// Check if the request CRS is different from the coverage native CRS
//
if (!CRS.equalsIgnoreMetadata(requestCRS, coverageProperties.crs2D))
try {
destinationToSourceTransform =
CRS.findMathTransform(requestCRS, coverageProperties.crs2D, true);
} catch (FactoryException e) {
throw new DataSourceException("Unable to inspect request CRS", e);
}
// now transform the requested envelope to source crs
if (destinationToSourceTransform != null && destinationToSourceTransform.isIdentity()) {
destinationToSourceTransform = null; // the CRS is basically the same
} else if (destinationToSourceTransform instanceof AffineTransform) {
needsReprojection = true;
//
// k, the transformation between the various CRS is not null or the
// Identity, let's see if it is an affine transform, which case we
// can incorporate it into the requested grid to world
//
// we should not have any problems with regards to BBOX reprojection
// update the requested grid to world transformation by pre concatenating the destination to
// source transform
AffineTransform mutableTransform = (AffineTransform) requestedGridToWorld.clone();
mutableTransform.preConcatenate((AffineTransform) destinationToSourceTransform);
// update the requested envelope
try {
final MathTransform tempTransform =
PixelTranslation.translate(
ProjectiveTransform.create(mutableTransform),
PixelInCell.CELL_CENTER,
PixelInCell.CELL_CORNER);
requestedBBox =
new ReferencedEnvelope(
CRS.transform(tempTransform, new GeneralEnvelope(requestedRasterArea)));
} catch (MismatchedDimensionException e) {
throw new DataSourceException("Unable to inspect request CRS", e);
} catch (TransformException e) {
throw new DataSourceException("Unable to inspect request CRS", e);
}
// now clean up all the traces of the transformations
destinationToSourceTransform = null;
}
}
@Override
public void transform(AffineTransform tx) {
if (get(TRANSFORM) != null
|| (tx.getType() & (AffineTransform.TYPE_TRANSLATION)) != tx.getType()) {
if (get(TRANSFORM) == null) {
TRANSFORM.setClone(this, tx);
} else {
AffineTransform t = TRANSFORM.getClone(this);
t.preConcatenate(tx);
set(TRANSFORM, t);
}
} else {
super.transform(tx);
}
}
@Override
public AffineTransform convertViewCoordinatesToNormalizedPointAT(double scale) {
Rectangle bounds = getNormalizedBounds(scale);
// return AffineTransform.getScaleInstance(1.0/bounds.width, 1.0/bounds.height);
AffineTransform returned =
AffineTransform.getTranslateInstance(
minX < 0 ? minX * bounds.width : 0, minY < 0 ? minY * bounds.height : 0);
returned.preConcatenate(
AffineTransform.getScaleInstance(1.0 / bounds.width, 1.0 / bounds.height));
return returned;
}
public void mouseWheelMoved(MouseWheelEvent event) {
JGVTComponent component = (JGVTComponent) event.getSource();
double scale = 1 - 0.2 * event.getWheelRotation();
int x = event.getX();
int y = event.getY();
AffineTransform at = AffineTransform.getTranslateInstance(x, y);
at.scale(scale, scale);
at.translate(-x, -y);
AffineTransform rt = (AffineTransform) component.getRenderingTransform().clone();
rt.preConcatenate(at);
if (rt.getDeterminant() < MAX_ZOOM_DETERMINANT) {
return;
}
component.setRenderingTransform(rt);
calculator.reset();
}
/**
* Derives the "magic" transform that can transform source points to destination points.
*
* @param srcPoints Three points representing the source parallelogram.
* @param destPoints Three points representing the destination parallelogram.
* <p>Matrix is represent [m00 m01 m02] [m10 m11 m12] [ 0 0 1 ]
* @return A transform as described above.
*/
public static AffineTransform deriveTransform(Point2D[] srcPoints, Point2D[] destPoints)
throws NoninvertibleTransformException {
if ((srcPoints == null) || (srcPoints.length != 3)) {
throw new IllegalArgumentException("Source points must contain three points!");
} else if ((destPoints == null) || (destPoints.length != 3)) {
throw new IllegalArgumentException("Destination points must contain three points!");
}
AffineTransform returnTransform = null;
// System.out.println(srcPoints[0]+","+srcPoints[1]+","+srcPoints[2]);
final double m00 = srcPoints[1].getX() - srcPoints[0].getX();
final double m10 = srcPoints[1].getY() - srcPoints[0].getY();
final double m01 = srcPoints[2].getX() - srcPoints[0].getX();
final double m11 = srcPoints[2].getY() - srcPoints[0].getY();
final double m02 = srcPoints[0].getX();
final double m12 = srcPoints[0].getY();
final double n00 = destPoints[1].getX() - destPoints[0].getX();
final double n10 = destPoints[1].getY() - destPoints[0].getY();
final double n01 = destPoints[2].getX() - destPoints[0].getX();
final double n11 = destPoints[2].getY() - destPoints[0].getY();
final double n02 = destPoints[0].getX();
final double n12 = destPoints[0].getY();
// Build the transform based on the source points.
final AffineTransform srcTransform =
new AffineTransform(new double[] {m00, m10, m01, m11, m02, m12});
// System.out.println("src Tran "+srcTransform);
final AffineTransform destTransform =
new AffineTransform(new double[] {n00, n10, n01, n11, n02, n12});
// System.out.println("destTran "+destTransform);
try {
returnTransform = srcTransform.createInverse();
returnTransform.preConcatenate(destTransform);
} catch (NoninvertibleTransformException e) {
NaviLogger.logger.severe(e.getMessage());
}
// System.out.println("retTran "+returnTransform);
return returnTransform;
}
/**
* computes the new coordinates of the element according to the transform a returns an undo/redo
* action
*
* @param handle a svg handle
* @param element the element that will be transformed
* @param transform the transform to apply
* @param actionUndoRedoLabel the action undo/redo label
* @return an undo/redo action
*/
protected UndoRedoAction applyTransform(
final SVGHandle handle,
final Element element,
AffineTransform transform,
String actionUndoRedoLabel) {
// getting the initial transform
final AffineTransform initialTransform = handle.getSvgElementsManager().getTransform(element);
// getting the new transform
final AffineTransform newTransform = new AffineTransform(initialTransform);
newTransform.preConcatenate(transform);
// setting the new x and y attributes for the elements
Runnable executeRunnable =
new Runnable() {
@Override
public void run() {
handle.getSvgElementsManager().setTransform(element, newTransform);
}
};
// the undo runnable
Runnable undoRunnable =
new Runnable() {
@Override
public void run() {
handle.getSvgElementsManager().setTransform(element, initialTransform);
}
};
// executing the action and creating the undo/redo action
HashSet<Element> elements = new HashSet<Element>();
elements.add(element);
UndoRedoAction undoRedoAction =
ShapeToolkit.getUndoRedoAction(
actionUndoRedoLabel, executeRunnable, undoRunnable, elements);
return undoRedoAction;
}
/**
* Función de pintado del canvas. Pintamos un marco a la imagen para saber donde la movemos.
*
* <p>Para dibujar el marco alrededor del raster hacemos lo mismo que para pintar el raster
* rotado. En realidad dibujamos un cuadrado y luego le aplicamos las transformaciones necesarias
* para que se vea con la misma forma del raster al que representa.
*/
public void paintComponent(Graphics g) {
if (isMoveable && lyr != null && ptoFin != null && ptoIni != null) {
try {
ViewPort vp = grBehavior.getMapControl().getMapContext().getViewPort();
AffineTransform at = (AffineTransform) lyr.getAffineTransform().clone();
at.preConcatenate(vp.getAffineTransform());
Extent ext = lyr.getFullRasterExtent();
Point2D pt = new Point2D.Double(ext.getULX(), ext.getULY());
vp.getAffineTransform().transform(pt, pt);
at.inverseTransform(pt, pt);
Point2D size = new Point2D.Double(ext.getLRX(), ext.getLRY());
vp.getAffineTransform().transform(size, size);
at.inverseTransform(size, size);
double distX = ptoFin.getX() - ptoIni.getX();
double distY = ptoFin.getY() - ptoIni.getY();
Point2D d = new Point2D.Double(ext.getULX() + distX, ext.getULY() + distY);
vp.getAffineTransform().transform(d, d);
at.inverseTransform(d, d);
// Giramos el graphics se dibuja y se vuelve a dejar como estaba
((Graphics2D) g).transform(at);
g.setColor(rectangleColor);
AlphaComposite alpha = AlphaComposite.getInstance(AlphaComposite.SRC_OVER, 0.1f);
((Graphics2D) g).setComposite(alpha);
g.fillRect(
(int) pt.getX() + (int) d.getX(),
(int) pt.getY() + (int) d.getY(),
(int) size.getX(),
(int) size.getY());
((Graphics2D) g).setComposite(AlphaComposite.getInstance(AlphaComposite.SRC_OVER, 1.0f));
g.drawRect(
(int) pt.getX() + (int) d.getX(),
(int) pt.getY() + (int) d.getY(),
(int) size.getX(),
(int) size.getY());
((Graphics2D) g).transform(at.createInverse());
} catch (NoninvertibleTransformException e1) {
RasterToolsUtil.messageBoxError("error_transformacion1", this, e1);
}
}
}
/** {@inheritDoc } */
@Override
public void setGraphicsCRS(CoordinateReferenceSystem crs) throws TransformException {
if (crs == displayCRS) {
switchToDisplayCRS();
} else if (crs == objectiveCRS || crs == objectiveCRS2D) {
switchToObjectiveCRS();
} else
try {
crs = CRSUtilities.getCRS2D(crs);
AffineTransform at = getAffineTransform(crs, displayCRS);
at.preConcatenate(displayToDevice);
current = OTHER_TRS;
graphics.setTransform(at);
} catch (FactoryException e) {
throw new TransformException(
Errors.format(Errors.Keys.ILLEGAL_COORDINATE_REFERENCE_SYSTEM), e);
}
}
@Override
public void draw(Graphics2D g2d) {
double radius = facade.getShipRadius(getObject());
double angle = -facade.getShipDirection(getObject());
double x = facade.getShipX(getObject());
double y = facade.getWorldHeight(world) - facade.getShipY(getObject());
g2d.setColor(getColor());
if (getImage() == null) {
g2d.drawOval(
(int) (x - radius), (int) (y - radius), (int) (2 * radius), (int) (2 * radius));
} else {
AffineTransform T = AffineTransform.getTranslateInstance(radius, radius);
T.rotate(angle);
T.translate(-radius, -radius);
T.preConcatenate(AffineTransform.getTranslateInstance(x - radius, y - radius));
g2d.drawImage(getImage(), T, null);
}
g2d.drawLine(
(int) x, (int) y, (int) (x + Math.cos(angle) * radius), (int) (y + sin(angle) * radius));
}
@Override
public void draw(Graphics2D g2d) {
World world = facade.getAsteroidWorld(getObject());
if (world != null) {
double radius = facade.getAsteroidRadius(getObject());
double x = facade.getAsteroidX(getObject());
double y = facade.getWorldHeight(world) - facade.getAsteroidY(getObject());
if (getImage() == null) {
g2d.setColor(getColor());
g2d.drawOval(
(int) (x - radius), (int) (y - radius), (int) (2 * radius), (int) (2 * radius));
} else {
AffineTransform T =
AffineTransform.getScaleInstance(
2 * radius / getImage().getWidth(null), 2 * radius / getImage().getHeight(null));
T.preConcatenate(AffineTransform.getTranslateInstance(x - radius, y - radius));
g2d.drawImage(this.getImage(), T, null);
}
}
}
public synchronized void paint(Graphics gin) {
Graphics2D g = (Graphics2D) gin;
if (im == null) return;
int height = getHeight();
int width = getWidth();
if (fit) {
t = new AffineTransform();
double scale = Math.min(((double) width) / im.getWidth(), ((double) height) / im.getHeight());
// we'll re-center the transform in a moment.
t.scale(scale, scale);
}
// if the image (in either X or Y) is smaller than the view port, then center
// the image with respect to that axis.
double mwidth = im.getWidth() * t.getScaleX();
double mheight = im.getHeight() * t.getScaleY();
if (mwidth < width)
t.preConcatenate(
AffineTransform.getTranslateInstance((width - mwidth) / 2.0 - t.getTranslateX(), 0));
if (mheight < height)
t.preConcatenate(
AffineTransform.getTranslateInstance(0, (height - mheight) / 2.0 - t.getTranslateY()));
// if we're allowing panning (because only a portion of the image is visible),
// don't allow translations that show less information that is possible.
Point2D topleft = t.transform(new Point2D.Double(0, 0), null);
Point2D bottomright = t.transform(new Point2D.Double(im.getWidth(), im.getHeight()), null);
if (mwidth > width) {
if (topleft.getX() > 0)
t.preConcatenate(AffineTransform.getTranslateInstance(-topleft.getX(), 0));
if (bottomright.getX() < width)
t.preConcatenate(AffineTransform.getTranslateInstance(width - bottomright.getX(), 0));
// t.translate(width-bottomright.getX(), 0);
}
if (mheight > height) {
if (topleft.getY() > 0)
t.preConcatenate(AffineTransform.getTranslateInstance(0, -topleft.getY()));
if (bottomright.getY() < height)
t.preConcatenate(AffineTransform.getTranslateInstance(0, height - bottomright.getY()));
}
g.drawImage(im, t, null);
}
/**
* Writes the <code>shape</code>, <code>coords</code>, <code>href</code>,
* <code>nohref</code> Attribute for the specified figure and rectangle.
*
* @return Returns true, if the rect is inside of the image bounds.
*/
private boolean writeRectAttributes(IXMLElement elem, SVGFigure f, Rectangle2D.Double rect) {
AffineTransform t = TRANSFORM.getClone(f);
if (t == null) {
t = drawingTransform;
} else {
t.preConcatenate(drawingTransform);
}
if ((t.getType() &
(AffineTransform.TYPE_UNIFORM_SCALE | AffineTransform.TYPE_TRANSLATION)) ==
t.getType()
) {
Point2D.Double start = new Point2D.Double(rect.x, rect.y);
Point2D.Double end = new Point2D.Double(rect.x + rect.width, rect.y + rect.height);
t.transform(start, start);
t.transform(end, end);
Rectangle r = new Rectangle(
(int) Math.min(start.x, end.x),
(int) Math.min(start.y, end.y),
(int) Math.abs(start.x - end.x),
(int) Math.abs(start.y - end.y)
);
elem.setAttribute("shape", "rect");
elem.setAttribute("coords",
r.x + ","+
r.y + ","+
(r.x + r.width) + ","+
(r.y + r.height)
);
writeHrefAttribute(elem, f);
return bounds.intersects(r);
} else {
return writePolyAttributes(elem, f, (Shape) rect);
}
}
public void genRect(WritableRaster wr) {
if (me2src == null) return;
Rectangle srcR = me2src.createTransformedShape(wr.getBounds()).getBounds();
// System.out.println("Affine wrR: " + wr.getBounds());
// System.out.println("Affine srcR: " + srcR);
// Outset by two pixels so we get context for interpolation...
srcR.setBounds(srcR.x - 1, srcR.y - 1, srcR.width + 2, srcR.height + 2);
// Don't try and get data from src that it doesn't have...
CachableRed src = (CachableRed) getSources().get(0);
// Raster srcRas = src.getData(srcR);
if (!srcR.intersects(src.getBounds())) return;
Raster srcRas = src.getData(srcR.intersection(src.getBounds()));
if (srcRas == null) return;
// This works around the problem that the buffered ops
// completely ignore the coords of the Rasters passed in.
AffineTransform aff = (AffineTransform) src2me.clone();
// Translate what is at 0,0 (which will be what our current
// minX/Y is) to our current minX,minY.
aff.concatenate(AffineTransform.getTranslateInstance(srcRas.getMinX(), srcRas.getMinY()));
Point2D srcPt = new Point2D.Float(wr.getMinX(), wr.getMinY());
srcPt = me2src.transform(srcPt, null);
Point2D destPt =
new Point2D.Double(srcPt.getX() - srcRas.getMinX(), srcPt.getY() - srcRas.getMinY());
destPt = aff.transform(destPt, null);
// Translate what will be at minX,minY to zero, zero
// which where java2d will think the real minX,minY is.
aff.preConcatenate(AffineTransform.getTranslateInstance(-destPt.getX(), -destPt.getY()));
AffineTransformOp op = new AffineTransformOp(aff, hints);
BufferedImage srcBI, myBI;
ColorModel srcCM = src.getColorModel();
ColorModel myCM = getColorModel();
WritableRaster srcWR = (WritableRaster) srcRas;
// If the output buffer is not premultiplied in certain cases
// it fails to properly divide out the Alpha (it always does
// the affine on premultiplied data). We help it out by
// premultiplying for it.
srcCM = GraphicsUtil.coerceData(srcWR, srcCM, true);
srcBI =
new BufferedImage(
srcCM, srcWR.createWritableTranslatedChild(0, 0), srcCM.isAlphaPremultiplied(), null);
myBI =
new BufferedImage(
myCM, wr.createWritableTranslatedChild(0, 0), myCM.isAlphaPremultiplied(), null);
op.filter(srcBI, myBI);
// if ((count % 40) == 0) {
// org.apache.batik.ImageDisplay.showImage("Src: " , srcBI);
// org.apache.batik.ImageDisplay.showImage("Dst: " , myBI);
// }
// count++;
}
public AffineTransform getAffineTransform(
int width, int height, double[] _xyzSW, double[] _xyzSE, double[] _xyzNW) {
int[] cornerNW = projection.screenProjection(_xyzNW);
int[] cornerSE = projection.screenProjection(_xyzSE);
int[] cornerSW = projection.screenProjection(_xyzSW);
double[] vectWE = {
(double) cornerSE[0] - (double) cornerSW[0], (double) cornerSE[1] - (double) cornerSW[1]
};
double normvectWE = sqrt(sqr(vectWE[0]) + sqr(vectWE[1]));
double[] vectSN = {
(double) cornerNW[0] - (double) cornerSW[0], (double) cornerNW[1] - (double) cornerSW[1]
};
double normvectSN = sqrt(sqr(vectSN[0]) + sqr(vectSN[1]));
double angleSW =
acos((vectWE[0] * vectSN[0] + vectWE[1] * vectSN[1]) / (normvectWE * normvectSN));
if (angleSW == 0.0) {
return null;
}
AffineTransform t = new AffineTransform();
t.translate(cornerNW[0], cornerNW[1]);
t.scale(sign(vectWE[0]), -sign(vectSN[1]));
t.rotate(-atan(vectSN[0] / vectSN[1]));
t.shear(0, 1 / tan(PI - angleSW));
t.scale(normvectWE * cos(angleSW - PI / 2) / (double) width, normvectSN / (double) height);
double[] _cornerSE_tr = new double[2];
double[] _cornerSE = {width, height};
t.transform(_cornerSE, 0, _cornerSE_tr, 0, 1);
if (isDiff(_cornerSE_tr, cornerSE)) {
double[] vectSE_NW_1 = {
(double) cornerNW[0] - (double) cornerSE[0], (double) cornerNW[1] - (double) cornerSE[1]
};
double[] vectSE_NW_2 = {
(double) cornerNW[0] - (double) _cornerSE_tr[0],
(double) cornerNW[1] - (double) _cornerSE_tr[1]
};
double normvect_1 = sqrt(sqr(vectSE_NW_1[0]) + sqr(vectSE_NW_1[1]));
double normvect_2 = sqrt(sqr(vectSE_NW_1[0]) + sqr(vectSE_NW_1[1]));
double cos_angle =
(((vectSE_NW_1[0] * vectSE_NW_2[0] + vectSE_NW_1[1] * vectSE_NW_2[1])
/ (normvect_1 * normvect_2)));
double vect = (vectSE_NW_1[0] * vectSE_NW_2[1] - vectSE_NW_1[1] * vectSE_NW_2[0]);
AffineTransform t2 = new AffineTransform();
if (vect < 0) {
t2.rotate(acos(cos_angle), cornerNW[0], cornerNW[1]);
} else {
t2.rotate(-acos(cos_angle), cornerNW[0], cornerNW[1]);
}
t.preConcatenate(t2);
}
// TODO patch for many cases...
/*double[] _cornerSW_tr = new double[2];
double[] _cornerSW = { 0, img.getHeight(canvas) };
t.transform(_cornerSW, 0, _cornerSW_tr, 0, 1);
if (isDiff(_cornerSW_tr, cornerSW)) {
double[] vectSW_NW_1 = { (double) cornerNW[0] - (double) cornerSW[0], (double) cornerNW[1] - (double) cornerSW[1] };
double[] vectSW_NW_2 = { (double) cornerNW[0] - (double) _cornerSW_tr[0], (double) cornerNW[1] - (double) _cornerSW_tr[1] };
double normvect_1 = sqrt(sqr(vectSW_NW_1[0]) + sqr(vectSW_NW_1[1]));
double normvect_2 = sqrt(sqr(vectSW_NW_1[0]) + sqr(vectSW_NW_1[1]));
double cos_angle = (((vectSW_NW_1[0] * vectSW_NW_2[0] + vectSW_NW_1[1] * vectSW_NW_2[1]) / (normvect_1 * normvect_2)));
double vect = (vectSW_NW_1[0] * vectSW_NW_2[1] - vectSW_NW_1[1] * vectSW_NW_2[0]);
System.out.println(cos_angle + " " + vect + " -> " + toDegrees(acos(cos_angle)));
//System.out.println(" "+vectSE_NW_1[0]+","+vectSE_NW_1[1]+" "+vectSE_NW_2[0]+","+vectSE_NW_2[1]);
AffineTransform t2 = new AffineTransform();
if (vect > 0)
t2.rotate(acos(cos_angle), cornerNW[0], cornerNW[1]);
else
t2.rotate(-acos(cos_angle), cornerNW[0], cornerNW[1]);
t.preConcatenate(t2);
}*/
return t;
}
/**
* Load a specified a raster as a portion of the granule describe by this {@link
* GranuleDescriptor}.
*
* @param imageReadParameters the {@link ImageReadParam} to use for reading.
* @param index the index to use for the {@link ImageReader}.
* @param cropBBox the bbox to use for cropping.
* @param mosaicWorldToGrid the cropping grid to world transform.
* @param request the incoming request to satisfy.
* @param hints {@link Hints} to be used for creating this raster.
* @return a specified a raster as a portion of the granule describe by this {@link
* GranuleDescriptor}.
* @throws IOException in case an error occurs.
*/
public GranuleLoadingResult loadRaster(
final ImageReadParam imageReadParameters,
final int index,
final ReferencedEnvelope cropBBox,
final MathTransform2D mosaicWorldToGrid,
final RasterLayerRequest request,
final Hints hints)
throws IOException {
if (LOGGER.isLoggable(java.util.logging.Level.FINER)) {
final String name = Thread.currentThread().getName();
LOGGER.finer(
"Thread:" + name + " Loading raster data for granuleDescriptor " + this.toString());
}
ImageReadParam readParameters = null;
int imageIndex;
final ReferencedEnvelope bbox =
inclusionGeometry != null
? new ReferencedEnvelope(
granuleBBOX.intersection(inclusionGeometry.getEnvelopeInternal()),
granuleBBOX.getCoordinateReferenceSystem())
: granuleBBOX;
boolean doFiltering = false;
if (filterMe) {
doFiltering = Utils.areaIsDifferent(inclusionGeometry, baseGridToWorld, granuleBBOX);
}
// intersection of this tile bound with the current crop bbox
final ReferencedEnvelope intersection =
new ReferencedEnvelope(
bbox.intersection(cropBBox), cropBBox.getCoordinateReferenceSystem());
if (intersection.isEmpty()) {
if (LOGGER.isLoggable(java.util.logging.Level.FINE)) {
LOGGER.fine(
new StringBuilder("Got empty intersection for granule ")
.append(this.toString())
.append(" with request ")
.append(request.toString())
.append(" Resulting in no granule loaded: Empty result")
.toString());
}
return null;
}
ImageInputStream inStream = null;
ImageReader reader = null;
try {
//
// get info about the raster we have to read
//
// get a stream
assert cachedStreamSPI != null : "no cachedStreamSPI available!";
inStream =
cachedStreamSPI.createInputStreamInstance(
granuleUrl, ImageIO.getUseCache(), ImageIO.getCacheDirectory());
if (inStream == null) return null;
// get a reader and try to cache the relevant SPI
if (cachedReaderSPI == null) {
reader = ImageIOExt.getImageioReader(inStream);
if (reader != null) cachedReaderSPI = reader.getOriginatingProvider();
} else reader = cachedReaderSPI.createReaderInstance();
if (reader == null) {
if (LOGGER.isLoggable(java.util.logging.Level.WARNING)) {
LOGGER.warning(
new StringBuilder("Unable to get s reader for granuleDescriptor ")
.append(this.toString())
.append(" with request ")
.append(request.toString())
.append(" Resulting in no granule loaded: Empty result")
.toString());
}
return null;
}
// set input
reader.setInput(inStream);
// Checking for heterogeneous granules
if (request.isHeterogeneousGranules()) {
// create read parameters
readParameters = new ImageReadParam();
// override the overviews controller for the base layer
imageIndex =
ReadParamsController.setReadParams(
request.getRequestedResolution(),
request.getOverviewPolicy(),
request.getDecimationPolicy(),
readParameters,
request.rasterManager,
overviewsController);
} else {
imageIndex = index;
readParameters = imageReadParameters;
}
// get selected level and base level dimensions
final GranuleOverviewLevelDescriptor selectedlevel = getLevel(imageIndex, reader);
// now create the crop grid to world which can be used to decide
// which source area we need to crop in the selected level taking
// into account the scale factors imposed by the selection of this
// level together with the base level grid to world transformation
AffineTransform2D cropWorldToGrid =
new AffineTransform2D(selectedlevel.gridToWorldTransformCorner);
cropWorldToGrid = (AffineTransform2D) cropWorldToGrid.inverse();
// computing the crop source area which lives into the
// selected level raster space, NOTICE that at the end we need to
// take into account the fact that we might also decimate therefore
// we cannot just use the crop grid to world but we need to correct
// it.
final Rectangle sourceArea =
CRS.transform(cropWorldToGrid, intersection).toRectangle2D().getBounds();
// gutter
if (selectedlevel.baseToLevelTransform.isIdentity()) sourceArea.grow(2, 2);
XRectangle2D.intersect(
sourceArea,
selectedlevel.rasterDimensions,
sourceArea); // make sure roundings don't bother us
// is it empty??
if (sourceArea.isEmpty()) {
if (LOGGER.isLoggable(java.util.logging.Level.FINE)) {
LOGGER.fine(
"Got empty area for granuleDescriptor "
+ this.toString()
+ " with request "
+ request.toString()
+ " Resulting in no granule loaded: Empty result");
}
return null;
} else if (LOGGER.isLoggable(java.util.logging.Level.FINER)) {
LOGGER.finer(
"Loading level "
+ imageIndex
+ " with source region: "
+ sourceArea
+ " subsampling: "
+ readParameters.getSourceXSubsampling()
+ ","
+ readParameters.getSourceYSubsampling()
+ " for granule:"
+ granuleUrl);
}
// Setting subsampling
int newSubSamplingFactor = 0;
final String pluginName = cachedReaderSPI.getPluginClassName();
if (pluginName != null && pluginName.equals(ImageUtilities.DIRECT_KAKADU_PLUGIN)) {
final int ssx = readParameters.getSourceXSubsampling();
final int ssy = readParameters.getSourceYSubsampling();
newSubSamplingFactor = ImageIOUtilities.getSubSamplingFactor2(ssx, ssy);
if (newSubSamplingFactor != 0) {
if (newSubSamplingFactor > maxDecimationFactor && maxDecimationFactor != -1) {
newSubSamplingFactor = maxDecimationFactor;
}
readParameters.setSourceSubsampling(newSubSamplingFactor, newSubSamplingFactor, 0, 0);
}
}
// set the source region
readParameters.setSourceRegion(sourceArea);
final RenderedImage raster;
try {
// read
raster =
request
.getReadType()
.read(
readParameters,
imageIndex,
granuleUrl,
selectedlevel.rasterDimensions,
reader,
hints,
false);
} catch (Throwable e) {
if (LOGGER.isLoggable(java.util.logging.Level.FINE)) {
LOGGER.log(
java.util.logging.Level.FINE,
"Unable to load raster for granuleDescriptor "
+ this.toString()
+ " with request "
+ request.toString()
+ " Resulting in no granule loaded: Empty result",
e);
}
return null;
}
// use fixed source area
sourceArea.setRect(readParameters.getSourceRegion());
//
// setting new coefficients to define a new affineTransformation
// to be applied to the grid to world transformation
// -----------------------------------------------------------------------------------
//
// With respect to the original envelope, the obtained planarImage
// needs to be rescaled. The scaling factors are computed as the
// ratio between the cropped source region sizes and the read
// image sizes.
//
// place it in the mosaic using the coords created above;
double decimationScaleX = ((1.0 * sourceArea.width) / raster.getWidth());
double decimationScaleY = ((1.0 * sourceArea.height) / raster.getHeight());
final AffineTransform decimationScaleTranform =
XAffineTransform.getScaleInstance(decimationScaleX, decimationScaleY);
// keep into account translation to work into the selected level raster space
final AffineTransform afterDecimationTranslateTranform =
XAffineTransform.getTranslateInstance(sourceArea.x, sourceArea.y);
// now we need to go back to the base level raster space
final AffineTransform backToBaseLevelScaleTransform = selectedlevel.baseToLevelTransform;
// now create the overall transform
final AffineTransform finalRaster2Model = new AffineTransform(baseGridToWorld);
finalRaster2Model.concatenate(CoverageUtilities.CENTER_TO_CORNER);
final double x = finalRaster2Model.getTranslateX();
final double y = finalRaster2Model.getTranslateY();
if (!XAffineTransform.isIdentity(backToBaseLevelScaleTransform, Utils.AFFINE_IDENTITY_EPS))
finalRaster2Model.concatenate(backToBaseLevelScaleTransform);
if (!XAffineTransform.isIdentity(afterDecimationTranslateTranform, Utils.AFFINE_IDENTITY_EPS))
finalRaster2Model.concatenate(afterDecimationTranslateTranform);
if (!XAffineTransform.isIdentity(decimationScaleTranform, Utils.AFFINE_IDENTITY_EPS))
finalRaster2Model.concatenate(decimationScaleTranform);
// keep into account translation factors to place this tile
finalRaster2Model.preConcatenate((AffineTransform) mosaicWorldToGrid);
final Interpolation interpolation = request.getInterpolation();
// paranoiac check to avoid that JAI freaks out when computing its internal layouT on images
// that are too small
Rectangle2D finalLayout =
ImageUtilities.layoutHelper(
raster,
(float) finalRaster2Model.getScaleX(),
(float) finalRaster2Model.getScaleY(),
(float) finalRaster2Model.getTranslateX(),
(float) finalRaster2Model.getTranslateY(),
interpolation);
if (finalLayout.isEmpty()) {
if (LOGGER.isLoggable(java.util.logging.Level.INFO))
LOGGER.info(
"Unable to create a granuleDescriptor "
+ this.toString()
+ " due to jai scale bug creating a null source area");
return null;
}
ROI granuleLoadingShape = null;
if (granuleROIShape != null) {
final Point2D translate =
mosaicWorldToGrid.transform(new DirectPosition2D(x, y), (Point2D) null);
AffineTransform tx2 = new AffineTransform();
tx2.preConcatenate(
AffineTransform.getScaleInstance(
((AffineTransform) mosaicWorldToGrid).getScaleX(),
-((AffineTransform) mosaicWorldToGrid).getScaleY()));
tx2.preConcatenate(
AffineTransform.getScaleInstance(
((AffineTransform) baseGridToWorld).getScaleX(),
-((AffineTransform) baseGridToWorld).getScaleY()));
tx2.preConcatenate(
AffineTransform.getTranslateInstance(translate.getX(), translate.getY()));
granuleLoadingShape = (ROI) granuleROIShape.transform(tx2);
}
// apply the affine transform conserving indexed color model
final RenderingHints localHints =
new RenderingHints(
JAI.KEY_REPLACE_INDEX_COLOR_MODEL,
interpolation instanceof InterpolationNearest ? Boolean.FALSE : Boolean.TRUE);
if (XAffineTransform.isIdentity(finalRaster2Model, Utils.AFFINE_IDENTITY_EPS)) {
return new GranuleLoadingResult(raster, granuleLoadingShape, granuleUrl, doFiltering);
} else {
//
// In case we are asked to use certain tile dimensions we tile
// also at this stage in case the read type is Direct since
// buffered images comes up untiled and this can affect the
// performances of the subsequent affine operation.
//
final Dimension tileDimensions = request.getTileDimensions();
if (tileDimensions != null && request.getReadType().equals(ReadType.DIRECT_READ)) {
final ImageLayout layout = new ImageLayout();
layout.setTileHeight(tileDimensions.width).setTileWidth(tileDimensions.height);
localHints.add(new RenderingHints(JAI.KEY_IMAGE_LAYOUT, layout));
} else {
if (hints != null && hints.containsKey(JAI.KEY_IMAGE_LAYOUT)) {
final Object layout = hints.get(JAI.KEY_IMAGE_LAYOUT);
if (layout != null && layout instanceof ImageLayout) {
localHints.add(
new RenderingHints(JAI.KEY_IMAGE_LAYOUT, ((ImageLayout) layout).clone()));
}
}
}
if (hints != null && hints.containsKey(JAI.KEY_TILE_CACHE)) {
final Object cache = hints.get(JAI.KEY_TILE_CACHE);
if (cache != null && cache instanceof TileCache)
localHints.add(new RenderingHints(JAI.KEY_TILE_CACHE, (TileCache) cache));
}
if (hints != null && hints.containsKey(JAI.KEY_TILE_SCHEDULER)) {
final Object scheduler = hints.get(JAI.KEY_TILE_SCHEDULER);
if (scheduler != null && scheduler instanceof TileScheduler)
localHints.add(new RenderingHints(JAI.KEY_TILE_SCHEDULER, (TileScheduler) scheduler));
}
boolean addBorderExtender = true;
if (hints != null && hints.containsKey(JAI.KEY_BORDER_EXTENDER)) {
final Object extender = hints.get(JAI.KEY_BORDER_EXTENDER);
if (extender != null && extender instanceof BorderExtender) {
localHints.add(new RenderingHints(JAI.KEY_BORDER_EXTENDER, (BorderExtender) extender));
addBorderExtender = false;
}
}
// border extender
if (addBorderExtender) {
localHints.add(ImageUtilities.BORDER_EXTENDER_HINTS);
}
// boolean hasScaleX=!(Math.abs(finalRaster2Model.getScaleX()-1) <
// 1E-2/(raster.getWidth()+1-raster.getMinX()));
// boolean hasScaleY=!(Math.abs(finalRaster2Model.getScaleY()-1) <
// 1E-2/(raster.getHeight()+1-raster.getMinY()));
// boolean hasShearX=!(finalRaster2Model.getShearX() == 0.0);
// boolean hasShearY=!(finalRaster2Model.getShearY() == 0.0);
// boolean hasTranslateX=!(Math.abs(finalRaster2Model.getTranslateX()) <
// 0.01F);
// boolean hasTranslateY=!(Math.abs(finalRaster2Model.getTranslateY()) <
// 0.01F);
// boolean isTranslateXInt=!(Math.abs(finalRaster2Model.getTranslateX() -
// (int) finalRaster2Model.getTranslateX()) < 0.01F);
// boolean isTranslateYInt=!(Math.abs(finalRaster2Model.getTranslateY() -
// (int) finalRaster2Model.getTranslateY()) < 0.01F);
//
// boolean isIdentity = finalRaster2Model.isIdentity() &&
// !hasScaleX&&!hasScaleY &&!hasTranslateX&&!hasTranslateY;
// // TODO how can we check that the a skew is harmelss????
// if(isIdentity){
// // TODO check if we are missing anything like tiling or such that
// comes from hints
// return new GranuleLoadingResult(raster, granuleLoadingShape,
// granuleUrl, doFiltering);
// }
//
// // TOLERANCE ON PIXELS SIZE
//
// // Check and see if the affine transform is in fact doing
// // a Translate operation. That is a scale by 1 and no rotation.
// // In which case call translate. Note that only integer translate
// // is applicable. For non-integer translate we'll have to do the
// // affine.
// // If the hints contain an ImageLayout hint, we can't use
// // TranslateIntOpImage since it isn't capable of dealing with that.
// // Get ImageLayout from renderHints if any.
// ImageLayout layout = RIFUtil.getImageLayoutHint(localHints);
// if ( !hasScaleX &&
// !hasScaleY &&
// !hasShearX&&
// !hasShearY&&
// isTranslateXInt&&
// isTranslateYInt&&
// layout == null) {
// // It's a integer translate
// return new GranuleLoadingResult(new TranslateIntOpImage(raster,
// localHints,
// (int) finalRaster2Model.getShearX(),
// (int)
// finalRaster2Model.getShearY()),granuleLoadingShape, granuleUrl, doFiltering);
// }
ImageWorker iw = new ImageWorker(raster);
iw.setRenderingHints(localHints);
iw.affine(finalRaster2Model, interpolation, request.getBackgroundValues());
return new GranuleLoadingResult(
iw.getRenderedImage(), granuleLoadingShape, granuleUrl, doFiltering);
}
} catch (IllegalStateException e) {
if (LOGGER.isLoggable(java.util.logging.Level.WARNING)) {
LOGGER.log(
java.util.logging.Level.WARNING,
new StringBuilder("Unable to load raster for granuleDescriptor ")
.append(this.toString())
.append(" with request ")
.append(request.toString())
.append(" Resulting in no granule loaded: Empty result")
.toString(),
e);
}
return null;
} catch (org.opengis.referencing.operation.NoninvertibleTransformException e) {
if (LOGGER.isLoggable(java.util.logging.Level.WARNING)) {
LOGGER.log(
java.util.logging.Level.WARNING,
new StringBuilder("Unable to load raster for granuleDescriptor ")
.append(this.toString())
.append(" with request ")
.append(request.toString())
.append(" Resulting in no granule loaded: Empty result")
.toString(),
e);
}
return null;
} catch (TransformException e) {
if (LOGGER.isLoggable(java.util.logging.Level.WARNING)) {
LOGGER.log(
java.util.logging.Level.WARNING,
new StringBuilder("Unable to load raster for granuleDescriptor ")
.append(this.toString())
.append(" with request ")
.append(request.toString())
.append(" Resulting in no granule loaded: Empty result")
.toString(),
e);
}
return null;
} finally {
try {
if (request.getReadType() != ReadType.JAI_IMAGEREAD && inStream != null) {
inStream.close();
}
} finally {
if (request.getReadType() != ReadType.JAI_IMAGEREAD && reader != null) {
reader.dispose();
}
}
}
}
@Override
public CanvasPainter showAction(
SVGHandle handle,
int level,
Set<Element> elementSet,
SelectionItem item,
Point2D firstPoint,
Point2D currentPoint) {
// getting the element that will undergo the action
Element element = elementSet.iterator().next();
// the canvas painter that should be returned
CanvasPainter painter = null;
// whether the shape should be painted
boolean canPaintShape = true;
// the shape that will be painted
Shape shape = null;
// getting the action transform
AffineTransform actionTransform = null;
switch (level) {
case 0:
// getting the resize transform
actionTransform = getResizeTransform(handle, element, item, firstPoint, currentPoint);
break;
case 1:
if (item.getType() == SelectionItem.CENTER) {
// storing the center point for the rotate action
rotationSkewSelectionItemCenterPoint = currentPoint;
item.setPoint(currentPoint);
canPaintShape = false;
} else if (item.getType() == SelectionItem.NORTH_WEST
|| item.getType() == SelectionItem.NORTH_EAST
|| item.getType() == SelectionItem.SOUTH_EAST
|| item.getType() == SelectionItem.SOUTH_WEST) {
// getting the rotation transform
actionTransform = getRotationTransform(handle, element, firstPoint, currentPoint);
} else {
// getting the skew transform
actionTransform = getSkewTransform(handle, element, firstPoint, currentPoint, item);
}
break;
}
if (actionTransform != null) {
// getting the initial shape
shape = getShape(handle, element, true);
// getting the element's transform
AffineTransform transform = handle.getSvgElementsManager().getTransform(element);
// concatenating the action transform to the element's transform
transform.preConcatenate(actionTransform);
// computing the screen scaled shape
shape = handle.getTransformsManager().getScaledShape(shape, false, transform);
}
if (canPaintShape && shape != null) {
final Shape fshape = shape;
// creating the set of the clips
final HashSet<Rectangle2D> fclips = new HashSet<Rectangle2D>();
fclips.add(fshape.getBounds2D());
painter =
new CanvasPainter() {
@Override
public void paintToBeDone(Graphics2D g) {
g = (Graphics2D) g.create();
g.setRenderingHint(
RenderingHints.KEY_ANTIALIASING, RenderingHints.VALUE_ANTIALIAS_ON);
g.setColor(strokeColor);
g.draw(fshape);
g.dispose();
}
@Override
public Set<Rectangle2D> getClip() {
return fclips;
}
};
}
return painter;
}
