/**
* ------------------------------------------------------ Pastes the graphics from this clipBoard
* into the given editor translated by the given amount
*
* @param editor the target editor
* @param translation the translation amount
* ------------------------------------------------------
*/
public void pasteFromClipBoard(MiEditor editor, MiVector translation) {
MiParts parts = new MiParts();
for (int i = 0; i < getNumberOfParts(); ++i) {
parts.addElement(getPart(i));
}
HashMap mapOfConnToItsPoints = new HashMap();
// MiDebug.println("pasteFromClipBoard parts = " + parts);
parts = MiUtility.makeCopyOfNetwork(parts);
// MiDebug.println("2 pasteFromClipBoard parts = " + parts);
// Save up where the connections lie now, before their nodes are
// placed which tends to wack out the connection's orientation
for (int i = 0; i < parts.size(); ++i) {
MiPart obj = parts.elementAt(i);
if (obj instanceof MiConnection) {
ArrayList listOfPoints = new ArrayList();
for (int j = 0; j < obj.getNumberOfPoints(); ++j) {
listOfPoints.add(obj.getPoint(j));
}
mapOfConnToItsPoints.put(obj, listOfPoints);
}
}
MiNestedTransaction nestedTransaction = new MiNestedTransaction(Mi_PASTE_DISPLAY_NAME);
MiSystem.getTransactionManager().startTransaction(nestedTransaction);
// Assume makeCopyOfNetwork list has nodes come first, followed by connections
for (int i = 0; i < parts.size(); ++i) {
MiPart obj = parts.elementAt(i);
if (obj instanceof MiConnection) {
obj.validateLayout();
MiiLayout layout = obj.getLayout();
obj.setLayout(null);
ArrayList listOfPoints = (ArrayList) mapOfConnToItsPoints.get(obj);
MiVector connTranslation = new MiVector(translation);
MiConnection conn = (MiConnection) obj;
int startPoint = 0;
if (conn.getSource() != null) {
startPoint = 1;
connTranslation.x = conn.getPoint(0).x - ((MiPoint) listOfPoints.get(0)).x;
connTranslation.y = conn.getPoint(0).y - ((MiPoint) listOfPoints.get(0)).y;
}
int endPoint = listOfPoints.size();
if (conn.getDestination() != null) {
// If we are not going to truncate the number of points in the
// connection to what it was, then the last point of of the
// connection ends at a node, so we do not need or want to set
// it, so decrease endPoint, which is the last point we are to modify
if (conn.getNumberOfPoints() == listOfPoints.size()) {
--endPoint;
}
int lastPoint = conn.getNumberOfPoints() - 1;
connTranslation.x =
conn.getPoint(lastPoint).x - ((MiPoint) listOfPoints.get(listOfPoints.size() - 1)).x;
connTranslation.y =
conn.getPoint(lastPoint).y - ((MiPoint) listOfPoints.get(listOfPoints.size() - 1)).y;
}
// Conns are now translatable so this has been done...
// connTranslation = new MiVector();
conn.getGraphics().setNumberOfPoints(listOfPoints.size());
for (int j = startPoint; j < endPoint; ++j) {
MiPoint pt = (MiPoint) listOfPoints.get(j);
obj.setPoint(j, pt.x + connTranslation.x, pt.y + connTranslation.y);
}
obj.setLayout(layout);
}
// MiDebug.println("paste obj = " + obj);
MiDataTransferOperation transfer = new MiDataTransferOperation(obj);
MiPoint targetPosition = obj.getCenter();
targetPosition.translate(translation);
transfer.setData(obj);
transfer.setTarget(editor.getCurrentLayer());
transfer.setLookTargetPosition(targetPosition);
transfer.setLookTargetBounds(obj.getBounds().translate(translation));
transfer.setDataFormat(MiDataTransferOperation.getCommonDataFormat(this, editor));
editor.doImport(transfer);
editor.dispatchAction(Mi_DATA_IMPORT_ACTION, transfer);
}
// MiDeletePartsCommand createCmd = new MiDeletePartsCommand(editor, parts, false);
// MiDebug.println("3 pasteFromClipBoard parts = " + parts);
MiDeletePartsCommand createCmd =
MiSystem.getCommandBuilder().getDeletePartsCommand().create(editor, parts, false);
MiSystem.getTransactionManager()
.appendTransaction(new MiNestedTransaction(Mi_PASTE_DISPLAY_NAME, createCmd));
MiSystem.getTransactionManager().commitTransaction(nestedTransaction);
}
protected void renderLineEnd(
MiRenderer renderer,
double angle,
int style,
MiDistance size,
MiPoint basePoint,
MiPoint endPoint,
int lwidth,
Color color,
Color fillColor) {
int dSize = 0;
int dx = 0;
int dy = 0;
int dx1 = 0;
int dy1 = 0;
int dx2 = 0;
int dy2 = 0;
renderer.getTransform().wtod(basePoint, dBasePoint);
renderer.getTransform().wtod(endPoint, dEndPoint);
int baseX = dBasePoint.x;
int baseY = renderer.getYmax() - dBasePoint.y;
int x = dEndPoint.x;
int y = renderer.getYmax() - dEndPoint.y;
Graphics g = renderer.getWindowSystemRenderer();
boolean attributesOverridden = renderer.hasOverrideAttributes();
if ((color != Mi_TRANSPARENT_COLOR) && (!attributesOverridden)) g.setColor(color);
if ((fillColor == Mi_TRANSPARENT_COLOR) && (!attributesOverridden)) fillColor = color;
switch (style) {
case Mi_TRIANGLE_LINE_END_STYLE:
case Mi_FILLED_TRIANGLE_LINE_END_STYLE:
case Mi_TRIANGLE_VIA_LINE_END_STYLE:
case Mi_FILLED_TRIANGLE_VIA_LINE_END_STYLE:
case Mi_CIRCLE_LINE_END_STYLE:
case Mi_CIRCLE_VIA_LINE_END_STYLE:
case Mi_FILLED_CIRCLE_LINE_END_STYLE:
case Mi_FILLED_CIRCLE_VIA_LINE_END_STYLE:
case Mi_SQUARE_LINE_END_STYLE:
case Mi_FILLED_SQUARE_LINE_END_STYLE:
{
tmpVector.x = size / 2 * Math.sin(angle);
tmpVector.y = -size / 2 * Math.cos(angle);
renderer.getTransform().wtod(basePoint, tmpVector, tmpDVector);
dx = tmpDVector.x;
dy = tmpDVector.y;
tmpVector.x = size;
tmpVector.y = size;
renderer.getTransform().wtod(basePoint, tmpVector, tmpDVector);
dSize = tmpDVector.x;
break;
}
default:
{
double arrowPointyness = ((double) 60) / 180 * Math.PI; // 60 degrees
double arrowLength = size;
double arrowShapeFactor = arrowLength / Math.cos(arrowPointyness / 2);
tmpVector.x = arrowShapeFactor * Math.cos(angle - arrowPointyness / 2);
tmpVector.y = arrowShapeFactor * Math.sin(angle - arrowPointyness / 2);
renderer.getTransform().wtod(basePoint, tmpVector, tmpDVector);
dx1 = tmpDVector.x;
dy1 = -tmpDVector.y;
tmpVector.x = arrowShapeFactor * Math.cos(angle + arrowPointyness / 2);
tmpVector.y = arrowShapeFactor * Math.sin(angle + arrowPointyness / 2);
renderer.getTransform().wtod(basePoint, tmpVector, tmpDVector);
dx2 = tmpDVector.x;
dy2 = -tmpDVector.y;
}
}
/*
System.out.println("angle = " + angle * 180 / Math.PI);
System.out.println("size = " + size);
System.out.println("dsize = " + dSize);
System.out.println("dx = " + dx);
System.out.println("dy = " + dy);
System.out.println("dx1 = " + dx1);
System.out.println("dy1 = " + dy1);
System.out.println("dx2 = " + dx2);
System.out.println("dy2 = " + dy2);
*/
switch (style) {
case Mi_NONE:
default:
break;
case Mi_STROKED_ARROW_LINE_END_STYLE:
if (color == Mi_TRANSPARENT_COLOR) break;
if (lwidth < 2) {
g.drawLine(x, y, x - dx1, y - dy1);
g.drawLine(x, y, x - dx2, y - dy2);
} else {
renderer.setColor(color);
renderer.setBackgroundColor(color);
renderer.drawWideLine(x, y, x - dx1, y - dy1, lwidth);
renderer.drawWideLine(x, y, x - dx2, y - dy2, lwidth);
}
break;
case Mi_3FEATHER_LINE_END_STYLE:
case Mi_2FEATHER_LINE_END_STYLE:
if (color == Mi_TRANSPARENT_COLOR) break;
if (lwidth < 2) {
g.drawLine(baseX, baseY, baseX + dx1, baseY + dy1);
g.drawLine(baseX, baseY, baseX + dx2, baseY + dy2);
} else {
renderer.setColor(color);
renderer.setBackgroundColor(color);
renderer.drawWideLine(baseX, baseY, baseX + dx1, baseY + dy1, lwidth);
renderer.drawWideLine(baseX, baseY, baseX + dx2, baseY + dy2, lwidth);
}
break;
case Mi_DIAMOND_LINE_END_STYLE:
case Mi_FILLED_DIAMOND_LINE_END_STYLE:
xPoints[0] = baseX;
xPoints[1] = baseX + dx1;
xPoints[2] = x;
xPoints[3] = baseX + dx2;
xPoints[4] = baseX;
yPoints[0] = baseY;
yPoints[1] = baseY + dy1;
yPoints[2] = y;
yPoints[3] = baseY + dy2;
yPoints[4] = baseY;
if ((style == Mi_FILLED_DIAMOND_LINE_END_STYLE) && (fillColor != Mi_TRANSPARENT_COLOR)) {
if (!attributesOverridden) g.setColor(fillColor);
g.fillPolygon(xPoints, yPoints, 5);
}
if ((color != Mi_TRANSPARENT_COLOR)
&& ((style != Mi_FILLED_DIAMOND_LINE_END_STYLE) || (!color.equals(fillColor)))) {
if (lwidth < 2) {
if (!attributesOverridden) g.setColor(color);
g.drawPolygon(xPoints, yPoints, 5);
} else {
renderer.setColor(color);
renderer.setBackgroundColor(color);
for (int i = 1; i < 5; ++i) {
renderer.drawWideLine(xPoints[i - 1], yPoints[i - 1], xPoints[i], yPoints[i], lwidth);
}
}
}
break;
case Mi_FILLED_ARROW_LINE_END_STYLE:
if (fillColor == Mi_TRANSPARENT_COLOR) break;
xPoints[0] = x;
xPoints[1] = x - dx1;
xPoints[2] = x - dx2;
xPoints[3] = xPoints[0];
yPoints[0] = y;
yPoints[1] = y - dy1;
yPoints[2] = y - dy2;
yPoints[3] = yPoints[0];
if (!attributesOverridden) g.setColor(fillColor);
g.fillPolygon(xPoints, yPoints, 4);
break;
case Mi_TRIANGLE_LINE_END_STYLE:
case Mi_FILLED_TRIANGLE_LINE_END_STYLE:
case Mi_TRIANGLE_VIA_LINE_END_STYLE:
case Mi_FILLED_TRIANGLE_VIA_LINE_END_STYLE:
xPoints[0] = baseX + dx;
xPoints[1] = x;
xPoints[2] = baseX - dx;
xPoints[3] = xPoints[0];
yPoints[0] = baseY - dy;
yPoints[1] = y;
yPoints[2] = baseY + dy;
yPoints[3] = yPoints[0];
if (((style == Mi_FILLED_TRIANGLE_LINE_END_STYLE)
|| (style == Mi_FILLED_TRIANGLE_VIA_LINE_END_STYLE))
&& (fillColor != Mi_TRANSPARENT_COLOR)) {
if (!attributesOverridden) g.setColor(fillColor);
g.fillPolygon(xPoints, yPoints, 4);
}
if (color != Mi_TRANSPARENT_COLOR) {
if (lwidth < 2) {
if (!attributesOverridden) g.setColor(color);
g.drawPolygon(xPoints, yPoints, 4);
} else {
renderer.setColor(color);
renderer.setBackgroundColor(color);
for (int i = 1; i < 4; ++i) {
renderer.drawWideLine(xPoints[i - 1], yPoints[i - 1], xPoints[i], yPoints[i], lwidth);
}
}
}
break;
case Mi_CIRCLE_LINE_END_STYLE:
case Mi_CIRCLE_VIA_LINE_END_STYLE:
if (color != Mi_TRANSPARENT_COLOR) {
g.drawOval(
x - (x - baseX) / 2 - dSize / 2, y - (y - baseY) / 2 - dSize / 2, dSize, dSize);
}
break;
case Mi_FILLED_CIRCLE_LINE_END_STYLE:
case Mi_FILLED_CIRCLE_VIA_LINE_END_STYLE:
if (fillColor != Mi_TRANSPARENT_COLOR) {
if (!attributesOverridden) g.setColor(fillColor);
g.fillOval(
x - (x - baseX) / 2 - dSize / 2, y - (y - baseY) / 2 - dSize / 2, dSize, dSize);
}
break;
case Mi_SQUARE_LINE_END_STYLE:
case Mi_FILLED_SQUARE_LINE_END_STYLE:
xPoints[0] = x + dx;
xPoints[1] = x - dx;
xPoints[2] = baseX - dx;
xPoints[3] = baseX + dx;
xPoints[4] = xPoints[0];
yPoints[0] = y - dy;
yPoints[1] = y + dy;
yPoints[2] = baseY + dy;
yPoints[3] = baseY - dy;
yPoints[4] = yPoints[0];
if ((style == Mi_FILLED_SQUARE_LINE_END_STYLE) && (fillColor != Mi_TRANSPARENT_COLOR)) {
if (!attributesOverridden) g.setColor(fillColor);
g.fillPolygon(xPoints, yPoints, 5);
}
if (color != Mi_TRANSPARENT_COLOR) {
if (lwidth < 2) {
if (!attributesOverridden) g.setColor(color);
g.drawPolygon(xPoints, yPoints, 5);
} else {
renderer.setColor(color);
renderer.setBackgroundColor(color);
for (int i = 1; i < 5; ++i) {
renderer.drawWideLine(xPoints[i - 1], yPoints[i - 1], xPoints[i], yPoints[i], lwidth);
}
}
}
break;
case Mi_SQUARE_VIA_LINE_END_STYLE:
case Mi_FILLED_SQUARE_VIA_LINE_END_STYLE:
int tipX = x + (x - baseX);
int tipY = y + (y - baseY);
xPoints[0] = tipX + dx;
xPoints[1] = tipX - dx;
xPoints[2] = baseX - dx;
xPoints[3] = baseX + dx;
xPoints[4] = xPoints[0];
yPoints[0] = tipY - dy;
yPoints[1] = tipY + dy;
yPoints[2] = baseY + dy;
yPoints[3] = baseY - dy;
yPoints[4] = yPoints[0];
if ((style == Mi_FILLED_SQUARE_VIA_LINE_END_STYLE) && (fillColor != Mi_TRANSPARENT_COLOR)) {
if (!attributesOverridden) g.setColor(fillColor);
g.fillPolygon(xPoints, yPoints, 5);
}
if (color != Mi_TRANSPARENT_COLOR) {
if (lwidth < 2) {
if (!attributesOverridden) g.setColor(color);
g.drawPolygon(xPoints, yPoints, 5);
} else {
renderer.setColor(color);
renderer.setBackgroundColor(color);
for (int i = 1; i < 5; ++i) {
renderer.drawWideLine(xPoints[i - 1], yPoints[i - 1], xPoints[i], yPoints[i], lwidth);
}
}
}
break;
}
}
