public Port() {
super("Hello, World!");
mxGraph graph =
new mxGraph() {
// Ports are not used as terminals for edges, they are
// only used to compute the graphical connection point
public boolean isPort(Object cell) {
mxGeometry geo = getCellGeometry(cell);
return (geo != null) ? geo.isRelative() : false;
}
// Implements a tooltip that shows the actual
// source and target of an edge
public String getToolTipForCell(Object cell) {
if (model.isEdge(cell)) {
return convertValueToString(model.getTerminal(cell, true))
+ " -> "
+ convertValueToString(model.getTerminal(cell, false));
}
return super.getToolTipForCell(cell);
}
// Removes the folding icon and disables any folding
public boolean isCellFoldable(Object cell, boolean collapse) {
return false;
}
};
// Sets the default edge style
Map<String, Object> style = graph.getStylesheet().getDefaultEdgeStyle();
style.put(mxConstants.STYLE_EDGE, mxEdgeStyle.ElbowConnector);
Object parent = graph.getDefaultParent();
graph.getModel().beginUpdate();
try {
mxCell v1 = (mxCell) graph.insertVertex(parent, null, "Hello", 20, 20, 100, 100, "");
v1.setConnectable(false);
mxGeometry geo = graph.getModel().getGeometry(v1);
// The size of the rectangle when the minus sign is clicked
geo.setAlternateBounds(new mxRectangle(20, 20, 100, 50));
mxGeometry geo1 = new mxGeometry(0, 0.5, PORT_DIAMETER, PORT_DIAMETER);
// Because the origin is at upper left corner, need to translate to
// position the center of port correctly
geo1.setOffset(new mxPoint(-PORT_RADIUS, -PORT_RADIUS));
geo1.setRelative(true);
mxCell port1 = new mxCell(null, geo1, "shape=ellipse;perimter=ellipsePerimeter");
port1.setVertex(true);
mxGeometry geo2 = new mxGeometry(1.0, 0.5, PORT_DIAMETER, PORT_DIAMETER);
geo2.setOffset(new mxPoint(-PORT_RADIUS, -PORT_RADIUS));
geo2.setRelative(true);
mxCell port2 = new mxCell(null, geo2, "shape=ellipse;perimter=ellipsePerimeter");
port2.setVertex(true);
graph.addCell(port1, v1);
graph.addCell(port2, v1);
Object v2 = graph.insertVertex(parent, null, "World!", 240, 150, 80, 30);
graph.insertEdge(parent, null, "Edge", port2, v2);
} finally {
graph.getModel().endUpdate();
}
mxGraphComponent graphComponent = new mxGraphComponent(graph);
getContentPane().add(graphComponent);
graphComponent.setToolTips(true);
}
@SuppressWarnings({"unchecked", "unchecked"})
// private mxGraphModel ExtractGraphFromSTD_INPUT() {
private DirectedGraph<Object, ObjectEdge> ExtractGraphFromSTD_INPUT() {
ActivityPort stdInput = getInput("STD_INPUT");
ActivityPort inputfile = getInput("INPUT_FILE_BASE");
/* @Todo: Reads directly from STD_INPUT. Should (be better) read from file (lots of .log .dot, .dat are generated by vivado workflow */
Collection<String> lines = UtilStr.SeparateComponents((String) stdInput.getValue(), "\n");
String startString = "<<BEGIN>><<" + (String) inputfile.getValue() + "_graph_minimized>>";
String stopString = "<<END>><<" + (String) inputfile.getValue() + "_graph_minimized>>";
boolean reading = false;
// rebuild circuit graph
DirectedGraph<Object, ObjectEdge> graph =
new DefaultDirectedGraph<Object, ObjectEdge>(ObjectEdge.class);
Map<String, Object> vertexMap = new HashMap<String, Object>();
// mxGraphModel circuitGraph = new mxGraphModel();
// circuitGraph.setCreateIds(false);
// circuitGraph.beginUpdate();
// Object rootCell = circuitGraph.getRoot();
for (String line : lines) {
if (reading) {
if (line.equals(stopString)) {
reading = false;
break;
} else {
// rebuild graph
Collection<String> wordsCollection = UtilStr.SeparateComponents(line, " ");
String[] words = wordsCollection.toArray(new String[wordsCollection.size()]);
int index = 1;
int i;
switch (words[0]) {
case "Vertex":
mxCell vertexCell = new mxCell();
vertexCell.setVertex(true);
vertexCell.setId(words[1]);
switch (words[2]) {
case "cell":
PLDConfigurableElement pldCell = new PLDConfigurableElement("Cell_0");
pldCell.setName(words[5]);
pldCell.setInitialValue(words[4]);
pldCell.setComponentType(ElectricalComponentType.INTRACHIP);
pldCell.setDescription(words[3]);
i = 6;
while ((i < words.length) && !words[i].equals("=>")) {
// String name, Direction direction, Long address, Integer bit, Boolean
// mandatory
// PhysicalPortPin pin = new PhysicalPortPin(words[i], Direction.UNKNOWN, 0L,
// 0, true);
CPSPort pin =
new CPSPort(
words[i],
Direction.UNKNOWN,
0L,
0,
true); // PhysicalPortPin(words[i], Direction.UNKNOWN, 0L, 0, true);
if (pldCell.getInterfaceComponent().getChannels().size() == 0) {
pldCell
.getInterfaceComponent()
.getChannels()
.add(new ChannelPrimitive("default chanel"));
}
ChannelAbstract channel =
pldCell.getInterfaceComponent().getChannels().iterator().next();
channel.getPorts().add(pin);
vertexMap.put(words[i], pin);
i++;
}
while (i < words.length - 1) {
i++;
words[i] = words[i].replaceAll("@", " ");
int indexOfEqualSignal = words[i].indexOf("=");
String property = words[i].substring(0, indexOfEqualSignal);
String propValue = words[i].substring(indexOfEqualSignal + 1);
// Boolean isConst, String name, String defaultValue, String type, Direction
// direction
DiscreteVariable attribute =
new DiscreteVariable(
false, property, propValue, "UNKNOWN", Direction.UNKNOWN);
pldCell.getExtraAttributes().add(attribute);
}
// pldCell.getInterfaceElectrical().setElectricalFeature(new ElectricalFeature());
vertexCell.setValue(pldCell);
vertexMap.put(words[1], pldCell);
System.out.println("Vertex cell: " + pldCell);
graph.addVertex(pldCell);
break;
case "port":
// Vertex <NodoIdx> port <Direction> <Name>
// EX: Vertex node18 port IN SA
Long address = Long.parseLong(words[1].replace("node", ""));
Direction dir = Direction.valueOf(words[3]);
// String name, Direction direction, Long address, Integer bit, Boolean mandatory
PhysicalPortPin pin = new PhysicalPortPin(words[4], dir, address, 0, true);
i = 5; // to be ++
while (i < words.length - 1) {
i++;
words[i] = words[i].replaceAll("@", " ");
int indexOfEqualSignal = words[i].indexOf("=");
String property = words[i].substring(0, indexOfEqualSignal);
String propValue = words[i].substring(indexOfEqualSignal + 1);
// Boolean isConst, String name, String defaultValue, String type, Direction
// direction
DiscreteVariable attribute =
new DiscreteVariable(
false, property, propValue, "UNKNOWN", Direction.UNKNOWN);
pin.getExtraAttributes().add(attribute);
}
vertexCell.setValue(pin);
vertexMap.put(words[1], pin); // nodeX
vertexMap.put(words[4], pin); // real name
System.out.println("Vertex port: " + pin);
graph.addVertex(pin);
break;
default:
break;
}
// circuitGraph.add(rootCell, vertexCell, index++);
break;
case "Edge":
// mxCell edgeCell = new mxCell();
// edgeCell.setEdge(true);
// edgeCell.setId(circuitGraph.createId(edgeCell));
// mxCell source = (mxCell) circuitGraph.getCell(words[1]);
// assert source != null;
// edgeCell.setSource(source);
// mxCell target = (mxCell) circuitGraph.getCell(words[2]);
// assert target != null;
// edgeCell.setTarget(target);
String sourcePinOrPortStr = words[3];
PhysicalPortPin sourcePinPort, targetPinPort;
if (sourcePinOrPortStr.indexOf(":") > -1) {
// is a CELL:PIN (takes only the pin part)
sourcePinOrPortStr =
sourcePinOrPortStr.substring(sourcePinOrPortStr.indexOf(":") + 1);
sourcePinPort = (PhysicalPortPin) vertexMap.get(sourcePinOrPortStr);
assert sourcePinPort != null;
sourcePinPort.setDirection(
Direction.OUT); // it is an OUT PIN, so we can read from it
} else {
sourcePinPort = (PhysicalPortPin) vertexMap.get(sourcePinOrPortStr);
assert sourcePinPort != null;
sourcePinPort.setDirection(
Direction.IN); // it is an IN PORT, so we can read from it
}
String targetPinOrPortStr = words[4];
if (targetPinOrPortStr.indexOf(":") > -1) { // is a CELL:PIN (takes only the pin part)
targetPinOrPortStr =
targetPinOrPortStr.substring(targetPinOrPortStr.indexOf(":") + 1);
targetPinPort = (PhysicalPortPin) vertexMap.get(targetPinOrPortStr);
assert targetPinPort != null;
targetPinPort.setDirection(Direction.IN); // it is an IN PIN, so we can write to it
} else {
targetPinPort = (PhysicalPortPin) vertexMap.get(targetPinOrPortStr);
assert targetPinPort != null;
targetPinPort.setDirection(
Direction.OUT); // it is an OUT PORT, so we can write to it
}
PhysicalCommunicationNet hardwareNet =
new PhysicalCommunicationNet(sourcePinPort, targetPinPort);
// edgeCell.setValue(hardwareNet);
// i = 5; // to be ++
// while (i < words.length - 1) {
// i++;
// words[i] = words[i].replaceAll("@", " ");
// int indexOfEqualSignal = words[i].indexOf("=");
// String property = words[i].substring(0,
// indexOfEqualSignal);
// String propValue =
// words[i].substring(indexOfEqualSignal + 1);
// //Boolean isConst, String name, String defaultValue,
// String type, Direction direction
// DiscreteVariable attribute = new
// DiscreteVariable(false, property, propValue, "UNKNOWN", Direction.UNKNOWN);
// //pin.getExtraAttributes().add(attribute);
// /**
// * @TODO: where net properties are inserted into? *
// */
// }
// circuitGraph.add(rootCell, edgeCell, index++);
Object vSource = vertexMap.get(words[1]);
Object vTarget = vertexMap.get(words[2]);
System.out.println(
"Edge: "
+ vSource
+ " -> "
+ vTarget
+ " << "
+ sourcePinOrPortStr
+ " -> "
+ targetPinOrPortStr
+ " >>");
ObjectEdge edge = graph.addEdge(vSource, vTarget);
edge.setUserObject(hardwareNet);
break;
default:
Logger.getGlobal()
.warning(
"Error: Line not recognized when expecting to rebuild the circuit graph: "
+ line);
break;
}
}
} else if (line.equals(startString)) {
reading = true;
}
}
// circuitGraph.endUpdate();
// return circuitGraph;
return graph;
}
