@Override
public void foundShortcut(
int u_fromNode,
int w_toNode,
double existingDirectWeight,
EdgeIterator outgoingEdges,
int skippedEdge1,
int incomingEdgeOrigCount) {
// FOUND shortcut
// but be sure that it is the only shortcut in the collection
// and also in the graph for u->w. If existing AND identical weight => update setProperties.
// Hint: shortcuts are always one-way due to distinct level of every node but we don't
// know yet the levels so we need to determine the correct direction or if both directions
// minor improvement: if (shortcuts.containsKey(sc)
// then two shortcuts with the same nodes (u<->n.endNode) exists => check current shortcut
// against both
Shortcut sc = new Shortcut(u_fromNode, w_toNode, existingDirectWeight);
if (shortcuts.containsKey(sc)) {
return;
} else {
Shortcut tmpSc = new Shortcut(w_toNode, u_fromNode, existingDirectWeight);
Shortcut tmpRetSc = shortcuts.get(tmpSc);
if (tmpRetSc != null) {
tmpRetSc.flags = scBothDir;
return;
}
}
shortcuts.put(sc, sc);
sc.skippedEdge1 = skippedEdge1;
sc.skippedEdge2 = outgoingEdges.getEdge();
sc.originalEdges = incomingEdgeOrigCount + getOrigEdgeCount(outgoingEdges.getEdge());
}
/** Sets up all parameters with target Graph target */
public MoleculeParameters(Molecule target) {
// automatically set initial individuals size range
int vertices = target.getVerticesSize();
verticesInterval.set(Math.max(2, vertices / 2), vertices * 2);
cyclesInterval.set(0, target.getNumberOfCycles() * 2);
// insure that all possible vertex and edge types are in initial population in roughly equal
// quantities
java.util.Hashtable elements = new java.util.Hashtable();
for (VertexIterator v = target.getVertexIterator(); v.more(); v.next()) {
String s = v.vertex().toString();
if (!elements.containsKey(s)) {
elements.put(s, s);
try {
provider.add((Vertex) v.vertex().clone());
} catch (CloneNotSupportedException e) {
Error.fatal("can't clone vertex: " + e);
}
}
}
for (EdgeIterator e = target.getEdgeIterator(); e.more(); e.next()) {
String s = e.edge().toString();
if (!elements.containsKey(s)) {
elements.put(s, s);
try {
provider.add((Edge) e.edge().clone());
} catch (CloneNotSupportedException ee) {
Error.fatal("can't clone edge: " + ee);
}
}
}
setParameters(target);
}
public boolean containsLatitude(Graph g, EdgeIterator iter, double latitude) {
NodeAccess na = g.getNodeAccess();
while (iter.next()) {
if (Math.abs(na.getLatitude(iter.getAdjNode()) - latitude) < 1e-4) return true;
}
return false;
}
public static boolean contains(EdgeIterator iter, int... locs) {
TIntHashSet set = new TIntHashSet();
while (iter.next()) {
set.add(iter.node());
}
for (int l : locs) {
if (!set.contains(l)) return false;
}
return true;
}
/** note/todo: this methods counts edges twice if both directions are available */
public static int countEdges(Graph g) {
int counter = 0;
int nodes = g.getNodes();
for (int i = 0; i < nodes; i++) {
EdgeIterator iter = g.getOutgoing(i);
while (iter.next()) {
counter++;
}
}
return counter;
}
/** Finds shortcuts, does not change the underlying graph. */
void findShortcuts(ShortcutHandler sch) {
long tmpDegreeCounter = 0;
EdgeIterator incomingEdges = vehicleInExplorer.setBaseNode(sch.getNode());
// collect outgoing nodes (goal-nodes) only once
while (incomingEdges.next()) {
int u_fromNode = incomingEdges.getAdjNode();
// accept only uncontracted nodes
if (g.getLevel(u_fromNode) != 0) continue;
double v_u_weight = incomingEdges.getDistance();
int skippedEdge1 = incomingEdges.getEdge();
int incomingEdgeOrigCount = getOrigEdgeCount(skippedEdge1);
// collect outgoing nodes (goal-nodes) only once
EdgeIterator outgoingEdges = vehicleOutExplorer.setBaseNode(sch.getNode());
// force fresh maps etc as this cannot be determined by from node alone (e.g. same from node
// but different avoidNode)
algo.clear();
tmpDegreeCounter++;
while (outgoingEdges.next()) {
int w_toNode = outgoingEdges.getAdjNode();
// add only uncontracted nodes
if (g.getLevel(w_toNode) != 0 || u_fromNode == w_toNode) {
continue;
}
// Limit weight as ferries or forbidden edges can increase local search too much.
// If we decrease the correct weight we only explore less and introduce more shortcuts.
// I.e. no change to accuracy is made.
double existingDirectWeight = v_u_weight + outgoingEdges.getDistance();
algo.setLimitWeight(existingDirectWeight)
.setLimitVisitedNodes((int) meanDegree * 100)
.setEdgeFilter(levelEdgeFilter.setAvoidNode(sch.getNode()));
dijkstraSW.start();
dijkstraCount++;
int endNode = algo.findEndNode(u_fromNode, w_toNode);
dijkstraSW.stop();
// compare end node as the limit could force dijkstra to finish earlier
if (endNode == w_toNode && algo.getWeight(endNode) <= existingDirectWeight)
// FOUND witness path, so do not add shortcut
continue;
sch.foundShortcut(
u_fromNode,
w_toNode,
existingDirectWeight,
outgoingEdges,
skippedEdge1,
incomingEdgeOrigCount);
}
}
if (sch instanceof AddShortcutHandler) {
// sliding mean value when using "*2" => slower changes
meanDegree = (meanDegree * 2 + tmpDegreeCounter) / 3;
// meanDegree = (meanDegree + tmpDegreeCounter) / 2;
}
}
boolean prepareEdges() {
// In CH the setProperties (speed) are ignored as calculating the new setProperties for a
// shortcut is often not possible.
// Also several shortcuts would be necessary with the different modes (e.g. fastest and
// shortest)
// So calculate the weight and store this as weight, then use only weight instead of calcWeight
EdgeIterator iter = g.getAllEdges();
int c = 0;
while (iter.next()) {
c++;
iter.setDistance(prepareWeighting.calcWeight(iter));
setOrigEdgeCount(iter.getEdge(), 1);
}
return c > 0;
}
public static int count(EdgeIterator iter) {
int counter = 0;
while (iter.next()) {
++counter;
}
return counter;
}
@Override
public void foundShortcut(
int u_fromNode,
int w_toNode,
double existingDirectWeight,
EdgeIterator outgoingEdges,
int skippedEdge1,
int incomingEdgeOrigCount) {
shortcuts++;
originalEdgesCount += incomingEdgeOrigCount + getOrigEdgeCount(outgoingEdges.getEdge());
}
@Test
public void testFlags() {
graph = createGraph();
graph.edge(0, 1).setDistance(10).setFlags(carEncoder.setProperties(100, true, true));
graph.edge(2, 3).setDistance(10).setFlags(carEncoder.setProperties(10, true, false));
EdgeIterator iter = carAllExplorer.setBaseNode(0);
assertTrue(iter.next());
assertEquals(carEncoder.setProperties(100, true, true), iter.getFlags());
iter = carAllExplorer.setBaseNode(2);
assertTrue(iter.next());
assertEquals(carEncoder.setProperties(10, true, false), iter.getFlags());
try {
graph.edge(0, 1).setDistance(-1);
assertTrue(false);
} catch (IllegalArgumentException ex) {
}
}
@Test
public void testCreateDuplicateEdges() {
graph = createGraph();
graph.edge(2, 1, 12, true);
graph.edge(2, 3, 12, true);
graph.edge(2, 3, 13, false);
assertEquals(3, GHUtility.count(carOutExplorer.setBaseNode(2)));
// no exception
graph.getEdgeProps(1, 3);
// raise exception
try {
graph.getEdgeProps(4, 3);
assertTrue(false);
} catch (Exception ex) {
}
try {
graph.getEdgeProps(-1, 3);
assertTrue(false);
} catch (Exception ex) {
}
EdgeIterator iter = carOutExplorer.setBaseNode(2);
assertTrue(iter.next());
EdgeIteratorState oneIter = graph.getEdgeProps(iter.getEdge(), 3);
assertEquals(13, oneIter.getDistance(), 1e-6);
assertEquals(2, oneIter.getBaseNode());
assertTrue(carEncoder.isBool(oneIter.getFlags(), FlagEncoder.K_FORWARD));
assertFalse(carEncoder.isBool(oneIter.getFlags(), FlagEncoder.K_BACKWARD));
oneIter = graph.getEdgeProps(iter.getEdge(), 2);
assertEquals(13, oneIter.getDistance(), 1e-6);
assertEquals(3, oneIter.getBaseNode());
assertFalse(carEncoder.isBool(oneIter.getFlags(), FlagEncoder.K_FORWARD));
assertTrue(carEncoder.isBool(oneIter.getFlags(), FlagEncoder.K_BACKWARD));
graph.edge(3, 2, 14, true);
assertEquals(4, GHUtility.count(carOutExplorer.setBaseNode(2)));
}
@Test
public void testUpdateUnidirectional() {
graph = createGraph();
graph.edge(1, 2, 12, false);
graph.edge(3, 2, 112, false);
EdgeIterator i = carOutExplorer.setBaseNode(2);
assertFalse(i.next());
i = carOutExplorer.setBaseNode(3);
assertTrue(i.next());
assertEquals(2, i.getAdjNode());
assertFalse(i.next());
graph.edge(2, 3, 112, false);
i = carOutExplorer.setBaseNode(2);
assertTrue(i.next());
assertEquals(3, i.getAdjNode());
i = carOutExplorer.setBaseNode(3);
i.next();
assertEquals(2, i.getAdjNode());
assertFalse(i.next());
}
@Test
public void testSimpleDelete2() {
graph = createGraph();
NodeAccess na = graph.getNodeAccess();
assertEquals(-1, getIdOf(graph, 12));
na.setNode(9, 9, 1);
assertEquals(-1, getIdOf(graph, 12));
na.setNode(11, 11, 1);
na.setNode(12, 12, 1);
// mini subnetwork which gets completely removed:
graph.edge(5, 10, 510, true);
graph.markNodeRemoved(5);
graph.markNodeRemoved(10);
PointList pl = new PointList();
pl.add(1, 2, Double.NaN);
pl.add(1, 3, Double.NaN);
graph.edge(9, 11, 911, true).setWayGeometry(pl);
graph.edge(9, 12, 912, true).setWayGeometry(pl);
assertEquals(13, graph.getNodes());
assertEquals(Arrays.<String>asList(), GHUtility.getProblems(graph));
// perform deletion
graph.optimize();
assertEquals(11, graph.getNodes());
assertEquals(Arrays.<String>asList(), GHUtility.getProblems(graph));
int id11 = getIdOf(graph, 11); // is now 10
int id12 = getIdOf(graph, 12); // is now 5
int id9 = getIdOf(graph, 9); // is now 9
assertEquals(
GHUtility.asSet(id12, id11), GHUtility.getNeighbors(carAllExplorer.setBaseNode(id9)));
assertEquals(GHUtility.asSet(id9), GHUtility.getNeighbors(carAllExplorer.setBaseNode(id11)));
assertEquals(GHUtility.asSet(id9), GHUtility.getNeighbors(carAllExplorer.setBaseNode(id12)));
EdgeIterator iter = carAllExplorer.setBaseNode(id9);
assertTrue(iter.next());
assertEquals(id12, iter.getAdjNode());
assertEquals(2, iter.fetchWayGeometry(0).getLongitude(0), 1e-7);
assertTrue(iter.next());
assertEquals(id11, iter.getAdjNode());
assertEquals(2, iter.fetchWayGeometry(0).getLongitude(0), 1e-7);
}
protected void checkGraph(Graph g) {
NodeAccess na = g.getNodeAccess();
assertTrue(na.is3D());
assertTrue(g.getBounds().isValid());
assertEquals(new BBox(10, 20, 10, 12, 0, 1), g.getBounds());
assertEquals(10, na.getLatitude(0), 1e-2);
assertEquals(10, na.getLongitude(0), 1e-2);
EdgeExplorer explorer = g.createEdgeExplorer(carOutFilter);
assertEquals(2, GHUtility.count(explorer.setBaseNode(0)));
assertEquals(GHUtility.asSet(2, 1), GHUtility.getNeighbors(explorer.setBaseNode(0)));
EdgeIterator iter = explorer.setBaseNode(0);
assertTrue(iter.next());
assertEquals(Helper.createPointList3D(3.5, 4.5, 0, 5, 6, 0), iter.fetchWayGeometry(0));
assertTrue(iter.next());
assertEquals(Helper.createPointList3D(1.5, 1, 0, 2, 3, 0), iter.fetchWayGeometry(0));
assertEquals(Helper.createPointList3D(10, 10, 0, 1.5, 1, 0, 2, 3, 0), iter.fetchWayGeometry(1));
assertEquals(Helper.createPointList3D(1.5, 1, 0, 2, 3, 0, 11, 20, 1), iter.fetchWayGeometry(2));
assertEquals(11, na.getLatitude(1), 1e-2);
assertEquals(20, na.getLongitude(1), 1e-2);
assertEquals(2, GHUtility.count(explorer.setBaseNode(1)));
assertEquals(GHUtility.asSet(2, 0), GHUtility.getNeighbors(explorer.setBaseNode(1)));
assertEquals(12, na.getLatitude(2), 1e-2);
assertEquals(12, na.getLongitude(2), 1e-2);
assertEquals(1, GHUtility.count(explorer.setBaseNode(2)));
assertEquals(GHUtility.asSet(0), GHUtility.getNeighbors(explorer.setBaseNode(2)));
EdgeIteratorState eib = GHUtility.getEdge(g, 1, 2);
assertEquals(Helper.createPointList3D(), eib.fetchWayGeometry(0));
assertEquals(Helper.createPointList3D(11, 20, 1), eib.fetchWayGeometry(1));
assertEquals(Helper.createPointList3D(12, 12, 0.4), eib.fetchWayGeometry(2));
assertEquals(GHUtility.asSet(0), GHUtility.getNeighbors(explorer.setBaseNode(2)));
}
/** @throws could throw exception if uncatched problems like index out of bounds etc */
public static List<String> getProblems(Graph g) {
List<String> problems = new ArrayList<String>();
int nodes = g.getNodes();
for (int i = 0; i < nodes; i++) {
double lat = g.getLatitude(i);
if (lat > 90 || lat < -90) problems.add("latitude is not within its bounds " + lat);
double lon = g.getLongitude(i);
if (lon > 180 || lon < -180) problems.add("longitude is not within its bounds " + lon);
int incom = count(g.getIncoming(i));
int out = count(g.getOutgoing(i));
int e = count(g.getEdges(i));
if (Math.max(out, incom) > e)
problems.add(
"count incoming or outgoing edges should be maximum "
+ e
+ " but were:"
+ incom
+ "(in), "
+ out
+ "(out)");
EdgeIterator iter = g.getEdges(i);
while (iter.next()) {
if (iter.node() >= nodes)
problems.add(
"edge of " + i + " has a node " + iter.node() + " greater or equal to getNodes");
if (iter.node() < 0) problems.add("edge of " + i + " has a negative node " + iter.node());
}
}
// for (int i = 0; i < nodes; i++) {
// new XFirstSearch().start(g, i, false);
// }
return problems;
}
public Iterator<EdgeModel> getEdgeIterator() {
nodeIterator.reset();
edgeIterator.reset(nodeIterator);
return edgeIterator;
}
public String BFS(Graph g, Vertex start, Vertex end, LinkedList<String> strToParse) {
String parsed = "";
LinkedList<VISTriple> q = new LinkedList<VISTriple>();
BufferedReader reader = new BufferedReader(new InputStreamReader(System.in));
// System.out.println("parsed: " + parsed);
q.push(new VISTriple(0, start, ""));
// System.out.println(q.peek().ver);
while (!q.isEmpty()) {
try {
// reader.readLine();
} catch (Exception e) {
}
VISTriple v = q.removeFirst();
// System.out.println("WHILE: " + v);
LinkedList<Edge> successors = new LinkedList<Edge>();
successors.clear();
EdgeIterator ei = g.incidentEdges(v.ver);
// System.out.println("Getting incident edges:");
while (ei.hasNext()) {
Edge temp = ei.nextEdge();
if (g.origin(temp) == v.ver) {
successors.addFirst(temp);
// System.out.println(successors.peekFirst().toString());
}
}
if (v.ind >= strToParse.size() && v.ver.equals(end)) {
// System.out.println("*result: " + v.result);
return v.result;
}
String toFind = "";
if (v.ind < strToParse.size()) {
toFind = strToParse.get(v.ind);
} else toFind = "";
// System.out.println("toFind: " + toFind);
for (int i = 0; i < successors.size(); i++) {
Edge e = successors.get(i);
EdgeTuple tempET = (EdgeTuple) e.element();
// System.out.println("tempET: " + tempET);
if (tempET.lhs.equals("") || tempET.lhs.equals(toFind)) {
Vertex w = g.destination(e);
if (tempET.lhs.equals(toFind)) {
q.addFirst(new VISTriple(v.ind + 1, w, v.result + tempET.rhs));
// System.out.println("found LHS: " + q.peekFirst());
} else {
q.addFirst(new VISTriple(v.ind, w, v.result + tempET.rhs));
// System.out.println("!found LHS: " + q.peekFirst());
}
} // end if
} // end for
} // end while
return "";
} // end BFS
@Test
public void testGetAllEdges() {
graph = createGraph();
graph.edge(0, 1, 2, true);
graph.edge(3, 1, 1, false);
graph.edge(3, 2, 1, false);
EdgeIterator iter = graph.getAllEdges();
assertTrue(iter.next());
int edgeId = iter.getEdge();
assertEquals(0, iter.getBaseNode());
assertEquals(1, iter.getAdjNode());
assertEquals(2, iter.getDistance(), 1e-6);
assertTrue(iter.next());
int edgeId2 = iter.getEdge();
assertEquals(1, edgeId2 - edgeId);
assertEquals(1, iter.getBaseNode());
assertEquals(3, iter.getAdjNode());
assertTrue(iter.next());
assertEquals(2, iter.getBaseNode());
assertEquals(3, iter.getAdjNode());
assertFalse(iter.next());
}
@Test
public void testPillarNodes() {
graph = createGraph();
NodeAccess na = graph.getNodeAccess();
na.setNode(0, 0.01, 0.01);
na.setNode(4, 0.4, 0.4);
na.setNode(14, 0.14, 0.14);
na.setNode(10, 0.99, 0.99);
PointList pointList = Helper.createPointList(1, 1, 1, 2, 1, 3);
graph
.edge(0, 4)
.setDistance(100)
.setFlags(carEncoder.setProperties(10, true, false))
.setWayGeometry(pointList);
pointList = Helper.createPointList(1, 5, 1, 6, 1, 7, 1, 8, 1, 9);
graph
.edge(4, 10)
.setDistance(100)
.setFlags(carEncoder.setProperties(10, true, false))
.setWayGeometry(pointList);
pointList = Helper.createPointList(1, 13, 1, 12, 1, 11);
graph
.edge(14, 0)
.setDistance(100)
.setFlags(carEncoder.setProperties(10, true, false))
.setWayGeometry(pointList);
EdgeIterator iter = carAllExplorer.setBaseNode(0);
assertTrue(iter.next());
assertEquals(14, iter.getAdjNode());
assertPList(Helper.createPointList(1, 11, 1, 12, 1, 13.0), iter.fetchWayGeometry(0));
assertPList(
Helper.createPointList(0.01, 0.01, 1, 11, 1, 12, 1, 13.0), iter.fetchWayGeometry(1));
assertPList(
Helper.createPointList(1, 11, 1, 12, 1, 13.0, 0.14, 0.14), iter.fetchWayGeometry(2));
assertPList(
Helper.createPointList(0.01, 0.01, 1, 11, 1, 12, 1, 13.0, 0.14, 0.14),
iter.fetchWayGeometry(3));
assertTrue(iter.next());
assertEquals(4, iter.getAdjNode());
assertPList(Helper.createPointList(1, 1, 1, 2, 1, 3), iter.fetchWayGeometry(0));
assertPList(Helper.createPointList(0.01, 0.01, 1, 1, 1, 2, 1, 3), iter.fetchWayGeometry(1));
assertPList(Helper.createPointList(1, 1, 1, 2, 1, 3, 0.4, 0.4), iter.fetchWayGeometry(2));
assertPList(
Helper.createPointList(0.01, 0.01, 1, 1, 1, 2, 1, 3, 0.4, 0.4), iter.fetchWayGeometry(3));
assertFalse(iter.next());
iter = carOutExplorer.setBaseNode(0);
assertTrue(iter.next());
assertEquals(4, iter.getAdjNode());
assertPList(Helper.createPointList(1, 1, 1, 2, 1, 3), iter.fetchWayGeometry(0));
assertFalse(iter.next());
iter = carInExplorer.setBaseNode(10);
assertTrue(iter.next());
assertEquals(4, iter.getAdjNode());
assertPList(Helper.createPointList(1, 9, 1, 8, 1, 7, 1, 6, 1, 5), iter.fetchWayGeometry(0));
assertPList(
Helper.createPointList(0.99, 0.99, 1, 9, 1, 8, 1, 7, 1, 6, 1, 5), iter.fetchWayGeometry(1));
assertPList(
Helper.createPointList(1, 9, 1, 8, 1, 7, 1, 6, 1, 5, 0.4, 0.4), iter.fetchWayGeometry(2));
assertPList(
Helper.createPointList(0.99, 0.99, 1, 9, 1, 8, 1, 7, 1, 6, 1, 5, 0.4, 0.4),
iter.fetchWayGeometry(3));
assertFalse(iter.next());
}
@Test
public void testUnidirectionalEdgeFilter() {
graph = createGraph();
graph.edge(1, 2, 12, false);
graph.edge(1, 11, 12, false);
graph.edge(11, 1, 12, false);
graph.edge(1, 12, 12, false);
graph.edge(3, 2, 112, false);
EdgeIterator i = carOutExplorer.setBaseNode(2);
assertFalse(i.next());
assertEquals(4, GHUtility.count(carAllExplorer.setBaseNode(1)));
assertEquals(1, GHUtility.count(carInExplorer.setBaseNode(1)));
assertEquals(2, GHUtility.count(carInExplorer.setBaseNode(2)));
assertEquals(0, GHUtility.count(carInExplorer.setBaseNode(3)));
assertEquals(3, GHUtility.count(carOutExplorer.setBaseNode(1)));
assertEquals(0, GHUtility.count(carOutExplorer.setBaseNode(2)));
assertEquals(1, GHUtility.count(carOutExplorer.setBaseNode(3)));
i = carOutExplorer.setBaseNode(3);
i.next();
assertEquals(2, i.getAdjNode());
i = carOutExplorer.setBaseNode(1);
assertTrue(i.next());
assertEquals(12, i.getAdjNode());
assertTrue(i.next());
assertEquals(11, i.getAdjNode());
assertTrue(i.next());
assertEquals(2, i.getAdjNode());
assertFalse(i.next());
}
@Test
public void testDetachEdge() {
graph = createGraph();
graph.edge(0, 1, 2, true);
long flags = carEncoder.setProperties(10, true, false);
graph.edge(0, 2, 2, true).setWayGeometry(Helper.createPointList(1, 2, 3, 4)).setFlags(flags);
graph.edge(1, 2, 2, true);
EdgeIterator iter = graph.createEdgeExplorer().setBaseNode(0);
try {
// currently not possible to detach without next, without introducing a new property inside
// EdgeIterable
iter.detach(false);
assertTrue(false);
} catch (Exception ex) {
}
iter.next();
EdgeIteratorState edgeState2 = iter.detach(false);
assertEquals(2, iter.getAdjNode());
assertEquals(1, edgeState2.fetchWayGeometry(0).getLatitude(0), 1e-1);
assertEquals(2, edgeState2.getAdjNode());
assertTrue(carEncoder.isBool(edgeState2.getFlags(), FlagEncoder.K_FORWARD));
EdgeIteratorState edgeState3 = iter.detach(true);
assertEquals(0, edgeState3.getAdjNode());
assertEquals(2, edgeState3.getBaseNode());
assertEquals(3, edgeState3.fetchWayGeometry(0).getLatitude(0), 1e-1);
assertFalse(carEncoder.isBool(edgeState3.getFlags(), FlagEncoder.K_FORWARD));
assertEquals(GHUtility.getEdge(graph, 0, 2).getFlags(), edgeState2.getFlags());
assertEquals(GHUtility.getEdge(graph, 2, 0).getFlags(), edgeState3.getFlags());
iter.next();
assertEquals(1, iter.getAdjNode());
assertEquals(2, edgeState2.getAdjNode());
assertEquals(2, edgeState3.getBaseNode());
assertEquals(0, iter.fetchWayGeometry(0).size());
assertEquals(1, edgeState2.fetchWayGeometry(0).getLatitude(0), 1e-1);
assertEquals(3, edgeState3.fetchWayGeometry(0).getLatitude(0), 1e-1);
// #162 a directed self referencing edge should be able to reverse its state too
graph.edge(3, 3, 2, true).setFlags(flags);
EdgeIterator iter2 = graph.createEdgeExplorer().setBaseNode(3);
iter2.next();
assertEquals(edgeState2.getFlags(), iter2.detach(false).getFlags());
assertEquals(edgeState3.getFlags(), iter2.detach(true).getFlags());
}
@Test
public void testCopy() {
Graph g = initUnsorted(createGraph());
EdgeIteratorState eb = g.edge(6, 5, 11, true);
eb.setWayGeometry(Helper.createPointList(12, 10, -1, 3));
LevelGraph lg = new GraphBuilder(encodingManager).levelGraphCreate();
GHUtility.copyTo(g, lg);
eb = lg.getEdgeProps(eb.getEdge(), 6);
assertEquals(Helper.createPointList(-1, 3, 12, 10), eb.getWayGeometry());
assertEquals(0, lg.getLevel(0));
assertEquals(0, lg.getLevel(1));
assertEquals(0, lg.getLatitude(0), 1e-6);
assertEquals(1, lg.getLongitude(0), 1e-6);
assertEquals(2.5, lg.getLatitude(1), 1e-6);
assertEquals(4.5, lg.getLongitude(1), 1e-6);
assertEquals(9, lg.getNodes());
EdgeIterator iter = lg.createEdgeExplorer().setBaseNode(8);
iter.next();
assertEquals(2.05, iter.getDistance(), 1e-6);
assertEquals("11", BitUtil.toBitString(iter.getFlags(), 2));
iter.next();
assertEquals(0.5, iter.getDistance(), 1e-6);
assertEquals("11", BitUtil.toBitString(iter.getFlags(), 2));
iter = lg.createEdgeExplorer().setBaseNode(7);
iter.next();
assertEquals(2.1, iter.getDistance(), 1e-6);
assertEquals("01", BitUtil.toBitString(iter.getFlags(), 2));
assertTrue(iter.next());
assertEquals(0.7, iter.getDistance(), 1e-6);
}
public static EdgeIterator until(EdgeIterator edges, int i) {
while (edges.next()) {
if (edges.node() == i) return edges;
}
return EdgeIterator.EMPTY;
}
@Override
public BufferedImage renderTile(final int x, final int y, final int zoom) {
ProfileMapCombination debugCurrent;
EdgeBasedGraph debugEbg;
Weights debugWeights;
ArcFlags debugAF;
if (DEBUG_VIS != 0) {
debugCurrent = ProfileMapManager.getInstance().getCurrentCombination();
debugEbg = debugCurrent.getStreetMap().getEdgeBasedGraph();
debugWeights = debugCurrent.getWeights();
debugAF = debugCurrent.getArcFlags();
}
GraphIndex index = graph.getIndex(zoom);
final Set<Integer> edges = getEdgesOnTile(x, y, zoom, index);
final BufferedImage tile = new BufferedImage(256, 256, BufferedImage.TYPE_INT_RGB);
final Graphics2D g = tile.createGraphics();
g.setColor(new Color(210, 210, 210));
g.fillRect(0, 0, 256, 256);
g.setRenderingHint(RenderingHints.KEY_ANTIALIASING, RenderingHints.VALUE_ANTIALIAS_ON);
g.setRenderingHint(
RenderingHints.KEY_TEXT_ANTIALIASING, RenderingHints.VALUE_TEXT_ANTIALIAS_ON);
final Stroke oldStroke = g.getStroke();
// Draw border
EdgeIterator it = new EdgeIterator(edges.iterator(), zoom, x, y, index);
while (it.next()) {
g.setColor(getMainStreetColor(it.p.getType(), true));
g.setStroke(
new BasicStroke(
getStreetWidth(zoom, it.p) + 4, BasicStroke.CAP_ROUND, BasicStroke.JOIN_ROUND));
g.drawLine(it.xstart, it.ystart, it.xtarget, it.ytarget);
}
// Draw street
it = new EdgeIterator(edges.iterator(), zoom, x, y, index);
while (it.next()) {
g.setColor(getMainStreetColor(it.p.getType(), false));
g.setStroke(
new BasicStroke(
getStreetWidth(zoom, it.p), BasicStroke.CAP_ROUND, BasicStroke.JOIN_ROUND));
g.drawLine(it.xstart, it.ystart, it.xtarget, it.ytarget);
}
g.setStroke(oldStroke);
// Draw name of street – must be above all streets
final Font font = new Font(Font.SANS_SERIF, 0, 12);
g.setColor(Color.BLACK);
g.setFont(font);
it = new EdgeIterator(edges.iterator(), zoom, x, y, index);
while (it.next()) {
final String name = getName(it.edge);
final double streetLength =
Math.sqrt(Math.pow((it.xtarget - it.xstart), 2) + Math.pow((it.ytarget - it.ystart), 2));
if (DEBUG_VIS != 0) {
String debugData;
int tturn = debugEbg.getOutgoingTurns(it.edge).iterator().next();
if (DEBUG_VIS == 1) {
debugData = Integer.toHexString(debugAF.getFlag(tturn));
} else if (DEBUG_VIS == 4) {
debugData = Integer.toString(it.edge);
} else { // 2,3
debugData =
Integer.toString(
DEBUG_VIS == 2
? debugWeights.getWeight(tturn)
: graph.getEdgeProperties(it.edge).getMaxSpeed(debugCurrent.getProfile()));
}
g.drawString(debugData, (it.xstart + it.xtarget) / 2, (it.ystart + it.ytarget) / 2);
}
if (name != null && (it.xstart != -1) && getStreetWidth(zoom, it.p) > 7) {
final AffineTransform old = g.getTransform();
final Rectangle2D r = font.getStringBounds(name, g.getFontRenderContext());
double angle = getAngle(it.xstart, it.ystart, it.xtarget, it.ytarget, streetLength);
// Pfeil <-
if (zoom > 15 && streetLength > 40) {
if (graph.getCorrespondingEdge(it.edge) == -1) {
g.setColor(Color.LIGHT_GRAY);
double angle2 = angle;
if (it.xtarget < it.xstart || (it.xstart == it.xtarget && it.ystart > it.ytarget)) {
angle2 -= Math.PI;
}
AffineTransform rotateInstance =
AffineTransform.getRotateInstance(angle2, it.xstart, it.ystart);
rotateInstance.translate(15 + it.xstart, it.ystart);
g.setTransform(rotateInstance);
drawArrow(zoom, g);
g.setColor(Color.BLACK);
}
}
int xstart;
int ystart;
if (it.xstart < it.xtarget || (it.xstart == it.xtarget && it.ystart < it.ytarget)) {
xstart = it.xstart;
ystart = it.ystart;
} else {
xstart = it.xtarget;
ystart = it.ytarget;
}
final AffineTransform at = AffineTransform.getRotateInstance(angle, xstart, ystart);
g.setTransform(at);
if (r.getWidth() + 5 * space < streetLength) {
g.drawString(
name,
(int) (xstart + streetLength / 2 - r.getWidth() / 2),
(int) (ystart - r.getY() / 2 - r.getY() - r.getHeight()) + 1);
}
g.setTransform(old);
}
}
return tile;
}