private TransitRoute createRoute(
Id<TransitRoute> routeID, TransitStopFacility startStop, TransitStopFacility endStop) {
FreespeedTravelTimeAndDisutility tC = new FreespeedTravelTimeAndDisutility(-6.0, 0.0, 0.0);
LeastCostPathCalculator routingAlgo = new Dijkstra(this.net, tC, tC);
Node startNode = this.net.getLinks().get(startStop.getLinkId()).getToNode();
Node endNode = this.net.getLinks().get(endStop.getLinkId()).getFromNode();
int startTime = 0 * 3600;
// get Route
Path path = routingAlgo.calcLeastCostPath(startNode, endNode, startTime, null, null);
NetworkRoute route = new LinkNetworkRouteImpl(startStop.getLinkId(), endStop.getLinkId());
route.setLinkIds(
startStop.getLinkId(), NetworkUtils.getLinkIds(path.links), endStop.getLinkId());
// get stops at Route
List<TransitRouteStop> stops = new LinkedList<TransitRouteStop>();
// first stop
TransitRouteStop routeStop =
this.tS.getFactory().createTransitRouteStop(startStop, startTime, startTime);
stops.add(routeStop);
// additional stops
for (Link link : path.links) {
startTime += link.getLength() / link.getFreespeed();
if (this.tS.getFacilities().get(link.getId()) == null) {
continue;
}
routeStop =
this.tS
.getFactory()
.createTransitRouteStop(
this.tS.getFacilities().get(link.getId()), startTime, startTime);
stops.add(routeStop);
}
// last stop
startTime +=
this.net.getLinks().get(endStop.getLinkId()).getLength()
/ this.net.getLinks().get(endStop.getLinkId()).getFreespeed();
routeStop = this.tS.getFactory().createTransitRouteStop(endStop, startTime, startTime);
stops.add(routeStop);
// register departure
TransitRoute transitRoute =
this.tS.getFactory().createTransitRoute(routeID, route, stops, "pt");
return transitRoute;
}
public void addShortestPath(int indexI) {
if (indexI < links.size() - 1) {
Path path =
leastCostPathCalculator.calcLeastCostPath(
links.get(indexI).getToNode(), links.get(indexI + 1).getFromNode(), 0, null, null);
if (path != null) {
int i = 1;
for (Link link : path.links) {
links.add(indexI + i, link);
i++;
}
}
}
}
public void calculatePath() {
links.clear();
Iterator<StopTime> prev = trip.getStopTimes().values().iterator(),
next = trip.getStopTimes().values().iterator();
List<Link> prevLL, nextLL;
Link prevL = null, nextL = null;
next.next();
Stop prevStop = null, nextStop = null;
if (next.hasNext()) {
Path bestPath = null;
prevStop = stops.get(prev.next().getStopId());
nextStop = stops.get(next.next().getStopId());
if (prevStop.getLinkId() != null) {
prevLL = new ArrayList<Link>();
prevLL.add(network.getLinks().get(Id.create(prevStop.getLinkId(), Link.class)));
} else prevLL = getBestLinksMode(network, prevStop.getPoint(), trip.getShape());
if (nextStop.getLinkId() != null) {
nextLL = new ArrayList<Link>();
nextLL.add(network.getLinks().get(Id.create(nextStop.getLinkId(), Link.class)));
} else nextLL = getBestLinksMode(network, nextStop.getPoint(), trip.getShape());
List<Tuple<Path, Link[]>> paths = new ArrayList<Tuple<Path, Link[]>>();
for (int i = 0; i < prevLL.size(); i++)
for (int j = 0; j < nextLL.size(); j++) {
prevL = prevLL.get(i);
nextL = nextLL.get(j);
Path path;
if (prevL == nextL)
path = new Path(new ArrayList<Node>(), new ArrayList<Link>(), 0.0, 0.0);
else {
path =
leastCostPathCalculator.calcLeastCostPath(
prevL.getToNode(), nextL.getFromNode(), 0, null, null);
if (path == null)
path = new Path(new ArrayList<Node>(), new ArrayList<Link>(), 0.0, 0.0);
path.links.add(0, prevL);
}
path.links.add(nextL);
paths.add(new Tuple<Path, Link[]>(path, new Link[] {prevL, nextLL.get(j)}));
}
double shortestDistance = Double.POSITIVE_INFINITY;
for (Tuple<Path, Link[]> tuple : paths) {
if (tuple.getFirst().links.size() > 0) {
double distance =
calculateDistance(tuple.getFirst(), prevStop.getPoint(), nextStop.getPoint());
if (bestPath == null || distance <= shortestDistance) {
shortestDistance = distance;
bestPath = tuple.getFirst();
prevStop.setLinkId(tuple.getSecond()[0].getId().toString());
nextStop.setLinkId(tuple.getSecond()[1].getId().toString());
}
}
}
prevL = bestPath.links.get(bestPath.links.size() - 1);
links.addAll(bestPath.links);
prevStop = nextStop;
}
for (; next.hasNext(); ) {
Path bestPath = null;
nextStop = stops.get(next.next().getStopId());
if (nextStop.getLinkId() != null) {
nextL = network.getLinks().get(Id.create(nextStop.getLinkId(), Link.class));
if (prevL.equals(nextL))
bestPath = new Path(new ArrayList<Node>(), new ArrayList<Link>(), 0.0, 0.0);
else {
bestPath =
leastCostPathCalculator.calcLeastCostPath(
prevL.getToNode(), nextL.getFromNode(), 0, null, null);
if (bestPath == null)
bestPath = new Path(new ArrayList<Node>(), new ArrayList<Link>(), 0.0, 0.0);
else bestPath.links.add(0, prevL);
}
bestPath.links.add(nextL);
} else {
nextLL = getBestLinksMode(network, nextStop.getPoint(), trip.getShape());
List<Tuple<Path, Link>> paths = new ArrayList<Tuple<Path, Link>>();
for (int i = 0; i < nextLL.size(); i++) {
nextL = nextLL.get(i);
Path path;
if (prevL.equals(nextL))
path = new Path(new ArrayList<Node>(), new ArrayList<Link>(), 0.0, 0.0);
else {
path =
leastCostPathCalculator.calcLeastCostPath(
prevL.getToNode(), nextL.getFromNode(), 0, null, null);
if (path == null)
path = new Path(new ArrayList<Node>(), new ArrayList<Link>(), 0.0, 0.0);
else path.links.add(0, prevL);
}
path.links.add(nextL);
paths.add(new Tuple<Path, Link>(path, nextL));
}
double shortestDistance = Double.POSITIVE_INFINITY;
for (Tuple<Path, Link> tuple : paths) {
double distance =
calculateDistance(tuple.getFirst(), prevStop.getPoint(), nextStop.getPoint());
if (bestPath == null || distance <= shortestDistance) {
shortestDistance = distance;
bestPath = tuple.getFirst();
nextStop.setLinkId(tuple.getSecond().getId().toString());
}
}
}
prevL = bestPath.links.get(bestPath.links.size() - 1);
bestPath.links.remove(0);
links.addAll(bestPath.links);
prevStop = nextStop;
}
}
