private void makeLinks() {
PolylineFeatureFactory pl =
new PolylineFeatureFactory.Builder()
.setName("Link")
.setCrs(MGC.getCRS("EPSG:32632"))
.addAttribute("nr_veh", Integer.class)
.addAttribute("flow", Double.class)
.addAttribute("angle", Double.class)
.create();
Collection<SimpleFeature> features = new ArrayList<SimpleFeature>();
for (LinkInfo li : this.lis) {
Link l = li.getLink();
Coordinate[] coords =
new Coordinate[] {
MGC.coord2Coordinate(l.getFromNode().getCoord()),
MGC.coord2Coordinate(l.getToNode().getCoord())
};
SimpleFeature ft =
pl.createPolyline(
coords,
new Object[] {li.getVeh().size(), li.getFlow(), li.getAngle()},
li.getLink().getId().toString());
features.add(ft);
}
ShapeFileWriter.writeGeometries(features, this.debugDir + "/links.shp");
}
private void initFeatureType() {
this.factory =
new PolylineFeatureFactory.Builder()
.setCrs(MGC.getCRS(TransformationFactory.WGS84_UTM35S))
.setName("links")
.addAttribute("ID", String.class)
.addAttribute("flowDelta", Double.class)
.create();
}
public static void main(String[] args) {
String netfile = null;
String outputFileLs = null;
String outputFileP = null;
if (args.length == 0) {
netfile =
"d:\\Berlin\\berlin-fggeoinfo\\30_Run_20_percent\\20101005_run777_778\\network_modified_20100806_added_BBI_AS_cl.xml.gz";
// String netfile = "./test/scenarios/berlin/network.xml.gz";
EventsCompareConfig.eventsFileOne = "E:/run778/output/ITERS/it.900/run778.900.events.txt";
EventsCompareConfig.eventsFileTwo = "E:/run777/output/ITERS/it.900/run777.900.events.txt";
outputFileLs = "e:\\temp\\networkLs_abs.shp";
outputFileP = "e:\\temp\\networkP_abs.shp";
} else if (args.length == 3) {
netfile = args[0];
outputFileLs = args[1];
outputFileP = args[2];
} else {
log.error("Arguments cannot be interpreted. Aborting ...");
System.exit(-1);
}
ScenarioImpl scenario = (ScenarioImpl) ScenarioUtils.createScenario(ConfigUtils.createConfig());
scenario.getConfig().global().setCoordinateSystem("DHDN_GK4");
log.info("loading network from " + netfile);
final Network network = scenario.getNetwork();
new MatsimNetworkReader(scenario).readFile(netfile);
log.info("done.");
FeatureGeneratorBuilderImpl builder = new FeatureGeneratorBuilderImpl(network, "DHDN_GK4");
// builder.setFeatureGeneratorPrototype(CountVehOnLinksStringBasedFeatureGenerator.class);
builder.setFeatureGeneratorPrototype(CountVehOnLinksStringBasedFeatureGenerator.class);
builder.setWidthCoefficient(0.5);
builder.setWidthCalculatorPrototype(LanesBasedWidthCalculator.class);
new Links2ESRIShape(network, outputFileLs, builder).write();
CoordinateReferenceSystem crs = MGC.getCRS("DHDN_GK4");
builder.setWidthCoefficient(0.01);
// builder.setFeatureGeneratorPrototype(CountVehOnLinksPolygonBasedFeatureGenerator.class);
builder.setFeatureGeneratorPrototype(CountVehOnLinksPolygonBasedFeatureGenerator.class);
builder.setWidthCalculatorPrototype(CapacityBasedWidthCalculator.class);
builder.setCoordinateReferenceSystem(crs);
new Links2ESRIShape(network, outputFileP, builder).write();
}
private void makeVeh() {
PointFeatureFactory pf =
new PointFeatureFactory.Builder()
.setName("vehicle")
.setCrs(MGC.getCRS("EPSG:32632"))
.addAttribute("angle", Double.class)
.addAttribute("speed", Double.class)
.create();
Collection<SimpleFeature> features = new ArrayList<SimpleFeature>();
int id = 0;
for (LinkInfo li : this.lis) {
for (SensorDataVehicle veh : li.getVeh()) {
SimpleFeature ft =
pf.createPoint(
new Coordinate(veh.getX(), veh.getY()),
new Object[] {veh.getAngle(), veh.getSpeed()},
id++ + "");
features.add(ft);
}
}
ShapeFileWriter.writeGeometries(features, this.debugDir + "/vehicles.shp");
}
public void convertNet2Shape(Network net, String crs, String outputFile) {
SimpleFeatureTypeBuilder typeBuilder = new SimpleFeatureTypeBuilder();
typeBuilder.setCRS(MGC.getCRS(crs));
typeBuilder.setName("link feature");
typeBuilder.add("Line String", LineString.class);
typeBuilder.add("id", String.class);
typeBuilder.add("length", Double.class);
typeBuilder.add("freespeed", Double.class);
typeBuilder.add("capacity", Double.class);
SimpleFeatureBuilder builder = new SimpleFeatureBuilder(typeBuilder.buildFeatureType());
List<SimpleFeature> features = new ArrayList<SimpleFeature>();
for (Link link : net.getLinks().values()) {
Coord from = link.getFromNode().getCoord();
Coord to = link.getToNode().getCoord();
SimpleFeature feature =
builder.buildFeature(
link.getId().toString(),
new Object[] {
new GeometryFactory()
.createLineString(
new Coordinate[] {MGC.coord2Coordinate(from), MGC.coord2Coordinate(to)}),
link.getId().toString(),
link.getLength(),
link.getFreespeed(),
link.getCapacity()
});
features.add(feature);
}
ShapeFileWriter.writeGeometries(features, outputFile);
}
/** @author amit after Benjamin */
public class SpatialAveragingCongestion {
private final Logger logger = Logger.getLogger(SpatialAveragingCongestion.class);
private ExperiencedDelayHandler congestionPerLinkHandler;
final double scalingFactor = 1.;
private static final String runDir =
"/Users/amit/Documents/repos/runs-svn/detEval/emissionCongestionInternalization/output/1pct/run9/";
private static final String runBAU = runDir + "/baseCaseCtd";
private static final String runNumber = runDir + "/ei";
private final String netFile1 = runBAU + "/output_network.xml.gz";
private final String munichShapeFile =
"/Users/amit/Documents/repos/shared-svn/projects/detailedEval/Net/shapeFromVISUM/urbanSuburban/cityArea.shp";
private static String configFileBAU = runBAU + "/output_config.xml";
private final String eventsFileBAU = runBAU + "/ITERS/it.1500/1500.events.xml.gz";
private final String eventsFile2 = runNumber + "/ITERS/it.1500/1500.events.xml.gz";
private final String emissionFileBAU = runBAU + "/ITERS/it.1500/1500.emission.events.xml.gz";
private final String emissionFile2 = runNumber + "/ITERS/it.1500/1500.emission.events.xml.gz";
final CoordinateReferenceSystem targetCRS = MGC.getCRS("EPSG:20004");
final double xMin = 4452550.25;
final double xMax = 4479483.33;
final double yMin = 5324955.00;
final double yMax = 5345696.81;
final int noOfXbins = 160;
final int noOfYbins = 120;
final int noOfTimeBins = 1;
// ========
final double smoothingRadius_m = 500.;
final boolean line = true;
// ========
final boolean compareToBAU = true;
SpatialAveragingUtils sau;
LocationFilter lf;
double simulationEndTime;
Scenario scenario;
Network network;
String outPathStub;
SpatialAveragingUtilsExtended extended;
EmissionsPerLinkWarmEventHandler warmHandler;
public void run() {
this.sau =
new SpatialAveragingUtils(
xMin,
xMax,
yMin,
yMax,
noOfXbins,
noOfYbins,
smoothingRadius_m,
munichShapeFile,
targetCRS);
this.lf = new LocationFilter();
extended = new SpatialAveragingUtilsExtended(smoothingRadius_m);
this.simulationEndTime = getEndTime(configFileBAU);
scenario = loadScenario(netFile1);
this.network = scenario.getNetwork();
processCongestions(eventsFileBAU);
processEmissions(emissionFileBAU);
Map<Double, Map<Id<Link>, Double>> time2LinkDelays =
this.congestionPerLinkHandler.getDelayPerLinkAndTimeInterval();
// to keep the same demand in emission and congestion pricing, more logical is using demand from
// warm emission analysis module.
Map<Double, Map<Id<Link>, Double>> time2CountsPerLink =
this.warmHandler.getTime2linkIdLeaveCount();
Map<Double, double[][]> time2WeightedCongestion =
fillWeightedCongestionValues(filterLinks(time2LinkDelays));
Map<Double, double[][]> time2WeightedDemand =
fillWeightedDemandValues(filterLinks(time2CountsPerLink));
this.congestionPerLinkHandler.reset(0);
this.warmHandler.reset(0);
Map<Double, double[][]> normalizedTime2WeightedCongestion =
normalizeAllArrays(time2WeightedCongestion);
Map<Double, double[][]> normalizedTime2WeightedDemand = normalizeAllArrays(time2WeightedDemand);
/* Sum over weighted values for cell does not need to be normalized, since normalization cancels out.
* Result is an average value for cell*/
Map<Double, double[][]> time2SpecificDelays =
calculateSpecificDelaysPerBin(time2WeightedCongestion, time2WeightedDemand);
if (line) {
outPathStub = runDir + "/analysis/spatialPlots/rCongestionLine" + smoothingRadius_m;
} else {
outPathStub = runDir + "/analysis/spatialPlots/rCongestionPoint" + smoothingRadius_m;
}
for (double endOfTimeInterval : time2WeightedCongestion.keySet()) {
this.sau.writeRoutput(
normalizedTime2WeightedCongestion.get(endOfTimeInterval),
outPathStub + ".sec" + endOfTimeInterval + ".txt");
this.sau.writeRoutput(
normalizedTime2WeightedDemand.get(endOfTimeInterval),
outPathStub + ".vkm." + endOfTimeInterval + ".txt");
this.sau.writeRoutput(
time2SpecificDelays.get(endOfTimeInterval),
outPathStub + ".secVkm." + endOfTimeInterval + ".txt");
}
if (compareToBAU) {
processCongestions(eventsFile2);
processEmissions(emissionFile2);
Map<Double, Map<Id<Link>, Double>> time2LinkDelays2 =
this.congestionPerLinkHandler.getDelayPerLinkAndTimeInterval();
Map<Double, Map<Id<Link>, Double>> time2CountsPerLink2 =
this.warmHandler.getTime2linkIdLeaveCount();
Map<Double, double[][]> time2WeightedCongestion2 =
fillWeightedCongestionValues(filterLinks(time2LinkDelays2));
Map<Double, double[][]> normalizedTime2WeightedCongestion2 =
normalizeAllArrays(time2WeightedCongestion2);
Map<Double, double[][]> time2WeightedDemand2 =
fillWeightedDemandValues(filterLinks(time2CountsPerLink2));
Map<Double, double[][]> normalizedTime2WeightedDemand2 =
normalizeAllArrays(time2WeightedDemand2);
/* Sum over weighted values for cell does not need to be normalized, since normalization canceles out.
* Result is an average value for cell*/
Map<Double, double[][]> time2SpecificDelays2 =
calculateSpecificDelaysPerBin(time2WeightedCongestion2, time2WeightedDemand2);
//// Map<Double, double[][]> time2SpecificEmissions2 =
// calculateSpecificEmissionsPerBin(time2NormalizedWeightedEmissions2,
// time2NormalizedWeightedDemand2);
//
/* Sum over weighted values for cell is normalized to "per sqkm" (dependent on calcluateWeightOfLinkForCell)
* Values NEED to be additive (e.g. vkm, g, counts, or AVERAGE g/vkm!)
* Make sure coordinate system is metric */
Map<Double, double[][]> time2AbsoluteDelaysDifferences =
calculateAbsoluteDifferencesPerBin(
normalizedTime2WeightedCongestion, normalizedTime2WeightedCongestion2);
Map<Double, double[][]> time2AbsoluteDemandDifferences =
calculateAbsoluteDifferencesPerBin(
normalizedTime2WeightedDemand, normalizedTime2WeightedDemand2);
Map<Double, double[][]> time2SpecificCongestionDifferences =
calculateAbsoluteDifferencesPerBin(time2SpecificDelays, time2SpecificDelays2);
if (line) {
outPathStub =
runDir
+ "/analysis/spatialPlots/rCongestionWRTBAULine"
+ smoothingRadius_m; // runDirectory1 + "analysis/spatialAveraging/" + runNumber1 +
// "." + lastIteration1;
} else {
outPathStub =
runDir
+ "/analysis/spatialPlots/rCongestionWRTBAUPoint"
+ smoothingRadius_m; // runDirectory1 + "analysis/spatialAveraging/" + runNumber1 +
// "." + lastIteration1;
}
for (double endOfTimeInterval : time2AbsoluteDemandDifferences.keySet()) {
this.sau.writeRoutput(
time2AbsoluteDelaysDifferences.get(endOfTimeInterval),
outPathStub + ".sec." + endOfTimeInterval + ".txt");
this.sau.writeRoutput(
time2AbsoluteDemandDifferences.get(endOfTimeInterval),
outPathStub + ".vkm." + endOfTimeInterval + ".txt");
this.sau.writeRoutput(
time2SpecificCongestionDifferences.get(endOfTimeInterval),
outPathStub + ".secPerVkm." + endOfTimeInterval + ".txt");
}
}
}
private Map<Double, double[][]> calculateSpecificDelaysPerBin(
Map<Double, double[][]> time2weightedDelays, Map<Double, double[][]> time2weightedDemand) {
Map<Double, double[][]> time2specificDelays = new HashMap<Double, double[][]>();
for (Double endOfTimeInterval : time2weightedDelays.keySet()) {
double[][] specificDelays = new double[noOfXbins][noOfYbins];
for (int xIndex = 0; xIndex < noOfXbins; xIndex++) {
for (int yIndex = 0; yIndex < noOfYbins; yIndex++) {
specificDelays[xIndex][yIndex] =
time2weightedDelays.get(endOfTimeInterval)[xIndex][yIndex]
/ time2weightedDemand.get(endOfTimeInterval)[xIndex][yIndex];
}
}
time2specificDelays.put(endOfTimeInterval, specificDelays);
}
return time2specificDelays;
}
private Map<Double, double[][]> normalizeAllArrays(Map<Double, double[][]> time2Array) {
Map<Double, double[][]> time2NormalizedArray = new HashMap<Double, double[][]>();
for (Double endOfTimeInterval : time2Array.keySet()) {
double[][] normalizedArray = this.sau.normalizeArray(time2Array.get(endOfTimeInterval));
time2NormalizedArray.put(endOfTimeInterval, normalizedArray);
}
return time2NormalizedArray;
}
private Map<Double, Map<Id<Link>, Double>> filterLinks(
Map<Double, Map<Id<Link>, Double>> time2LinksData) {
Map<Double, Map<Id<Link>, Double>> time2LinksDataFiltered =
new HashMap<Double, Map<Id<Link>, Double>>();
for (Double endOfTimeInterval : time2LinksData.keySet()) {
Map<Id<Link>, Double> linksData = time2LinksData.get(endOfTimeInterval);
Map<Id<Link>, Double> linksDataFiltered = new HashMap<Id<Link>, Double>();
for (Link link : network.getLinks().values()) {
Coord linkCoord = link.getCoord();
if (this.sau.isInResearchArea(linkCoord)) {
Id<Link> linkId = link.getId();
if (linksData.get(linkId) == null) {
linksDataFiltered.put(linkId, 0.);
} else {
linksDataFiltered.put(linkId, linksData.get(linkId));
}
}
}
time2LinksDataFiltered.put(endOfTimeInterval, linksDataFiltered);
}
return time2LinksDataFiltered;
}
private Map<Double, double[][]> fillWeightedCongestionValues(
Map<Double, Map<Id<Link>, Double>> map) {
Map<Double, double[][]> time2weightedDelays = new HashMap<Double, double[][]>();
for (Double endOfTimeInterval : map.keySet()) {
double[][] weightedDelays = new double[noOfXbins][noOfYbins];
for (Id<Link> linkId : map.get(endOfTimeInterval).keySet()) {
Coord linkCoord = this.network.getLinks().get(linkId).getCoord();
double xLink = linkCoord.getX();
double yLink = linkCoord.getY();
Coord fromNodeCoord = this.network.getLinks().get(linkId).getFromNode().getCoord();
Coord toNodeCoord = this.network.getLinks().get(linkId).getToNode().getCoord();
double value = map.get(endOfTimeInterval).get(linkId);
double scaledValue = this.scalingFactor * value;
// TODO: maybe calculate the following once and look it up here?
for (int xIndex = 0; xIndex < noOfXbins; xIndex++) {
for (int yIndex = 0; yIndex < noOfYbins; yIndex++) {
Coord cellCentroid = this.sau.findCellCentroid(xIndex, yIndex);
double weightOfLinkForCell;
if (line) {
weightOfLinkForCell =
extended.calculateWeightOfLineForCellV2(
fromNodeCoord, toNodeCoord, cellCentroid.getX(), cellCentroid.getY());
} else {
weightOfLinkForCell =
this.sau.calculateWeightOfPointForCell(
xLink, yLink, cellCentroid.getX(), cellCentroid.getY());
}
weightedDelays[xIndex][yIndex] += weightOfLinkForCell * scaledValue;
}
}
}
time2weightedDelays.put(endOfTimeInterval, weightedDelays);
}
return time2weightedDelays;
}
private Map<Double, double[][]> fillWeightedDemandValues(Map<Double, Map<Id<Link>, Double>> map) {
Map<Double, double[][]> time2weightedDemand = new HashMap<Double, double[][]>();
for (Double endOfTimeInterval : map.keySet()) {
double[][] weightedDemand = new double[noOfXbins][noOfYbins];
for (Id<Link> linkId : map.get(endOfTimeInterval).keySet()) {
Coord linkCoord = this.network.getLinks().get(linkId).getCoord();
double xLink = linkCoord.getX();
double yLink = linkCoord.getY();
double linkLength_km = this.network.getLinks().get(linkId).getLength() / 1000.;
Coord fromNodeCoord = this.network.getLinks().get(linkId).getFromNode().getCoord();
Coord toNodeCoord = this.network.getLinks().get(linkId).getToNode().getCoord();
double count = map.get(endOfTimeInterval).get(linkId);
double vkm = count * linkLength_km;
double scaledVkm = this.scalingFactor * vkm;
// TODO: maybe calculate the following once and look it up here?
for (int xIndex = 0; xIndex < noOfXbins; xIndex++) {
for (int yIndex = 0; yIndex < noOfYbins; yIndex++) {
Coord cellCentroid = this.sau.findCellCentroid(xIndex, yIndex);
double weightOfLinkForCell;
if (line) {
weightOfLinkForCell =
extended.calculateWeightOfLineForCellV2(
fromNodeCoord, toNodeCoord, cellCentroid.getX(), cellCentroid.getY());
} else {
weightOfLinkForCell =
this.sau.calculateWeightOfPointForCell(
xLink, yLink, cellCentroid.getX(), cellCentroid.getY());
}
weightedDemand[xIndex][yIndex] += weightOfLinkForCell * scaledVkm;
}
}
}
time2weightedDemand.put(endOfTimeInterval, weightedDemand);
}
return time2weightedDemand;
}
private Map<Double, double[][]> calculateAbsoluteDifferencesPerBin(
Map<Double, double[][]> time2weightedValues1, Map<Double, double[][]> time2weightedValues2) {
Map<Double, double[][]> time2absoluteDifferences = new HashMap<Double, double[][]>();
for (Double endOfTimeInterval : time2weightedValues1.keySet()) {
double[][] absoluteDifferences = new double[noOfXbins][noOfYbins];
for (int xIndex = 0; xIndex < noOfXbins; xIndex++) {
for (int yIndex = 0; yIndex < noOfYbins; yIndex++) {
absoluteDifferences[xIndex][yIndex] =
time2weightedValues2.get(endOfTimeInterval)[xIndex][yIndex]
- time2weightedValues1.get(endOfTimeInterval)[xIndex][yIndex];
}
}
time2absoluteDifferences.put(endOfTimeInterval, absoluteDifferences);
}
return time2absoluteDifferences;
}
private void processCongestions(String eventFile) {
EventsManager eventsManager = EventsUtils.createEventsManager();
MatsimEventsReader eventsReader = new MatsimEventsReader(eventsManager);
this.congestionPerLinkHandler = new ExperiencedDelayHandler(scenario, noOfTimeBins);
eventsManager.addHandler(this.congestionPerLinkHandler);
eventsReader.readFile(eventFile);
}
private void processEmissions(String emissionFile) {
EventsManager eventsManager = EventsUtils.createEventsManager();
EmissionEventsReader emissionReader = new EmissionEventsReader(eventsManager);
this.warmHandler = new EmissionsPerLinkWarmEventHandler(this.simulationEndTime, noOfTimeBins);
eventsManager.addHandler(this.warmHandler);
emissionReader.parse(emissionFile);
}
private Scenario loadScenario(String netFile) {
Config config = ConfigUtils.createConfig();
config.network().setInputFile(netFile);
Scenario scenario = ScenarioUtils.loadScenario(config);
return scenario;
}
private Double getEndTime(String configfile) {
Config config = ConfigUtils.createConfig();
ConfigReader configReader = new ConfigReader(config);
configReader.readFile(configfile);
Double endTime = config.qsim().getEndTime();
logger.info("Simulation end time is: " + endTime / 3600 + " hours.");
logger.info(
"Aggregating emissions for " + (int) (endTime / 3600 / noOfTimeBins) + " hour time bins.");
return endTime;
}
public static void main(String[] args) {
SpatialAveragingCongestion sac = new SpatialAveragingCongestion();
sac.run();
}
}
public static void main(String[] args) throws Exception {
String baseDir = "../../../shared-svn/projects/cottbus/data/scenarios/cottbus_scenario/";
String networkFile = baseDir + "network_wgs84_utm33n.xml.gz";
boolean useLanduse = true;
String populationOutputDirectory = baseDir + "cb_spn_gemeinde_nachfrage_landuse_ohneTagebau/";
// String shapesOutputDirectory = populationOutputDirectory + "shapes_all_modes/";
String shapesOutputDirectory = populationOutputDirectory + "shapes/";
// String populationOutputFile = populationOutputDirectory +
// "commuter_population_wgs84_utm33n.xml.gz";
String populationOutputFile =
populationOutputDirectory + "commuter_population_wgs84_utm33n_car_only.xml.gz";
OutputDirectoryLogging.initLoggingWithOutputDirectory(populationOutputDirectory);
File shapes = new File(shapesOutputDirectory);
if (!shapes.exists()) {
shapes.mkdir();
}
Config config1 = ConfigUtils.createConfig();
config1.network().setInputFile(networkFile);
Scenario sc = ScenarioUtils.loadScenario(config1);
CommuterDataReader cdr = new CommuterDataReader();
cdr.addFilterRange(12071000);
cdr.addFilter("12052000"); // 12052000 == cottbus stadt
cdr.readFile(
"../../../shared-svn/studies/countries/de/pendler_nach_gemeinden/brandenburg_einpendler.csv");
// cdr.getCommuterRelations().add(new CommuterDataElement("12052000", "12052000", 1000));
String gemeindenBrandenburgShapeFile =
"../../../shared-svn/studies/countries/de/brandenburg_gemeinde_kreisgrenzen/gemeinden/dlm_gemeinden.shp";
ShapeFileReader gemeindenReader = new ShapeFileReader();
Collection<SimpleFeature> gemeindenFeatures =
gemeindenReader.readFileAndInitialize(gemeindenBrandenburgShapeFile);
CommuterDemandWriter cdw =
new CommuterDemandWriter(
gemeindenFeatures,
gemeindenReader.getCoordinateSystem(),
cdr.getCommuterRelations(),
MGC.getCRS(TransformationFactory.WGS84_UTM33N));
// landuse
if (useLanduse) {
DgLanduseReader landuseReader = new DgLanduseReader();
Tuple<Collection<SimpleFeature>, CoordinateReferenceSystem> homeLanduse =
landuseReader.readLanduseDataHome();
Tuple<Collection<SimpleFeature>, CoordinateReferenceSystem> workLanduse =
landuseReader.readLanduseDataWork();
cdw.addLanduse("home", homeLanduse);
cdw.addLanduse("work", workLanduse);
}
//
// cdw.setScalefactor(1.0); // all modes
cdw.setScalefactor(0.55); // car mode share
// cdw.setScalefactor(0.1); //testing
cdw.computeDemand(sc);
PopulationWriter populationWriter = new PopulationWriter(sc.getPopulation(), sc.getNetwork());
populationWriter.write(populationOutputFile);
log.info("population written to " + populationOutputFile);
// write some test output
Config config = ConfigUtils.createConfig();
config.network().setInputFile(networkFile);
config.plans().setInputFile(populationOutputFile);
Scenario baseScenario = ScenarioUtils.loadScenario(config);
String shapeFilename = shapesOutputDirectory + "commuter_population_home.shp";
new DgPopulation2ShapeWriter(
baseScenario.getPopulation(), MGC.getCRS(TransformationFactory.WGS84_UTM33N))
.write("home", shapeFilename, MGC.getCRS(TransformationFactory.WGS84_UTM33N));
shapeFilename = shapesOutputDirectory + "commuter_population_work.shp";
new DgPopulation2ShapeWriter(
baseScenario.getPopulation(), MGC.getCRS(TransformationFactory.WGS84_UTM33N))
.write("work", shapeFilename, MGC.getCRS(TransformationFactory.WGS84_UTM33N));
log.info("done!");
OutputDirectoryLogging.closeOutputDirLogging();
}
