Examples of Simulation

avrora.sim.Simulation
The Simulation class represents a complete simulation, including the nodes, the programs, the radio model (if any), the environment model, for simulations of one or many nodes. This is meant as a major extension point in Avrora for adding new types of simulations; for example a sensor network simulation, a robotics simulation, etc. @author Ben L. Titzer
ch.idsia.mario.simulation.Simulation
Created by IntelliJ IDEA. User: Sergey Karakovskiy Date: Apr 7, 2009 Time: 2:13:59 PM Package: .Simulation
core.simulation.Simulation
Esta clase representa una simulaci�n de robots en un escenario. Contiene un arreglo con todos los robots que participan en la simulaci�n, como tambi�n, informaci�n relacionada al timing de la ejecuci�n.

Solo se permite una �nica simulaci�n por vez (no deber�an existir dos o m�s instancias simult�neamente). Antes de crear una nueva instancia Simulation deber�n liberarse todos los recursos de la simulaci�n anterior, invocando al m�todo {@link #dispose() dispose}. En cualquier momento podr� obtenerse una referencia a la simulaci�n actual mediante la invocaci�n del m�todo {@link #getCurrent() getCurrent}.

Implementa la interfaz Playable junto con los controles de ejecuci�n.

Esta clase no puede ser extendida.
eas.users.students.benediktMueller.qswarm.sim.Simulation
This is an important class. All the movement, collision detection and sensor ray computation takes place here. The most important function of this class is step().
jmt.engine.simEngine.Simulation
This class creates a new Simulation. It provides an easy way to initialize the jmt engine. @author Federico Granata, Stefano Omini, Bertoli MarcoModified by Ashanka (May 2010): Patch: Multi-Sink Perf. Index Description: Added new Performance index for the capturing the 1. global response time (ResponseTime per Sink) 2. global throughput (Throughput per Sink) each sink per class.
newExamples.Simulation
Class hosting a simulation to fit simulated exoplanet inclinations. @author ebopp
org.contikios.cooja.Simulation
A simulation consists of a number of motes and mote types. A simulation is observable: changed simulation state, added or deleted motes etc are observed. To track mote changes, observe the mote (interfaces) itself. @author Fredrik Osterlind
org.drools.simulation.Simulation
org.kie.internal.simulation.Simulation
org.movsim.autogen.Simulation
org.openpixi.pixi.physics.Simulation
presage.Simulation
se.sics.cooja.Simulation
A simulation consists of a number of motes and mote types. The motes in the simulation are ticked one by one in a simulation loop. When all motes have been ticked once, the simulation time is updated and then the simulation sleeps for some specified delay time. Any tick observers are also notified at this time. When observing the simulation itself, the simulation state, added or deleted motes etc. are observed, as opposed to individual mote changes. Changes of individual motes should instead be observed via corresponding mote interfaces. @author Fredrik Osterlind
simulation.Simulation
srsim.domain.Simulation
The simulation class handles the process of simulation a given room configuration. @author phil
zdenekdrahos.AI.Training.Simulation.Simulation

Examples of jmt.engine.simEngine.Simulation


    try {
      //File model = new File(path);
      //FileInputStream is = new FileInputStream(model);
      SimLoader loader = new SimLoader(path);
      Simulation sim = loader.getSim();


      //TODO: fixed seed
      sim.setRandomEngineSeed(seed);


      sim.initialize();


      start = System.currentTimeMillis();
      sim.run();
      stop = System.currentTimeMillis();
      elapsed = stop - start;
      //System.out.println("Duration execution "+i+": ");
      //System.out.println(Long.toString(elapsed));
    } catch (FileNotFoundException e) {

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Examples of jmt.engine.simEngine.Simulation


    try {
      //File model = new File(path);
      //FileInputStream is = new FileInputStream(model);
      SimLoader loader = new SimLoader(path);
      Simulation sim = loader.getSim();
      sim.initialize();
      start = System.currentTimeMillis();
      sim.run();
      stop = System.currentTimeMillis();
      elapsed = stop - start;
      //System.out.println("Duration execution "+i+": ");
      System.out.println(Long.toString(elapsed));
    } catch (FileNotFoundException e) {

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Examples of jmt.engine.simEngine.Simulation

  public static void test2() {


    try {


      SimLoader loader = new SimLoader("D://sim_test_2open.xml");
      Simulation sim = loader.getSim();
      sim.initialize();
      sim.run();
      double elapsed = NetSystem.getElapsedTime();
      System.out.println(elapsed);


    } catch (FileNotFoundException e) {
      System.out.println("Errore, file non trovato...");

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Examples of jmt.engine.simEngine.Simulation

    for (int i = 0; i < N; i++) {


      try {


        SimLoader loader = new SimLoader("D://sim_prova.xml");
        Simulation sim = loader.getSim();
        sim.initialize();
        start = System.currentTimeMillis();


        sim.run();


        stop = System.currentTimeMillis();
        elapsed = stop - start;
        //System.out.println("Duration execution "+i+": ");
        System.out.println(Long.toString(elapsed));

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Examples of jmt.engine.simEngine.Simulation

      //add class
      JobClass[] classes = new JobClass[1];
      classes[0] = new JobClass("prima");


      long simTime = 200;
      Simulation sim = new Simulation(-1, "SimulationWithTimer", simTime);


      sim.addClasses(classes);


      //terminal
      RoundRobinStrategy[] rrs_term = new RoundRobinStrategy[1];
      rrs_term[0] = new RoundRobinStrategy();


      int[] numJobs = { 6 };


      ServiceTimeStrategy[] ds = { new ServiceTimeStrategy(DelayExp[0], DelayPar[0]) };


      sim.addNode("terminal", new Terminal(numJobs), new Delay(ds), new Router(rrs_term));


      //server
      ServiceStrategy[] serv_strat = new ServiceStrategy[1];
      serv_strat[0] = new ServiceTimeStrategy(serverExp[0], serverPar[0]);


      RoundRobinStrategy[] rrs_serv = new RoundRobinStrategy[1];
      rrs_serv[0] = new RoundRobinStrategy();


      sim.addNode("server", new Queue(-1, false, null, null), new Server(1, null, serv_strat), new Router(rrs_serv));


      //connections
      sim.addConnection("terminal", "server");
      sim.addConnection("server", "terminal");


      //measure


      jmt.engine.dataAnalysis.Measure mis1 = new jmt.engine.dataAnalysis.Measure("queuelength_s.out", .1, .1, 1000000, false, null);
      jmt.engine.dataAnalysis.Measure mis11 = new jmt.engine.dataAnalysis.Measure("queuelength_t.out", .1, .1, 1000000, false, null);
      jmt.engine.dataAnalysis.Measure mis2 = new jmt.engine.dataAnalysis.Measure("utilization_s.out", .1, .1, 1000000, false, null);
      jmt.engine.dataAnalysis.Measure mis3 = new InverseMeasure("throughput_s.out", .1, .1, 1000000, false);
      jmt.engine.dataAnalysis.Measure mis4 = new jmt.engine.dataAnalysis.Measure("queuetime_s.out", .1, .1, 1000000, false, null);
      jmt.engine.dataAnalysis.Measure mis5 = new jmt.engine.dataAnalysis.Measure("residencetime_s.out", .1, .1, 1000000, false, null);


      jmt.engine.dataAnalysis.Measure mis6 = new jmt.engine.dataAnalysis.Measure("utilization_t.out", .1, .1, 1000000, false, null);
      jmt.engine.dataAnalysis.Measure mis7 = new InverseMeasure("throughput_t.out", .1, .1, 1000000, false);
      jmt.engine.dataAnalysis.Measure mis8 = new jmt.engine.dataAnalysis.Measure("residencetime_t.out", .1, .1, 1000000, false, null);
      jmt.engine.dataAnalysis.Measure mis9 = new jmt.engine.dataAnalysis.Measure("responsetime_s.out", .1, .1, 1000000, false, null);
      jmt.engine.dataAnalysis.Measure mis10 = new jmt.engine.dataAnalysis.Measure("responsetime_t.out", .1, .1, 1000000, false, null);


      int queue_l = SimConstants.QUEUE_LENGTH;
      int utiliz = SimConstants.UTILIZATION;
      int through = SimConstants.THROUGHPUT;
      int queue_t = SimConstants.QUEUE_TIME;
      int resid_t = SimConstants.RESIDENCE_TIME;;
      int resp_t = SimConstants.RESPONSE_TIME;


      //sim.addMeasure(queue_l, "server", mis1, classes[0].getName());
      //sim.addMeasure(queue_l, "terminal", mis11, classes[0].getName());
      sim.addMeasure(utiliz, "server", mis2, classes[0].getName());
      sim.addMeasure(utiliz, "terminal", mis6, classes[0].getName());
      sim.addMeasure(through, "server", mis3, classes[0].getName());
      sim.addMeasure(through, "terminal", mis7, classes[0].getName());
      //sim.addMeasure(resid_t, "server", mis5, classes[0].getName());
      //sim.addMeasure(resid_t, "terminal", mis8, classes[0].getName());
      //sim.addMeasure(resp_t, "server", mis9, classes[0].getName());
      //sim.addMeasure(resp_t, "terminal", mis10, classes[0].getName());


      sim.initialize();
      sim.run();


      System.out.println("tot time = " + NetSystem.getElapsedTime());


    } catch (Exception e) {
      e.printStackTrace();

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Examples of jmt.engine.simEngine.Simulation


    //sim model successfully created
    //now prepare simulation
    try {
      SimLoader simLoader = new SimLoader(simModelDefinitionPath);
      Simulation sim = simLoader.getSim();


      //sets in the Simulation object the path of the original (i.e. MVA)
      //xml model definition
      sim.setXmlModelDefPath(modelDefinitionPath);


      if (!automaticSeed) {
        //if automaticSeed == false, then a user defined seed is present
        sim.setRandomEngineSeed(simulationSeed);
        sim.initialize();


        logger.debug("jSIM correctly initialized with simulation seed = " + simulationSeed);
      } else {
        sim.initialize();
        logger.debug("jSIM correctly initialized");
      }


      //Avoid saturation
      if (sim.getAllRegions() == null) {
        //if there are no regions...
        boolean sufficientProcessingCapacity = checkProcessingCapacity();


        if (!sufficientProcessingCapacity) {
          logger.warn("Current workload causes system saturation. Simulation will not be started.");
          return false;
        }
      }


      simStarted = true;
      net = sim.getNetwork();


      long start, stop;
      double elapsed;


      //Start time
      start = System.currentTimeMillis();


      sim.run();


      //stop time
      stop = System.currentTimeMillis();
      elapsed = ((stop - start)) / 1000.0;

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Examples of jmt.engine.simEngine.Simulation


    //sim model successfully created
    //now prepare simulation
    try {
      SimLoader simLoader = new SimLoader(simModelDefinitionPath);
      Simulation sim = simLoader.getSim();
      //sim.MONITOR_BLOCKING_REGION = true;            
      //sets in the Simulation object the path of the original (i.e. MVA)
      //xml model definition
      sim.setXmlModelDefPath(modelDefinitionPath);


      if (!automaticSeed) {
        //if automaticSeed == false, then a user defined seed is present
        sim.setRandomEngineSeed(simulationSeed);
        sim.initialize();


        logger.debug("jSIM correctly initialized with simulation seed = " + simulationSeed);
      } else {
        sim.initialize();
        logger.debug("jSIM correctly initialized");
      }


      //Avoid saturation
      if (sim.getAllRegions() == null) {
        //if there are no regions...
        boolean sufficientProcessingCapacity = inputModel.checkSaturation() == ExactModel.NO_SATURATION;


        if (!sufficientProcessingCapacity) {
          logger.warn("Current workload causes system saturation. Simulation will not be started.");
          return false;
        }
      }


      simStarted = true;
      net = sim.getNetwork();


      long start, stop;
      double elapsed;


      //Start time
      start = System.currentTimeMillis();


      sim.run();


      //stop time
      stop = System.currentTimeMillis();
      elapsed = ((stop - start)) / 1000.0;

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Examples of newExamples.Simulation

    double magBol   = 12.1;        // (Compute from bolometric corrections in Allen)
    int    pop      = 6;        // (Besancon model. 6: 5-7 Gyr)
    String spType   = "M4 V";      // String defining the spectral type
    
    // Generate simulation
    Simulation sim = new Simulation();
    
    // Generate solar system, set parameters, generate planet and star; finalize
    SimulatedSystem system = sim.addSystem("GJ 876");
    system.setAstrometry(ra, dec, parallax, muRa, muDec, vRad);
    system.createStar(magMv, distance, vMinusI, absV, feH, alphaE, mass, spType, magBol, pop);
    system.addPlanet(massPlanet, period, timePeriastron, eccentricity, inclination, omega2, nodeAngle);
    system.finalizeSystem();//*/

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Examples of org.contikios.cooja.Simulation

    /* Load simulation */
    logger.info("Loading " + config);
    Cooja.externalToolsUserSettingsFile = new File(
        System.getProperty("user.home"), 
        Cooja.EXTERNAL_TOOLS_USER_SETTINGS_FILENAME);
    Simulation s = Cooja.quickStartSimulationConfig(config, false, null);
    if (s == null) {
      throw new RuntimeException(
          "Error when creating simulation"
      );
    }
    s.stopSimulation();


    try {
      buildExecutableJAR(s.getCooja(), jar);
    } catch (RuntimeException e) {
      logger.fatal(e.getMessage(), e);
      System.exit(1);
    }
    System.exit(0);

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Examples of org.contikios.cooja.Simulation

      return;
    }


    logger.info("Starting simulation");
    Cooja.setLookAndFeel();
    Simulation sim = Cooja.quickStartSimulationConfig(new File(executeDir, SIMCONFIG_FILENAME), false, null);
    if (sim != null){
        /* Set simulation speed to maximum and start simulation */
        sim.setSpeedLimit(null);
        sim.startSimulation();
    } else {
        logger.fatal("Cannot load simulation, aborting");
        System.exit(1);
    }
  }

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