/// <summary>
/// Returns top speed in km/h
/// </summary>
/// <param name="sim"></param>
/// <param name="car"></param>
/// <returns></returns>
public double TopSpeed(ISimulator sim, ICar car)
{
if (sim.Garage != null && sim.Garage.Available)
{
if (car == null)
{
// Look up car.
try
{
car = sim.Garage.SearchCar(sim.Drivers.Player.CarClass, sim.Drivers.Player.CarModel);
}catch(Exception ex)
{
}
if (car == null)
return TopSpeed_Stock;
car.ScanAerodynamics();
car.ScanEngine();
if (car.Engine == null || car.Aerodynamics == null)
return TopSpeed_Stock;
}
double power = MaximumPower(sim, car);
double aero = car.Aerodynamics.GetAerodynamicDrag(sim.Setup);
return 3.6 * Math.Pow(power * 1000.0 / aero, 1 / 3.0);
}
else
{
return TopSpeed_Stock;
}
}
internal ConwaysGameOfLife2D(IWorldViewer viewer, IWorldEditor editor, ISimulator simulator, ICoordinateConverter converter)
{
_viewer = viewer ?? throw new ArgumentNullException(nameof(viewer));
_editor = editor ?? throw new ArgumentNullException(nameof(editor));
_simulator = simulator ?? throw new ArgumentNullException(nameof(simulator));
_converter = converter ?? throw new ArgumentNullException(nameof(converter));
}
public rFactor(ISimulator sim)
{
Simulator = sim;
MMF = new rFactorMMF();
if (Simulator.UseMemoryReader)
{
Game = new MemoryPolledReader(sim);
}
else
{
Game = null;
}
Garage = new rFactorGarage();
Session = new Session();
Drivers = new Drivers();
Player = new DriverPlayer();
Game.Diagnostic = true;
var t = new Timer(1000);
t.AutoReset = true;
t.Elapsed += (a, b) => Debug.WriteLine("RPM: " + Game.ReadCalls);
t.Start();
}
static void ExecuteMultipleCommands(ISimulator simulator, string[] commands)
{
foreach (var command in commands)
{
simulator.ExecuteCommand(command);
}
}
public override void Process(ISimulator simulator, double tick)
{
foreach (var handle in simulator.GetHandlesForProcessor(Aspect))
{
if(Console.KeyAvailable)
{
var key = Console.ReadKey(true);
switch(key.Key)
{
case ConsoleKey.UpArrow:
VelocityComponent.MoveByX[handle.Index] = 1;
break;
case ConsoleKey.DownArrow:
VelocityComponent.MoveByX[handle.Index] = -1;
break;
case ConsoleKey.LeftArrow:
VelocityComponent.MoveByY[handle.Index] = -1;
break;
case ConsoleKey.RightArrow:
VelocityComponent.MoveByY[handle.Index] = 1;
break;
}
}
}
}
public Track(ISimulator sim, string name)
{
if (name == null) return;
Route = new RouteCollection();
Apexes = new ApexCollection();
Sections = new SectionsCollection();
// TODO: Make possible without Telemetry.m.Sim available!
if (sim.Garage != null && sim.Garage.Available
&& sim.Garage.Available_Tracks)
{
ITrack track = sim.Garage.SearchTrack(name);
if (track != null)
{
track.Scan();
track.ScanRoute();
Location = track.Location;
Type = track.Type;
Name = track.Name;
Route = (RouteCollection) track.Route.Clone();
}
}
LapLogger = new Timer();
LapLogger.Interval = 2;
LapLogger.Elapsed += LapLogger_Elapsed;
LapLogger.AutoReset = true;
LapLogger.Start();
}
//private readonly Client _client;
public MrpController(ISimulator simulator, IProcessMrp processMrp, IMessageHub messageHub)
{
_processMrp = processMrp;
_simulator = simulator;
_messageHub = messageHub;
//_client = client;
}
public static void SetSimpleScene(ISimulator simulator)
{
#region Create a box
//create a rigidBody
var boxRigidBodyDescriptor = new RigidBodyDescriptor(MotionType.Dynamic, Matrices.Translate(0, 10, 0));
var boxRigidBody = simulator.ActorsFactory.CreateRigidBody(boxRigidBodyDescriptor);
//create a simple fixture for the rigidBody
var fixtureDescriptor = new FixtureDescriptor(Matrices.I);
var simpleFixture = boxRigidBody.FixtureFactory.CreateSimpleFixture(fixtureDescriptor);
//define the shape for the simple fixture
var boxShapeDescriptor = new BoxShapeDescriptor(3, 3, 3, _motionColor);
simpleFixture.ShapeFactory.CreateBox(boxShapeDescriptor);
//define the material for the simple fixture
var materialDescriptor = new MaterialDescriptor(friction: 0.5f, restitution: 0.6f);
simpleFixture.MaterialFactory.CreateMaterial(materialDescriptor);
boxRigidBody.MassFrame.UpdateFromShape();
#endregion
#region Create a plane for the ground
var groundRigidBody =
simulator.ActorsFactory.CreateRigidBody(new RigidBodyDescriptor(MotionType.Static, Matrices.I));
var groundSimpleFixture =
groundRigidBody.FixtureFactory.CreateSimpleFixture(new FixtureDescriptor(Matrices.I));
groundSimpleFixture.ShapeFactory.CreatePlane(new PlaneShapeDescriptor(Vectors.YAxis, 0, _groundColor));
groundSimpleFixture.MaterialFactory.CreateMaterial(materialDescriptor);
#endregion
}
public static void SetFrictionScene(ISimulator simulator)
{
const int maxI = 8;
const float alphaGrad = 33;
for (int i = 0; i <= maxI; i++)
{
SetSimpleRigidBody <IBoxShape, BoxShapeDescriptor>(simulator,
new RigidBodyDescriptor(MotionType.Dynamic,
GMath.mul(
Matrices.Translate(
2 * i - maxI, 0.5f, 0),
Matrices.RotateZGrad(
alphaGrad))),
new BoxShapeDescriptor(1, 1, 1, _motionColor),
new MaterialDescriptor(friction: (maxI - i) * 1f / maxI,
restitution: 0.5f));
}
//create inclined ground
var groundRigidBody =
simulator.ActorsFactory.CreateRigidBody(new RigidBodyDescriptor(MotionType.Static, Matrices.I));
var fixtureDescriptor = new FixtureDescriptor(Matrices.RotateZGrad(alphaGrad));
var simpleFixture = groundRigidBody.FixtureFactory.CreateSimpleFixture(fixtureDescriptor);
simpleFixture.ShapeFactory.Create <IPlaneShape, PlaneShapeDescriptor>(new PlaneShapeDescriptor(
Vectors.YAxis, 0, _groundColor));
simpleFixture.MaterialFactory.CreateMaterial(new MaterialDescriptor(friction: 0.0f, restitution: 0.5f));
groundRigidBody.MassFrame.UpdateFromShape();
}
private static IRigidBody SetSnowman(ISimulator simulator, Matrix4x4 pose)
{
var rigidBody = simulator.ActorsFactory.CreateRigidBody(new RigidBodyDescriptor(MotionType.Dynamic, pose));
var fixtureDescriptor = new FixtureDescriptor(Matrices.I);
var compositeFixture = rigidBody.FixtureFactory.CreateCompositeFixture(fixtureDescriptor);
//head
var simpleFixture = compositeFixture.FixtureFactory.CreateSimpleFixture(
new FixtureDescriptor(Matrices.Translate(0, 4f, 0)));
simpleFixture.ShapeFactory.CreateSphere(new SphereShapeDescriptor(0.7f));
//body
simpleFixture = compositeFixture.FixtureFactory.CreateSimpleFixture(
new FixtureDescriptor(Matrices.Translate(0, 3, 0)));
simpleFixture.ShapeFactory.CreateSphere(new SphereShapeDescriptor(1));
//legs?
simpleFixture = compositeFixture.FixtureFactory.CreateSimpleFixture(
new FixtureDescriptor(Matrices.Translate(0, 1.5f, 0)));
simpleFixture.ShapeFactory.CreateSphere(new SphereShapeDescriptor(1.5f));
rigidBody.MassFrame.UpdateFromShape();
return(rigidBody);
}
/// <summary>
/// Refreshes the catalog and initializes all simulators with the host (Telemetry class).
/// </summary>
private void Refresh()
{
try
{
var catalog = new DirectoryCatalog(Telemetry.m.binaryDirectory + "simulators/", "SimTelemetry.Game.*.dll");
catalog.Refresh();
var container = new CompositionContainer(catalog);
container.ComposeParts(this);
foreach (ISimulator sim in Sims)
{
sim.Host = Telemetry.m;
sim.Initialize();
}
if (Network != null)
{
throw new Exception("Network already added");
}
Network = new NetworkGame {
Host = Telemetry.m
};
Network.Initialize();
Sims.Add(Network);
}
catch (Exception ex)
{
Debug.WriteLine("Failed loading assemblies");
Debug.WriteLine(ex.Message);
Debug.WriteLine(ex.StackTrace);
}
}
public async void Disable()
{
try
{
if (this.dispatcherTimer != null)
{
dispatcherTimer.Stop();
dispatcherTimer = null;
}
if (this.core != null)
{
await this.core.ZeroPneumatics();
this.core = null;
}
if (this.simulator != null)
{
this.simulator.Dispose();
this.simulator = null;
}
if (this.relays != null)
{
this.relays.Dispose();
this.relays = null;
}
}
catch (Exception ex)
{
System.Windows.MessageBox.Show(ex.ToString(), ex.Message);
}
}
/// <summary>
/// Load new track. Specify location of gamedirectory and file.
/// </summary>
/// <param name="sim">Source simulator of track</param>
/// <param name="track">Relative path from gamedirectory to track file OR track name.</param>
public void Track_Load(ISimulator sim, string track)
{
if (Net == null || !Net.IsClient)
{
Track = new Track.Track(sim, track);
}
}
public Track(ISimulator sim, string name)
{
if (name == null)
{
return;
}
Route = new RouteCollection();
Apexes = new ApexCollection();
Sections = new SectionsCollection();
// TODO: Make possible without Telemetry.m.Sim available!
if (sim.Garage != null && sim.Garage.Available &&
sim.Garage.Available_Tracks)
{
ITrack track = sim.Garage.SearchTrack(name);
if (track != null)
{
track.Scan();
track.ScanRoute();
Location = track.Location;
Type = track.Type;
Name = track.Name;
Route = (RouteCollection)track.Route.Clone();
}
}
LapLogger = new Timer();
LapLogger.Interval = 2;
LapLogger.Elapsed += LapLogger_Elapsed;
LapLogger.AutoReset = true;
LapLogger.Start();
}
public static void SetBulletScene(ISimulator simulator)
{
//base
SetSimpleRigidBody <IBoxShape, BoxShapeDescriptor>(
simulator,
new RigidBodyDescriptor(MotionType.Dynamic, Matrices.Translate(0, 0.5f, 0), _motionColor),
new BoxShapeDescriptor(1, 1, 1),
new MaterialDescriptor(0.5f, 0.5f));
//board
SetSimpleRigidBody <IBoxShape, BoxShapeDescriptor>(
simulator,
new RigidBodyDescriptor(MotionType.Dynamic, Matrices.Translate(3, 0.5f + 0.0001f / 2, 0), _motionColor),
new BoxShapeDescriptor(10, 0.00005f, 1),
new MaterialDescriptor(0.5f, 0.5f));
//bullet
var bullet = SetSimpleRigidBody <ISphereShape, SphereShapeDescriptor>(simulator,
new RigidBodyDescriptor(MotionType.Dynamic, Matrices.Translate(-1, 200f, 0), _motionColor),
new SphereShapeDescriptor(0.1f), new MaterialDescriptor(0.5f, 0.5f));
//simulator.Configurator.Set(new SimulatorCcdConfiguration(true));
//bullet.Configurator.Set(new RigidBodyCcdConfiguration(true));
SetGround(simulator, new MaterialDescriptor(0.5f, 0.5f));
}
public rFactor(ISimulator sim)
{
Simulator = sim;
MMF = new rFactorMMF();
if (Simulator.UseMemoryReader)
{
Game = new MemoryPolledReader(sim);
}
else
{
Game = null;
}
Garage = new rFactorGarage();
Session = new Session();
Drivers = new Drivers();
Player = new DriverPlayer();
Game.Diagnostic = true;
var t = new Timer(1000);
t.AutoReset = true;
t.Elapsed += (a, b) => Debug.WriteLine("RPM: " + Game.ReadCalls);
t.Start();
}
public SettingsVM(ISimulator simulator)
{
this._simulator = simulator;
SynchronizationContext uiContext = SynchronizationContext.Current;
// start threads for async operations with UI-Context
Stations = new ObservableCollection <StationVM>();
Task.Run(() => LoadStationsAsync(uiContext));
MeasurementTypes = new ObservableCollection <MeasurementType>();
Task.Run(() => LoadTypesAsync(uiContext));
// register event handlers to watch for simulation status changes
simulator.IsSimulatingChanged += value => IsSimulating = value;
simulator.StationIsInSimulationChanged += (added, station) => {
if (added)
{
SelectedStations.Add(station);
}
else
{
for (int i = 0; i < SelectedStations.Count; i++)
{
if (SelectedStations[i].Id == station.Id)
{
SelectedStations.RemoveAt(i);
}
}
}
PropertyChanged?.Invoke(this, new PropertyChangedEventArgs(nameof(SelectedStations)));
UpdateSimulationReady();
};
}
/// <summary>
/// Returns power in HP
/// </summary>
/// <param name="sim"></param>
/// <param name="car"></param>
/// <returns></returns>
public double MaximumPower(ISimulator sim, ICar car)
{
if (sim.Garage == null)
{
return(0);
}
if (car == null)
{
// Look up car.
car = sim.Garage.SearchCar(sim.Drivers.Player.CarClass, sim.Drivers.Player.CarModel);
if (car == null)
{
return(0);
}
car.ScanEngine();
if (car.Engine == null)
{
return(0);
}
}
return(car.Engine.GetMaximumPower());
}
public TracingDecoratorSimulator(ITraceLogger logger, ISimulator sim, string name)
{
this.logger = logger;
this.sim = sim;
simulatorName = name;
}
public static void SetForceEffectScene(ISimulator simulator)
{
int echelonCount = 7;
var chain = new IRigidBody[echelonCount];
for (int i = 0; i < echelonCount; i++)
{
chain[i] = SetSimpleRigidBody <ISphereShape, SphereShapeDescriptor>(simulator, new RigidBodyDescriptor(i == 0 ? MotionType.Static : MotionType.Dynamic, Matrices.Translate(-i, 10, 0), _motionColor), new SphereShapeDescriptor(0.4f), new MaterialDescriptor(0.5f, 0.5f));
if (i > 0)
{
simulator.ConstraintsFactory.CreateSphericalJoint(
new SphericalJointDescriptor(
new Vector3(1f, 0, 0), new Vector3(), chain[i], chain[i - 1]));
}
}
for (int i = 0; i < 2 * echelonCount; i++)
{
SetSimpleRigidBody <IBoxShape, BoxShapeDescriptor>(simulator, new RigidBodyDescriptor(MotionType.Dynamic, Matrices.Translate(-i, (i + 1) * 0.1f / 2, 10), _motionColor), new BoxShapeDescriptor((i + 1) * 0.1f, (i + 1) * 0.1f, (i + 1) * 0.1f), new MaterialDescriptor(0.5f, 0.5f));
}
simulator.AddForceEffect(new AttractionForceEffect(chain[echelonCount - 1]));
SetGround(simulator, new MaterialDescriptor(0.5f, 0.5f));
}
/// <summary>
/// Fire Sim Stop event.
/// </summary>
/// <param name="me">Simulator stopped</param>
internal void Report_SimStop(ISimulator me)
{
Debug.WriteLine("SimStop fired");
if (Sim_Stop != null)
{
Sim_Stop(me);
}
}
public ToySimulatorIntegrationTests()
{
var placeParameterParser = new PlaceParameterParser();
simulator = new ToyRobotSimulator(new ToyRobot(), new CommandParser(new List <IParameterParser> {
placeParameterParser
}), new ToyTabletop(5, 5));
}
/// <summary>
/// Fire Session Stop event.
/// </summary>
/// <param name="me">Simulator of which session stopped</param>
internal void Report_SessionStop(ISimulator me)
{
Debug.WriteLine("SessionStop fired");
if (Session_Stop != null)
{
Session_Stop(me);
}
}
/// <summary>
/// Fire Lap event.
/// </summary>
/// <param name="me">Simulator of which session stopped</param>
internal void Report_Laps(ISimulator me, ILap lap)
{
Debug.WriteLine("Laps fired");
if (Lap != null)
{
Lap(me, lap);
}
}
//[GLswitchSimulators]
public void SwitchSimulator()
{
_simulators.Enqueue(_simulator);
_simulator = _simulators.Dequeue();
Description();
_frameCounter = 0;
_stopwatch.Restart();
}
/// <summary>
/// Fire Driving Stop event.
/// </summary>
/// <param name="sim">Simulator with drive session stopped</param>
private void Report_DrivingStop(ISimulator sim)
{
Debug.WriteLine("DrivingStop fired");
if (Driving_Stop != null)
{
Driving_Stop(sim);
}
}
public RunForTicks()
{
_simulator = new Simulator(_sectorGenerator.Object, _simulationRepository.Object, _empireGenerator.Object, _economicSimulator.Object, _militarySimulator.Object, _diplomacySimulator.Object, _deltaApplier.Object);
_simulationRepository.Setup(x => x.GetSimulation(It.IsAny <ObjectId>()))
.Returns(new Simulation {
EmpireIds = new ObjectId[0]
});
}
/// <summary>
/// Calculates(approximation) the engine power for a given throttle position at a given RPM
/// It always needs a combination of both ISimulator and Car. Car value can be null, and it will search for the Player car.
/// </summary>
/// <param name="sim">Simulator for the garage plug-in to search in</param>
/// <param name="car">Direct car to search in</param>
/// <param name="engineRpm">Engine RPM</param>
/// <param name="pedalsThrottle">Throttle position 0.0-1.0</param>
/// <returns>Engine power (kW)</returns>
public double GetPower(ISimulator sim, ICar car, double engineRpm, double pedalsThrottle)
{
if (sim.Garage != null && sim.Garage.Available)
{
if (car == null)
{
// Look up car.
try
{
car = sim.Garage.SearchCar(sim.Drivers.Player.CarClass, sim.Drivers.Player.CarModel);
}
catch (Exception ex)
{
}
if (car == null)
{
return(0);
}
car.ScanEngine();
if (car.Engine == null)
{
return(0);
}
}
// We got engine info:
var engineCurve = car.Engine.GetPowerCurve(0, pedalsThrottle, 0);
double engineRpmBefore = 0, engineRpmAfter = 0, enginePowerBefore = 0, enginePowerAfter = 0;
foreach (var engineCurveKvp in engineCurve)
{
if (engineRpmBefore < engineRpm && engineCurveKvp.Key >= engineRpm)
{
engineRpmAfter = engineCurveKvp.Key;
enginePowerAfter = engineCurveKvp.Value;
break;
}
engineRpmBefore = engineCurveKvp.Key;
enginePowerBefore = engineCurveKvp.Value;
}
if (engineRpmAfter == 0) // didn't find our RPM in the curve:
{
return(enginePowerBefore);
}
double engineRpmDutyCycle = (engineRpm - engineRpmBefore) / (engineRpmAfter - engineRpmBefore);
double enginePowerSlope = (enginePowerAfter - enginePowerBefore);
double enginePower = engineRpmDutyCycle * enginePowerSlope + enginePowerBefore;
return(Power.HP_KW(enginePower));
}
else
{
return(0);
}
}
public void Add_AddsSimulator()
{
ISimulation simulation = Simulation.Create();
ISimulator simulator = Substitute.For <ISimulator>();
((IAddSimulator)simulation).Add(simulator);
simulation.Simulators.Single().ShouldBeSameAs(simulator);
}
public void ReleaseExclusiveKeyboardAccess()
{
if (exclusiveAccess != TW.Internal.ActiveSimulator)
{
throw new InvalidOperationException("Does not have exclusive access");
}
exclusiveAccess = null;
SpectaterCamera.EnableUserInput = true;
}
public void RequestExclusiveKeyboardAccess()
{
if (exclusiveAccess != null)
{
throw new InvalidOperationException("Another sim has exclusive keyboard access: " + exclusiveAccess);
}
exclusiveAccess = TW.Internal.ActiveSimulator;
SpectaterCamera.EnableUserInput = false;
}
private void m_Lap(ISimulator sim, ILap lap)
{
if (Telemetry.m.Sim != null)
{
Time_Start = Telemetry.m.Sim.Session.Time; // TODO: add local timing if not supported.
// Get the last lap from the game.
PreviousRecords = false;
_mUpdateBestLap.Start();
}
}
public MainWindow()
{
InitializeComponent();
_simulator = new Simulator();
_timeControl.SimulatorTimer = _simulator;
_acceleratorControl.SimulatorAccelerator = _simulator;
_speedControl.SimulatorSpeed = _simulator;
_distanceControl.SimulatorDistance = _simulator;
}
public void Dispose_DoesNotThrow_WhenSimulatorDoesNotImplementIDisposable()
{
ISimulator simulator = Substitute.For <ISimulator>();
ISimulation simulation = Simulation.Create();
((IAddSimulator)simulation).Add(simulator);
Action action = () => simulation.Dispose();
action.ShouldNotThrow();
}
public rFactor(ISimulator sim)
{
Simulator = sim;
Game = new MemoryPolledReader(sim);
Garage = new rFactorGarage();
Session = new Session();
Drivers = new Drivers();
Player = new DriverPlayer();
}
private void renderedControl1_InitializeRender(object sender, RenderEventArgs e)
{
_render = e.Render;
_renderingVisitor = new RenderingVisitor(_render);
_simulator = new DigitalRuneSimulator();
_simulator.AddForceEffect(new GravityForceEffect());
Samples.SetSimpleScene(_simulator);
_previousTickCount = Environment.TickCount;
_startTickCount = _previousTickCount;
}
public override void Process(ISimulator simulator, double tick)
{
foreach (var handle in simulator.GetHandlesForProcessor(Aspect))
{
Console.BackgroundColor = RenderComponent.Color[handle.Index];
Console.Clear();
var x = TransformComponent.X[handle.Index];
var y = TransformComponent.Y[handle.Index];
Console.SetCursorPosition(x, y);
Console.Write(RenderComponent.Text[handle.Index]);
}
}
public MemoryPolledReader(ISimulator sim)
: base()
{
this.sim = sim;
Active = true;
// Start up thread
ProcessName = sim.ProcessName;
Poller = new Thread(Polling);
Activate();
Triton.TritonBase.PreExit += new Triton.AnonymousSignal(TritonBase_PreExit);
}
public Program(
IInput input,
IOutput output,
IMessageBoard messageBoard,
IDispatcher dispatcher,
ISimulator simulator)
{
this.input = input;
this.output = output;
this.dispatcher = dispatcher;
this.simulator = simulator;
messageBoard.Receive<QuitCommand>(OnQuit);
}
public override void Process(ISimulator simulator, double tick)
{
foreach(var handle in simulator.GetHandlesForProcessor(Aspect))
{
if(VelocityComponent.MoveByX[handle.Index] != 0)
{
TransformComponent.X[handle.Index] += VelocityComponent.MoveByX[handle.Index];
VelocityComponent.MoveByX[handle.Index] = 0;
}
if (VelocityComponent.MoveByY[handle.Index] != 0)
{
TransformComponent.Y[handle.Index] += VelocityComponent.MoveByY[handle.Index];
VelocityComponent.MoveByY[handle.Index] = 0;
}
}
}
/// <summary>
/// Generates Voltage Sensitivities to changes in P and Q at each load bus on
/// the network.
/// </summary>
/// <remarks>
/// This is a convenience class that uses the functionality supplied by
/// <see cref="SensitivityGenerator{T}"/> and <see cref="PerturbAndObserveRunner{T}"/>.
/// For other kinds of sensitivities, you may wish to use these classes directly.</remarks>
/// <param name="Simulator">The simulator to use for the generation of sensitivities.</param>
/// <param name="NetworkMasterFile">The file path of the Network to calculate sensitivities for.</param>
/// <param name="CommandString">A command for issuing perturbations. The command should be
/// compatible with <see cref="String.Format(String,Object[])"/>-style format strings, and should
/// use <c>{0}</c> to represent a random ID, <c>{1}</c> to represent the bus that perturbation should occur
/// on, <c>{2}</c> to represent a kW quantity to perturb by and <c>{3}</c> to represent a kVAr quantity to
/// perturb by.
/// <example>
/// As an example, the following string specifies a new generator for perturbation in OpenDSS syntax:
/// <code>
/// "new Generator.{0} bus1={1} phases=3 model=1 status=fixed kV=11 Vminpu=0.9 Vmaxpu=1.1 kW={2} kvAR={3}"</code></example></param>
/// <param name="PerturbationFrac">The fraction of average load size to perturb by.</param>
/// <returns>A 2-axis dictionary, in which the X-axis represents the source bus, the Y-axis represents the affected bus,
/// and the values are an index of sensitivity information.</returns>
public static TwinKeyDictionary<String, String, VoltageSensitivityToPQDataSet> GetVoltageSensitivityToComplexPower(ISimulator Simulator, String NetworkMasterFile, String CommandString, double PerturbationFrac)
{
PerturbAndObserveRunner<Complex> perturbAndObserve = new PerturbAndObserveRunner<Complex>(Simulator);
NetworkController controller = new NetworkController(Simulator);
controller.NetworkFilename = NetworkMasterFile;
controller.Execute();
var avgLoad = controller.Network.Loads.Select(load=>load.ActualKVA).Aggregate((seed,elem) => seed+elem);
avgLoad /= controller.Network.Loads.Count;
perturbAndObserve.NetworkFilename = NetworkMasterFile;
perturbAndObserve.ObserveElementSelector = network => network.Buses.Values.Where(bus => bus.ConnectedTo.OfType<Load>().Any());
perturbAndObserve.PerturbElementSelector = perturbAndObserve.ObserveElementSelector;
perturbAndObserve.PerturbCommands = new []{CommandString};
perturbAndObserve.ObserveElementValuesSelector = elem => ((Bus)elem).Voltage;
SensitivityGenerator<Complex> generator = new SensitivityGenerator<Complex>();
//real
perturbAndObserve.PerturbElementValuesSelector = bus => new Object[] {"inject-"+bus.ID,bus.ID,PerturbationFrac * avgLoad.Real, 0};
perturbAndObserve.PerturbValuesToRecord = vars => vars[2];
perturbAndObserve.RunPerturbAndObserve();
generator.RecordedPerturbationSelector = x => x;
generator.ResultSelector = x => x.Magnitude;
var MagnitudeDictionaryReal = generator.GenerateSensitivities(perturbAndObserve);
generator.ResultSelector = x => x.Phase;
var PhaseDictionaryReal = generator.GenerateSensitivities(perturbAndObserve);
//imaginary
perturbAndObserve.PerturbElementValuesSelector = bus => new Object[] { "inject-" + bus.ID, bus.ID, 0, PerturbationFrac * avgLoad.Imaginary };
perturbAndObserve.PerturbValuesToRecord = vars => vars[3];
perturbAndObserve.RunPerturbAndObserve();
generator.RecordedPerturbationSelector = x => x;
generator.ResultSelector = x => x.Magnitude;
var MagnitudeDictionaryImag = generator.GenerateSensitivities(perturbAndObserve);
generator.ResultSelector = x => x.Phase;
var PhaseDictionaryImag = generator.GenerateSensitivities(perturbAndObserve);
// now merge all the dictionaries.
return TwinKeyDictionaryMerge(MagnitudeDictionaryReal, MagnitudeDictionaryImag, PhaseDictionaryReal, PhaseDictionaryImag);
}
public override void Process(ISimulator simulator, double tick)
{
var transform = simulator.GetComponent<TransformComponent>();
var velocity = simulator.GetComponent<VelocityComponent>();
foreach (var handle in simulator.GetHandlesForProcessor(Aspect))
{
if (velocity.MoveByX[handle.Index] != 0)
{
transform.X[handle.Index] += velocity.MoveByX[handle.Index];
velocity.MoveByX[handle.Index] = 0;
}
if (velocity.MoveByY[handle.Index] != 0)
{
transform.Y[handle.Index] += velocity.MoveByY[handle.Index];
velocity.MoveByY[handle.Index] = 0;
}
}
}
/// <summary>
/// Returns power in HP
/// </summary>
/// <param name="sim"></param>
/// <param name="car"></param>
/// <returns></returns>
public double MaximumPower(ISimulator sim, ICar car)
{
if (sim.Garage == null)
return 0;
if (car == null)
{
// Look up car.
car = sim.Garage.SearchCar(sim.Drivers.Player.CarClass, sim.Drivers.Player.CarModel);
if (car == null)
return 0;
car.ScanEngine();
if (car.Engine == null )
return 0;
}
return car.Engine.GetMaximumPower();
}
//[/LockPositions]
public SimWindow() : base(800, 600, GraphicsMode.Default, "Gravitational n-body simulation")
{
_numBodies = 256*64;
const float clusterScale = 1.0f;
const float velocityScale = 1.0f;
_deltaTime = 0.001f;
_softeningSquared = 0.00125f;
_damping = 0.9995f;
//[CreateWorker]
_worker = Worker.CreateByFunc(Generate);
//[/CreateWorker]
_stopwatch = Stopwatch.StartNew();
_fpsCalcLag = 128;
_frameCounter = 0;
//[CreateSimulatros]
_simulators = new Queue<ISimulator>();
var target = GPUModuleTarget.Worker(_worker);
var simulatorGpuDynamicBlockSizeModule = new GpuDynamicSimulatorModule(target); // need dispose
var simulatorGpuDynamicBlockSize64 = simulatorGpuDynamicBlockSizeModule.Create(64);
var simulatorGpuDynamicBlockSize128 = simulatorGpuDynamicBlockSizeModule.Create(128);
var simulatorGpuDynamicBlockSize256 = simulatorGpuDynamicBlockSizeModule.Create(256);
var simulatorGpuDynamicBlockSize512 = simulatorGpuDynamicBlockSizeModule.Create(512);
var simulatorGpuStaticBlockSizeModule64 = new GpuStaticSimulatorModule64(target); // need dispose
var simulatorGpuStaticBlockSizeModule128 = new GpuStaticSimulatorModule128(target); // need dispose
var simulatorGpuStaticBlockSizeModule256 = new GpuStaticSimulatorModule256(target); // need dispose
var simulatorGpuStaticBlockSizeModule512 = new GpuStaticSimulatorModule512(target); // need dispose
// First, enquene one simulator which is 256 blocksize so we can compare with C code for performance.
_simulators.Enqueue(simulatorGpuStaticBlockSizeModule256);
// Enqueue several dynamic block size simulators.
_simulators.Enqueue(simulatorGpuDynamicBlockSize64);
_simulators.Enqueue(simulatorGpuDynamicBlockSize128);
_simulators.Enqueue(simulatorGpuDynamicBlockSize256);
_simulators.Enqueue(simulatorGpuDynamicBlockSize512);
// Enqueue several static block size simulators.
_simulators.Enqueue(simulatorGpuStaticBlockSizeModule64);
_simulators.Enqueue(simulatorGpuStaticBlockSizeModule128);
_simulators.Enqueue(simulatorGpuStaticBlockSizeModule256);
_simulators.Enqueue(simulatorGpuStaticBlockSizeModule512);
// We do not enqueue any cpu simulator as it is much too slow.
//_simulators.Enqueue(new CpuSimulator(_worker, _numBodies));
_disposeSimulators = () =>
{
simulatorGpuDynamicBlockSizeModule.Dispose();
simulatorGpuStaticBlockSizeModule64.Dispose();
simulatorGpuStaticBlockSizeModule128.Dispose();
simulatorGpuStaticBlockSizeModule256.Dispose();
simulatorGpuStaticBlockSizeModule512.Dispose();
};
_simulator = _simulators.Dequeue();
//[/CreateSimulatros]
//[CreateBuffers]
_buffers = new uint[2];
for (var i = 0; i < _buffers.Length; i++)
{
_buffers[i] = 0;
}
GL.GenBuffers(_buffers.Length, _buffers);
foreach (var buffer in _buffers)
{
GL.BindBuffer(BufferTarget.ArrayBuffer, buffer);
GL.BufferData(BufferTarget.ArrayBuffer,
(IntPtr) (Microsoft.FSharp.Core.Operators.SizeOf<float4>()*_numBodies),
IntPtr.Zero, BufferUsageHint.DynamicDraw);
var size = 0;
unsafe
{
GL.GetBufferParameter(BufferTarget.ArrayBuffer, BufferParameterName.BufferSize, &size);
}
if (size != Microsoft.FSharp.Core.Operators.SizeOf<float4>()*_numBodies)
{
throw new Exception("Pixel Buffer Object allocation failed!");
}
GL.BindBuffer(BufferTarget.ArrayBuffer, 0);
CUDAInterop.cuSafeCall(CUDAInterop.cuGLRegisterBufferObject(buffer));
}
_resources = new IntPtr[_buffers.Length];
for (var i = 0; i < _buffers.Length; i++)
{
var res = IntPtr.Zero;
unsafe
{
CUDAInterop.cuSafeCall(CUDAInterop.cuGraphicsGLRegisterBuffer(&res, _buffers[i], 0u));
}
_resources[i] = res;
}
//[/CreateBuffers]
//[FinalizeGL]
_vel = _worker.Malloc<float4>(_numBodies);
float4[] hpos, hvel;
BodyInitializer.Initialize(new BodyInitializer3(), clusterScale, velocityScale, _numBodies,
out hpos, out hvel);
_worker.Scatter(hvel, _vel.Ptr, Microsoft.FSharp.Core.FSharpOption<int>.None,
Microsoft.FSharp.Core.FSharpOption<int>.None);
LockPos(
(pos0, pos1) =>
_worker.Scatter(hpos, pos1, Microsoft.FSharp.Core.FSharpOption<int>.None,
Microsoft.FSharp.Core.FSharpOption<int>.None));
Help();
Description();
//[/FinalizeGL]
}
public void AddedToSimulator(ISimulator simulator)
{
_simulator = simulator;
}
private static void StartSimulator(ISimulator simulator)
{
Console.WriteLine($"Starting Simulator: {simulator.Name}");
if (s_simThread != null)
{
s_simThread.Abort();
s_simThread.Join();
}
simulator.Initialize();
s_simThread = new Thread(simulator.Start);
s_simThread.Start();
}
//[GLswitchSimulators]
public void SwitchSimulator()
{
_simulators.Enqueue(_simulator);
_simulator = _simulators.Dequeue();
Description();
_frameCounter = 0;
_stopwatch.Restart();
}
void ucGame_Chosen(object sim)
{
Sim = Telemetry.m.Sims.Sims.Find(delegate(ISimulator s) { return s.Name.Equals(sim.ToString()); });
if (Sim.Garage == null)
// TODO: Display errors.
// TODO: Check if sim is installed.
Window = GarageWindow.GameSelect;
else
{
Window = GarageWindow.TrackCars;
Sim.Garage.Scan();
}
Redraw();
}
public void RemovedFromSimulator(ISimulator simulator)
{
_simulator = null;
}
public abstract void Process(ISimulator space, double time);
/// <summary>
/// Fire Sim Stop event.
/// </summary>
/// <param name="me">Simulator stopped</param>
internal void Report_SimStop(ISimulator me)
{
Debug.WriteLine("SimStop fired");
if (Sim_Stop != null)
Sim_Stop(me);
}
/// <summary>
/// Load new track. Specify location of gamedirectory and file.
/// </summary>
/// <param name="sim">Source simulator of track</param>
/// <param name="track">Relative path from gamedirectory to track file OR track name.</param>
public void Track_Load(ISimulator sim, string track)
{
if (Net == null || !Net.IsClient)
{
Track = new Track.Track(sim, track);
}
}
/// <summary>
/// Fire Lap event.
/// </summary>
/// <param name="me">Simulator of which session stopped</param>
internal void Report_Laps(ISimulator me, ILap lap)
{
Debug.WriteLine("Laps fired");
if (Lap != null)
Lap(me , lap);
}
public void setSimulator(ISimulator sim)
{
this.sim = sim;
/*this.maxHeight = sim.maxHeight;
this.mapSize = sim.mapSize;
this.objects = sim.map.elements;
this.action = sim.action;*/
ready = true;
SetupViewport();
}
public ZigzagPatternEA3()
{
m_simulator = new TickSimulator(this); //new RateSimulator()
}
private void ActionBack()
{
switch(Window)
{
case GarageWindow.GameSelect:
this.Close();
break;
case GarageWindow.TrackCars:
Window = GarageWindow.GameSelect;
break;
case GarageWindow.Mod:
Window = GarageWindow.TrackCars;
break;
}
if (Window == GarageWindow.GameSelect)
Sim = null;
Redraw();
}
/// <summary>
/// Instantiates a <see cref="NetworkController"/> using the provided simulator.
/// </summary>
/// <param name="sim">The simulator object to use for simulations.</param>
public NetworkController(ISimulator sim)
{
simulator = sim;
CacheNetwork = true;
}
/// <summary>
/// Fire Driving Stop event.
/// </summary>
/// <param name="sim">Simulator with drive session stopped</param>
private void Report_DrivingStop(ISimulator sim)
{
Debug.WriteLine("DrivingStop fired");
if (Driving_Stop != null)
Driving_Stop(sim);
}
/// <summary>
/// Fire Session Stop event.
/// </summary>
/// <param name="me">Simulator of which session stopped</param>
internal void Report_SessionStop(ISimulator me)
{
Debug.WriteLine("SessionStop fired");
if (Session_Stop != null)
Session_Stop(me);
}
private void m_Lap(ISimulator sim, ILap lap)
{
if (Telemetry.m.Sim != null)
{
Time_Start = Telemetry.m.Sim.Session.Time; // TODO: add local timing if not supported.
// Get the last lap from the game.
PreviousRecords = false;
_mUpdateBestLap.Start();
}
}
