public void UpdateEntityTest()
{
var ctx = new SimulationContext(true);
Random random = new Random();
EntityPool pool = new EntityPool(ctx);
var entities = CreateEntities(ctx.LocalSpace, 3);
foreach (var e in entities)
{
Assert.IsTrue(pool.Insert(e));
}
for (int i = 0; i < 10; i++)
{
Entity old = entities[0];
Entity moved = Relocate(old);
Assert.IsTrue(pool.Contains(old.ID));
Assert.IsTrue(pool.UpdateEntity(entities[0], moved), "Update moved entity " + i);
Assert.IsFalse(pool.Contains(old.ID));
entities[0] = moved;
Assert.AreEqual(pool.Count, entities.Count);
foreach (var e in entities)
{
Assert.IsTrue(pool.Contains(e.ID.Guid));
Assert.IsTrue(pool.Contains(e.ID));
}
}
}
public Creature(int xPos, int yPos, SimulationContext context, int energy,
int strength, Species species, Direction direction) : base(xPos, yPos, context)
{
Species = species;
Energy = energy;
Strength = strength;
Direction = direction;
_context = context;
IsAlive = true;
switch (species.Digestion)
{
case Digestion.Carnivore:
Color = Color.Red;
break;
case Digestion.Herbivore:
Color = Color.Brown;
break;
case Digestion.OmnivoreCreature:
case Digestion.OmnivorePlant:
Color = Color.Yellow;
break;
case Digestion.Nonivore:
Color = Color.Purple;
break;
default:
throw new ArgumentOutOfRangeException();
}
}
private static bool IsModelEmpty(SimulationContext context)
{
bool isEmpty = true;
if (personGenerator.PersonsPool.Count > 0)
{
isEmpty = false;
}
foreach (Lift l in lifts)
{
if (l.CurrentLoad > 0)
{
isEmpty = false;
}
if (l.RequestedFloors.Count > 0)
{
isEmpty = false;
}
}
foreach (Floor f in personGenerator.Floors)
{
if (f.PersonsWaiting.Count > 0)
{
isEmpty = false;
}
}
return(isEmpty);
}
public override void ProcessEntity(SimulationContext context, Entity entity, DirectControlComponent controller, PhysicsComponent physicsComponent)
{
var body = physicsComponent.Body;
if (context.DeltaTime == 0)
{
return;
}
if (controller.Translational.Any(v => Math.Abs(v) > 0.1f))
{
body.ApplyLocalCentralImpulse((controller.Translational * maximumTranslational).ClampLength(maximumTranslational), context.DeltaTime);
}
else
{
body.ApplyGlobalCentralImpulse(-body.LinearVelocity.ClampLength(maximumTranslational), context.DeltaTime);
}
if (controller.Steering.Any(v => Math.Abs(v) > 0.1f))
{
body.ApplyLocalTorqueImpulse((controller.Steering * maximumRotational).ClampLength(maximumRotational), context.DeltaTime);
}
else
{
body.ApplyGlobalTorqueImpulse(-body.AngularVelocity.ClampLength(maximumRotational), context.DeltaTime);
}
// Console.WriteLine("DC Angular velocity length: {0}", body.AngularVelocity.Length());
// Console.WriteLine(body.totalForce);
base.ProcessEntity(context, entity, controller, physicsComponent);
}
/// <summary>
/// Creates a simulator with a provided desired end state.
/// </summary>
/// <param name="simulations">The simulations to execute.</param>
/// <param name="initialContext">The initial simulation context.</param>
/// <param name="endState">The desired end state of the simulation.</param>
/// <returns>A simulator instance.</returns>
public static Simulator CreateWithDesiredEndState(Simulation simulation, SimulationContext initialContext, IsSimulationCompleteDelegate checkForSuccessDelegate)
{
Simulator simulator = new Simulator(simulation, initialContext);
simulator.IsSimulationComplete = checkForSuccessDelegate;
return(simulator);
}
public async Task <List <AgentStatistic> > RunSim(int simulationId, int simulationNumber)
{
AgentStatistic.Log = new List <string>();
Debug.WriteLine("Simulation Starts");
_messageHub.SendToAllClients("Simulation starts...");
using (var context = new SimulationContext(isDefaultContextForProcess: true))
{
// initialise the model
var system = await CreateModel(context : context, simulationId : simulationId, simNr : simulationNumber);
// instantate a new simulator
var simulator = new Simulator();
// run the simulation
await simulator.SimulateAsync(0);
// Debug
Debuglog(simulationContext: context, productionDomainContextContext: _productionDomainContext, simNr: simulationNumber, simId: simulationId);
var simulationNr = _productionDomainContext.GetSimulationNumber(simulationId, SimulationType.Decentral);
Statistics.UpdateSimulationId(simulationId, SimulationType.Decentral, simulationNumber);
_productionDomainContext.SimulationWorkschedules.AddRange(SimulationWorkschedules);
_productionDomainContext.SaveChanges();
SaveStockExchanges(simulationId, simulationNr, context);
//UpdateStockExchanges(simulationId, simulationNr);
}
return(Agent.AgentStatistics);
}
private static void InitiateModel(SimulationContext context, int nbLifts, int nbFloors, int liftMaximumCapacity, int liftMethod, int simulationMinuteTime, int seed, long meanWorkTime, double meanPerson)
{
lifts = new List <Lift>();
Random rand = new Random();
List <ConcurrentQueue <Person> > personsQueues = new List <ConcurrentQueue <Person> >();
for (int i = 0; i < nbFloors; i++)
{
personsQueues.Add(new ConcurrentQueue <Person>());
}
personGenerator = new PersonGenerator(personsQueues, nbFloors, meanPerson, simulationMinuteTime);
for (int i = 0; i < nbLifts; i++)
{
if (liftMethod == 0)
{
lifts.Add(new Lift(liftMaximumCapacity, nbFloors, new Random(seed), personGenerator, new LinearScanOrdonancer((int)LinearScanOrdonancer.Heading.UPWARDS, 0), meanWorkTime));
}
if (liftMethod == 1)
{
lifts.Add(new Lift(liftMaximumCapacity, nbFloors, new Random(seed), personGenerator, new ShorterSeekTimeFirstOrdonancer((int)LinearScanOrdonancer.Heading.UPWARDS, 0), meanWorkTime));
}
if (liftMethod == 2)
{
lifts.Add(new Lift(liftMaximumCapacity, nbFloors, new Random(seed), personGenerator, new DefaultOrdonancer((int)LinearScanOrdonancer.Heading.UPWARDS, 0), meanWorkTime));
}
}
new SimulationEndTrigger(() => context.TimePeriod >= simulationMinuteTime * 60 && IsModelEmpty(context));
}
/// <summary>
/// Run this example
/// </summary>
public static void Run()
{
// Make a simulation context
using (var context = new SimulationContext(isDefaultContextForProcess: true))
{
// Add the resources that represent the staff of the call center
context.Register <Level1CallCenterStaffMember>(new Level1CallCenterStaffMember()
{
Capacity = 10
});
context.Register <Level2CallCenterStaffMember>(new Level2CallCenterStaffMember()
{
Capacity = 5
});
// Add the processes that represent the phone calls to the call center
IEnumerable <Call> calls = GeneratePhoneCalls(context,
numberOfCalls: 500,
level1CallTime: 120,
level2CallTime: 300,
callTimeVariability: 0.5,
callStartTimeRange: 14400);
// instantate a new simulator
var simulator = new Simulator();
// run the simulation
simulator.Simulate();
// output the statistics
OutputResults(calls);
}
}
public void AddToTest()
{
var ctx = new SimulationContext(true);
Random random = new Random();
List <Entity> testEntities = CreateEntities(ctx.LocalSpace, 100);
EntityPool original = new EntityPool(ctx);
foreach (var e in testEntities)
{
Assert.IsTrue(original.Insert(e));
}
original.VerifyIntegrity();
var h0 = original.HashDigest;
for (int i = 0; i < 100; i++)
{
EntityPool compare = new EntityPool(ctx);
random.Shuffle(testEntities);
foreach (var e in testEntities)
{
Assert.IsTrue(compare.Insert(e));
}
compare.VerifyIntegrity();
var h1 = compare.HashDigest;
Assert.AreEqual(h0, h1);
}
}
void SimulateScenariosCallback(object context)
{
Interval <int, object> pi = (Interval <int, object>)context;
SimulationContext simData = pi.data as SimulationContext;
SimulateScenariosCallback(simData.paths, simData.s0, simData.v0, simData.kappa, simData.theta, simData.sigma, simData.rho, simData.horizon, pi.sp, pi.ep);
}
public void EntityMotionTest()
{
int numEntities = 100;
var ctx = new SimulationContext(true);
EntityPool pool = new EntityPool(EntityPoolTests.CreateEntities(ctx.LocalSpace, numEntities, i => new RandomMotion()), ctx);
InconsistencyCoverage ic = InconsistencyCoverage.NewCommon();
for (int i = 0; i < 100; i++)
{
var old = pool.ToArray();
EntityChangeSet set = new EntityChangeSet();
ctx.SetGeneration(i);
var errors = pool.TestEvolve(set, InconsistencyCoverage.NewCommon(), i, TimeSpan.FromSeconds(1));
Assert.IsNull(errors, errors != null ? errors[0].ToString() : "");
Assert.AreEqual(numEntities, set.FindNamedSet("motions").Size);
foreach (var e in old)
{
var m = set.FindMotionOf(e.ID.Guid);
Assert.IsNotNull(m);
Assert.AreNotEqual(m.TargetLocation, m.Origin.Position, i.ToString());
Assert.IsTrue(Simulation.FullSimulationSpace.Contains(m.TargetLocation));
Assert.IsTrue(Simulation.MySpace.Contains(m.TargetLocation));
}
Assert.AreEqual(0, set.Execute(pool, ic, ctx));
Assert.AreEqual(numEntities, pool.Count);
Entity e1;
foreach (var e in old)
{
Assert.IsTrue(pool.Find(e.ID.Guid, out e1));
Assert.AreNotEqual(e.ID.Position, e1.ID.Position);
}
}
}
public void CanComplete_BeforeAndAfterEvent_ReturnsTrueOnlyAfterEvent()
{
using (var context = new SimulationContext(isDefaultContextForProcess: true)){
var waitInstruction = new WaitNotificationInstruction <object>();
var process = new InstructionListTestProcess(new List <InstructionBase>()
{
waitInstruction
});
context.MoveToTimePeriod(0);
process.SimulationState.InstructionEnumerator = process.Simulate();
process.SimulationState.InstructionEnumerator.MoveNext();
var testEvent = new TestNotification();
var raiseInstruction = new RaiseNotificationInstruction <object>(testEvent);
long?nextTimePeriodCheck;
bool canComplete = waitInstruction.CanComplete(context, out nextTimePeriodCheck);
Assert.IsFalse(canComplete);
Assert.IsNull(nextTimePeriodCheck);
raiseInstruction.Complete(context);
canComplete = waitInstruction.CanComplete(context, out nextTimePeriodCheck);
Assert.IsTrue(canComplete);
Assert.IsNull(nextTimePeriodCheck);
}
}
public void Complete_ResourcesAllocated_ResourcesDeallocated()
{
using (var context = new SimulationContext())
{
int resouceCapacity = 5;
var testResourceSet1 = new TestResource(context, resouceCapacity)
{
Code = "First", Priority = 10
};
context.Register <TestResource>(testResourceSet1);
var allocateInstruction = new AllocateInstruction <TestResource>(resouceCapacity);
allocateInstruction.Complete(context);
Assert.AreEqual(resouceCapacity, testResourceSet1.Allocated);
Assert.AreEqual(testResourceSet1.Allocated, allocateInstruction
.Allocations
.First(al => al.Key == testResourceSet1)
.Value);
var releaseInstruction = new ReleaseInstruction <TestResource>(allocateInstruction);
long?nextTimePeriodCheck;
bool canComplete = releaseInstruction.CanComplete(context, out nextTimePeriodCheck);
Assert.IsTrue(canComplete);
Assert.IsNull(nextTimePeriodCheck);
releaseInstruction.Complete(context);
Assert.AreEqual(0, testResourceSet1.Allocated);
Assert.IsTrue(allocateInstruction.IsReleased);
}
}
public override bool CanComplete(SimulationContext context, out long?skipFurtherChecksUntilTimePeriod)
{
HasCanCompleteBeenCalled = true;
skipFurtherChecksUntilTimePeriod = CanCompleteNextTimePeriodResult;
return(CanCompleteResult);
}
protected override void OnCreate()
{
m_BuildPhysicsWorldSystem = World.GetOrCreateSystem <KitchenBuildPhysicsWorld>();
SimulationContext = new SimulationContext();
SimulationContext.Reset(ref m_BuildPhysicsWorldSystem.PhysicsWorld);
}
/// <summary>
/// Determines whether this instruction can complete in the current time period
/// </summary>
/// <returns>
/// <c>true</c> if this instance can complete.
/// </returns>
/// <param name='context'>
/// Context providing state information for the current simulation
/// </param>
/// <param name='skipFurtherChecksUntilTimePeriod'>
/// Output parameter used to specify a time period at which this instruction should be checked again. This should be left null if it is not possible to determine when this instruction can complete.
/// </param>
public override bool CanComplete(SimulationContext context, out long?skipFurtherChecksUntilTimePeriod)
{
skipFurtherChecksUntilTimePeriod = null;
// it is always possible to release
return(true);
}
public void Complete_ActivitySpecified_ActivityScheduled()
{
using (var context = new SimulationContext(isDefaultContextForProcess:true)){
long waitTime = 10;
var activity = new Activity();
var instruction = new ScheduleActivityInstruction(activity, waitTime);
long? nextTimePeriod;
bool canComplete = instruction.CanComplete(context, out nextTimePeriod);
Assert.IsTrue(canComplete);
Assert.IsNull(nextTimePeriod);
instruction.Complete(context);
context.MoveToTimePeriod(0);
var process = context.ActiveProcesses.FirstOrDefault(p=>p is ActivityHostProcess);
var activityHost = process as ActivityHostProcess;
Assert.IsNotNull(process);
Assert.IsNotNull(activityHost);
Assert.AreEqual(waitTime, activityHost.WaitTime);
Assert.AreEqual(activity, activityHost.Activity);
}
}
public void Complete_Multiple_ReturnsTrueOnlyWhenEnoughResources()
{
using (var context = new SimulationContext(isDefaultContextForProcess:true)){
int resouceCapacity = 5;
var testResourceSet1 = new TestResource(resouceCapacity) { Code = "First", Priority = 10 };
context.Register<TestResource>(testResourceSet1);
// try to allocate one more than the total resources
var allocateInstruction = new AllocateInstruction<TestResource>(resouceCapacity + 1);
long? nextTimePeriodCheck;
bool canComplete = allocateInstruction.CanComplete(context, out nextTimePeriodCheck);
// allocation not possilbe
Assert.IsNull(nextTimePeriodCheck);
Assert.IsFalse(canComplete);
// try to allocate the max available
allocateInstruction = new AllocateInstruction<TestResource>(resouceCapacity);
canComplete = allocateInstruction.CanComplete(context, out nextTimePeriodCheck);
// allocation is possible
Assert.IsNull(nextTimePeriodCheck);
Assert.IsTrue(canComplete);
allocateInstruction.Complete(context);
Assert.AreEqual(resouceCapacity, testResourceSet1.Allocated);
Assert.AreEqual(testResourceSet1.Allocated, allocateInstruction
.Allocations
.First(al=>al.Key == testResourceSet1)
.Value);
}
}
public void MoveToTimePeriod_TimePeriodSpecified_ProcessCollectionsInitialised()
{
using (var context = new SimulationContext()){
var process1 = new Process(context);
var process2 = new Process(context);
var process3 = new Process(context);
var processes = new List <Process>()
{
process1,
process2,
process3
};
Assert.AreEqual(0, context.TimePeriod);
context.MoveToTimePeriod(1);
Assert.AreEqual(1, context.TimePeriod);
Assert.AreEqual(processes.Count, context.ActiveProcesses.Count);
foreach (var process in processes)
{
Assert.IsTrue(context.ActiveProcesses.Contains(process));
Assert.IsTrue(context.ProcessesRemainingThisTimePeriod.Contains(process));
}
}
}
/// <summary>
/// Determines whether this instruction can complete in the current time period. The composite instruction can complete, if all contained instructions can complete
/// </summary>
/// <returns>
/// <c>true</c> if this instance can complete.
/// </returns>
/// <param name='context'>
/// Context providing state information for the current simulation
/// </param>
/// <param name='skipFurtherChecksUntilTimePeriod'>
/// Output parameter used to specify a time period at which this instruction should be checked again. This should be left null if it is not possible to determine when this instruction can complete.
/// </param>
public override bool CanComplete(SimulationContext context, out long? skipFurtherChecksUntilTimePeriod)
{
skipFurtherChecksUntilTimePeriod = null;
bool canComplete = true;
bool nullCheckTimePeriodEncountered = false;
// iterate through all contained instructions, check whether they can all complete
// the value returned in skipFurtherChecksUntilTimePeriod is the lowest value of any instrution, and null if any return null for this value
foreach(InstructionBase instruction in _instructions){
long? nextCheckTimePeriod = null;
bool thisInstructionCanComplete = instruction.CanComplete(context, out nextCheckTimePeriod);
if (!thisInstructionCanComplete){
canComplete = false;
if (nextCheckTimePeriod == null){
nullCheckTimePeriodEncountered = true;
nextCheckTimePeriod = null;
}
else if (!nullCheckTimePeriodEncountered &&
(skipFurtherChecksUntilTimePeriod == null || skipFurtherChecksUntilTimePeriod > nextCheckTimePeriod)){
skipFurtherChecksUntilTimePeriod = nextCheckTimePeriod;
}
}
}
if (canComplete){
skipFurtherChecksUntilTimePeriod = null;
}
return canComplete;
}
public override void ProcessEntity(SimulationContext context, Entity entity, BehaviorComponent component1, PhysicsComponent component2)
{
Body body = component2.Body;
var neighbors = Neighbors(radius, body);
var desire = Vector3.Zero;
desire += Steering.Cohesion(radius, body.LinearPosition, neighbors);
desire += Steering.Separation(radius, body.LinearPosition, neighbors);
desire += Steering.Traveling(neighbors);
desire += Steering.Arrival(Vector3.Zero, body, 1, 1);
var angularTarget = Steering.Alignment(body.AngularPosition, neighbors);
var angularDistance = Quaternion.Distance(body.AngularPosition, angularTarget);
//Console.Write(angularDistance.ToString("n2") + ", ");
if (angularDistance > 0)
{
var scaled = Math.Min(1, maxAngularVelocity * context.DeltaTime / angularDistance);
body.AngularPosition = Quaternion.Lerp(body.AngularPosition, angularTarget, scaled);
}
body.LinearVelocity += desire * context.DeltaTime;
body.ClearForces();
body.AngularPosition = Quaternion.LookAt(-body.LinearVelocity, body.AngularPosition.Transform(Vector3.Up));
}
public WindManager(SimulationContext ctx) : base(ctx)
{
//Create and fill UvData
InitBuffer();
_windLayers = new List <WindLayer>();
}
public void CanComplete_BeforeAndAfterEvent_ReturnsTrueOnlyAfterEvent()
{
using (var context = new SimulationContext(isDefaultContextForProcess:true)){
var waitInstruction = new WaitNotificationInstruction<object>();
var process = new InstructionListTestProcess(new List<InstructionBase>(){ waitInstruction});
context.MoveToTimePeriod(0);
process.SimulationState.InstructionEnumerator = process.Simulate();
process.SimulationState.InstructionEnumerator.MoveNext();
var testEvent = new TestNotification();
var raiseInstruction = new RaiseNotificationInstruction<object>(testEvent);
long? nextTimePeriodCheck;
bool canComplete = waitInstruction.CanComplete(context, out nextTimePeriodCheck);
Assert.IsFalse(canComplete);
Assert.IsNull(nextTimePeriodCheck);
raiseInstruction.Complete(context);
canComplete = waitInstruction.CanComplete(context, out nextTimePeriodCheck);
Assert.IsTrue(canComplete);
Assert.IsNull(nextTimePeriodCheck);
}
}
public void Init(SimulationContext context, List<User> users, ReportProgressDelegate reporter)
{
List<User> ulRsrpFailUserList;
List<User> dlRsrpFailUserList;
ICommonChannelMeasure measure = context.ProcessorFactory.BuildCommonChannelMeasure();
ITotalLossMatrix matrix = context.ProcessorFactory.BuildTotalLossMatrix(context.SimulationInfo.SubSysInterface, context.SimulationInfo.Coefficientabc);
List<ISimulationUser> userList = this.InitSimulationUser(users);
context.DataManager.SimulationUserList = userList;
context.DataManager.UlUserNum = 0;
context.DataManager.DlUserNum = 0;
foreach (SimulationUser user in userList)
{
this.InitUserState(user, context.DataManager);
}
matrix.InitUserTotalLossList(userList, context.DataManager.SimulationCarrierList, reporter);
context.ProcessorFactory.BuildBestServerCell().DetermineUserServerCell(userList, out dlRsrpFailUserList, out ulRsrpFailUserList);
context.DataManager.DlRsrpFailUserList = dlRsrpFailUserList;
context.DataManager.UlRsrpFailUserList = ulRsrpFailUserList;
//所有用户
List<ISimulationUser> userlist = new List<ISimulationUser>();
foreach (SimulationCarrier carrier in context.DataManager.SimulationCarrierList)
{
userlist.AddRange(carrier.UlUserList);
userlist.AddRange(carrier.DlUserList);
}
this.InitUsersMIMOClutterGain(userlist, context);
this.GetMinAndMaxSinrTarget(userlist);
//计算用户的初始的RS sinr,即IntialDlRsSinr
measure.CalculateIntialDlRsSinr(userlist);
}
/// <summary>
/// Complete the instruction. For this instruction type, this involves putting the simulation into the terminating state.
/// </summary>
/// <param name='context'>
/// Context providing state information for the current simulation.
/// </param>
public override void Complete(SimulationContext context)
{
base.Complete(context);
// Add the event to the wait instructions of all processes currently waiting
if (context.ActiveProcesses != null)
{
foreach (Process process in context.ActiveProcesses)
{
if (process.SimulationState != null &&
process.SimulationState.InstructionEnumerator != null &&
process.SimulationState.InstructionEnumerator.Current != null &&
process.SimulationState.InstructionEnumerator.Current is WaitNotificationInstruction <TNotification> )
{
var waitEventInstruction = (WaitNotificationInstruction <TNotification>)process.SimulationState.InstructionEnumerator.Current;
if (waitEventInstruction.MatchingCondition == null || waitEventInstruction.MatchingCondition(Notification))
{
waitEventInstruction.Notifications.Add(Notification);
}
}
}
}
CompletedAtTimePeriod = context.TimePeriod;
}
public override IEnumerable<PlayerRecommendation> Analyse(Player player, Fixture fixture, SimulationContext context)
{
if (PointMapper == null)
throw new ArgumentException("Invalid property", nameof(PointMapper));
var res = new PlayerRecommendation();
res.Type = PlayerRecommendationType.PlayerPlaytime;
var playerTeam = player.GetLeagueTeam(fixture);
double teamPlayedMinutes = playerTeam.GetPlayedMinutesBeforeFixtureForTeam(fixture);
double playerMinutes = player.GetPlayedMinutesBeforeFixtureForPlayer(fixture);
var percentage = teamPlayedMinutes > 0
? playerMinutes / teamPlayedMinutes
: 0;
var valueMap = new ValueMap();
valueMap["minutes"] = playerMinutes;
valueMap["percentage"] = percentage;
//valueMap["playedgames"] = ;
//valueMap["substitutes-in"] = ;
//valueMap["substitutes-out"] = ;
// todo: add more data points (subs, recent playtime (5 last team games), recent subs)
res.Points = PointMapper.Test(valueMap).Sum(x => x.Points);
yield return res;
}
public void Simulate_Terminated_SimulationEndsAtTerminatedPeriod()
{
using (var context = new SimulationContext(isDefaultContextForProcess: true)){
var processor1Instructions = new List <InstructionBase>()
{
new WaitInstruction(5),
new WaitInstruction(10)
};
var processor2Instructions = new List <InstructionBase>()
{
new WaitInstruction(2),
new TerminateSimulationInstruction(),
new WaitInstruction(9),
};
var processor1 = new InstructionListTestProcess(processor1Instructions);
var processor2 = new InstructionListTestProcess(processor2Instructions);
var simulator = new Simulator();
simulator.Simulate();
Assert.AreEqual(2, context.TimePeriod);
Assert.IsNull(processor1Instructions[0].CompletedAtTimePeriod);
Assert.IsNull(processor1Instructions[1].CompletedAtTimePeriod);
Assert.AreEqual(2, processor2Instructions[0].CompletedAtTimePeriod);
Assert.AreEqual(2, processor2Instructions[1].CompletedAtTimePeriod);
Assert.IsNull(processor2Instructions[2].CompletedAtTimePeriod);
}
}
public void Simulate_ActivitySpecified_ActivityFiredAtTheAppropriateTime()
{
using(var context = new SimulationContext(isDefaultContextForProcess: true)){
var notification = new TestNotification();
var activity = new TestActivity(new List<InstructionBase>() { new RaiseNotificationInstruction<TestNotification>(notification) });
long waitTime = 10;
var process = new ActivityHostProcess(activity, waitTime);
Assert.IsNotNull(process.SimulationState);
Assert.IsTrue(process.SimulationState.IsActive);
var registeredProcesses = context.GetByType<Process>();
Assert.IsTrue(registeredProcesses.Contains(process));
var enumerator = process.Simulate();
bool couldMove = enumerator.MoveNext();
Assert.IsTrue(couldMove);
// first instruction should be the wait instruction
Assert.IsTrue(enumerator.Current is WaitInstruction);
Assert.AreEqual(waitTime, ((WaitInstruction)enumerator.Current).NumberOfPeriodsToWait);
couldMove = enumerator.MoveNext();
Assert.IsTrue(couldMove);
Assert.IsTrue(enumerator.Current is RaiseNotificationInstruction<TestNotification>);
Assert.AreEqual(notification, ((RaiseNotificationInstruction<TestNotification>)enumerator.Current).Notification);
couldMove = enumerator.MoveNext();
Assert.IsFalse(couldMove);
}
}
public void NotifyOnSuccess(SimulationContext context, ref Violation newViolation)
{
if (this.OnSuccess != null)
{
this.OnSuccess(context, ref newViolation);
}
}
public override IEnumerable<PlayerRecommendation> Analyse(Player player, Fixture fixture, SimulationContext context)
{
if (Mapper == null)
throw new ArgumentException("Invalid property", nameof(Mapper));
var res = new PlayerRecommendation();
res.Type = PlayerRecommendationType.ChanceOfPlaying;
// old:
//// Negatives
//if (player.Fantasy.ChanceOfPlayingNextFixture >= 0)
//{
// if (player.Fantasy.ChanceOfPlayingNextFixture <= 0)
// res.Points = -10;
// else if (player.Fantasy.ChanceOfPlayingNextFixture <= 0.25)
// res.Points = -3;
// else if (player.Fantasy.ChanceOfPlayingNextFixture <= 0.50)
// res.Points = -2;
// else if (player.Fantasy.ChanceOfPlayingNextFixture <= 0.75)
// res.Points = -1;
//}
var valueMap = new ValueMap();
valueMap["percentage"] = player.Fantasy.ChanceOfPlayingNextFixture;
res.Points = Mapper.Test(valueMap).Sum(x => x.Points);
yield return res;
}
public void CreatureTestInitialize()
{
_layout = new Layout(1, "Layout 1", 100, 100);
for (var i = 50; i <= 100; i++)
{
for (var j = 1; j <= 100; j++)
{
_layout.addTerritory(i, j);
}
}
_context = new SimulationContext(_layout);
_species = new Species("Dog", 15, 4, Digestion.Carnivore, 20, 60, 10, 100, 0, 95, 20);
_creature1 = new Creature(51, 56, _context, 70, 80, _species, Direction.N);
_creature2 = new Creature(70, 82, _context, 70, 80, _species, Direction.E);
_creature3 = new Creature(83, 85, _context, 70, 80, _species, Direction.S);
_context.AddCreature(_creature1);
_context.AddCreature(_creature2);
_context.AddCreature(_creature3);
_context.AddPlant(50, 51, 56);
_context.AddPlant(60, 84, 63);
_context.AddObstacle(84, 64);
_context.AddObstacle(100, 100);
_context.AddObstacle(83, 86);
}
public override void ProcessEntity(SimulationContext context, Entity entity, TransformComponent component)
{
component.LocalTransform = Matrix4.Transformation(component.Scaling, component.Rotation, component.Translation);
if (component.Parent == null)
{
component.GlobalTransform = component.LocalTransform;
}
else
{
switch (component.Inheritance)
{
case TransformInheritance.All:
case TransformInheritance.Default:
//component.GlobalTransform = component.Parent.GlobalTransform * component.LocalTransform;
component.GlobalTransform = component.LocalTransform * component.Parent.GlobalTransform;
break;
case TransformInheritance.Translation:
var global = component.LocalTransform;
//global.Row4 += component.Parent.GlobalTransform.Row4;
global.Row(3, global.Row(3) + component.Parent.GlobalTransform.Row(3));
global.M44 = 1;
component.GlobalTransform = global;
break;
case TransformInheritance.Rotation | TransformInheritance.Translation:
component.GlobalTransform = component.LocalTransform * RemoveScale(component.Parent.GlobalTransform);
break;
default:
break;
}
}
}
public void Complete_ResourcesAllocated_ResourcesDeallocated()
{
using (var context = new SimulationContext(isDefaultContextForProcess:true)){
int resouceCapacity = 5;
var testResourceSet1 = new TestResource(resouceCapacity) { Code = "First", Priority = 10 };
context.Register<TestResource>(testResourceSet1);
var allocateInstruction = new AllocateInstruction<TestResource>(resouceCapacity);
allocateInstruction.Complete(context);
Assert.AreEqual(resouceCapacity, testResourceSet1.Allocated);
Assert.AreEqual(testResourceSet1.Allocated, allocateInstruction
.Allocations
.First(al=>al.Key == testResourceSet1)
.Value);
var releaseInstruction = new ReleaseInstruction<TestResource>(allocateInstruction);
long? nextTimePeriodCheck;
bool canComplete = releaseInstruction.CanComplete(context, out nextTimePeriodCheck);
Assert.IsTrue(canComplete);
Assert.IsNull(nextTimePeriodCheck);
releaseInstruction.Complete(context);
Assert.AreEqual(0, testResourceSet1.Allocated);
Assert.IsTrue(allocateInstruction.IsReleased);
}
}
public void Simulate_Terminated_SimulationEndsAtTerminatedPeriod()
{
using (var context = new SimulationContext(isDefaultContextForProcess: true)){
var processor1Instructions = new List<InstructionBase>(){
new WaitInstruction(5),
new WaitInstruction(10)
};
var processor2Instructions = new List<InstructionBase>(){
new WaitInstruction(2),
new TerminateSimulationInstruction(),
new WaitInstruction(9),
};
var processor1 = new InstructionListTestProcess(processor1Instructions);
var processor2 = new InstructionListTestProcess(processor2Instructions);
var simulator = new Simulator();
simulator.Simulate();
Assert.AreEqual(2, context.TimePeriod);
Assert.IsNull(processor1Instructions[0].CompletedAtTimePeriod);
Assert.IsNull(processor1Instructions[1].CompletedAtTimePeriod);
Assert.AreEqual(2, processor2Instructions[0].CompletedAtTimePeriod);
Assert.AreEqual(2, processor2Instructions[1].CompletedAtTimePeriod);
Assert.IsNull(processor2Instructions[2].CompletedAtTimePeriod);
}
}
public void Complete_ContextPassed_ProcessActivated()
{
using (var context = new SimulationContext(isDefaultContextForProcess:true)){
var testProcess = new InstructionListTestProcess(new WaitInstruction(10));
var enumerator = testProcess.Simulate();
testProcess.SimulationState.InstructionEnumerator = enumerator;
context.MoveToTimePeriod(0);
Assert.IsTrue(context.ActiveProcesses.Contains(testProcess));
// clear the remaining process queue
context.ProcessesRemainingThisTimePeriod.Clear();
enumerator.MoveNext();
var instruction = new InterruptInstruction(testProcess);
long? nextTimePeriodCheck = null;
bool canComplete = instruction.CanComplete(context, out nextTimePeriodCheck);
Assert.IsTrue(canComplete);
instruction.Complete(context);
Assert.IsTrue(testProcess.SimulationState.IsInterrupted);
// the process should be back in the queue
Assert.IsTrue(context.ProcessesRemainingThisTimePeriod.Contains(testProcess));
Assert.IsTrue(enumerator.Current.IsInterrupted);
Assert.IsFalse(enumerator.Current.IsCompleted);
}
}
protected override async Task Context()
{
await base.Context();
_snapshot = await sut.MapToSnapshot(_populationSimulation, _project);
var populationSimulation = new PopulationSimulation
{
Properties = _simulationProperties,
SimulationSettings = _settings,
Model = _model
};
populationSimulation.AddUsedBuildingBlock(new UsedBuildingBlock("IndTemplateId", PKSimBuildingBlockType.Individual)
{
BuildingBlock = _individual
});
A.CallTo(() => _simulationFactory.CreateFrom(_population, A <IReadOnlyList <Compound> > ._, A <ModelProperties> ._, null)).Returns(populationSimulation);
A.CallTo(() => _populationAnalysisChartMapper.MapToModel(_snapshotPopulationAnalysisChart, A <SimulationAnalysisContext> ._))
.Invokes(x => _context = x.GetArgument <SimulationAnalysisContext>(1))
.Returns(_populationSimulationAnalysisChart);
_snapshotSimulationContext = new SimulationContext(run: false, new SnapshotContext(_project, 10));
}
public void SimpleEntityFaultTest()
{
var ctx = new SimulationContext(true);
EntityPool pool = new EntityPool(EntityPoolTests.CreateEntities(ctx.LocalSpace, 100,
new RandomLogic(new Type[] { typeof(ConsistentLogic), typeof(FaultLogic) }).Instantiate), ctx);
InconsistencyCoverage ic = InconsistencyCoverage.NewCommon();
int any = -1;
for (int i = 0; i < 8; i++)
{
EntityChangeSet set = new EntityChangeSet();
ctx.SetGeneration(i);
var errors = pool.TestEvolve(set, ic, i, TimeSpan.FromSeconds(1));
if (errors != null)
{
Assert.IsTrue(ic.OneCount > 0);
if (any == -1)
{
any = i;
}
}
ic = ic.Grow(true);
Assert.IsTrue(ic.Size == InconsistencyCoverage.CommonResolution);
}
if (any == 0)
{
Assert.AreEqual(ic.OneCount, ic.Size.Product);
}
}
public void Complete_ActivitySpecified_ActivityScheduled()
{
using (var context = new SimulationContext()){
long waitTime = 10;
var activity = new MyActivity();
var instruction = new ScheduleActivityInstruction(activity, waitTime);
long?nextTimePeriod;
bool canComplete = instruction.CanComplete(context, out nextTimePeriod);
Assert.IsTrue(canComplete);
Assert.IsNull(nextTimePeriod);
instruction.Complete(context);
context.MoveToTimePeriod(0);
var process = context.ActiveProcesses.FirstOrDefault(p => p is ActivityHostProcess);
var activityHost = process as ActivityHostProcess;
Assert.IsNotNull(process);
Assert.IsNotNull(activityHost);
Assert.AreEqual(waitTime, activityHost.WaitTime);
Assert.AreEqual(activity, activityHost.Activity);
}
}
public void Complete_ContextPassed_ProcessActivated()
{
using (var context = new SimulationContext(isDefaultContextForProcess: true)){
var testProcess = new InstructionListTestProcess(new WaitInstruction(10));
var enumerator = testProcess.Simulate();
testProcess.SimulationState.InstructionEnumerator = enumerator;
context.MoveToTimePeriod(0);
Assert.IsTrue(context.ActiveProcesses.Contains(testProcess));
// clear the remaining process queue
context.ProcessesRemainingThisTimePeriod.Clear();
enumerator.MoveNext();
var instruction = new InterruptInstruction(testProcess);
long?nextTimePeriodCheck = null;
bool canComplete = instruction.CanComplete(context, out nextTimePeriodCheck);
Assert.IsTrue(canComplete);
instruction.Complete(context);
Assert.IsTrue(testProcess.SimulationState.IsInterrupted);
// the process should be back in the queue
Assert.IsTrue(context.ProcessesRemainingThisTimePeriod.Contains(testProcess));
Assert.IsTrue(enumerator.Current.IsInterrupted);
Assert.IsFalse(enumerator.Current.IsCompleted);
}
}
/// <summary>
/// Run this example
/// </summary>
public static void Run()
{
// Make a simulation context
using (var context = new SimulationContext(isDefaultContextForProcess: true))
{
// Add the resources that represent the staff of the call center
context.Register<Level1CallCenterStaffMember>(new Level1CallCenterStaffMember(){ Capacity = 10 });
context.Register<Level2CallCenterStaffMember>(new Level2CallCenterStaffMember(){ Capacity = 5 });
// Add the processes that represent the phone calls to the call center
IEnumerable<Call> calls = GeneratePhoneCalls(context,
numberOfCalls: 500,
level1CallTime: 120,
level2CallTime: 300,
callTimeVariability: 0.5,
callStartTimeRange: 14400);
// instantate a new simulator
var simulator = new Simulator();
// run the simulation
simulator.Simulate();
// output the statistics
OutputResults(calls);
}
}
/// <summary>Establishes initial operating point for the transient analysis.</summary>
public void EstablishDcBias(bool initCond = false)
{
context = null; // reset;
EnsureInitialized();
// initial condition
for (var i = 0; i < initialVoltages.Length; i++)
{
if (initialVoltages[i].HasValue)
{
initVoltProxies[2 * i].Add(1);
initVoltProxies[2 * i + 1].Add(initialVoltages[i].Value);
}
}
EstablishDcBias_Internal();
var iterCount = LastNonLinearIterationCount;
LastNonLinearIterationCount = 0;
// rerun without initial voltages
if (!initCond)
{
EstablishDcBias_Internal();
}
LastNonLinearIterationCount += iterCount;
OnDcBiasEstablished();
}
/// <summary>
/// Creates the model.
/// </summary>
/// <param name='numberOfJobs'>
/// Number of jobs to be generated.
/// </param>
private static List <Machine> CreateModel(SimulationContext context, int numberOfJobs)
{
var rand = new Random();
var unprocessedJobsList = new List <Job>();
// Create job queues of various work types
var workTypeAJobQueue = new Queue <Job>();
var workTypeBJobQueue = new Queue <Job>();
var workTypeCJobQueue = new Queue <Job>();
var workQueues = new List <Queue <Job> >()
{
workTypeAJobQueue, workTypeBJobQueue, workTypeCJobQueue
};
var random = new Random();
// create machines
var machine1 = new Machine(jobQueue: workTypeAJobQueue, reliabilityPercentage: 95.0, repairTimeRequired: 15, unprocessedJobsList: unprocessedJobsList, random: random);
var machine2 = new Machine(jobQueue: workTypeAJobQueue, reliabilityPercentage: 85.0, repairTimeRequired: 22, unprocessedJobsList: unprocessedJobsList, random: random);
var machine3 = new Machine(jobQueue: workTypeBJobQueue, reliabilityPercentage: 99.0, repairTimeRequired: 15, unprocessedJobsList: unprocessedJobsList, random: random);
var machine4 = new Machine(jobQueue: workTypeBJobQueue, reliabilityPercentage: 96.0, repairTimeRequired: 17, unprocessedJobsList: unprocessedJobsList, random: random);
var machine5 = new Machine(jobQueue: workTypeCJobQueue, reliabilityPercentage: 98.0, repairTimeRequired: 20, unprocessedJobsList: unprocessedJobsList, random: random);
var machines = new List <Machine>()
{
machine1,
machine2,
machine3,
machine4,
machine5
};
// create the jobs
for (int i = 0; i < numberOfJobs; i++)
{
var newJob = new Job();
newJob.ProcessingTimeRequiredByJobQueue[workTypeAJobQueue] = 5 + rand.Next(5);
newJob.ProcessingTimeRequiredByJobQueue[workTypeBJobQueue] = 5 + rand.Next(5);
newJob.ProcessingTimeRequiredByJobQueue[workTypeCJobQueue] = 5 + rand.Next(5);
int index = rand.Next(workQueues.Count);
// enque the job in one of the work queues
workQueues[index].Enqueue(newJob);
// and add it to the unprocessed job list
unprocessedJobsList.Add(newJob);
}
// add a repair person
new RepairPerson()
{
Capacity = 1
};
// add the end condition
new SimulationEndTrigger(() => unprocessedJobsList.Count == 0);
return(machines);
}
/// <summary>
/// Complete the instruction. For this instruction type, this involves putting the simulation into the stopping state.
/// </summary>
/// <param name='context'>
/// Context providing state information for the current simulation.
/// </param>
public override void Complete(SimulationContext context)
{
base.Complete(context);
context.IsSimulationStopping = true;
CompletedAtTimePeriod = context.TimePeriod;
}
public void init(SimulationContext context)
{
this.m_context = context;
if (this.m_NextProcessor != null)
{
this.m_NextProcessor.init(context);
}
}
public void init(SimulationContext context)
{
this.m_context = context;
this.m_PuschMeasure = context.ProcessorFactory.BuildPUSCHMeasure();
if (this.m_NextProcessor != null)
{
this.m_NextProcessor.init(context);
}
}
public void Constructor_SimulationContextExists_ResourceRegistered()
{
using(var context = new SimulationContext(isDefaultContextForProcess: true)){
var element = new TestElement();
var registeredElements = context.GetByType<TestElement>();
Assert.IsTrue(registeredElements.Contains(element));
}
}
public void init(SimulationContext context)
{
this.m_context = context;
this.m_UlScheduleProcessor = context.ProcessorFactory.BuildUlScheduleProcessor();
this.m_UlScheduleProcessor.Init(this.m_context.DataManager.SimulationCarrierList);
if (this.m_NextProcessor != null)
{
this.m_NextProcessor.init(this.m_context);
}
}
public override IEnumerable<PlayerRecommendation> Analyse(Player player, Fixture fixture, SimulationContext context)
{
var res = new PlayerRecommendation();
res.Type = PlayerRecommendationType.PlayerUnavailable;
var unavailable = player.Fantasy.Unavailable;
if (unavailable)
res.Points = Points;
yield return res;
}
public void init(SimulationContext context)
{
this.m_context = context;
this.m_PdschMeasure = context.ProcessorFactory.BuildPDSCHMeasure();
this.m_PdschMeasure.DlPDSCHMeasureInit(context.DataManager.SimulationCarrierList);
if (this.m_NextProcessor != null)
{
this.m_NextProcessor.init(context);
}
}
/// <summary>
/// Initializes a new instance of the <see cref="NSimulate.SimulationElement"/> class.
/// </summary>
/// <param name='context'>
/// Context.
/// </param>
/// <param name='key'>
/// Key.
/// </param>
public SimulationElement(SimulationContext context, object key)
{
Key = key;
if (context != null)
{
context.Register(this.GetType(), this);
}
Context = context;
}
/// <summary>
/// Creates the model.
/// </summary>
/// <param name='numberOfJobs'>
/// Number of jobs to be generated.
/// </param>
private static List<Machine> CreateModel(SimulationContext context, int numberOfJobs)
{
var rand = new Random();
var unprocessedJobsList = new List<Job>();
// Create job queues of various work types
var workTypeAJobQueue = new Queue<Job>();
var workTypeBJobQueue = new Queue<Job>();
var workTypeCJobQueue = new Queue<Job>();
var workQueues = new List<Queue<Job>>(){ workTypeAJobQueue, workTypeBJobQueue, workTypeCJobQueue };
var random = new Random();
// create machines
var machine1 = new Machine(jobQueue: workTypeAJobQueue, reliabilityPercentage: 95.0, repairTimeRequired: 15, unprocessedJobsList: unprocessedJobsList, random: random);
var machine2 = new Machine(jobQueue: workTypeAJobQueue, reliabilityPercentage: 85.0, repairTimeRequired: 22, unprocessedJobsList: unprocessedJobsList, random: random);
var machine3 = new Machine(jobQueue: workTypeBJobQueue, reliabilityPercentage: 99.0, repairTimeRequired: 15, unprocessedJobsList: unprocessedJobsList, random: random);
var machine4 = new Machine(jobQueue: workTypeBJobQueue, reliabilityPercentage: 96.0, repairTimeRequired: 17, unprocessedJobsList: unprocessedJobsList, random: random);
var machine5 = new Machine(jobQueue: workTypeCJobQueue, reliabilityPercentage: 98.0, repairTimeRequired: 20, unprocessedJobsList: unprocessedJobsList, random: random);
var machines = new List<Machine>()
{
machine1,
machine2,
machine3,
machine4,
machine5
};
// create the jobs
for (int i = 0; i< numberOfJobs;i++){
var newJob = new Job();
newJob.ProcessingTimeRequiredByJobQueue[workTypeAJobQueue] = 5 + rand.Next(5);
newJob.ProcessingTimeRequiredByJobQueue[workTypeBJobQueue] = 5 + rand.Next(5);
newJob.ProcessingTimeRequiredByJobQueue[workTypeCJobQueue] = 5 + rand.Next(5);
int index = rand.Next(workQueues.Count);
// enque the job in one of the work queues
workQueues[index].Enqueue(newJob);
// and add it to the unprocessed job list
unprocessedJobsList.Add(newJob);
}
// add a repair person
new RepairPerson() { Capacity = 1};
// add the end condition
new SimulationEndTrigger(()=>unprocessedJobsList.Count == 0);
return machines;
}
public void Constructor_SimulationContextExists_ProcessRegistered()
{
using(var context = new SimulationContext(isDefaultContextForProcess: true)){
var process = new Process();
Assert.IsNotNull(process.SimulationState);
Assert.IsTrue(process.SimulationState.IsActive);
var registeredProcesses = context.GetByType<Process>();
Assert.IsTrue(registeredProcesses.Contains(process));
}
}
protected override void InitSimulation(int seed, LevelInfo level, PlayerInfo[] players, Slot[] slots)
{
Assembly levelAssembly = Assembly.Load(level.Type.AssemblyFile);
Type levelType = levelAssembly.GetType(level.Type.TypeName);
SimulationContext context = new SimulationContext(
ExtensionLoader.DefaultTypeResolver,
ExtensionLoader.ExtensionSettings);
simulation = Activator.CreateInstance(levelType, context) as Level;
// Player erzeugen
LevelSlot[] levelSlots = new LevelSlot[AntMe.Level.MAX_SLOTS];
for (int i = 0; i < AntMe.Level.MAX_SLOTS; i++)
{
// Skipp, falls nicht vorhanden
if (players[i] == null)
continue;
Assembly playerAssembly = Assembly.Load(players[i].Type.AssemblyFile);
Type factoryType = playerAssembly.GetType(players[i].Type.TypeName);
// Identify Name
var playerAttributes = factoryType.GetCustomAttributes(typeof(FactoryAttribute), true);
if (playerAttributes.Length != 1)
throw new Exception("Player does not have the right number of Player Attributes");
FactoryAttribute playerAttribute = playerAttributes[0] as FactoryAttribute;
// Find the right Mapping
var mappingAttributes = playerAttribute.GetType().
GetCustomAttributes(typeof(FactoryAttributeMappingAttribute), false);
if (mappingAttributes.Length != 1)
throw new Exception("Player Attribute has no valid Property Mapping Attribute");
FactoryAttributeMappingAttribute mappingAttribute = mappingAttributes[0] as FactoryAttributeMappingAttribute;
// Werte auslesen
string name = playerAttribute.GetType().GetProperty(mappingAttribute.NameProperty).
GetValue(playerAttribute, null) as string;
levelSlots[i] = new LevelSlot()
{
FactoryType = factoryType,
Name = name,
Color = slots[i].ColorKey,
Team = slots[i].Team
};
}
// Level initialisieren
simulation.Init(seed, levelSlots);
}
/// <summary>
/// Determines whether this instruction can complete in the current time period
/// </summary>
/// <returns>
/// <c>true</c> if this instance can complete.
/// </returns>
/// <param name='context'>
/// Context providing state information for the current simulation
/// </param>
/// <param name='skipFurtherChecksUntilTimePeriod'>
/// Output parameter used to specify a time period at which this instruction should be checked again. This should be left null if it is not possible to determine when this instruction can complete.
/// </param>
public override bool CanComplete(SimulationContext context, out long? skipFurtherChecksUntilTimePeriod)
{
bool canComplete = false;
long timePeriodToComplete = RaisedInTimePeriod + NumberOfPeriodsToWait;
skipFurtherChecksUntilTimePeriod = timePeriodToComplete;
if (context.TimePeriod >= timePeriodToComplete){
canComplete = true;
}
return canComplete;
}
public void CanComplete_ConditionNotMet_ReturnsFalse()
{
using (var context = new SimulationContext(isDefaultContextForProcess: true)){
var instruction = new WaitConditionInstruction(()=>1==2);
long? nextTimePeriodCheck;
bool canComplete = instruction.CanComplete(context, out nextTimePeriodCheck);
Assert.IsFalse(canComplete);
Assert.IsNull(nextTimePeriodCheck);
}
}
/// <summary>
/// Determines whether this instruction can complete in the current time period
/// </summary>
/// <returns>
/// <c>true</c> if this instance can complete.
/// </returns>
/// <param name='context'>
/// Context providing state information for the current simulation
/// </param>
/// <param name='skipFurtherChecksUntilTimePeriod'>
/// Output parameter used to specify a time period at which this instruction should be checked again. This should be left null if it is not possible to determine when this instruction can complete.
/// </param>
public override bool CanComplete(SimulationContext context, out long? skipFurtherChecksUntilTimePeriod)
{
skipFurtherChecksUntilTimePeriod = null;
bool canComplete = _hasPassed;
if(!_hasPassed){
_hasPassed = true;
}
return canComplete;
}
/// <summary>
/// Complete the instruction. For this instruction type, this involves interrupting a process.
/// </summary>
/// <param name='context'>
/// Context providing state information for the current simulation.
/// </param>
public override void Complete(SimulationContext context)
{
base.Complete(context);
var process = new ActivityHostProcess(Activity, WaitTime);
context.Register(process);
if (context.ActiveProcesses != null){
// add it to te active process list
context.ActiveProcesses.Add(process);
context.ProcessesRemainingThisTimePeriod.Enqueue(process);
}
}
public void Constructor_SimulationContextExists_ResourceRegistered()
{
using(var context = new SimulationContext(isDefaultContextForProcess: true)){
int capacity = 10;
var resource = new Resource(capacity);
Assert.AreEqual(0, resource.Allocated);
Assert.AreEqual(capacity, resource.Capacity);
var registeredResources = context.GetByType<Resource>();
Assert.IsTrue(registeredResources.Contains(resource));
}
}
public AppleItem(SimulationContext context, Vector2 position, int amount)
: base(context, position, AppleOuterRadius, Angle.Right)
{
#region Apfel abtragen
//var apple = GetProperty<AppleCollectableProperty>();
//apple.OnAmountChanged += (good, newValue) =>
//{
// // Apfel entfernen, falls Value is 0
// if (newValue <= 0)
// Engine.RemoveItem(this);
// // Capacity sollte sich auch ändern
// good.Capacity = newValue;
//};
//#endregion
//#region Ameisenhügel -> Apfel Interaktion
//var collidable = GetProperty<CollidableProperty>();
//collidable.OnCollision += (item, newValue) =>
//{
// if (newValue.ContainsProperty<CollectableProperty>())
// {
// var target = newValue.GetProperty<CollectableProperty>();
// var targetGood = target.GetCollectableGood<AppleCollectableProperty>();
// // Prüfen, ob Apfel grundsätzlich aufgenommen werden kann
// if (targetGood == null)
// return;
// if (targetGood.Capacity - targetGood.Amount < apple.Amount)
// {
// // Apfel passt nicht vollständig in den Bau
// var diff = targetGood.Capacity - targetGood.Amount;
// apple.Amount -= diff;
// targetGood.Amount += diff;
// }
// else
// {
// // Apfel vollständig übertragen
// targetGood.Amount += apple.Amount;
// apple.Amount = 0;
// }
// }
//};
#endregion
}
public SugarItem(SimulationContext context, Vector2 position, int amount)
: base(context, position, SugarRadius, Angle.Right)
{
// Todesbedingung
//_sugar = GetProperty<SugarCollectableProperty>();
//_sugar.OnAmountChanged += (good, newValue) =>
//{
// if (newValue <= 0)
// {
// // Entfernen von der Landkarte
// Engine.RemoveItem(this);
// }
//};
}
