public SignalShapeHead(Viewer viewer, SignalShape signalShape, int index, SignalHead signalHead,
Orts.Formats.Msts.SignalItem mstsSignalItem, Orts.Formats.Msts.SignalShape.SignalSubObj mstsSignalSubObj)
{
Viewer = viewer;
SignalShape = signalShape;
#if DEBUG_SIGNAL_SHAPES
Index = index;
#endif
SignalHead = signalHead;
for (int mindex = 0; mindex <= signalShape.SharedShape.MatrixNames.Count - 1; mindex++)
{
string MatrixName = signalShape.SharedShape.MatrixNames[mindex];
if (String.Equals(MatrixName, mstsSignalSubObj.MatrixName))
MatrixIndices.Add(mindex);
}
if (!viewer.SIGCFG.SignalTypes.ContainsKey(mstsSignalSubObj.SignalSubSignalType))
return;
var mstsSignalType = viewer.SIGCFG.SignalTypes[mstsSignalSubObj.SignalSubSignalType];
if (SignalTypes.ContainsKey(mstsSignalType.Name))
SignalTypeData = SignalTypes[mstsSignalType.Name];
else
SignalTypeData = SignalTypes[mstsSignalType.Name] = new SignalTypeData(viewer, mstsSignalType);
if (SignalTypeData.Semaphore)
{
// Check whether we have to correct the Semaphore position indexes following the strange rule of MSTS
// Such strange rule is that, if there are only two animation steps in the related .s file, MSTS behaves as follows:
// a SemaphorePos (2) in sigcfg.dat is executed as SemaphorePos (1)
// a SemaphorePos (1) in sigcfg.dat is executed as SemaphorePos (0)
// a SemaphorePos (0) in sigcfg.dat is executed as SemaphorePos (0)
// First we check if there are only two animation steps
if (signalShape.SharedShape.Animations != null && signalShape.SharedShape.Animations.Count != 0 && MatrixIndices.Count > 0 &&
signalShape.SharedShape.Animations[0].anim_nodes[MatrixIndices[0]].controllers.Count != 0 &&
signalShape.SharedShape.Animations[0].anim_nodes[MatrixIndices[0]].controllers[0].Count == 2)
{
// OK, now we check if maximum SemaphorePos is 2 (we won't correct if there are only SemaphorePos 1 and 0,
// because they would both be executed as SemaphorePos (0) accordingly to above law, therefore leading to a static semaphore)
float maxIndex = float.MinValue;
foreach (SignalAspectData drAsp in SignalTypeData.DrawAspects.Values)
{
if (drAsp.SemaphorePos > maxIndex) maxIndex = drAsp.SemaphorePos;
}
if (maxIndex == 2)
{
// in this case we modify the SemaphorePositions for compatibility with MSTS.
foreach (SignalAspectData drAsp in SignalTypeData.DrawAspects.Values)
{
switch ((int)drAsp.SemaphorePos)
{
case 2:
drAsp.SemaphorePos = 1;
break;
case 1:
drAsp.SemaphorePos = 0;
break;
default:
break;
}
}
if (!SignalTypeData.AreSemaphoresReindexed)
{
Trace.TraceInformation("Reindexing semaphore entries of signal type {0} for compatibility with MSTS", mstsSignalType.Name);
SignalTypeData.AreSemaphoresReindexed = true;
}
}
}
foreach (int mindex in MatrixIndices)
{
if (mindex == 0 && (signalShape.SharedShape.Animations == null || signalShape.SharedShape.Animations.Count == 0 ||
signalShape.SharedShape.Animations[0].anim_nodes[mindex].controllers.Count == 0))
continue;
AnimatedPart SemaphorePart = new AnimatedPart(signalShape);
SemaphorePart.AddMatrix(mindex);
SemaphoreParts.Add(SemaphorePart);
}
if (Viewer.Simulator.TRK.Tr_RouteFile.DefaultSignalSMS != null)
{
var soundPath = Viewer.Simulator.RoutePath + @"\\sound\\" + Viewer.Simulator.TRK.Tr_RouteFile.DefaultSignalSMS;
try
{
Sound = new SoundSource(Viewer, SignalShape.Location.WorldLocation, Events.Source.MSTSSignal, soundPath);
Viewer.SoundProcess.AddSoundSources(this, new List<SoundSourceBase>() { Sound });
}
catch (Exception error)
{
Trace.WriteLine(new FileLoadException(soundPath, error));
}
}
}
#if DEBUG_SIGNAL_SHAPES
Console.Write(" HEAD type={0,-8} lights={1,-2} sem={2}", SignalTypeData.Type, SignalTypeData.Lights.Count, SignalTypeData.Semaphore);
#endif
}
public SignalShapeHead(Viewer viewer, SignalShape signalShape, int index, SignalHead signalHead,
Orts.Formats.Msts.SignalItem mstsSignalItem, Orts.Formats.Msts.SignalShape.SignalSubObj mstsSignalSubObj)
{
Viewer = viewer;
SignalShape = signalShape;
#if DEBUG_SIGNAL_SHAPES
Index = index;
#endif
SignalHead = signalHead;
for (int mindex = 0; mindex <= signalShape.SharedShape.MatrixNames.Count - 1; mindex++)
{
string MatrixName = signalShape.SharedShape.MatrixNames[mindex];
if (String.Equals(MatrixName, mstsSignalSubObj.MatrixName))
{
MatrixIndices.Add(mindex);
}
}
if (!viewer.SIGCFG.SignalTypes.ContainsKey(mstsSignalSubObj.SignalSubSignalType))
{
return;
}
var mstsSignalType = viewer.SIGCFG.SignalTypes[mstsSignalSubObj.SignalSubSignalType];
if (SignalTypes.ContainsKey(mstsSignalType.Name))
{
SignalTypeData = SignalTypes[mstsSignalType.Name];
}
else
{
SignalTypeData = SignalTypes[mstsSignalType.Name] = new SignalTypeData(viewer, mstsSignalType);
}
if (SignalTypeData.Semaphore)
{
foreach (int mindex in MatrixIndices)
{
AnimatedPart SemaphorePart = new AnimatedPart(signalShape);
SemaphorePart.AddMatrix(mindex);
SemaphoreParts.Add(SemaphorePart);
}
if (Viewer.Simulator.TRK.Tr_RouteFile.DefaultSignalSMS != null)
{
var soundPath = Viewer.Simulator.RoutePath + @"\\sound\\" + Viewer.Simulator.TRK.Tr_RouteFile.DefaultSignalSMS;
try
{
Sound = new SoundSource(Viewer, SignalShape.Location.WorldLocation, Events.Source.MSTSSignal, soundPath);
Viewer.SoundProcess.AddSoundSources(this, new List <SoundSourceBase>()
{
Sound
});
}
catch (Exception error)
{
Trace.WriteLine(new FileLoadException(soundPath, error));
}
}
}
#if DEBUG_SIGNAL_SHAPES
Console.Write(" HEAD type={0,-8} lights={1,-2} sem={2}", SignalTypeData.Type, SignalTypeData.Lights.Count, SignalTypeData.Semaphore);
#endif
}