protected override MechPowerPath[] GetMechPowerExits(MechPowerPath pathDir)
{
BlockFacing face = pathDir.OutFacing;
BELargeGear3m beg = Blockentity as BELargeGear3m;
int index = 0;
if (face == BlockFacing.UP || face == BlockFacing.DOWN)
{
MechPowerPath[] paths = new MechPowerPath[2 + beg.CountGears(Api)];
paths[index] = pathDir;
paths[++index] = new MechPowerPath(pathDir.OutFacing.Opposite, pathDir.gearingRatio, null, !pathDir.invert);
bool sideInvert = face == BlockFacing.DOWN ^ pathDir.invert;
for (int i = 0; i < 4; i++)
{
BlockFacing horizFace = BlockFacing.HORIZONTALS[i];
if (beg.HasGearAt(Api, Position.AddCopy(horizFace)))
{
paths[++index] = new MechPowerPath(horizFace, pathDir.gearingRatio * ratio, null, sideInvert); //invert all horizontal output paths
}
}
return(paths);
}
MechPowerPath[] pathss = new MechPowerPath[2 + beg.CountGears(Api)];
bool invert = pathDir.IsInvertedTowards(Position);
pathss[0] = new MechPowerPath(BlockFacing.DOWN, pathDir.gearingRatio / ratio, null, invert);
pathss[1] = new MechPowerPath(BlockFacing.UP, pathDir.gearingRatio / ratio, null, !invert);
index = 1;
bool sidesInvert = face == BlockFacing.DOWN ^ !invert; //invert power in the opposite sense if power fed in from one of the sides instead of through up/down axle
for (int i = 0; i < 4; i++)
{
BlockFacing horizFace = BlockFacing.HORIZONTALS[i];
if (beg.HasGearAt(Api, Position.AddCopy(horizFace)))
{
pathss[++index] = new MechPowerPath(horizFace, pathDir.gearingRatio, null, sidesInvert); //horizontals match the gearing ratio of the input horizontal
}
}
return(pathss);
}
protected override MechPowerPath[] GetMechPowerExits(MechPowerPath pathDir)
{
BlockFacing face = pathDir.OutFacing;
BELargeGear3m beg = Blockentity as BELargeGear3m;
int index = 0;
if (face == BlockFacing.UP || face == BlockFacing.DOWN)
{
MechPowerPath[] paths = new MechPowerPath[2 + beg.CountGears(Api)];
paths[index] = pathDir;
paths[++index] = new MechPowerPath(pathDir.OutFacing.Opposite, pathDir.gearingRatio, null, !pathDir.invert);
for (int i = 0; i < 4; i++)
{
BlockFacing horizFace = BlockFacing.HORIZONTALS[i];
if (beg.HasGearAt(Api, Position.AddCopy(horizFace)))
{
paths[++index] = new MechPowerPath(horizFace, pathDir.gearingRatio * ratio, null, face == BlockFacing.DOWN ^ pathDir.invert); //invert all horizontal output paths
}
}
return(paths);
}
MechPowerPath[] pathss = new MechPowerPath[2 + beg.CountGears(Api)];
bool invert = pathDir.IsInvertedTowards(Position);
pathss[0] = new MechPowerPath(BlockFacing.DOWN, pathDir.gearingRatio / ratio, null, invert);
pathss[1] = new MechPowerPath(BlockFacing.UP, pathDir.gearingRatio / ratio, null, !invert);
index = 1;
for (int i = 0; i < 4; i++)
{
BlockFacing horizFace = BlockFacing.HORIZONTALS[i];
if (beg.HasGearAt(Api, Position.AddCopy(horizFace)))
{
pathss[++index] = new MechPowerPath(horizFace, pathDir.gearingRatio, null, (face.Opposite == horizFace || face == BlockFacing.DOWN) ^ !invert); //horizontals match the gearing ratio of the input horizontal; invert unless its the input side
}
}
return(pathss);
}
public override void SetPropagationDirection(MechPowerPath path)
{
BlockFacing turnDir = path.NetworkDir();
if (turnDir != BlockFacing.UP && turnDir != BlockFacing.DOWN)
{
turnDir = path.IsInvertedTowards(Position) ? BlockFacing.UP : BlockFacing.DOWN; //network coming in (clockwise) from any of the 4 sides should then propagate (clockwise) in the down direction
this.GearedRatio = path.gearingRatio / ratio;
}
else
{
this.GearedRatio = path.gearingRatio;
}
if (this.propagationDir == turnDir.Opposite && this.network != null)
{
if (!network.DirectionHasReversed)
{
network.TurnDir = network.TurnDir == EnumRotDirection.Clockwise ? EnumRotDirection.Counterclockwise : EnumRotDirection.Clockwise;
}
network.DirectionHasReversed = true;
}
this.propagationDir = turnDir;
}
