public static bool Intersection(Vector2 aStart, Vector2 aEnd, Vector2 bStart, Vector2 bEnd, out Vector2 intersection)
{
Vector2 aSize = aEnd - aStart, bSize = bEnd - bStart;
var cross = aSize.X * bSize.Y - aSize.Y * bSize.X;
// ReSharper disable once CompareOfFloatsByEqualityOperator
if (cross == 0f)
{
intersection = default;
return(false);
}
var crossReciprocal = 1.0f / cross;
var distStart = bStart - aStart;
var negDistStartY = -distStart.Y;
var checkA = MathF.FusedMultiplyAdd(distStart.X, aSize.Y, negDistStartY * aSize.X) * crossReciprocal;
var checkB = MathF.FusedMultiplyAdd(distStart.X, bSize.Y, negDistStartY * bSize.X) * crossReciprocal;
if (checkA < 0 || checkB < 0 || checkA > 1 || checkB > 1)
{
intersection = default;
return(false);
}
intersection = new Vector2(
MathF.FusedMultiplyAdd(checkB, aSize.X, aStart.X),
MathF.FusedMultiplyAdd(checkB, aSize.Y, aStart.Y)
);
return(true);
}
public override void Render(DrawingHandleWorld handle)
{
if (onGrid)
{
const int ppm = EyeManager.PixelsPerMeter;
var viewportSize = (Vector2)pManager._clyde.ScreenSize;
var position = pManager.eyeManager.ScreenToMap(Vector2.Zero);
var gridstartx = (float)MathF.Round(position.X / snapSize, MidpointRounding.AwayFromZero) * snapSize;
var gridstarty = (float)MathF.Round(position.Y / snapSize, MidpointRounding.AwayFromZero) * snapSize;
var gridstart = pManager.eyeManager.WorldToScreen(
new Vector2( //Find snap grid closest to screen origin and convert back to screen coords
gridstartx,
gridstarty));
for (var a = gridstart.X;
a < viewportSize.X;
a += snapSize * ppm) //Iterate through screen creating gridlines
{
var from = ScreenToWorld(new Vector2(a, 0));
var to = ScreenToWorld(new Vector2(a, viewportSize.Y));
handle.DrawLine(from, to, new Color(0, 0, 1f));
}
for (var a = gridstart.Y; a < viewportSize.Y; a += snapSize * ppm)
{
var from = ScreenToWorld(new Vector2(0, a));
var to = ScreenToWorld(new Vector2(viewportSize.X, a));
handle.DrawLine(from, to, new Color(0, 0, 1f));
}
}
// Draw grid BELOW the ghost.
base.Render(handle);
}
private void HandleDecompressionFloorRip(float sum)
{
if (sum > 20 && _robustRandom.Prob(MathF.Clamp(sum / 100, 0.005f, 0.5f)))
{
_gridAtmosphereComponent.PryTile(GridIndices);
}
}
public static bool ContainsPoint(this ReadOnlySpan <Vector2> poly, Vector2 point)
{
var result = false;
var j = poly.Length - 1;
var pY = point.Y;
var pX = point.X;
for (var i = 0; i < poly.Length; i++)
{
var iY = poly[i].Y;
var jY = poly[j].Y;
var iX = poly[i].X;
var jX = poly[j].X;
if (iY < pY && jY >= pY ||
jY < pY && iY >= pY &&
MathF.FusedMultiplyAdd(
(pY - iY) / (jY - iY),
jX - iX,
iX
) < pX)
{
result = !result;
}
j = i;
}
return(result);
}
public static float Clamp01(float value)
{
/*
* if (value < 0F)
* return 0F;
*
* if (value > 1F)
* return 1F;
*
* return value;
*/
return(MathF.Clamp(value, 0, 1));
}
/// <summary>
/// Knocks down the mob, making it fall to the ground.
/// </summary>
/// <param name="seconds">How many seconds the mob will stay on the ground</param>
public void Knockdown(float seconds)
{
seconds = MathF.Min(_knockdownTimer + (seconds * KnockdownTimeModifier), _knockdownCap);
if (seconds <= 0f)
{
return;
}
StandingStateHelper.Down(Owner);
_knockdownTimer = seconds;
_lastStun = _gameTiming.CurTime;
SetStatusEffect();
Dirty();
}
public override void AlignPlacementMode(ScreenCoordinates mouseScreen)
{
MouseCoords = ScreenToCursorGrid(mouseScreen);
snapSize = pManager.MapManager.GetGrid(MouseCoords.GridID).SnapSize; //Find snap size.
GridDistancing = snapSize;
onGrid = true;
var mouselocal = new Vector2( //Round local coordinates onto the snap grid
(float)MathF.Round(MouseCoords.X / snapSize, MidpointRounding.AwayFromZero) * snapSize,
(float)MathF.Round(MouseCoords.Y / snapSize, MidpointRounding.AwayFromZero) * snapSize);
//Convert back to original world and screen coordinates after applying offset
MouseCoords =
new GridCoordinates(
mouselocal + new Vector2(pManager.PlacementOffset.X, pManager.PlacementOffset.Y), MouseCoords.GridID);
}
/// <summary>
/// Stuns the entity, disallowing it from doing many interactions temporarily.
/// </summary>
/// <param name="seconds">How many seconds the mob will stay stunned</param>
public void Stun(float seconds)
{
seconds = MathF.Min(_stunnedTimer + (seconds * StunTimeModifier), _stunCap);
if (seconds <= 0f)
{
return;
}
StandingStateHelper.DropAllItemsInHands(Owner, false);
_stunnedTimer = seconds;
_lastStun = _gameTiming.CurTime;
SetStatusEffect();
Dirty();
}
protected override Vector2 CalculateMinimumSize()
{
var separation = ActualSeparation;
var minWidth = 0f;
var minHeight = 0f;
var first = true;
foreach (var child in Children)
{
if (!child.Visible)
{
continue;
}
var(childWidth, childHeight) = child.CombinedMinimumSize;
if (Vertical)
{
minHeight += childHeight;
if (!first)
{
minHeight += separation;
}
first = false;
minWidth = MathF.Max(minWidth, childWidth);
}
else
{
minWidth += childWidth;
if (!first)
{
minWidth += separation;
}
first = false;
minHeight = MathF.Max(minHeight, childHeight);
}
}
return(new Vector2(minWidth, minHeight));
}
public void ExperiencePressureDifference(int cycle, float pressureDifference, Direction direction,
float pressureResistanceProbDelta, GridCoordinates throwTarget)
{
if (ControlledComponent == null)
{
return;
}
// TODO ATMOS stuns?
var transform = ControlledComponent.Owner.Transform;
var pressureComponent = ControlledComponent.Owner.GetComponent <MovedByPressureComponent>();
var maxForce = MathF.Sqrt(pressureDifference) * 2.25f;
var moveProb = 100f;
if (pressureComponent.PressureResistance > 0)
{
moveProb = MathF.Abs((pressureDifference / pressureComponent.PressureResistance * ProbabilityBasePercent) -
ProbabilityOffset);
}
if (moveProb > ProbabilityOffset && _robustRandom.Prob(MathF.Min(moveProb / 100f, 1f)) &&
!float.IsPositiveInfinity(pressureComponent.MoveResist) &&
(!ControlledComponent.Anchored &&
(maxForce >= (pressureComponent.MoveResist * MoveForcePushRatio))) ||
(ControlledComponent.Anchored && (maxForce >= (pressureComponent.MoveResist * MoveForceForcePushRatio))))
{
if (maxForce > ThrowForce && throwTarget != GridCoordinates.InvalidGrid)
{
var moveForce = MathF.Min(maxForce * MathF.Clamp(moveProb, 0, 100) / 100f, 50f);
var pos = throwTarget.Position - transform.GridPosition.Position;
LinearVelocity = pos * moveForce;
}
else
{
var moveForce = MathF.Min(maxForce * MathF.Clamp(moveProb, 0, 100) / 100f, 25f);
LinearVelocity = direction.ToVec() * moveForce;
}
pressureComponent.LastHighPressureMovementAirCycle = cycle;
}
}
/// <summary>
/// Throw an entity at the position of <paramref name="targetLoc"/> from <paramref name="sourceLoc"/>,
/// without overshooting.
/// </summary>
/// <param name="thrownEnt">The entity to throw.</param>
/// <param name="throwForceMax">
/// The MAXIMUM force to throw the entity with.
/// Throw force increases with distance to target, this is the maximum force allowed.
/// </param>
/// <param name="targetLoc">
/// The target location to throw at.
/// This function will try to land at this exact spot,
/// if <paramref name="throwForceMax"/> is large enough to allow for it to be reached.
/// </param>
/// <param name="sourceLoc">
/// The position to start the throw from.
/// </param>
/// <param name="spread">
/// If true, slightly spread the actual throw angle.
/// </param>
/// <param name="throwSourceEnt">
/// The entity that did the throwing. An opposite impulse will be applied to this entity if passed in.
/// </param>
public static void ThrowTo(IEntity thrownEnt, float throwForceMax, GridCoordinates targetLoc,
GridCoordinates sourceLoc, bool spread = false, IEntity throwSourceEnt = null)
{
var mapManager = IoCManager.Resolve <IMapManager>();
var timing = IoCManager.Resolve <IGameTiming>();
// Calculate the force necessary to land a throw based on throw duration, mass and distance.
var distance = (targetLoc.ToMapPos(mapManager) - sourceLoc.ToMapPos(mapManager)).Length;
var throwDuration = ThrownItemComponent.DefaultThrowTime;
var mass = 1f;
if (thrownEnt.TryGetComponent(out IPhysicsComponent physicsComponent))
{
mass = physicsComponent.Mass;
}
var velocityNecessary = distance / throwDuration;
var impulseNecessary = velocityNecessary * mass;
var forceNecessary = impulseNecessary * (1f / timing.TickRate);
// Then clamp it to the max force allowed and call Throw().
Throw(thrownEnt, MathF.Min(forceNecessary, throwForceMax), targetLoc, sourceLoc, spread, throwSourceEnt);
}
/// <summary>
/// Slows down the mob's walking/running speed temporarily
/// </summary>
/// <param name="seconds">How many seconds the mob will be slowed down</param>
/// <param name="walkModifierOverride">Walk speed modifier. Set to 0 or negative for default value. (0.5f)</param>
/// <param name="runModifierOverride">Run speed modifier. Set to 0 or negative for default value. (0.5f)</param>
public void Slowdown(float seconds, float walkModifierOverride = 0f, float runModifierOverride = 0f)
{
seconds = MathF.Min(_slowdownTimer + (seconds * SlowdownTimeModifier), _slowdownCap);
if (seconds <= 0f)
{
return;
}
WalkModifierOverride = walkModifierOverride;
RunModifierOverride = runModifierOverride;
_slowdownTimer = seconds;
_lastStun = _gameTiming.CurTime;
if (Owner.TryGetComponent(out MovementSpeedModifierComponent movement))
{
movement.RefreshMovementSpeedModifiers();
}
SetStatusEffect();
Dirty();
}
public static float Min(float a, float b, float c, float d)
{
return(MathF.Min(a, MathF.Min(b, MathF.Min(c, d))));
}
//[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void HighPressureMovements()
{
// TODO ATMOS finish this
if (PressureDifference > 15)
{
if (_soundCooldown == 0)
{
EntitySystem.Get <AudioSystem>().PlayAtCoords("/Audio/Effects/space_wind.ogg",
GridIndices.ToGridCoordinates(_mapManager, GridIndex), AudioHelpers.WithVariation(0.125f).WithVolume(MathF.Clamp(PressureDifference / 10, 10, 100)));
}
}
foreach (var entity in _entityManager.GetEntitiesIntersecting(_mapManager.GetGrid(GridIndex).ParentMapId, Box2.UnitCentered.Translated(GridIndices)))
{
if (!entity.TryGetComponent(out ICollidableComponent physics) ||
!entity.TryGetComponent(out MovedByPressureComponent pressure))
{
continue;
}
var pressureMovements = physics.EnsureController <HighPressureMovementController>();
if (pressure.LastHighPressureMovementAirCycle < _gridAtmosphereComponent.UpdateCounter)
{
pressureMovements.ExperiencePressureDifference(_gridAtmosphereComponent.UpdateCounter, PressureDifference, _pressureDirection, 0, PressureSpecificTarget?.GridIndices.ToGridCoordinates(_mapManager, GridIndex) ?? GridCoordinates.InvalidGrid);
}
}
if (PressureDifference > 100)
{
// Do space wind graphics here!
}
_soundCooldown++;
if (_soundCooldown > 75)
{
_soundCooldown = 0;
}
}
public static float Floor(float f) => MathF.Floor(f);
public bool Intersects(Box2 box, out float distance, out Vector2 hitPos)
{
hitPos = Vector2.Zero;
distance = 0;
var tmin = 0.0f; // set to -FLT_MAX to get first hit on line
var tmax = float.MaxValue; // set to max distance ray can travel (for segment)
const float epsilon = 1.0E-07f;
// X axis slab
{
if (MathF.Abs(_direction.X) < epsilon)
{
// ray is parallel to this slab, it will never hit unless ray is inside box
if (_position.X < MathF.Min(box.Left, box.Right) || _position.X > MathF.Max(box.Left, box.Right))
{
return(false);
}
}
// calculate intersection t value of ray with near and far plane of slab
var ood = 1.0f / _direction.X;
var t1 = (MathF.Min(box.Left, box.Right) - _position.X) * ood;
var t2 = (MathF.Max(box.Left, box.Right) - _position.X) * ood;
// Make t1 be the intersection with near plane, t2 with far plane
if (t1 > t2)
{
MathHelper.Swap(ref t1, ref t2);
}
// Compute the intersection of slab intersection intervals
tmin = MathF.Max(t1, tmin);
tmax = MathF.Min(t2, tmax); // Is this Min (SE) or Max(Textbook)
// Exit with no collision as soon as slab intersection becomes empty
if (tmin > tmax)
{
return(false);
}
}
// Y axis slab
{
if (MathF.Abs(_direction.Y) < epsilon)
{
// ray is parallel to this slab, it will never hit unless ray is inside box
if (_position.Y < MathF.Min(box.Top, box.Bottom) || _position.Y > MathF.Max(box.Top, box.Bottom))
{
return(false);
}
}
// calculate intersection t value of ray with near and far plane of slab
var ood = 1.0f / _direction.Y;
var t1 = (MathF.Min(box.Top, box.Bottom) - _position.Y) * ood;
var t2 = (MathF.Max(box.Top, box.Bottom) - _position.Y) * ood;
// Make t1 be the intersection with near plane, t2 with far plane
if (t1 > t2)
{
MathHelper.Swap(ref t1, ref t2);
}
// Compute the intersection of slab intersection intervals
tmin = MathF.Max(t1, tmin);
tmax = MathF.Min(t2, tmax); // Is this Min (SE) or Max(Textbook)
// Exit with no collision as soon as slab intersection becomes empty
if (tmin > tmax)
{
return(false);
}
}
// Ray intersects all slabs. Return point and intersection t value
hitPos = _position + _direction * tmin;
distance = tmin;
return(true);
}
public static float InterpolateCubic(float preA, float a, float b, float postB, float t)
{
//return a + 0.5f * t * (b - preA + t * (2.0f * preA - 5.0f * a + 4.0f * b - postB + t * (3.0f * (a - b) + postB - preA)));
return(MathF.CubicInterpolate(preA, a, b, postB, t));
}
public static float Lerp(float a, float b, float blend)
{
//return a + (b - a) * blend;
return(MathF.Interpolate(a, b, blend));
}
//[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void EqualizePressureInZone(int cycleNum)
{
if (Air == null || (_tileAtmosInfo.LastCycle >= cycleNum))
{
return; // Already done.
}
_tileAtmosInfo = new TileAtmosInfo();
var startingMoles = Air.TotalMoles;
var runAtmos = false;
// We need to figure if this is necessary
foreach (var(direction, other) in _adjacentTiles)
{
if (other?.Air == null)
{
continue;
}
var comparisonMoles = other.Air.TotalMoles;
if (!(MathF.Abs(comparisonMoles - startingMoles) > Atmospherics.MinimumMolesDeltaToMove))
{
continue;
}
runAtmos = true;
break;
}
if (!runAtmos) // There's no need so we don't bother.
{
_tileAtmosInfo.LastCycle = cycleNum;
return;
}
var queueCycle = ++_gridAtmosphereComponent.EqualizationQueueCycleControl;
var totalMoles = 0f;
var tiles = new TileAtmosphere[Atmospherics.ZumosHardTileLimit];
tiles[0] = this;
_tileAtmosInfo.LastQueueCycle = queueCycle;
var tileCount = 1;
for (var i = 0; i < tileCount; i++)
{
if (i > Atmospherics.ZumosHardTileLimit)
{
break;
}
var exploring = tiles[i];
if (i < Atmospherics.ZumosTileLimit)
{
var tileMoles = exploring.Air.TotalMoles;
exploring._tileAtmosInfo.MoleDelta = tileMoles;
totalMoles += tileMoles;
}
foreach (var(_, adj) in exploring._adjacentTiles)
{
if (adj?.Air == null)
{
continue;
}
if (adj._tileAtmosInfo.LastQueueCycle == queueCycle)
{
continue;
}
adj._tileAtmosInfo = new TileAtmosInfo();
adj._tileAtmosInfo.LastQueueCycle = queueCycle;
if (tileCount < Atmospherics.ZumosHardTileLimit)
{
tiles[tileCount++] = adj;
}
if (adj.Air.Immutable)
{
// Looks like someone opened an airlock to space!
ExplosivelyDepressurize(cycleNum);
return;
}
}
}
if (tileCount > Atmospherics.ZumosTileLimit)
{
for (var i = Atmospherics.ZumosTileLimit; i < tileCount; i++)
{
//We unmark them. We shouldn't be pushing/pulling gases to/from them.
var tile = tiles[i];
if (tile == null)
{
continue;
}
tiles[i]._tileAtmosInfo.LastQueueCycle = 0;
}
tileCount = Atmospherics.ZumosTileLimit;
}
//tiles = tiles.AsSpan().Slice(0, tileCount).ToArray(); // According to my benchmarks, this is much slower.
Array.Resize(ref tiles, tileCount);
var averageMoles = totalMoles / (tiles.Length);
var giverTiles = new List <TileAtmosphere>();
var takerTiles = new List <TileAtmosphere>();
for (var i = 0; i < tileCount; i++)
{
var tile = tiles[i];
tile._tileAtmosInfo.LastCycle = cycleNum;
tile._tileAtmosInfo.MoleDelta -= averageMoles;
if (tile._tileAtmosInfo.MoleDelta > 0)
{
giverTiles.Add(tile);
}
else
{
takerTiles.Add(tile);
}
}
var logN = MathF.Log2(tiles.Length);
// Optimization - try to spread gases using an O(nlogn) algorithm that has a chance of not working first to avoid O(n^2)
if (giverTiles.Count > logN && takerTiles.Count > logN)
{
// Even if it fails, it will speed up the next part.
Array.Sort(tiles, (a, b)
=> a._tileAtmosInfo.MoleDelta.CompareTo(b._tileAtmosInfo.MoleDelta));
foreach (var tile in tiles)
{
tile._tileAtmosInfo.FastDone = true;
if (!(tile._tileAtmosInfo.MoleDelta > 0))
{
continue;
}
Direction eligibleAdjBits = 0;
var amtEligibleAdj = 0;
foreach (var direction in Cardinal)
{
if (!tile._adjacentTiles.TryGetValue(direction, out var tile2))
{
continue;
}
// skip anything that isn't part of our current processing block. Original one didn't do this unfortunately, which probably cause some massive lag.
if (tile2._tileAtmosInfo.FastDone || tile2._tileAtmosInfo.LastQueueCycle != queueCycle)
{
continue;
}
eligibleAdjBits |= direction;
amtEligibleAdj++;
}
if (amtEligibleAdj <= 0)
{
continue; // Oof we've painted ourselves into a corner. Bad luck. Next part will handle this.
}
var molesToMove = tile._tileAtmosInfo.MoleDelta / amtEligibleAdj;
foreach (var direction in Cardinal)
{
if ((eligibleAdjBits & direction) == 0 || !tile._adjacentTiles.TryGetValue(direction, out var tile2))
{
continue;
}
tile.AdjustEqMovement(direction, molesToMove);
tile._tileAtmosInfo.MoleDelta -= molesToMove;
tile2._tileAtmosInfo.MoleDelta += molesToMove;
}
}
giverTiles.Clear();
takerTiles.Clear();
foreach (var tile in tiles)
{
if (tile._tileAtmosInfo.MoleDelta > 0)
{
giverTiles.Add(tile);
}
else
{
takerTiles.Add(tile);
}
}
// This is the part that can become O(n^2).
if (giverTiles.Count < takerTiles.Count)
{
// as an optimization, we choose one of two methods based on which list is smaller. We really want to avoid O(n^2) if we can.
var queue = new List <TileAtmosphere>(takerTiles.Count);
foreach (var giver in giverTiles)
{
giver._tileAtmosInfo.CurrentTransferDirection = (Direction)(-1);
giver._tileAtmosInfo.CurrentTransferAmount = 0;
var queueCycleSlow = ++_gridAtmosphereComponent.EqualizationQueueCycleControl;
queue.Clear();
queue.Add(giver);
giver._tileAtmosInfo.LastSlowQueueCycle = queueCycleSlow;
var queueCount = queue.Count;
for (var i = 0; i < queueCount; i++)
{
if (giver._tileAtmosInfo.MoleDelta <= 0)
{
break; // We're done here now. Let's not do more work than needed.
}
var tile = queue[i];
foreach (var direction in Cardinal)
{
if (!tile._adjacentTiles.TryGetValue(direction, out var tile2))
{
continue;
}
if (giver._tileAtmosInfo.MoleDelta <= 0)
{
break; // We're done here now. Let's not do more work than needed.
}
if (tile2?._tileAtmosInfo == null || tile2._tileAtmosInfo.LastQueueCycle != queueCycle)
{
continue;
}
if (tile2._tileAtmosInfo.LastSlowQueueCycle == queueCycleSlow)
{
continue;
}
queue.Add(tile2);
queueCount++;
tile2._tileAtmosInfo.LastSlowQueueCycle = queueCycleSlow;
tile2._tileAtmosInfo.CurrentTransferDirection = direction.GetOpposite();
tile2._tileAtmosInfo.CurrentTransferAmount = 0;
if (tile2._tileAtmosInfo.MoleDelta < 0)
{
// This tile needs gas. Let's give it to 'em.
if (-tile2._tileAtmosInfo.MoleDelta > giver._tileAtmosInfo.MoleDelta)
{
// We don't have enough gas!
tile2._tileAtmosInfo.CurrentTransferAmount -= giver._tileAtmosInfo.MoleDelta;
tile2._tileAtmosInfo.MoleDelta += giver._tileAtmosInfo.MoleDelta;
giver._tileAtmosInfo.MoleDelta = 0;
}
else
{
// We have enough gas.
tile2._tileAtmosInfo.CurrentTransferAmount += tile2._tileAtmosInfo.MoleDelta;
giver._tileAtmosInfo.MoleDelta += tile2._tileAtmosInfo.MoleDelta;
tile2._tileAtmosInfo.MoleDelta = 0;
}
}
}
}
// Putting this loop here helps make it O(n^2) over O(n^3)
for (var i = queue.Count - 1; i >= 0; i--)
{
var tile = queue[i];
if (tile._tileAtmosInfo.CurrentTransferAmount != 0 &&
tile._tileAtmosInfo.CurrentTransferDirection != (Direction)(-1))
{
tile.AdjustEqMovement(tile._tileAtmosInfo.CurrentTransferDirection, tile._tileAtmosInfo.CurrentTransferAmount);
if (tile._adjacentTiles.TryGetValue(tile._tileAtmosInfo.CurrentTransferDirection, out var adjacent))
{
adjacent._tileAtmosInfo.CurrentTransferAmount += tile._tileAtmosInfo.CurrentTransferAmount;
}
tile._tileAtmosInfo.CurrentTransferAmount = 0;
}
}
}
}
else
{
var queue = new List <TileAtmosphere>(giverTiles.Count);
foreach (var taker in takerTiles)
{
taker._tileAtmosInfo.CurrentTransferDirection = Direction.Invalid;
taker._tileAtmosInfo.CurrentTransferAmount = 0;
var queueCycleSlow = ++_gridAtmosphereComponent.EqualizationQueueCycleControl;
queue.Clear();
queue.Add(taker);
taker._tileAtmosInfo.LastSlowQueueCycle = queueCycleSlow;
var queueCount = queue.Count;
for (int i = 0; i < queueCount; i++)
{
if (taker._tileAtmosInfo.MoleDelta >= 0)
{
break; // We're done here now. Let's not do more work than needed.
}
var tile = queue[i];
foreach (var direction in Cardinal)
{
if (!tile._adjacentTiles.ContainsKey(direction))
{
continue;
}
var tile2 = tile._adjacentTiles[direction];
if (taker._tileAtmosInfo.MoleDelta >= 0)
{
break; // We're done here now. Let's not do more work than needed.
}
if (tile2?._tileAtmosInfo == null || tile2._tileAtmosInfo.LastQueueCycle != queueCycle)
{
continue;
}
if (tile2._tileAtmosInfo.LastSlowQueueCycle == queueCycleSlow)
{
continue;
}
queue.Add(tile2);
queueCount++;
tile2._tileAtmosInfo.LastSlowQueueCycle = queueCycleSlow;
tile2._tileAtmosInfo.CurrentTransferDirection = direction.GetOpposite();
tile2._tileAtmosInfo.CurrentTransferAmount = 0;
if (tile2._tileAtmosInfo.MoleDelta > 0)
{
// This tile has gas we can suck, so let's
if (tile2._tileAtmosInfo.MoleDelta > -taker._tileAtmosInfo.MoleDelta)
{
// They have enough gas
tile2._tileAtmosInfo.CurrentTransferAmount -= taker._tileAtmosInfo.MoleDelta;
tile2._tileAtmosInfo.MoleDelta += taker._tileAtmosInfo.MoleDelta;
taker._tileAtmosInfo.MoleDelta = 0;
}
else
{
// They don't have enough gas!
tile2._tileAtmosInfo.CurrentTransferAmount += tile2._tileAtmosInfo.MoleDelta;
taker._tileAtmosInfo.MoleDelta += tile2._tileAtmosInfo.MoleDelta;
tile2._tileAtmosInfo.MoleDelta = 0;
}
}
}
}
for (var i = queue.Count - 1; i >= 0; i--)
{
var tile = queue[i];
if (tile._tileAtmosInfo.CurrentTransferAmount == 0 ||
tile._tileAtmosInfo.CurrentTransferDirection == Direction.Invalid)
{
continue;
}
tile.AdjustEqMovement(tile._tileAtmosInfo.CurrentTransferDirection, tile._tileAtmosInfo.CurrentTransferAmount);
if (tile._adjacentTiles.TryGetValue(tile._tileAtmosInfo.CurrentTransferDirection, out var adjacent))
{
adjacent._tileAtmosInfo.CurrentTransferAmount += tile._tileAtmosInfo.CurrentTransferAmount;
}
tile._tileAtmosInfo.CurrentTransferAmount = 0;
}
}
}
foreach (var tile in tiles)
{
tile.FinalizeEq();
}
foreach (var tile in tiles)
{
foreach (var direction in Cardinal)
{
if (!tile._adjacentTiles.TryGetValue(direction, out var tile2))
{
continue;
}
if (tile2?.Air?.Compare(Air) == GasMixture.GasCompareResult.NoExchange)
{
continue;
}
_gridAtmosphereComponent.AddActiveTile(tile2);
break;
}
}
}
}
public static float Max(float a, float b, float c, float d)
{
return(MathF.Max(a, MathF.Max(b, MathF.Max(c, d))));
}
public static float Median(float a, float b, float c)
{
return(MathF.Max(MathF.Min(a, b), MathF.Min(MathF.Max(a, b), c)));
}
public static float Clamp(this float val, float min, float max)
{
return(MathF.Clamp(val, min, max));
}
