public bool ConsiderSuperconductivity(GridAtmosphereComponent gridAtmosphere, TileAtmosphere tile, bool starting)
{
if (!Superconduction)
{
return(false);
}
if (tile.Air == null || tile.Air.Temperature < (starting
? Atmospherics.MinimumTemperatureStartSuperConduction
: Atmospherics.MinimumTemperatureForSuperconduction))
{
return(false);
}
return(!(GetHeatCapacity(tile.Air) < Atmospherics.MCellWithRatio) &&
ConsiderSuperconductivity(gridAtmosphere, tile));
}
private AtmosDirection ConductivityDirections(GridAtmosphereComponent gridAtmosphere, TileAtmosphere tile)
{
if (tile.Air == null)
{
if (tile.ArchivedCycle < gridAtmosphere.UpdateCounter)
{
Archive(tile, gridAtmosphere.UpdateCounter);
}
return(AtmosDirection.All);
}
// TODO ATMOS check if this is correct
return(AtmosDirection.All);
}
public bool ConsiderSuperconductivity(GridAtmosphereComponent gridAtmosphere, TileAtmosphere tile)
{
if (tile.ThermalConductivity == 0f || !Superconduction)
{
return(false);
}
gridAtmosphere.SuperconductivityTiles.Add(tile);
return(true);
}
private void ProcessCell(GridAtmosphereComponent gridAtmosphere, TileAtmosphere tile, int fireCount)
{
// Can't process a tile without air
if (tile.Air == null)
{
RemoveActiveTile(gridAtmosphere, tile);
return;
}
if (tile.ArchivedCycle < fireCount)
{
Archive(tile, fireCount);
}
tile.CurrentCycle = fireCount;
var adjacentTileLength = 0;
for (var i = 0; i < Atmospherics.Directions; i++)
{
var direction = (AtmosDirection)(1 << i);
if (tile.AdjacentBits.IsFlagSet(direction))
{
adjacentTileLength++;
}
}
for (var i = 0; i < Atmospherics.Directions; i++)
{
var direction = (AtmosDirection)(1 << i);
if (!tile.AdjacentBits.IsFlagSet(direction))
{
continue;
}
var enemyTile = tile.AdjacentTiles[i];
// If the tile is null or has no air, we don't do anything for it.
if (enemyTile?.Air == null)
{
continue;
}
if (fireCount <= enemyTile.CurrentCycle)
{
continue;
}
Archive(enemyTile, fireCount);
var shouldShareAir = false;
if (ExcitedGroups && tile.ExcitedGroup != null && enemyTile.ExcitedGroup != null)
{
if (tile.ExcitedGroup != enemyTile.ExcitedGroup)
{
ExcitedGroupMerge(gridAtmosphere, tile.ExcitedGroup, enemyTile.ExcitedGroup);
}
shouldShareAir = true;
}
else if (tile.Air !.Compare(enemyTile.Air !) != GasMixture.GasCompareResult.NoExchange)
{
if (!enemyTile.Excited)
{
AddActiveTile(gridAtmosphere, enemyTile);
}
if (ExcitedGroups)
{
var excitedGroup = tile.ExcitedGroup;
excitedGroup ??= enemyTile.ExcitedGroup;
if (excitedGroup == null)
{
excitedGroup = new ExcitedGroup();
gridAtmosphere.ExcitedGroups.Add(excitedGroup);
}
if (tile.ExcitedGroup == null)
{
ExcitedGroupAddTile(excitedGroup, tile);
}
if (enemyTile.ExcitedGroup == null)
{
ExcitedGroupAddTile(excitedGroup, enemyTile);
}
}
shouldShareAir = true;
}
if (shouldShareAir)
{
var difference = Share(tile.Air !, enemyTile.Air !, adjacentTileLength);
// Monstermos already handles this, so let's not handle it ourselves.
if (!MonstermosEqualization)
{
if (difference >= 0)
{
ConsiderPressureDifference(gridAtmosphere, tile, direction, difference);
}
else
{
ConsiderPressureDifference(gridAtmosphere, enemyTile, direction.GetOpposite(), -difference);
}
}
LastShareCheck(tile);
}
}
if (tile.Air != null)
{
React(tile.Air, tile);
}
InvalidateVisuals(tile.GridIndex, tile.GridIndices);
var remove = true;
if (tile.Air !.Temperature > Atmospherics.MinimumTemperatureStartSuperConduction)
{
if (ConsiderSuperconductivity(gridAtmosphere, tile, true))
{
remove = false;
}
}
if (ExcitedGroups && tile.ExcitedGroup == null && remove)
{
RemoveActiveTile(gridAtmosphere, tile);
}
}
public void NeighborConductWithSource(GridAtmosphereComponent gridAtmosphere, TileAtmosphere tile, TileAtmosphere other)
{
if (tile.Air == null)
{
if (other.Tile != null)
{
TemperatureShareOpenToSolid(other, tile);
}
else
{
TemperatureShareMutualSolid(other, tile, tile.ThermalConductivity);
}
// TODO ATMOS: tile.TemperatureExpose(null, tile.Temperature, gridAtmosphere.GetVolumeForCells(1));
return;
}
if (other.Air != null)
{
TemperatureShare(other.Air, tile.Air, Atmospherics.WindowHeatTransferCoefficient);
}
else
{
TemperatureShareOpenToSolid(tile, other);
}
AddActiveTile(gridAtmosphere, tile);
}
private void Archive(TileAtmosphere tile, int fireCount)
{
tile.Air?.Archive();
tile.ArchivedCycle = fireCount;
tile.TemperatureArchived = tile.Temperature;
}
public override bool HasHighPressureDelta(TileAtmosphere tile)
{
return(false);
}
public virtual bool HasHighPressureDelta(TileAtmosphere tile)
{
return(_highPressureDelta.Contains(tile));
}
protected virtual void Revalidate()
{
if (!Owner.TryGetComponent(out IMapGridComponent? mapGrid))
{
return;
}
foreach (var indices in _invalidatedCoords.ToArray())
{
var tile = GetTile(indices);
AddActiveTile(tile);
if (tile == null)
{
tile = new TileAtmosphere(this, mapGrid.Grid.Index, indices, new GasMixture(GetVolumeForCells(1))
{
Temperature = Atmospherics.T20C
});
Tiles[indices] = tile;
}
if (IsSpace(indices))
{
tile.Air = new GasMixture(GetVolumeForCells(1));
tile.Air.MarkImmutable();
Tiles[indices] = tile;
}
else if (IsAirBlocked(indices))
{
tile.Air = null;
}
else
{
var obs = GetObstructingComponent(indices);
if (obs != null)
{
if (tile.Air == null && obs.FixVacuum)
{
FixVacuum(tile.GridIndices);
}
}
tile.Air ??= new GasMixture(GetVolumeForCells(1))
{
Temperature = Atmospherics.T20C
};
}
tile.UpdateAdjacent();
tile.UpdateVisuals();
for (var i = 0; i < Atmospherics.Directions; i++)
{
var direction = (AtmosDirection)(1 << i);
var otherIndices = indices.Offset(direction.ToDirection());
var otherTile = GetTile(otherIndices);
AddActiveTile(otherTile);
otherTile?.UpdateAdjacent(direction.GetOpposite());
}
}
_invalidatedCoords.Clear();
}
private void ConsiderPressureDifference(GridAtmosphereComponent gridAtmosphere, TileAtmosphere tile, TileAtmosphere other, float difference)
{
gridAtmosphere.HighPressureDelta.Add(tile);
if (difference > tile.PressureDifference)
{
tile.PressureDifference = difference;
tile.PressureDirection = (tile.GridIndices - other.GridIndices).GetDir().ToAtmosDirection();
}
}
