public void Inhale(float frameTime, GasMixture from)
{
var ratio = Atmospherics.BreathPercentage * frameTime;
Transfer(from, Air, ratio);
ToBloodstream(Air);
}
public override void ExposeData(ObjectSerializer serializer)
{
base.ExposeData(serializer);
Air = new GasMixture(6);
serializer.DataField(ref _initialMaxVolume, "maxVolume", ReagentUnit.New(250));
}
public override void ExposeData(ObjectSerializer serializer)
{
base.ExposeData(serializer);
Air = new GasMixture();
serializer.DataField(this, x => x.Air, "air", new GasMixture());
}
public static bool IsMixtureOxygenated(GasMixture gas, float partial)
{
if (gas.O2Partial >= partial)
{
return(true);
}
return(false);
}
public static bool IsMixtureCo2Toxic(GasMixture gas)
{
if (gas.Co2Partial >= 5f)//conditions for hypercapnia
{
return(true);
}
return(true);
}
/// <summary>
/// Calculates the molar density of a given gas mixture in g/mol.
/// </summary>
/// <param name="mix">GasMixture to have its desnity calculated.</param>
/// <returns>Gas density (g/mol)</returns>
public static float MolarGasDensity(GasMixture mix)
{
return((mix.Oxygen.Quantity / mix.TotalMolesGassesAndLiquids * 31.9988f) +
(mix.Nitrogen.Quantity / mix.TotalMolesGassesAndLiquids * 28.0134f) +
(mix.CarbonDioxide.Quantity / mix.TotalMolesGassesAndLiquids * 44.0095f) +
(mix.Volatiles.Quantity / mix.TotalMolesGassesAndLiquids * 2.01588f) +
(mix.Pollutant.Quantity / mix.TotalMolesGassesAndLiquids * 70.906f) +
(mix.Water.Quantity / mix.TotalMolesGassesAndLiquids * 18.0153f));
}
public void Transfer(BloodstreamComponent @from, GasMixture to, Gas gas, float pressure)
{
var transfer = new GasMixture();
var molesInBlood = @from.Air.GetMoles(gas);
transfer.SetMoles(gas, molesInBlood);
transfer.ReleaseGasTo(to, pressure);
@from.Air.Merge(transfer);
}
private void OnFilterUpdated(EntityUid uid, GasFilterComponent filter, AtmosDeviceUpdateEvent args)
{
var appearance = EntityManager.GetComponentOrNull <AppearanceComponent>(filter.Owner);
if (!filter.Enabled ||
!EntityManager.TryGetComponent(uid, out NodeContainerComponent? nodeContainer) ||
!EntityManager.TryGetComponent(uid, out AtmosDeviceComponent? device) ||
!nodeContainer.TryGetNode(filter.InletName, out PipeNode? inletNode) ||
!nodeContainer.TryGetNode(filter.FilterName, out PipeNode? filterNode) ||
!nodeContainer.TryGetNode(filter.OutletName, out PipeNode? outletNode) ||
outletNode.Air.Pressure >= Atmospherics.MaxOutputPressure) // No need to transfer if target is full.
{
appearance?.SetData(FilterVisuals.Enabled, false);
_ambientSoundSystem.SetAmbience(filter.Owner, false);
return;
}
// We multiply the transfer rate in L/s by the seconds passed since the last process to get the liters.
var transferRatio = (float)(filter.TransferRate * (_gameTiming.CurTime - device.LastProcess).TotalSeconds) / inletNode.Air.Volume;
if (transferRatio <= 0)
{
appearance?.SetData(FilterVisuals.Enabled, false);
_ambientSoundSystem.SetAmbience(filter.Owner, false);
return;
}
var removed = inletNode.Air.RemoveRatio(transferRatio);
if (filter.FilteredGas.HasValue)
{
appearance?.SetData(FilterVisuals.Enabled, true);
var filteredOut = new GasMixture()
{
Temperature = removed.Temperature
};
filteredOut.SetMoles(filter.FilteredGas.Value, removed.GetMoles(filter.FilteredGas.Value));
removed.SetMoles(filter.FilteredGas.Value, 0f);
var target = filterNode.Air.Pressure < Atmospherics.MaxOutputPressure ? filterNode : inletNode;
_atmosphereSystem.Merge(target.Air, filteredOut);
if (filteredOut.Pressure != 0f)
{
_ambientSoundSystem.SetAmbience(filter.Owner, true);
}
else
{
_ambientSoundSystem.SetAmbience(filter.Owner, false);
}
}
_atmosphereSystem.Merge(outletNode.Air, removed);
}
public float pressure = 0; // in kPa
void Start()
{
// Get surrounding tiles, because we will need to update them
surroundedTiles = new List <Tile>();
surroundedTiles.Add(GetSurroundedTile(transform.forward));
surroundedTiles.Add(GetSurroundedTile(-transform.right));
surroundedTiles.Add(GetSurroundedTile(-transform.forward));
surroundedTiles.Add(GetSurroundedTile(transform.right));
gasMixture = new GasMixture();
}
public override void ExposeData(ObjectSerializer serializer)
{
base.ExposeData(serializer);
Air = new GasMixture(6)
{
Temperature = Atmospherics.NormalBodyTemperature
};
serializer.DataField(ref _initialMaxVolume, "maxVolume", ReagentUnit.New(250));
}
private void OnFilterUpdated(EntityUid uid, GasFilterComponent filter, AtmosDeviceUpdateEvent args)
{
if (!filter.Enabled)
{
return;
}
if (!ComponentManager.TryGetComponent(uid, out NodeContainerComponent? nodeContainer))
{
return;
}
if (!ComponentManager.TryGetComponent(uid, out AtmosDeviceComponent? device))
{
return;
}
if (!nodeContainer.TryGetNode(filter.InletName, out PipeNode? inletNode) ||
!nodeContainer.TryGetNode(filter.FilterName, out PipeNode? filterNode) ||
!nodeContainer.TryGetNode(filter.OutletName, out PipeNode? outletNode))
{
return;
}
if (outletNode.Air.Pressure >= Atmospherics.MaxOutputPressure)
{
return; // No need to transfer if target is full.
}
// We multiply the transfer rate in L/s by the seconds passed since the last process to get the liters.
var transferRatio = (float)(filter.TransferRate * (_gameTiming.CurTime - device.LastProcess).TotalSeconds) / inletNode.Air.Volume;
if (transferRatio <= 0)
{
return;
}
var removed = inletNode.Air.RemoveRatio(transferRatio);
if (filter.FilteredGas.HasValue)
{
var filteredOut = new GasMixture()
{
Temperature = removed.Temperature
};
filteredOut.SetMoles(filter.FilteredGas.Value, removed.GetMoles(filter.FilteredGas.Value));
removed.SetMoles(filter.FilteredGas.Value, 0f);
var target = filterNode.Air.Pressure < Atmospherics.MaxOutputPressure ? filterNode : inletNode;
target.AssumeAir(filteredOut);
}
outletNode.AssumeAir(removed);
}
public ReactionResult React(GasMixture mixture, IGasMixtureHolder holder, GridTileLookupSystem gridLookup)
{
var result = ReactionResult.NoReaction;
foreach (var effect in _effects)
{
result |= effect.React(mixture, holder, gridLookup);
}
return(result);
}
public ReactionResult React(GasMixture mixture, IGasMixtureHolder holder)
{
var result = ReactionResult.NoReaction;
foreach (var effect in _effects)
{
result |= effect.React(mixture, holder);
}
return(result);
}
public void Update(GasMixture air, float frameDelta, AtmosphereSystem atmosphereSystem)
{
// TODO: I'm coming for you next, TemperatureComponent... Fear me for I am death, destroyer of shitcode.
if (_temperatureComponent != null)
{
var temperatureDelta = air.Temperature - _temperatureComponent.CurrentTemperature;
var tileHeatCapacity = atmosphereSystem.GetHeatCapacity(air);
var heat = temperatureDelta * (tileHeatCapacity * _temperatureComponent.HeatCapacity / (tileHeatCapacity + _temperatureComponent.HeatCapacity));
_temperatureComponent.ReceiveHeat(heat);
_temperatureComponent.Update();
}
}
public void ToBloodstream(GasMixture mixture)
{
if (!Owner.TryGetComponent(out BloodstreamComponent bloodstream))
{
return;
}
var to = bloodstream.Air;
to.Merge(mixture);
mixture.Clear();
}
public override void ExposeData(ObjectSerializer serializer)
{
base.ExposeData(serializer);
GasMixture = new GasMixture();
serializer.DataReadWriteFunction(
"volume",
0f,
vol => GasMixture.Volume = vol,
() => GasMixture.Volume);
}
public ReactionResult React(GasMixture mixture, IGasMixtureHolder?holder, AtmosphereSystem atmosphereSystem)
{
var initialMiasma = mixture.GetMoles(Gas.Miasma);
var initialFrezon = mixture.GetMoles(Gas.Frezon);
var convert = Math.Min(Math.Min(initialFrezon, initialMiasma), Atmospherics.MiasmicSubsumationMaxConversionRate);
mixture.AdjustMoles(Gas.Miasma, convert);
mixture.AdjustMoles(Gas.Frezon, -convert);
return(ReactionResult.Reacting);
}
public ReactionResult React(GasMixture mixture, IGasMixtureHolder?holder, AtmosphereSystem atmosphereSystem)
{
var oldHeatCapacity = atmosphereSystem.GetHeatCapacity(mixture);
var temperature = mixture.Temperature;
var energyModifier = 1f;
var scale = (temperature - Atmospherics.FrezonCoolLowerTemperature) /
(Atmospherics.FrezonCoolMidTemperature - Atmospherics.FrezonCoolLowerTemperature);
if (scale > 1f)
{
// Scale energy but not frezon usage if we're in a very, very hot place
energyModifier = Math.Min(scale, Atmospherics.FrezonCoolMaximumEnergyModifier);
scale = 1f;
}
if (scale <= 0)
{
return(ReactionResult.NoReaction);
}
var initialNit = mixture.GetMoles(Gas.Nitrogen);
var initialFrezon = mixture.GetMoles(Gas.Frezon);
var burnRate = initialFrezon * scale / Atmospherics.FrezonCoolRateModifier;
var energyReleased = 0f;
if (burnRate > Atmospherics.MinimumHeatCapacity)
{
var nitAmt = Math.Min(burnRate * Atmospherics.FrezonNitrogenCoolRatio, initialNit);
var frezonAmt = Math.Min(burnRate, initialFrezon);
mixture.AdjustMoles(Gas.Nitrogen, -nitAmt);
mixture.AdjustMoles(Gas.Frezon, -frezonAmt);
mixture.AdjustMoles(Gas.NitrousOxide, nitAmt + frezonAmt);
energyReleased = burnRate * Atmospherics.FrezonCoolEnergyReleased * energyModifier;
}
if (energyReleased >= 0f)
{
return(ReactionResult.NoReaction);
}
var newHeatCapacity = atmosphereSystem.GetHeatCapacity(mixture);
if (newHeatCapacity > Atmospherics.MinimumHeatCapacity)
{
mixture.Temperature = (temperature * oldHeatCapacity + energyReleased) / newHeatCapacity;
}
return(ReactionResult.Reacting);
}
public void PumpToxins(GasMixture into, float pressure)
{
if (!Owner.TryGetComponent(out MetabolismComponent metabolism))
{
Air.PumpGasTo(into, pressure);
return;
}
var toxins = metabolism.Clean(this);
toxins.PumpGasTo(into, pressure);
Air.Merge(toxins);
}
public override void ExposeData(ObjectSerializer serializer)
{
base.ExposeData(serializer);
Air = new GasMixture();
serializer.DataReadWriteFunction(
"volume",
6,
vol => Air.Volume = vol,
() => Air.Volume);
serializer.DataField(this, l => l.Pressure, "pressure", 100);
}
private void ExcitedGroupSelfBreakdown(GridAtmosphereComponent gridAtmosphere, ExcitedGroup excitedGroup)
{
DebugTools.Assert(!excitedGroup.Disposed, "Excited group is disposed!");
DebugTools.Assert(gridAtmosphere.ExcitedGroups.Contains(excitedGroup), "Grid Atmosphere does not contain Excited Group!");
var combined = new GasMixture(Atmospherics.CellVolume);
var tileSize = excitedGroup.Tiles.Count;
if (excitedGroup.Disposed)
{
return;
}
if (tileSize == 0)
{
ExcitedGroupDispose(gridAtmosphere, excitedGroup);
return;
}
foreach (var tile in excitedGroup.Tiles)
{
if (tile?.Air == null)
{
continue;
}
Merge(combined, tile.Air);
if (!ExcitedGroupsSpaceIsAllConsuming || !tile.Air.Immutable)
{
continue;
}
combined.Clear();
break;
}
combined.Multiply(1 / (float)tileSize);
foreach (var tile in excitedGroup.Tiles)
{
if (tile?.Air == null)
{
continue;
}
tile.Air.CopyFromMutable(combined);
InvalidateVisuals(tile.GridIndex, tile.GridIndices);
}
excitedGroup.BreakdownCooldown = 0;
}
private void UpdateTileTemperature(TemperatureArtifactComponent component, GasMixture environment)
{
var dif = component.TargetTemperature - environment.Temperature;
var absDif = Math.Abs(dif);
if (absDif < component.MaxTemperatureDifference)
{
return;
}
var step = Math.Min(absDif, component.SpawnTemperature);
environment.Temperature += dif > 0 ? step : -step;
}
public static bool IsMixtureToxic(GasMixture gas)
{
if (IsMixtureCo2Toxic(gas))//conditions for hypercapnia
{
return(true);
}
if (!IsMixtureOxygenated(gas))
{
return(true);
}
return(false);
}
private void RefillGasTank(EntityUid tank, Gas gasType, GasTankComponent?tankComponent)
{
if (!Resolve(tank, ref tankComponent))
{
return;
}
var mixSize = tankComponent.Air.Volume;
var newMix = new GasMixture(mixSize);
newMix.SetMoles(gasType, (1000.0f * mixSize) / (Atmospherics.R * Atmospherics.T20C)); // Fill the tank to 1000KPA.
newMix.Temperature = Atmospherics.T20C;
tankComponent.Air = newMix;
}
/// <summary>
/// Divides a source gas mixture into several recipient mixtures, scaled by their relative volumes. Does not
/// modify the source gas mixture. Used for pipe network splitting. Note that the total destination volume
/// may be larger or smaller than the source mixture.
/// </summary>
public void DivideInto(GasMixture source, List <GasMixture> receivers)
{
var totalVolume = 0f;
foreach (var receiver in receivers)
{
if (!receiver.Immutable)
{
totalVolume += receiver.Volume;
}
}
float?sourceHeatCapacity = null;
var buffer = new float[Atmospherics.AdjustedNumberOfGases];
foreach (var receiver in receivers)
{
if (receiver.Immutable)
{
continue;
}
var fraction = receiver.Volume / totalVolume;
// Set temperature, if necessary.
if (MathF.Abs(receiver.Temperature - source.Temperature) > Atmospherics.MinimumTemperatureDeltaToConsider)
{
// Often this divides a pipe net into new and completely empty pipe nets
if (receiver.TotalMoles == 0)
{
receiver.Temperature = source.Temperature;
}
else
{
sourceHeatCapacity ??= GetHeatCapacity(source);
var receiverHeatCapacity = GetHeatCapacity(receiver);
var combinedHeatCapacity = receiverHeatCapacity + sourceHeatCapacity.Value * fraction;
if (combinedHeatCapacity > 0f)
{
receiver.Temperature = (GetThermalEnergy(source, sourceHeatCapacity.Value * fraction) + GetThermalEnergy(receiver, receiverHeatCapacity)) / combinedHeatCapacity;
}
}
}
// transfer moles
NumericsHelpers.Multiply(source.Moles, fraction, buffer);
NumericsHelpers.Add(receiver.Moles, buffer);
}
}
public void Update(GasMixture air, float frameDelta, AtmosphereSystem atmosphereSystem)
{
if (_temperatureComponent != null)
{
var temperatureDelta = air.Temperature - _temperatureComponent.CurrentTemperature;
var tileHeatCapacity = atmosphereSystem.GetHeatCapacity(air);
var heat = temperatureDelta * (tileHeatCapacity * _temperatureComponent.HeatCapacity / (tileHeatCapacity + _temperatureComponent.HeatCapacity));
_temperatureComponent.ReceiveHeat(heat);
_temperatureComponent.Update();
}
_barotraumaComponent?.Update(air.Pressure);
_flammableComponent?.Update(air);
}
public void ScrubInto(GasMixture mixture, GasMixture destination, IReadOnlyCollection <Gas> filterGases)
{
var buffer = new GasMixture(mixture.Volume)
{
Temperature = mixture.Temperature
};
foreach (var gas in filterGases)
{
buffer.AdjustMoles(gas, mixture.GetMoles(gas));
mixture.SetMoles(gas, 0f);
}
Merge(destination, buffer);
}
/// <summary>
/// Mix air from a gas container into a pipe net.
/// Useful for anything that uses connector ports.
/// </summary>
public void MixContainerWithPipeNet(GasMixture containerAir, GasMixture pipeNetAir)
{
var buffer = new GasMixture(pipeNetAir.Volume + containerAir.Volume);
_atmosphereSystem.Merge(buffer, pipeNetAir);
_atmosphereSystem.Merge(buffer, containerAir);
pipeNetAir.Clear();
_atmosphereSystem.Merge(pipeNetAir, buffer);
pipeNetAir.Multiply(pipeNetAir.Volume / buffer.Volume);
containerAir.Clear();
_atmosphereSystem.Merge(containerAir, buffer);
containerAir.Multiply(containerAir.Volume / buffer.Volume);
}
private void OnBeforeUnanchored(EntityUid uid, AtmosUnsafeUnanchorComponent component, BeforeUnanchoredEvent args)
{
if (!component.Enabled || !ComponentManager.TryGetComponent(uid, out NodeContainerComponent? nodes))
{
return;
}
if (!component.Owner.Transform.Coordinates.TryGetTileAtmosphere(out var environment))
{
environment = null;
}
var environmentPressure = environment?.Air?.Pressure ?? 0f;
var environmentVolume = environment?.Air?.Volume ?? Atmospherics.CellVolume;
var environmentTemperature = environment?.Air?.Volume ?? Atmospherics.TCMB;
var lost = 0f;
var timesLost = 0;
foreach (var node in nodes.Nodes.Values)
{
if (node is not PipeNode pipe)
{
continue;
}
var difference = pipe.Air.Pressure - environmentPressure;
lost += difference * environmentVolume / (environmentTemperature * Atmospherics.R);
timesLost++;
}
var sharedLoss = lost / timesLost;
var buffer = new GasMixture();
var atmosphereSystem = Get <AtmosphereSystem>();
foreach (var node in nodes.Nodes.Values)
{
if (node is not PipeNode pipe)
{
continue;
}
atmosphereSystem.Merge(buffer, pipe.Air.Remove(sharedLoss));
}
environment?.AssumeAir(buffer);
}
public ReactionResult React(GasMixture mixture, IGasMixtureHolder?holder)
{
var reaction = ReactionResult.NoReaction;
var temperature = mixture.Temperature;
var energy = GetThermalEnergy(mixture);
foreach (var prototype in GasReactions)
{
if (energy < prototype.MinimumEnergyRequirement ||
temperature < prototype.MinimumTemperatureRequirement ||
temperature > prototype.MaximumTemperatureRequirement)
{
continue;
}
var doReaction = true;
for (var i = 0; i < prototype.MinimumRequirements.Length; i++)
{
if (i > Atmospherics.TotalNumberOfGases)
{
throw new IndexOutOfRangeException("Reaction Gas Minimum Requirements Array Prototype exceeds total number of gases!");
}
var req = prototype.MinimumRequirements[i];
if (!(mixture.GetMoles(i) < req))
{
continue;
}
doReaction = false;
break;
}
if (!doReaction)
{
continue;
}
reaction = prototype.React(mixture, holder, this);
if (reaction.HasFlag(ReactionResult.StopReactions))
{
break;
}
}
return(reaction);
}