/// <summary>
/// The thing that actually equalises the tiles
/// </summary>
private void Equalize()
{
// If there is just one isolated tile, it's not nescessary to calculate the mean. Speeds up things a bit.
if (nodes.Count > 1)
{
//Calculate the average gas from adding up all the adjacent tiles and dividing by the number of tiles
GasMix MeanGasMix = CalcMeanGasMix();
for (var i = 0; i < nodes.Count; i++)
{
MetaDataNode node = nodes[i];
if (!node.IsOccupied)
{
node.GasMix = CalcAtmos(node.GasMix, MeanGasMix);
if (node.IsSpace)
{
//Set to 0 if space
node.GasMix *= 0;
}
}
}
}
}
public float React(ref GasMix gasMix, Vector3 tilePos)
{
var oldHeatCap = gasMix.WholeHeatCapacity;
var reactionEfficiency = Mathf.Min(gasMix.GetMoles(Gas.Oxygen), gasMix.GetMoles(Gas.Nitrogen));
var energyUsed = reactionEfficiency * AtmosDefines.NITROUS_FORMATION_ENERGY;
if (gasMix.GetMoles(Gas.Oxygen) - reactionEfficiency < 0 || gasMix.GetMoles(Gas.Nitrogen) - reactionEfficiency < 0)
{
//No reaction
return(0f);
}
if (gasMix.Temperature > 250f)
{
//No reaction
return(0f);
}
gasMix.RemoveGas(Gas.Oxygen, reactionEfficiency);
gasMix.RemoveGas(Gas.Nitrogen, 2 * reactionEfficiency);
gasMix.AddGas(Gas.NitrousOxide, reactionEfficiency);
if (energyUsed > 0)
{
gasMix.SetTemperature(Mathf.Max((gasMix.Temperature * oldHeatCap - energyUsed) / gasMix.WholeHeatCapacity, 2.7f));
}
return(0f);
}
public float React(ref GasMix gasMix, Vector3 tilePos)
{
var oldHeatCap = gasMix.WholeHeatCapacity;
var reactionEfficiency = Mathf.Min(gasMix.Temperature / 3731.5f, gasMix.GetMoles(Gas.Plasma), gasMix.GetMoles(Gas.CarbonDioxide), gasMix.GetMoles(Gas.BZ));
var energyUsed = reactionEfficiency * 100;
if (gasMix.GetMoles(Gas.Plasma) - reactionEfficiency < 0 || gasMix.GetMoles(Gas.CarbonDioxide) - reactionEfficiency < 0 || gasMix.GetMoles(Gas.BZ) - reactionEfficiency < 0)
{
//No reaction
return(0f);
}
gasMix.RemoveGas(Gas.Plasma, 5 * reactionEfficiency);
gasMix.RemoveGas(Gas.CarbonDioxide, reactionEfficiency);
gasMix.RemoveGas(Gas.BZ, 0.25f * reactionEfficiency);
gasMix.AddGas(Gas.Freon, reactionEfficiency * 2);
if (energyUsed > 0)
{
gasMix.Temperature = Mathf.Max((gasMix.Temperature * oldHeatCap - energyUsed) / gasMix.WholeHeatCapacity, 2.7f);
}
return(0f);
}
public float React(ref GasMix gasMix, Vector3 tilePos)
{
var oldHeatCap = gasMix.WholeHeatCapacity;
var ballShotAngle = 180 * Mathf.Cos(gasMix.GetMoles(Gas.WaterVapor) * gasMix.GetMoles(Gas.Nitryl)) + 180;
var stimUsed = Mathf.Min(AtmosDefines.STIM_BALL_GAS_AMOUNT * gasMix.GetMoles(Gas.Plasma), gasMix.GetMoles(Gas.Stimulum));
var pluoxUsed = Mathf.Min(AtmosDefines.STIM_BALL_GAS_AMOUNT * gasMix.GetMoles(Gas.Plasma), gasMix.GetMoles(Gas.Pluoxium));
var energyReleased = stimUsed * AtmosDefines.STIMULUM_HEAT_SCALE;
//TODO shoot stim projectile using the angle
gasMix.AddGas(Gas.CarbonDioxide, 4 * pluoxUsed);
gasMix.AddGas(Gas.Nitrogen, 8 * stimUsed);
gasMix.SetGas(Gas.Plasma, gasMix.GetMoles(Gas.Plasma) * 0.5f);
gasMix.RemoveGas(Gas.Pluoxium, 10 * pluoxUsed);
gasMix.RemoveGas(Gas.Stimulum, 20 * stimUsed);
gasMix.SetTemperature(Mathf.Clamp((gasMix.Temperature * oldHeatCap + energyReleased) / gasMix.WholeHeatCapacity, 2.7f, Single.PositiveInfinity));
return(0f);
}
public float React(ref GasMix gasMix, Vector3 tilePos)
{
var oldHeatCap = gasMix.WholeHeatCapacity;
var reactionEfficiency = Mathf.Min(
//More efficient at less than 10 Kpa
(float)(1 / ((gasMix.Pressure / (0.1 * 101.325))))
* (Mathf.Max(gasMix.GetMoles(Gas.Plasma) * gasMix.GetMoles(Gas.NitrousOxide), 1f)),
gasMix.GetMoles(Gas.NitrousOxide),
gasMix.GetMoles(Gas.Plasma) / 2);
var energyReleased = 2 * reactionEfficiency * AtmosDefines.FIRE_CARBON_ENERGY_RELEASED;
if (gasMix.GetMoles(Gas.NitrousOxide) - reactionEfficiency < 0 || gasMix.GetMoles(Gas.Plasma) - 2 * reactionEfficiency < 0 || energyReleased <= 0)
{
//No reaction
return(0f);
}
gasMix.AddGas(Gas.BZ, reactionEfficiency);
gasMix.RemoveGas(Gas.NitrousOxide, reactionEfficiency);
gasMix.RemoveGas(Gas.Plasma, 2 * reactionEfficiency);
gasMix.Temperature = Mathf.Max((gasMix.Temperature * oldHeatCap + energyReleased) / gasMix.WholeHeatCapacity, 2.7f);
return(0f);
}
public float React(ref GasMix gasMix, Vector3 tilePos)
{
var oldHeatCap = gasMix.WholeHeatCapacity;
var burnedFuel = 0f;
burnedFuel = Mathf.Max(0f, 0.00002f * (gasMix.Temperature - (0.00001f * Mathf.Pow(gasMix.Temperature, 2)))) * gasMix.GetMoles(Gas.NitrousOxide);
gasMix.RemoveGas(Gas.NitrousOxide, burnedFuel);
if (burnedFuel != 0)
{
var energyReleased = AtmosDefines.N2O_DECOMPOSITION_ENERGY_RELEASED * burnedFuel;
gasMix.AddGas(Gas.Oxygen, burnedFuel / 2f);
gasMix.AddGas(Gas.Nitrogen, burnedFuel);
var newHeatCap = gasMix.WholeHeatCapacity;
if (newHeatCap > 0.0003f)
{
gasMix.SetTemperature((gasMix.Temperature + energyReleased) / newHeatCap);
}
}
return(0f);
}
public float React(ref GasMix gasMix)
{
float consumed = 0;
float temperature = gasMix.Temperature;
float BurnRate = GetOxygenContact(gasMix);
//Logger.Log(BurnRate.ToString() + "BurnRate");
if (BurnRate > 0)
{
float MolesPlasmaBurnt = gasMix.GetMoles(Gas.Plasma) * Reactions.BurningDelta * BurnRate;
if (MolesPlasmaBurnt * 2 > gasMix.GetMoles(Gas.Oxygen))
{
MolesPlasmaBurnt = (gasMix.GetMoles(Gas.Oxygen) * Reactions.BurningDelta * BurnRate) / 2;
}
gasMix.RemoveGas(Gas.Plasma, MolesPlasmaBurnt);
gasMix.RemoveGas(Gas.Oxygen, MolesPlasmaBurnt * 2);
var TotalmolestoCO2 = MolesPlasmaBurnt + (MolesPlasmaBurnt * 2);
gasMix.AddGas(Gas.CarbonDioxide, TotalmolestoCO2 / 3);
float heatCapacity = gasMix.WholeHeatCapacity;
gasMix.Temperature = (temperature * heatCapacity + (Reactions.EnergyPerMole * TotalmolestoCO2)) / gasMix.WholeHeatCapacity;
consumed = TotalmolestoCO2;
}
return(consumed);
}
public float React(ref GasMix gasMix, Vector3 tilePos)
{
var oldHeatCap = gasMix.WholeHeatCapacity;
var heatScale = Mathf.Min(gasMix.Temperature / AtmosDefines.STIMULUM_HEAT_SCALE, gasMix.GetMoles(Gas.Tritium), gasMix.GetMoles(Gas.Plasma), gasMix.GetMoles(Gas.Nitryl));
var stimEnergyChange = heatScale + AtmosDefines.STIMULUM_FIRST_RISE * Mathf.Pow(heatScale, 2) -
AtmosDefines.STIMULUM_FIRST_DROP * Mathf.Pow(heatScale, 3) +
AtmosDefines.STIMULUM_SECOND_RISE * Mathf.Pow(heatScale, 4) -
AtmosDefines.STIMULUM_ABSOLUTE_DROP * Mathf.Pow(heatScale, 5);
if (gasMix.GetMoles(Gas.Tritium) - heatScale < 0 || gasMix.GetMoles(Gas.Plasma) - heatScale < 0 || gasMix.GetMoles(Gas.Nitryl) - heatScale < 0)
{
//No reaction
return(0f);
}
gasMix.AddGas(Gas.Stimulum, heatScale / 10f);
gasMix.RemoveGas(Gas.Tritium, heatScale);
gasMix.RemoveGas(Gas.Plasma, heatScale);
gasMix.RemoveGas(Gas.Nitryl, heatScale);
gasMix.SetTemperature(Mathf.Max((gasMix.Temperature * oldHeatCap + stimEnergyChange) / gasMix.WholeHeatCapacity, 2.7f));
return(0f);
}
public GasMix RemoveRatio(float ratio)
{
GasMix removed = this * ratio;
this -= removed;
return(removed);
}
public float React(ref GasMix gasMix, Vector3 tilePos)
{
float consumed = 0;
float temperature = gasMix.Temperature;
float BurnRate = GetOxygenContact(gasMix);
//Logger.Log(BurnRate.ToString() + "BurnRate");
if (BurnRate > 0)
{
var superSaturated = false;
float MolesPlasmaBurnt = gasMix.GetMoles(Gas.Plasma) * Reactions.BurningDelta * BurnRate;
if (MolesPlasmaBurnt * 2 > gasMix.GetMoles(Gas.Oxygen))
{
MolesPlasmaBurnt = (gasMix.GetMoles(Gas.Oxygen) * Reactions.BurningDelta * BurnRate) / 2;
}
if (MolesPlasmaBurnt < 0)
{
return(0);
}
if (gasMix.GetMoles(Gas.Oxygen) / gasMix.GetMoles(Gas.Plasma) > AtmosDefines.SUPER_SATURATION_THRESHOLD)
{
superSaturated = true;
}
gasMix.RemoveGas(Gas.Plasma, MolesPlasmaBurnt);
if (gasMix.Gases[Gas.Plasma] < 0)
{
gasMix.Gases[Gas.Plasma] = 0;
}
gasMix.RemoveGas(Gas.Oxygen, MolesPlasmaBurnt * 2);
if (gasMix.Gases[Gas.Oxygen] < 0)
{
gasMix.Gases[Gas.Oxygen] = 0;
}
var TotalmolestoCO2 = MolesPlasmaBurnt + (MolesPlasmaBurnt * 2);
if (superSaturated)
{
gasMix.AddGas(Gas.Tritium, TotalmolestoCO2 / 3);
}
else
{
gasMix.AddGas(Gas.CarbonDioxide, TotalmolestoCO2 / 3);
}
float heatCapacity = gasMix.WholeHeatCapacity;
gasMix.Temperature = (temperature * heatCapacity + (Reactions.EnergyPerMole * TotalmolestoCO2)) / gasMix.WholeHeatCapacity;
consumed = TotalmolestoCO2;
}
return(consumed);
}
public void Copy(GasMix other)
{
for (int i = 0; i < Gas.Count; i++)
{
Gases[i] = other.Gases[i];
}
SetPressure(other.Pressure);
Volume = other.Volume;
}
private GasMix CalcAtmos(GasMix atmos, GasMix gasMix)
{
for (int i = 0; i < Gas.Count; i++)
{
atmos.Gases[i] += (gasMix.Gases[i] - atmos.Gases[i]) * factor;
}
atmos.Pressure += (gasMix.Pressure - atmos.Pressure) * factor;
return(atmos);
}
private GasMix CalcAtmos(GasMix atmos, GasMix gasMix)
{
//Used for updating tiles with the averagee Calculated gas
for (int i = 0; i < Gas.Count; i++)
{
atmos.Gases[i] = gasMix.Gases[i];
}
atmos.Pressure = gasMix.Pressure;
return(atmos);
}
public GasMix RemoveVolume(float volume, bool setVolume = false)
{
GasMix removed = RemoveRatio(volume / Volume);
if (setVolume)
{
removed.Volume = volume;
removed = FromTemperature(removed.Gases, Temperature, volume);
}
return(removed);
}
private GasMix CalcAtmos(GasMix atmos, GasMix gasMix)
{
float[] gases = new float[Gas.Count];
for (int i = 0; i < Gas.Count; i++)
{
gases[i] = atmos.Gases[i] + (gasMix.Gases[i] - atmos.Gases[i]) * factor;
}
float pressure = atmos.Pressure + (gasMix.Pressure - atmos.Pressure) * factor;
return(GasMix.FromPressure(gases, pressure, atmos.Volume));
}
public GasMix RemoveRatio(float ratio)
{
GasMix removed = this * ratio;
for (int i = 0; i < Gas.Count; i++)
{
Gases[i] -= removed.Gases[i];
}
SetPressure(Pressure -= removed.Pressure * removed.Volume / Volume);
return(removed);
}
public static float React(ref GasMix gasMix)
{
float consumed = 0;
foreach (Reaction reaction in reactions)
{
if (reaction.Satisfies(gasMix))
{
consumed += reaction.React(ref gasMix);
}
}
return(consumed);
}
private void Equalize()
{
GasMix gasMix = CalcMeanGasMix();
for (var i = 0; i < nodes.Count; i++)
{
MetaDataNode node = nodes[i];
if (!node.IsOccupied)
{
node.Atmos = CalcAtmos(node.Atmos, gasMix);
}
}
}
/// <summary>
/// The thing that actually equalises the tiles
/// </summary>
private void Equalize()
{
//Calculate the average gas from adding up all the adjacent tiles and dividing by the number of tiles
GasMix MeanGasMix = CalcMeanGasMix();
for (var i = 0; i < nodes.Count; i++)
{
MetaDataNode node = nodes[i];
if (!node.IsOccupied)
{
node.GasMix = CalcAtmos(node.GasMix, MeanGasMix);
}
}
}
private GasMix CalcMeanGasMix()
{
int targetCount = 0;
float[] gases = new float[Gas.Count];
float pressure = 0f;
for (var i = 0; i < nodes.Count; i++)
{
MetaDataNode node = nodes[i];
if (node.IsSpace)
{
node.Atmos *= 1 - factor;
}
for (int j = 0; j < Gas.Count; j++)
{
gases[j] += node.Atmos.Gases[j];
}
pressure += node.Atmos.Pressure;
if (!node.IsOccupied)
{
targetCount++;
}
else
{
node.Atmos *= 1 - factor;
if (node.Atmos.Pressure > AtmosUtils.MinimumPressure)
{
updateList.Enqueue(node);
}
}
}
for (int j = 0; j < Gas.Count; j++)
{
gases[j] /= targetCount;
}
GasMix gasMix = GasMix.FromPressure(gases, pressure / targetCount);
return(gasMix);
}
private static bool ReactionMoleCheck(GasReactions gasReaction, GasMix gasMix)
{
foreach (var data in gasReaction.GasReactionData)
{
if (gasMix.GetMoles(data.Key) == 0)
{
return(true);
}
if (gasMix.GetMoles(data.Key) < data.Value.minimumMolesToReact)
{
return(true);
}
}
return(false);
}
public float React(ref GasMix gasMix)
{
float consumed = 0;
float temperature = gasMix.Temperature;
float temperatureScale = 1;
if (temperature <= Reactions.PLASMA_UPPER_TEMPERATURE)
{
temperatureScale = (temperature - Reactions.PLASMA_MINIMUM_BURN_TEMPERATURE) /
(Reactions.PLASMA_UPPER_TEMPERATURE - Reactions.PLASMA_MINIMUM_BURN_TEMPERATURE);
}
if (temperatureScale > 0)
{
float oxygenBurnRate = Reactions.OXYGEN_BURN_RATE_BASE - temperatureScale;
// orientate plasma burn rate on the one with less moles
float moles = Mathf.Min(gasMix.GetMoles(Gas.Plasma), gasMix.GetMoles(Gas.Oxygen) / Reactions.PLASMA_OXYGEN_FULLBURN);
float plasmaBurnRate = (temperatureScale * moles) / Reactions.PLASMA_BURN_RATE_DELTA;
// MINIMUM_HEAT_CAPACITY 0.0003
if (plasmaBurnRate > 0.0003)
{
float heatCapacity = gasMix.HeatCapacity;
plasmaBurnRate = Mathf.Min(plasmaBurnRate, gasMix.GetMoles(Gas.Plasma), gasMix.GetMoles(Gas.Oxygen) / oxygenBurnRate);
float consumedOxygen = plasmaBurnRate * oxygenBurnRate;
gasMix.RemoveGas(Gas.Plasma, plasmaBurnRate);
gasMix.RemoveGas(Gas.Oxygen, consumedOxygen);
gasMix.AddGas(Gas.CarbonDioxide, plasmaBurnRate);
float energyReleased = Reactions.FIRE_PLASMA_ENERGY_RELEASED * plasmaBurnRate;
gasMix.Temperature = (temperature * heatCapacity + energyReleased) / gasMix.HeatCapacity;
consumed = plasmaBurnRate + consumedOxygen;
}
}
return(consumed);
}
public float React(ref GasMix gasMix, Vector3 tilePos)
{
if (gasMix.GetMoles(Gas.WaterVapor) != 0 && gasMix.GetMoles(Gas.WaterVapor) / gasMix.Moles > 0.1)
{
//No reaction
return(0f);
}
var cleanedAir = Mathf.Min(gasMix.GetMoles(Gas.Miasma), 20 + (gasMix.Temperature - 373.15f - 70) / 20);
gasMix.RemoveGas(Gas.Miasma, cleanedAir);
gasMix.AddGas(Gas.Oxygen, cleanedAir);
gasMix.Temperature += cleanedAir * 0.002f;
return(0f);
}
public float React(ref GasMix gasMix, Vector3 tilePos)
{
var energyReleased = 0f;
var oldHeatCap = gasMix.WholeHeatCapacity;
var temperatureScale = 1f;
var burnedFuel = 0f;
if (gasMix.GetMoles(Gas.Oxygen) < gasMix.GetMoles(Gas.Tritium) || AtmosDefines.MINIMUM_TRIT_OXYBURN_ENERGY > gasMix.InternalEnergy)
{
burnedFuel = gasMix.GetMoles(Gas.Oxygen) / AtmosDefines.TRITIUM_BURN_OXY_FACTOR;
gasMix.RemoveGas(Gas.Tritium, burnedFuel);
}
else
{
burnedFuel = gasMix.GetMoles(Gas.Tritium) * AtmosDefines.TRITIUM_BURN_TRIT_FACTOR;
gasMix.RemoveGas(Gas.Tritium, gasMix.GetMoles(Gas.Tritium) / AtmosDefines.TRITIUM_BURN_TRIT_FACTOR);
gasMix.RemoveGas(Gas.Oxygen, gasMix.GetMoles(Gas.Tritium));
}
if (burnedFuel != 0)
{
energyReleased += AtmosDefines.FIRE_HYDROGEN_ENERGY_RELEASED * burnedFuel;
if (Random.Range(0, 10) == 0 && burnedFuel > AtmosDefines.TRITIUM_MINIMUM_RADIATION_ENERGY)
{
RadiationManager.Instance.RequestPulse(MatrixManager.AtPoint(tilePos.RoundToInt(), true).Matrix, tilePos.RoundToInt(), energyReleased / AtmosDefines.TRITIUM_BURN_RADIOACTIVITY_FACTOR, Random.Range(Int32.MinValue, Int32.MaxValue));
}
gasMix.AddGas(Gas.WaterVapor, burnedFuel / AtmosDefines.TRITIUM_BURN_OXY_FACTOR);
}
if (energyReleased > 0)
{
var newHeatCap = gasMix.WholeHeatCapacity;
if (newHeatCap > 0.0003f)
{
gasMix.Temperature = (gasMix.Temperature * oldHeatCap + energyReleased) / newHeatCap;
}
}
return(0f);
}
public bool Satisfies(GasMix gasMix)
{
if (gasMix.Temperature > Reactions.PlasmaMaintainFire && gasMix.GetMoles(Gas.Plasma) > 0.1f &&
gasMix.GetMoles(Gas.Oxygen) > 0.1f)
{
if (GetOxygenContact(gasMix) > Reactions.MinimumOxygenContact)
{
return(true);
}
else
{
return(false);
}
}
else
{
return(false);
}
}
/// <summary>
/// Exposes the hotspot, igniting gases on the tile
/// </summary>
private void Expose()
{
if ((Volume / node.GasMix.Volume) > 0.95f)
{
GasMix gasMix = node.GasMix;
float consumed = Reactions.React(ref gasMix);
node.GasMix = gasMix;
Volume = consumed * 40;
Temperature = node.GasMix.Temperature;
}
else
{
GasMix removed = node.GasMix.RemoveVolume(Volume);
removed.SetTemperature(Temperature);
float consumed = Reactions.React(ref removed);
Volume = consumed * 40;
Temperature = removed.Temperature;
node.GasMix -= removed;
}
}
private void Expose()
{
if ((Volume / node.Atmos.Volume) > 0.95f)
{
float consumed = Reactions.React(ref node.Atmos);
Volume = consumed * 40;
Temperature = node.Atmos.Temperature;
}
else
{
GasMix removed = node.Atmos.RemoveVolume(Volume);
removed.Temperature = Temperature;
float consumed = Reactions.React(ref removed);
Volume = consumed * 40;
Temperature = removed.Temperature;
node.Atmos += removed;
}
}
public float React(ref GasMix gasMix, Vector3 tilePos)
{
if (gasMix.Temperature <= AtmosDefines.WATER_VAPOR_FREEZE)
{
if (gasMix.GetMoles(Gas.WaterVapor) < 2f)
{
//Not enough moles to freeze
return(0f);
}
var numberOfIceToSpawn = Mathf.Floor(gasMix.GetMoles(Gas.WaterVapor) / 2f);
for (var i = 0; i < numberOfIceToSpawn; i++)
{
Spawn.ServerPrefab(AtmosManager.Instance.iceShard, tilePos, MatrixManager.GetDefaultParent(tilePos, true));
}
gasMix.RemoveGas(Gas.WaterVapor, numberOfIceToSpawn * 2f);
}
return(0f);
}
/// <summary>
/// Ensures that both containers have the same pressure
/// </summary>
/// <param name="otherGas"></param>
public GasMix MergeGasMix(GasMix otherGas)
{
float totalInternalEnergy = InternalEnergy + otherGas.InternalEnergy;
float totalWholeHeatCapacity = WholeHeatCapacity + otherGas.WholeHeatCapacity;
float Newtemperature = totalInternalEnergy / totalWholeHeatCapacity;
float totalVolume = Volume + otherGas.Volume;
for (int i = 0; i < Gas.Count; i++)
{
if (Gases[i] < 0)
{
Debug.Log("OH GOFD!!");
}
float gas = (Gases[i] + otherGas.Gases[i]) / totalVolume;
Gases[i] = gas * Volume;
otherGas.Gases[i] = gas * otherGas.Volume;
}
SetTemperature(Newtemperature);
otherGas.SetTemperature(Newtemperature);
return(otherGas);
}
public float React(ref GasMix gasMix, Vector3 tilePos)
{
var oldHeatCap = gasMix.WholeHeatCapacity;
var reactionEfficiency = Mathf.Min(gasMix.GetMoles(Gas.Nitrogen) + gasMix.GetMoles(Gas.Tritium) / 100, gasMix.GetMoles(Gas.Tritium) / 10, gasMix.GetMoles(Gas.Nitrogen) / 20);
var energyUsed = reactionEfficiency * (AtmosDefines.NOBLIUM_FORMATION_ENERGY / Mathf.Max(gasMix.GetMoles(Gas.BZ), 1f));
if (gasMix.GetMoles(Gas.Tritium) - 10 * reactionEfficiency < 0 || gasMix.GetMoles(Gas.Nitrogen) - 20 * reactionEfficiency < 0)
{
//No reaction
return(0f);
}
gasMix.RemoveGas(Gas.Tritium, 10 * reactionEfficiency);
gasMix.RemoveGas(Gas.Nitrogen, 20 * reactionEfficiency);
gasMix.AddGas(Gas.HyperNoblium, reactionEfficiency);
gasMix.SetTemperature(Mathf.Max((gasMix.Temperature * oldHeatCap - energyUsed) / gasMix.WholeHeatCapacity, 2.7f));
return(0f);
}
