private static void Postfix(AlgaeHabitatConfig __instance, GameObject go, Tag prefab_tag)
{
NoFixedTemp_Utils.ChangeMinTemperature(go);
}
public static void Postfix(AlgaeHabitatConfig __instance, ref GameObject go, ref Tag prefab_tag)
{
const float duplicant_co2_rate = 0.002f;
const float carbon_molar_mass = 0.012011f;
const float hydrogen_molar_mass = 0.001008f;
const float oxygen_molar_mass = 0.015999f;
const float glucose_molar_mass = 6.0f * carbon_molar_mass + 12.0f * hydrogen_molar_mass + 6.0f * oxygen_molar_mass;
const float co2_molar_mass = oxygen_molar_mass * 2.0f + carbon_molar_mass;
const float water_molar_mass = hydrogen_molar_mass * 2.0f + oxygen_molar_mass;
const float duplicant_co2_moles_consumed = duplicant_co2_rate / co2_molar_mass;
const float arbitrary_algae_mass = 0.03f; // needs to be in consumed elements to make game state machine go from the noAlgae state to the noWater state
foreach (ElementConverter ec in go.GetComponents <ElementConverter>())
{
bool polluted_water_storage = false;
foreach (ElementConverter.OutputElement outputElement in ec.outputElements)
{
if (outputElement.elementHash == SimHashes.DirtyWater)
{
polluted_water_storage = true;
break;
}
}
// think of the dirty water as dead algae, just a small balancing act so the algae terrarium doesn't overfill
if (polluted_water_storage)
{
const float output_mass = duplicant_co2_moles_consumed * ((glucose_molar_mass / 6.0f) + water_molar_mass) * 0.25f;
ec.consumedElements = new ElementConverter.ConsumedElement[]
{
new ElementConverter.ConsumedElement(SimHashes.Algae.CreateTag(), duplicant_co2_moles_consumed * (glucose_molar_mass / 6.0f) * 0.25f),
new ElementConverter.ConsumedElement(SimHashes.Water.CreateTag(), duplicant_co2_moles_consumed * water_molar_mass * 0.25f)
};
ec.outputElements = new ElementConverter.OutputElement[]
{
new ElementConverter.OutputElement(output_mass, SimHashes.DirtyWater, 303.15f, false, true, 0f, 1f, 1f, byte.MaxValue, 0)
};
}
else
{
ec.consumedElements = new ElementConverter.ConsumedElement[]
{
new ElementConverter.ConsumedElement(SimHashes.Algae.CreateTag(), arbitrary_algae_mass),
new ElementConverter.ConsumedElement(SimHashes.Water.CreateTag(), duplicant_co2_moles_consumed * water_molar_mass),
new ElementConverter.ConsumedElement(SimHashes.CarbonDioxide.CreateTag(), duplicant_co2_rate)
};
ec.outputElements = new ElementConverter.OutputElement[]
{
new ElementConverter.OutputElement(duplicant_co2_moles_consumed * oxygen_molar_mass * 2.0f, SimHashes.Oxygen, 303.15f, false, false, 0f, 1f, 1f, byte.MaxValue, 0),
new ElementConverter.OutputElement((duplicant_co2_moles_consumed / 6) * (glucose_molar_mass) + arbitrary_algae_mass, SimHashes.Algae, 303.15f, false, true, 0f, 1f, 1f, byte.MaxValue, 0)
};
}
}
ElementConsumer elementConsumer = go.AddOrGet <ElementConsumer>();
elementConsumer.elementToConsume = SimHashes.CarbonDioxide;
elementConsumer.consumptionRate = duplicant_co2_rate; // same as duplicant production rate
elementConsumer.consumptionRadius = 3;
elementConsumer.showInStatusPanel = true;
elementConsumer.storeOnConsume = true;
elementConsumer.capacityKG = 360.0f;
elementConsumer.sampleCellOffset = new Vector3(0f, 1f, 0f);
elementConsumer.isRequired = false;
}
