/// <summary>
/// Calculates the maximum speed a process can run at in a biome
/// based on the environmental compounds.
/// </summary>
private static ProcessSpeedInformation CalculateProcessMaximumSpeed(TweakedProcess process,
BiomeConditions biome)
{
var result = new ProcessSpeedInformation(process.Process);
float speedFactor = 1.0f;
// Environmental inputs need to be processed first
foreach (var entry in process.Process.Inputs)
{
if (!entry.Key.IsEnvironmental)
{
continue;
}
// Environmental compound that can limit the rate
var input = new ProcessSpeedInformation.EnvironmentalInput(entry.Key, entry.Value);
var availableInEnvironment = GetDissolvedInBiome(entry.Key, biome);
input.AvailableAmount = availableInEnvironment;
// More than needed environment value boosts the effectiveness
input.AvailableRate = availableInEnvironment / entry.Value;
speedFactor *= input.AvailableRate;
result.EnvironmentInputs[entry.Key] = input;
}
speedFactor *= process.Rate;
// So that the speedfactor is available here
foreach (var entry in process.Process.Inputs)
{
if (entry.Key.IsEnvironmental)
{
continue;
}
// Normal, cloud input
var input = new ProcessSpeedInformation.CompoundAmount(entry.Key, entry.Value * speedFactor);
result.OtherInputs.Add(entry.Key, input);
}
foreach (var entry in process.Process.Outputs)
{
var output = new ProcessSpeedInformation.CompoundAmount(entry.Key,
entry.Value * speedFactor);
result.Outputs[entry.Key] = output;
}
result.SpeedFactor = speedFactor;
return(result);
}
public SingleProcessStatistics GetAndMarkUsed(TweakedProcess forProcess)
{
if (Processes.ContainsKey(forProcess))
{
var result = Processes[forProcess];
result.Used = true;
return(result);
}
var newEntry = new SingleProcessStatistics(forProcess.Process);
Processes[forProcess] = newEntry;
newEntry.Used = true;
return(newEntry);
}
private void RunProcess(float delta, BioProcess processData, CompoundBag bag, TweakedProcess process,
SingleProcessStatistics currentProcessStatistics, float inverseDelta)
{
// Can your cell do the process
bool canDoProcess = true;
// Loop through to make sure you can follow through with your
// whole process so nothing gets wasted as that would be
// frustrating.
float environmentModifier = 1.0f;
// First check the environmental compounds so that we can build the right environment modifier for accurate
// check of normal compound input amounts
foreach (var entry in processData.Inputs)
{
// Set used compounds to be useful, we dont want to purge
// those
bag.SetUseful(entry.Key);
if (!entry.Key.IsEnvironmental)
{
continue;
}
var dissolved = GetDissolved(entry.Key);
// currentProcessStatistics?.AddInputAmount(entry.Key, entry.Value * inverseDelta);
currentProcessStatistics?.AddInputAmount(entry.Key, dissolved);
// do environmental modifier here, and save it for later
environmentModifier *= dissolved / entry.Value;
if (environmentModifier <= MathUtils.EPSILON)
{
currentProcessStatistics?.AddLimitingFactor(entry.Key);
}
}
if (environmentModifier <= MathUtils.EPSILON)
{
canDoProcess = false;
}
foreach (var entry in processData.Inputs)
{
if (entry.Key.IsEnvironmental)
{
continue;
}
var inputRemoved = entry.Value * process.Rate * delta;
currentProcessStatistics?.AddInputAmount(entry.Key, inputRemoved * inverseDelta);
// currentProcessStatistics?.AddInputAmount(entry.Key, 0);
// If not enough compound we can't do the process
if (bag.GetCompoundAmount(entry.Key) < inputRemoved)
{
canDoProcess = false;
currentProcessStatistics?.AddLimitingFactor(entry.Key);
}
}
// Output
// This is now always looped (even when we can't do the process)
// because the is useful part is needs to be always be done
foreach (var entry in processData.Outputs)
{
// For now lets assume compounds we produce are also
// useful
bag.SetUseful(entry.Key);
// Apply the general modifiers and
// apply the environmental modifier
var outputAdded = entry.Value * process.Rate * delta * environmentModifier;
currentProcessStatistics?.AddOutputAmount(entry.Key, outputAdded * inverseDelta);
// currentProcessStatistics?.AddOutputAmount(entry.Key, 0);
// If no space we can't do the process, and if environmental
// right now this isn't released anywhere
if (entry.Key.IsEnvironmental)
{
continue;
}
if (bag.GetCompoundAmount(entry.Key) + outputAdded > bag.Capacity)
{
canDoProcess = false;
currentProcessStatistics?.AddCapacityProblem(entry.Key);
}
}
// Only carry out this process if you have all the required
// ingredients and enough space for the outputs
if (!canDoProcess)
{
return;
}
if (currentProcessStatistics != null)
{
currentProcessStatistics.CurrentSpeed = process.Rate * environmentModifier;
}
// Consume inputs
foreach (var entry in processData.Inputs)
{
if (entry.Key.IsEnvironmental)
{
continue;
}
var inputRemoved = entry.Value * process.Rate * delta *
environmentModifier;
currentProcessStatistics?.AddInputAmount(entry.Key, inputRemoved * inverseDelta);
// This should always succeed (due to the earlier check) so
// it is always assumed here that the process succeeded
bag.TakeCompound(entry.Key, inputRemoved);
}
// Add outputs
foreach (var entry in processData.Outputs)
{
if (entry.Key.IsEnvironmental)
{
continue;
}
var outputGenerated = entry.Value * process.Rate * delta *
environmentModifier;
currentProcessStatistics?.AddOutputAmount(entry.Key, outputGenerated * inverseDelta);
bag.AddCompound(entry.Key, outputGenerated);
}
}
private void RunProcess(float delta, BioProcess processData, CompoundBag bag, TweakedProcess process,
SingleProcessStatistics currentProcessStatistics, float inverseDelta)
{
// Can your cell do the process
bool canDoProcess = true;
float environmentModifier = 1.0f;
// This modifies the process overall speed to allow really fast processes to run, for example if there are
// a ton of one organelle it might consume 100 glucose per go, which might be unlikely for the cell to have
// so if there is *some* but not enough space for results (and also inputs) this can run the process as
// fraction of the speed to allow the cell to still function well
float spaceConstraintModifier = 1.0f;
// First check the environmental compounds so that we can build the right environment modifier for accurate
// check of normal compound input amounts
foreach (var entry in processData.Inputs)
{
// Set used compounds to be useful, we dont want to purge those
bag.SetUseful(entry.Key);
if (!entry.Key.IsEnvironmental)
{
continue;
}
var dissolved = GetDissolved(entry.Key);
// currentProcessStatistics?.AddInputAmount(entry.Key, entry.Value * inverseDelta);
currentProcessStatistics?.AddInputAmount(entry.Key, dissolved);
// do environmental modifier here, and save it for later
environmentModifier *= dissolved / entry.Value;
if (environmentModifier <= MathUtils.EPSILON)
{
currentProcessStatistics?.AddLimitingFactor(entry.Key);
}
}
if (environmentModifier <= MathUtils.EPSILON)
{
canDoProcess = false;
}
// Compute spaceConstraintModifier before updating the final use and input amounts
foreach (var entry in processData.Inputs)
{
if (entry.Key.IsEnvironmental)
{
continue;
}
var inputRemoved = entry.Value * process.Rate * environmentModifier;
// currentProcessStatistics?.AddInputAmount(entry.Key, 0);
// We don't multiply by delta here because we report the per-second values anyway. In the actual process
// output numbers (computed after testing the speed), we need to multiply by inverse delta
currentProcessStatistics?.AddInputAmount(entry.Key, inputRemoved);
inputRemoved = inputRemoved * delta * spaceConstraintModifier;
// If not enough we can't run the process unless we can lower spaceConstraintModifier enough
var availableAmount = bag.GetCompoundAmount(entry.Key);
if (availableAmount < inputRemoved)
{
bool canRun = false;
if (availableAmount > MathUtils.EPSILON)
{
var neededModifier = availableAmount / inputRemoved;
if (neededModifier > Constants.MINIMUM_RUNNABLE_PROCESS_FRACTION)
{
spaceConstraintModifier = neededModifier;
canRun = true;
// Due to rounding errors there can be very small disparity here between the amount available
// and what we will take with the modifiers. See the comment in outputs for more details
}
}
if (!canRun)
{
canDoProcess = false;
currentProcessStatistics?.AddLimitingFactor(entry.Key);
}
}
}
foreach (var entry in processData.Outputs)
{
// For now lets assume compounds we produce are also useful
bag.SetUseful(entry.Key);
var outputAdded = entry.Value * process.Rate * environmentModifier;
// currentProcessStatistics?.AddOutputAmount(entry.Key, 0);
currentProcessStatistics?.AddOutputAmount(entry.Key, outputAdded);
outputAdded = outputAdded * delta * spaceConstraintModifier;
// if environmental right now this isn't released anywhere
if (entry.Key.IsEnvironmental)
{
continue;
}
// If no space we can't do the process, if we can't adjust the space constraint modifier enough
var remainingSpace = bag.Capacity - bag.GetCompoundAmount(entry.Key);
if (outputAdded > remainingSpace)
{
bool canRun = false;
if (remainingSpace > MathUtils.EPSILON)
{
var neededModifier = remainingSpace / outputAdded;
if (neededModifier > Constants.MINIMUM_RUNNABLE_PROCESS_FRACTION)
{
spaceConstraintModifier = neededModifier;
canRun = true;
}
// With all of the modifiers we can lose a tiny bit of compound that won't fit due to rounding
// errors, but we ignore that here
}
if (!canRun)
{
canDoProcess = false;
currentProcessStatistics?.AddCapacityProblem(entry.Key);
}
}
}
// Only carry out this process if you have all the required ingredients and enough space for the outputs
if (!canDoProcess)
{
if (currentProcessStatistics != null)
{
currentProcessStatistics.CurrentSpeed = 0;
}
return;
}
float totalModifier = process.Rate * delta * environmentModifier * spaceConstraintModifier;
if (currentProcessStatistics != null)
{
currentProcessStatistics.CurrentSpeed = process.Rate * environmentModifier * spaceConstraintModifier;
}
// Consume inputs
foreach (var entry in processData.Inputs)
{
if (entry.Key.IsEnvironmental)
{
continue;
}
var inputRemoved = entry.Value * totalModifier;
currentProcessStatistics?.AddInputAmount(entry.Key, inputRemoved * inverseDelta);
// This should always succeed (due to the earlier check) so it is always assumed here that this succeeded
bag.TakeCompound(entry.Key, inputRemoved);
}
// Add outputs
foreach (var entry in processData.Outputs)
{
if (entry.Key.IsEnvironmental)
{
continue;
}
var outputGenerated = entry.Value * totalModifier;
currentProcessStatistics?.AddOutputAmount(entry.Key, outputGenerated * inverseDelta);
bag.AddCompound(entry.Key, outputGenerated);
}
}
/// <summary>
/// Calculates the maximum speed a process can run at in a biome
/// based on the environmental compounds.
/// </summary>
private static ProcessSpeedInformation CalculateProcessMaximumSpeed(TweakedProcess process,
BiomeConditions biome)
{
var result = new ProcessSpeedInformation(process.Process);
float speedFactor = 1.0f;
// Environmental inputs need to be processed first
foreach (var entry in process.Process.Inputs)
{
if (!entry.Key.IsEnvironmental)
{
continue;
}
// Environmental compound that can limit the rate
var availableInEnvironment = GetDissolvedInBiome(entry.Key, biome);
var availableRate = availableInEnvironment / entry.Value;
result.AvailableAmounts[entry.Key] = availableInEnvironment;
// More than needed environment value boosts the effectiveness
result.AvailableRates[entry.Key] = availableRate;
speedFactor *= availableRate;
result.WritableInputs[entry.Key] = entry.Value;
}
speedFactor *= process.Rate;
// Note that we don't consider storage constraints here so we don't use spaceConstraintModifier calculations
// So that the speed factor is available here
foreach (var entry in process.Process.Inputs)
{
if (entry.Key.IsEnvironmental)
{
continue;
}
// Normal, cloud input
result.WritableInputs.Add(entry.Key, entry.Value * speedFactor);
}
foreach (var entry in process.Process.Outputs)
{
var amount = entry.Value * speedFactor;
result.WritableOutputs[entry.Key] = amount;
if (amount <= 0)
{
result.WritableLimitingCompounds.Add(entry.Key);
}
}
result.CurrentSpeed = speedFactor;
return(result);
}