private Dictionary<String, FlowDriver> flowDrivers = new Dictionary<String, FlowDriver>(); //This could probably be a set, but we might want to find them...
#endregion Fields
#region Methods
public void addComponent(FlowComponent comp)
{
components.Add(comp.name, comp);
if(comp is FlowDriver)
{
flowDrivers.Add(comp.name, (FlowDriver)comp);
}
}
public override FlowResponseData getSourcePossibleValues(FlowCalculationData baseData, FlowComponent caller, double flowPercent, double pressurePercent)
{
double limitedFlowPercent = getLimitedFlowPercent(baseData, caller, flowPercent);
double limitedPressurePercent = getLimitedPressurePercent(baseData, caller, flowPercent, pressurePercent);
FlowResponseData ret = sourceComponent.getSourcePossibleValues(baseData, this, limitedFlowPercent, limitedPressurePercent);
if (ret != null)
{
setPressuresForSourceSide(baseData.pressure, ret.backPressure, limitedPressurePercent, pressurePercent);
}
return ret;
}
public override FlowResponseData getDeliveryPossibleValues(FlowCalculationData baseData, FlowComponent caller, double flowPercent, double pressurePercent)
{
if (caller == null)
{
//This shouldn't happen anymore, since GraphSolver calls the pump-specific (i.e. not override) version.
baseData.flowDriver = this;
baseData.desiredFlowVolume = pumpingPercent * mcrRating * flowPercent;
baseData.pressure = mcrPressure * pressurePercent;
outletPressure = baseData.pressure;
return deliveryComponent.getDeliveryPossibleValues(baseData, this, 1.0, 1.0); //Always ask 100% of whatever desired flow we have
}
else
{
return null; //TODO: Handle this case when pumps are in series
}
}
public override FlowResponseData getDeliveryPossibleValues(FlowCalculationData baseData, FlowComponent caller, double flowPercent, double pressurePercent)
{
FlowResponseData ret = new FlowResponseData();
ret.backPressure = tankPressure;
if (isSealed)
{
double deltaPressure = baseData.pressure - tankPressure;
if(deltaPressure < 0.0)
{
//There is too much back-pressure for this pump to overcome it. Thus, nothing will flow in.
ret.flowPercent = 0.0;
}
else if(deltaPressure > normalPressureDelta || normalPressureDelta == 0.0) //Don't allow else to divide by 0
{
//We don't add any restriction, since the dP is greater than our defined 'normal'.
ret.flowPercent = flowPercent;
}
else
{
//Here we need to do a linear interpolation between deltaPressure = normalPressure meaning 1, and deltaPressure = 0 meaning 0.
//Thus, at normalPressure, we get full flow, and at no pressure difference, we get no flow.
ret.flowPercent = deltaPressure / normalPressureDelta * flowPercent;
}
}
else
{
if (currentVolume < double.MaxValue) //TODO: Make it so that tanks can't overflow, especially sealed tanks... Right now, it will pretty much always accept any flow that we want to put into it...
{
ret.flowPercent = flowPercent; //Allow everything that they are asking for, since we don't do restrictions inside the tank.
}
else
{
ret.flowPercent = 0.0;
}
}
ret.flowVolume = flowPercent * baseData.desiredFlowVolume;
ret.fluidTypeMap = currentFluidTypeMap;
outletPressure = ret.backPressure;
return ret;
}
public override void exploreDeliveryGraph(FlowCalculationData baseData, FlowComponent caller)
{
deliveryComponent.exploreDeliveryGraph(baseData, this);
}
public override FlowResponseData getSourcePossibleValues(FlowCalculationData baseData, FlowComponent caller, double flowPercent, double pressurePercent)
{
if (!hasMultipleDeliveryComponents)
return calculateSplittingFunctionality(baseData, flowPercent, sourceComponents, false, pressurePercent);
else
return calculateCombiningFunctionality(baseData, caller, flowPercent, deliveryComponents, false, pressurePercent);
}
public override void connectSelf(Dictionary<String, FlowComponent> components)
{
deliveryComponent = components[deliveryName];
deliveryComponent.setSource(this);
}
public override void setSource(FlowComponent source)
{
//Tanks are the ultimate source... so we don't really need to do anything right now, until we are tracking the multiple inputs and outputs... Then, we will need to keep track of all of them probably...
}
public override void exploreSourceGraph(FlowCalculationData baseData, FlowComponent caller)
{
//Don't have to do anything, since this is the end of the line
}
public override void setDeliveryValues(FlowCalculationData baseData, FlowComponent caller, double flowVolume, bool lastTime)
{
finalFlow = flowVolume;
deliveryComponent.setDeliveryValues(baseData, this, flowVolume, lastTime);
currentFluidTypeMap = baseData.fluidTypeMap; //On the delivery side, the mixture comes from passed in arguments
inletTemperature = baseData.temperature;
outletTemperature = baseData.temperature;
}
public override FlowResponseData getSourcePossibleValues(FlowCalculationData baseData, FlowComponent caller, double flowPercent, double pressurePercent)
{
FlowResponseData ret = new FlowResponseData();
if(currentVolume > 0.0)
{
ret.flowPercent = flowPercent; //Allow everything that they are asking for, since we don't do restrictions inside the tank.
}
else
{
ret.flowPercent = 0.0f;
}
ret.flowVolume = flowPercent * baseData.desiredFlowVolume;
ret.backPressure = tankPressure;
ret.fluidTypeMap = currentFluidTypeMap;
outletPressure = ret.backPressure;
return ret;
}
private SettingResponseData setCombiningFlowValues(FlowCalculationData baseData, FlowComponent caller, double flowVolume, FlowComponent[] nodes, bool isDeliverySide, bool lastTime)
{
int index = indexByName[caller.name];
setCombiningVolumeMap[index] = flowVolume;
double volumeSum = 0.0;
for (int i = 0; i < setCombiningVolumeMap.Length; i++)
{
if (setCombiningVolumeMap[i] < 0.0)
return null; //We haven't seen all of the inputs to combine them...
else
volumeSum += setCombiningVolumeMap[i];
}
finalFlow = volumeSum;
if (isDeliverySide)
{
for (int i = 0; i < nodes.Length; i++)
{
nodes[i].setDeliveryValues(baseData, this, volumeSum, lastTime);
}
currentFluidTypeMap = baseData.fluidTypeMap; //On the delivery side, the mixture comes from passed in arguments
inletTemperature = baseData.temperature;
outletTemperature = baseData.temperature;
return null;
}
else
{
if (nodes.Length != 1)
throw new Exception("Source combiners can only have 1 node");
if (setterDownstreamValue == null)
setterDownstreamValue = nodes[0].setSourceValues(baseData, this, volumeSum, lastTime);
SettingResponseData ret = new SettingResponseData();
ret.flowVolume = volumeSum;
ret.fluidTypeMap = setterDownstreamValue.fluidTypeMap;
ret.temperature = setterDownstreamValue.temperature;
currentFluidTypeMap = ret.fluidTypeMap; //On source side, the mixture comes from the return values
inletTemperature = ret.temperature;
outletTemperature = ret.temperature;
return ret;
}
}
private SettingResponseData setFlowValues(FlowCalculationData baseData, FlowComponent caller, double flowVolume, FlowComponent[] nodes, bool isDeliverySide, bool lastTime)
{
if(isDeliverySide)
{
for (int i = 0; i < nodes.Length; i++)
{
nodes[i].setDeliveryValues(baseData, this, flowPercentageSolutions[baseData.flowDriver.name][i] * flowVolume, lastTime);
}
finalFlow = flowVolume;
currentFluidTypeMap = baseData.fluidTypeMap; //On the delivery side, the mixture comes from passed in arguments
inletTemperature = baseData.temperature;
outletTemperature = baseData.temperature;
return null;
}
else
{
SettingResponseData[] responses = new SettingResponseData[nodes.Length];
double[] volumes = new double[nodes.Length];
bool hasNull = false;
for (int attempt = 0; attempt < 2; attempt++)
{
hasNull = false;
for (int i = 0; i < nodes.Length; i++)
{
volumes[i] = flowPercentageSolutions[baseData.flowDriver.name][i] * flowVolume;
if(responses[i] == null)
responses[i] = nodes[i].setSourceValues(baseData, this, volumes[i], lastTime);
if (responses[i] == null)
hasNull = true;
}
if (!hasNull)
break;
}
if (hasNull)
return null;
finalFlow = flowVolume;
SettingResponseData ret = PhysTools.mixFluidPercentsAndTemperatures(responses, volumes);
ret.flowVolume = flowVolume;
//ret.fluidTypeMap = PhysTools.mixFluids(responses, volumes);
currentFluidTypeMap = ret.fluidTypeMap; //On source side, the mixture comes from the return values
inletTemperature = ret.temperature;
outletTemperature = ret.temperature;
return ret;
}
}
private FlowResponseData calculateCombiningFunctionality(FlowCalculationData baseData, FlowComponent caller, double flowPercent, FlowComponent[] nodes, bool isDeliverySide, double pressurePercent)
{
if (!combinerMap.ContainsKey(baseData.flowDriver.name))
{
double[] toAdd = new double[indexByName.Count];
for (int i = 0; i < indexByName.Count; i++)
{
if (!indexesUsedByPump.ContainsKey(baseData.flowDriver.name) || indexesUsedByPump[baseData.flowDriver.name][i])
toAdd[i] = -1.0; //Initialize with all negative numbers, and wait until they are not negative to know when we are done.
else
toAdd[i] = 0.0; //Initialize to 0 if this pump will never get this number
}
combinerMap[baseData.flowDriver.name] = toAdd;
}
double[] percentMap = combinerMap[baseData.flowDriver.name];
int index = indexByName[caller.name];
percentMap[index] = flowPercent;
double percentSum = 0.0;
for (int i = 0; i < percentMap.Length; i++)
{
if (percentMap[i] < 0.0)
return null; //We haven't seen all of the inputs to combine them... thus, return null until we do see them all.
else
percentSum += percentMap[i];
}
if (percentSum > 1.0)
percentSum = 1.0;
if (!combinerDownstreamValues.ContainsKey(baseData.flowDriver.name))
{
if (isDeliverySide)
combinerDownstreamValues[baseData.flowDriver.name] = deliveryComponents[0].getDeliveryPossibleValues(baseData, this, percentSum, pressurePercent);
else
combinerDownstreamValues[baseData.flowDriver.name] = sourceComponents[0].getSourcePossibleValues(baseData, this, percentSum, pressurePercent);
}
FlowResponseData ret = combinerDownstreamValues[baseData.flowDriver.name].clone();
lastCombinePercent = ret.flowPercent;
if (percentSum != 0.0)
{
ret.flowPercent *= (percentMap[index] / percentSum); //The divide here is to normalize it.
ret.flowVolume *= (percentMap[index] / percentSum);
}
if (!flowPercentageSolutions.ContainsKey(baseData.flowDriver.name))
flowPercentageSolutions[baseData.flowDriver.name] = new double[1];
flowPercentageSolutions[baseData.flowDriver.name][0] = ret.flowPercent;
setPressures(baseData.pressure, ret.backPressure, pressurePercent, isDeliverySide);
return ret;
}
private FlowResponseData calculateSplittingFunctionality(FlowCalculationData baseData, double flowPercent, FlowComponent[] nodes, bool isDeliverySide, double pressurePercent)
{
FlowResponseData[] responses = new FlowResponseData[nodes.Length];
bool foundNull = false;
double maxBackPressure = 0.0;
for (int attempt = 0; attempt < 2; attempt++)
{
//Most of the time, we will need to ask twice, because some will be null the first time.
foundNull = false;
for (int i = 0; i < nodes.Length; i++)
{
if (responses[i] == null)
{
if (isDeliverySide)
responses[i] = nodes[i].getDeliveryPossibleValues(baseData, this, Math.Min(flowPercent, maxWeights[i]), pressurePercent);
else
responses[i] = nodes[i].getSourcePossibleValues(baseData, this, Math.Min(flowPercent, maxWeights[i]), pressurePercent);
}
if (responses[i] == null)
foundNull = true;
else if (responses[i].backPressure > maxBackPressure)
maxBackPressure = responses[i].backPressure;
}
if (!foundNull)
break;
}
if (foundNull)
{
return null; //We weren't able to get everything, and this is probably because there is another splitter up stream that will retry us again.
}
if (!flowPercentageSolutions.ContainsKey(baseData.flowDriver.name))
flowPercentageSolutions[baseData.flowDriver.name] = new double[nodes.Length];
//If we get here, then we have all the info we should need to solve ourselves.
double desiredPercent = flowPercent;
double[] maxFlowPercent = new double[nodes.Length];
double[] preferredFlowPercent = new double[nodes.Length];
double percentToReturn = 0.0;
double sumOfMaxFlow = 0;
double currentSum = 0.0;
if (linkedCombiner != null)
{
desiredPercent = Math.Min(linkedCombiner.lastCombinePercent, flowPercent); //All are equal... grab first. This is the combiner's maxFlow
double[] flowPercentToCombiner;
//NOTE: Both solutions with both divisors gave the same answer, and I found the bug elsewhere...
//TODO: Determing what divisor we actually want to use.
if (linkedCombiner.combinerMap.ContainsKey(baseData.flowDriver.name))
flowPercentToCombiner = linkedCombiner.combinerMap[baseData.flowDriver.name];
else
{
flowPercentToCombiner = new double[nodes.Length];
for (int i = 0; i < nodes.Length; i++)
flowPercentToCombiner[i] = responses[i].flowPercent; //This was my original solution, but the map is better.
}
double tempSum = 0.0;
for (int i = 0; i < nodes.Length; i++)
{
maxFlowPercent[i] = Math.Min(maxWeights[i], flowPercentToCombiner[i]);
preferredFlowPercent[i] = Math.Min(normalWeights[i], maxFlowPercent[i]) * desiredPercent;
tempSum += preferredFlowPercent[i];
}
bool modifySplitBasedOnBackPressures = true; //I can foresee this wanting to be an optional parameter, sometimes doing it, and sometimes not.
if (modifySplitBasedOnBackPressures)
{
preferredFlowPercent = modifyPreferenceBasedOnBackPressures(preferredFlowPercent, responses, baseData);
}
preferredFlowPercent = fixPercents(preferredFlowPercent, maxFlowPercent, desiredPercent);
//Normalize preferredFlowPercent (since we know the final flow as desiredPercent, we can safely do so in this case)
for (int i = 0; i < nodes.Length; i++)
{
currentSum += preferredFlowPercent[i];
percentToReturn += preferredFlowPercent[i];
sumOfMaxFlow += maxFlowPercent[i];
}
}
else
{
desiredPercent = flowPercent;
for (int i = 0; i < nodes.Length; i++)
{
maxFlowPercent[i] = Math.Min(maxWeights[i], responses[i].flowPercent);
preferredFlowPercent[i] = Math.Min(normalWeights[i], maxFlowPercent[i]) * desiredPercent;
currentSum += preferredFlowPercent[i];
percentToReturn += preferredFlowPercent[i];
sumOfMaxFlow += maxFlowPercent[i];
}
}
//TODO: Find better way to handle this. The 0.000000001 is there to handle rounding errors, when the sum really is the same number, but it rounds to slightly less...
if (currentSum < desiredPercent - 0.000000001 && sumOfMaxFlow > 0.0) //sum > 0.0 helps us avoid a divide by 0 below. Also, if we can't push anything, then 0 is the right answer
{
percentToReturn = 0;
for (int i = 0; i < nodes.Length; i++)
{
double trueFlowPercent;
if (sumOfMaxFlow == 0.0)
trueFlowPercent = 0.0;
else
trueFlowPercent = desiredPercent * (maxFlowPercent[i] / sumOfMaxFlow);
trueFlowPercent = Math.Min(trueFlowPercent, maxWeights[i]); //Probably don't need this one, since the one right below is better.
trueFlowPercent = Math.Min(trueFlowPercent, maxFlowPercent[i]);
flowPercentageSolutions[baseData.flowDriver.name][i] = trueFlowPercent;
percentToReturn += trueFlowPercent;
}
}
else
{
for (int i = 0; i < nodes.Length; i++)
{
double trueFlowPercent = preferredFlowPercent[i]; //It all works out with preferred values.
flowPercentageSolutions[baseData.flowDriver.name][i] = trueFlowPercent;
}
}
//Need to normalize the flowPercenageSolutions, so that they sum to 1.0, so that when we set values, we are spliting 100 % of the smaller portion that is coming down to us(and don't double-limit things).
if (percentToReturn != 0.0)
{
for (int i = 0; i < nodes.Length; i++)
flowPercentageSolutions[baseData.flowDriver.name][i] /= percentToReturn;
}
FlowResponseData ret = new FlowResponseData();
ret.flowPercent = percentToReturn;
ret.flowVolume = percentToReturn * baseData.desiredFlowVolume;
ret.backPressure = maxBackPressure;
setPressures(baseData.pressure, ret.backPressure, pressurePercent, isDeliverySide);
return ret;
}
public override SettingResponseData setSourceValues(FlowCalculationData baseData, FlowComponent caller, double flowVolume, bool lastTime)
{
if (!hasMultipleDeliveryComponents)
return setFlowValues(baseData, caller, flowVolume, sourceComponents, false, lastTime);
else
return setCombiningFlowValues(baseData, caller, flowVolume, sourceComponents, false, lastTime);
}
public override void setSource(FlowComponent source)
{
//We wire ourselves up completely (inputs and outputs), so don't need to do anything here.
}
public override void setDeliveryValues(FlowCalculationData baseData, FlowComponent caller, double flowVolume, bool lastTime)
{
if (hasMultipleDeliveryComponents)
setFlowValues(baseData, caller, flowVolume, deliveryComponents, true, lastTime);
else
setCombiningFlowValues(baseData, caller, flowVolume, deliveryComponents, true, lastTime);
}
public override void exploreSourceGraph(FlowCalculationData baseData, FlowComponent caller)
{
sourceComponent.exploreSourceGraph(baseData, this);
}
public override void exploreDeliveryGraph(FlowCalculationData baseData, FlowComponent caller)
{
for (int i = 0; i < deliveryComponents.Length; i++)
{
deliveryComponents[i].exploreDeliveryGraph(baseData, this);
}
if (!hasMultipleDeliveryComponents) //Do the following if we are combining, so we know which combining imputs actually apply to given pump
{
if (!indexesUsedByPump.ContainsKey(baseData.flowDriver.name))
indexesUsedByPump[baseData.flowDriver.name] = new bool[sourceComponents.Length];
indexesUsedByPump[baseData.flowDriver.name][indexByName[caller.name]] = true;
}
}
public abstract void setSource(FlowComponent source);
public override void setSource(FlowComponent source)
{
this.sourceComponent = source;
}
public FlowCalculationData(FlowComponent flowDriver, Dictionary<String, double> angerMap, int attempt)
{
this.flowDriver = flowDriver;
this.angerMap = angerMap;
this.attempt = attempt;
}
public abstract void setDeliveryValues(FlowCalculationData baseData, FlowComponent caller, double flowVolume, bool lastTime);
public override void setDeliveryValues(FlowCalculationData baseData, FlowComponent caller, double flowVolume, bool lastTime)
{
finalFlow += flowVolume;
if(lastTime)
{
double volumeToAdd = flowVolume * PhysTools.timeStep;
SettingResponseData tankCurrentFluids = new SettingResponseData(currentTemperature, this.currentFluidTypeMap);
SettingResponseData incomingFluids = new SettingResponseData(baseData.temperature, baseData.fluidTypeMap);
SettingResponseData mixture = PhysTools.mixFluidPercentsAndTemperatures(new SettingResponseData[] { tankCurrentFluids, incomingFluids }, new double[] { currentVolume, volumeToAdd });
this.currentTemperature = mixture.temperature;
this.currentFluidTypeMap = mixture.fluidTypeMap;
if(isSealed)
{
currentVolume += volumeToAdd;
//Now, we need to calculate the pressure.
double gasVolume = 0.0;
double liquidVolume = 0.0;
PhysTools.normalizeFluidMixture(ref currentFluidTypeMap); //Make sure that the percentages are normalized, otherwise very bad things would happen
foreach (KeyValuePair<FluidType, double> kvp in currentFluidTypeMap)
{
//NOTE: If we have multiple gasses that need to compress differently (I don't think that is possible, even with AIR and STEAM), then we need to re-think this algorithm from the ground up.
if (kvp.Key.isGas)
gasVolume += kvp.Value * currentVolume;
else
liquidVolume += kvp.Value * currentVolume;
}
percentFilled = liquidVolume / capacity;
double volumeForGas = capacity - liquidVolume;
tankPressure = (gasVolume / volumeForGas) - 1.0; //Subtract 1.0 to convert from bara to barg.
}
else
{
double adjustmentToMake = 0.0;
//Vent any gasses out the top.
foreach(FluidType key in currentFluidTypeMap.Keys.ToList<FluidType>())
{
if(key.isGas)
{
adjustmentToMake += currentFluidTypeMap[key];
currentFluidTypeMap.Remove(key);
}
}
if (adjustmentToMake > 0.0)
{
//We ended up removing some gas, so we need to re-normalize, and adjust the values
PhysTools.normalizeFluidMixture(ref currentFluidTypeMap);
volumeToAdd *= (1.0 - adjustmentToMake); //Remove the volume of gas that is escaping
}
tankPressure = 0.4; //TODO: Adjust non-sealed tank outlet pressures based on size/shape, etc.
currentVolume += volumeToAdd;
percentFilled = currentVolume / capacity;
}
}
inletTemperature = currentTemperature;
outletTemperature = currentTemperature;
}
private double getLimitedFlowPercent(FlowCalculationData baseData, FlowComponent caller, double flowPercent)
{
double limitedFlowPercent = Math.Min(flowPercent, flowAllowedPercent);
if (baseData.desiredFlowVolume * limitedFlowPercent > maxFlow)
{
//Need to cut down even further, so that we don't go over our maximum.
limitedFlowPercent = maxFlow / baseData.desiredFlowVolume;
}
//Apply anger effects, if they are needed.
if (baseData.angerMap.ContainsKey(name))
{
limitedFlowPercent *= baseData.angerMap[name];
}
return limitedFlowPercent;
}
public override SettingResponseData setSourceValues(FlowCalculationData baseData, FlowComponent caller, double flowVolume, bool lastTime)
{
SettingResponseData ret = new SettingResponseData();
finalFlow -= flowVolume;
if(lastTime)
{
currentVolume -= flowVolume * PhysTools.timeStep;
}
ret.flowVolume = flowVolume;
ret.fluidTypeMap = currentFluidTypeMap;
ret.temperature = currentTemperature;
inletTemperature = currentTemperature;
outletTemperature = currentTemperature;
return ret;
}
private double getLimitedPressurePercent(FlowCalculationData baseData, FlowComponent caller, double flowPercent, double pressurePercent)
{
double limitedPressurePercent = pressurePercent * normalPressureDropPercent;
if(flowPercent == 0.0)
{
limitedPressurePercent = 0.0;
}
else if(flowAllowedPercent < flowPercent)
{
//limitedPressurePercent *= flowAllowedPercent / flowPercent; //If flowPercent is included, then splitters with different maxes don't work well...
limitedPressurePercent *= flowAllowedPercent;
}
return limitedPressurePercent;
}
public override SettingResponseData setSourceValues(FlowCalculationData baseData, FlowComponent caller, double flowVolume, bool lastTime)
{
finalFlow = flowVolume;
SettingResponseData ret = sourceComponent.setSourceValues(baseData, this, flowVolume, lastTime);
if (ret != null)
{
currentFluidTypeMap = ret.fluidTypeMap; //On source side, the mixture comes from the return values
inletTemperature = ret.temperature;
outletTemperature = ret.temperature;
}
return ret;
}
public abstract SettingResponseData setSourceValues(FlowCalculationData baseData, FlowComponent caller, double flowVolume, bool lastTime);
