private void FindAttachedThermalSource()
{
partDistance = 0;
// first look if part contains an thermal source
myAttachedReactor = part.FindModulesImplementing <IThermalSource>().FirstOrDefault();
if (myAttachedReactor != null)
{
return;
}
// otherwise look for other non selfcontained thermal sources
var source = ThermalSourceSearchResult.BreadthFirstSearchForThermalSource(part, (p) => p.IsThermalSource && p.ThermalEnergyEfficiency > 0, 3, 0, true);
//var source = ThermalSourceSearchResult.BreadthFirstSearchForThermalSource(part, 3, 0, true);
if (source == null)
{
return;
}
// verify cost is not higher than 1
partDistance = (int)Math.Max(Math.Ceiling(source.Cost) - 1, 0);
if (partDistance > 0)
{
return;
}
myAttachedReactor = source.Source;
}
public void OnEditorAttach()
{
// first look if part itself contains an energysource
foreach (var module in part.Modules)
{
var thermalsource = module as IThermalSource;
if (thermalsource != null)
{
myAttachedReactor = thermalsource;
break;
}
}
if (myAttachedReactor == null)
{
List <IThermalSource> source_list = part.attachNodes.Where(atn => atn.attachedPart != null).SelectMany(atn => atn.attachedPart.FindModulesImplementing <IThermalSource>()).ToList();
myAttachedReactor = source_list.FirstOrDefault(s => !s.IsSelfContained); // prevent connecting to self contained sources
}
if (myAttachedReactor != null && myAttachedReactor is IChargedParticleSource && (myAttachedReactor as IChargedParticleSource).ChargedParticleRatio > 0)
{
generatorType = altUpgradedName;
chargedParticleMode = true;
}
}
public override void OnStart(PartModule.StartState state)
{
String[] resources_to_supply = { FNResourceManager.FNRESOURCE_MEGAJOULES, FNResourceManager.FNRESOURCE_WASTEHEAT };
this.resources_to_supply = resources_to_supply;
base.OnStart(state);
generatorType = originalName;
if (state == StartState.Editor)
{
if (this.HasTechsRequiredToUpgrade())
{
isupgraded = true;
hasrequiredupgrade = true;
upgradePartModule();
}
part.OnEditorAttach += OnEditorAttach;
return;
}
if (this.HasTechsRequiredToUpgrade())
{
hasrequiredupgrade = true;
}
this.part.force_activate();
anim = part.FindModelAnimators(animName).FirstOrDefault();
if (anim != null)
{
anim [animName].layer = 1;
if (!IsEnabled)
{
anim [animName].normalizedTime = 1f;
anim [animName].speed = -1f;
}
else
{
anim [animName].normalizedTime = 0f;
anim [animName].speed = 1f;
}
anim.Play();
}
if (generatorInit == false)
{
generatorInit = true;
IsEnabled = true;
}
if (isupgraded)
{
upgradePartModule();
}
List <IThermalSource> source_list = part.attachNodes.Where(atn => atn.attachedPart != null).SelectMany(atn => atn.attachedPart.FindModulesImplementing <IThermalSource>()).ToList();
myAttachedReactor = source_list.FirstOrDefault();
print("[KSP Interstellar] Configuring Generator");
}
public override void OnFixedUpdate()
{
nuclear_power = 0;
solar_power = 0;
displayed_solar_power = 0;
base.OnFixedUpdate();
if (IsEnabled && !relay)
{
foreach (FNGenerator generator in generators)
{
if (generator.isActive())
{
IThermalSource thermal_source = generator.getThermalSource();
if (thermal_source != null && !thermal_source.IsVolatileSource)
{
float output = generator.getMaxPowerOutput();
if (thermal_source is InterstellarFusionReactor)
{
InterstellarFusionReactor fusion_reactor = thermal_source as InterstellarFusionReactor;
output = output * 0.92f;
}
output = output * transmitPower / 100.0f;
float gpower = consumeFNResource(output * TimeWarp.fixedDeltaTime, FNResourceManager.FNRESOURCE_MEGAJOULES);
nuclear_power += gpower * 1000 / TimeWarp.fixedDeltaTime;
}
}
}
foreach (ModuleDeployableSolarPanel panel in panels)
{
float output = panel.flowRate;
// attempt to retrieve all solar power output
if (output == 0.0)
{
var solarpanels = panel.part.parent.FindModulesImplementing <ModuleDeployableSolarPanel>();
solarpanels.ForEach(s => output += s.flowRate);
}
float spower = part.RequestResource("ElectricCharge", output * TimeWarp.fixedDeltaTime);
double inv_square_mult = Math.Pow(Vector3d.Distance(FlightGlobals.Bodies[PluginHelper.REF_BODY_KERBIN].transform.position, FlightGlobals.Bodies[PluginHelper.REF_BODY_KERBOL].transform.position), 2) / Math.Pow(Vector3d.Distance(vessel.transform.position, FlightGlobals.Bodies[PluginHelper.REF_BODY_KERBOL].transform.position), 2);
displayed_solar_power += spower / TimeWarp.fixedDeltaTime;
//scale solar power to what it would be in Kerbin orbit for file storage
solar_power += (float)(spower / TimeWarp.fixedDeltaTime / inv_square_mult);
}
}
if (double.IsInfinity(nuclear_power) || double.IsNaN(nuclear_power))
{
nuclear_power = 0;
}
if (double.IsInfinity(solar_power) || double.IsNaN(solar_power))
{
solar_power = 0;
}
}
public void OnEditorAttach()
{
List <IThermalSource> source_list = part.attachNodes.Where(atn => atn.attachedPart != null).SelectMany(atn => atn.attachedPart.FindModulesImplementing <IThermalSource>()).ToList();
myAttachedReactor = source_list.FirstOrDefault();
if (myAttachedReactor != null && myAttachedReactor is IChargedParticleSource && (myAttachedReactor as IChargedParticleSource).ChargedParticleRatio > 0)
{
generatorType = altUpgradedName;
chargedParticleMode = true;
}
}
/// <summary>
/// Finds the nearest avialable thermalsource and update effective part mass
/// </summary>
public void FindAndAttachToThermalSource()
{
partDistance = 0;
// disconnect
if (attachedThermalSource != null)
{
if (chargedParticleMode)
{
attachedThermalSource.ConnectedChargedParticleElectricGenerator = null;
}
else
{
attachedThermalSource.ConnectedThermalElectricGenerator = null;
}
}
// first look if part contains an thermal source
attachedThermalSource = part.FindModulesImplementing <IThermalSource>().FirstOrDefault();
if (attachedThermalSource != null)
{
return;
}
// otherwise look for other non selfcontained thermal sources
var searchResult = ThermalSourceSearchResult.BreadthFirstSearchForThermalSource(part, (p) => p.IsThermalSource && p.ThermalEnergyEfficiency > 0, 3, 0, true);
if (searchResult == null)
{
return;
}
// verify cost is not higher than 1
partDistance = (int)Math.Max(Math.Ceiling(searchResult.Cost) - 1, 0);
if (partDistance > 0)
{
return;
}
// update attached thermalsource
attachedThermalSource = searchResult.Source;
//connect with source
if (chargedParticleMode)
{
attachedThermalSource.ConnectedChargedParticleElectricGenerator = this;
}
else
{
attachedThermalSource.ConnectedThermalElectricGenerator = this;
}
UpdateTargetMass();
}
public override void OnStart(PartModule.StartState state)
{
engineType = originalName;
// check whether we have the technologies available to be able to perform an upgrade
if (state == StartState.Editor)
{
if (this.HasTechsRequiredToUpgrade())
{
isupgraded = true;
upgradePartModule();
}
return;
}
fuel_gauge = part.stackIcon.DisplayInfo();
myAttachedEngine = this.part.Modules["ModuleEnginesFX"] as ModuleEnginesFX;
// if engine isn't already initialised, initialise it
if (engineInit == false)
{
engineInit = true;
}
// if we can upgrade, let's do so
if (isupgraded && isJet)
{
upgradePartModule();
}
else
{
propellants = getPropellants(isJet);
}
// find attached thermal source
foreach (AttachNode attach_node in part.attachNodes)
{
if (attach_node.attachedPart != null)
{
List <IThermalSource> sources = attach_node.attachedPart.FindModulesImplementing <IThermalSource> ();
if (sources.Count > 0)
{
myAttachedReactor = sources.First();
if (myAttachedReactor != null)
{
break;
}
}
}
}
setupPropellants();
hasstarted = true;
//print ("Start Complete");
}
public void OnEditorAttach()
{
foreach (AttachNode attach_node in part.attachNodes)
{
if (attach_node.attachedPart != null)
{
List <IThermalSource> sources = attach_node.attachedPart.FindModulesImplementing <IThermalSource>();
if (sources.Count > 0)
{
myAttachedReactor = sources.First();
if (myAttachedReactor != null)
{
break;
}
}
}
}
estimateEditorPerformance();
}
/// <summary>
/// Finds the nearest avialable thermalsource and update effective part mass
/// </summary>
public void FindAndAttachToThermalSource()
{
partDistance = 0;
// first look if part contains an thermal source
attachedThermalSource = part.FindModulesImplementing <IThermalSource>().FirstOrDefault();
if (attachedThermalSource != null)
{
return;
}
// otherwise look for other non selfcontained thermal sources
var searchResult = ThermalSourceSearchResult.BreadthFirstSearchForThermalSource(part, (p) => p.IsThermalSource && p.ThermalEnergyEfficiency > 0, 3, 0, true);
if (searchResult == null)
{
return;
}
// verify cost is not higher than 1
partDistance = (int)Math.Max(Math.Ceiling(searchResult.Cost) - 1, 0);
if (partDistance > 0)
{
return;
}
// update attached thermalsource
attachedThermalSource = searchResult.Source;
// verify if mass calculation is active
if (!calculatedMass)
{
return;
}
// update part mass
effectiveMass = attachedThermalSource.RawMaximumPower > 0 && rawPowerToMassDivider > 0
? (massModifier * attachedThermalSource.ThermalProcessingModifier * attachedThermalSource.RawMaximumPower) / rawPowerToMassDivider
: part.mass;
part.mass = effectiveMass;
}
private void FindAttachedThermalSource()
{
foreach (AttachNode attach_node in part.attachNodes)
{
if (attach_node.attachedPart == null)
{
continue;
}
List <IThermalSource> sources = attach_node.attachedPart.FindModulesImplementing <IThermalSource>();
if (sources.Count <= 0)
{
continue;
}
myAttachedReactor = sources.First();
if (myAttachedReactor != null)
{
break;
}
}
}
private void FindAttachedThermalSource()
{
partDistance = 0;
// first look if part contains an thermal source
myAttachedReactor = part.FindModulesImplementing<IThermalSource>().FirstOrDefault();
if (myAttachedReactor != null) return;
// otherwise look for other non selfcontained thermal sources
var source = ThermalSourceSearchResult.BreadthFirstSearchForThermalSource(part, (p) => p.IsThermalSource && p.ThermalEnergyEfficiency > 0 , 3, 0, true);
//var source = ThermalSourceSearchResult.BreadthFirstSearchForThermalSource(part, 3, 0, true);
if (source == null) return;
// verify cost is not higher than 1
partDistance = (int)Math.Max(Math.Ceiling(source.Cost) - 1, 0);
if (partDistance > 0) return;
myAttachedReactor = source.Source;
}
/// <summary>
/// Finds the nearest avialable thermalsource and update effective part mass
/// </summary>
public void FindAndAttachToThermalSource()
{
partDistance = 0;
// first look if part contains an thermal source
attachedThermalSource = part.FindModulesImplementing<IThermalSource>().FirstOrDefault();
if (attachedThermalSource != null) return;
// otherwise look for other non selfcontained thermal sources
var searchResult = ThermalSourceSearchResult.BreadthFirstSearchForThermalSource(part, (p) => p.IsThermalSource && p.ThermalEnergyEfficiency > 0 , 3, 0, true);
if (searchResult == null) return;
// verify cost is not higher than 1
partDistance = (int)Math.Max(Math.Ceiling(searchResult.Cost) - 1, 0);
if (partDistance > 0) return;
// update attached thermalsource
attachedThermalSource = searchResult.Source;
// verify if mass calculation is active
if (!calculatedMass) return;
// update part mass
effectiveMass = attachedThermalSource.RawMaximumPower > 0 && rawPowerToMassDivider > 0
? (massModifier * attachedThermalSource.ThermalProcessingModifier * attachedThermalSource.RawMaximumPower) / rawPowerToMassDivider
: part.mass;
part.mass = effectiveMass;
}
private void FindAttachedThermalSource()
{
foreach (AttachNode attach_node in part.attachNodes)
{
if (attach_node.attachedPart == null) continue;
List<IThermalSource> sources = attach_node.attachedPart.FindModulesImplementing<IThermalSource>();
if (sources.Count <= 0) continue;
myAttachedReactor = sources.First();
if (myAttachedReactor != null) break;
}
}
public override void OnStart(PartModule.StartState state) {
engineType = originalName;
// check whether we have the technologies available to be able to perform an upgrade
if (state == StartState.Editor) {
if (this.HasTechsRequiredToUpgrade())
{
isupgraded = true;
upgradePartModule();
}
return;
}
fuel_gauge = part.stackIcon.DisplayInfo();
myAttachedEngine = this.part.Modules["ModuleEnginesFX"] as ModuleEnginesFX;
// if engine isn't already initialised, initialise it
if (engineInit == false) {
engineInit = true;
}
// if we can upgrade, let's do so
if (isupgraded && isJet) {
upgradePartModule ();
} else {
propellants = getPropellants (isJet);
}
// find attached thermal source
foreach (AttachNode attach_node in part.attachNodes) {
if (attach_node.attachedPart != null) {
List<IThermalSource> sources = attach_node.attachedPart.FindModulesImplementing<IThermalSource> ();
if (sources.Count > 0) {
myAttachedReactor = sources.First ();
if (myAttachedReactor != null) {
break;
}
}
}
}
setupPropellants();
hasstarted = true;
//print ("Start Complete");
}
public void OnEditorAttach() {
List<IThermalSource> source_list = part.attachNodes.Where(atn => atn.attachedPart != null).SelectMany(atn => atn.attachedPart.FindModulesImplementing<IThermalSource>()).ToList();
myAttachedReactor = source_list.FirstOrDefault();
if (myAttachedReactor != null && myAttachedReactor is IChargedParticleSource && (myAttachedReactor as IChargedParticleSource).ChargedParticleRatio > 0)
{
generatorType = altUpgradedName;
chargedParticleMode = true;
}
}
public override void OnStart(PartModule.StartState state) {
String[] resources_to_supply = {FNResourceManager.FNRESOURCE_MEGAJOULES,FNResourceManager.FNRESOURCE_WASTEHEAT};
this.resources_to_supply = resources_to_supply;
base.OnStart (state);
generatorType = originalName;
if (state == StartState.Editor) {
if (this.HasTechsRequiredToUpgrade())
{
isupgraded = true;
hasrequiredupgrade = true;
upgradePartModule();
}
part.OnEditorAttach += OnEditorAttach;
return;
}
if (this.HasTechsRequiredToUpgrade())
{
hasrequiredupgrade = true;
}
this.part.force_activate();
anim = part.FindModelAnimators (animName).FirstOrDefault ();
if (anim != null) {
anim [animName].layer = 1;
if (!IsEnabled) {
anim [animName].normalizedTime = 1f;
anim [animName].speed = -1f;
} else {
anim [animName].normalizedTime = 0f;
anim [animName].speed = 1f;
}
anim.Play ();
}
if (generatorInit == false) {
generatorInit = true;
IsEnabled = true;
}
if (isupgraded) {
upgradePartModule ();
}
List<IThermalSource> source_list = part.attachNodes.Where(atn => atn.attachedPart != null).SelectMany(atn => atn.attachedPart.FindModulesImplementing<IThermalSource>()).ToList();
myAttachedReactor = source_list.FirstOrDefault();
print("[KSP Interstellar] Configuring Generator");
}
public void OnEditorAttach() {
foreach (AttachNode attach_node in part.attachNodes) {
if (attach_node.attachedPart != null) {
List<IThermalSource> sources = attach_node.attachedPart.FindModulesImplementing<IThermalSource>();
if (sources.Count > 0) {
myAttachedReactor = sources.First();
if (myAttachedReactor != null) {
break;
}
}
}
}
estimateEditorPerformance();
}
public ThermalSourceSearchResult(IThermalSource source, float cost)
{
Cost = cost;
Source = source;
}
public override void OnStart(PartModule.StartState state)
{
engineType = originalName;
myAttachedEngine = this.part.Modules["ModuleEngines"] as ModuleEngines;
// find attached thermal source
foreach (AttachNode attach_node in part.attachNodes)
{
if (attach_node.attachedPart != null)
{
List <IThermalSource> sources = attach_node.attachedPart.FindModulesImplementing <IThermalSource>();
if (sources.Count > 0)
{
myAttachedReactor = sources.First();
if (myAttachedReactor != null)
{
break;
}
}
}
}
if (state == StartState.Editor)
{
part.OnEditorAttach += OnEditorAttach;
propellants = getPropellants(isJet);
if (this.HasTechsRequiredToUpgrade() && isJet)
{
isupgraded = true;
upgradePartModule();
}
setupPropellants();
estimateEditorPerformance();
return;
}
fuel_gauge = part.stackIcon.DisplayInfo();
// if engine isn't already initialised, initialise it
if (engineInit == false)
{
engineInit = true;
}
// if we can upgrade, let's do so
if (isupgraded && isJet)
{
upgradePartModule();
}
else
{
if (this.HasTechsRequiredToUpgrade() && isJet)
{
hasrequiredupgrade = true;
}
// if not, use basic propellants
propellants = getPropellants(isJet);
}
setupPropellants();
hasstarted = true;
//print ("Start Complete");
}
public ThermalSourceSearchResult(IThermalSource source, float cost)
{
Cost = cost;
Source = source;
}
public override void OnStart(PartModule.StartState state) {
engineType = originalName;
myAttachedEngine = this.part.Modules["ModuleEngines"] as ModuleEngines;
// find attached thermal source
foreach (AttachNode attach_node in part.attachNodes) {
if (attach_node.attachedPart != null) {
List<IThermalSource> sources = attach_node.attachedPart.FindModulesImplementing<IThermalSource>();
if (sources.Count > 0) {
myAttachedReactor = sources.First();
if (myAttachedReactor != null) {
break;
}
}
}
}
if (state == StartState.Editor) {
part.OnEditorAttach += OnEditorAttach;
propellants = getPropellants(isJet);
if (this.HasTechsRequiredToUpgrade() && isJet)
{
isupgraded = true;
upgradePartModule();
}
setupPropellants();
estimateEditorPerformance();
return;
}
fuel_gauge = part.stackIcon.DisplayInfo();
// if engine isn't already initialised, initialise it
if (engineInit == false) {
engineInit = true;
}
// if we can upgrade, let's do so
if (isupgraded && isJet) {
upgradePartModule ();
} else {
if (this.HasTechsRequiredToUpgrade() && isJet)
{
hasrequiredupgrade = true;
}
// if not, use basic propellants
propellants = getPropellants (isJet);
}
setupPropellants();
hasstarted = true;
//print ("Start Complete");
}
public override void OnFixedUpdate()
{
activeCount++;
nuclear_power = 0;
solar_power = 0;
displayed_solar_power = 0;
if (IsEnabled && !relay)
{
foreach (FNGenerator generator in generators)
{
if (generator.isActive())
{
IThermalSource thermal_source = generator.getThermalSource();
if (thermal_source != null && !thermal_source.IsVolatileSource)
{
double output = generator.getMaxPowerOutput();
if (thermal_source is InterstellarFusionReactor)
{
output = output * 0.95;
}
output = output * transmitPower / 100.0;
double gpower = consumeFNResource(output * TimeWarp.fixedDeltaTime, FNResourceManager.FNRESOURCE_MEGAJOULES);
nuclear_power += gpower * 1000 / TimeWarp.fixedDeltaTime;
}
}
}
foreach (ModuleDeployableSolarPanel panel in panels)
{
double output = panel.flowRate;
double spower = part.RequestResource("ElectricCharge", output * TimeWarp.fixedDeltaTime);
double inv_square_mult = Math.Pow(Vector3d.Distance(FlightGlobals.Bodies[PluginHelper.REF_BODY_KERBIN].transform.position, FlightGlobals.Bodies[PluginHelper.REF_BODY_KERBOL].transform.position), 2) / Math.Pow(Vector3d.Distance(vessel.transform.position, FlightGlobals.Bodies[PluginHelper.REF_BODY_KERBOL].transform.position), 2);
displayed_solar_power += spower / TimeWarp.fixedDeltaTime;
//scale solar power to what it would be in Kerbin orbit for file storage
solar_power += spower / TimeWarp.fixedDeltaTime / inv_square_mult;
}
}
if (double.IsInfinity(nuclear_power) || double.IsNaN(nuclear_power))
{
nuclear_power = 0;
}
if (double.IsInfinity(solar_power) || double.IsNaN(solar_power))
{
solar_power = 0;
}
if (activeCount % 1000 == 9)
{
ConfigNode config = PluginHelper.getPluginSaveFile();
string vesselID = vessel.id.ToString();
if (config.HasNode("VESSEL_MICROWAVE_POWER_" + vesselID))
{
ConfigNode power_node = config.GetNode("VESSEL_MICROWAVE_POWER_" + vesselID);
if (power_node.HasValue("nuclear_power"))
{
power_node.SetValue("nuclear_power", MicrowavePowerTransmitter.getEnumeratedNuclearPowerForVessel(vessel).ToString("E"));
}
else
{
power_node.AddValue("nuclear_power", MicrowavePowerTransmitter.getEnumeratedNuclearPowerForVessel(vessel).ToString("E"));
}
if (power_node.HasValue("solar_power"))
{
power_node.SetValue("solar_power", MicrowavePowerTransmitter.getEnumeratedSolarPowerForVessel(vessel).ToString("E"));
}
else
{
power_node.AddValue("solar_power", MicrowavePowerTransmitter.getEnumeratedSolarPowerForVessel(vessel).ToString("E"));
}
}
else
{
ConfigNode power_node = config.AddNode("VESSEL_MICROWAVE_POWER_" + vesselID);
power_node.AddValue("nuclear_power", MicrowavePowerTransmitter.getEnumeratedNuclearPowerForVessel(vessel).ToString("E"));
power_node.AddValue("solar_power", MicrowavePowerTransmitter.getEnumeratedSolarPowerForVessel(vessel).ToString("E"));
}
if (config.HasNode("VESSEL_MICROWAVE_RELAY_" + vesselID))
{
ConfigNode relay_node = config.GetNode("VESSEL_MICROWAVE_RELAY_" + vesselID);
if (relay_node.HasValue("relay"))
{
relay_node.SetValue("relay", MicrowavePowerTransmitter.vesselIsRelay(vessel).ToString());
}
else
{
relay_node.AddValue("relay", MicrowavePowerTransmitter.vesselIsRelay(vessel).ToString());
}
}
else
{
ConfigNode relay_node = config.AddNode("VESSEL_MICROWAVE_RELAY_" + vesselID);
relay_node.AddValue("relay", MicrowavePowerTransmitter.vesselIsRelay(vessel).ToString());
}
config.Save(PluginHelper.getPluginSaveFilePath());
}
activeCount++;
}
