public static void BackgroundUpdate(Vessel v, ProtoPartModuleSnapshot m, Reliability reliability, double elapsed_s)
{
// if it has not malfunctioned
if (Lib.Proto.GetUInt(m, "malfunctions") < 2)
{
// get epoch
double epoch = Lib.Proto.GetDouble(m, "epoch");
// calculate epoch of failure if necessary
if (epoch <= double.Epsilon)
{
double quality = Lib.Proto.GetDouble(m, "quality", 1.0);
double start = Planetarium.GetUniversalTime();
epoch = start + reliability.mtbf * quality * 2.0 * Lib.RandomDouble();
Lib.Proto.Set(m, "start", start);
Lib.Proto.Set(m, "epoch", epoch);
}
// if it has failed, trigger malfunction
if (Planetarium.GetUniversalTime() > epoch)
{
Break(v, m);
}
}
}
static void ProcessGenerator(Vessel v, ProtoPartSnapshot p, ProtoPartModuleSnapshot m, ModuleGenerator generator, vessel_resources resources, double elapsed_s)
{
// play nice with BackgroundProcessing
if (Kerbalism.detected_mods.BackgroundProcessing)
{
return;
}
// if active
if (Lib.Proto.GetBool(m, "generatorIsActive"))
{
// get malfunction penalty
double penalty = Reliability.Penalty(p, "Generator");
// create and commit recipe
resource_recipe recipe = new resource_recipe(resource_recipe.converter_priority);
foreach (var ir in generator.inputList)
{
recipe.Input(ir.name, ir.rate * elapsed_s);
}
foreach (var or in generator.outputList)
{
recipe.Output(or.name, or.rate * penalty * elapsed_s);
}
resources.Transform(recipe);
}
}
static void ProcessHarvester(Vessel v, ProtoPartSnapshot p, ProtoPartModuleSnapshot m, ModuleResourceHarvester harvester, vessel_resources resources, double elapsed_s)
{
// note: ignore stock temperature mechanic of harvesters
// note: ignore autoshutdown
// note: ignore depletion (stock seem to do the same)
// note: using hard-coded crew bonus values from the wiki because the module data make zero sense (DERP ALERT)
// note: 'undo' stock behaviour by forcing lastUpdateTime to now (to minimize overlapping calculations from this and stock post-facto simulation)
// if active
if (Lib.Proto.GetBool(m, "IsActivated"))
{
// do nothing if full
// note: comparing against previous amount
if (resources.Info(v, harvester.ResourceName).level < harvester.FillAmount - double.Epsilon)
{
// get malfunction penalty
double penalty = Reliability.Penalty(p, "Harvester");
// deduce crew bonus
int exp_level = -1;
if (harvester.UseSpecialistBonus)
{
foreach (ProtoCrewMember c in v.protoVessel.GetVesselCrew())
{
exp_level = Math.Max(exp_level, c.trait == harvester.Specialty ? c.experienceLevel : -1);
}
}
double exp_bonus = exp_level < 0 ? 1.0 : 5.0 + (double)exp_level * 4.0;
// detect amount of ore in the ground
AbundanceRequest request = new AbundanceRequest
{
Altitude = v.altitude,
BodyId = v.mainBody.flightGlobalsIndex,
CheckForLock = false,
Latitude = v.latitude,
Longitude = v.longitude,
ResourceType = (HarvestTypes)harvester.HarvesterType,
ResourceName = harvester.ResourceName
};
double abundance = ResourceMap.Instance.GetAbundance(request);
// if there is actually something (should be if active when unloaded)
if (abundance > harvester.HarvestThreshold)
{
// create and commit recipe
resource_recipe recipe = new resource_recipe(resource_recipe.harvester_priority);
foreach (var ir in harvester.inputList)
{
recipe.Input(ir.ResourceName, ir.Ratio * elapsed_s);
}
recipe.Output(harvester.ResourceName, abundance * harvester.Efficiency * exp_bonus * penalty * elapsed_s);
resources.Transform(recipe);
}
}
// undo stock behaviour by forcing last_update_time to now
Lib.Proto.Set(m, "lastUpdateTime", Planetarium.GetUniversalTime());
}
}
public ReliabilityInfo(ProtoPartSnapshot p, ProtoPartModuleSnapshot m, Reliability module_prefab)
{
title = Lib.BuildString(p.partInfo.title, Lib.Color(" " + module_prefab.title, Lib.Kolor.LightGrey));
group = module_prefab.redundancy;
broken = Lib.Proto.GetBool(m, "broken", false);
critical = Lib.Proto.GetBool(m, "critical", false);
partId = 0;
need_maintenance = Lib.Proto.GetBool(m, "need_maintenance", false);
bool quality = Lib.Proto.GetBool(m, "quality", false);
if (module_prefab.rated_operation_duration > 0)
{
var operation_duration = Lib.Proto.GetDouble(m, "operation_duration", 0);
rel_duration = operation_duration / Reliability.EffectiveDuration(quality, module_prefab.rated_operation_duration);
rel_duration = Lib.Clamp(rel_duration, 0, 1);
}
if (module_prefab.rated_ignitions > 0)
{
var ignitions = Lib.Proto.GetInt(m, "ignitions", 0);
rel_ignitions = (double)ignitions / Reliability.EffectiveDuration(quality, module_prefab.rated_ignitions);
rel_ignitions = Lib.Clamp(rel_ignitions, 0, 1);
}
mtbf = Reliability.EffectiveMTBF(quality, module_prefab.mtbf);
if (mtbf > 0)
{
var last_inspection = Lib.Proto.GetDouble(m, "last_inspection", 0);
maintenance_after = last_inspection + mtbf * 0.5;
}
}
public ReliabilityInfo(Reliability module)
{
title = Lib.BuildString(module.part.partInfo.title, Lib.Color(" " + module.title, Lib.Kolor.LightGrey));
group = module.redundancy;
broken = module.broken;
critical = module.critical;
partId = module.part.flightID;
need_maintenance = module.needMaintenance;
mtbf = Reliability.EffectiveMTBF(module.quality, module.mtbf);
if (module.rated_operation_duration > 0)
{
rel_duration = module.operation_duration / Reliability.EffectiveDuration(module.quality, module.rated_operation_duration);
rel_duration = Lib.Clamp(rel_duration, 0, 1);
}
if (module.rated_ignitions > 0)
{
rel_ignitions = (double)module.ignitions / Reliability.EffectiveIgnitions(module.quality, module.rated_ignitions);
rel_ignitions = Lib.Clamp(rel_ignitions, 0, 1);
}
if (mtbf > 0)
{
maintenance_after = module.last_inspection + mtbf * 0.5;
}
}
// implement gravity ring mechanics for unloaded vessels
public static void BackgroundUpdate(Vessel vessel, ProtoPartSnapshot p, ProtoPartModuleSnapshot m, GravityRing ring, vessel_resources resources, double elapsed_s)
{
// get protomodule data
float speed = Lib.Proto.GetFloat(m, "speed");
// get resource handler
resource_info ec = resources.Info(vessel, "ElectricCharge");
// consume ec
ec.Consume(ring.ec_rate * speed * elapsed_s * Reliability.Penalty(p, "GravityRing", 2.0));
// reset speed if there isn't enough ec
// note: comparing against amount in previous simulation step
if (ec.amount <= double.Epsilon)
{
speed = 0.0f;
Lib.Proto.Set(m, "speed", speed);
}
// set entertainment
// note: entertainmnent is only recomputed for loaded vessels,
// so changing rate here does nothing until vessel is reloaded
double rate = 1.0 + (ring.entertainment_rate - 1.0) * speed;
Lib.Proto.Set(m, "rate", rate);
}
public void Quality()
{
quality = !quality;
// sync all other modules in the symmetry group
foreach (Part p in part.symmetryCounterparts)
{
Reliability reliability = p.Modules[part.Modules.IndexOf(this)] as Reliability;
if (reliability != null)
{
reliability.quality = !reliability.quality;
}
}
// refresh VAB ui
GameEvents.onEditorShipModified.Fire(EditorLogic.fetch.ship);
}
public static void BackgroundUpdate(Vessel vessel, ProtoPartSnapshot p, ProtoPartModuleSnapshot m, Emitter emitter, resource_info ec, double elapsed_s)
{
// if there is enough EC
// note: comparing against amount in previous simulation step
if (ec.amount > double.Epsilon)
{
// get intensity
double intensity = Lib.Proto.GetDouble(m, "intensity");
// consume EC
ec.Consume(emitter.ec_rate * intensity * elapsed_s * Reliability.Penalty(p, "Emitter", 2.0));
}
// else disable it
else
{
Lib.Proto.Set(m, "intensity", 0.0);
}
}
// cause a part at random to malfunction
public static void CauseMalfunction(Vessel v)
{
// if vessel is loaded
if (v.loaded)
{
// choose a module at random
var modules = v.FindPartModulesImplementing <Reliability>();
if (modules.Count == 0)
{
return;
}
var m = modules[Lib.RandomInt(modules.Count)];
// break it
m.Break();
}
// if vessel is not loaded
else
{
// get all reliability modules
var modules = new List <KeyValuePair <ProtoPartSnapshot, ProtoPartModuleSnapshot> >();
foreach (ProtoPartSnapshot p in v.protoVessel.protoPartSnapshots)
{
foreach (ProtoPartModuleSnapshot m in p.modules)
{
if (m.moduleName == "Reliability")
{
modules.Add(new KeyValuePair <ProtoPartSnapshot, ProtoPartModuleSnapshot>(p, m));
}
}
}
// choose one at random
if (modules.Count == 0)
{
return;
}
var pair = modules[Lib.RandomInt(modules.Count)];
// break it
Reliability.Break(v, pair.Value);
}
}
private void EvaluateStatus()
{
UnityEngine.Profiling.Profiler.BeginSample("Kerbalism.VesselData.EvaluateStatus");
// determine if there is enough EC for a powered state
powered = Lib.IsPowered(Vessel);
// calculate crew info for the vessel
crewCount = Lib.CrewCount(Vessel);
crewCapacity = Lib.CrewCapacity(Vessel);
// malfunction stuff
malfunction = Reliability.HasMalfunction(Vessel);
critical = Reliability.HasCriticalFailure(Vessel);
// communications info
connection = ConnectionInfo.Update(Vessel, powered, EnvBlackout);
// habitat data
habitatInfo.Update(Vessel);
volume = Habitat.Tot_volume(Vessel);
surface = Habitat.Tot_surface(Vessel);
pressure = Math.Min(Habitat.Pressure(Vessel), habitatInfo.MaxPressure);
evas = (uint)(Math.Max(0, ResourceCache.GetResource(Vessel, "Nitrogen").Amount - 330) / Settings.LifeSupportAtmoLoss);
poisoning = Habitat.Poisoning(Vessel);
shielding = Habitat.Shielding(Vessel);
livingSpace = Habitat.Living_space(Vessel);
volumePerCrew = Habitat.Volume_per_crew(Vessel);
comforts = new Comforts(Vessel, EnvLanded, crewCount > 1, connection.linked && connection.rate > double.Epsilon);
// data about greenhouses
greenhouses = Greenhouse.Greenhouses(Vessel);
Drive.GetCapacity(this, out drivesFreeSpace, out drivesCapacity);
// solar panels data
if (Vessel.loaded)
{
solarPanelsAverageExposure = SolarPanelFixer.GetSolarPanelsAverageExposure(solarPanelsExposure);
solarPanelsExposure.Clear();
}
UnityEngine.Profiling.Profiler.EndSample();
}
GUIContent indicator_reliability(Vessel v, vessel_info vi)
{
GUIContent state = new GUIContent();
uint max_malfunctions = vi.max_malfunction;
if (max_malfunctions == 0)
{
state.image = icon_malfunction_nominal;
state.tooltip = "No malfunctions";
}
else if (max_malfunctions == 1)
{
state.image = icon_malfunction_warning;
state.tooltip = "Minor malfunctions";
}
else
{
state.image = icon_malfunction_danger;
state.tooltip = "Major malfunctions";
}
if (vi.avg_quality > 0.0) state.tooltip += Lib.BuildString("\n<i>Quality: ", Reliability.QualityToString(vi.avg_quality), "</i>");
return state;
}
static void ProcessPanel(Vessel v, ProtoPartSnapshot p, ProtoPartModuleSnapshot m, ModuleDeployableSolarPanel panel, vessel_info info, resource_info ec, double elapsed_s)
{
// note: we ignore temperature curve, and make sure it is not relavant in the MM patch
// note: we ignore power curve, that is used by no panel as far as I know
// play nice with BackgroundProcessing
if (Kerbalism.detected_mods.BackgroundProcessing)
{
return;
}
// if in sunlight and extended
if (info.sunlight > double.Epsilon && m.moduleValues.GetValue("stateString") == "EXTENDED")
{
// get panel normal direction
Vector3d normal = panel.part.FindModelComponent <Transform>(panel.raycastTransformName).forward;
// calculate cosine factor
// note: for gameplay reasons, we ignore tracking panel pivots
// note: a possible optimization here is to cache the transform lookup (unity was coded by monkeys)
double cosine_factor = panel.sunTracking ? 1.0 : Math.Max(Vector3d.Dot(info.sun_dir, (v.transform.rotation * p.rotation * normal).normalized), 0.0);
// calculate normalized solar flux
// note: this include fractional sunlight if integrated over orbit
// note: this include atmospheric absorption if inside an atmosphere
double norm_solar_flux = info.solar_flux / Sim.SolarFluxAtHome();
// calculate output
double output = panel.chargeRate // nominal panel charge rate at 1 AU
* norm_solar_flux // normalized flux at panel distance from sun
* cosine_factor // cosine factor of panel orientation
* Reliability.Penalty(p, "Panel"); // malfunctioned panel penalty
// produce EC
ec.Produce(output * elapsed_s);
}
}
static void Incentive_redundancy(Vessel v, string redundancy)
{
if (v.loaded)
{
foreach (Reliability m in Lib.FindModules <Reliability>(v))
{
if (m.redundancy == redundancy)
{
m.next += m.next - m.last;
}
}
}
else
{
foreach (ProtoPartModuleSnapshot m in Lib.FindModules(v.protoVessel, "Reliability"))
{
// find part
ProtoPartSnapshot p = v.protoVessel.protoPartSnapshots.Find(k => k.modules.Contains(m));
// find module prefab
string type = Lib.Proto.GetString(m, "type", string.Empty);
Reliability reliability = p.partPrefab.FindModulesImplementing <Reliability>().Find(k => k.type == type);
if (reliability == null)
{
continue;
}
// double time to next failure
if (reliability.redundancy == redundancy)
{
double last = Lib.Proto.GetDouble(m, "last");
double next = Lib.Proto.GetDouble(m, "next");
Lib.Proto.Set(m, "next", next + (next - last));
}
}
}
}
// trigger a random breakdown event
public static void Breakdown(Vessel v, ProtoCrewMember c)
{
// constants
const double res_penalty = 0.1; // proportion of food lost on 'depressed' and 'wrong_valve'
// get info
Rule supply = supply_rules.Count > 0 ? supply_rules[Lib.RandomInt(supply_rules.Count)] : null;
resource_info res = supply != null?ResourceCache.Info(v, supply.resource_name) : null;
// compile list of events with condition satisfied
List <KerbalBreakdown> events = new List <KerbalBreakdown>();
events.Add(KerbalBreakdown.mumbling); //< do nothing, here so there is always something that can happen
if (Lib.CrewCount(v) > 1)
{
events.Add(KerbalBreakdown.argument); //< do nothing, add some variation to messages
}
if (Lib.HasData(v))
{
events.Add(KerbalBreakdown.fat_finger);
}
if (Reliability.CanMalfunction(v))
{
events.Add(KerbalBreakdown.rage);
}
if (supply != null && res.amount > double.Epsilon)
{
events.Add(KerbalBreakdown.depressed);
events.Add(KerbalBreakdown.wrong_valve);
}
// choose a breakdown event
KerbalBreakdown breakdown = events[Lib.RandomInt(events.Count)];
// generate message
string text = "";
string subtext = "";
switch (breakdown)
{
case KerbalBreakdown.mumbling: text = "$ON_VESSEL$KERBAL has been in space for too long"; subtext = "Mumbling incoherently"; break;
case KerbalBreakdown.argument: text = "$ON_VESSEL$KERBAL had an argument with the rest of the crew"; subtext = "Morale is degenerating at an alarming rate"; break;
case KerbalBreakdown.fat_finger: text = "$ON_VESSEL$KERBAL is pressing buttons at random on the control panel"; subtext = "Science data has been lost"; break;
case KerbalBreakdown.rage: text = "$ON_VESSEL$KERBAL is possessed by a blind rage"; subtext = "A component has been damaged"; break;
case KerbalBreakdown.depressed: text = "$ON_VESSEL$KERBAL is not respecting the rationing guidelines"; subtext = supply.resource_name + " has been lost"; break;
case KerbalBreakdown.wrong_valve: text = "$ON_VESSEL$KERBAL opened the wrong valve"; subtext = supply.resource_name + " has been lost"; break;
}
// post message first so this one is shown before malfunction message
Message.Post(Severity.breakdown, Lib.ExpandMsg(text, v, c), subtext);
// trigger the event
switch (breakdown)
{
case KerbalBreakdown.mumbling: break; // do nothing
case KerbalBreakdown.argument: break; // do nothing
case KerbalBreakdown.fat_finger: Lib.RemoveData(v); break;
case KerbalBreakdown.rage: Reliability.CauseMalfunction(v); break;
case KerbalBreakdown.depressed:
case KerbalBreakdown.wrong_valve: res.Consume(res.amount * res_penalty); break;
}
// remove reputation
if (HighLogic.CurrentGame.Mode == Game.Modes.CAREER)
{
Reputation.Instance.AddReputation(-Settings.BreakdownReputationPenalty, TransactionReasons.Any);
}
}
public static void update(Vessel v, vessel_info vi, VesselData vd, vessel_resources resources, double elapsed_s)
{
// get most used resource handlers
resource_info ec = resources.Info(v, "ElectricCharge");
// store data required to support multiple modules of same type in a part
var PD = new Dictionary <string, Lib.module_prefab_data>();
// for each part
foreach (ProtoPartSnapshot p in v.protoVessel.protoPartSnapshots)
{
// get part prefab (required for module properties)
Part part_prefab = PartLoader.getPartInfoByName(p.partName).partPrefab;
// get all module prefabs
var module_prefabs = part_prefab.FindModulesImplementing <PartModule>();
// clear module indexes
PD.Clear();
// for each module
foreach (ProtoPartModuleSnapshot m in p.modules)
{
// get module type
// if the type is unknown, skip it
module_type type = ModuleType(m.moduleName);
if (type == module_type.Unknown)
{
continue;
}
// get the module prefab
// if the prefab doesn't contain this module, skip it
PartModule module_prefab = Lib.ModulePrefab(module_prefabs, m.moduleName, PD);
if (!module_prefab)
{
continue;
}
// if the module is disabled, skip it
// note: this must be done after ModulePrefab is called, so that indexes are right
if (!Lib.Proto.GetBool(m, "isEnabled"))
{
continue;
}
// process modules
// note: this should be a fast switch, possibly compiled to a jump table
switch (type)
{
case module_type.Reliability: Reliability.BackgroundUpdate(v, p, m, module_prefab as Reliability); break;
case module_type.Experiment: Experiment.BackgroundUpdate(v, m, module_prefab as Experiment, ec, elapsed_s); break;
case module_type.Greenhouse: Greenhouse.BackgroundUpdate(v, m, module_prefab as Greenhouse, vi, resources, elapsed_s); break;
case module_type.GravityRing: GravityRing.BackgroundUpdate(v, p, m, module_prefab as GravityRing, ec, elapsed_s); break;
case module_type.Emitter: Emitter.BackgroundUpdate(v, p, m, module_prefab as Emitter, ec, elapsed_s); break;
case module_type.Harvester: Harvester.BackgroundUpdate(v, m, module_prefab as Harvester, elapsed_s); break;
case module_type.Laboratory: Laboratory.BackgroundUpdate(v, p, m, module_prefab as Laboratory, ec, elapsed_s); break;
case module_type.Command: ProcessCommand(v, p, m, module_prefab as ModuleCommand, resources, elapsed_s); break;
case module_type.Panel: ProcessPanel(v, p, m, module_prefab as ModuleDeployableSolarPanel, vi, ec, elapsed_s); break;
case module_type.Generator: ProcessGenerator(v, p, m, module_prefab as ModuleGenerator, resources, elapsed_s); break;
case module_type.Converter: ProcessConverter(v, p, m, module_prefab as ModuleResourceConverter, resources, elapsed_s); break;
case module_type.Drill: ProcessHarvester(v, p, m, module_prefab as ModuleResourceHarvester, resources, elapsed_s); break;
case module_type.AsteroidDrill: ProcessAsteroidDrill(v, p, m, module_prefab as ModuleAsteroidDrill, resources, elapsed_s); break;
case module_type.StockLab: ProcessStockLab(v, p, m, module_prefab as ModuleScienceConverter, ec, elapsed_s); break;
case module_type.Light: ProcessLight(v, p, m, module_prefab as ModuleLight, ec, elapsed_s); break;
case module_type.Scanner: ProcessScanner(v, p, m, module_prefab, part_prefab, vd, ec, elapsed_s); break;
case module_type.CurvedPanel: ProcessCurvedPanel(v, p, m, module_prefab, part_prefab, vi, ec, elapsed_s); break;
case module_type.FissionGenerator: ProcessFissionGenerator(v, p, m, module_prefab, ec, elapsed_s); break;
case module_type.RadioisotopeGenerator: ProcessRadioisotopeGenerator(v, p, m, module_prefab, ec, elapsed_s); break;
case module_type.CryoTank: ProcessCryoTank(v, p, m, module_prefab, resources, elapsed_s); break;
}
}
}
}
public Vessel_info(Vessel v, UInt64 vessel_id, UInt64 inc)
{
// NOTE: anything used here can't in turn use cache, unless you know what you are doing
// NOTE: you can't cache vessel position
// at any point in time all vessel/body positions are relative to a different frame of reference
// so comparing the current position of a vessel, with the cached one of another make no sense
// associate with an unique incremental id
this.inc = inc;
// determine if this is a valid vessel
is_vessel = Lib.IsVessel(v);
if (!is_vessel)
{
return;
}
// determine if this is a rescue mission vessel
is_rescue = Misc.IsRescueMission(v);
if (is_rescue)
{
return;
}
// dead EVA are not valid vessels
if (EVA.IsDead(v))
{
return;
}
// shortcut for common tests
is_valid = true;
// generate id once
id = vessel_id;
// calculate crew info for the vessel
crew_count = Lib.CrewCount(v);
crew_capacity = Lib.CrewCapacity(v);
// get vessel position
Vector3d position = Lib.VesselPosition(v);
// this should never happen again
if (Vector3d.Distance(position, v.mainBody.position) < 1.0)
{
throw new Exception("Shit hit the fan for vessel " + v.vesselName);
}
// determine if there is enough EC for a powered state
powered = ResourceCache.Info(v, "ElectricCharge").amount > double.Epsilon;
// determine if in sunlight, calculate sun direction and distance
sunlight = Sim.RaytraceBody(v, position, FlightGlobals.Bodies[0], out sun_dir, out sun_dist) ? 1.0 : 0.0;
// environment stuff
atmo_factor = Sim.AtmosphereFactor(v.mainBody, position, sun_dir);
gamma_transparency = Sim.GammaTransparency(v.mainBody, v.altitude);
underwater = Sim.Underwater(v);
breathable = Sim.Breathable(v, underwater);
landed = Lib.Landed(v);
zerog = !landed && (!v.mainBody.atmosphere || v.mainBody.atmosphereDepth < v.altitude);
if (v.mainBody.flightGlobalsIndex != 0 && TimeWarp.CurrentRate > 1000.0f)
{
highspeedWarp(v);
}
// temperature at vessel position
temperature = Sim.Temperature(v, position, sunlight, atmo_factor, out solar_flux, out albedo_flux, out body_flux, out total_flux);
temp_diff = Sim.TempDiff(temperature, v.mainBody, landed);
// radiation
radiation = Radiation.Compute(v, position, gamma_transparency, sunlight, out blackout, out magnetosphere, out inner_belt, out outer_belt, out interstellar);
// extended atmosphere
thermosphere = Sim.InsideThermosphere(v);
exosphere = Sim.InsideExosphere(v);
// malfunction stuff
malfunction = Reliability.HasMalfunction(v);
critical = Reliability.HasCriticalFailure(v);
// communications info
connection = new ConnectionInfo(v, powered, blackout);
transmitting = Science.Transmitting(v, connection.linked && connection.rate > double.Epsilon);
// habitat data
volume = Habitat.Tot_volume(v);
surface = Habitat.Tot_surface(v);
pressure = Habitat.Pressure(v);
evas = (uint)(Math.Max(0, ResourceCache.Info(v, "Nitrogen").amount - 330) / PreferencesLifeSupport.Instance.evaAtmoLoss);
poisoning = Habitat.Poisoning(v);
humidity = Habitat.Humidity(v);
shielding = Habitat.Shielding(v);
living_space = Habitat.Living_space(v);
volume_per_crew = Habitat.Volume_per_crew(v);
comforts = new Comforts(v, landed, crew_count > 1, connection.linked && connection.rate > double.Epsilon);
// data about greenhouses
greenhouses = Greenhouse.Greenhouses(v);
// other stuff
gravioli = Sim.Graviolis(v);
}
// trigger a random breakdown event
public static void Breakdown(Vessel v, ProtoCrewMember c)
{
// constants
const double res_penalty = 0.1; // proportion of food lost on 'depressed' and 'wrong_valve'
// get a supply resource at random
Resource_info res = null;
if (Profile.supplies.Count > 0)
{
Supply supply = Profile.supplies[Lib.RandomInt(Profile.supplies.Count)];
res = ResourceCache.Info(v, supply.resource);
}
// compile list of events with condition satisfied
List <KerbalBreakdown> events = new List <KerbalBreakdown>
{
KerbalBreakdown.mumbling //< do nothing, here so there is always something that can happen
};
if (Lib.HasData(v))
{
events.Add(KerbalBreakdown.fat_finger);
}
if (Reliability.CanMalfunction(v))
{
events.Add(KerbalBreakdown.rage);
}
if (res != null && res.amount > double.Epsilon)
{
events.Add(KerbalBreakdown.wrong_valve);
}
// choose a breakdown event
KerbalBreakdown breakdown = events[Lib.RandomInt(events.Count)];
// generate message
string text = "";
string subtext = "";
switch (breakdown)
{
case KerbalBreakdown.mumbling:
text = "$ON_VESSEL$KERBAL has been in space for too long";
subtext = "Mumbling incoherently";
break;
case KerbalBreakdown.fat_finger:
text = "$ON_VESSEL$KERBAL is pressing buttons at random on the control panel";
subtext = "Science data has been lost";
break;
case KerbalBreakdown.rage:
text = "$ON_VESSEL$KERBAL is possessed by a blind rage";
subtext = "A component has been damaged";
break;
case KerbalBreakdown.wrong_valve:
text = "$ON_VESSEL$KERBAL opened the wrong valve";
subtext = res.resource_name + " has been lost";
break;
}
// post message first so this one is shown before malfunction message
Message.Post(Severity.breakdown, Lib.ExpandMsg(text, v, c), subtext);
// trigger the event
switch (breakdown)
{
case KerbalBreakdown.mumbling:
break; // do nothing
case KerbalBreakdown.fat_finger:
Lib.RemoveData(v);
break;
case KerbalBreakdown.rage:
Reliability.CauseMalfunction(v);
break;
case KerbalBreakdown.wrong_valve:
res.Consume(res.amount * res_penalty);
break;
}
// remove reputation
if (HighLogic.CurrentGame.Mode == Game.Modes.CAREER)
{
Reputation.Instance.AddReputation(-PreferencesBasic.Instance.breakdownPenalty, TransactionReasons.Any);
}
}
// implement greenhouse mechanics for unloaded vessels
public static void BackgroundUpdate(Vessel vessel, ProtoPartSnapshot p, ProtoPartModuleSnapshot m, Greenhouse greenhouse, vessel_info info, vessel_resources resources, double elapsed_s)
{
// get protomodule data
bool door_opened = Lib.Proto.GetBool(m, "door_opened");
double growth = Lib.Proto.GetDouble(m, "growth");
float lamps = Lib.Proto.GetFloat(m, "lamps");
double lighting = Lib.Proto.GetDouble(m, "lighting");
// if lamp is on
if (lamps > float.Epsilon)
{
// get resource handler
resource_info ec = resources.Info(vessel, "ElectricCharge");
// consume ec
ec.Consume(greenhouse.ec_rate * lamps * elapsed_s * Reliability.Penalty(p, "Greenhouse", 2.0));
// shut down the light if there isn't enough ec
// note: comparing against amount at previous simulation step
if (ec.amount <= double.Epsilon) lamps = 0.0f;
}
// determine lighting conditions
// note: we ignore sun direction for gameplay reasons: else the user must reorient the greenhouse as the planets dance over time
// - natural light depend on: distance from sun, direct sunlight, door status
// - artificial light depend on: lamps tweakable and ec available, door status
lighting = info.solar_flux / Sim.SolarFluxAtHome() * (door_opened ? 1.0 : 0.0) + lamps;
// if can use waste, and there is some lighting
double waste_perc = 0.0;
if (greenhouse.waste_name.Length > 0 && lighting > double.Epsilon)
{
// get resource handler
resource_info waste = resources.Info(vessel, greenhouse.waste_name);
// consume waste
waste.Consume(greenhouse.waste_rate * elapsed_s);
// determine waste bonus
// note: comparing against amount from previous simulation step
waste_perc = Math.Min(waste.amount / greenhouse.waste_rate, 1.0);
}
// determine growth bonus
double growth_bonus = greenhouse.soil_bonus * (info.landed ? 1.0 : 0.0) + greenhouse.waste_bonus * waste_perc;
// grow the crop
double growing = greenhouse.growth_rate * (1.0 + growth_bonus) * lighting;
growth += elapsed_s * growing;
// if it is harvest time
if (growth >= 1.0)
{
// reset growth
growth = 0.0;
// produce food
resources.Produce(vessel, greenhouse.resource_name, greenhouse.harvest_size);
// show a message to the user
Message.Post(Lib.BuildString("On <color=FFFFFF>", vessel.vesselName, "</color> the crop harvest produced <color=FFFFFF>",
greenhouse.harvest_size.ToString("F0"), " ", greenhouse.resource_name, "</color>"));
// record first space harvest
if (!info.landed && DB.Ready()) DB.Landmarks().space_harvest = 1;
}
// store data
Lib.Proto.Set(m, "growth", growth);
Lib.Proto.Set(m, "lamps", lamps);
Lib.Proto.Set(m, "lighting", lighting);
Lib.Proto.Set(m, "growth_diff", growing);
}
public static void Update(Vessel v, VesselData vd, VesselResources resources, double elapsed_s)
{
if (!Lib.IsVessel(v))
{
return;
}
// get most used resource handlers
ResourceInfo ec = resources.GetResource(v, "ElectricCharge");
List <ResourceInfo> allResources = resources.GetAllResources(v);
Dictionary <string, double> availableResources = new Dictionary <string, double>();
foreach (var ri in allResources)
{
availableResources[ri.ResourceName] = ri.Amount;
}
List <KeyValuePair <string, double> > resourceChangeRequests = new List <KeyValuePair <string, double> >();
foreach (var e in Background_PMs(v))
{
switch (e.type)
{
case Module_type.Reliability: Reliability.BackgroundUpdate(v, e.p, e.m, e.module_prefab as Reliability, elapsed_s); break;
case Module_type.Experiment: (e.module_prefab as Experiment).BackgroundUpdate(v, vd, e.m, ec, resources, elapsed_s); break; // experiments use the prefab as a singleton instead of a static method
case Module_type.Greenhouse: Greenhouse.BackgroundUpdate(v, e.m, e.module_prefab as Greenhouse, vd, resources, elapsed_s); break;
case Module_type.GravityRing: GravityRing.BackgroundUpdate(v, e.p, e.m, e.module_prefab as GravityRing, ec, elapsed_s); break;
case Module_type.Harvester: Harvester.BackgroundUpdate(v, e.m, e.module_prefab as Harvester, elapsed_s); break; // Kerbalism ground and air harvester module
case Module_type.Laboratory: Laboratory.BackgroundUpdate(v, e.p, e.m, e.module_prefab as Laboratory, ec, elapsed_s); break;
case Module_type.Command: ProcessCommand(v, e.p, e.m, e.module_prefab as ModuleCommand, resources, elapsed_s); break;
case Module_type.Generator: ProcessGenerator(v, e.p, e.m, e.module_prefab as ModuleGenerator, resources, elapsed_s); break;
case Module_type.Converter: ProcessConverter(v, e.p, e.m, e.module_prefab as ModuleResourceConverter, resources, elapsed_s); break;
case Module_type.Drill: ProcessDrill(v, e.p, e.m, e.module_prefab as ModuleResourceHarvester, resources, elapsed_s); break; // Stock ground harvester module
// case Module_type.AsteroidDrill: ProcessAsteroidDrill(v, e.p, e.m, e.module_prefab as ModuleAsteroidDrill, resources, elapsed_s); break; // Stock asteroid harvester module
case Module_type.StockLab: ProcessStockLab(v, e.p, e.m, e.module_prefab as ModuleScienceConverter, ec, elapsed_s); break;
case Module_type.Light: ProcessLight(v, e.p, e.m, e.module_prefab as ModuleLight, ec, elapsed_s); break;
case Module_type.Scanner: KerbalismScansat.BackgroundUpdate(v, e.p, e.m, e.module_prefab as KerbalismScansat, e.part_prefab, vd, ec, elapsed_s); break;
case Module_type.FissionGenerator: ProcessFissionGenerator(v, e.p, e.m, e.module_prefab, ec, elapsed_s); break;
case Module_type.RadioisotopeGenerator: ProcessRadioisotopeGenerator(v, e.p, e.m, e.module_prefab, ec, elapsed_s); break;
case Module_type.CryoTank: ProcessCryoTank(v, e.p, e.m, e.module_prefab, resources, ec, elapsed_s); break;
case Module_type.FNGenerator: ProcessFNGenerator(v, e.p, e.m, e.module_prefab, ec, elapsed_s); break;
case Module_type.SolarPanelFixer: SolarPanelFixer.BackgroundUpdate(v, e.m, e.module_prefab as SolarPanelFixer, vd, ec, elapsed_s); break;
case Module_type.KerbalismSentinel: KerbalismSentinel.BackgroundUpdate(v, e.m, e.module_prefab as KerbalismSentinel, vd, ec, elapsed_s); break;
case Module_type.APIModule: ProcessApiModule(v, e.p, e.m, e.part_prefab, e.module_prefab, resources, availableResources, resourceChangeRequests, elapsed_s); break;
}
}
}
static void ProcessConverter(Vessel v, ProtoPartSnapshot p, ProtoPartModuleSnapshot m, Part part_prefab, int index, vessel_resources resources, double elapsed_s)
{
// note: support multiple resource converters
// note: ignore stock temperature mechanic of converters
// note: ignore autoshutdown
// note: using hard-coded crew bonus values from the wiki because the module data make zero sense (DERP ALERT)
// note: non-mandatory resources 'dynamically scale the ratios', that is exactly what mandatory resources do too (DERP ALERT)
// note: 'undo' stock behaviour by forcing lastUpdateTime to now (to minimize overlapping calculations from this and stock post-facto simulation)
// note: support PlanetaryBaseSystem converters
// note: support NearFuture reactors
// get converter
var converter_prefabs = part_prefab.Modules.GetModules <ModuleResourceConverter>();
if (index >= converter_prefabs.Count)
{
return;
}
ModuleResourceConverter converter = converter_prefabs[index] as ModuleResourceConverter;
// if active
if (Lib.Proto.GetBool(m, "IsActivated"))
{
// determine if vessel is full of all output resources
// note: comparing against previous amount
bool full = true;
foreach (var or in converter.outputList)
{
resource_info res = resources.Info(v, or.ResourceName);
full &= (res.level >= converter.FillAmount - double.Epsilon);
}
// if not full
if (!full)
{
// get malfunction penalty
double penalty = Reliability.Penalty(p, "Converter");
// deduce crew bonus
int exp_level = -1;
if (converter.UseSpecialistBonus)
{
foreach (ProtoCrewMember c in v.protoVessel.GetVesselCrew())
{
exp_level = Math.Max(exp_level, c.trait == converter.Specialty ? c.experienceLevel : -1);
}
}
double exp_bonus = exp_level < 0 ? 1.0 : 5.0 + (double)exp_level * 4.0;
// create and commit recipe
resource_recipe recipe = new resource_recipe(resource_recipe.converter_priority);
foreach (var ir in converter.inputList)
{
recipe.Input(ir.ResourceName, ir.Ratio * elapsed_s);
}
foreach (var or in converter.outputList)
{
recipe.Output(or.ResourceName, or.Ratio * penalty * exp_bonus * elapsed_s);
}
resources.Transform(recipe);
}
// undo stock behaviour by forcing last_update_time to now
Lib.Proto.Set(m, "lastUpdateTime", Planetarium.GetUniversalTime());
}
}
public static void BackgroundUpdate(Vessel v, ProtoPartSnapshot p, ProtoPartModuleSnapshot m, Reliability reliability)
{
// if it has not malfunctioned
if (!Lib.Proto.GetBool(m, "broken"))
{
// get time of next failure
double next = Lib.Proto.GetDouble(m, "next");
// get quality
bool quality = Lib.Proto.GetBool(m, "quality");
// calculate epoch of failure if necessary
if (next <= double.Epsilon)
{
double last = Planetarium.GetUniversalTime();
next = last + reliability.mtbf * (quality ? Settings.QualityScale : 1.0) * 2.0 * Lib.RandomDouble();
Lib.Proto.Set(m, "last", last);
Lib.Proto.Set(m, "next", next);
}
// if it has failed, trigger malfunction
if (Planetarium.GetUniversalTime() > next)
{
ProtoBreak(v, p, m);
}
}
}
public static void Update(Vessel v, Vessel_info vi, VesselData vd, Vessel_resources resources, double elapsed_s)
{
if (!Lib.IsVessel(v))
{
return;
}
// get most used resource handlers
Resource_info ec = resources.Info(v, "ElectricCharge");
// This is basically handled in cache. However, when accelerating time warp while
// the vessel is in shadow, the cache logic doesn't kick in soon enough. So we double-check here
if (TimeWarp.CurrentRate > 1000.0f || elapsed_s > 150) // we're time warping fast...
{
vi.highspeedWarp(v);
}
foreach (var e in Background_PMs(v))
{
switch (e.type)
{
case Module_type.Reliability: Reliability.BackgroundUpdate(v, e.p, e.m, e.module_prefab as Reliability); break;
case Module_type.Experiment: Experiment.BackgroundUpdate(v, e.m, e.module_prefab as Experiment, ec, resources, elapsed_s); break;
case Module_type.Greenhouse: Greenhouse.BackgroundUpdate(v, e.m, e.module_prefab as Greenhouse, vi, resources, elapsed_s); break;
case Module_type.GravityRing: GravityRing.BackgroundUpdate(v, e.p, e.m, e.module_prefab as GravityRing, ec, elapsed_s); break;
case Module_type.Emitter: Emitter.BackgroundUpdate(v, e.p, e.m, e.module_prefab as Emitter, ec, elapsed_s); break;
case Module_type.Harvester: Harvester.BackgroundUpdate(v, e.m, e.module_prefab as Harvester, elapsed_s); break; // Kerbalism ground and air harvester module
case Module_type.Laboratory: Laboratory.BackgroundUpdate(v, e.p, e.m, e.module_prefab as Laboratory, ec, elapsed_s); break;
case Module_type.Command: ProcessCommand(v, e.p, e.m, e.module_prefab as ModuleCommand, resources, elapsed_s); break;
case Module_type.Panel: ProcessPanel(v, e.p, e.m, e.module_prefab as ModuleDeployableSolarPanel, vi, ec, elapsed_s); break;
case Module_type.Generator: ProcessGenerator(v, e.p, e.m, e.module_prefab as ModuleGenerator, resources, elapsed_s); break;
case Module_type.Converter: ProcessConverter(v, e.p, e.m, e.module_prefab as ModuleResourceConverter, resources, elapsed_s); break;
case Module_type.Drill: ProcessDrill(v, e.p, e.m, e.module_prefab as ModuleResourceHarvester, resources, elapsed_s); break; // Stock ground harvester module
case Module_type.AsteroidDrill: ProcessAsteroidDrill(v, e.p, e.m, e.module_prefab as ModuleAsteroidDrill, resources, elapsed_s); break; // Stock asteroid harvester module
case Module_type.StockLab: ProcessStockLab(v, e.p, e.m, e.module_prefab as ModuleScienceConverter, ec, elapsed_s); break;
case Module_type.Light: ProcessLight(v, e.p, e.m, e.module_prefab as ModuleLight, ec, elapsed_s); break;
case Module_type.Scanner: KerbalismScansat.BackgroundUpdate(v, e.p, e.m, e.module_prefab as KerbalismScansat, e.part_prefab, vd, ec, elapsed_s); break;
case Module_type.CurvedPanel: ProcessCurvedPanel(v, e.p, e.m, e.module_prefab, e.part_prefab, vi, ec, elapsed_s); break;
case Module_type.FissionGenerator: ProcessFissionGenerator(v, e.p, e.m, e.module_prefab, ec, elapsed_s); break;
case Module_type.RadioisotopeGenerator: ProcessRadioisotopeGenerator(v, e.p, e.m, e.module_prefab, ec, elapsed_s); break;
case Module_type.CryoTank: ProcessCryoTank(v, e.p, e.m, e.module_prefab, resources, ec, elapsed_s); break;
case Module_type.FNGenerator: ProcessFNGenerator(v, e.p, e.m, e.module_prefab, ec, elapsed_s); break;
case Module_type.NonRechargeBattery: ProcessNonRechargeBattery(v, e.p, e.m, e.module_prefab, ec, elapsed_s); break;
case Module_type.KerbalismProcess: KerbalismProcess.BackgroundUpdate(v, e.m, e.module_prefab as KerbalismProcess, ec, resources, elapsed_s); break;
}
}
}
public vessel_info(Vessel v, uint vessel_id, UInt64 inc)
{
// NOTE: anything used here can't in turn use cache, unless you know what you are doing
// associate with an unique incremental id
this.inc = inc;
// determine if this is a valid vessel
is_vessel = Lib.IsVessel(v);
if (!is_vessel) return;
// determine if this is a resque mission vessel
is_resque = Lib.IsResqueMission(v);
if (is_resque) return;
// dead EVA are not valid vessels
if (v.isEVA && EVA.KerbalData(v).eva_dead) return;
// shortcut for common tests
is_valid = true;
// generate id once
id = vessel_id;
// calculate crew info for the vessel
crew_count = Lib.CrewCount(v);
crew_capacity = Lib.CrewCapacity(v);
// get vessel position once
position = Lib.VesselPosition(v);
// determine if in sunlight, calculate sun direction and distance
sunlight = Sim.RaytraceBody(v, position, FlightGlobals.Bodies[0], out sun_dir, out sun_dist) ? 1.0 : 0.0;
// if the orbit length vs simulation step is lower than an acceptable threshold, use discrete sun visibility
if (v.mainBody.flightGlobalsIndex != 0)
{
double orbit_period = Sim.OrbitalPeriod(v);
if (orbit_period / Kerbalism.elapsed_s < 16.0) sunlight = 1.0 - Sim.ShadowPeriod(v) / orbit_period;
}
// calculate environment stuff
atmo_factor = Sim.AtmosphereFactor(v.mainBody, position, sun_dir);
gamma_transparency = Sim.GammaTransparency(v.mainBody, v.altitude);
breathable = Sim.Breathable(v);
landed = Lib.Landed(v);
// calculate temperature at vessel position
temperature = Sim.Temperature(v, position, sunlight, atmo_factor, out solar_flux, out albedo_flux, out body_flux, out total_flux);
// calculate radiation
radiation = Radiation.Compute(v, position, gamma_transparency, sunlight, out blackout, out inside_pause, out inside_belt);
// calculate malfunction stuff
max_malfunction = Reliability.MaxMalfunction(v);
avg_quality = Reliability.AverageQuality(v);
// calculate signal info
antenna = new antenna_data(v);
avoid_inf_recursion.Add(v.id);
link = Signal.Link(v, position, antenna, blackout, avoid_inf_recursion);
avoid_inf_recursion.Remove(v.id);
// partial data about modules, used by vessel info/monitor
scrubbers = Scrubber.PartialData(v);
recyclers = Recycler.PartialData(v);
greenhouses = Greenhouse.PartialData(v);
// woot relativity
time_dilation = Sim.TimeDilation(v);
}
public static void update(Vessel v, vessel_info vi, vessel_data vd, vessel_resources resources, double elapsed_s)
{
// get most used resource handlers
resource_info ec = resources.Info(v, "ElectricCharge");
// for each part
foreach (ProtoPartSnapshot p in v.protoVessel.protoPartSnapshots)
{
// a part can contain multiple resource converters
int converter_index = 0;
// get part prefab (required for module properties)
Part part_prefab = PartLoader.getPartInfoByName(p.partName).partPrefab;
// for each module
foreach (ProtoPartModuleSnapshot m in p.modules)
{
// get the module prefab
PartModule module_prefab = Lib.FindModule(part_prefab, m.moduleName);
// if the prefab doesn't contain this module, skip it
if (!module_prefab)
{
continue;
}
// process modules
switch (m.moduleName)
{
case "Reliability": Reliability.BackgroundUpdate(v, m, module_prefab as Reliability, elapsed_s); break;
case "Scrubber": Scrubber.BackgroundUpdate(v, m, module_prefab as Scrubber, vi, resources, elapsed_s); break;
case "Recycler": Recycler.BackgroundUpdate(v, m, module_prefab as Recycler, resources, elapsed_s); break;
case "Greenhouse": Greenhouse.BackgroundUpdate(v, p, m, module_prefab as Greenhouse, vi, resources, elapsed_s); break;
case "GravityRing": GravityRing.BackgroundUpdate(v, p, m, module_prefab as GravityRing, resources, elapsed_s); break;
case "Emitter": Emitter.BackgroundUpdate(v, p, m, module_prefab as Emitter, ec, elapsed_s); break;
case "ModuleCommand": ProcessCommand(v, p, m, module_prefab as ModuleCommand, resources, elapsed_s); break;
case "ModuleDeployableSolarPanel": ProcessPanel(v, p, m, module_prefab as ModuleDeployableSolarPanel, vi, ec, elapsed_s); break;
case "ModuleGenerator": ProcessGenerator(v, p, m, module_prefab as ModuleGenerator, resources, elapsed_s); break;
case "ModuleResourceConverter":
case "ModuleKPBSConverter":
case "FissionReactor": ProcessConverter(v, p, m, part_prefab, converter_index++, resources, elapsed_s); break;
case "ModuleResourceHarvester": ProcessHarvester(v, p, m, module_prefab as ModuleResourceHarvester, resources, elapsed_s); break;
case "ModuleAsteroidDrill": ProcessAsteroidDrill(v, p, m, module_prefab as ModuleAsteroidDrill, resources, elapsed_s); break;
case "ModuleScienceConverter": ProcessLab(v, p, m, module_prefab as ModuleScienceConverter, ec, elapsed_s); break;
case "ModuleLight":
case "ModuleColoredLensLight":
case "ModuleMultiPointSurfaceLight": ProcessLight(v, p, m, module_prefab as ModuleLight, ec, elapsed_s); break;
case "SCANsat":
case "ModuleSCANresourceScanner": ProcessScanner(v, p, m, module_prefab, part_prefab, vd, ec, elapsed_s); break;
case "ModuleCurvedSolarPanel": ProcessCurvedPanel(v, p, m, module_prefab, part_prefab, vi, ec, elapsed_s); break;
case "FissionGenerator": ProcessFissionGenerator(v, p, m, module_prefab, ec, elapsed_s); break;
case "ModuleRadioisotopeGenerator": ProcessRadioisotopeGenerator(v, p, m, module_prefab, ec, elapsed_s); break;
case "ModuleCryoTank": ProcessCryoTank(v, p, m, module_prefab, resources, elapsed_s); break;
}
}
}
}
public vessel_info(Vessel v, uint vessel_id, UInt64 inc)
{
// NOTE: anything used here can't in turn use cache, unless you know what you are doing
// NOTE: you can't cache vessel position
// at any point in time all vessel/body positions are relative to a different frame of reference
// so comparing the current position of a vessel, with the cached one of another make no sense
// associate with an unique incremental id
this.inc = inc;
// determine if this is a valid vessel
is_vessel = Lib.IsVessel(v);
if (!is_vessel) return;
// determine if this is a rescue mission vessel
is_rescue = Misc.IsRescueMission(v);
if (is_rescue) return;
// dead EVA are not valid vessels
if (EVA.IsDead(v)) return;
// shortcut for common tests
is_valid = true;
// generate id once
id = vessel_id;
// calculate crew info for the vessel
crew_count = Lib.CrewCount(v);
crew_capacity = Lib.CrewCapacity(v);
// get vessel position
Vector3d position = Lib.VesselPosition(v);
// this should never happen again
if (Vector3d.Distance(position, v.mainBody.position) < 1.0)
{
throw new Exception("Shit hit the fan for vessel " + v.vesselName);
}
// determine if in sunlight, calculate sun direction and distance
sunlight = Sim.RaytraceBody(v, position, FlightGlobals.Bodies[0], out sun_dir, out sun_dist) ? 1.0 : 0.0;
// at the two highest timewarp speed, the number of sun visibility samples drop to the point that
// the quantization error first became noticeable, and then exceed 100%
// to solve this, we switch to an analytical estimation of the portion of orbit that was in sunlight
// - we check against timewarp rate, instead of index, to avoid issues during timewarp blending
if (v.mainBody.flightGlobalsIndex != 0 && TimeWarp.CurrentRate > 1000.0f)
{
sunlight = 1.0 - Sim.ShadowPeriod(v) / Sim.OrbitalPeriod(v);
}
// environment stuff
atmo_factor = Sim.AtmosphereFactor(v.mainBody, position, sun_dir);
gamma_transparency = Sim.GammaTransparency(v.mainBody, v.altitude);
underwater = Sim.Underwater(v);
breathable = Sim.Breathable(v, underwater);
landed = Lib.Landed(v);
// temperature at vessel position
temperature = Sim.Temperature(v, position, sunlight, atmo_factor, out solar_flux, out albedo_flux, out body_flux, out total_flux);
temp_diff = Sim.TempDiff(temperature, v.mainBody, landed);
// radiation
radiation = Radiation.Compute(v, position, gamma_transparency, sunlight, out blackout, out magnetosphere, out inner_belt, out outer_belt, out interstellar);
// extended atmosphere
thermosphere = Sim.InsideThermosphere(v);
exosphere = Sim.InsideExosphere(v);
// malfunction stuff
malfunction = Reliability.HasMalfunction(v);
critical = Reliability.HasCriticalFailure(v);
// signal info
antenna = new AntennaInfo(v);
avoid_inf_recursion.Add(v.id);
connection = Signal.connection(v, position, antenna, blackout, avoid_inf_recursion);
transmitting = Science.transmitting(v, connection.linked);
relaying = Signal.relaying(v, avoid_inf_recursion);
avoid_inf_recursion.Remove(v.id);
// habitat data
volume = Habitat.tot_volume(v);
surface = Habitat.tot_surface(v);
pressure = Habitat.pressure(v);
poisoning = Habitat.poisoning(v);
shielding = Habitat.shielding(v);
living_space = Habitat.living_space(v);
comforts = new Comforts(v, landed, crew_count > 1, connection.linked);
// data about greenhouses
greenhouses = Greenhouse.Greenhouses(v);
// other stuff
gravioli = Sim.Graviolis(v);
}
public static List <ReliabilityInfo> BuildList(Vessel vessel)
{
var result = new List <ReliabilityInfo>();
if (vessel.loaded)
{
foreach (var r in Lib.FindModules <Reliability>(vessel))
{
result.Add(new ReliabilityInfo(r));
}
}
else
{
var PD = new Dictionary <string, Lib.Module_prefab_data>();
foreach (ProtoPartSnapshot p in vessel.protoVessel.protoPartSnapshots)
{
// get part prefab (required for module properties)
Part part_prefab = PartLoader.getPartInfoByName(p.partName).partPrefab;
// get all module prefabs
var module_prefabs = part_prefab.FindModulesImplementing <PartModule>();
// clear module indexes
PD.Clear();
// for each module
foreach (ProtoPartModuleSnapshot m in p.modules)
{
if (m.moduleName != "Reliability")
{
continue;
}
Reliability module_prefab = Lib.ModulePrefab(module_prefabs, m.moduleName, PD) as Reliability;
if (!module_prefab)
{
continue;
}
// if the module is disabled, skip it
// note: this must be done after ModulePrefab is called, so that indexes are right
if (!Lib.Proto.GetBool(m, "isEnabled"))
{
continue;
}
result.Add(new ReliabilityInfo(p, m, module_prefab));
}
}
}
result.Sort((a, b) => {
if (a.group != b.group)
{
return(string.Compare(a.group, b.group, StringComparison.Ordinal));
}
return(string.Compare(a.title, b.title));
});
return(result);
}
public static void ProtoBreak(Vessel v, ProtoPartSnapshot p, ProtoPartModuleSnapshot m)
{
// get reliability module prefab
string type = Lib.Proto.GetString(m, "type", string.Empty);
Reliability reliability = p.partPrefab.FindModulesImplementing <Reliability>().Find(k => k.type == type);
if (reliability == null)
{
return;
}
// if manned, or if safemode didn't trigger
if (Cache.VesselInfo(v).crew_capacity > 0 || Lib.RandomDouble() > Settings.SafeModeChance)
{
// flag as broken
Lib.Proto.Set(m, "broken", true);
// determine if this is a critical failure
bool critical = Lib.RandomDouble() < Settings.CriticalChance;
Lib.Proto.Set(m, "critical", critical);
// for each associated module
foreach (var proto_module in p.modules.FindAll(k => k.moduleName == reliability.type))
{
// disable the module
Lib.Proto.Set(proto_module, "isEnabled", false);
}
// type-specific hacks
switch (reliability.type)
{
case "ProcessController":
foreach (ProcessController pc in p.partPrefab.FindModulesImplementing <ProcessController>())
{
ProtoPartResourceSnapshot res = p.resources.Find(k => k.resourceName == pc.resource);
if (res != null)
{
res.flowState = false;
}
}
break;
}
// show message
Broken_msg(v, reliability.title, critical);
}
// safe mode
else
{
// reset age
Lib.Proto.Set(m, "last", 0.0);
Lib.Proto.Set(m, "next", 0.0);
// notify user
Safemode_msg(v, reliability.title);
}
// in any case, incentive redundancy
if (Settings.IncentiveRedundancy)
{
Incentive_redundancy(v, reliability.redundancy);
}
}
public static void BackgroundUpdate(Vessel v, ProtoPartSnapshot p, ProtoPartModuleSnapshot m, Reliability reliability, double elapsed_s)
{
if (!PreferencesReliability.Instance.mtbfFailures)
{
return;
}
// check for existing malfunction and if it actually uses MTBF failures
if (Lib.Proto.GetBool(m, "broken"))
{
return;
}
if (reliability.mtbf <= 0)
{
return;
}
// get time of next failure
double next = Lib.Proto.GetDouble(m, "next");
bool quality = Lib.Proto.GetBool(m, "quality");
var now = Planetarium.GetUniversalTime();
// calculate epoch of failure if necessary
if (next <= 0)
{
var guaranteed = reliability.mtbf / 2.0;
var r = 1 - Math.Pow(Lib.RandomDouble(), 3);
next = now + guaranteed + reliability.mtbf * (quality ? Settings.QualityScale : 1.0) * r;
Lib.Proto.Set(m, "last", now);
Lib.Proto.Set(m, "next", next);
#if DEBUG_RELIABILITY
Lib.Log("Reliability: background MTBF failure in " + (now - next) + " for " + p);
#endif
}
var rad = v.KerbalismData().EnvRadiation;
var decay = RadiationDecay(quality, rad, elapsed_s, reliability.rated_radiation, reliability.radiation_decay_rate);
if (decay > 0)
{
next -= decay;
Lib.Proto.Set(m, "next", next);
}
// if it has failed, trigger malfunction
if (now > next)
{
#if DEBUG_RELIABILITY
Lib.Log("Reliablity: background MTBF failure for " + p);
#endif
ProtoBreak(v, p, m);
}
}
