public static crew_data analyze_crew(List<Part> parts)
{
// store data
crew_data crew = new crew_data();
// get number of kerbals assigned to the vessel in the editor
// note: crew manifest is not reset after root part is deleted
var cad = KSP.UI.CrewAssignmentDialog.Instance;
if (cad != null && cad.GetManifest() != null)
{
List<ProtoCrewMember> manifest = cad.GetManifest().GetAllCrew(false);
crew.count = (uint)manifest.Count;
crew.engineer = manifest.Find(k => k.trait == "Engineer") != null;
}
// scan the parts
foreach(Part p in parts)
{
// accumulate crew capacity
crew.capacity += (uint)p.CrewCapacity;
}
// return data
return crew;
}
void render_reliability(reliability_data reliability, crew_data crew)
{
render_title("RELIABILITY");
render_content("malfunctions", Lib.ValueOrNone(reliability.failure_year, "/y"), "per-component average case estimate");
render_content("redundancy", reliability.redundancy);
render_content("quality", Malfunction.QualityToString(reliability.quality), "manufacturing quality");
render_content("engineer", crew.engineer ? "yes" : "no");
render_space();
}
public static oxygen_data analyze_oxygen(List<Part> parts, environment_data env, crew_data crew)
{
// store data
oxygen_data oxygen = new oxygen_data();
// get scrubber efficiency
oxygen.scrubber_efficiency = Scrubber.DeduceEfficiency();
// calculate oxygen consumed
oxygen.consumed = !env.breathable ? (double)crew.count * Settings.OxygenPerSecond : 0.0;
// deduce co2 produced by the crew per-second
double simulated_co2 = oxygen.consumed;
// scan the parts
foreach(Part p in parts)
{
// accumulate food storage
oxygen.storage += Lib.GetResourceAmount(p, "Oxygen");
// for each module
foreach(PartModule m in p.Modules)
{
// scrubber
if (m.moduleName == "Scrubber")
{
Scrubber mm = (Scrubber)m;
// do nothing inside breathable atmosphere
if (mm.is_enabled && !env.breathable)
{
double co2_scrubbed = Math.Min(simulated_co2, mm.co2_rate);
if (co2_scrubbed > double.Epsilon)
{
oxygen.scrubber_cost += mm.ec_rate * (co2_scrubbed / mm.co2_rate);
oxygen.recycled += co2_scrubbed * oxygen.scrubber_efficiency;
simulated_co2 -= co2_scrubbed;
}
}
}
}
}
// calculate life expectancy
oxygen.life_expectancy = !env.breathable ? oxygen.storage / Math.Max(oxygen.consumed - oxygen.recycled, 0.0) : double.NaN;
// return data
return oxygen;
}
public static qol_data analyze_qol(List<Part> parts, environment_data env, crew_data crew, signal_data signal)
{
// store data
qol_data qol = new qol_data();
// scan the parts
foreach(Part p in parts)
{
// for each module
foreach(PartModule m in p.Modules)
{
// entertainment
if (m.moduleName == "Entertainment")
{
Entertainment mm = (Entertainment)m;
qol.entertainment *= mm.rate;
}
}
}
// calculate Quality-Of-Life bonus
// note: ignore kerbal-specific variance
if (crew.capacity > 0)
{
double bonus = QualityOfLife.Bonus(crew.count, crew.capacity, qol.entertainment, env.landed, signal.range > 0.0);
qol.living_space = QualityOfLife.LivingSpace(crew.count, crew.capacity);
qol.time_to_instability = bonus / Settings.StressedDegradationRate;
List<string> factors = new List<string>();
if (crew.count > 1) factors.Add("not-alone");
if (signal.range > 0.0) factors.Add("call-home");
if (env.landed) factors.Add("firm-ground");
if (factors.Count == 0) factors.Add("none");
qol.factors = String.Join(", ", factors.ToArray());
}
else
{
qol.living_space = 0.0;
qol.time_to_instability = double.NaN;
qol.factors = "none";
}
// return data
return qol;
}
void render_radiation(radiation_data radiation, environment_data env, crew_data crew)
{
string magnetosphere_str = Radiation.HasMagnetosphere(env.body) ? Lib.HumanReadableRange(Radiation.MagnAltitude(env.body)) : "none";
string belt_strength_str = Radiation.HasBelt(env.body) ? " (" + (Radiation.Dynamo(env.body) * Settings.BeltRadiation * (60.0 * 60.0)).ToString("F0") + " rad/h)" : "";
string belt_str = Radiation.HasBelt(env.body) ? Lib.HumanReadableRange(Radiation.BeltAltitude(env.body)) : "none";
string shield_str = Radiation.ShieldingToString(radiation.shielding_amount, radiation.shielding_capacity);
string shield_tooltip = radiation.shielding_capacity > 0 ? "average over the vessel" : "";
string life_str = Lib.HumanReadableDuration(radiation.life_expectancy[0]) + "</b> / <b>" + Lib.HumanReadableDuration(radiation.life_expectancy[1]);
string life_tooltip = "cosmic / storm";
if (Radiation.HasBelt(env.body))
{
life_str += "</b> / <b>" + Lib.HumanReadableDuration(radiation.life_expectancy[2]);
life_tooltip += " / belt";
}
render_title("RADIATION");
render_content("magnetosphere", magnetosphere_str, "protect from cosmic radiation");
render_content("radiation belt", belt_str, "abnormal radiation zone" + belt_strength_str);
render_content("shielding", shield_str, shield_tooltip);
render_content("life expectancy", crew.capacity > 0 ? life_str : "perpetual", crew.capacity > 0 ? life_tooltip : "");
render_space();
}
public void render()
{
// if there is something in the editor
if (EditorLogic.RootPart != null)
{
// store situations and altitude multipliers
string[] situations = {"Landed", "Low Orbit", "Orbit", "High Orbit"};
double[] altitude_mults = {0.0, 0.33, 1.0, 3.0};
// get body, situation and altitude multiplier
CelestialBody body = FlightGlobals.Bodies[body_index];
string situation = situations[situation_index];
double altitude_mult = altitude_mults[situation_index];
// get parts recursively
List<Part> parts = Lib.GetPartsRecursively(EditorLogic.RootPart);
// analyze
environment_data env = analyze_environment(body, altitude_mult);
crew_data crew = analyze_crew(parts);
food_data food = analyze_food(parts, env, crew);
oxygen_data oxygen = analyze_oxygen(parts, env, crew);
signal_data signal = analyze_signal(parts);
qol_data qol = analyze_qol(parts, env, crew, signal);
radiation_data radiation = analyze_radiation(parts, env, crew);
ec_data ec = analyze_ec(parts, env, crew, food, oxygen, signal);
reliability_data reliability = analyze_reliability(parts, ec, signal);
// render menu
GUILayout.BeginHorizontal(row_style);
if (GUILayout.Button(body.name, leftmenu_style)) { body_index = (body_index + 1) % FlightGlobals.Bodies.Count; if (body_index == 0) ++body_index; }
if (GUILayout.Button("["+ (page + 1) + "/2]", midmenu_style)) { page = (page + 1) % 2; }
if (GUILayout.Button(situation, rightmenu_style)) { situation_index = (situation_index + 1) % situations.Length; }
GUILayout.EndHorizontal();
// page 1/2
if (page == 0)
{
// render
render_ec(ec);
render_food(food);
render_oxygen(oxygen);
render_qol(qol);
}
// page 2/2
else
{
// render
render_radiation(radiation, env, crew);
render_reliability(reliability, crew);
render_signal(signal, env, crew);
render_environment(env);
}
}
// if there is nothing in the editor
else
{
// render quote
GUILayout.FlexibleSpace();
GUILayout.BeginHorizontal();
GUILayout.Label("<i>In preparing for space, I have always found that\nplans are useless but planning is indispensable.\nWernher von Kerman</i>", quote_style);
GUILayout.EndHorizontal();
GUILayout.Space(10.0f);
}
}
void render_signal(signal_data signal, environment_data env, crew_data crew)
{
// approximate min/max distance between home and target body
CelestialBody home = FlightGlobals.GetHomeBody();
double home_dist_min = 0.0;
double home_dist_max = 0.0;
if (env.body == home)
{
home_dist_min = env.altitude;
home_dist_max = env.altitude;
}
else if (env.body.referenceBody == home)
{
home_dist_min = Sim.Periapsis(env.body);
home_dist_max = Sim.Apoapsis(env.body);
}
else
{
double home_p = Sim.Periapsis(Lib.PlanetarySystem(home));
double home_a = Sim.Apoapsis(Lib.PlanetarySystem(home));
double body_p = Sim.Periapsis(Lib.PlanetarySystem(env.body));
double body_a = Sim.Apoapsis(Lib.PlanetarySystem(env.body));
home_dist_min = Math.Min(Math.Abs(home_a - body_p), Math.Abs(home_p - body_a));
home_dist_max = home_a + body_a;
}
// calculate if antenna is out of range from target body
string range_tooltip = "";
if (signal.range > double.Epsilon)
{
if (signal.range < home_dist_min) range_tooltip = "<color=#ff0000>out of range</color>";
else if (signal.range < home_dist_max) range_tooltip = "<color=#ffff00>partially out of range</color>";
else range_tooltip = "<color=#00ff00>in range</color>";
if (home_dist_max > double.Epsilon) //< if not landed at home
{
range_tooltip += "\nbody distance (min): <b>" + Lib.HumanReadableRange(home_dist_min) + "</b>"
+ "\nbody distance (max): <b>" + Lib.HumanReadableRange(home_dist_max) + "</b>";
}
}
else if (crew.capacity == 0) range_tooltip = "<color=#ff0000>no antenna on unmanned vessel</color>";
// calculate transmission cost
double cost = signal.range > double.Epsilon
? signal.transmission_cost_min + (signal.transmission_cost_max - signal.transmission_cost_min) * Math.Min(home_dist_max, signal.range) / signal.range
: 0.0;
string cost_str = signal.range > double.Epsilon ? cost.ToString("F1") + " EC/Mbit" : "none";
// generate ecc table
Func<double, double, double, string> deduce_color = (double range, double dist_min, double dist_max) =>
{
if (range < dist_min) return "<color=#ff0000>";
else if (range < dist_max) return "<color=#ffff00>";
else return "<color=#ffffff>";
};
double signal_100 = signal.range / signal.ecc;
double signal_15 = signal_100 * 0.15;
double signal_33 = signal_100 * 0.33;
double signal_66 = signal_100 * 0.66;
string ecc_tooltip = signal.range > double.Epsilon
? "<align=left /><b>ecc</b>\t<b>range</b>"
+ "\n15%\t" + deduce_color(signal_15, home_dist_min, home_dist_max) + Lib.HumanReadableRange(signal_15) + "</color>"
+ "\n33%\t" + deduce_color(signal_33, home_dist_min, home_dist_max) + Lib.HumanReadableRange(signal_33) + "</color>"
+ "\n66%\t" + deduce_color(signal_66, home_dist_min, home_dist_max) + Lib.HumanReadableRange(signal_66) + "</color>"
+ "\n100%\t" + deduce_color(signal_100,home_dist_min, home_dist_max) + Lib.HumanReadableRange(signal_100) + "</color>"
: "";
render_title("SIGNAL");
render_content("range", Lib.HumanReadableRange(signal.range), range_tooltip);
render_content("relay", signal.relay_range <= double.Epsilon ? "none" : signal.relay_range < signal.range ? Lib.HumanReadableRange(signal.relay_range) : "yes");
render_content("transmission", cost_str, "worst case data transmission cost\nfrom destination body");
render_content("error correction", (signal.ecc * 100.0).ToString("F0") + "%", ecc_tooltip);
render_space();
}
public static radiation_data analyze_radiation(List<Part> parts, environment_data env, crew_data crew)
{
// store data
radiation_data radiation = new radiation_data();
// scan the parts
foreach(Part p in parts)
{
// accumulate shielding amount and capacity
radiation.shielding_amount += Lib.GetResourceAmount(p, "Shielding");
radiation.shielding_capacity += Lib.GetResourceCapacity(p, "Shielding");
}
// calculate radiation data
double shielding = Radiation.Shielding(radiation.shielding_amount, radiation.shielding_capacity);
double belt_strength = Settings.BeltRadiation * Radiation.Dynamo(env.body) * 0.5; //< account for the 'ramp'
if (crew.capacity > 0)
{
radiation.life_expectancy = new double[]
{
Settings.RadiationFatalThreshold / (Settings.CosmicRadiation * (1.0 - shielding)),
Settings.RadiationFatalThreshold / (Settings.StormRadiation * (1.0 - shielding)),
Radiation.HasBelt(env.body) ? Settings.RadiationFatalThreshold / (belt_strength * (1.0 - shielding)) : double.NaN
};
}
else
{
radiation.life_expectancy = new double[]{double.NaN, double.NaN, double.NaN};
}
// return data
return radiation;
}
public static food_data analyze_food(List<Part> parts, environment_data env, crew_data crew)
{
// store data
food_data food = new food_data();
// calculate food consumed
food.consumed = (double)crew.count * Settings.FoodPerMeal / Settings.MealFrequency;
// deduce waste produced by the crew per-second
double simulated_waste = food.consumed;
// scan the parts
foreach(Part p in parts)
{
// accumulate food storage
food.storage += Lib.GetResourceAmount(p, "Food");
// for each module
foreach(PartModule m in p.Modules)
{
// greenhouse
if (m.moduleName == "Greenhouse")
{
Greenhouse mm = (Greenhouse)m;
// calculate natural lighting
double natural_lighting = Greenhouse.NaturalLighting(env.sun_dist);
// calculate ec consumed
food.greenhouse_cost += mm.ec_rate * mm.lamps;
// calculate lighting
double lighting = natural_lighting * (mm.door_opened ? 1.0 : 0.0) + mm.lamps * (mm.door_opened ? 1.0 : 1.0 + Settings.GreenhouseDoorBonus);
// calculate waste used
double waste_used = Math.Min(simulated_waste, mm.waste_rate);
double waste_perc = waste_used / mm.waste_rate;
simulated_waste -= waste_used;
// calculate growth bonus
double growth_bonus = 0.0;
growth_bonus += Settings.GreenhouseSoilBonus * (env.landed ? 1.0 : 0.0);
growth_bonus += Settings.GreenhouseWasteBonus * waste_perc;
// calculate growth factor
double growth_factor = (mm.growth_rate * (1.0 + growth_bonus)) * lighting;
// calculate food cultivated
food.cultivated += mm.harvest_size * growth_factor;
// calculate time-to-harvest
if (growth_factor > double.Epsilon)
{
food.cultivated_tooltip += (food.cultivated_tooltip.Length > 0 ? "\n" : "")
+ "Time-to-harvest: <b>" + Lib.HumanReadableDuration(1.0 / growth_factor) + "</b>";
}
}
}
}
// calculate life expectancy
food.life_expectancy = food.storage / Math.Max(food.consumed - food.cultivated, 0.0);
// add formatting to tooltip
if (food.cultivated_tooltip.Length > 0) food.cultivated_tooltip = "<i>" + food.cultivated_tooltip + "</i>";
// return data
return food;
}
public static ec_data analyze_ec(List<Part> parts, environment_data env, crew_data crew, food_data food, oxygen_data oxygen, signal_data signal)
{
// store data
ec_data ec = new ec_data();
// calculate climate cost
ec.consumed = (double)crew.count * env.temp_diff * Settings.ElectricChargePerSecond;
// scan the parts
foreach(Part p in parts)
{
// accumulate EC storage
ec.storage += Lib.GetResourceAmount(p, "ElectricCharge");
// remember if we already considered a resource converter module
// rationale: we assume only the first module in a converter is active
bool first_converter = true;
// for each module
foreach(PartModule m in p.Modules)
{
// command
if (m.moduleName == "ModuleCommand")
{
ModuleCommand mm = (ModuleCommand)m;
foreach(ModuleResource res in mm.inputResources)
{
if (res.name == "ElectricCharge")
{
ec.consumed += res.rate;
}
}
}
// solar panel
else if (m.moduleName == "ModuleDeployableSolarPanel")
{
ModuleDeployableSolarPanel mm = (ModuleDeployableSolarPanel)m;
double solar_k = (mm.useCurve ? mm.powerCurve.Evaluate((float)env.sun_dist) : env.sun_flux / Sim.SolarFluxAtHome());
double generated = mm.chargeRate * solar_k * env.atmo_factor;
ec.generated_sunlight += generated;
ec.best_ec_generator = Math.Max(ec.best_ec_generator, generated);
}
// generator
else if (m.moduleName == "ModuleGenerator")
{
// skip launch clamps, that include a generator
if (p.partInfo.name == "launchClamp1") continue;
ModuleGenerator mm = (ModuleGenerator)m;
foreach(ModuleResource res in mm.inputList)
{
if (res.name == "ElectricCharge")
{
ec.consumed += res.rate;
}
}
foreach(ModuleResource res in mm.outputList)
{
if (res.name == "ElectricCharge")
{
ec.generated_shadow += res.rate;
ec.generated_sunlight += res.rate;
ec.best_ec_generator = Math.Max(ec.best_ec_generator, res.rate);
}
}
}
// converter
// note: only electric charge is considered for resource converters
// note: we only consider the first resource converter in a part, and ignore the rest
else if (m.moduleName == "ModuleResourceConverter" && first_converter)
{
ModuleResourceConverter mm = (ModuleResourceConverter)m;
foreach(ResourceRatio rr in mm.inputList)
{
if (rr.ResourceName == "ElectricCharge")
{
ec.consumed += rr.Ratio;
}
}
foreach(ResourceRatio rr in mm.outputList)
{
if (rr.ResourceName == "ElectricCharge")
{
ec.generated_shadow += rr.Ratio;
ec.generated_sunlight += rr.Ratio;
ec.best_ec_generator = Math.Max(ec.best_ec_generator, rr.Ratio);
}
}
first_converter = false;
}
// harvester
// note: only electric charge is considered for resource harvesters
else if (m.moduleName == "ModuleResourceHarvester")
{
ModuleResourceHarvester mm = (ModuleResourceHarvester)m;
foreach(ResourceRatio rr in mm.inputList)
{
if (rr.ResourceName == "ElectricCharge")
{
ec.consumed += rr.Ratio;
}
}
}
// active radiators
else if (m.moduleName == "ModuleActiveRadiator")
{
ModuleActiveRadiator mm = (ModuleActiveRadiator)m;
if (mm.IsCooling)
{
foreach(var rr in mm.inputResources)
{
if (rr.name == "ElectricCharge")
{
ec.consumed += rr.rate;
}
}
}
}
// wheels
else if (m.moduleName == "ModuleWheelMotor")
{
ModuleWheelMotor mm = (ModuleWheelMotor)m;
if (mm.motorEnabled && mm.inputResource.name == "ElectricCharge")
{
ec.consumed += mm.inputResource.rate;
}
}
else if (m.moduleName == "ModuleWheelMotorSteering")
{
ModuleWheelMotorSteering mm = (ModuleWheelMotorSteering)m;
if (mm.motorEnabled && mm.inputResource.name == "ElectricCharge")
{
ec.consumed += mm.inputResource.rate;
}
}
// SCANsat support
else if (m.moduleName == "SCANsat" || m.moduleName == "ModuleSCANresourceScanner")
{
// include it in ec consumption, if deployed
if (SCANsat.isDeployed(p, m)) ec.consumed += Lib.ReflectionValue<float>(m, "power");
}
// NearFutureSolar support
// note: assume half the components are in sunlight, and average inclination is half
else if (m.moduleName == "ModuleCurvedSolarPanel")
{
// get total rate
double tot_rate = Lib.ReflectionValue<float>(m, "TotalEnergyRate");
// get number of components
int components = p.FindModelTransforms(Lib.ReflectionValue<string>(m, "PanelTransformName")).Length;
// approximate output
// 0.7071: average clamped cosine
ec.generated_sunlight += 0.7071 * tot_rate;
}
}
}
// include cost from greenhouses artificial lighting
ec.consumed += food.greenhouse_cost;
// include cost from scrubbers
ec.consumed += oxygen.scrubber_cost;
// include relay cost for the best relay antenna
ec.consumed += signal.relay_cost;
// finally, calculate life expectancy of ec
ec.life_expectancy_sunlight = ec.storage / Math.Max(ec.consumed - ec.generated_sunlight, 0.0);
ec.life_expectancy_shadow = ec.storage / Math.Max(ec.consumed - ec.generated_shadow, 0.0);
// return data
return ec;
}