/// <summary>
/// soft filter: run on ALL vessels that pass the hard filter (CouldBeCandidate),
/// determine if the vessel currently meets the condition (i.e. currently over location or not)
/// </summary>
/// <param name="label">label to add to this vessel in the status display</param>
private bool VesselMeetsCondition(Vessel vessel, bool doUpdateLabel, out string label)
{
label = string.Empty;
bool result = true;
if (!allowUnpowered)
{
var powered = API.ResourceAmount(vessel, "ElectricCharge") > 0.01;
if (!powered)
{
if (doUpdateLabel)
{
label = Lib.Color("No Electricity", Lib.Kolor.Red);
}
return(false);
}
}
foreach (var sp in subRequirementParameters)
{
if (sp.subRequirement == null)
{
continue;
}
var state = sp.subRequirement.VesselMeetsCondition(vessel, context);
result &= state.requirementMet;
if (doUpdateLabel)
{
var vesselLabel = sp.subRequirement.GetLabel(vessel, context, state);
if (!string.IsNullOrEmpty(vesselLabel))
{
if (string.IsNullOrEmpty(label))
{
label = " - " + vesselLabel;
}
else
{
label += "\n - " + vesselLabel;
}
}
}
}
return(result);
}
internal override bool VesselsMeetCondition(List <Vessel> vessels, EvaluationContext context, out string statusLabel)
{
if (minSurface == 0 || Â vessels.Count == 0)
{
statusLabel = string.Empty;
return(vessels.Count > 0);
}
Vector3d bodyPosition = context.BodyPosition(context.targetBody);
double visible = 100.0 * BodySurfaceObservation.VisibleSurface(vessels, context, bodyPosition, minElevation, Surfaces());
string observedPercStr = Lib.HumanReadablePerc(visible / 100.0) + " / " + Lib.HumanReadablePerc(minSurface / 100.0);
observedPercStr = Lib.Color(observedPercStr, visible > minSurface ? Lib.Kolor.Green : Lib.Kolor.Red);
statusLabel = Localizer.Format("#KerCon_XofSurfaceObserved", observedPercStr);
return(visible > minSurface);
}
internal override bool VesselsMeetCondition(List <Vessel> vessels, EvaluationContext context, out string statusLabel)
{
if (minSurface == 0 || Â vessels.Count == 0)
{
statusLabel = string.Empty;
return(vessels.Count > 0);
}
double visible;
double R = context.targetBody.Radius;
if (vessels.Count == 1)
{
Vessel vessel = vessels[0];
double a = context.Altitude(vessel, context.targetBody);
visible = 100.0 * a / (2 * (a + R));
}
else
{
ResetVisibleSurfaces();
Vector3d bodyPosition = context.BodyPosition(context.targetBody);
foreach (Vessel v in vessels)
{
Vector3d vesselPosition = context.VesselPosition(v);
Vector3d viewDirection = (vesselPosition - bodyPosition);
double a = R;
double b = R + context.Altitude(v, context.targetBody);
double c = Math.Sqrt(a * a + b * b);
double α = Math.Asin(b / c) * 180.0 / Math.PI;
MarkVisibleSurfaces(viewDirection.normalized, α);
}
visible = 100.0 * visibleSurfaces / (double)surfaces.Count;
}
string observedPercStr = Lib.HumanReadablePerc(visible / 100.0) + " / " + Lib.HumanReadablePerc(minSurface / 100.0);
observedPercStr = Lib.Color(observedPercStr, visible > minSurface ? Lib.Kolor.Green : Lib.Kolor.Red);
statusLabel = Localizer.Format("<<1>> of surface observed", observedPercStr);
return(visible > minSurface);
}
private static void ShowMessage(CelestialBody body, bool wasVisible, bool visible, RadiationFieldType field)
{
if (visible && !wasVisible)
{
StringBuilder sb = new StringBuilder(256);
string message = Localizer.Format("#KerCon_FieldXofYresearched", // <<1>>: <<2>> researched
Lib.Bold(body.bodyName), Lib.Color(RadiationField.Name(field), Lib.Kolor.Science));
sb.Append(message);
sb.Append("\n\n");
sb.Append(Localizer.Format("#KerCon_FieldResearchedMessage"));
var bd = Instance.BodyData(body);
API.Message(sb.ToString());
MessageSystem.Message m = new MessageSystem.Message("#KerCon_FieldResearched", sb.ToString(), MessageSystemButton.MessageButtonColor.GREEN, MessageSystemButton.ButtonIcons.ACHIEVE);
MessageSystem.Instance.AddMessage(m);
}
}
///<summary> Add habitat sub-panel, including tooltips </summary>
private static void AddSubPanelHabitat(Panel p)
{
SimulatedResource atmo_res = resource_sim.Resource("Atmosphere");
SimulatedResource waste_res = resource_sim.Resource("WasteAtmosphere");
// generate tooltips
string atmo_tooltip = atmo_res.Tooltip();
string waste_tooltip = waste_res.Tooltip(true);
// generate status string for scrubbing
string waste_status = !Features.Poisoning //< feature disabled
? "n/a"
: waste_res.produced <= double.Epsilon //< unnecessary
? Local.Planner_scrubbingunnecessary //"not required"
: waste_res.consumed <= double.Epsilon //< no scrubbing
? Lib.Color(Local.Planner_noscrubbing, Lib.Kolor.Orange) //"none"
: waste_res.produced > waste_res.consumed * 1.001 //< insufficient scrubbing
? Lib.Color(Local.Planner_insufficientscrubbing, Lib.Kolor.Yellow) //"inadequate"
: Lib.Color(Local.Planner_sufficientscrubbing, Lib.Kolor.Green); //"good" //< sufficient scrubbing
// generate status string for pressurization
string atmo_status = !Features.Pressure //< feature disabled
? "n/a"
: atmo_res.consumed <= double.Epsilon //< unnecessary
? Local.Planner_pressurizationunnecessary //"not required"
: atmo_res.produced <= double.Epsilon //< no pressure control
? Lib.Color(Local.Planner_nopressurecontrol, Lib.Kolor.Orange) //"none"
: atmo_res.consumed > atmo_res.produced * 1.001 //< insufficient pressure control
? Lib.Color(Local.Planner_insufficientpressurecontrol, Lib.Kolor.Yellow) //"inadequate"
: Lib.Color(Local.Planner_sufficientpressurecontrol, Lib.Kolor.Green); //"good" //< sufficient pressure control
p.AddSection(Local.Planner_HABITAT, string.Empty, //"HABITAT"
() => { p.Prev(ref environment_index, panel_environment.Count); enforceUpdate = true; },
() => { p.Next(ref environment_index, panel_environment.Count); enforceUpdate = true; });
p.AddContent(Local.Planner_volume, Lib.HumanReadableVolume(vessel_analyzer.volume), Local.Planner_volume_tip); //"volume""volume of enabled habitats"
p.AddContent(Local.Planner_habitatssurface, Lib.HumanReadableSurface(vessel_analyzer.surface), Local.Planner_habitatssurface_tip); //"surface""surface of enabled habitats"
p.AddContent(Local.Planner_scrubbing, waste_status, waste_tooltip); //"scrubbing"
p.AddContent(Local.Planner_pressurization, atmo_status, atmo_tooltip); //"pressurization"
}
private static void RunningUpdate(Vessel v, VesselData vd, EquipmentData ed, ModuleKsmContractEquipment prefab, double elapsed_s)
{
double connectionRate = API.VesselConnectionRate(v);
ed.state = GetState(v, vd, ed, prefab, connectionRate);
bool running = ed.state == EquipmentState.nominal;
if (running)
{
vd.ResHandler.ElectricCharge.Consume(prefab.RequiredEC * elapsed_s, EquipmentBroker);
}
KerbalismContracts.EquipmentStates.Update(v, prefab.id, ed.state);
if (ed.loadedModule != null)
{
ed.loadedModule.UIState = Lib.BuildString("EC: ", Lib.HumanReadableRate(prefab.RequiredEC));
if (prefab.RequiredBandwidth > 0)
{
var color = Lib.Kolor.Green;
var rate = connectionRate / prefab.RequiredBandwidth;
if (rate <= 1.0)
{
color = Lib.Kolor.Red;
}
else if (rate <= 1.2)
{
color = Lib.Kolor.Orange;
}
ed.loadedModule.UIState += Lib.BuildString(", ",
Localizer.Format("#KerCon_DataRate", Lib.HumanReadableRate(prefab.RequiredBandwidth), Lib.Color(Lib.HumanReadableRate(connectionRate), color)));
}
}
}
protected override string GetTitle()
{
string result = "";
double now = Planetarium.GetUniversalTime();
string remainingStr = durationType == DurationType.countdown
? DurationUtil.StringValue(Math.Max(0, doneAfter - now))
: DurationUtil.StringValue(Math.Max(0, duration - accumulatedDuration));
switch (durationState)
{
case DurationState.off:
result = Localizer.Format("Duration: <<1>>", DurationUtil.StringValue(duration));
if (waitDuration > 0)
{
result += "\n\t - " + Localizer.Format("Time starts <<1>> after accepting the contract",
Lib.Color(DurationUtil.StringValue(waitDuration), Lib.Kolor.Yellow));
}
if (allowedDowntime > 0)
{
result += "\n\t - " + Localizer.Format("Allows interruptions up to <<1>>",
DurationUtil.StringValue(allowedDowntime));
}
else
{
result += "\n\t - " + "Does not allow interruptions";
}
if (!allowReset)
{
result += "\n\t - " + Lib.Color("Will fail if interrupted beyond allowance", Lib.Kolor.Orange);
}
break;
case DurationState.preRun:
result = Localizer.Format("Duration: <<1>>", DurationUtil.StringValue(duration));
result += "\n\t - " + Localizer.Format("Time starts in <<1>>",
Lib.Color(DurationUtil.StringValue(Math.Max(0, startAfter - now)), Lib.Kolor.Yellow));
if (allowedDowntime > 0)
{
result += "\n\t - " + Localizer.Format("Allows interruptions up to <<1>>",
DurationUtil.StringValue(allowedDowntime));
}
break;
case DurationState.running:
result = Localizer.Format("Remaining: <<1>>", Lib.Color(remainingStr, Lib.Kolor.Green));
if (allowedDowntime > 0)
{
result += "\n\t - " + Localizer.Format("Allows interruptions up to <<1>>",
DurationUtil.StringValue(allowedDowntime));
}
break;
case DurationState.preReset:
result = Localizer.Format("Remaining: <<1>> (stop in: <<2>>)", Lib.Color(remainingStr, Lib.Kolor.Green),
Lib.Color(DurationUtil.StringValue(Math.Max(0, failAfter - now)), allowReset ? Lib.Kolor.Yellow : Lib.Kolor.Red));
break;
case DurationState.done:
result = "Done!";
break;
case DurationState.failed:
result = "Time is up!";
break;
}
titleTracker.Add(result);
if (lastTitle != result && Root != null && (Root.ContractState == Contract.State.Active || Root.ContractState == Contract.State.Failed))
{
titleTracker.UpdateContractWindow(result);
lastTitle = result;
}
return(result);
}
///<summary> Add reliability sub-panel, including tooltips </summary>
private static void AddSubPanelReliability(Panel p)
{
// evaluate redundancy metric
// - 0: no redundancy
// - 0.5: all groups have 2 elements
// - 1.0: all groups have 3 or more elements
double redundancy_metric = 0.0;
foreach (KeyValuePair <string, int> pair in vessel_analyzer.redundancy)
{
switch (pair.Value)
{
case 1:
break;
case 2:
redundancy_metric += 0.5 / vessel_analyzer.redundancy.Count;
break;
default:
redundancy_metric += 1.0 / vessel_analyzer.redundancy.Count;
break;
}
}
// traduce the redundancy metric to string
string redundancy_str = string.Empty;
if (redundancy_metric <= 0.1)
{
redundancy_str = Local.Planner_none; //"none"
}
else if (redundancy_metric <= 0.33)
{
redundancy_str = Local.Planner_poor; //"poor"
}
else if (redundancy_metric <= 0.66)
{
redundancy_str = Local.Planner_okay; //"okay"
}
else
{
redundancy_str = Local.Planner_great; //"great"
}
// generate redundancy tooltip
string redundancy_tooltip = string.Empty;
if (vessel_analyzer.redundancy.Count > 0)
{
StringBuilder sb = new StringBuilder();
foreach (KeyValuePair <string, int> pair in vessel_analyzer.redundancy)
{
if (sb.Length > 0)
{
sb.Append("\n");
}
sb.Append(Lib.Color(pair.Value.ToString(), pair.Value == 1 ? Lib.Kolor.Red : pair.Value == 2 ? Lib.Kolor.Yellow : Lib.Kolor.Green, true));
sb.Append("\t");
sb.Append(pair.Key);
}
redundancy_tooltip = Lib.BuildString("<align=left />", sb.ToString());
}
// generate repair string and tooltip
string repair_str = Local.Planner_none; //"none"
string repair_tooltip = string.Empty;
if (vessel_analyzer.crew_engineer)
{
repair_str = "engineer";
repair_tooltip = Local.Planner_engineer_tip; //"The engineer on board should\nbe able to handle all repairs"
}
else if (vessel_analyzer.crew_capacity == 0)
{
repair_str = "safemode";
repair_tooltip = Local.Planner_safemode_tip; //"We have a chance of repairing\nsome of the malfunctions remotely"
}
// render panel
p.AddSection(Local.Planner_RELIABILITY, string.Empty, //"RELIABILITY"
() => { p.Prev(ref special_index, panel_special.Count); enforceUpdate = true; },
() => { p.Next(ref special_index, panel_special.Count); enforceUpdate = true; });
p.AddContent(Local.Planner_malfunctions, Lib.HumanReadableAmount(vessel_analyzer.failure_year, "/y"), Local.Planner_malfunctions_tip); //"malfunctions""average case estimate\nfor the whole vessel"
p.AddContent(Local.Planner_highquality, Lib.HumanReadablePerc(vessel_analyzer.high_quality), Local.Planner_highquality_tip); //"high quality""percentage of high quality components"
p.AddContent(Local.Planner_redundancy, redundancy_str, redundancy_tooltip); //"redundancy"
p.AddContent(Local.Planner_repair, repair_str, repair_tooltip); //"repair"
}
/// <summary>
/// Shows the Network status, ControlPath, Signal strength
/// </summary>
public static void ConnMan(this Panel p, Vessel v)
{
// avoid corner-case when this is called in a lambda after scene changes
v = FlightGlobals.FindVessel(v.id);
// if vessel doesn't exist anymore, leave the panel empty
if (v == null)
{
return;
}
VesselData vd = v.KerbalismData();
// if not a valid vessel, leave the panel empty
if (!vd.IsSimulated)
{
return;
}
// set metadata
p.Title(Lib.BuildString(Lib.Ellipsis(v.vesselName, Styles.ScaleStringLength(40)), " ", Lib.Color("CONNECTION MANAGER", Lib.Kolor.LightGrey)));
p.Width(Styles.ScaleWidthFloat(365.0f));
p.paneltype = Panel.PanelType.connection;
// time-out simulation
if (!Lib.IsControlUnit(v) && p.Timeout(vd))
{
return;
}
// draw ControlPath section
p.AddSection("CONTROL PATH");
if (vd.Connection.linked)
{
if (vd.Connection.control_path != null)
{
foreach (string[] hop in vd.Connection.control_path)
{
if (hop == null || hop.Length < 1)
{
continue;
}
string name = hop[0];
string value = hop.Length >= 2 ? hop[1] : "";
string tooltip = hop.Length >= 3 ? ("\n" + hop[2]) : "";
p.AddContent(name, value, tooltip);
}
}
}
else
{
p.AddContent("<i>no connection</i>", string.Empty);
}
}
protected override string GetTitle()
{
InitStrings();
string result = "";
double now = Planetarium.GetUniversalTime();
string remainingStr = durationType == DurationType.countdown
? DurationUtil.StringValue(Math.Max(0, doneAfter - now))
: DurationUtil.StringValue(Math.Max(0, duration - accumulatedDuration));
switch (durationState)
{
case DurationState.off:
result = KerCon_Duration_X; // Duration: <<1>>
if (waitDuration > 0)
{
result += "\n\t - " + KerCon_TimeStartsAfterAccepting;
}
if (allowedDowntime > 0)
{
result += "\n\t - " + KerCon_AllowsInterruptionsUpTo;
}
else if (durationType == DurationType.accumulating)
{
result += "\n\t - " + KerCon_AccumulatingDuration;
}
else
{
result += "\n\t - " + KerCon_DoesNotAllowInterruptions; // Does not allow interruptions
}
if (!allowReset)
{
result += "\n\t - " + KerCon_WillFailIfInterrupted; // Will fail if interrupted beyond allowance
}
break;
case DurationState.preRun:
result = KerCon_Duration_X; // Duration: <<1>>
result += "\n\t - " + Localizer.Format("#KerCon_TimeStartsIn", // Time starts in <<1>>
Lib.Color(DurationUtil.StringValue(Math.Max(0, startAfter - now)), Lib.Kolor.Yellow));
if (allowedDowntime > 0)
{
result += "\n\t - " + KerCon_AllowsInterruptionsUpTo;
}
break;
case DurationState.running:
result = Localizer.Format("#KerCon_Reamining_X", Lib.Color(remainingStr, Lib.Kolor.Green)); // Remaining: <<1>>
//if (allowedDowntime > 0)
// result += "\n\t - " + Localizer.Format("#KerCon_AllowsInterruptionsUpTo", // Allows interruptions up to <<1>>
// DurationUtil.StringValue(allowedDowntime));
break;
case DurationState.preReset:
result = Localizer.Format("#KerCon_Reamining_X_stopIn_Y", Lib.Color(remainingStr, Lib.Kolor.Green), // Remaining: <<1>> (stop in: <<2>>)
Lib.Color(DurationUtil.StringValue(Math.Max(0, failAfter - now)), allowReset ? Lib.Kolor.Yellow : Lib.Kolor.Red));
break;
case DurationState.done:
result = "#autoLOC_135144"; // Success!!
break;
case DurationState.failed:
result = "#KerCon_TimeIsUp"; // Time is up!
break;
}
if (result.StartsWith("#"))
{
result = Localizer.Format(result);
}
titleTracker.Add(result);
if (lastTitle != result && Root != null && (Root.ContractState == Contract.State.Active || Root.ContractState == Contract.State.Failed))
{
titleTracker.UpdateContractWindow(result);
lastTitle = result;
}
return(result);
}
internal override string GetLabel(Vessel vessel, EvaluationContext context, SubRequirementState state)
{
ExperimentRunningState runningState = (ExperimentRunningState)state;
string label = runningState.experimentState == ExperimentState.running ? Lib.Color(Local.Generic_RUNNING, Lib.Kolor.Green) : Lib.Color(Local.Generic_STOPPED, Lib.Kolor.Red);
if (!string.IsNullOrEmpty(shortDescription))
{
label = shortDescription + ": " + label;
}
return(label);
}
protected override void OnUpdate()
{
base.OnUpdate();
if (ParameterCount == 0)
{
return;
}
if (state != ParameterState.Incomplete)
{
return;
}
if (!KerbalismContractsMain.KerbalismInitialized)
{
return;
}
if (lastUpdate == 0)
{
lastUpdate = Planetarium.GetUniversalTime();
return;
}
bool childParameterChanged = false;
if (subRequirementParameters.Count == 0)
{
childParameterChanged = true;
CreateSubParameters();
}
var lastUpdateAge = Planetarium.GetUniversalTime() - lastUpdate;
if (lastUpdateAge < 1.0)
{
return;
}
lastUpdate = Planetarium.GetUniversalTime();
vessels.Clear();
context = CreateContext(lastUpdateAge);
foreach (var sp in subRequirementParameters)
{
sp.ResetContext(context);
}
foreach (Vessel vessel in FlightGlobals.Vessels)
{
if (!Utils.IsVessel(vessel))
{
continue;
}
if (!CouldBeCandidate(vessel))
{
continue;
}
if (arguments.requireElectricity && !API.IsPowered(vessel))
{
if (!hideChildren)
{
childParameterChanged |= UpdateVesselStatus(vessel, Lib.Color("#KerCon_NoEC", Lib.Kolor.Red), false); // No EC
}
continue;
}
if (arguments.requireCommunication && !API.VesselConnectionLinked(vessel))
{
if (!hideChildren)
{
childParameterChanged |= UpdateVesselStatus(vessel, Lib.Color("#KerCon_NoComms", Lib.Kolor.Red), false); // No Comms
}
continue;
}
vessels.Add(vessel);
}
if (!hideChildren)
{
foreach (var vsp in vesselStatusParameters)
{
vsp.obsolete = true;
}
}
List <Vessel> vesselsMeetingCondition = new List <Vessel>();
int stepCount = context.steps.Count;
for (int i = 0; i < stepCount; i++)
{
var now = context.steps[i];
context.SetTime(now);
vesselsMeetingCondition.Clear();
bool doLabelUpdate = !hideChildren && i + 1 == stepCount;
foreach (Vessel vessel in vessels)
{
// Note considering early termination for performance gains:
// If we already know that we have enough vessels to satisfy
// our requirement, and if we don't have to update labels,
// then we don't need to test all vessels. However, this
// doesn't work when we have complex requirements that need
// to consider multiple vessels at once (like body surface
// observation percentage). We could change the implementation
// to continuously integrate one vessel at a time into the
// multi-vessel test and abort as soon as that one is satisfied,
// but if that also calculates a number visible to the user
// (like percentage of surface observed), that number would
// be wrong. So we need to test all vessels, all the time.
// if (!doLabelUpdate && vesselsMeetingCondition.Count >= minVessels)
// break;
string statusLabel;
bool conditionMet = VesselMeetsCondition(vessel, doLabelUpdate, out statusLabel);
if (conditionMet)
{
vesselsMeetingCondition.Add(vessel);
}
if (doLabelUpdate)
{
childParameterChanged |= UpdateVesselStatus(vessel, statusLabel, conditionMet);
}
}
bool allConditionsMet = vesselsMeetingCondition.Count >= arguments.minVessels;
allConditionsMet &= VesselsMeetCondition(vesselsMeetingCondition);
if (durationParameter == null)
{
SetState(allConditionsMet ? ParameterState.Complete : ParameterState.Incomplete);
}
else
{
durationParameter.Update(allConditionsMet, now);
SetState(durationParameter.State);
}
if (state == ParameterState.Complete)
{
break;
}
}
childParameterChanged |= RemoveObsoleteVesselStatusParameters();
if (childParameterChanged)
{
ContractConfigurator.ContractConfigurator.OnParameterChange.Fire(this.Root, this);
}
}
