Aetheria/Assets/Scripts/ServerShared/Behaviors/Reactor.cs
Reinier Vens a51c402fc5 Reflected Visibility
Ships are now more visible in lit areas (depending on cross section stat in Reflector behavior)
Refactored all behaviors to remove context & entity references (can get them from equipped item reference if needed)
Fixed crash when enemy dies of heatstroke while targeted
Exponential decay for visibility now uses correct time-independent formula
Refactored item inspection in properties panel (now consistent between equipped items vs. inventory and store items, shows effect of heat on stats)
Reordered item properties and added spacing between groups
2021-04-12 04:20:52 +01:00

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C#

/* This Source Code Form is subject to the terms of the Mozilla Public
* License, v. 2.0. If a copy of the MPL was not distributed with this
* file, You can obtain one at https://mozilla.org/MPL/2.0/. */
using System.Collections.Generic;
using System.Linq;
using MessagePack;
using Newtonsoft.Json;
using UniRx;
using Unity.Mathematics;
using static Unity.Mathematics.math;
[Inspectable, MessagePackObject, JsonObject(MemberSerialization.OptIn), RuntimeInspectable]
public class ReactorData : BehaviorData
{
[Inspectable, JsonProperty("charge"), Key(1), RuntimeInspectable]
public PerformanceStat Charge = new PerformanceStat();
[Inspectable, JsonProperty("efficiency"), Key(2), RuntimeInspectable]
public PerformanceStat Efficiency = new PerformanceStat();
[Inspectable, JsonProperty("overload"), Key(3), RuntimeInspectable]
public PerformanceStat OverloadEfficiency = new PerformanceStat();
[Inspectable, JsonProperty("underload"), Key(4), RuntimeInspectable]
public PerformanceStat ThrottlingFactor = new PerformanceStat();
public override IBehavior CreateInstance(EquippedItem item)
{
return new Reactor(this, item);
}
}
public class Reactor : IBehavior, IOrderedBehavior
{
private ReactorData _data;
public Entity Entity { get; }
public EquippedItem Item { get; }
public ItemManager Context { get; }
public float Draw { get; private set; }
public float CurrentLoadRatio { get; private set; }
public int Order => 100;
public BehaviorData Data => _data;
private List<Capacitor> _capacitors;
public Reactor(ReactorData data, EquippedItem item)
{
_data = data;
Item = item;
_capacitors = Item.Entity.GetBehaviors<Capacitor>().ToList();
Item.Entity.Equipment.ObserveAdd().Subscribe(onAdd =>
{
var capacitor = onAdd.Value.GetBehavior<Capacitor>();
if (capacitor != null) _capacitors.Add(capacitor);
});
Item.Entity.Equipment.ObserveRemove().Subscribe(onRemove =>
{
var capacitor = onRemove.Value.GetBehavior<Capacitor>();
if (capacitor != null) _capacitors.Remove(capacitor);
});
}
public void ConsumeEnergy(float energy)
{
Draw += energy;
}
public bool Execute(float delta)
{
var charge = Item.Evaluate(_data.Charge) * delta;
var efficiency = Item.Evaluate(_data.Efficiency);
// This behavior executes last, so any components drawing power have already done so
// Subtract the baseline charge from draw
Draw -= charge;
// Generate heat using baseline efficiency
var heat = charge / efficiency;
// We have an energy deficit, have to overload the reactor
if (Draw > .01f)
{
CurrentLoadRatio = (Draw + charge) / max(charge, .01f);
var overloadEfficiency = Item.Evaluate(_data.OverloadEfficiency);
// Generate heat using overload efficiency, usually much less efficient!
heat += Draw / overloadEfficiency;
// Overload power will always neutralize the energy deficit
Draw = 0;
}
// We have an energy surplus, try to store energy in our capacitors
if (Draw < -.01f)
{
int nonFullCapacitorCount;
do
{
var chargeToAdd = -Draw;
nonFullCapacitorCount = _capacitors.Count(c => c.Charge < c.Capacity - .01f);
foreach (var capacitor in _capacitors)
{
if (capacitor.Charge < capacitor.Capacity - .01f)
{
var chargeAdded = min(chargeToAdd / nonFullCapacitorCount, capacitor.Capacity - capacitor.Charge);
capacitor.AddCharge(chargeAdded);
Draw += chargeAdded;
}
}
} while (nonFullCapacitorCount > 0 && Draw < -.01f);
}
// We still have an energy surplus, try to throttle the reactor to reduce heat generation
if (Draw < -.01f)
{
CurrentLoadRatio = (Draw + charge) / max(charge, .01f);
heat -= Draw / efficiency * (1 - 1 / Item.Evaluate(_data.ThrottlingFactor));
Draw = 0;
}
else
{
CurrentLoadRatio = 1;
}
Item.AddHeat(heat);
return true;
}
}