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using System;
using System.Collections.Generic;
using Photon.Compression;
using Photon.Utilities;
using UnityEngine;
namespace Photon.Pun.Simple;
[Serializable]
public class VitalDefinition
{
public List<IOnVitalValueChange> iOnVitalChange = new List<IOnVitalValueChange>();
[SerializeField]
private VitalNameType vitalName;
[Tooltip("Values greater than this will degrade at the decay rate until this value is reached.")]
[SerializeField]
private double _fullValue;
[Tooltip("The absolute greatest possible value. Values above Full Value are considered overloaded, and will decay down to Full Value.")]
[SerializeField]
private uint _maxValue;
public double startValue;
[Tooltip("Number of simulation ticks after damage until regeneration resumes.")]
[SerializeField]
private float regenDelay;
[Tooltip("Amount per tick values less than Full Value will increase until Full Health is reached.")]
[SerializeField]
private double regenRate;
[Tooltip("Number of simulation ticks after overload until decay resumes.")]
[SerializeField]
private float decayDelay;
[Tooltip("Amount per tick overloaded values greater than Full Value will degrade until Full Health is reached.")]
[SerializeField]
private double decayRate;
[Range(0f, 1f)]
[Tooltip("How much of the damage this vital absords, the remainder is passed through to the next lower stat. 0 = None (useless), 0.5 = Half, 1 = Full. The root vital (0) likely should always be 1.")]
[SerializeField]
private double absorption;
private int _decayDelayInTicks;
private int _regenDelayInTicks;
private double _decayPerTick;
private double _regenPerTick;
private int bitsForValue;
private int bitsForDecayDelay;
private int bitsForRegenDelay;
public VitalNameType VitalName => vitalName;
public double FullValue => _fullValue;
public double MaxValue => _maxValue;
public double Absorbtion => absorption;
public int DecayDelayInTicks => _decayDelayInTicks;
public int RegenDelayInTicks => _regenDelayInTicks;
public double DecayPerTick => _decayPerTick;
public double RegenPerTick => _regenPerTick;
public void AddIOnVitalChange(IOnVitalValueChange cb)
{
iOnVitalChange.Add(cb);
}
public void RemoveIOnVitalChange(IOnVitalValueChange cb)
{
iOnVitalChange.Remove(cb);
}
public VitalDefinition(double fullValue, uint maxValue, double startValue, double absorbtion, float regenDelay, double regenRate, float decayDelay, double decayRate, string name)
{
_fullValue = fullValue;
_maxValue = maxValue;
this.startValue = startValue;
absorption = absorbtion;
this.regenDelay = regenDelay;
this.regenRate = regenRate;
this.decayDelay = decayDelay;
this.decayRate = decayRate;
vitalName = new VitalNameType(name);
}
public void Initialize(float tickDuration)
{
SetTickInterval(tickDuration);
}
public void SetTickInterval(float tickInterval)
{
_decayDelayInTicks = (int)(decayDelay / tickInterval);
_regenDelayInTicks = (int)(regenDelay / tickInterval);
_decayPerTick = decayRate * (double)tickInterval;
_regenPerTick = regenRate * (double)tickInterval;
bitsForValue = _maxValue.GetBitsForMaxValue();
bitsForDecayDelay = _decayDelayInTicks.GetBitsForMaxValue();
bitsForRegenDelay = _regenDelayInTicks.GetBitsForMaxValue();
}
public VitalData GetDefaultData()
{
return new VitalData(startValue, _decayDelayInTicks, _regenDelayInTicks);
}
public SerializationFlags Serialize(VitalData vitalData, VitalData prevVitalData, byte[] buffer, ref int bitposition, bool keyframe = true)
{
int ticksUntilDecay = vitalData.ticksUntilDecay;
int ticksUntilRegen = vitalData.ticksUntilRegen;
int num = (int)vitalData.Value;
int num2 = (int)prevVitalData.Value;
bool flag = num != num2;
if (keyframe)
{
buffer.Write((ulong)num, ref bitposition, bitsForValue);
}
else
{
buffer.WriteBool(flag, ref bitposition);
if (flag)
{
buffer.Write((ulong)num, ref bitposition, bitsForValue);
}
}
if (ticksUntilDecay > 0)
{
buffer.WriteBool(b: true, ref bitposition);
buffer.Write((ulong)ticksUntilDecay, ref bitposition, bitsForDecayDelay);
}
else
{
buffer.WriteBool(b: false, ref bitposition);
}
if (ticksUntilRegen > 0)
{
buffer.WriteBool(b: true, ref bitposition);
buffer.Write((ulong)ticksUntilRegen, ref bitposition, bitsForRegenDelay);
}
else
{
buffer.WriteBool(b: false, ref bitposition);
}
if (!(flag || keyframe))
{
return SerializationFlags.None;
}
return SerializationFlags.HasContent;
}
public VitalData Deserialize(byte[] buffer, ref int bitposition, bool keyframe = true)
{
double value = ((keyframe || buffer.ReadBool(ref bitposition)) ? ((double)buffer.Read(ref bitposition, bitsForValue)) : double.NegativeInfinity);
return new VitalData(value, (int)(buffer.ReadBool(ref bitposition) ? buffer.Read(ref bitposition, bitsForDecayDelay) : 0), (int)(buffer.ReadBool(ref bitposition) ? buffer.Read(ref bitposition, bitsForRegenDelay) : 0));
}
public VitalData Extrapolate(VitalData prev)
{
int num = ((prev.ticksUntilRegen > 0) ? (prev.ticksUntilRegen - 1) : 0);
int num2 = ((prev.ticksUntilDecay > 0) ? (prev.ticksUntilDecay - 1) : 0);
double value = prev.Value;
return new VitalData((value > FullValue && num2 == 0) ? (value - _decayPerTick) : ((value < FullValue && num == 0) ? (value + _regenPerTick) : value), num2, num);
}
}
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