public static LVector3 Slerp(LVector3 from, LVector3 to, LFloat t)
{
t = LMath.Clamp(t, 0, 1);
LFloat diff = Angle(from, to) * LMath.DegToRad;
LFloat sind = LMath.Sin(diff);
LFloat sintd = LMath.Sin(t * diff);
LFloat sin1td = LMath.Sin((1 - t) * diff);
return((sin1td / sind) * from + (sintd / sind) * to);
}
/// <summary>
/// Constructor for the bounds octree.
/// </summary>
/// <param name="initialWorldSize">Size of the sides of the initial node, in metres. The octree will never shrink smaller than this.</param>
/// <param name="initialWorldPos">Position of the centre of the initial node.</param>
/// <param name="minNodeSize">Nodes will stop splitting if the new nodes would be smaller than this (metres).</param>
/// <param name="loosenessVal">Clamped between 1 and 2. Values > 1 let nodes overlap.</param>
public BoundsQuadTree(LFloat initialWorldSize, LVector2 initialWorldPos, LFloat minNodeSize, LFloat loosenessVal)
{
if (minNodeSize > initialWorldSize)
{
Debug.LogWarning("Minimum node size must be at least as big as the initial world size. Was: " +
minNodeSize + " Adjusted to: " + initialWorldSize);
minNodeSize = initialWorldSize;
}
Count = 0;
initialSize = initialWorldSize;
minSize = minNodeSize;
looseness = LMath.Clamp(loosenessVal, 1.ToLFloat(), 2.ToLFloat());
rootNode = new BoundsQuadTreeNode(null, initialSize, minSize, looseness, initialWorldPos);
}
public void DoUpdate(float deltaTime)
{
_timer += deltaTime;
if (_timer > _checkInterval)
{
_timer = 0;
if (!hasMissTick)
{
var preSend = _cmdBuffer._maxPing * 1.0f / NetworkDefine.UPDATE_DELTATIME;
_targetPreSendTick = _targetPreSendTick * _oldPercent + preSend * (1 - _oldPercent);
var targetPreSendTick = LMath.Clamp((int)System.Math.Ceiling(_targetPreSendTick), 1, 60);
#if UNITY_EDITOR
//if (targetPreSendTick != _simulatorService.PreSendInputCount)
{
Debug.LogWarning(
$"Shrink preSend buffer old:{_simulatorService.PreSendInputCount} new:{_targetPreSendTick} " +
$"PING: min:{_cmdBuffer._minPing} max:{_cmdBuffer._maxPing} avg:{_cmdBuffer.PingVal}");
}
#endif
_simulatorService.PreSendInputCount = targetPreSendTick;
}
hasMissTick = false;
}
if (missTick != -1)
{
var delayTick = _simulatorService.TargetTick - missTick;
var targetPreSendTick =
_simulatorService.PreSendInputCount + (int)System.Math.Ceiling(delayTick * _incPercent);
targetPreSendTick = LMath.Clamp(targetPreSendTick, 1, 60);
#if UNITY_EDITOR
Debug.LogWarning(
$"Expend preSend buffer old:{_simulatorService.PreSendInputCount} new:{targetPreSendTick}");
#endif
_simulatorService.PreSendInputCount = targetPreSendTick;
nextCheckMissTick = _simulatorService.TargetTick;
missTick = -1;
hasMissTick = true;
}
}
public void DoUpdate(float deltaTime)
{
this._timer += deltaTime;
bool flag = this._timer > this._checkInterval;
if (flag)
{
this._timer = 0f;
bool flag2 = !this.hasMissTick;
if (flag2)
{
float num = (float)this._cmdBuffer._maxPing * 1f / 30f;
this._targetPreSendTick = this._targetPreSendTick * this._oldPercent + num * (1f - this._oldPercent);
int num2 = LMath.Clamp((int)System.Math.Ceiling((double)this._targetPreSendTick), 1, 60);
bool flag3 = num2 != this._simulatorService.PreSendInputCount;
if (flag3)
{
Debug.LogWarning(string.Format("Shrink preSend buffer old:{0} new:{1} ", this._simulatorService.PreSendInputCount, this._targetPreSendTick) + string.Format("PING: min:{0} max:{1} avg:{2}", this._cmdBuffer._minPing, this._cmdBuffer._maxPing, this._cmdBuffer.PingVal), Array.Empty <object>());
}
this._simulatorService.PreSendInputCount = num2;
}
this.hasMissTick = false;
}
bool flag4 = this.missTick != -1;
if (flag4)
{
int num3 = this._simulatorService.TargetTick - this.missTick;
int num4 = this._simulatorService.PreSendInputCount + (int)System.Math.Ceiling((double)((float)num3 * this._incPercent));
num4 = LMath.Clamp(num4, 1, 60);
Debug.LogWarning(string.Format("Expend preSend buffer old:{0} new:{1}", this._simulatorService.PreSendInputCount, num4), Array.Empty <object>());
this._simulatorService.PreSendInputCount = num4;
this.nextCheckMissTick = this._simulatorService.TargetTick;
this.missTick = -1;
this.hasMissTick = true;
}
}
private LFloat(long val)
{
value = LMath.Clamp(val, RateNegativeInfinity, RatePositiveInfinity);
}
public static LQuaternion Lerp(LQuaternion from, LQuaternion to, LFloat t)
{
t = LMath.Clamp(t, 0, 1);
return((1 - t) * from + t * to);
}