public static float EaseIn(double linearStep, EasingType type)
{
switch (type)
{
case EasingType.Step:
return(linearStep < 0.5 ? 0 : 1);
case EasingType.Linear:
return((float)linearStep);
case EasingType.Sine:
return(Sine.EaseIn(linearStep));
case EasingType.Quadratic:
return(Power.EaseIn(linearStep, 2));
case EasingType.Cubic:
return(Power.EaseIn(linearStep, 3));
case EasingType.Quartic:
return(Power.EaseIn(linearStep, 4));
case EasingType.Quintic:
return(Power.EaseIn(linearStep, 5));
}
throw new NotImplementedException();
}
public static float EaseIn(double linearStep, EasingType type)
{
switch (type)
{
case EasingType.Step:
return(linearStep < 0.5 ? 0 : 1);
case EasingType.Linear:
return((float)linearStep);
case EasingType.Sine:
return(Sine.EaseIn(linearStep));
case EasingType.Quadratic:
return(Power.EaseIn(linearStep, 2));
case EasingType.Cubic:
return(Power.EaseIn(linearStep, 3));
case EasingType.Quartic:
return(Power.EaseIn(linearStep, 4));
case EasingType.Quintic:
return(Power.EaseIn(linearStep, 5));
default:
throw new ArgumentOutOfRangeException(nameof(type), type, "Unknown EasingType");
}
}
/// <summary>
/// Calculate a Ease In from a pourcent
/// </summary>
/// <param name="linearStep">Pourcent on the ease</param>
/// <param name="type">Easing Type</param>
public static float EaseIn(float linearStep, EasingType type)
{
switch (type)
{
case EasingType.Step:
return(Mathf.Round(linearStep));
default:
case EasingType.Linear:
return(linearStep);
case EasingType.Sine:
return(Sine.EaseIn(linearStep));
case EasingType.Quadratic:
return(Power.EaseIn(linearStep, 2));
case EasingType.Cubic:
return(Power.EaseIn(linearStep, 3));
case EasingType.Quartic:
return(Power.EaseIn(linearStep, 4));
case EasingType.Quintic:
return(Power.EaseIn(linearStep, 5));
case EasingType.Elastic:
return(Elastic.EaseIn(linearStep));
case EasingType.Bounce:
return(Bounce.EaseIn(linearStep));
case EasingType.Back:
return(Back.EaseIn(linearStep));
case EasingType.Expo:
return(Expo.EaseIn(linearStep));
case EasingType.Circ:
return(Circ.EaseIn(linearStep));
}
}
public static float EaseIn(double linearStep, EasingType type)
{
switch (type)
{
case EasingType.Step: return(linearStep < 0.5 ? 0 : 1);
case EasingType.Linear: return((float)linearStep);
case EasingType.Sine: return(Sine.EaseIn(linearStep));
case EasingType.Quadratic: return(Power.EaseIn(linearStep, 2));
case EasingType.Cubic: return(Power.EaseIn(linearStep, 3));
case EasingType.Quartic: return(Power.EaseIn(linearStep, 4));
case EasingType.Quintic: return(Power.EaseIn(linearStep, 5));
default: return((float)linearStep);
}
}
public static float EaseIn(float linearStep, EaseType type)
{
switch (type)
{
case EaseType.None:
return(1);
case EaseType.Linear:
return(linearStep);
case EaseType.Sine:
return(Sine.EaseIn(linearStep));
case EaseType.Quad:
return(Power.EaseIn(linearStep, 2));
case EaseType.Cubic:
return(Power.EaseIn(linearStep, 3));
case EaseType.Quartic:
return(Power.EaseIn(linearStep, 4));
case EaseType.Quintic:
return(Power.EaseIn(linearStep, 5));
case EaseType.Circ:
return(Circ.EaseIn(linearStep));
case EaseType.Bounce:
return(Bounce.EaseIn(linearStep));
case EaseType.Back:
return(Back.EaseIn(linearStep));
case EaseType.Elastic:
return(Elastic.EaseIn(linearStep));
}
Debug.LogError("Um.");
return(0);
}
public override double Ease(double t, double b, double c, double d)
{
return(Sine.EaseIn(t, b, c, d));
}