public static void TestParallel()
{
CommandQueue queue = new CommandQueue();
double a = 0.0, b = 0.0, c = 0.0;;
queue.Enqueue(
Cmd.Repeat(2,
Cmd.Parallel(
Cmd.Duration((t) => a = t, 4.0),
Cmd.Duration((t) => b = t, 3.0),
Cmd.Duration((t) => {
c = t;
Assert.IsTrue(b < c, "Runner not operating con-currently.");
Assert.IsTrue(a < b, "Runner not operating con-currently.");
}, 2.0)
)
)
);
while (!queue.Update(DELTA_TIME_RATE))
{
}
Assert.AreEqual(a, 1.0, 0.001);
Assert.AreEqual(b, 1.0, 0.001);
Assert.AreEqual(c, 1.0, 0.001);
}
public static CommandDelegate ChangeTo(Ref <Rect> rect, Rect endRect, double duration, Vector2 anchorPoint,
CommandEase ease = null)
{
CheckArgumentNonNull(rect, "rect");
Rect startRect = new Rect();
Vector2 startAnchorPoint = Vector2.zero;
Vector2 endAnchorPoint = Vector2.zero;
return(Cmd.Sequence(
Cmd.Do(delegate()
{
startRect = rect.Value;
startAnchorPoint = new Vector2(
startRect.x + startRect.width * anchorPoint.x,
startRect.y + startRect.height * anchorPoint.y
);
endAnchorPoint = new Vector2(
endRect.x + endRect.width * anchorPoint.x,
endRect.y + endRect.height * anchorPoint.y
);
}),
Cmd.Duration(delegate(double t)
{
Rect newRect = new Rect();
newRect.width = (endRect.width - startRect.width) * (float)t + startRect.width;
newRect.height = (endRect.height - startRect.height) * (float)t + startRect.height;
Vector2 newAnchorPoint = Vector2.Lerp(startAnchorPoint, endAnchorPoint, (float)t);
newRect.x = newAnchorPoint.x - anchorPoint.x * newRect.width;
newRect.y = newAnchorPoint.y - anchorPoint.y * newRect.height;
rect.Value = newRect;
}, duration, ease)
));
}
/// <summary>
/// Oscillates around a value. This will animation from
/// startValue > startValue + amount > startValue - amount- > startValue,
/// in a smooth circular motion.
/// </summary>
/// <param name="amount">
/// The maximum amount to oscillate away from the default value.
/// </param>
public static CommandDelegate Oscillate(Ref <float> single, float amount, double duration,
CommandEase ease = null)
{
CheckArgumentNonNull(single, "single");
float baseValue = 0f;
return(Cmd.Sequence(
Cmd.Do(() => baseValue = single.Value),
Cmd.Duration(t => { single.Value = baseValue + Mathf.Sin((float)t * 2f * Mathf.PI) * amount; },
duration, ease)
));
}
public static CommandDelegate TintTo(Ref <Color> color, Color endColor, double duration, CommandEase ease = null)
{
CheckArgumentNonNull(color, "color");
Color startColor = Color.white;
return(Cmd.Sequence(
Cmd.Do(delegate() { startColor = color.Value; }),
Cmd.Duration(delegate(double t) { color.Value = Color.Lerp(startColor, endColor, (float)t); },
duration, ease)
));
}
public static CommandDelegate ChangeTo(Ref <Vector2> vector, Vector2 endVector, double duration,
CommandEase ease = null)
{
CheckArgumentNonNull(vector, "vector");
Vector2 startVector = Vector2.zero;
return(Cmd.Sequence(
Cmd.Do(delegate() { startVector = vector.Value; }),
Cmd.Duration(delegate(double t) { vector.Value = (endVector - startVector) * (float)t + startVector; },
duration, ease)
));
}
public static void TestTiming()
{
CommandQueue queue = new CommandQueue();
const double FIRST_Command_DURATION = 4.5;
const double SECOND_Command_DURATION = 1.0;
const double WAIT_DURATION = 1.5;
const int REPEAT_COUNT = 8640;
double lastT = 0.0;
// This test ensures that between alternating CommandDurations,
// there is no accumulation of error in timing. We use a repeat
// here to accentuate the error.
queue.Enqueue(
Cmd.Repeat(REPEAT_COUNT,
Cmd.Sequence(
Cmd.WaitForSeconds(WAIT_DURATION),
Cmd.Do(() => lastT = 0.0),
Cmd.Duration((t) => {
Assert.IsTrue(t <= 1.0);
Assert.IsTrue(lastT <= t);
lastT = t;
}, FIRST_Command_DURATION),
Cmd.Do(() => lastT = 0.0),
Cmd.Parallel(
Cmd.Duration((t) => {}, SECOND_Command_DURATION / 2.0),
// The following two Duration Cmd should finish in the same Update call.
Cmd.Duration((t) => {}, SECOND_Command_DURATION - (DELTA_TIME_RATE / 2.0)),
Cmd.Duration((t) => {
Assert.IsTrue(t <= 1.0);
Assert.IsTrue(lastT <= t);
lastT = t;
}, SECOND_Command_DURATION)
)
)
)
);
double totalTime = 0.0;
while (!queue.Update(DELTA_TIME_RATE))
{
totalTime += DELTA_TIME_RATE;
}
const double EXPECTED_TIME = (FIRST_Command_DURATION + SECOND_Command_DURATION + WAIT_DURATION) * REPEAT_COUNT;
Assert.AreEqual(totalTime, EXPECTED_TIME, DELTA_TIME_RATE, "Time delta accumulation too large.");
}
public static CommandDelegate TintBy(Ref <Color> color, Color offset, double duration, CommandEase ease = null)
{
CheckArgumentNonNull(color, "color");
double lastT = 0.0;
return(Cmd.Sequence(
Cmd.Do(delegate() { lastT = 0.0; }),
Cmd.Duration(delegate(double t)
{
color.Value += offset * (float)(t - lastT);
lastT = t;
}, duration, ease)
));
}
public static CommandDelegate ChangeBy(Ref <Vector2> vector, Vector2 offset, double duration,
CommandEase ease = null)
{
CheckArgumentNonNull(vector, "vector");
double lastT = 0.0;
return(Cmd.Sequence(
Cmd.Do(delegate() { lastT = 0.0; }),
Cmd.Duration(delegate(double t)
{
vector.Value += offset * (float)(t - lastT);
lastT = t;
}, duration, ease)
));
}
public static CommandDelegate RotateFrom(Ref <Quaternion> rotation, Quaternion startRotation, double duration,
CommandEase ease = null)
{
CheckArgumentNonNull(rotation, "rotation");
Quaternion endRotation = Quaternion.identity;
return(Cmd.Sequence(
Cmd.Do(delegate() { endRotation = rotation.Value; }),
Cmd.Duration(
delegate(double t)
{
rotation.Value = Quaternion.LerpUnclamped(startRotation, endRotation, (float)t);
}, duration, ease)
));
}
/// <summary>
/// Performs a squash and stretch animation, while changing to a target scale.
/// </summary>
/// <param name="scale">The value to animate.</param>
/// <param name="endScale">The final scale.</param>
/// <param name="amplitude">The amplitude of a squash and strech</param>
/// <param name="duration">The duration of the animation</param>
/// <param name="normal"> The normal of the animation. </param>
/// <param name="tangent"> The tangent of the animation. </param>
public static CommandDelegate ScaleSquashAndStretchTo(Ref <Vector3> scale, Vector3 endScale, float amplitude,
double duration, Vector3 normal, Vector3 tangent)
{
CheckArgumentNonNull(scale, "scale");
var squashRef = Ref <Vector3> .Create(Vector3.one);
var scaleRef = Ref <Vector3> .Create();
return(Cmd.Sequence(
Cmd.Do(() => scaleRef.Value = scale.Value),
Cmd.Parallel(
SquashAndStretch(squashRef, amplitude, duration, normal, tangent),
Cmd.ChangeTo(scaleRef, endScale, duration / 4, Ease.Smooth()),
Cmd.Duration(t => scale.Value = Vector3.Scale(squashRef.Value, scaleRef.Value), duration)
)
));
}
public static CommandDelegate RotateBy(Ref <Quaternion> rotation, Quaternion offsetRotation, double duration,
CommandEase ease = null)
{
CheckArgumentNonNull(rotation, "rotation");
double lastT = 0.0;
return(Cmd.Sequence(
Cmd.Do(delegate() { lastT = 0.0; }),
Cmd.Duration(delegate(double t)
{
rotation.Value *= Quaternion.LerpUnclamped(Quaternion.identity, offsetRotation, (float)t) *
Quaternion.Inverse(Quaternion.LerpUnclamped(Quaternion.identity, offsetRotation,
(float)lastT));
lastT = t;
}, duration, ease)
));
}
public static void TestRunToEnd()
{
CommandQueue queue = new CommandQueue();
double time = 0.0;
bool started = false;
bool finished = false;
queue.Enqueue(
Cmd.Do(() => started = true),
Cmd.Duration(t => time = t, 1.0),
Cmd.Do(() => finished = true)
);
Assert.AreEqual(false, started);
queue.RunToEnd();
Assert.AreEqual(true, started);
Assert.AreEqual(1.0, time);
Assert.AreEqual(true, finished);
}
public static CommandDelegate ScaleBy(Ref <Vector2> scale, Vector2 scaleFactor, double duration,
CommandEase ease = null)
{
CheckArgumentNonNull(scale, "scale");
Vector2 lastScaleFactor = Vector2.one;
return(Cmd.Sequence(
Cmd.Do(delegate() { lastScaleFactor = Vector2.one; }),
Cmd.Duration(delegate(double t)
{
Vector2 newScaleFactor = (float)t * (scaleFactor - Vector2.one) + Vector2.one;
scale.Value = new Vector2(
scale.Value.x * newScaleFactor.x / lastScaleFactor.x,
scale.Value.y * newScaleFactor.y / lastScaleFactor.y
);
lastScaleFactor = newScaleFactor;
}, duration, ease)
));
}
public static CommandDelegate TintBy(Ref <Color32> color, Color32 offset, double duration,
CommandEase ease = null)
{
CheckArgumentNonNull(color, "color");
double lastT = 0.0;
return(Cmd.Sequence(
Cmd.Do(delegate() { lastT = 0.0; }),
Cmd.Duration(delegate(double t)
{
color.Value = new Color32(
(byte)(color.Value.r + offset.r * (t - lastT)),
(byte)(color.Value.g + offset.g * (t - lastT)),
(byte)(color.Value.b + offset.b * (t - lastT)),
(byte)(color.Value.a + offset.a * (t - lastT))
);
lastT = t;
}, duration, ease)
));
}
/// <summary>
/// Wobble a value. This oscilates a value, with a decay.
/// </summary>
/// <param name="amplitude">Amplitude.</param>
/// <param name="duration">Duration.</param>
public static CommandDelegate Wobble(Ref <float> single, float amount, double duration)
{
CheckArgumentNonNull(single, "val");
float intervals = 3f;
float decay = Mathf.Log(100f * amount);
float baseVal = 0f;
return(Cmd.Sequence(
Cmd.Do(() => { baseVal = single.Value; }),
Cmd.Duration(
t =>
{
float decayCoeef = Mathf.Exp((float)t * decay);
single.Value = baseVal + amount * Mathf.Sin(intervals * (float)t * 2 * Mathf.PI) / decayCoeef;
},
duration
),
Cmd.Do(() => { single.Value = baseVal; })
));
}
/// <summary>
/// Squashes the y axis, while inversely stretching the x axis.
/// </summary>
/// <param name="val">The value to animate.</param>
/// <param name="amplitude">The size of the squash.</param>
/// <param name="duration">The duration of the squash.</param>
public static CommandDelegate SquashAndStretch(Ref <Vector2> scale, float amplitude, double duration)
{
CheckArgumentNonNull(scale, "scale");
Vector2 startScale = Vector2.zero;
float area = 0f;
Ref <float> widthRef = new Ref <float>(
() => scale.Value.x,
(t) =>
{
Vector2 tempVal = scale.Value;
tempVal.x = t;
scale.Value = tempVal;
}
);
return(Cmd.Sequence(
Cmd.Do(() =>
{
area = scale.Value.x * scale.Value.y;
startScale = scale.Value;
}),
Cmd.Parallel(
Wobble(widthRef, amplitude, duration),
Cmd.Duration((t) =>
{
Vector2 tempVal = scale.Value;
if (tempVal.x != 0f)
{
tempVal.y = area / tempVal.x;
}
scale.Value = tempVal;
}, duration)
),
Cmd.Do(() => { scale.Value = startScale; })
));
}
