static bool IgnoresSpecialMode2(string blockType)
{
print(blockType);
RhythmType t = Resources.Load <GameObject>(blockType).GetComponent <RhythmObject>().Type;
return(t == RhythmType.Misc);
}
// Used to create rhythms using AI algorithms.
public Rhythm(Dictionary <int, int> _rhythmStructure, List <bool> _ignoreClaps)
{
this._rhythmStructure = _rhythmStructure;
this._ignoreClaps = _ignoreClaps;
_isComputerGenerated = true;
_rhythmClass = RhythmClass.GENERAL_RHYTHM;
_rhythmType = RhythmType.GENERAL_CLAPS;
}
// Combine two different rhythms.
public void ConcatenateRhythm(Rhythm anotherRhythm, int timeInBetween)
{
Rhythm rhythm = ConcatenateRhythm(this, anotherRhythm, timeInBetween);
_rhythmStructure = rhythm._rhythmStructure;
_ignoreClaps = rhythm._ignoreClaps;
_isComputerGenerated = rhythm._isComputerGenerated;
_rhythmClass = rhythm._rhythmClass;
_rhythmType = rhythm._rhythmType;
}
public Rhythm()
{
_ignoreClaps = new List <bool>();
_rhythmStructure = new Dictionary <int, int>();
_isComputerGenerated = false;
_rhythmType = RhythmType.SIMILAR_CLAPS;
_rhythmClass = RhythmClass.RHYTHM_ONE;
for (int index = 1; index <= 300; index++)
{
_ignoreClaps.Add(false);
_rhythmStructure.Add(index * 1000, 1);
}
}
/// <summary>
/// Checks how close the current frame is to the beat.
/// </summary>
/// <returns>A percentage of how close the current frame is to the beat.</returns>
/// <param name="rhythmType">A type of rhythm to constrain the beat to.</param>
public float PerfectTiming(RhythmType rhythmType = RhythmType.None)
{
float calcTempo = 60f / BPM;
float val = 2f;
int samplesInTempo = (int)(music.clip.frequency * calcTempo);
int samplesPastBeat = music.timeSamples % (samplesInTempo);
float t = ((float)samplesPastBeat / samplesInTempo); // how far along we are in this beat (0..1)
float quarterAccuracy = Mathf.Abs(2 * (t % 1) - 1);
float eighthAccuracy = Mathf.Abs(2 * ((t * 2) % 1) - 1);
float tripletAccuracy = Mathf.Abs(2 * ((t * 3) % 1) - 1);
float result = 0f;
if (enableQuarter)
{
result = quarterAccuracy;
if (rhythmType == RhythmType.Quarter)
{
return(result);
}
}
if (enableEighth)
{
result = Mathf.Max(result, eighthAccuracy);
if (rhythmType == RhythmType.Eighth)
{
return(result);
}
}
if (enableTriplet)
{
result = Mathf.Max(result, tripletAccuracy);
}
return(result);
}
// Categorize a rhythm class into different rhythm types.
public RhythmType DetermineRhythmType()
{
if (_rhythmClass == RhythmClass.RHYTHM_ONE || _rhythmClass == RhythmClass.RHYTHM_TWO ||
_rhythmClass == RhythmClass.RHYTHM_THREE)
{
_rhythmType = RhythmType.SIMILAR_CLAPS;
}
else if (_rhythmClass == RhythmClass.RHYTHM_FOUR || _rhythmClass == RhythmClass.RHYTHM_FIVE ||
_rhythmClass == RhythmClass.RHYTHM_SIX)
{
_rhythmType = RhythmType.TWO_ALTERNATING_DISTINCT_CLAPS;
}
else if (_rhythmClass == RhythmClass.RHYTHM_SEVEN || _rhythmClass == RhythmClass.RHYTHM_EIGHT ||
_rhythmClass == RhythmClass.RHYTHM_NINE || _rhythmClass == RhythmClass.RHYTHM_TEN ||
_rhythmClass == RhythmClass.RHYTHM_ELEVEN || _rhythmClass == RhythmClass.RHYTHM_TWELVE)
{
_rhythmType = RhythmType.THREE_ALTERNATING_DISTINCT_CLAPS;
}
else
{
_rhythmType = RhythmType.GENERAL_CLAPS;
}
return(_rhythmType);
}