Trig1 : UGen
{
*ar { arg in = 0.0, dur = 0.1;
^this.multiChannelPerform('ar1', in, dur)
}
*kr { arg in = 0.0, dur = 0.1;
^this.multiChannelPerform('kr1', in, dur)
}
*ar1 { arg in = 0.0, dur = 0.1;
^super.ar1.init(in, dur)
}
*kr1 { arg in = 0.0, dur = 0.1;
^super.kr1.init(in, dur)
}
}
Trig : Trig1
{
}
TDelay : Trig1
{
}
Latch : UGen
{
*ar { arg in = 0.0, trig = 0.0;
^this.multiChannelPerform('ar1', in, trig)
}
*kr { arg in = 0.0, trig = 0.0;
^this.multiChannelPerform('kr1', in, trig)
}
*ar1 { arg in = 0.0, trig = 0.0;
^super.ar1.init(in, trig)
}
*kr1 { arg in = 0.0, trig = 0.0;
^super.kr1.init(in, trig)
}
}
Gate : Latch
{
}
PulseCount : UGen
{
*ar { arg trig = 0.0, reset =
0.0;
^this.multiChannelPerform('ar1', trig, reset)
}
*kr { arg trig = 0.0, reset =
0.0;
^this.multiChannelPerform('kr1', trig, reset)
}
*ar1 { arg trig = 0.0, reset
= 0.0;
^super.ar1.init(trig, reset)
}
*kr1 { arg trig = 0.0, reset
= 0.0;
^super.kr1.init(trig, reset)
}
}
Peak : PulseCount
{
}
PulseDivider : UGen {
*ar { arg trig = 0.0, div = 2.0,
start = 0.0;
^this.multiChannelPerform('ar1', trig, div, start)
}
*kr { arg trig = 0.0, div = 2.0,
start = 0.0;
^this.multiChannelPerform('kr1', trig, div, start)
}
*ar1 { arg trig = 0.0, div =
2.0, start = 0.0;
^super.ar1.init(trig, div, start)
}
*kr1 { arg trig = 0.0, div =
2.0, start = 0.0;
^super.kr1.init(trig, div, start)
}
}
SetResetFF : PulseCount
{
set { _SetResetFF_Set }
reset { _SetResetFF_Reset }
toggle { _SetResetFF_Toggle }
}
ToggleFF : UGen
{
*ar { arg trig = 0.0;
^this.multiChannelPerform('ar1', trig)
}
*kr { arg trig = 0.0;
^this.multiChannelPerform('kr1', trig)
}
*ar1 { arg trig = 0.0;
^super.ar1.init(trig)
}
*kr1 { arg trig = 0.0;
^super.kr1.init(trig)
}
init { arg theInput;
inputs = theInput;
}
set { _ToggleFF_Set }
reset { _ToggleFF_Reset }
toggle { _ToggleFF_Toggle }
}
ImpulseSequencer : UGen {
var <>stream;
*ar { arg sequence, trig = 0.0,
mul = 1.0, add = 0.0;
^this.multiChannelPerform('ar1', sequence, trig, mul, add)
}
*kr { arg sequence, trig = 0.0,
mul = 1.0, add = 0.0;
^this.multiChannelPerform('kr1', sequence, trig, mul, add)
}
*ar1 { arg sequence, trig = 0.0,
mul = 1.0, add = 0.0;
^super.ar1.init(sequence, trig, mul, add)
}
*kr1 { arg sequence, trig = 0.0,
mul = 1.0, add = 0.0;
^super.kr1.init(sequence, trig, mul, add)
}
init { arg sequence ... theInputs;
stream = sequence;
inputs = theInputs;
}
// next { // called internally when calling
a Routine
// ^stream.next(nil) // push
nil to prevent byte code optimization & elimination
// }
}
Sequencer : ImpulseSequencer
{
}
UserUGen : UGen
{
var <>stream;
*ar { arg sequence, mul = 1.0,
add = 0.0;
^this.multiChannelPerform('ar1', sequence, mul, add)
}
*kr { arg sequence, mul = 1.0,
add = 0.0;
^this.multiChannelPerform('kr1', sequence, mul, add)
}
*ar1 { arg sequence, mul = 1.0,
add = 0.0;
^super.ar1.init(sequence, mul, add)
}
*kr1 { arg sequence, mul = 1.0,
add = 0.0;
^super.kr1.init(sequence, mul, add)
}
init { arg sequence ... theInputs;
stream = sequence;
inputs = theInputs;
}
next { // called internally when calling
a Routine
^stream.next(nil)
// push nil to prevent byte code optimization
& elimination
}
}
StepClock : UGen
{
var <>stream;
*ar { arg sequence, rate = 1.0,
mul = 1.0, add = 0.0;
^this.multiChannelPerform('ar1', sequence, rate, mul, add)
}
*kr { arg sequence, rate = 1.0,
mul = 1.0, add = 0.0;
^this.multiChannelPerform('kr1', sequence, rate, mul, add)
}
*ar1 { arg sequence, rate = 1.0,
mul = 1.0, add = 0.0;
^super.ar1.init(sequence, rate, mul, add)
}
*kr1 { arg sequence, rate = 1.0,
mul = 1.0, add = 0.0;
^super.kr1.init(sequence, rate, mul, add)
}
init { arg sequence ... theInputs;
stream = sequence;
inputs = theInputs;
}
next { // called internally when calling
a Routine
^stream.next(nil)
}
}
ZeroCrossing : UGen {
*ar { arg in = 0.0;
^this.multiChannelPerform('ar1', in)
}
*kr { arg in = 0.0;
^this.multiChannelPerform('kr1', in)
}
*ar1 { arg in = 0.0;
^super.ar1.init(in)
}
*kr1 { arg in = 0.0;
^super.kr1.init(in)
}
init { arg theInput;
inputs = theInput;
}
}
PeakFollower : UGen {
*ar { arg in = 0.0, decay = 0.999;
^this.multiChannelPerform('ar1', in, decay)
}
*kr { arg in = 0.0, decay = 0.999;
^this.multiChannelPerform('kr1', in, decay)
}
*ar1 { arg in = 0.0, decay =
0.999;
^super.ar1.init(in, decay)
}
*kr1 { arg in = 0.0, decay =
0.999;
^super.kr1.init(in, decay)
}
}
Pitch : MultiOutUGen
{
var buffer, initFreq, minFreq,
maxFreq, execFreq;
var maxBinsPerOctave, median, ampThreshold, peakThreshold, downSample;
*kr { arg in = 0.0, initFreq
= 440.0, minFreq = 60.0, maxFreq = 4000.0, execFreq = 100.0,
maxBinsPerOctave = 16, median = 1, ampThreshold = 0.01, peakThreshold
= 0.5, downSample = 1;
^this.multiChannelPerform('kr1', in, initFreq, minFreq, maxFreq,
execFreq,
maxBinsPerOctave, median, ampThreshold, peakThreshold,
downSample)
}
*kr1 { arg in = 0.0, initFreq
= 440.0, minFreq = 60.0, maxFreq = 4000.0, execFreq = 100.0,
maxBinsPerOctave = 16, median = 1, ampThreshold = 0.01, peakThreshold
= 0.5, downSample = 1;
^super.kr1.init(in, initFreq, minFreq, maxFreq, execFreq,
maxBinsPerOctave, median, ampThreshold, peakThreshold,
downSample)
}
init { arg argInput, argInitFreq,
argMinFreq, argMaxFreq, argExecFreq,
argMaxBinsPerOctave, argMedian, argAmpThreshold, argPeakThreshold,
argDownSample;
inputs = argInput;
initFreq = argInitFreq;
minFreq = argMinFreq;
maxFreq = argMaxFreq;
execFreq = argExecFreq;
maxBinsPerOctave = argMaxBinsPerOctave;
median = argMedian;
ampThreshold = argAmpThreshold;
peakThreshold = argPeakThreshold;
downSample = argDownSample;
channels = [ OutputProxy.kr1(this), OutputProxy.kr1(this) ];
^channels
}
}
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