Write to a buffer for a DelTapRd UGen.
DelTapRd.ar
and a DelTapWr.ar
in tandem, keep in mind that they read and write in blocks equal to the server's block size. If the delay time is greater than the buffer size minus a block, the write and read heads might interfere in unintended ways. Use a slightly larger buffer if this happens.buffer |
the buffer to write signal into. Max delay time is based on buffer size. |
in |
the signal to write to the buffer. |
phase - DelTapWr outputs its current sample value for use in the phase argument in DelTapRd
// a Buffer for the UGens to use, one second at the current sample rate
b = Buffer.alloc(s, s.sampleRate * 1, 1);
// write a signal into a delay, tap it at multiple times
SynthDef(\test, { |out, buffer|
var src, tapPhase, tap1, tap2, tap3;
src = WhiteNoise.ar(0.2) * Decay.kr(Dust.kr(3), 0.2);
tapPhase = DelTapWr.ar(buffer, src);
#tap1, tap2, tap3 = DelTapRd.ar(buffer, tapPhase,
[0.2, 0.27, 0.303], // tap times
1, // no interp
[1.0, 0.4, 0.2] // muls for each tap
);
Out.ar(out, [src + tap2, tap1 + tap3])
}).add;
x = Synth(\test, [\buffer, b]);
x.free;
b.free;
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// a Buffer for the UGens to use
b = Buffer.alloc(s, 44100, 1);
// write a signal into a delay, tap it at multiple times
SynthDef(\write, { |buffer, cout|
var src, tapPhase, tap1, tap2, tap3;
src = WhiteNoise.ar(0.2) * Decay.kr(Dust.kr(3), 0.7);
tapPhase = DelTapWr.ar(buffer, src);
Out.kr(cout, tapPhase);
}).add;
SynthDef(\readFilt, { |out, buffer, cin|
var phase, src, filt;
phase = In.kr(cin);
src = DelTapRd.ar(buffer, phase, [0.01, 0.2]);
filt = BPF.ar(src, 880, 0.01) * 10;
Out.ar(out, filt);
}).add;
c = Bus.control;
x = Synth(\write, [\buffer, b, \cout, c]);
y = Synth(\readFilt, [\buffer, b, \cin, c]);
x.free;
b.free;