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dxkNobu.scd
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//sample chopper, loc = location between 0 and 1
//relabs = relative: number between 0-1 for pos in buffer (0), absolute: sample number(1)
//revadj = for fixed-len triggering: adjust location when rate < 0 so sound is same chunk as forwards (just reversed) instead of starting at loc
//end = gives end of loop if >= 0 else default
//for use with patterns
SynthDef(\dxkPNobuM, {|buf, gate = 1, loc = 0, rate = 1, amp = 1, pan = 0, ramp = 0.001, relabs = 0, out = 0, revadj = 1, dur = 0.25|
var output, rdphs, bufsize, trig, del_trig, real_loc, env, bufrate, startend, bufscaledsr;
bufsize = BufFrames.kr(buf);
bufrate = BufRateScale.kr(buf)*rate;
bufscaledsr = abs(rate)*BufSampleRate.kr(buf);
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
real_loc = Select.kr(((-1*rate) * revadj) > 0, [real_loc, real_loc + (dur*bufscaledsr)]);
real_loc = Clip.kr(real_loc, 0, bufsize);
startend = Select.kr(rate >= 0, [[0, real_loc], [real_loc,bufsize]]);
rdphs = Phasor.ar(0, bufrate, startend[0], startend[1], real_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = BufRd.ar(1, buf, rdphs);
output = output*env;
output = Pan2.ar(output, pan);
Out.ar(out,output * amp);
}).add;
SynthDef(\dxkPNobuS, {|buf, gate = 1, loc = 0, ramp = 0.001, rate = 1, amp = 1, pan = 0, relabs = 0, out = 0, revadj = 1, dur = 0.25|
var output, rdphs, bufsize, trig, del_trig, real_loc, env, panner, panout, bufrate, startend, bufscaledsr;
bufsize = BufFrames.kr(buf);
bufrate = BufRateScale.kr(buf) * rate;
bufscaledsr = abs(rate)*BufSampleRate.kr(buf);
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
real_loc = Select.kr(((-1*rate) * revadj) > 0, [real_loc, real_loc + (dur*bufscaledsr)]);
real_loc = Clip.kr(real_loc, 0, bufsize);
startend = Select.kr(rate >= 0, [[0, real_loc], [real_loc,bufsize]]);
rdphs = Phasor.ar(0, bufrate, startend[0], startend[1], real_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = BufRd.ar(2, buf, rdphs);
//l -> l: 1 : 1 -> 0
//l -> r: 0 : 0 -> 1
//r -> r: 0 -> 1 : 1
//r -> l: 1->0 : 0
panner = Clip.kr([ (1 - pan), pan, (1 + pan), (-1 * pan)], 0, 1);
panout = [Mix.ar(output * [panner[0], panner[3]]), Mix.ar(output * [panner[1], panner[2]])];
output = panout*env;
//output = Pan2.ar(output,pan);
Out.ar(out,output * amp);
}).add;
SynthDef(\dxkPNobuStutM, {|buf, gate = 1, loc = 0, rate = 1, stut = 0,
maxdelay = 1, stutlen = 0.1, amp = 1, pan = 0, ramp = 0.001, stutramp = 0.001, relabs = 0, out = 0, revadj = 1, dur = 0.25|
//stutlen is in real time seconds
//regular nobu vars
var output, rdphs, bufsize, trig, del_trig, real_loc, env, bufrate, startend, bufscaledsr;
//stutter vars
var stutout, delptr, clock, stuttrig, stutenv;
bufsize = BufFrames.kr(buf);
bufrate = BufRateScale.kr(buf)*rate;
bufscaledsr = abs(rate)*BufSampleRate.kr(buf);
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
real_loc = Select.kr(((-1*rate) * revadj) > 0, [real_loc, real_loc + (dur*bufscaledsr)]);
real_loc = Clip.kr(real_loc, 0, bufsize);
startend = Select.kr(rate >= 0, [[0, real_loc], [real_loc,bufsize]]);
rdphs = Phasor.ar(0, bufrate, startend[0], startend[1], real_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = BufRd.ar(1, buf, rdphs);
//now the stuttering stuff
stuttrig = HPZ1.kr(stut);
clock = Phasor.ar(stuttrig, stutlen.reciprocal/SampleRate.ir);
clock = (clock - Delay1.ar(clock)) < 0;
delptr = Clip.ar(Sweep.ar(stuttrig), 0, maxdelay);
delptr = Latch.ar(delptr, clock);
stutenv = EnvGen.ar(Env.asr(stutramp, 1, stutramp), clock);
stutout = DelayL.ar(output, maxdelay, delptr);
output = XFade2.ar(output, stutout, Lag.kr(stut*2-1, stutramp));
output = output*env;
output = Pan2.ar(output, pan);
Out.ar(out,output * amp);
}).add;
SynthDef(\dxkPNobuStutS, {|buf, gate = 1, loc = 0, rate = 1, stut = 0,
maxdelay = 1, stutlen = 0.1, amp = 1, ramp = 0.001, stutramp = 0.001, relabs = 0, pan = 0, out = 0, revadj = 1, dur = 0.25|
//stutlen is in real time seconds
//regular nobu vars
var output, rdphs,bufsize, trig, del_trig, real_loc, env, bufrate, startend, bufscaledsr;
//stutter vars
var stutout, delptr, clock, stuttrig, stutenv;
var panout, panner;
bufsize = BufFrames.kr(buf);
bufrate = BufRateScale.kr(buf) * rate;
bufscaledsr = abs(rate)*BufSampleRate.kr(buf);
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
real_loc = Select.kr(((-1*rate) * revadj) > 0, [real_loc, real_loc + (dur*bufscaledsr)]);
real_loc = Clip.kr(real_loc, 0, bufsize);
startend = Select.kr(rate >= 0, [[0, real_loc], [real_loc,bufsize]]);
rdphs = Phasor.ar(0, bufrate, startend[0], startend[1], real_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = BufRd.ar(2, buf, rdphs);
//now the stuttering stuff
stuttrig = HPZ1.kr(stut);
clock = Phasor.ar(stuttrig, stutlen.reciprocal/SampleRate.ir);
clock = (clock - Delay1.ar(clock)) < 0;
delptr = Clip.ar(Sweep.ar(stuttrig), 0, maxdelay);
delptr = Latch.ar(delptr, clock);
stutenv = EnvGen.ar(Env.asr(stutramp, 1, stutramp), clock);
stutout = DelayL.ar(output, maxdelay, delptr);
output = XFade2.ar(output, stutout, Lag.kr(stut*2-1, stutramp));
//l -> l: 1 : 1 -> 0
//l -> r: 0 : 0 -> 1
//r -> r: 0 -> 1 : 1
//r -> l: 1->0 : 0
panner = Clip.kr([ (1 - pan), pan, (1 + pan), (-1 * pan)], 0, 1);
panout = [Mix.ar(output * [panner[0], panner[3]]), Mix.ar(output * [panner[1], panner[2]])];
output = panout*env;
//output = Pan2.ar(output, pan);
Out.ar(out,output * amp);
}).add;
//for use outside of patterns
SynthDef(\dxkNobuM, {|buf, t_trig = 1, gate = 1, loc = -1, end = -1, rate = 1, out = 0, amp = 1, ramp = 0.001, relabs = 0, pan = 0|
var output, rdphs, bufsize, trig, del_trig, real_loc, small_env, small_gate, bufrate, startend;
var real_end, big_env;
bufsize = BufFrames.kr(buf);
big_env = EnvGen.ar(Env.asr(ramp, 1, ramp), gate, doneAction: 2);
real_end = Select.kr(rate >= 0, [0, bufsize]);
real_end = Select.kr(end >= 0, [real_end, end]);
trig = HPZ1.kr(loc);
trig = (trig < 0) + (trig > 0) +t_trig;
del_trig = TDelay.kr(trig, ramp);
small_gate = SetResetFF.kr(del_trig, trig);
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
real_loc = Clip.kr(real_loc, 0, bufsize);
bufrate = BufRateScale.kr(buf) * rate;
startend = Select.kr(rate >= 0, [[real_end, real_loc], [real_loc, real_end]]);
rdphs = Phasor.ar(trig, bufrate, startend[0], startend[1], real_loc);
small_env = EnvGen.ar(Env.asr(ramp,1,ramp),small_gate);
output = BufRd.ar(1, buf, rdphs);
output = Pan2.ar(output, pan);
output = output * small_env * big_env * amp;
Out.ar(out, output);
}).add;
SynthDef(\dxkNobuStutM, {|buf, t_trig = 1, gate = 1, loc = -1, end = -1, rate = 1, stut = 0,
maxdelay = 1, stutlen = 0.1, amp = 1, ramp = 0.001, stutramp = 0.001, relabs = 0, out = 0, pan = 0|
//stutlen is in real time seconds
//regular nobu vars
var output, rdphs, bufsize, trig, del_trig, real_loc, small_env, small_gate, bufrate, startend;
//stutter vars
var stutout, delptr, clock, stuttrig, stutenv;
var real_end, big_env;
bufsize = BufFrames.kr(buf);
big_env = EnvGen.ar(Env.asr(ramp, 1, ramp), gate, doneAction: 2);
real_end = Select.kr(rate >= 0, [0, bufsize]);
real_end = Select.kr(end >= 0, [real_end, end]);
trig = HPZ1.kr(loc);
trig = (trig < 0) + (trig > 0) +t_trig;
del_trig = TDelay.kr(trig, ramp);
small_gate = SetResetFF.kr(del_trig, trig);
bufrate = BufRateScale.kr(buf) * rate;
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
real_loc = Clip.kr(real_loc, 0, bufsize);
startend = Select.kr(rate >= 0, [[real_end, real_loc], [real_loc, real_end]]);
rdphs = Phasor.ar(trig, bufrate, startend[0], startend[1], real_loc);
small_env = EnvGen.ar(Env.asr(ramp,1,ramp),small_gate);
output = BufRd.ar(1, buf, rdphs);
output = Pan2.ar(output, pan);
//now the stuttering stuff
stuttrig = HPZ1.kr(stut);
clock = Phasor.ar(stuttrig, stutlen.reciprocal/SampleRate.ir);
clock = (clock - Delay1.ar(clock)) < 0;
delptr = Clip.ar(Sweep.ar(stuttrig), 0, maxdelay);
delptr = Latch.ar(delptr, clock);
stutenv = EnvGen.ar(Env.asr(stutramp, 1, stutramp), clock);
stutout = DelayL.ar(output, maxdelay, delptr);
output = XFade2.ar(output, stutout, Lag.kr(stut*2-1, stutramp));
output = output*small_env * big_env * amp;
//output = Pan2.ar(output, pan);
Out.ar(out,output);
}).add;
SynthDef(\dxkNobuS, {|buf, t_trig = 1, gate = 1, loc = -1, end = -1, rate = 1, ramp = 0.001, relabs = 0, pan = 0, amp = 1, out = 0|
var output, rdphs, bufsize, trig, del_trig, real_loc, small_env, small_gate, bufrate, startend;
var panout, panner;
var real_end, big_env;
bufsize = BufFrames.kr(buf);
big_env = EnvGen.ar(Env.asr(ramp, 1, ramp), gate, doneAction: 2);
real_end = Select.kr(rate >= 0, [0, bufsize]);
real_end = Select.kr(end >= 0, [real_end, end]);
trig = HPZ1.kr(loc);
trig = (trig < 0) + (trig > 0) +t_trig;
del_trig = TDelay.kr(trig, ramp);
small_gate = SetResetFF.kr(del_trig, trig);
bufrate = BufRateScale.kr(buf) * rate;
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
real_loc = Clip.kr(real_loc, 0, bufsize);
startend = Select.kr(rate >= 0, [[real_end, real_loc], [real_loc,real_end]]);
rdphs = Phasor.ar(trig, bufrate, startend[0], startend[1], real_loc);
small_env = EnvGen.ar(Env.asr(ramp,1,ramp),small_gate);
output = BufRd.ar(2, buf, rdphs);
//l -> l: 1 : 1 -> 0
//l -> r: 0 : 0 -> 1
//r -> r: 0 -> 1 : 1
//r -> l: 1->0 : 0
panner = Clip.kr([ (1 - pan), pan, (1 + pan), (-1 * pan)], 0, 1);
panout = [Mix.ar(output * [panner[0], panner[3]]), Mix.ar(output * [panner[1], panner[2]])];
output = panout*small_env* big_env*amp;
Out.ar(out, output);
}).add;
SynthDef(\dxkNobuStutS, {|buf, t_trig = 1, gate = 1, loc = -1, end = -1, rate = 1, stut = 0,
maxdelay = 1, stutlen = 0.1, amp = 1, ramp = 0.001, stutramp = 0.001, relabs = 0, pan = 0, out = 0|
//stutlen is in real time seconds
//regular nobu vars
var output, rdphs,bufsize, trig, del_trig, real_loc, small_env, small_gate, bufrate, startend;
//stutter vars
var stutout, delptr, clock, stuttrig, stutenv;
var panout, panner;
var real_end, big_env;
bufsize = BufFrames.kr(buf);
big_env = EnvGen.ar(Env.asr(ramp, 1, ramp), gate, doneAction: 2);
real_end = Select.kr(rate >= 0, [0, bufsize]);
real_end = Select.kr(end >= 0, [real_end, end]);
trig = HPZ1.kr(loc);
trig = (trig < 0) + (trig > 0) +t_trig;
del_trig = TDelay.kr(trig, ramp);
small_gate = SetResetFF.kr(del_trig, trig);
bufrate = BufRateScale.kr(buf) * rate;
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
real_loc = Clip.kr(real_loc, 0, bufsize);
startend = Select.kr(rate >= 0, [[real_end, real_loc], [real_loc, real_end]]);
rdphs = Phasor.ar(trig, bufrate, startend[0], startend[1], real_loc);
small_env = EnvGen.ar(Env.asr(ramp,1,ramp),small_gate);
output = BufRd.ar(2, buf, rdphs);
//now the stuttering stuff
stuttrig = HPZ1.kr(stut);
clock = Phasor.ar(stuttrig, stutlen.reciprocal/SampleRate.ir);
clock = (clock - Delay1.ar(clock)) < 0;
delptr = Clip.ar(Sweep.ar(stuttrig), 0, maxdelay);
delptr = Latch.ar(delptr, clock);
stutenv = EnvGen.ar(Env.asr(stutramp, 1, stutramp), clock);
stutout = DelayL.ar(output, maxdelay, delptr);
output = XFade2.ar(output, stutout, Lag.kr(stut*2-1, stutramp));
//l -> l: 1 : 1 -> 0
//l -> r: 0 : 0 -> 1
//r -> r: 0 -> 1 : 1
//r -> l: 1->0 : 0
panner = Clip.kr([ (1 - pan), pan, (1 + pan), (-1 * pan)], 0, 1);
panout = [Mix.ar(output * [panner[0], panner[3]]), Mix.ar(output * [panner[1], panner[2]])];
output = panout*small_env* big_env * amp;
//output = Pan2.ar(output, pan);
Out.ar(out,output);
}).add;
//for triggering
SynthDef(\dxkTNobuM, {|buf, t_trig = 1, len = 0.25, loc = 0, rate = 1, amp = 1, pan = 0, ramp = 0.001, relabs = 0, out = 0, revadj = 1|
var output, rdphs, bufsize, trig, del_trig, real_loc, env, bufrate, startend;
var gate, delay_trig, clip_len, trig_len, ask_len, buf_len, bufscaledsr;
bufsize = BufFrames.kr(buf);
bufrate = BufRateScale.kr(buf) * rate;
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
bufscaledsr = abs(rate)*BufSampleRate.kr(buf);
ask_len = Select.kr(BinaryOpUGen('>=', rate, 0), [real_loc, bufsize - real_loc]) * (bufscaledsr.reciprocal);
clip_len = Select.kr(len > 0, [ask_len, Clip.kr(len, 0, ask_len)]);
delay_trig = DelayN.kr(t_trig, clip_len, clip_len);
gate = SetResetFF.kr(t_trig, delay_trig);
real_loc = Select.kr(((-1*rate) * revadj) > 0, [real_loc, real_loc + (len*bufscaledsr)]);
real_loc = Clip.kr(real_loc, 0, bufsize);
startend = Select.kr(rate >= 0, [[0, real_loc], [real_loc,bufsize]]);
rdphs = Phasor.ar(t_trig, bufrate, startend[0], startend[1], real_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = BufRd.ar(1, buf, rdphs);
output = output*env*amp;
output = Pan2.ar(output, pan);
Out.ar(out,output);
}).add;
SynthDef(\dxkTNobuS, {|buf, t_trig = 1, len = 0.25, loc = 0, ramp = 0.001, rate = 1, amp = 1, pan = 0, relabs = 0, out = 0, revadj = 1|
var output, rdphs, bufsize, trig, del_trig, real_loc, env, panner, panout, bufrate, startend;
var gate, delay_trig, clip_len, trig_len, ask_len, buf_len, bufscaledsr;
bufsize = BufFrames.kr(buf);
bufrate = BufRateScale.kr(buf) * rate;
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
bufscaledsr = abs(rate)*BufSampleRate.kr(buf);
ask_len = Select.kr(BinaryOpUGen('>=', rate, 0), [real_loc, bufsize - real_loc]) * (bufscaledsr.reciprocal);
clip_len = Select.kr(len > 0, [ask_len, Clip.kr(len, 0, ask_len)]);
delay_trig = DelayN.kr(t_trig, clip_len, clip_len);
gate = SetResetFF.kr(t_trig, delay_trig);
real_loc = Select.kr(((-1*rate) * revadj) > 0, [real_loc, real_loc + (len*bufscaledsr)]);
real_loc = Clip.kr(real_loc, 0, bufsize);
startend = Select.kr(rate >= 0, [[0, real_loc], [real_loc,bufsize]]);
rdphs = Phasor.ar(t_trig, bufrate, startend[0], startend[1], real_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = BufRd.ar(2, buf, rdphs);
//l -> l: 1 : 1 -> 0
//l -> r: 0 : 0 -> 1
//r -> r: 0 -> 1 : 1
//r -> l: 1->0 : 0
panner = Clip.kr([ (1 - pan), pan, (1 + pan), (-1 * pan)], 0, 1);
panout = [Mix.ar(output * [panner[0], panner[3]]), Mix.ar(output * [panner[1], panner[2]])];
output = panout*env*amp;
//output = Pan2.ar(output,pan);
Out.ar(out,output);
}).add;
SynthDef(\dxkTNobuStutM, {|buf, t_trig = 1, len = 0.25, loc = 0, rate = 1, stut = 0,
maxdelay = 1, stutlen = 0.1, amp = 1, pan = 0, ramp = 0.001, stutramp = 0.001, relabs = 0, out = 0, revadj = 1|
//stutlen is in real time seconds
//regular nobu vars
var output, rdphs, bufsize, trig, del_trig, real_loc, env, bufrate, startend;
//stutter vars
var stutout, delptr, clock, stuttrig, stutenv;
var gate, delay_trig, clip_len, trig_len, ask_len, buf_len, bufscaledsr;
bufsize = BufFrames.kr(buf);
bufrate = BufRateScale.kr(buf) * rate;
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
bufscaledsr = abs(rate)*BufSampleRate.kr(buf);
ask_len = Select.kr(BinaryOpUGen('>=', rate, 0), [real_loc, bufsize - real_loc]) * (bufscaledsr.reciprocal);
clip_len = Select.kr(len > 0, [ask_len, Clip.kr(len, 0, ask_len)]);
delay_trig = DelayN.kr(t_trig, clip_len, clip_len);
gate = SetResetFF.kr(t_trig, delay_trig);
real_loc = Select.kr(((-1*rate) * revadj) > 0, [real_loc, real_loc + (len*bufscaledsr)]);
real_loc = Clip.kr(real_loc, 0, bufsize);
startend = Select.kr(rate >= 0, [[0, real_loc], [real_loc,bufsize]]);
rdphs = Phasor.ar(t_trig, bufrate, startend[0], startend[1], real_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = BufRd.ar(1, buf, rdphs);
//now the stuttering stuff
stuttrig = HPZ1.kr(stut);
clock = Phasor.ar(stuttrig, stutlen.reciprocal/SampleRate.ir);
clock = (clock - Delay1.ar(clock)) < 0;
delptr = Clip.ar(Sweep.ar(stuttrig), 0, maxdelay);
delptr = Latch.ar(delptr, clock);
stutenv = EnvGen.ar(Env.asr(stutramp, 1, stutramp), clock);
stutout = DelayL.ar(output, maxdelay, delptr);
output = XFade2.ar(output, stutout, Lag.kr(stut*2-1, stutramp));
output = output*env*amp;
output = Pan2.ar(output, pan);
Out.ar(out,output);
}).add;
SynthDef(\dxkTNobuStutS, {|buf, t_trig = 1, len = 0.25, loc = 0, rate = 1, stut = 0,
maxdelay = 1, stutlen = 0.1, amp = 1, ramp = 0.001, stutramp = 0.001, relabs = 0, pan = 0, out = 0, revadj = 1|
//stutlen is in real time seconds
//regular nobu vars
var output, rdphs, bufsize, trig, del_trig, real_loc, env, bufrate, startend;
//stutter vars
var stutout, delptr, clock, stuttrig, stutenv;
var panout, panner;
var gate, delay_trig, clip_len, trig_len, ask_len, buf_len, bufscaledsr;
bufsize = BufFrames.kr(buf);
bufrate = BufRateScale.kr(buf) * rate;
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
bufscaledsr = abs(rate)*BufSampleRate.kr(buf);
ask_len = Select.kr(BinaryOpUGen('>=', rate, 0), [real_loc, bufsize - real_loc]) * (bufscaledsr.reciprocal);
clip_len = Select.kr(len > 0, [ask_len, Clip.kr(len, 0, ask_len)]);
delay_trig = DelayN.kr(t_trig, clip_len, clip_len);
gate = SetResetFF.kr(t_trig, delay_trig);
real_loc = Select.kr(((-1*rate) * revadj) > 0, [real_loc, real_loc + (len*bufscaledsr)]);
real_loc = Clip.kr(real_loc, 0, bufsize);
startend = Select.kr(rate >= 0, [[0, real_loc], [real_loc,bufsize]]);
rdphs = Phasor.ar(t_trig, bufrate, startend[0], startend[1], real_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = BufRd.ar(2, buf, rdphs);
//now the stuttering stuff
stuttrig = HPZ1.kr(stut);
clock = Phasor.ar(stuttrig, stutlen.reciprocal/SampleRate.ir);
clock = (clock - Delay1.ar(clock)) < 0;
delptr = Clip.ar(Sweep.ar(stuttrig), 0, maxdelay);
delptr = Latch.ar(delptr, clock);
stutenv = EnvGen.ar(Env.asr(stutramp, 1, stutramp), clock);
stutout = DelayL.ar(output, maxdelay, delptr);
output = XFade2.ar(output, stutout, Lag.kr(stut*2-1, stutramp));
//l -> l: 1 : 1 -> 0
//l -> r: 0 : 0 -> 1
//r -> r: 0 -> 1 : 1
//r -> l: 1->0 : 0
panner = Clip.kr([ (1 - pan), pan, (1 + pan), (-1 * pan)], 0, 1);
panout = [Mix.ar(output * [panner[0], panner[3]]), Mix.ar(output * [panner[1], panner[2]])];
output = panout*env*amp;
//output = Pan2.ar(output, pan);
Out.ar(out,output);
}).add;
//gated version (getting to be complicated, i know)
SynthDef(\dxkGNobuM, {|buf, gate = 1, loc = 0, rate = 1, amp = 1, pan = 0, ramp = 0.001, relabs = 0, out = 0|
var output, rdphs, bufsize, trig, del_trig, real_loc, env, bufrate, startend;
bufsize = BufFrames.kr(buf);
bufrate = BufRateScale.kr(buf) * rate;
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
real_loc = Clip.kr(real_loc, 0, bufsize);
startend = Select.kr(rate >= 0, [[0, real_loc], [real_loc,bufsize]]);
rdphs = Phasor.ar(0, bufrate, startend[0], startend[1], real_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = BufRd.ar(1, buf, rdphs);
output = output*env*amp;
output = Pan2.ar(output, pan);
Out.ar(out,output);
}).add;
SynthDef(\dxkGNobuS, {|buf, gate = 1, loc = 0, ramp = 0.001, rate = 1, amp = 1, pan = 0, relabs = 0, out = 0|
var output, rdphs, bufsize, trig, del_trig, real_loc, env, panner, panout, bufrate, startend;
bufsize = BufFrames.kr(buf);
bufrate = BufRateScale.kr(buf) * rate;
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
real_loc = Clip.kr(real_loc, 0, bufsize);
startend = Select.kr(rate >= 0, [[0, real_loc], [real_loc,bufsize]]);
rdphs = Phasor.ar(0, bufrate, startend[0], startend[1], real_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = BufRd.ar(2, buf, rdphs);
//l -> l: 1 : 1 -> 0
//l -> r: 0 : 0 -> 1
//r -> r: 0 -> 1 : 1
//r -> l: 1->0 : 0
panner = Clip.kr([ (1 - pan), pan, (1 + pan), (-1 * pan)], 0, 1);
panout = [Mix.ar(output * [panner[0], panner[3]]), Mix.ar(output * [panner[1], panner[2]])];
output = panout*env*amp;
//output = Pan2.ar(output,pan);
Out.ar(out,output);
}).add;
SynthDef(\dxkGNobuStutM, {|buf, gate = 1,loc = 0, rate = 1, stut = 0,
maxdelay = 1, stutlen = 0.1, amp = 1, pan = 0, ramp = 0.001, stutramp = 0.001, relabs = 0, out = 0|
//stutlen is in real time seconds
//regular nobu vars
var output, rdphs, bufsize, trig, del_trig, real_loc, env, bufrate, startend;
//stutter vars
var stutout, delptr, clock, stuttrig, stutenv;
bufsize = BufFrames.kr(buf);
bufrate = BufRateScale.kr(buf) * rate;
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
real_loc = Clip.kr(real_loc, 0, bufsize);
startend = Select.kr(rate >= 0, [[0, real_loc], [real_loc,bufsize]]);
rdphs = Phasor.ar(0, bufrate, startend[0], startend[1], real_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = BufRd.ar(1, buf, rdphs);
//now the stuttering stuff
stuttrig = HPZ1.kr(stut);
clock = Phasor.ar(stuttrig, stutlen.reciprocal/SampleRate.ir);
clock = (clock - Delay1.ar(clock)) < 0;
delptr = Clip.ar(Sweep.ar(stuttrig), 0, maxdelay);
delptr = Latch.ar(delptr, clock);
stutenv = EnvGen.ar(Env.asr(stutramp, 1, stutramp), clock);
stutout = DelayL.ar(output, maxdelay, delptr);
output = XFade2.ar(output, stutout, Lag.kr(stut*2-1, stutramp));
output = output*env*amp;
output = Pan2.ar(output, pan);
Out.ar(out,output);
}).add;
SynthDef(\dxkGNobuStutS, {|buf, gate = 1, loc = 0, rate = 1, stut = 0,
maxdelay = 1, stutlen = 0.1, amp = 1, ramp = 0.001, stutramp = 0.001, relabs = 0, pan = 0, out = 0|
//stutlen is in real time seconds
//regular nobu vars
var output, rdphs, bufsize, trig, del_trig, real_loc, env, bufrate, startend;
//stutter vars
var stutout, delptr, clock, stuttrig, stutenv;
var panout, panner;
bufsize = BufFrames.kr(buf);
bufrate = BufRateScale.kr(buf) * rate;
real_loc = Select.kr(relabs % 2, [loc*bufsize, loc]);
real_loc = Clip.kr(real_loc, 0, bufsize);
startend = Select.kr(rate >= 0, [[0, real_loc], [real_loc,bufsize]]);
rdphs = Phasor.ar(0, bufrate, startend[0], startend[1], real_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = BufRd.ar(2, buf, rdphs);
//now the stuttering stuff
stuttrig = HPZ1.kr(stut);
clock = Phasor.ar(stuttrig, stutlen.reciprocal/SampleRate.ir);
clock = (clock - Delay1.ar(clock)) < 0;
delptr = Clip.ar(Sweep.ar(stuttrig), 0, maxdelay);
delptr = Latch.ar(delptr, clock);
stutenv = EnvGen.ar(Env.asr(stutramp, 1, stutramp), clock);
stutout = DelayL.ar(output, maxdelay, delptr);
output = XFade2.ar(output, stutout, Lag.kr(stut*2-1, stutramp));
//l -> l: 1 : 1 -> 0
//l -> r: 0 : 0 -> 1
//r -> r: 0 -> 1 : 1
//r -> l: 1->0 : 0
panner = Clip.kr([ (1 - pan), pan, (1 + pan), (-1 * pan)], 0, 1);
panout = [Mix.ar(output * [panner[0], panner[3]]), Mix.ar(output * [panner[1], panner[2]])];
output = panout*env*amp;
//output = Pan2.ar(output, pan);
Out.ar(out,output);
}).add;
// WARPER VERSIONS ==================
//for use with patterns
SynthDef(\dxkPWNobuM, {|buf, gate = 1, loc = 0, rate = 1, amp = 1, pan = 0, ramp = 0.001, relabs = 0, out = 0, revadj = 1, dur = 0.25,
freqscale = 1, winsize = 0.1, envbufnum = -1, overlap = 8, winrand = 0.5, interp = 2|
var output, rdphs, bufsize, trig, del_trig, env, startend;
var rel_loc, bufdur;
bufsize = BufFrames.kr(buf);
bufdur = BufDur.kr(buf);
rel_loc = Select.kr(relabs % 2, [loc, loc/bufsize]);
rel_loc = Select.kr(((-1*rate) * revadj) > 0, [rel_loc, rel_loc + (dur * rate/bufdur)]);
rel_loc = Clip.kr(rel_loc, 0, 1);
startend = Select.kr(rate >= 0, [[0, rel_loc], [rel_loc,1]]);
rdphs = Phasor.ar(0, (rate * BufRateScale.kr(buf))/bufsize, startend[0], startend[1], rel_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = Warp1.ar(1, buf, rdphs, freqscale, winsize, envbufnum, overlap, winrand, interp);
output = output*env*amp;
output = Pan2.ar(output, pan);
Out.ar(out,output);
}).add;
SynthDef(\dxkPWNobuS, {|buf, gate = 1, loc = 0, ramp = 0.001, rate = 1, amp = 1, pan = 0, relabs = 0, out = 0, revadj = 1, dur = 0.25,
freqscale = 1, winsize = 0.1, envbufnum = -1, overlap = 8, winrand = 0.5, interp = 2|
var output, rdphs, bufsize, trig, del_trig, env, panner, panout, startend;
var rel_loc, bufdur;
bufsize = BufFrames.kr(buf);
bufdur = BufDur.kr(buf);
rel_loc = Select.kr(relabs % 2, [loc, loc/bufsize]);
rel_loc = Select.kr(((-1*rate) * revadj) > 0, [rel_loc, rel_loc + (dur * rate/bufdur)]);
rel_loc = Clip.kr(rel_loc, 0, 1);
startend = Select.kr(rate >= 0, [[0, rel_loc], [rel_loc,1]]);
rdphs = Phasor.ar(0, (rate * BufRateScale.kr(buf))/bufsize, startend[0], startend[1], rel_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = Warp1.ar(2, buf, rdphs, freqscale, winsize, envbufnum, overlap, winrand, interp);
//l -> l: 1 : 1 -> 0
//l -> r: 0 : 0 -> 1
//r -> r: 0 -> 1 : 1
//r -> l: 1->0 : 0
panner = Clip.kr([ (1 - pan), pan, (1 + pan), (-1 * pan)], 0, 1);
panout = [Mix.ar(output * [panner[0], panner[3]]), Mix.ar(output * [panner[1], panner[2]])];
output = panout*env*amp;
//output = Pan2.ar(output,pan);
Out.ar(out,output);
}).add;
SynthDef(\dxkPWNobuStutM, {|buf, gate = 1, loc = 0, rate = 1, stut = 0,
maxdelay = 1, stutlen = 0.1, amp = 1, pan = 0, ramp = 0.001, stutramp = 0.001, relabs = 0, out = 0, revadj = 1, dur = 0.25,
freqscale = 1, winsize = 0.1, envbufnum = -1, overlap = 8, winrand = 0.5, interp = 2|
//stutlen is in real time seconds
//regular nobu vars
var output, rdphs, bufsize, trig, del_trig, env,startend;
//stutter vars
var stutout, delptr, clock, stuttrig, stutenv;
var rel_loc, bufdur;
bufsize = BufFrames.kr(buf);
bufdur = BufDur.kr(buf);
rel_loc = Select.kr(relabs % 2, [loc, loc/bufsize]);
rel_loc = Select.kr(((-1*rate) * revadj) > 0, [rel_loc, rel_loc + (dur * rate/bufdur)]);
rel_loc = Clip.kr(rel_loc, 0, 1);
startend = Select.kr(rate >= 0, [[0, rel_loc], [rel_loc,1]]);
rdphs = Phasor.ar(0, (rate * BufRateScale.kr(buf))/bufsize, startend[0], startend[1], rel_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = Warp1.ar(1, buf, rdphs, freqscale, winsize, envbufnum, overlap, winrand, interp);
//now the stuttering stuff
stuttrig = HPZ1.kr(stut);
clock = Phasor.ar(stuttrig, stutlen.reciprocal/SampleRate.ir);
clock = (clock - Delay1.ar(clock)) < 0;
delptr = Clip.ar(Sweep.ar(stuttrig), 0, maxdelay);
delptr = Latch.ar(delptr, clock);
stutenv = EnvGen.ar(Env.asr(stutramp, 1, stutramp), clock);
stutout = DelayL.ar(output, maxdelay, delptr);
output = XFade2.ar(output, stutout, Lag.kr(stut*2-1, stutramp));
output = output*env*amp;
output = Pan2.ar(output, pan);
Out.ar(out,output);
}).add;
SynthDef(\dxkPWNobuStutS, {|buf, gate = 1, loc = 0, rate = 1, stut = 0,
maxdelay = 1, stutlen = 0.1, amp = 1, ramp = 0.001, stutramp = 0.001, relabs = 0, pan = 0, out = 0, revadj = 1, dur = 0.25,
freqscale = 1, winsize = 0.1, envbufnum = -1, overlap = 8, winrand = 0.5, interp = 2|
//stutlen is in real time seconds
//regular nobu vars
var output, rdphs,bufsize, trig, del_trig, env, startend;
//stutter vars
var stutout, delptr, clock, stuttrig, stutenv;
var panout, panner;
var rel_loc, bufdur;
bufsize = BufFrames.kr(buf);
bufdur = BufDur.kr(buf);
rel_loc = Select.kr(relabs % 2, [loc, loc/bufsize]);
rel_loc = Select.kr(((-1*rate) * revadj) > 0, [rel_loc, rel_loc + (dur * rate/bufdur)]);
rel_loc = Clip.kr(rel_loc, 0, 1);
startend = Select.kr(rate >= 0, [[0, rel_loc], [rel_loc,1]]);
rdphs = Phasor.ar(0, (rate * BufRateScale.kr(buf))/bufsize, startend[0], startend[1], rel_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = Warp1.ar(2, buf, rdphs, freqscale, winsize, envbufnum, overlap, winrand, interp);
//now the stuttering stuff
stuttrig = HPZ1.kr(stut);
clock = Phasor.ar(stuttrig, stutlen.reciprocal/SampleRate.ir);
clock = (clock - Delay1.ar(clock)) < 0;
delptr = Clip.ar(Sweep.ar(stuttrig), 0, maxdelay);
delptr = Latch.ar(delptr, clock);
stutenv = EnvGen.ar(Env.asr(stutramp, 1, stutramp), clock);
stutout = DelayL.ar(output, maxdelay, delptr);
output = XFade2.ar(output, stutout, Lag.kr(stut*2-1, stutramp));
//l -> l: 1 : 1 -> 0
//l -> r: 0 : 0 -> 1
//r -> r: 0 -> 1 : 1
//r -> l: 1->0 : 0
panner = Clip.kr([ (1 - pan), pan, (1 + pan), (-1 * pan)], 0, 1);
panout = [Mix.ar(output * [panner[0], panner[3]]), Mix.ar(output * [panner[1], panner[2]])];
output = panout*env*amp;
//output = Pan2.ar(output, pan);
Out.ar(out,output);
}).add;
//for use outside of patterns
SynthDef(\dxkWNobuM, {|buf, t_trig = 1, gate = 1, loc = -1, end = -1, rate = 1, out = 0, amp = 1, ramp = 0.001, relabs = 0,
freqscale = 1, winsize = 0.1, envbufnum = -1, overlap = 8, winrand = 0.5, interp = 2, pan = 0|
var output, rdphs, bufsize, trig, del_trig, small_env, small_gate, startend;
var rel_loc, bufdur;
var real_end, big_env;
bufsize = BufFrames.kr(buf);
big_env = EnvGen.ar(Env.asr(ramp, 1, ramp), gate, doneAction: 2);
real_end = Select.kr(rate >= 0, [0, 1]);
real_end = Select.kr(end >= 0, [real_end, end]);
trig = HPZ1.kr(loc);
trig = (trig < 0) + (trig > 0) +t_trig;
del_trig = TDelay.kr(trig, ramp);
small_gate = SetResetFF.kr(del_trig, trig);
bufdur = BufDur.kr(buf);
rel_loc = Select.kr(relabs % 2, [loc, loc/bufsize]);
rel_loc = Clip.kr(rel_loc, 0, 1);
startend = Select.kr(rate >= 0, [[real_end, rel_loc], [rel_loc, real_end]]);
rdphs = Phasor.ar(trig, (rate * BufRateScale.kr(buf))/bufsize, startend[0], startend[1], rel_loc);
small_env = EnvGen.ar(Env.asr(ramp,1,ramp), small_gate);
output = Warp1.ar(1, buf, rdphs, freqscale, winsize, envbufnum, overlap, winrand, interp);
output = Pan2.ar(output, pan);
output = output * small_env * big_env * amp;
Out.ar(out, output);
}).add;
SynthDef(\dxkWNobuStutM, {|buf, t_trig = 1, gate = 1, loc = -1, end = -1, rate = 1, stut = 0,
maxdelay = 1, stutlen = 0.1, amp = 1, ramp = 0.001, stutramp = 0.001, relabs = 0, out = 0,
freqscale = 1, winsize = 0.1, envbufnum = -1, overlap = 8, winrand = 0.5, interp = 2, pan = 0|
//stutlen is in real time seconds
//regular nobu vars
var output, rdphs, bufsize, trig, del_trig, small_env, small_gate, startend;
//stutter vars
var stutout, delptr, clock, stuttrig, stutenv;
var rel_loc, bufdur;
var real_end, big_env;
bufsize = BufFrames.kr(buf);
big_env = EnvGen.ar(Env.asr(ramp, 1, ramp), gate, doneAction: 2);
real_end = Select.kr(rate >= 0, [0, 1]);
real_end = Select.kr(end >= 0, [real_end, end]);
trig = HPZ1.kr(loc);
trig = (trig < 0) + (trig > 0) +t_trig;
del_trig = TDelay.kr(trig, ramp);
small_gate = SetResetFF.kr(del_trig, trig);
bufdur = BufDur.kr(buf);
rel_loc = Select.kr(relabs % 2, [loc, loc/bufsize]);
rel_loc = Clip.kr(rel_loc, 0, 1);
startend = Select.kr(rate >= 0, [[real_end, rel_loc], [rel_loc,real_end]]);
rdphs = Phasor.ar(trig, (rate * BufRateScale.kr(buf))/bufsize, startend[0], startend[1], rel_loc);
small_env = EnvGen.ar(Env.asr(ramp,1,ramp),small_gate);
output = Warp1.ar(1, buf, rdphs, freqscale, winsize, envbufnum, overlap, winrand, interp);
output = Pan2.ar(output, pan);
//now the stuttering stuff
stuttrig = HPZ1.kr(stut);
clock = Phasor.ar(stuttrig, stutlen.reciprocal/SampleRate.ir);
clock = (clock - Delay1.ar(clock)) < 0;
delptr = Clip.ar(Sweep.ar(stuttrig), 0, maxdelay);
delptr = Latch.ar(delptr, clock);
stutenv = EnvGen.ar(Env.asr(stutramp, 1, stutramp), clock);
stutout = DelayL.ar(output, maxdelay, delptr);
output = XFade2.ar(output, stutout, Lag.kr(stut*2-1, stutramp));
output = output*small_env*big_env*amp;
//output = Pan2.ar(output, pan);
Out.ar(out,output);
}).add;
SynthDef(\dxkWNobuS, {|buf, t_trig = 1, gate = 1, loc = -1, end = -1, rate = 1, ramp = 0.001, relabs = 0, pan = 0, amp = 1, out = 0,
freqscale = 1, winsize = 0.1, envbufnum = -1, overlap = 8, winrand = 0.5, interp = 2|
var output, rdphs, bufsize, trig, del_trig, small_env, small_gate, startend;
var panout, panner;
var rel_loc, bufdur;
var real_end, big_env;
bufsize = BufFrames.kr(buf);
big_env = EnvGen.ar(Env.asr(ramp, 1, ramp), gate, doneAction: 2);
real_end = Select.kr(rate >= 0, [0, 1]);
real_end = Select.kr(end >= 0, [real_end, end]);
trig = HPZ1.kr(loc);
trig = (trig < 0) + (trig > 0) +t_trig;
del_trig = TDelay.kr(trig, ramp);
small_gate = SetResetFF.kr(del_trig, trig);
bufdur = BufDur.kr(buf);
rel_loc = Select.kr(relabs % 2, [loc, loc/bufsize]);
rel_loc = Clip.kr(rel_loc, 0, 1);
startend = Select.kr(rate >= 0, [[real_end, rel_loc], [rel_loc,real_end]]);
rdphs = Phasor.ar(trig, (rate * BufRateScale.kr(buf))/bufsize, startend[0], startend[1], rel_loc);
small_env = EnvGen.ar(Env.asr(ramp,1,ramp), small_gate);
output = Warp1.ar(2, buf, rdphs, freqscale, winsize, envbufnum, overlap, winrand, interp);
//l -> l: 1 : 1 -> 0
//l -> r: 0 : 0 -> 1
//r -> r: 0 -> 1 : 1
//r -> l: 1->0 : 0
panner = Clip.kr([ (1 - pan), pan, (1 + pan), (-1 * pan)], 0, 1);
panout = [Mix.ar(output * [panner[0], panner[3]]), Mix.ar(output * [panner[1], panner[2]])];
output = panout*small_env* big_env * amp;
Out.ar(out, output);
}).add;
SynthDef(\dxkWNobuStutS, {|buf, t_trig = 1, gate = 1, loc = -1, end = -1, rate = 1, stut = 0,
maxdelay = 1, stutlen = 0.1, amp = 1, ramp = 0.001, stutramp = 0.001, relabs = 0, pan = 0, out = 0,
freqscale = 1, winsize = 0.1, envbufnum = -1, overlap = 8, winrand = 0.5, interp = 2|
//stutlen is in real time seconds
//regular nobu vars
var output, rdphs,bufsize, trig, del_trig, small_env, small_gate, startend;
//stutter vars
var stutout, delptr, clock, stuttrig, stutenv;
var panout, panner;
var rel_loc, bufdur;
var real_end, big_env;
bufsize = BufFrames.kr(buf);
big_env = EnvGen.ar(Env.asr(ramp, 1, ramp), gate, doneAction: 2);
real_end = Select.kr(rate >= 0, [0, 1]);
real_end = Select.kr(end >= 0, [real_end, end]);
trig = HPZ1.kr(loc);
trig = (trig < 0) + (trig > 0) +t_trig;
del_trig = TDelay.kr(trig, ramp);
small_gate = SetResetFF.kr(del_trig, trig);
bufdur = BufDur.kr(buf);
rel_loc = Select.kr(relabs % 2, [loc, loc/bufsize]);
rel_loc = Clip.kr(rel_loc, 0, 1);
startend = Select.kr(rate >= 0, [[real_end, rel_loc], [rel_loc, real_end]]);
rdphs = Phasor.ar(trig, (rate * BufRateScale.kr(buf))/bufsize, startend[0], startend[1], rel_loc);
small_env = EnvGen.ar(Env.asr(ramp,1,ramp),small_gate);
output = Warp1.ar(2, buf, rdphs, freqscale, winsize, envbufnum, overlap, winrand, interp);
//now the stuttering stuff
stuttrig = HPZ1.kr(stut);
clock = Phasor.ar(stuttrig, stutlen.reciprocal/SampleRate.ir);
clock = (clock - Delay1.ar(clock)) < 0;
delptr = Clip.ar(Sweep.ar(stuttrig), 0, maxdelay);
delptr = Latch.ar(delptr, clock);
stutenv = EnvGen.ar(Env.asr(stutramp, 1, stutramp), clock);
stutout = DelayL.ar(output, maxdelay, delptr);
output = XFade2.ar(output, stutout, Lag.kr(stut*2-1, stutramp));
//l -> l: 1 : 1 -> 0
//l -> r: 0 : 0 -> 1
//r -> r: 0 -> 1 : 1
//r -> l: 1->0 : 0
panner = Clip.kr([ (1 - pan), pan, (1 + pan), (-1 * pan)], 0, 1);
panout = [Mix.ar(output * [panner[0], panner[3]]), Mix.ar(output * [panner[1], panner[2]])];
output = panout*small_env* big_env * amp;
//output = Pan2.ar(output, pan);
Out.ar(out,output);
}).add;
//triggered versions
SynthDef(\dxkTWNobuM, {|buf, t_trig = 1, len = 0.25, loc = 0, rate = 1, amp = 1, pan = 0, ramp = 0.001, relabs = 0, out = 0, revadj = 1,
freqscale = 1, winsize = 0.1, envbufnum = -1, overlap = 8, winrand = 0.5, interp = 2|
var output, rdphs, bufsize, trig, del_trig, env, bufrate, startend;
var gate, delay_trig, clip_len, trig_len, ask_len, buf_len;
var rel_loc, bufdur;
bufsize = BufFrames.kr(buf);
bufdur = BufDur.kr(buf);
rel_loc = Select.kr(relabs % 2, [loc, loc/bufsize]);
ask_len = Select.kr(BinaryOpUGen('>=', rate, 0), [rel_loc, 1 - rel_loc]) * bufdur/abs(rate);
clip_len = Select.kr(len > 0, [ask_len, Clip.kr(len, 0, ask_len)]);
delay_trig = DelayN.kr(t_trig, clip_len, clip_len);
gate = SetResetFF.kr(t_trig, delay_trig);
rel_loc = Select.kr(((-1*rate) * revadj) > 0, [rel_loc, rel_loc + (len * rate/bufdur)]);
rel_loc = Clip.kr(rel_loc, 0, 1);
startend = Select.kr(rate >= 0, [[0, rel_loc], [rel_loc,1]]);
rdphs = Phasor.ar(t_trig, (rate * BufRateScale.kr(buf))/bufsize, startend[0], startend[1], rel_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = Warp1.ar(1, buf, rdphs, freqscale, winsize, envbufnum, overlap, winrand, interp);
output = output*env*amp;
output = Pan2.ar(output, pan);
Out.ar(out,output);
}).add;
SynthDef(\dxkTWNobuS, {|buf, t_trig = 1, len = 0.25, loc = 0, ramp = 0.001, rate = 1, amp = 1, pan = 0, relabs = 0, out = 0, revadj = 1,
freqscale = 1, winsize = 0.1, envbufnum = -1, overlap = 8, winrand = 0.5, interp = 2|
var output, rdphs, bufsize, trig, del_trig, env, panner, panout, bufrate, startend;
var gate, delay_trig, clip_len, trig_len, ask_len, buf_len;
var rel_loc, bufdur;
bufsize = BufFrames.kr(buf);
bufdur = BufDur.kr(buf);
rel_loc = Select.kr(relabs % 2, [loc, loc/bufsize]);
ask_len = Select.kr(BinaryOpUGen('>=', rate, 0), [rel_loc, 1 - rel_loc]) * bufdur/abs(rate);
clip_len = Select.kr(len > 0, [ask_len, Clip.kr(len, 0, ask_len)]);
delay_trig = DelayN.kr(t_trig, clip_len, clip_len);
gate = SetResetFF.kr(t_trig, delay_trig);
rel_loc = Select.kr(((-1*rate) * revadj) > 0, [rel_loc, rel_loc + (len * rate/bufdur)]);
rel_loc = Clip.kr(rel_loc, 0, 1);
startend = Select.kr(rate >= 0, [[0, rel_loc], [rel_loc,1]]);
rdphs = Phasor.ar(t_trig, (rate * BufRateScale.kr(buf))/bufsize, startend[0], startend[1], rel_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = Warp1.ar(2, buf, rdphs, freqscale, winsize, envbufnum, overlap, winrand, interp);
//l -> l: 1 : 1 -> 0
//l -> r: 0 : 0 -> 1
//r -> r: 0 -> 1 : 1
//r -> l: 1->0 : 0
panner = Clip.kr([ (1 - pan), pan, (1 + pan), (-1 * pan)], 0, 1);
panout = [Mix.ar(output * [panner[0], panner[3]]), Mix.ar(output * [panner[1], panner[2]])];
output = panout*env*amp;
//output = Pan2.ar(output,pan);
Out.ar(out,output);
}).add;
SynthDef(\dxkTWNobuStutM, {|buf, t_trig = 1, len = 0.25, loc = 0, rate = 1, stut = 0,
maxdelay = 1, stutlen = 0.1, amp = 1, pan = 0, ramp = 0.001, stutramp = 0.001, relabs = 0, out = 0, revadj = 1,
freqscale = 1, winsize = 0.1, envbufnum = -1, overlap = 8, winrand = 0.5, interp = 2|
//stutlen is in real time seconds
//regular nobu vars
var output, rdphs, bufsize, trig, del_trig, env, bufrate, startend;
//stutter vars
var stutout, delptr, clock, stuttrig, stutenv;
var gate, delay_trig, clip_len, trig_len, ask_len, buf_len;
var rel_loc, bufdur;
bufsize = BufFrames.kr(buf);
bufdur = BufDur.kr(buf);
rel_loc = Select.kr(relabs % 2, [loc, loc/bufsize]);
ask_len = Select.kr(BinaryOpUGen('>=', rate, 0), [rel_loc, 1 - rel_loc]) * bufdur/abs(rate);
clip_len = Select.kr(len > 0, [ask_len, Clip.kr(len, 0, ask_len)]);
delay_trig = DelayN.kr(t_trig, clip_len, clip_len);
gate = SetResetFF.kr(t_trig, delay_trig);
rel_loc = Select.kr(((-1*rate) * revadj) > 0, [rel_loc, rel_loc + (len * rate/bufdur)]);
rel_loc = Clip.kr(rel_loc, 0, 1);
startend = Select.kr(rate >= 0, [[0, rel_loc], [rel_loc,1]]);
rdphs = Phasor.ar(t_trig, (rate * BufRateScale.kr(buf))/bufsize, startend[0], startend[1], rel_loc);
env = EnvGen.ar(Env.asr(ramp,1,ramp),gate, doneAction: 2);
output = Warp1.ar(1, buf, rdphs, freqscale, winsize, envbufnum, overlap, winrand, interp);
//now the stuttering stuff
stuttrig = HPZ1.kr(stut);
clock = Phasor.ar(stuttrig, stutlen.reciprocal/SampleRate.ir);
clock = (clock - Delay1.ar(clock)) < 0;
delptr = Clip.ar(Sweep.ar(stuttrig), 0, maxdelay);
delptr = Latch.ar(delptr, clock);
stutenv = EnvGen.ar(Env.asr(stutramp, 1, stutramp), clock);
stutout = DelayL.ar(output, maxdelay, delptr);
output = XFade2.ar(output, stutout, Lag.kr(stut*2-1, stutramp));
output = output*env*amp;
output = Pan2.ar(output, pan);
Out.ar(out,output);
}).add;
SynthDef(\dxkTWNobuStutS, {|buf, t_trig = 1, len = 0.25, loc = 0, rate = 1, stut = 0,
maxdelay = 1, stutlen = 0.1, amp = 1, ramp = 0.001, stutramp = 0.001, relabs = 0, pan = 0, out = 0, revadj = 1,
freqscale = 1, winsize = 0.1, envbufnum = -1, overlap = 8, winrand = 0.5, interp = 2|
//stutlen is in real time seconds
//regular nobu vars
var output, rdphs, bufsize, trig, del_trig, env, bufrate, startend;
//stutter vars
var stutout, delptr, clock, stuttrig, stutenv;