def makeArps(seg, oct=3, reps=4):
arp_degrees = [1,2,3,5,8,9,10]
if dsp.randint(0,1) == 0:
arp_degrees.reverse()
arp_degrees = dsp.rotate(arp_degrees, vary=True)
arp_notes = tune.fromdegrees(arp_degrees[:reps], oct, 'e')
arps = ''
arp_count = 0
for arp_length in seg:
arp_length /= 2
arp_pair = arp_notes[ arp_count % len(arp_notes) ], arp_notes[ (arp_count + 1) % len(arp_notes) ]
arp_one = dsp.tone(arp_length, wavetype='tri', freq=arp_pair[0], amp=0.075)
arp_one = dsp.env(arp_one, 'random')
arp_two = dsp.tone(arp_length, wavetype='tri', freq=arp_pair[1], amp=0.08)
arp_two = dsp.env(arp_two, 'random')
arps += arp_one + arp_two
arp_count += 2
arps = dsp.env(arps, 'random')
arps = dsp.pan(arps, dsp.rand())
return arps
def make_vary(length, freq):
if dsp.rand(0, 100) > 50:
return make_pulse(dsp.tone(length, freq, amp=dsp.rand()))
minlen = dsp.mstf(1)
pulsewidth = int(dsp.rand(minlen, length / 2))
snd = dsp.tone(pulsewidth, freq, amp=dsp.rand(0, 0.2))
snd = dsp.env(snd, dsp.randchoose(['sine', 'tri', 'hann']))
snd = dsp.pad(snd, 0, length - pulsewidth)
return snd
def play(voice_id):
""" Every generator script must define a play() function, which
accepts a voice_id integer (so you can read and write params
for each voice) and returns a sound.
The shortname and name metadata above are optional, if you
don't include them the name will be drawn from the filename
and the shortname will be the first two characters of that name.
"""
# Get the current bpm set in our session
bpm = C('bpm')
# Convert it to a length in frames
beat = dsp.bpm2frames(bpm)
# Read per-instance param, with a default value
volume = P(voice_id, 'volume', default=1.0)
# Get a frequency for the beep
freq = tune.ntf('a', octave=2)
# Beep for a beat
out = dsp.tone(length=beat, freq=freq, wavetype='sine2pi', amp=volume)
# Be silent for a beat after the beep
out = dsp.pad(out, 0, beat)
# Log the length of the computed buffer.
# I like to tail -f pippi.log during performance.
dsp.log('voice %s length: %.2f' % (voice_id, dsp.fts(dsp.flen(out))))
# Pass along the final buffer for playback
return out
def rhodes(length=22050, freq=220.0, amp=0.5, wavetype='sine'):
partials = [
# Multiple, amplitude, duration
[1, 0.6, 1.0],
[2, 0.25, 0.35],
[3, 0.08, 0.15],
[4, 0.005, 0.04],
]
layers = []
for plist in partials:
partial = dsp.tone(freq=plist[0] * freq, length=length, amp=plist[1], wavetype=wavetype)
env_length = (length * plist[2] * 2) / 32
if env_length <= 2:
env_length = 4
wtable = dsp.wavetable('hann', int(env_length))
wtable = wtable[int(env_length / 2):]
wtable.extend([0 for i in range(length - len(wtable))])
partial = dsp.split(partial, 32)
partial = [ dsp.amp(partial[i], wtable[i]) for i in range(len(partial)) ]
layer = ''.join(partial)
layers += [ layer ]
out = dsp.mix(layers)
noise = dsp.amp(dsp.bln(dsp.flen(out) * 2, 2000, 20000), 0.005)
noise = dsp.fill(noise, dsp.flen(out))
out = dsp.mix([out, noise])
out = dsp.amp(out, amp)
return out
def rhodes(total_time, freq=220.0, ampscale=0.5):
partials = [
# Multiple, amplitude, duration
[1, 0.6, 1.0],
[2, 0.25, 0.35],
[3, 0.08, 0.15],
[4, 0.005, 0.04],
]
layers = []
for plist in partials:
partial = dsp.tone(freq=plist[0] * freq, length=total_time, amp=plist[1] * ampscale)
env_length = (total_time * plist[2] * 2) / 32
wtable = dsp.wavetable('hann', int(env_length))
wtable = wtable[int(env_length / 2):]
wtable.extend([0 for i in range(total_time - len(wtable))])
print env_length, len(wtable), dsp.flen(partial)
partial = dsp.split(partial, 32)
partial = [ dsp.amp(partial[i], wtable[i]) for i in range(len(partial)) ]
layer = ''.join(partial)
layers += [ layer ]
out = dsp.mix(layers)
noise = dsp.amp(dsp.bln(dsp.flen(out) * 2, 2000, 20000), 0.005)
noise = dsp.fill(noise, dsp.flen(out))
out = dsp.mix([out, noise])
return out
def ping(maxlen=44100, freqs=None):
out = ''
if freqs is None:
freqs = [ dsp.rand(20,10000) for i in range(4) ]
tlen = dsp.randint(10, maxlen)
tones = [ dsp.tone(length=tlen, freq=freq, amp=0.1, wavetype='random')
for freq in freqs ]
tones = [ dsp.split(tone, 64) for tone in tones ]
pcurves = [ dsp.breakpoint([ dsp.rand() for t in range(len(tones[i]) / 20) ],
len(tones[i])) for i in range(len(tones)) ]
tones = [ [ dsp.pan(t, pcurves[i][ti]) for ti, t in enumerate(tones[i]) ]
for i in range(len(tones)) ]
fcurves = [ dsp.breakpoint([ dsp.rand(0.0, 0.1) + 0.9 for t in range(len(tones[i]) / 20) ],
len(tones[i])) for i in range(len(tones)) ]
tones = [ [ dsp.transpose(t, fcurves[i][ti] + 0.1) for ti, t in enumerate(tones[i]) ]
for i in range(len(tones)) ]
out = dsp.mix([ dsp.env(''.join(tone), 'random') for tone in tones ])
out = dsp.env(out, 'random')
out = dsp.pad(out, 0, dsp.randint(0, maxlen * 3))
return out
def rhodes(total_time, freq=220.0, ampscale=0.5):
partials = [
# Multiple, amplitude, duration
[1, 0.6, 1.0],
[2, 0.25, 0.35],
[3, 0.08, 0.15],
[4, 0.005, 0.04],
]
layers = []
for plist in partials:
partial = dsp.tone(freq=plist[0] * freq,
length=total_time,
amp=plist[1] * ampscale)
env_length = (total_time * plist[2] * 2) / 32
wtable = dsp.wavetable('hann', int(env_length))
wtable = wtable[int(env_length / 2):]
wtable.extend([0 for i in range(total_time - len(wtable))])
print env_length, len(wtable), dsp.flen(partial)
partial = dsp.split(partial, 32)
partial = [dsp.amp(partial[i], wtable[i]) for i in range(len(partial))]
layer = ''.join(partial)
layers += [layer]
out = dsp.mix(layers)
noise = dsp.amp(dsp.bln(dsp.flen(out) * 2, 2000, 20000), 0.005)
noise = dsp.fill(noise, dsp.flen(out))
out = dsp.mix([out, noise])
return out
def play(args):
length = dsp.stf(0.2)
volume = 0.2
octave = 2
notes = ['d', 'a']
quality = tune.major
waveform = 'sine'
ratios = tune.terry
wtypes = ['sine', 'phasor', 'line', 'saw']
for arg in args:
a = arg.split(':')
if a[0] == 't':
length = dsp.stf(float(a[1]))
if a[0] == 'v':
volume = float(a[1]) / 100.0
if a[0] == 'o':
octave = int(a[1])
if a[0] == 'n':
notes = a[1].split('.')
if a[0] == 'q':
if a[1] == 'M':
quality = tune.major
elif a[1] == 'm':
quality = tune.minor
else:
quality = tune.major
if a[0] == 'tr':
ratios = getattr(tune, a[1], tune.terry)
harm = range(1, 12)
layers = []
for note in notes:
freq = tune.ntf(note, octave, ratios)
#tonic = dsp.env(dsp.amp(dsp.tone(length, freq, 'sine2pi'), 0.2), 'phasor') * 500
tones = []
for t in range(4):
angles = dsp.breakpoint([ freq * dsp.randchoose(harm) for f in range(dsp.randint(2, 20)) ], 100)
angles = [ dsp.env(dsp.tone(length, a, 'sine2pi'), 'sine', amp=0.2) for a in angles ]
tones += [ ''.join(angles) ]
#layer = dsp.benv(dsp.mix(tones), [ dsp.rand(0.1, 0.7) for i in range(dsp.randint(5, 30)) ])
layers += [ dsp.mix(tones) ]
#layers += [ dsp.mix([layer, tonic]) ]
#layers += [ layer ]
out = dsp.mix(layers)
return dsp.amp(out, volume)
def test_tone():
out = dsp.tone(length=dsp.stf(1),
freq=220,
wavetype='sine2pi',
amp=1,
phase=0,
offset=0)
assert dsp.flen(out) == dsp.stf(1)
def bass(amp, length, oct=2):
if amp == 0:
return dsp.pad('', 0, length)
#bass_note = ['d', 'g', 'a', 'b'][ bassPlay % 4 ]
bass_note = ['e', 'a', 'b', 'c#'][ bassPlay % 4 ]
out = dsp.tone(length, wavetype='square', freq=tune.ntf(bass_note, oct), amp=amp*0.2)
out = dsp.env(out, 'random')
return out
def play(params):
length = params.get('length', dsp.stf(2))
reps = params.get('repeats', 4)
out = ''
stream = []
for rep in range(reps):
stream += [ ('/tick/6', 1, dsp.fts(length / 2)) ]
stream += [ ('/tick/6', 0, dsp.fts(length / 2)) ]
out += dsp.pad(dsp.amp(dsp.tone(length / 2), 0.1), 0, length/ 2)
return (out, {'value': {'events': [ stream ]}})
def make_vary(index, length, freq):
def i(index, offset):
return ((index + offset) % nump) / float(nump)
pulsewidth = int(pnoise1(i(index, 100), 2) * (length / 2))
snd = dsp.tone(pulsewidth, freq, amp=pnoise1(i(index, 99), 3) * 0.5)
snd = dsp.env(snd, 'sine')
snd = dsp.pad(snd, 0, length - pulsewidth)
return snd
def make_tracks(numtracks):
tracks = range(numtracks)
g.db.execute('delete from `blocks`;')
# Testing out display of rendered blocks
for i, track in enumerate(tracks):
blocks = range(dsp.randint(1, 5))
# for each sound:
for j, snd in enumerate(blocks):
# render it.
snd = dsp.tone(dsp.stf(dsp.rand(0.5, 5)))
# filename is track_id-block_id.wav for now
filename = "%i-%i-%i" % (i, j, 0)
# write it to disk
dsp.write(snd, 'static/sounds/%s' % filename)
# Calc length in pixels from frames
length = dsp.flen(snd)
pxlength = "%ipx" % (length / 441,)
slength = "%02fs" % dsp.fts(length)
offset = dsp.stf(dsp.rand(0, 60))
# save in the db
block = (
0,
0,
i,
length,
length,
offset,
filename,
)
g.db.execute('insert into `blocks` (version, generator_id, track_id, length, range, offset, filename) values (?, ?, ?, ?, ?, ?, ?)',
block)
c = g.db.cursor()
block_id = c.lastrowid()
# block is a tuple:
# (block index, filename, length in pixels, offset in pixels)
blocks[j] = (block_id, filename, slength, ftpx(length), ftpx(offset))
tracks[i] = blocks
g.db.commit()
return tracks
def arpeggiate(freq, phraseLen=8, even=True):
"""
input:
freq: a number in hertz (just for fun) in the future, I will have a hertz to actual notes mapping table
phraseLen: how long the length needs to be
even: if the Phrases should evenly be subdivided
output:
an array of notes
"""
arr=[]
if phraseLen < 2:
print "this makes negative sense, please stop"
return
if even == True:
#say we have 8, that means our 'even' cases would be 4, 2
# for 9 our case would be 3
# for 10 it would be 5, 2
# and so on.., essentially I need all factors of a number, then choose a random one,
#if it were in R, I would weigh higher probability on the lower number
newPhraseLen=random.sample(factor(phraseLen),1)[0]
print newPhraseLen
#say we chose 8 and we have 4, then I want 4 phrases of 2
for subdivided in range(newPhraseLen):
for note in range(phraseLen/newPhraseLen):
arr.append(dsp.tone(dsp.stf(255),freq* (note+1),'sine2pi', 0.2))
else:
#I would have to make random tree, by this I mean
#for 8 It could not be 4,4
#it could be 5,3 or 3,3,2 or 3,2,3 or 2,3,3 or 2,2,3,1 or..
#calculate like 4 or 5 of them, then return one
rs=randSubdivide(phraseLen)
for number in rs:
for subdivided in range(newPhraseLen):
for note in range(phraseLen/newPhraseLen):
arr.append(dsp.tone(dsp.stf(5),freq,'sine2pi', 0.2))
return arr
def makeTails(self, freq, length):
freq *= 0.5
harmonics = [ dsp.randint(1, 8) for _ in range(2, 4) ]
layers = []
for harmonic in harmonics:
layer = dsp.tone(length, freq * harmonic, amp=dsp.rand(0.1, 0.3))
layer = fx.penv(layer)
layer = dsp.env(layer, 'sine')
layers += [ layer ]
layers = dsp.mix(layers)
layers = dsp.amp(layers, dsp.rand(0.25, 1))
return layers
def play(voice_id):
tel = bot.getTel()
freqs = tune.fromdegrees([ dsp.randchoose([1, 2, 3, 5, 6, 8]) for f in range(dsp.randint(2, 5)) ], root='c', octave=dsp.randint(1, 3), ratios=tune.just)
out = ''
for freq in freqs:
waveform = dsp.randchoose(['tri', 'sine2pi'])
length = dsp.randint(dsp.mstf(10), dsp.mstf(300))
#length = dsp.mstf(150)
pulsewidth = dsp.rand()
mod = dsp.breakpoint([ dsp.rand() for b in range(int(round(tel['density'])) + 3) ], 512)
window = dsp.breakpoint([0] + [ dsp.rand() for b in range(int(round(tel['harmonicity'] * 2)) + 3) ] + [0], 512)
waveform = dsp.breakpoint([0] + [ dsp.rand(-1, 1) for b in range(int(round(tel['roughness'] * 3)) + 3) ] + [0], 512)
modRange = 0.005
modFreq = dsp.rand(0.0001, 5)
volume = dsp.rand(0.2, 0.3)
if dsp.rand(0, 100) > 50:
t = dsp.pulsar(freq, length, pulsewidth, waveform, window, mod, modRange, modFreq, volume)
else:
t = dsp.tone(length, freq, waveform)
#t = dsp.pulsar(freq, length, pulsewidth, waveform, window, mod, modRange, modFreq, volume)
#t = dsp.tone(length, freq, waveform)
t = dsp.pan(t, dsp.rand())
t = dsp.alias(t)
t = dsp.amp(t, dsp.rand(0.5, 5.0))
t = dsp.pad(t, 0, dsp.randint(dsp.mstf(1), dsp.mstf(500)))
#t = dsp.pad(t, 0, dsp.mstf(100))
t = dsp.amp(t, dsp.rand(0.5, 0.75))
#out += dsp.env(t, 'sine')
out += t
#out = dsp.env(t, 'sine')
dsp.log('')
dsp.log('boone')
dsp.log('%s length: %.2f' % (voice_id, dsp.fts(dsp.flen(out))))
bot.show_telemetry(tel)
return out
def bass(amp, length, oct=2):
if amp == 0:
return dsp.pad('', 0, length)
#bass_note = ['d', 'g', 'a', 'b'][ bassPlay % 4 ]
bass_note = ['e', 'a', 'b', 'c#'][bassPlay % 4]
out = dsp.tone(length,
wavetype='square',
freq=tune.ntf(bass_note, oct),
amp=amp * 0.2)
out = dsp.env(out, 'random')
return out
def makeArps(seg, oct=3, reps=4):
arp_degrees = [1, 2, 3, 5, 8, 9, 10]
if dsp.randint(0, 1) == 0:
arp_degrees.reverse()
arp_degrees = dsp.rotate(arp_degrees, vary=True)
arp_notes = tune.fromdegrees(arp_degrees[:reps], oct, 'e')
arps = ''
arp_count = 0
for arp_length in seg:
arp_length /= 2
arp_pair = arp_notes[arp_count %
len(arp_notes)], arp_notes[(arp_count + 1)
%
len(arp_notes)]
arp_one = dsp.tone(arp_length,
wavetype='tri',
freq=arp_pair[0],
amp=0.075)
arp_one = dsp.env(arp_one, 'random')
arp_two = dsp.tone(arp_length,
wavetype='tri',
freq=arp_pair[1],
amp=0.08)
arp_two = dsp.env(arp_two, 'random')
arps += arp_one + arp_two
arp_count += 2
arps = dsp.env(arps, 'random')
arps = dsp.pan(arps, dsp.rand())
return arps
def play(ctl):
param = ctl.get('param')
lpd = ctl.get('midi').get('lpd')
freqs = [25, 55, 109, 222, 440, 550, 660, 770, 880]
freqs = [55, 110, 440, 220, 880]
length = dsp.mstf(dsp.rand(100, 2000))
length = dsp.mstf(3000)
layers = []
for freq in freqs:
freq = freq * 4 + dsp.rand(0.1, 1.5)
if freq < 100:
amp = 0.3
else:
amp = 0.01
layer = dsp.mix([ dsp.tone(length, freq, amp=amp), dsp.tone(length, freq + dsp.rand(1, 10), amp=amp) ])
layers += [ layer ]
out = dsp.mix(layers)
return out
def make_layer(freq):
out = dsp.tone(length, freq, amp=0.2)
out = dsp.vsplit(out, dsp.mstf(10), dsp.mstf(2500))
for i, o in enumerate(out):
if dsp.randint(0, 100) > 50:
out[i] = make_pulse(o)
else:
out[i] = make_vary(o)
out = [ dsp.amp(o, dsp.rand(0, 1)) for o in out ]
out = ''.join(out)
return out
def play(ctl):
param = ctl.get('param')
lpd = ctl.get('midi').get('lpd')
freqs = [
(10000, 15000),
(5000, 15000),
(5000, 10000),
]
low = dsp.rand(50, 100)
high = dsp.rand(80, 120)
low = 80
high = 120
wform = 'sine2pi'
amp = lpd.get(5, low=0, high=1, default=0)
low = dsp.rand(low * 0.9, low)
high = dsp.rand(high, high * 1.1)
length = dsp.mstf(lpd.get(1, low=10, high=900))
if dsp.rand() > 10.5:
length = length / 2
pulselength = lpd.geti(2, low=dsp.mstf(10), high=length, default=length)
out = dsp.bln(pulselength, low, high, wform)
out = dsp.env(out, 'phasor')
if dsp.rand() > 10.1:
beep = dsp.tone(dsp.flen(out), dsp.rand(12000, 12000), amp=dsp.rand(0.5, 1))
out = dsp.mix([out, beep])
out = dsp.drift(out, dsp.rand(0, 1))
out = dsp.pad(out, 0, length - dsp.flen(out))
out = dsp.pan(out, dsp.rand())
out = dsp.amp(out, amp)
return out
def make_cycles(length):
""" Well begun, half done """
num_harmonics = dsp.randint(1, 6)
val_harmonics = [1, 2, 3, dsp.randint(4, 7), dsp.randint(5, 9)]
# Each collection of partials
min_length = dsp.stf(10)
max_length = dsp.stf(18)
root = 40.0 # hz
# Deviate
root = root + dsp.rand()
elapsed = 0
cycles = []
# Count off
while elapsed < length:
cycle_length = dsp.randint(min_length, max_length)
harmonics = [
dsp.tone(
length=cycle_length,
freq=root * dsp.randchoose(val_harmonics),
amp=dsp.rand(0.1, 0.4),
wavetype='impulse'
)
for h in range(num_harmonics) ]
harmonics = [ dsp.pan(harmonic, dsp.rand()) for harmonic in harmonics ]
harmonics = [ dsp.env(harmonic, 'gauss') for harmonic in harmonics ]
cycles += [ dsp.mix(harmonics) ]
elapsed += cycle_length
return ''.join(cycles)
def main():
#since how this Library works it's a bit uncertain how to change channels in real time, for now just write a cut off, since an intterrupt won't work with the channels
#out = [dsp.tone(dsp.stf(5),55*i , 'sine2pi',0.2) for i in range(1,5)]
#dsp.write(out, 'helloagain')
out=[]
notes=0
#start = time.time()
#while time.time()-start < 100000:
while notes<25:
serialInput= ser.readline().split()
# print serialInput
# serialInput = serialInput.split()
if len(serialInput) == 4:
instrument=int(float(serialInput[0]))+1 # pin number
amplitude=(int(float(serialInput[1]))%10)/10.0 #humidity
freq=float(serialInput[2])*(instrument+1)*10 #temperature
tempo=float(serialInput[3]) #tempo
else:
instrument=1 # pin number
amplitude=0.2 #humidity
freq=440 #temperature
tempo=14 #tempo
#print serialInput
#print freq
out.append(dsp.tone(dsp.stf(instrument),freq,'sine2pi', amplitude))
# print notes
notes+=1
#print out
#out = [dsp.env(o , sine'])) for o in out]
out = [dsp.env(o , dsp.randchoose(['hann', 'tri', 'sine'])) for o in out]
out = dsp.mix(out)
dsp.write(out, 'sample')
def play(ctl):
param = ctl.get('param')
lpd = ctl.get('midi').get('lpd')
pc = ctl.get('midi').get('pc')
#pc.setOffset(111)
gamut = {
'high': [
(10000, 15000),
(5000, 15000),
(5000, 10000),
],
'mid': [
(1000, 5000),
(1000, 2000),
],
'pitch': [
tuple([ dsp.rand(500, 2000) for p in range(2) ]),
tuple([ dsp.rand(100, 1000) for p in range(2) ]),
tuple([ dsp.rand(1000, 5000) for p in range(2) ]),
],
'low': [
(20, 5000),
(30, 10000),
(40, 10000),
]
}
area = param.get('wash-area', default='high')
area = dsp.randchoose(['high', 'mid', 'pitch', 'low'])
area = 'pitch'
dsp.log(area)
freqs = dsp.randchoose(gamut[area])
freqscale = pc.get(16, low=0.125, high=2, default=1)
#freqscale = dsp.rand(0.125, 2)
low = freqs[0] * freqscale
high = freqs[1] * freqscale
wform = dsp.randchoose(['sine2pi', 'tri', 'vary', 'square'])
timescale = pc.get(17, low=1, high=4, default=1)
#timescale = dsp.rand(1, 4)
lengthscale = pc.get(18, low=0.125, high=2.5)
#lengthscale = dsp.rand(0.125, 2.5)
amp = pc.get(0, low=0, high=0.5, default=0.5)
#amp = dsp.rand(0, 0.5)
if area == 'high':
low = dsp.rand(low * 0.9, low)
high = dsp.rand(high, high * 1.1)
length = dsp.stf(dsp.rand(0.01, 0.3) * lengthscale)
out = dsp.bln(length, low, high, wform)
out = dsp.env(out, 'phasor')
if dsp.rand() > 10.5:
beep = dsp.tone(dsp.flen(out), high * 2, amp=dsp.rand(0.5, 1))
out = dsp.mix([out, beep])
out = dsp.pad(out, 0, dsp.mstf(dsp.rand(1, 400) * timescale))
out = out * dsp.randint(1, 3)
out = dsp.drift(out, dsp.rand(0, 1))
elif area == 'mid':
low = dsp.rand(low * 0.9, low)
high = dsp.rand(high, high * 1.1)
length = dsp.stf(dsp.rand(0.01, 0.5) * lengthscale)
out = dsp.bln(length, low, high, wform)
out = dsp.env(out, 'random')
if timescale > 1:
out = dsp.pad(out, 0, dsp.mstf(500 * timescale * dsp.rand(0.5, 1.5)))
elif area == 'pitch':
low = dsp.rand(low * 0.9, low)
high = dsp.rand(high, high * 1.1)
length = dsp.stf(dsp.rand(0.01, 0.5) * lengthscale)
out = dsp.bln(length, low, high, wform)
out = dsp.env(out, 'random')
if timescale > 1:
out = dsp.pad(out, 0, dsp.mstf(500 * timescale * dsp.rand(0.5, 1.5)))
elif area == 'low':
low = dsp.rand(low * 0.9, low)
high = dsp.rand(high, high * 1.1)
length = dsp.stf(dsp.rand(0.2, 2) * lengthscale)
out = dsp.bln(length, low, high, wform)
out = dsp.env(out, 'random')
out = dsp.mix([out, dsp.tone(length, low)])
if dsp.rand() > 0.5:
beep = dsp.tone(dsp.flen(out), high, amp=dsp.rand(0.015, 0.1), wavetype=dsp.randchoose(['hann', 'impulse', 'square', 'vary', 'sine']))
out = dsp.mix([out, beep])
if timescale > 1:
out = dsp.pad(out, 0, dsp.mstf(500 * timescale * dsp.rand(0.5, 1.5)))
if dsp.rand() > pc.get(19, low=0, high=1, default=0.75):
plength = length * dsp.randint(2, 6)
freq = tune.ntf(param.get('key', default='c'), octave=dsp.randint(0, 4))
out = dsp.mix([ dsp.pine(out, plength, freq), dsp.pine(out, plength, freq * 1.25) ])
out = dsp.fill(out, length)
out = dsp.pan(out, dsp.rand())
out = dsp.amp(out, amp)
return out
def play(voice_id):
bpm = config('bpm')
beat = dsp.bpm2frames(bpm)
dsl = P(voice_id, 'drum', 'h.c')
length = int(P(voice_id, 'length', dsp.stf(dsp.rand(5, 12))))
volume = P(voice_id, 'volume', 70.0)
volume = volume / 100.0 # TODO move into param filter
octave = P(voice_id, 'octave', 3)
notes = P(voice_id, 'note', '["%s"]' % config('key'))
notes = json.loads(notes)
hertz = P(voice_id, 'hertz', False)
alias = P(voice_id, 'alias', False)
alias = True
bend = P(voice_id, 'bend', False)
env = P(voice_id, 'envelope', 'gauss')
harmonics = P(voice_id, 'harmonic', '[1,2,3,4]')
harmonics = json.loads(harmonics)
reps = P(voice_id, 'repeats', 1)
waveform = P(voice_id, 'waveform', 'sine2pi')
quality = getattr(tune, config('quality'))
ratios = getattr(tune, config('tune'))
glitch = False
#glitch = True
root = 27.5
pinecone = False
bbend = False
wild = False
if bbend == True:
bend = True
tune.a0 = float(root)
# These are amplitude envelopes for each partial,
# randomly selected for each. Not to be confused with
# the master 'env' param which is the amplit
wtypes = ['sine', 'phasor', 'line', 'saw']
layers = []
if hertz is not False:
notes = hertz
for note in notes:
tones = []
for i in range(dsp.randint(2, 4)):
if hertz is not False:
freq = float(note)
if octave > 1:
freq *= octave
else:
freq = tune.ntf(note, octave)
snds = [
dsp.tone(length, freq * h, waveform, 0.05) for h in harmonics
]
snds = [
dsp.env(s, dsp.randchoose(wtypes), highval=dsp.rand(0.3, 0.6))
for s in snds
]
snds = [dsp.pan(s, dsp.rand()) for s in snds]
if bend is not False:
def bendit(out=''):
if bbend == True:
bendtable = dsp.randchoose([
'impulse', 'sine', 'line', 'phasor', 'cos',
'impulse'
])
lowbend = dsp.rand(0.8, 0.99)
highbend = dsp.rand(1.0, 1.25)
else:
bendtable = 'sine'
lowbend = 0.99
# lowbend = 0.75
highbend = 1.01
# highbend = 1.5
out = dsp.split(out, 441)
freqs = dsp.wavetable(bendtable, len(out))
freqs = [
math.fabs(f) * (highbend - lowbend) + lowbend
for f in freqs
]
out = [
dsp.transpose(out[i], freqs[i])
for i in range(len(out))
]
return ''.join(out)
snds = [bendit(snd) for snd in snds]
tones += [dsp.mix(snds)]
layer = dsp.mix(tones)
if wild != False:
layer = dsp.vsplit(layer, 41, 4410)
layer = [dsp.amp(dsp.amp(l, dsp.rand(10, 20)), 0.5) for l in layer]
layer = ''.join(layer)
if pinecone != False:
layer = dsp.pine(layer, length, freq, 4)
if glitch == True:
layer = dsp.vsplit(layer, dsp.mstf(10), dsp.flen(layer) / 4)
layer = dsp.randshuffle(layer)
layer = ''.join(layer)
layer = dsp.env(layer, env)
layers += [layer]
out = dsp.mix(layers) * reps
return dsp.amp(out, volume)
def play(params):
length = params.get('length', dsp.stf(20))
volume = params.get('volume', 0.3)
octave = params.get('octave', 6)
note = params.get('note', 'c')
quality = params.get('quality', tune.major)
multiple = params.get('multiple', 1)
width = params.get('width', 0)
waveform = params.get('waveform', 'vary')
chirp = params.get('chirp', False)
harmonics = params.get('harmonics', [1, 2])
scale = params.get('scale', [1, 4, 6, 5, 8])
wavetypes = params.get('wavetypes', ['sine', 'phasor', 'line', 'saw'])
ratios = params.get('ratios', tune.terry)
glitch = params.get('glitch', False)
def chirp(s):
length = dsp.flen(s)
#chirps = [ dsp.chirp(dsp.randint(10, 10000), 60, 5000, dsp.randint(1,100)) for c in range(100) ]
chirps = [ dsp.chirp(
numcycles=dsp.randint(50, 1000),
lfreq=dsp.rand(9000, 12000),
hfreq=dsp.rand(14000, 20000),
length=441 + (i * 41),
etype=dsp.randchoose(['gauss', 'sine', 'line', 'phasor']),
wform=dsp.randchoose(['sine', 'tri', 'phasor', 'line']))
for i in range(100) ]
chirps = [ dsp.pan(c, dsp.rand()) for c in chirps ]
chirps = ''.join(chirps)
return dsp.fill(chirps, length)
tones = []
multiple *= 1.0
freqs = tune.fromdegrees(dsp.randshuffle(scale), octave, note[0])
for i in range(dsp.randint(2,4)):
#freq = tune.step(i, note, octave, dsp.randshuffle(scale), quality, ratios)
freq = freqs[i % len(freqs)]
snds = [ dsp.tone(length, freq * h, waveform) for h in harmonics ]
for snd in snds:
snd = dsp.vsplit(snd, dsp.mstf(10 * multiple), dsp.mstf(100 * multiple))
if width != 0:
for ii, s in enumerate(snd):
if width > dsp.mstf(5):
owidth = int(width * dsp.rand(0.5, 2.0))
else:
owidth = width
olen = dsp.flen(s)
s = dsp.cut(s, 0, owidth)
s = dsp.pad(s, 0, olen - dsp.flen(s))
snd[ii] = s
snd = [ dsp.env(s, dsp.randchoose(wavetypes)) for s in snd ]
snd = [ dsp.pan(s, dsp.rand()) for s in snd ]
snd = [ dsp.amp(s, dsp.rand()) for s in snd ]
if chirp == True:
snd = [ chirp(s) for s in snd ]
snd = ''.join(snd)
tones += [ snd ]
out = dsp.mix(tones)
out = dsp.pan(out, dsp.rand())
return dsp.amp(out, volume)
return out
if bassPlay % 5 == 0:
basses = bass(0.5, tlen, 1)
else:
basses = drums.make(bass, dsp.rotate(single, vary=True), seg)
bassPlay += 1
layers += [ basses ]
if dsp.randint(0,1) == 0 or canPlay('jam', bigoldsection):
# Lead synth
#lead_note = ['d', 'g', 'a', 'b'][ leadPlay % 4 ]
lead_note = ['e', 'a', 'b', 'c#'][ leadPlay % 4 ]
lead = dsp.tone(tlen / 2, wavetype='tri', freq=tune.ntf(lead_note, 4), amp=0.2)
lead = dsp.env(lead, 'phasor')
leadPlay += 1
layers += [ lead ]
def makeArps(seg, oct=3, reps=4):
arp_degrees = [1,2,3,5,8,9,10]
if dsp.randint(0,1) == 0:
arp_degrees.reverse()
arp_degrees = dsp.rotate(arp_degrees, vary=True)
arp_notes = tune.fromdegrees(arp_degrees[:reps], oct, 'e')
arps = ''
def makecurve(length):
# freq, length, pulsewidth, waveform, window, mod, modRange, modFreq, amp
wf = dsp.breakpoint([0] + [ dsp.rand(-1, 1) for i in range(int(dsp.rand(5, 30))) ] + [0], 1024)
win = dsp.breakpoint([0] + [ dsp.rand(0, 1) for i in range(4) ] + [0], 1024)
mod = dsp.breakpoint([ dsp.rand(0, 1) for i in range(int(dsp.rand(4, 8))) ], 1024)
smaxamp = dsp.rand(0.65, 0.95)
amp = dsp.rand(0.01, smaxamp)
pw = dsp.rand(0.1, 1.0)
if 'upbeat' in tel['name']:
wf = dsp.breakpoint([0] + [ dsp.rand(-1, 1) for i in range(int(dsp.rand(5, 30))) ] + [0], 1024)
win = dsp.breakpoint([0] + [ dsp.rand(0, 1) for i in range(4) ] + [0], 1024)
mod = dsp.breakpoint([ dsp.rand(0, 1) for i in range(int(dsp.rand(5, 80))) ], 1024)
pw = 1.0
if 'ballsout' in tel['name']:
wf = dsp.breakpoint([0] + [ dsp.rand(-1, 1) for i in range(int(dsp.rand(10, 40))) ] + [0], 1024)
win = dsp.breakpoint([0] + [ dsp.rand(0, 1) for i in range(10) ] + [0], 1024)
mod = dsp.breakpoint([ dsp.rand(0, 1) for i in range(int(dsp.rand(20, 100))) ], 1024)
if 'sparse' in tel['name']:
amp = dsp.rand(0.7, 3)
freq = tel['register'] * tel['roughness'] * (tel['density'] * tel['pace'] * 0.25)
#if dsp.rand(0, 100) > 50:
#freq = dsp.rand(2, 20)
modR = tel['harmonicity']
modF= tel['pace'] / 10.0
c = dsp.pulsar(freq, length, pw, wf, win, mod, modR, modF, amp)
ngrains = len(c)
pans = dsp.breakpoint([ dsp.rand(0,1) for i in range(100) ], ngrains)
maxPad = dsp.randint(2000, 4000)
if 'sparse' in tel['name']:
c = dsp.vsplit(c, dsp.mstf(0.5), dsp.mstf(tel['density'] * tel['harmonicity'] * tel['roughness'] * tel['pace']))
c = [ dsp.randchoose(c) for i in range(int(dsp.rand(3, 10))) ]
elif 'ballsout' in tel['name']:
c = dsp.vsplit(c, dsp.mstf(0.1), dsp.mstf(400))
c = dsp.packet_shuffle(c, dsp.randint(5, 10))
speeds = dsp.breakpoint([ dsp.rand(tel['register'] * 0.1 + 0.2, tel['register'] + 0.2) for i in range(100) ], ngrains)
#c = [ dsp.transpose(cg, speeds[i]) for i, cg in enumerate(c) ]
#c = [ dsp.amp(cg, dsp.rand(0.25, 1.25)) for i, cg in enumerate(c) ]
for ic, cc in enumerate(c):
if dsp.rand(0, 100) > 70:
c[ic] = dsp.tone(dsp.flen(cc), 11000, amp=0.5)
elif 'upbeat' in tel['name']:
beat = dsp.bpm2frames(bpm)
c = dsp.split(c, beat)
maxPad = 0
c = [ dsp.pad(cg, 0, dsp.mstf(dsp.rand(10, beat / 4))) for i, cg in enumerate(c) ]
else:
c = dsp.vsplit(c, dsp.mstf(10), dsp.mstf(tel['density'] * tel['harmonicity'] * tel['roughness'] * tel['pace'] * dsp.rand(1, 10)))
c = [ dsp.pan(cg, pans[i]) for i, cg in enumerate(c) ]
c = [ dsp.env(cg, 'sine') for i, cg in enumerate(c) ]
if 'sparse' in tel['name'] or 'ballsout' in tel['name']:
speeds = dsp.breakpoint([ dsp.rand(0.5, 1.99) for i in range(100) ], ngrains)
for ic, cc in enumerate(c):
if dsp.flen(cc) < dsp.mstf(100):
c[ic] = cc + ''.join([ dsp.amp(cc, dsp.rand(0.1, 1.0)) for buh in range(dsp.randint(1, int(tel['density']))) ])
#c = [ dsp.transpose(cg, speeds[i]) for i, cg in enumerate(c) ]
c = [ dsp.pan(cg, dsp.rand(0.0, 1.0)) for i, cg in enumerate(c) ]
if 'ballsout' not in tel['name']:
c = [ dsp.pad(cg, 0, dsp.mstf(dsp.rand(10, maxPad))) for i, cg in enumerate(c) ]
out = ''.join(c)
return out
def play(args):
length = dsp.stf(30)
volume = 0.2
octave = 2
notes = ['d', 'a']
quality = tune.major
waveform = 'sine'
ratios = tune.terry
wtypes = ['sine', 'phasor', 'line', 'saw']
for arg in args:
a = arg.split(':')
if a[0] == 't':
length = dsp.stf(float(a[1]))
if a[0] == 'v':
volume = float(a[1]) / 100.0
if a[0] == 'o':
octave = int(a[1])
if a[0] == 'n':
notes = a[1].split('.')
if a[0] == 'q':
if a[1] == 'M':
quality = tune.major
elif a[1] == 'm':
quality = tune.minor
else:
quality = tune.major
if a[0] == 'tr':
ratios = getattr(tune, a[1], tune.terry)
harm = range(1, 30)
layers = []
for note in notes:
tones = []
freq = tune.ntf(note, octave, ratios)
for i in range(30):
angles = dsp.breakpoint([freq * dsp.randchoose(harm) for f in range(dsp.randint(3, 50))], dsp.randint(350, 500))
alen = int(length / len(angles)) * 2
angles = [ dsp.env(dsp.tone(alen, a, 'random'), 'sine') for a in angles ]
# Each overtone blip should overlap by about 50% with its neighbor...
lowangles = ''.join([ angle for i, angle in enumerate(angles) if i % 2 == 0 ])
highangles = [ angle for i, angle in enumerate(angles) if i % 2 != 0 ]
highangles[0] = dsp.cut(highangles[0], dsp.flen(highangles[0]) / 2, dsp.flen(highangles[0]) / 2)
highangles = ''.join(highangles)
tones += [ dsp.benv(dsp.amp(dsp.mix([lowangles, highangles]), 0.9), [dsp.rand(0.1, 0.9) for i in range(dsp.randint(5, 30))]) ]
tones = dsp.mix(tones)
#tonic = dsp.env(dsp.amp(dsp.tone(int(length * 0.6), freq, 'sine2pi'), 0.1), 'flat')
#layers += [ dsp.mix([tones, tonic], False) ]
layers += [ tones ]
out = dsp.mix(layers)
return dsp.amp(out, volume)
def play(voice_id):
bpm = config('bpm')
beat = dsp.bpm2frames(bpm)
dsl = P(voice_id, 'drum', 'h.c')
length = int(P(voice_id, 'length', dsp.stf(dsp.rand(5, 12))))
volume = P(voice_id, 'volume', 70.0)
volume = volume / 100.0 # TODO move into param filter
octave = P(voice_id, 'octave', 3)
notes = P(voice_id, 'note', '["%s"]' % config('key'))
notes = json.loads(notes)
hertz = P(voice_id, 'hertz', False)
alias = P(voice_id, 'alias', False)
alias = True
bend = P(voice_id, 'bend', False)
env = P(voice_id, 'envelope', 'gauss')
harmonics = P(voice_id, 'harmonic', '[1,2,3,4]')
harmonics = json.loads(harmonics)
reps = P(voice_id, 'repeats', 1)
waveform = P(voice_id, 'waveform', 'sine2pi')
quality = getattr(tune, config('quality'))
ratios = getattr(tune, config('tune'))
glitch = False
#glitch = True
root = 27.5
pinecone = False
bbend = False
wild = False
if bbend == True:
bend = True
tune.a0 = float(root)
# These are amplitude envelopes for each partial,
# randomly selected for each. Not to be confused with
# the master 'env' param which is the amplit
wtypes = ['sine', 'phasor', 'line', 'saw']
layers = []
if hertz is not False:
notes = hertz
for note in notes:
tones = []
for i in range(dsp.randint(2,4)):
if hertz is not False:
freq = float(note)
if octave > 1:
freq *= octave
else:
freq = tune.ntf(note, octave)
snds = [ dsp.tone(length, freq * h, waveform, 0.05) for h in harmonics ]
snds = [ dsp.env(s, dsp.randchoose(wtypes), highval=dsp.rand(0.3, 0.6)) for s in snds ]
snds = [ dsp.pan(s, dsp.rand()) for s in snds ]
if bend is not False:
def bendit(out=''):
if bbend == True:
bendtable = dsp.randchoose(['impulse', 'sine', 'line', 'phasor', 'cos', 'impulse'])
lowbend = dsp.rand(0.8, 0.99)
highbend = dsp.rand(1.0, 1.25)
else:
bendtable = 'sine'
lowbend = 0.99
# lowbend = 0.75
highbend = 1.01
# highbend = 1.5
out = dsp.split(out, 441)
freqs = dsp.wavetable(bendtable, len(out))
freqs = [ math.fabs(f) * (highbend - lowbend) + lowbend for f in freqs ]
out = [ dsp.transpose(out[i], freqs[i]) for i in range(len(out)) ]
return ''.join(out)
snds = [ bendit(snd) for snd in snds ]
tones += [ dsp.mix(snds) ]
layer = dsp.mix(tones)
if wild != False:
layer = dsp.vsplit(layer, 41, 4410)
layer = [ dsp.amp(dsp.amp(l, dsp.rand(10, 20)), 0.5) for l in layer ]
layer = ''.join(layer)
if pinecone != False:
layer = dsp.pine(layer, length, freq, 4)
if glitch == True:
layer = dsp.vsplit(layer, dsp.mstf(10), dsp.flen(layer) / 4)
layer = dsp.randshuffle(layer)
layer = ''.join(layer)
layer = dsp.env(layer, env)
layers += [ layer ]
out = dsp.mix(layers) * reps
return dsp.amp(out, volume)
return blip
def make_vary(index, length, freq):
def i(index, offset):
return ((index + offset) % nump) / float(nump)
pulsewidth = int(pnoise1(i(index, 100), 2) * (length / 2))
snd = dsp.tone(pulsewidth, freq, amp=pnoise1(i(index, 99), 3) * 0.5)
snd = dsp.env(snd, 'sine')
snd = dsp.pad(snd, 0, length - pulsewidth)
return snd
p = 'XxxXxxxXxXxxXxxxxXx'
beats = seq.toFrames(p, beat) * 100
layers = []
for l in range(2):
beats = dsp.rotate(beats, dsp.randint(50, 100))
layers += [ ''.join([ make_pulse(dsp.tone(length, freqs[i % len(freqs)], amp=dsp.rand(0.1, 0.5))) for i, length in enumerate(beats) ]) ]
out = dsp.mix(layers)
dsp.write(out, 'buchla-perlin')
#!/usr/bin/env python """ pip install pippi """ import sys from pippi import dsp out = dsp.tone(dsp.stf(5), freq=220, amp=0.2) out = dsp.env(out, 'hann') #dsp.write(out, 'hello') #'hello.wav' dsp.write(sys.stdout)
from pippi import dsp
from hcj import data
numgrains = 1000
numsines = 100
length = dsp.mstf(100)
dist = data.Logistic(3.99, 0.5, numsines).data
dist = sorted(dist)
lows = dsp.breakpoint([ dsp.rand(10, 100) for _ in range(100) ], numgrains)
highs = dsp.breakpoint([ dsp.rand(100, 1000) for _ in range(100) ], numgrains)
out = ''
for lowfreq, highfreq in zip(lows, highs):
layers = []
for freq in dist:
r = highfreq - lowfreq
layers += [ dsp.pan(dsp.tone(length, freq * r + lowfreq, amp=0.05), dsp.rand()) ]
out += dsp.taper(dsp.env(dsp.mix(layers), 'hann'), dsp.mstf(10))
dsp.write(out, 'shifty')
from pippi import dsp
dist = dsp.wavetable('hann', 1200)[:600]
lowfreq = 200
highfreq = 1000
length = dsp.stf(60)
layers = []
for freq in dist:
r = highfreq - lowfreq
layers += [dsp.tone(length, freq * r + lowfreq, amp=0.01)]
out = dsp.mix(layers)
dsp.write(out, 'basics')
def makeGrain(freq, length):
grain = dsp.tone(length, freq, amp=dsp.rand(0.05, 0.1))
grain = dsp.pan(grain, dsp.rand())
return grain
def play(params):
""" Usage:
shine.py [length] [volume]
"""
length = params.get('length', dsp.stf(dsp.rand(0.1, 1)))
volume = params.get('volume', 100.0)
volume = volume / 100.0 # TODO: move into param filter
octave = params.get('octave', 2) + 1 # Add one to compensate for an old error for now
note = params.get('note', ['c'])
note = note[0]
quality = params.get('quality', tune.major)
glitch = params.get('glitch', False)
superglitch = params.get('superglitch', False)
pinecone = params.get('pinecone', False)
glitchpad = params.get('glitch-padding', 0)
glitchenv = params.get('glitch-envelope', False)
env = params.get('envelope', False)
ratios = params.get('ratios', tune.terry)
pad = params.get('padding', False)
bend = params.get('bend', False)
bpm = params.get('bpm', 75.0)
width = params.get('width', False)
wform = params.get('waveform', False)
instrument = params.get('instrument', 'r')
scale = params.get('scale', [1,6,5,4,8])
shuffle = params.get('shuffle', False) # Reorganize input scale
reps = params.get('repeats', len(scale))
alias = params.get('alias', False)
phase = params.get('phase', False)
pi = params.get('pi', False)
wild = params.get('wii', False)
root = params.get('root', 27.5)
trigger_id = params.get('trigger_id', 0)
tune.a0 = float(root)
try:
# Available input samples
if instrument == 'r':
instrument = 'rhodes'
tone = dsp.read('sounds/synthrhodes.wav').data
elif instrument == 's':
instrument = 'synthrhodes'
tone = dsp.read('sounds/220rhodes.wav').data
elif instrument == 'c':
instrument = 'clarinet'
tone = dsp.read('sounds/clarinet.wav').data
elif instrument == 'v':
instrument = 'vibes'
tone = dsp.read('sounds/glock220.wav').data
elif instrument == 't':
instrument = 'tape triangle'
tone = dsp.read('sounds/tape220.wav').data
elif instrument == 'g':
instrument = 'glade'
tone = dsp.read('sounds/glade.wav').data
elif instrument == 'p':
instrument = 'paperclips'
tone = dsp.read('sounds/paperclips.wav').data
elif instrument == 'i':
instrument = 'input'
tone = dsp.capture(dsp.stf(1))
except:
instrument = None
tone = None
out = ''
# Shuffle the order of pitches
if shuffle is not False:
scale = dsp.randshuffle(scale)
# Translate the list of scale degrees into a list of frequencies
freqs = tune.fromdegrees(scale, octave, note, quality, ratios)
freqs = [ freq / 4.0 for freq in freqs ]
# Format is: [ [ path, offset, id, value ] ]
# Offset for video
osc_messages = [ ['/dac', float(dsp.fts(length)), 1, tune.fts(osc_freq)] for osc_freq in freqs ]
# Phase randomly chooses note lengths from a
# set of ratios derived from the current bpm
if phase is not False:
ldivs = [0.5, 0.75, 2, 3, 4]
ldiv = dsp.randchoose(ldivs)
length = dsp.bpm2ms(bpm) / ldiv
length = dsp.mstf(length)
reps = ldiv if ldiv > 1 else 4
# Construct a sequence of notes
for i in range(reps):
# Get the freqency
freq = freqs[i % len(freqs)]
# Transpose the input sample or
# synthesize tone
if wform is False and tone is not None:
# Determine the pitch shift required
# to arrive at target frequency based on
# the pitch of the original samples.
if instrument == 'clarinet':
diff = freq / 293.7
elif instrument == 'vibes':
diff = freq / 740.0
else:
diff = freq / 440.0
clang = dsp.transpose(tone, diff)
elif wform == 'super':
clang = dsp.tone(length, freq, 'phasor', 0.5)
clang = [ dsp.drift(clang, dsp.rand(0, 0.02)) for s in range(7) ]
clang = dsp.mix(clang)
elif wform is False and tone is None:
clang = dsp.tone(length, freq, 'sine2pi', 0.75)
clang = dsp.amp(clang, 0.6)
else:
clang = dsp.tone(length, freq, wform, 0.75)
clang = dsp.amp(clang, 0.6)
# Stupidly copy the note enough or
# trim it to meet the target length
clang = dsp.fill(clang, length)
# Give synth tones simple env (can override)
if wform is not False and env is False:
clang = dsp.env(clang, 'phasor')
# Apply an optional amplitude envelope
if env is not False:
clang = dsp.env(clang, env)
# Add optional padding between notes
if pad != False:
clang = dsp.pad(clang, 0, pad)
# Add to the final note sequence
out += clang
# Add optional aliasing (crude bitcrushing)
if alias is not False:
out = dsp.alias(out)
# Cut sound into chunks of variable length (between 5 & 300 ms)
# Pan each chunk to a random position
# Apply a sine amplitude envelope to each chunk
# Finally, add variable silence between each chunk and shuffle the
# order of the chunks before joining.
if glitch is not False:
out = dsp.vsplit(out, dsp.mstf(5), dsp.mstf(300))
out = [dsp.pan(o, dsp.rand()) for o in out]
out = [dsp.env(o, 'sine') for o in out]
out = [dsp.pad(o, 0, dsp.mstf(dsp.rand(0, glitchpad))) for o in out]
out = ''.join(dsp.randshuffle(out))
# Detune between 1.01 and 0.99 times original speed
# as a sine curve whose length equals the total output length
if bend is not False:
out = dsp.split(out, 441)
freqs = dsp.wavetable('sine', len(out), 1.01, 0.99)
out = [ dsp.transpose(out[i], freqs[i]) for i in range(len(out)) ]
out = ''.join(out)
if wild is not False:
#out = dsp.vsplit(out, 400, 10000)
out = dsp.split(out, 3000)
out = [ dsp.amp(dsp.amp(o, dsp.rand(10, 50)), 0.5) for o in out ]
#out = [ o * dsp.randint(1, 5) for o in out ]
for index, o in enumerate(out):
if dsp.randint(0, 1) == 0:
out[index] = dsp.env(dsp.cut(o, 0, dsp.flen(o) / 4), 'gauss') * 4
if dsp.randint(0, 6) == 0:
out[index] = dsp.transpose(o, 8)
out = [ dsp.env(o, 'gauss') for o in out ]
freqs = dsp.wavetable('sine', len(out), 1.02, 0.98)
out = [ dsp.transpose(out[i], freqs[i]) for i in range(len(out)) ]
out = ''.join(out)
if pinecone == True:
out = dsp.pine(out, int(length * dsp.rand(0.5, 8.0)), dsp.randchoose(freqs) * dsp.rand(0.5, 4.0))
# Adjust output amplitude as needed and return audio + OSC
if pi:
return (dsp.amp(out, volume), {'osc': osc_messages})
else:
return dsp.amp(out, volume)
def test_tone():
out = dsp.tone(length=dsp.stf(1), freq=220, wavetype='sine2pi', amp=1, phase=0, offset=0)
assert dsp.flen(out) == dsp.stf(1)
layers = []
for layer in range(10):
beats_steady = [beat for b in range(numbeats / 10)]
beats_div = dsp.breakpoint([dsp.rand(1, 200) for b in range(10)],
numbeats - len(beats_steady))
ramp = dsp.wavetable('line', len(beats_div))
beats_div = [beat + dsp.mstf(d * r) for d, r in zip(beats_div, ramp)]
beats = beats_steady + beats_div
freqs = dsp.wavetable(dsp.randchoose(['line', 'phasor', 'tri', 'hann']),
len(beats))
freqs = [freq + (100 * f) for f in freqs]
layer = ''
for b, f in zip(beats, freqs):
blip = dsp.tone(length=b, freq=f, amp=dsp.rand(0.01, 0.2))
blip = dsp.env(blip, 'phasor')
blip = dsp.taper(blip, dsp.mstf(5))
blip = dsp.pan(blip, dsp.rand())
layer += blip
layers += [layer]
out = dsp.mix(layers)
dsp.write(out, 'blipspray')
from pippi import dsp
length = dsp.stf(30)
freq = 100
highfreq = 200
count = 0
layers = []
while freq < highfreq:
layer = dsp.tone(length, freq, amp=0.001)
layer = dsp.pan(layer, dsp.rand())
freq += dsp.rand(0.05, 0.1)
layers += [layer]
count += 1
print count
out = dsp.mix(layers)
dsp.write(out, 'sineclump')
def play(ctl):
out = dsp.tone(dsp.stf(6), freq=80, amp=1)
out = dsp.env(out, 'phasor')
return out
frags += [g]
# concat all frags
layer = ''.join(frags)
# add frags to layers
layers += [layer]
# mix down frag layers
out = dsp.mix(layers)
# Add sine buildup
sines = []
lowfreq = tune.ntf('g', octave=2)
sines += [dsp.tone((dsp.flen(out) / 4) * 3, lowfreq, amp=0.4)]
sines += [dsp.tone((dsp.flen(out) / 4) * 3, lowfreq * 1.067, amp=0.4)]
sines += [dsp.tone((dsp.flen(out) / 4) * 3, lowfreq * 1.667, amp=0.25)]
sines = [dsp.mix([fx.penv(s), s]) for s in sines]
sines = dsp.mix(sines)
sines = dsp.env(sines, 'line')
sines = dsp.pad(sines, dsp.flen(out) - dsp.flen(sines), 0)
out = dsp.mix([intro, out, sines])
dsp.write(out, '01-friction_i')
frags += [ g ]
# concat all frags
layer = ''.join(frags)
# add frags to layers
layers += [ layer ]
# mix down frag layers
out = dsp.mix(layers)
# Add sine buildup
sines = []
lowfreq = tune.ntf('g', octave=2)
sines += [ dsp.tone((dsp.flen(out) / 4) * 3, lowfreq, amp=0.4) ]
sines += [ dsp.tone((dsp.flen(out) / 4) * 3, lowfreq * 1.067, amp=0.4) ]
sines += [ dsp.tone((dsp.flen(out) / 4) * 3, lowfreq * 1.667, amp=0.25) ]
sines = [ dsp.mix([ fx.penv(s), s ]) for s in sines ]
sines = dsp.mix(sines)
sines = dsp.env(sines, 'line')
sines = dsp.pad(sines, dsp.flen(out) - dsp.flen(sines), 0)
out = dsp.mix([ intro, out, sines ])
dsp.write(out, '01-friction_i')
if bassPlay % 5 == 0:
basses = bass(0.5, tlen, 1)
else:
basses = drums.make(bass, dsp.rotate(single, vary=True),
seg)
bassPlay += 1
layers += [basses]
if dsp.randint(0, 1) == 0 or canPlay('jam', bigoldsection):
# Lead synth
#lead_note = ['d', 'g', 'a', 'b'][ leadPlay % 4 ]
lead_note = ['e', 'a', 'b', 'c#'][leadPlay % 4]
lead = dsp.tone(tlen / 2,
wavetype='tri',
freq=tune.ntf(lead_note, 4),
amp=0.2)
lead = dsp.env(lead, 'phasor')
leadPlay += 1
layers += [lead]
def makeArps(seg, oct=3, reps=4):
arp_degrees = [1, 2, 3, 5, 8, 9, 10]
if dsp.randint(0, 1) == 0:
arp_degrees.reverse()
arp_degrees = dsp.rotate(arp_degrees, vary=True)
arp_notes = tune.fromdegrees(arp_degrees[:reps], oct, 'e')
arps = ''
