def randomize_parameters(self):
''' This method should be overrided to get some more interesting random generation of the parameters.
Note : When overriding this one, you should also override _used_parameters.
In general, returns the number of times it had to try again new parameters before giving something that makes sense.
This is for audio units where generating can give a bad sound and we need to start again.
'''
for p in self.params:
RF.randomize_parameter(p, self.au, RF.uniform)
return 0
def randomize_parameters(self):
''' This method should be overrided to get some more interesting random generation of the parameters.
Note : When overriding this one, you should also override _used_parameters.
In general, returns the number of times it had to try again new parameters before giving something that makes sense.
This is for audio units where generating can give a bad sound and we need to start again.
'''
for p in self.params:
RF.randomize_parameter(p, self.au, RF.uniform)
return 0
def randomize_parameters(self):
self.reset_parameters()
self.au.bypass = False if NR.uniform() < self.prob_on else True
if self.au.bypass == True:
return 0
p = self.params
p[0].value = 1.
p[1].value = 1.
while p[0].value > .4 and p[1].value > .9 - p[0].value: # hand-picked rule
for i in [0,1]:
# greater than .2 to ensure some chorus
RF.randomize_parameter(p[i], self.au, RF.uniform_custom(.2, 1.))
# greater than .2 again to ensure some chorus
RF.randomize_parameter(p[2], self.au, RF.uniform_custom(.2, 1.))
return 0
def randomize_parameters(self):
self.reset_parameters()
self.au.bypass = False if NR.uniform() < self.prob_on else True
if self.au.bypass == True:
return 0
p = self.params
p[0].value = 1.
p[1].value = 1.
while p[0].value > .4 and p[
1].value > .9 - p[0].value: # hand-picked rule
for i in [0, 1]:
# greater than .2 to ensure some chorus
RF.randomize_parameter(p[i], self.au,
RF.uniform_custom(.2, 1.))
# greater than .2 again to ensure some chorus
RF.randomize_parameter(p[2], self.au, RF.uniform_custom(.2, 1.))
return 0
def randomize_parameters(self, nb_trials=10):
"""
Returns the number of trials if it succeded, -1 if not.
But -1 should very unusual.
nb_trials : nb of time it will try before it stops and returns -1
"""
self.au.bypass = False if uniform() < self.prob_on else True
if self.au.bypass == True:
self.reset_parameters()
return 0
for no_trial in range(nb_trials):
self.reset_parameters()
# we do so Shelf is in [0, .4]u[.6, 1.], so there is at least some effect
RF.randomize_parameter(self.params_dict['Shelf'], self.au, RF.uniform_custom(0., .4))
self.params_dict['Shelf'].value += [0., .6][randint(2)]
RF.randomize_parameter(self.params_dict['Bass lift'], self.au, RF.uniform)
RF.randomize_parameter(self.params_dict['Shelf q'], self.au, RF.uniform_custom(.5, 1.))
normalize_volume(self.host, self.params_dict['Volume'], target_peak=self.volume, verbose=False)
#self.params_dict['Volume'].value = .9
vol = self.params_dict['Volume'].value
#print 'TAL USE volume : ', vol.value
if vol < 1. and vol > 0.:
return no_trial
return -1
def randomize_parameters(self, nb_trials=10):
"""
Returns the number of trials if it succeded, -1 if not.
But -1 should very unusual.
nb_trials : nb of time it will try before it stops and returns -1
"""
self.au.bypass = False if uniform() < self.prob_on else True
if self.au.bypass == True:
self.reset_parameters()
return 0
for no_trial in range(nb_trials):
self.reset_parameters()
# we do so Shelf is in [0, .4]u[.6, 1.], so there is at least some effect
RF.randomize_parameter(self.params_dict['Shelf'], self.au,
RF.uniform_custom(0., .4))
self.params_dict['Shelf'].value += [0., .6][randint(2)]
RF.randomize_parameter(self.params_dict['Bass lift'], self.au,
RF.uniform)
RF.randomize_parameter(self.params_dict['Shelf q'], self.au,
RF.uniform_custom(.5, 1.))
normalize_volume(self.host,
self.params_dict['Volume'],
target_peak=self.volume,
verbose=False)
#self.params_dict['Volume'].value = .9
vol = self.params_dict['Volume'].value
#print 'TAL USE volume : ', vol.value
if vol < 1. and vol > 0.:
return no_trial
return -1
def randomize_parameters(self, nb_trials=10):
"""
Returns the number of trials if it succeded, -1 if not.
But -1 should very unusual.
nb_trials : nb of time it will try before it stops and returns -1
"""
self.au.bypass = False if NR.uniform() < self.prob_on else True
if self.au.bypass == True:
self.reset_parameters()
return 0
for no_trial in range(nb_trials):
self.reset_parameters()
RF.randomize_parameter(self.params_dict['inputdrive'], self.au, RF.uniform_custom(.45, 1.))
RF.randomize_parameter(self.params_dict['delaytime'], self.au, RF.uniform_custom(0.017, .04))
RF.randomize_parameter(self.params_dict['feedback'], self.au, RF.uniform_custom(0., .3))
f = lambda x : -.15*x**2 + .42*x + .18
hp = self.params_dict['highcut']
cp = self.params_dict['cutoff']
hp.value = 0.; cp.value = 0.
while cp.value < f(hp.value):
RF.randomize_parameter(hp, self.au, RF.uniform)
RF.randomize_parameter(cp, self.au, RF.uniform)
param_vol = self.params_dict['dry']
normalize_volume(self.host, param_vol, target_peak=self.volume, verbose=False)
vol = param_vol.value
RF.randomize_parameter(self.params_dict['wet'], self.au, RF.uniform_custom(vol/3., vol))
if vol < param_vol.range[1] and vol > param_vol.range[0]:
return no_trial
return -1
def randomize_parameters(self, nb_trials=10):
"""
Returns the number of trials if it succeded, -1 if not.
But -1 should very unusual.
nb_trials : nb of time it will try before it stops and returns -1
"""
self.au.bypass = False if NR.uniform() < self.prob_on else True
if self.au.bypass == True:
self.reset_parameters()
return 0
for no_trial in range(nb_trials):
self.reset_parameters()
# dist
# 0. 2/3 of the time, uniform between 0. 1. for the rest of the time
RF.randomize_parameter(self.params_dict['DistTube'], self.au,
RF.uniform_custom(-2., 1.))
self.params_dict['DistMech'].value = max(
self.params_dict['DistMech'].value, 0.)
RF.randomize_parameter(self.params_dict['DistTube'], self.au,
RF.uniform_custom(-2., 1.))
self.params_dict['DistTube'].value = max(
self.params_dict['DistTube'].value, 0.)
# cut off
RF.randomize_parameter(self.params_dict['MmFilterOn'], self.au,
RF.weighted_list([0., 1.], [.33, .67]))
if self.params_dict['MmFilterOn'].value == 1.:
RF.randomize_parameter(self.params_dict['MmFilterCutoff'],
self.au, RF.uniform)
RF.randomize_parameter(self.params_dict['MmFilterRes'],
self.au, RF.uniform)
# Compress
# off half the time
temp = RF.weighted_list([False, True], [.33, .67])(None, None)
if temp:
RF.randomize_parameter(self.params_dict['CompressAmount'],
self.au, RF.uniform)
RF.randomize_parameter(self.params_dict['CompressMode'], self.au,
RF.weighted_list([0., 1.], [.5, .5]))
# Master
RF.randomize_parameter(self.params_dict['MasterMix'], self.au,
RF.uniform)
normalize_volume(self.host,
self.params_dict['MasterVolume'],
target_peak=self.volume,
volumes=[.5, .7, .9],
verbose=False)
#for p in self.params:
# if not p.name.startswith('Unused'):
# print p
vol = self.params_dict['MasterVolume'].value
#raw_input('test')
if vol < 1. and vol > 0.:
return no_trial
return -1
def randomize_parameters(self, nb_trials=10):
"""
Returns the number of trials if it succeded, -1 if not.
But -1 should very unusual.
nb_trials : nb of time it will try before it stops and returns -1
"""
self.au.bypass = False if NR.uniform() < self.prob_on else True
if self.au.bypass == True:
self.reset_parameters()
return 0
for no_trial in range(nb_trials):
self.reset_parameters()
RF.randomize_parameter(self.params_dict['inputdrive'], self.au,
RF.uniform_custom(.45, 1.))
RF.randomize_parameter(self.params_dict['delaytime'], self.au,
RF.uniform_custom(0.017, .04))
RF.randomize_parameter(self.params_dict['feedback'], self.au,
RF.uniform_custom(0., .3))
f = lambda x: -.15 * x**2 + .42 * x + .18
hp = self.params_dict['highcut']
cp = self.params_dict['cutoff']
hp.value = 0.
cp.value = 0.
while cp.value < f(hp.value):
RF.randomize_parameter(hp, self.au, RF.uniform)
RF.randomize_parameter(cp, self.au, RF.uniform)
param_vol = self.params_dict['dry']
normalize_volume(self.host,
param_vol,
target_peak=self.volume,
verbose=False)
vol = param_vol.value
RF.randomize_parameter(self.params_dict['wet'], self.au,
RF.uniform_custom(vol / 3., vol))
if vol < param_vol.range[1] and vol > param_vol.range[0]:
return no_trial
return -1
def randomize_parameters(self, nb_trials=10):
"""
Returns the number of trials if it succeded, -1 if not.
But -1 should very unusual.
nb_trials : nb of time it will try before it stops and returns -1
"""
self.au.bypass = False if NR.uniform() < self.prob_on else True
if self.au.bypass == True:
self.reset_parameters()
return 0
for no_trial in range(nb_trials):
self.reset_parameters()
RF.randomize_parameter(self.params_dict['Pre Delay'], self.au, RF.uniform_custom(0., .35))
RF.randomize_parameter(self.params_dict['Room Size'], self.au, RF.uniform)
RF.randomize_parameter(self.params_dict['Damp'], self.au, RF.uniform)
# high and low cut
a,b,c = 2.833, -1.5167, 0.4
f = lambda x : a*x**2 + b*x + c
hc = self.params_dict['High Cut']
lc = self.params_dict['Low Cut']
hc.value = 0.; lc.value = 0.
while hc.value < f(lc.value):
RF.randomize_parameter(hc, self.au, RF.uniform_custom(.2, 1.))
RF.randomize_parameter(lc, self.au, RF.uniform_custom(0., .8))
#for x in self._used_parameters():
# print self.params_dict[x]
param_vol = self.params_dict['Dry']
normalize_volume(self.host, param_vol, target_peak=self.volume, volumes = [.5, .7, .9], verbose=False)
vol = param_vol.value
if vol < 1. and vol > 0.:
RF.randomize_parameter(self.params_dict['Wet'], self.au, RF.uniform_custom(vol*3./4., vol))
return no_trial
return -1
def set_some_osc_params(osc_no):
''' Setting up oscillator 'osc_no'.
'''
if verbose:
print '---------'
print '- OSC %i -' % osc_no
print '---------'
# let's mute everything excep 'osc_no'
for i in [1,2,3]:
params['MIX%i_Level' % i].value = (1. if i == osc_no else 0.)
# selecting which type of wave
listes = [range(1,6), range(0,6), range(0,6)+[8]] # it can only be sin, tri, rect, saw, table / + off / + noise
RF.randomize_parameter(params["OSC%i_Wave" % osc_no], au, RF.uniform_list(listes[osc_no-1]))
if verbose:
print 'Wave type : %s' % params["OSC%i_Wave" % osc_no].get_str_from_value()
if params["OSC%i_Wave" % osc_no].value == 0: # if it's OFF we won't do nothing
return
# selecting other things
while True :
RF.randomize_parameter(params['OSC%i_Width' % osc_no], au, RF.uniform)
RF.randomize_parameter(params['OSC%i_Stack' % osc_no], au, RF.uniform)
RF.randomize_parameter(params['OSC%i_StackOffset' % osc_no], au, RF.uniform_custom(0., .55))
RF.randomize_parameter(params['SHP%i_FilterType' % osc_no], au, RF.uniform)
RF.randomize_parameter(params['SHP%i_CutOff' % osc_no], au, RF.uniform)
RF.randomize_parameter(params['SHP%i_Resonance' % osc_no], au, RF.uniform)
RF.randomize_parameter(params['SHP%i_ShapeType' % osc_no], au, RF.uniform_list(range(4)+[5]))
if verbose:
print 'Shape type : %s (%i)' % (params['SHP%i_ShapeType' % osc_no].get_str_from_value(), params['SHP%i_ShapeType' % osc_no].value),
if params['SHP%i_ShapeType' % osc_no].value == 3:
RF.randomize_parameter(params['SHP%i_Bias' % osc_no], au, RF.uniform_custom(0., .25))
else:
RF.randomize_parameter(params['SHP%i_Bias' % osc_no], au, RF.uniform)
RF.randomize_parameter(params['SHP%i_Drive' % osc_no], au, RF.uniform)
if verbose:
print 'and bias is %s' % params['SHP%i_Bias' % osc_no].get_str_from_value()
# some "not osc1" specific parameters
if osc_no != 1:
RF.randomize_parameter(params['OSC%i_Detune' % osc_no], au, RF.normal(.5, .05))
RF.randomize_parameter(params['OSC%i_SyncOffset' % osc_no], au, RF.uniform)
if verbose:
print 'listening to OSC %i' % osc_no
#host.play()
params["MIX%i_Level" % osc_no].value = .2
if check_volume(host, verbose=verbose) > .004:
break
if verbose:
print "Something doesn't sound good : let's do it again."
def randomize_parameters(self, nb_trials=10):
"""
Generate random parameters in a clever way for audiounit 'au' (which must be automat1 by alphakanal)
au must be in the graph of host.
Returns the number of trials if it succeded, -1 if not.
But -1 should very unusual.
nb_trials : nb of time it will try before it stops and returns -1
"""
#for trial_no in range(nb_trials):
trial_no=0
while True:
self.reset_parameters()
verbose = False
au = self.au
host = self.host
params = self.params_dict
params["MIX1_Level"] = params["Mix1_Level"]
self.reset_parameters()
def set_some_osc_params(osc_no):
''' Setting up oscillator 'osc_no'.
'''
if verbose:
print '---------'
print '- OSC %i -' % osc_no
print '---------'
# let's mute everything excep 'osc_no'
for i in [1,2,3]:
params['MIX%i_Level' % i].value = (1. if i == osc_no else 0.)
# selecting which type of wave
listes = [range(1,6), range(0,6), range(0,6)+[8]] # it can only be sin, tri, rect, saw, table / + off / + noise
RF.randomize_parameter(params["OSC%i_Wave" % osc_no], au, RF.uniform_list(listes[osc_no-1]))
if verbose:
print 'Wave type : %s' % params["OSC%i_Wave" % osc_no].get_str_from_value()
if params["OSC%i_Wave" % osc_no].value == 0: # if it's OFF we won't do nothing
return
# selecting other things
while True :
RF.randomize_parameter(params['OSC%i_Width' % osc_no], au, RF.uniform)
RF.randomize_parameter(params['OSC%i_Stack' % osc_no], au, RF.uniform)
RF.randomize_parameter(params['OSC%i_StackOffset' % osc_no], au, RF.uniform_custom(0., .55))
RF.randomize_parameter(params['SHP%i_FilterType' % osc_no], au, RF.uniform)
RF.randomize_parameter(params['SHP%i_CutOff' % osc_no], au, RF.uniform)
RF.randomize_parameter(params['SHP%i_Resonance' % osc_no], au, RF.uniform)
RF.randomize_parameter(params['SHP%i_ShapeType' % osc_no], au, RF.uniform_list(range(4)+[5]))
if verbose:
print 'Shape type : %s (%i)' % (params['SHP%i_ShapeType' % osc_no].get_str_from_value(), params['SHP%i_ShapeType' % osc_no].value),
if params['SHP%i_ShapeType' % osc_no].value == 3:
RF.randomize_parameter(params['SHP%i_Bias' % osc_no], au, RF.uniform_custom(0., .25))
else:
RF.randomize_parameter(params['SHP%i_Bias' % osc_no], au, RF.uniform)
RF.randomize_parameter(params['SHP%i_Drive' % osc_no], au, RF.uniform)
if verbose:
print 'and bias is %s' % params['SHP%i_Bias' % osc_no].get_str_from_value()
# some "not osc1" specific parameters
if osc_no != 1:
RF.randomize_parameter(params['OSC%i_Detune' % osc_no], au, RF.normal(.5, .05))
RF.randomize_parameter(params['OSC%i_SyncOffset' % osc_no], au, RF.uniform)
if verbose:
print 'listening to OSC %i' % osc_no
#host.play()
params["MIX%i_Level" % osc_no].value = .2
if check_volume(host, verbose=verbose) > .004:
break
if verbose:
print "Something doesn't sound good : let's do it again."
for i in [1,2,3]:
set_some_osc_params(i)
# OSC volumes
params['MIX1_Level'].value = 1.
for i in [2,3]:
if params['OSC%i_Wave' % i].value == 0:
params['MIX%i_Level' % i].value = params['MIX%i_Level' % i].default_value
elif params['OSC%i_Wave' %i].value == 8: # if it's noise
RF.randomize_parameter(params['MIX%i_Level' % i], au, RF.uniform_custom(0., .25))
else:
RF.randomize_parameter(params['MIX%i_Level' % i], au, RF.uniform)
# envelop
RF.randomize_parameter(params['AMP_Attack'], self.au, RF.normal(0., .25)) # if neg it becomes 0. alone
for suffix in 'Hold Decay Sustain'.split():
RF.randomize_parameter(params['AMP_%s' % suffix], self.au, RF.uniform)
RF.randomize_parameter(params['AMP_Release'], self.au, RF.normal(.3, .5))
normalize_volume(host, params["OUT_Master"], target_peak=self.volume, verbose=verbose)
vol = params['OUT_Master']
if vol.value < vol.range[1] and vol.value > vol.range[0]:
return trial_no
trial_no+=1
return -1
def randomize_parameters(self, nb_trials=10):
"""
Returns the number of trials if it succeded, -1 if not.
But -1 should very unusual.
nb_trials : nb of time it will try before it stops and returns -1
"""
self.au.bypass = False if NR.uniform() < self.prob_on else True
if self.au.bypass == True:
self.reset_parameters()
return 0
for no_trial in range(nb_trials):
self.reset_parameters()
# dist
# 0. 2/3 of the time, uniform between 0. 1. for the rest of the time
RF.randomize_parameter(self.params_dict["DistTube"], self.au, RF.uniform_custom(-2.0, 1.0))
self.params_dict["DistMech"].value = max(self.params_dict["DistMech"].value, 0.0)
RF.randomize_parameter(self.params_dict["DistTube"], self.au, RF.uniform_custom(-2.0, 1.0))
self.params_dict["DistTube"].value = max(self.params_dict["DistTube"].value, 0.0)
# cut off
RF.randomize_parameter(self.params_dict["MmFilterOn"], self.au, RF.weighted_list([0.0, 1.0], [0.33, 0.67]))
if self.params_dict["MmFilterOn"].value == 1.0:
RF.randomize_parameter(self.params_dict["MmFilterCutoff"], self.au, RF.uniform)
RF.randomize_parameter(self.params_dict["MmFilterRes"], self.au, RF.uniform)
# Compress
# off half the time
temp = RF.weighted_list([False, True], [0.33, 0.67])(None, None)
if temp:
RF.randomize_parameter(self.params_dict["CompressAmount"], self.au, RF.uniform)
RF.randomize_parameter(self.params_dict["CompressMode"], self.au, RF.weighted_list([0.0, 1.0], [0.5, 0.5]))
# Master
RF.randomize_parameter(self.params_dict["MasterMix"], self.au, RF.uniform)
normalize_volume(
self.host,
self.params_dict["MasterVolume"],
target_peak=self.volume,
volumes=[0.5, 0.7, 0.9],
verbose=False,
)
# for p in self.params:
# if not p.name.startswith('Unused'):
# print p
vol = self.params_dict["MasterVolume"].value
# raw_input('test')
if vol < 1.0 and vol > 0.0:
return no_trial
return -1