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c6ec6ab08a89ea570a50177668ebf8841d710d49206b17f62f4fed5bfc774aed
|
lupu2022/LotusRiver
|
biscale.dsp
|
import("stdfaust.lib");
low = nentry("low", 0.1, 0, 10000, 0.01);
up = nentry("up", 0.1, 0, 10000, 0.01);
scale = up - low;
process(x) = low + (xx + 1.0) / 2.0 * scale
with {
xx = ((x <= 1.0) & (x >= -1.0)) * x + (x > 1.0) - (x < -1.0);
};
|
https://raw.githubusercontent.com/lupu2022/LotusRiver/fdcfc1bd1669e61b21d09f22063a158cdfc23294/fs/zz/biscale.dsp
|
faust
|
import("stdfaust.lib");
low = nentry("low", 0.1, 0, 10000, 0.01);
up = nentry("up", 0.1, 0, 10000, 0.01);
scale = up - low;
process(x) = low + (xx + 1.0) / 2.0 * scale
with {
xx = ((x <= 1.0) & (x >= -1.0)) * x + (x > 1.0) - (x < -1.0);
};
|
|
d30d15e1f11aba12f1404f6eff2e009eea25a6bc6ec0cde8c2076a9b89467e26
|
lupu2022/LotusRiver
|
fm.dsp
|
import("stdfaust.lib");
carry = nentry("carry", 0.1, 0, 10000, 0.01);
modulator = nentry("modulator", 0.1, 0, 10000, 0.01);
index = nentry("index", 0.1, 0, 1000, 0.01);
freqs = (carry, modulator);
indics = (index);
process = sy.fm(freqs, indics);
|
https://raw.githubusercontent.com/lupu2022/LotusRiver/1de6b2c5c790cb62e127f0447e93f12b87d0c238/fs/zz/fm.dsp
|
faust
|
import("stdfaust.lib");
carry = nentry("carry", 0.1, 0, 10000, 0.01);
modulator = nentry("modulator", 0.1, 0, 10000, 0.01);
index = nentry("index", 0.1, 0, 1000, 0.01);
freqs = (carry, modulator);
indics = (index);
process = sy.fm(freqs, indics);
|
|
0db8156c72390cb0bf9eae751134e57f1b978830388c868c06628ed04aac481e
|
lupu2022/LotusRiver
|
comb.dsp
|
import("stdfaust.lib");
rtime = nentry("rtime", 0.1, 0, 10000, 0.01);
coef_y = nentry("coef_y", 0.1, 0, 10000, 0.01);
coef_x = nentry("coef_x", 0.1, 0, 10000, 0.01);
n = int(0.25 * ma.SR);
d = int(rtime * ma.SR - 1);
process = (*(coef_y), *(coef_x) : + : de.delay(n, d)) ~ _;
|
https://raw.githubusercontent.com/lupu2022/LotusRiver/1de6b2c5c790cb62e127f0447e93f12b87d0c238/fs/zz/comb.dsp
|
faust
|
import("stdfaust.lib");
rtime = nentry("rtime", 0.1, 0, 10000, 0.01);
coef_y = nentry("coef_y", 0.1, 0, 10000, 0.01);
coef_x = nentry("coef_x", 0.1, 0, 10000, 0.01);
n = int(0.25 * ma.SR);
d = int(rtime * ma.SR - 1);
process = (*(coef_y), *(coef_x) : + : de.delay(n, d)) ~ _;
|
|
f45b5bbc07fd4dac7e2d33cc9961a05bb7aeb9595a0ea2321b6dc805ad922c1f
|
lupu2022/LotusRiver
|
tenv.dsp
|
import("stdfaust.lib");
atk = nentry("atk", 0.1, 0, 10000, 0.01);
hold = nentry("hold", 0.1, 0, 10000, 0.01);
rel = nentry("rel", 0.1, 0, 10000, 0.01);
hold_flag = (rel + hold) * ma.SR;
pos = auto_add ~ _
with {
auto_add(last_p, trig) =
(trig == 0) * ( ( (last_p - 1) < hold_flag) * (last_p + 1) + ( (last_p + 1) >= hold_flag) * hold_flag);
};
process(t) = en.are(atk, rel, trig)
with {
p = pos(t);
trig = (p < hold_flag);
};
|
https://raw.githubusercontent.com/lupu2022/LotusRiver/2502800bdb1c86ff7cfe2da97a3acf2d88b39002/fs/zz/tenv.dsp
|
faust
|
import("stdfaust.lib");
atk = nentry("atk", 0.1, 0, 10000, 0.01);
hold = nentry("hold", 0.1, 0, 10000, 0.01);
rel = nentry("rel", 0.1, 0, 10000, 0.01);
hold_flag = (rel + hold) * ma.SR;
pos = auto_add ~ _
with {
auto_add(last_p, trig) =
(trig == 0) * ( ( (last_p - 1) < hold_flag) * (last_p + 1) + ( (last_p + 1) >= hold_flag) * hold_flag);
};
process(t) = en.are(atk, rel, trig)
with {
p = pos(t);
trig = (p < hold_flag);
};
|
|
ccc40aa95caca60a7cc2cb9a0d9d856c4ecf717c9528fe74292789ab6b519485
|
lupu2022/LotusRiver
|
tenvx.dsp
|
import("stdfaust.lib");
atk = nentry("atk", 0.1, 0, 10000, 0.01);
hold = nentry("hold", 0.1, 0, 10000, 0.01);
rel = nentry("rel", 0.1, 0, 10000, 0.01);
a_a = exp(-1.0/(atk * ma.SR));
b_a = 1.0 - a_a;
a_r = exp(-1.0/(rel * ma.SR));
hcount = hold * ma.SR;
counter(t) = (a * hcount + b * (_ - 1) ) ~ check
with {
a = t != 0;
b = t == 0;
check(x) = (x > 0) * x;
};
process(t) = select ~ _
with {
count = counter(t);
select(y) = (count > 0) * (b_a + a_a * y) + (count <= 0) * a_r * y;
};
|
https://raw.githubusercontent.com/lupu2022/LotusRiver/1de6b2c5c790cb62e127f0447e93f12b87d0c238/fs/zz/tenvx.dsp
|
faust
|
import("stdfaust.lib");
atk = nentry("atk", 0.1, 0, 10000, 0.01);
hold = nentry("hold", 0.1, 0, 10000, 0.01);
rel = nentry("rel", 0.1, 0, 10000, 0.01);
a_a = exp(-1.0/(atk * ma.SR));
b_a = 1.0 - a_a;
a_r = exp(-1.0/(rel * ma.SR));
hcount = hold * ma.SR;
counter(t) = (a * hcount + b * (_ - 1) ) ~ check
with {
a = t != 0;
b = t == 0;
check(x) = (x > 0) * x;
};
process(t) = select ~ _
with {
count = counter(t);
select(y) = (count > 0) * (b_a + a_a * y) + (count <= 0) * a_r * y;
};
|
|
b040b127a8a7f942a529f8a9acd5c4b7bdca259cb85815f6a511c6a8243b51d3
|
lupu2022/phy2raw
|
clarinet.dsp
|
import("stdfaust.lib");
import("instruments.lib");
//==================== GUI SPECIFICATION ================
freq = nentry("h:Basic_Parameters/freq [1][unit:Hz] [tooltip:Tone frequency]",440,20,20000,1);
gain = nentry("h:Basic_Parameters/gain [1][tooltip:Gain (value between 0 and 1)]",1,0,1,0.01);
gate = button("h:Basic_Parameters/gate [1][tooltip:noteOn = 1, noteOff = 0]");
reedStiffness = 0.5; //Reed stiffness (value between 0 and 1)
noiseGain = 0.0; //Breath noise gain (value between 0 and 1)
pressure = 1.0; //Breath pressure (value bewteen 0 and 1)
typeModulation = 0; /*0=theta is modulated by the incoming signal;
1=theta is modulated by the averaged incoming signal;
2=theta is modulated by the squared incoming signal; 3=theta is modulated by a sine wave of frequency freqMod;
4=theta is modulated by a sine wave of frequency freq;*/
nonLinearity = 0.0; //Nonlinearity factor (value between 0 and 1)
frequencyMod = 220; //Frequency of the sine wave for the modulation of theta (works if Modulation Type=3)
nonLinAttack = 0.1; //Attack duration of the nonlinearity (0 ~ 2 )
vibratoFreq = 5; //Vibrato_Freq, unit:hz
vibratoGain = 0.01; //Vibrato_Gain A value between 0 and 1
vibratoAttack = 0.5; //Vibrato attack duration, unit:s (0 ~ 2)
vibratoRelease = 0.01; //Vibrato release duration, unit:s (0 ~ 2)
envelopeAttack = 0.01; //Envelope attack duration
envelopeDecay = 0.05; //Envelope decay duration
envelopeRelease = 0.1; //Envelope release duration
//==================== SIGNAL PROCESSING ======================
//----------------------- Nonlinear filter ----------------------------
//nonlinearities are created by the nonlinear passive allpass ladder filter declared in miscfilter.lib
//nonlinear filter order
nlfOrder = 6;
//attack - sustain - release envelope for nonlinearity (declared in instruments.lib)
envelopeMod = en.asr(nonLinAttack,1,envelopeRelease,gate);
//nonLinearModultor is declared in instruments.lib, it adapts allpassnn from miscfilter.lib
//for using it with waveguide instruments
NLFM = nonLinearModulator((nonLinearity : si.smoo),envelopeMod,freq,
typeModulation,(frequencyMod : si.smoo),nlfOrder);
//----------------------- Synthesis parameters computing and functions declaration ----------------------------
//reed table parameters
reedTableOffset = 0.7;
reedTableSlope = -0.44 + (0.26*reedStiffness);
//the reed function is declared in instruments.lib
reedTable = reed(reedTableOffset,reedTableSlope);
//delay line with a length adapted in function of the order of nonlinear filter
delayLength = ma.SR/freq*0.5 - 1.5 - (nlfOrder*nonLinearity)*(typeModulation < 2);
delayLine = de.fdelay(4096,delayLength);
//one zero filter used as a allpass: pole is set to -1
filter = oneZero0(0.5,0.5);
//stereoizer is declared in instruments.lib and implement a stereo spacialisation in function of
//the frequency period in number of samples
stereo = stereoizer(ma.SR/freq);
//----------------------- Algorithm implementation ----------------------------
//Breath pressure + vibrato + breath noise + envelope (Attack / Decay / Sustain / Release)
envelope = en.adsr(envelopeAttack,envelopeDecay,1,envelopeRelease,gate)*pressure*0.9;
vibrato = os.osc(vibratoFreq)*vibratoGain*
envVibrato(0.1*2*vibratoAttack,0.9*2*vibratoAttack,100,vibratoRelease,gate);
breath = envelope + envelope*no.noise*noiseGain;
breathPressure = breath + breath*vibrato;
process =
//Commuted Loss Filtering
(_,(breathPressure <: _,_) : (filter*-0.95 - _ <:
//Non-Linear Scattering
*(reedTable)) + _) ~
//Delay with Feedback
(delayLine : NLFM) :
//scaling and stereo
*(gain)*2.5 : stereo : instrReverb : +(_) / 0.5;
|
https://raw.githubusercontent.com/lupu2022/phy2raw/2aa0ff6ac003b2dc63dbb6a89e4d0fe3d9941431/phy/clarinet.dsp
|
faust
|
==================== GUI SPECIFICATION ================
Reed stiffness (value between 0 and 1)
Breath noise gain (value between 0 and 1)
Breath pressure (value bewteen 0 and 1)
0=theta is modulated by the incoming signal;
1=theta is modulated by the averaged incoming signal;
2=theta is modulated by the squared incoming signal; 3=theta is modulated by a sine wave of frequency freqMod;
4=theta is modulated by a sine wave of frequency freq;
Nonlinearity factor (value between 0 and 1)
Frequency of the sine wave for the modulation of theta (works if Modulation Type=3)
Attack duration of the nonlinearity (0 ~ 2 )
Vibrato_Freq, unit:hz
Vibrato_Gain A value between 0 and 1
Vibrato attack duration, unit:s (0 ~ 2)
Vibrato release duration, unit:s (0 ~ 2)
Envelope attack duration
Envelope decay duration
Envelope release duration
==================== SIGNAL PROCESSING ======================
----------------------- Nonlinear filter ----------------------------
nonlinearities are created by the nonlinear passive allpass ladder filter declared in miscfilter.lib
nonlinear filter order
attack - sustain - release envelope for nonlinearity (declared in instruments.lib)
nonLinearModultor is declared in instruments.lib, it adapts allpassnn from miscfilter.lib
for using it with waveguide instruments
----------------------- Synthesis parameters computing and functions declaration ----------------------------
reed table parameters
the reed function is declared in instruments.lib
delay line with a length adapted in function of the order of nonlinear filter
one zero filter used as a allpass: pole is set to -1
stereoizer is declared in instruments.lib and implement a stereo spacialisation in function of
the frequency period in number of samples
----------------------- Algorithm implementation ----------------------------
Breath pressure + vibrato + breath noise + envelope (Attack / Decay / Sustain / Release)
Commuted Loss Filtering
Non-Linear Scattering
Delay with Feedback
scaling and stereo
|
import("stdfaust.lib");
import("instruments.lib");
freq = nentry("h:Basic_Parameters/freq [1][unit:Hz] [tooltip:Tone frequency]",440,20,20000,1);
gain = nentry("h:Basic_Parameters/gain [1][tooltip:Gain (value between 0 and 1)]",1,0,1,0.01);
gate = button("h:Basic_Parameters/gate [1][tooltip:noteOn = 1, noteOff = 0]");
nlfOrder = 6;
envelopeMod = en.asr(nonLinAttack,1,envelopeRelease,gate);
NLFM = nonLinearModulator((nonLinearity : si.smoo),envelopeMod,freq,
typeModulation,(frequencyMod : si.smoo),nlfOrder);
reedTableOffset = 0.7;
reedTableSlope = -0.44 + (0.26*reedStiffness);
reedTable = reed(reedTableOffset,reedTableSlope);
delayLength = ma.SR/freq*0.5 - 1.5 - (nlfOrder*nonLinearity)*(typeModulation < 2);
delayLine = de.fdelay(4096,delayLength);
filter = oneZero0(0.5,0.5);
stereo = stereoizer(ma.SR/freq);
envelope = en.adsr(envelopeAttack,envelopeDecay,1,envelopeRelease,gate)*pressure*0.9;
vibrato = os.osc(vibratoFreq)*vibratoGain*
envVibrato(0.1*2*vibratoAttack,0.9*2*vibratoAttack,100,vibratoRelease,gate);
breath = envelope + envelope*no.noise*noiseGain;
breathPressure = breath + breath*vibrato;
process =
(_,(breathPressure <: _,_) : (filter*-0.95 - _ <:
*(reedTable)) + _) ~
(delayLine : NLFM) :
*(gain)*2.5 : stereo : instrReverb : +(_) / 0.5;
|
3210ca4c4e48c13f745d591b5e2bccf45abe4bea7a7b9f7504cc4cafc4f045ab
|
lupu2022/LotusRiver
|
vibrato.dsp
|
import("stdfaust.lib");
//----------------------- VIBRATO ENVELOPE ----------------------------
// 4 phases envelope to control vibrato gain
//
// USAGE:
// _ : *(envVibrato(b,a,s,r,t)) : _
// where
// b = beginning duration (silence) in seconds
// a = attack duration in seconds
// s = sustain as a percentage of the amplitude to be modified
// r = release duration in seconds
// t = trigger signal
envVibrato(b,a,s,r,t) = env ~ (_,_,_) : (!,!,_) // the 3 'state' signals are fed back
with {
env(p2,cnt,y) =
(t>0) & (p2|(y>=1)),
(cnt + 1)*(t>0), // counter for the first step "b"
(y + p1*p3*u*(s/100) - p4*w*y)*((p4==0)|(y>=eps)) // y = envelop signal
//*(y>=eps) // cut off tails to prevent denormals
with {
p1 = (p2==0) & (t>0) & (y<1) & (cnt>(b*ma.SR)); // p1 = attack phase
p3 = 1-(cnt<(nb)); // p3 = beginning phase
p4 = (t<=0) & (y>0); // p4 = release phase
// #samples in attack, release, must be >0
nb = ma.SR*b+(b==0.0) ; na = ma.SR*a+(a==0.0); nr = ma.SR*r+(r==0.0);
// attack and (-60dB) release rates
z = s+(s==0.0)*ba.db2linear(-60);
u = 1/na; w = 1-1/pow(z*ba.db2linear(60), 1/nr);
// values below this threshold are considered zero in the release phase
eps = ba.db2linear(-120);
};
};
freq = nentry("freq", 0.1, 0, 1000, 0.01);
phase = nentry("phase", 0.1, 0, 1000, 0.01);
attack = nentry("attack", 0.1, 0, 10000, 0.01);
release = nentry("release", 0.1, 0, 10000, 0.01);
process = os.oscp(freq, phase) * envVibrato(0.2 * attack, 0.8 * attack, 60, release);
|
https://raw.githubusercontent.com/lupu2022/LotusRiver/1de6b2c5c790cb62e127f0447e93f12b87d0c238/fs/zz/vibrato.dsp
|
faust
|
----------------------- VIBRATO ENVELOPE ----------------------------
4 phases envelope to control vibrato gain
USAGE:
_ : *(envVibrato(b,a,s,r,t)) : _
where
b = beginning duration (silence) in seconds
a = attack duration in seconds
s = sustain as a percentage of the amplitude to be modified
r = release duration in seconds
t = trigger signal
the 3 'state' signals are fed back
counter for the first step "b"
y = envelop signal
*(y>=eps) // cut off tails to prevent denormals
p1 = attack phase
p3 = beginning phase
p4 = release phase
#samples in attack, release, must be >0
attack and (-60dB) release rates
values below this threshold are considered zero in the release phase
|
import("stdfaust.lib");
with {
env(p2,cnt,y) =
(t>0) & (p2|(y>=1)),
with {
nb = ma.SR*b+(b==0.0) ; na = ma.SR*a+(a==0.0); nr = ma.SR*r+(r==0.0);
z = s+(s==0.0)*ba.db2linear(-60);
u = 1/na; w = 1-1/pow(z*ba.db2linear(60), 1/nr);
eps = ba.db2linear(-120);
};
};
freq = nentry("freq", 0.1, 0, 1000, 0.01);
phase = nentry("phase", 0.1, 0, 1000, 0.01);
attack = nentry("attack", 0.1, 0, 10000, 0.01);
release = nentry("release", 0.1, 0, 10000, 0.01);
process = os.oscp(freq, phase) * envVibrato(0.2 * attack, 0.8 * attack, 60, release);
|
fcf555b9e2e470b91ced68eb37f4b5b4d422ce7b3c222e828d344785a555b0f8
|
matthewcaren/faust-guitar
|
chain.dsp
|
import("stdfaust.lib");
// *** COMPRESSOR ***
compressorParam = hslider("compressorParam", 6, 1, 20, 0.01) : si.smoo;
compressorDepth = hslider("compressorDepth", 0, 0, 1, 0.01) : si.smoo;
compressor = _*(1+compressorDepth) <: _*(1-compressorDepth), compressorDepth*co.compressor_mono(compressorParam,-20,0.08,0.3) :> _ ;
// *** FUZZ ***
fuzzDepth = hslider("fuzzDepth", 0.75, 0.75, 30, 0.01) : si.smoo;
fuzzParam = hslider("fuzzParam", 0.4, 0.03, 0.7, 0.01) : si.smoo;
divide(input) = ((((input*fuzzDepth-1)/(input+(0.5/fuzzDepth + fuzzParam) : max(0.0001)) : ef.cubicnl(0,1)))/2 + (0 : ef.cubicnl(2,-1))*0.1);
fuzz = (divide+0.15)/(3+0.25*fuzzDepth);
// *** PHASER ***
phaserParam = hslider("phaserParam", 0.4, 0, 7, 0.001) : si.smoo;
phaserDepth = hslider("phaserDepth", 1, 0, 1, 0.01) : si.smoo;
phaser = _ : pf.phaser2_mono(2, 0, 1000, 50, 1.25, 1000, phaserParam, phaserDepth, .3, 0);
// *** REVERB ***
reverbParam = hslider("reverbParam", 15, 1, 40, 0.01) : si.smoo;
reverbDepth = hslider("reverbDepth", 0.4, 0, 1, 0.01) : si.smoo;
zita_rev_fdn(f1,f2,t60dc,t60m,fsmax) =
((si.bus(2*N) :> allpass_combs(N) : feedbackmatrix(N)) ~
(delayfilters(N,freqs,durs) : fbdelaylines(N)))
with {
N = 4;
// Delay-line lengths in seconds:
apdelays = (0.020346, 0.024421, 0.031604, 0.027333); // feedforward delays in seconds
tdelays = ( 0.153129, 0.210389, 0.127837, 0.256891); // total delays in seconds
tdelay(i) = floor(0.5 + ma.SR*ba.take(i+1,tdelays)); // samples
apdelay(i) = floor(0.5 + ma.SR*ba.take(i+1,apdelays));
fbdelay(i) = tdelay(i) - apdelay(i);
// NOTE: Since SR is not bounded at compile time, we can't use it to
// allocate delay lines; hence, the fsmax parameter:
tdelaymaxfs(i) = floor(0.5 + fsmax*ba.take(i+1,tdelays));
apdelaymaxfs(i) = floor(0.5 + fsmax*ba.take(i+1,apdelays));
fbdelaymaxfs(i) = tdelaymaxfs(i) - apdelaymaxfs(i);
nextpow2(x) = ceil(log(x)/log(2.0));
maxapdelay(i) = int(2.0^max(1.0,nextpow2(apdelaymaxfs(i))));
maxfbdelay(i) = int(2.0^max(1.0,nextpow2(fbdelaymaxfs(i))));
apcoeff(i) = select2(i&1,0.6,-0.6); // allpass comb-filter coefficient
allpass_combs(N) =
par(i,N,(fi.allpass_comb(maxapdelay(i),apdelay(i),apcoeff(i)))); // filters.lib
fbdelaylines(N) = par(i,N,(de.delay(1024,(fbdelay(i)))));
freqs = (f1,f2); durs = (t60dc,t60m);
delayfilters(N,freqs,durs) = par(i,N,filter(i,freqs,durs));
feedbackmatrix(N) = ro.hadamard(N);
staynormal = 10.0^(-20); // let signals decay well below LSB, but not to zero
special_lowpass(g,f) = si.smooth(p) with {
// unity-dc-gain lowpass needs gain g at frequency f => quadratic formula:
p = mbo2 - sqrt(max(0,mbo2*mbo2 - 1.0)); // other solution is unstable
mbo2 = (1.0 - gs*c)/(1.0 - gs); // NOTE: must ensure |g|<1 (t60m finite)
gs = g*g;
c = cos(2.0*ma.PI*f/float(ma.SR));
};
filter(i,freqs,durs) = lowshelf_lowpass(i)/sqrt(float(N))+staynormal
with {
lowshelf_lowpass(i) = gM*low_shelf1_l(g0/gM,f(1)):special_lowpass(gM,f(2));
low_shelf1_l(G0,fx,x) = x + (G0-1)*fi.lowpass(1,fx,x); // filters.lib
g0 = g(0,i);
gM = g(1,i);
f(k) = ba.take(k,freqs);
dur(j) = ba.take(j+1,durs);
n60(j) = dur(j)*ma.SR; // decay time in samples
g(j,i) = exp(-3.0*log(10.0)*tdelay(i)/n60(j));
};
};
// Stereo input delay used by zita_rev1 in both stereo and ambisonics mode:
zita_in_delay(rdel) = zita_delay_mono(rdel), zita_delay_mono(rdel) with {
zita_delay_mono(rdel) = de.delay(50,ma.SR*rdel*0.001) * 0.3;
};
// Stereo input mapping used by zita_rev1 in both stereo and ambisonics mode:
zita_distrib2(N) = _,_ <: fanflip(N) with {
fanflip(4) = _,_,*(-1),*(-1);
fanflip(N) = fanflip(N/2),fanflip(N/2);
};
zita_rev1_stereo(rdel,f1,f2,t60dc,t60m,fsmax) =
zita_in_delay(rdel)
: zita_distrib2(N)
: zita_rev_fdn(f1,f2,t60dc,t60m,fsmax)
: output2(N)
with {
N = 4;
output2(N) = outmix(N) : *(t1),*(t1);
t1 = 0.37; // zita-rev1 linearly ramps from 0 to t1 over one buffer
outmix(4) = !,ro.butterfly(2),!; // probably the result of some experimenting!
outmix(N) = outmix(N/2),par(i,N/2,!);
};
reverb = _ <: (_,_ <: zita_rev1_stereo(50,200,6000,reverbParam*1.2,reverbParam,48000),_,_ :
out_eq,_,_ : dry_wet) :> _
with{
out_eq = pareq_stereo(eq1f,eq1l,eq1q) : pareq_stereo(eq2f,eq2l,eq2q);
pareq_stereo(eqf,eql,Q) = fi.peak_eq_rm(eql,eqf,tpbt), fi.peak_eq_rm(eql,eqf,tpbt)
with {
tpbt = wcT/sqrt(max(0,g)); // tan(PI*B/SR), B bw in Hz (Q^2 ~ g/4)
wcT = 2*ma.PI*eqf/ma.SR; // peak frequency in rad/sample
g = ba.db2linear(eql); // peak gain
};
eq1f = 315;
eq1l = 0;
eq1q = 3;
eq2f = 1500;
eq2l = 0;
eq2q = 3;
dry_wet(x,y) = *(wet) + dry*x, *(wet) + dry*y
with {
wet = 0.5*(drywet+1.0);
dry = 1.0-wet;
};
drywet = 1-reverbDepth;
};
process = compressor : fuzz : phaser : reverb;
|
https://raw.githubusercontent.com/matthewcaren/faust-guitar/5bbe6a0b4e0f348c570cd8dfc228a723bc85b87e/chain.dsp
|
faust
|
*** COMPRESSOR ***
*** FUZZ ***
*** PHASER ***
*** REVERB ***
Delay-line lengths in seconds:
feedforward delays in seconds
total delays in seconds
samples
NOTE: Since SR is not bounded at compile time, we can't use it to
allocate delay lines; hence, the fsmax parameter:
allpass comb-filter coefficient
filters.lib
let signals decay well below LSB, but not to zero
unity-dc-gain lowpass needs gain g at frequency f => quadratic formula:
other solution is unstable
NOTE: must ensure |g|<1 (t60m finite)
filters.lib
decay time in samples
Stereo input delay used by zita_rev1 in both stereo and ambisonics mode:
Stereo input mapping used by zita_rev1 in both stereo and ambisonics mode:
zita-rev1 linearly ramps from 0 to t1 over one buffer
probably the result of some experimenting!
tan(PI*B/SR), B bw in Hz (Q^2 ~ g/4)
peak frequency in rad/sample
peak gain
|
import("stdfaust.lib");
compressorParam = hslider("compressorParam", 6, 1, 20, 0.01) : si.smoo;
compressorDepth = hslider("compressorDepth", 0, 0, 1, 0.01) : si.smoo;
compressor = _*(1+compressorDepth) <: _*(1-compressorDepth), compressorDepth*co.compressor_mono(compressorParam,-20,0.08,0.3) :> _ ;
fuzzDepth = hslider("fuzzDepth", 0.75, 0.75, 30, 0.01) : si.smoo;
fuzzParam = hslider("fuzzParam", 0.4, 0.03, 0.7, 0.01) : si.smoo;
divide(input) = ((((input*fuzzDepth-1)/(input+(0.5/fuzzDepth + fuzzParam) : max(0.0001)) : ef.cubicnl(0,1)))/2 + (0 : ef.cubicnl(2,-1))*0.1);
fuzz = (divide+0.15)/(3+0.25*fuzzDepth);
phaserParam = hslider("phaserParam", 0.4, 0, 7, 0.001) : si.smoo;
phaserDepth = hslider("phaserDepth", 1, 0, 1, 0.01) : si.smoo;
phaser = _ : pf.phaser2_mono(2, 0, 1000, 50, 1.25, 1000, phaserParam, phaserDepth, .3, 0);
reverbParam = hslider("reverbParam", 15, 1, 40, 0.01) : si.smoo;
reverbDepth = hslider("reverbDepth", 0.4, 0, 1, 0.01) : si.smoo;
zita_rev_fdn(f1,f2,t60dc,t60m,fsmax) =
((si.bus(2*N) :> allpass_combs(N) : feedbackmatrix(N)) ~
(delayfilters(N,freqs,durs) : fbdelaylines(N)))
with {
N = 4;
apdelay(i) = floor(0.5 + ma.SR*ba.take(i+1,apdelays));
fbdelay(i) = tdelay(i) - apdelay(i);
tdelaymaxfs(i) = floor(0.5 + fsmax*ba.take(i+1,tdelays));
apdelaymaxfs(i) = floor(0.5 + fsmax*ba.take(i+1,apdelays));
fbdelaymaxfs(i) = tdelaymaxfs(i) - apdelaymaxfs(i);
nextpow2(x) = ceil(log(x)/log(2.0));
maxapdelay(i) = int(2.0^max(1.0,nextpow2(apdelaymaxfs(i))));
maxfbdelay(i) = int(2.0^max(1.0,nextpow2(fbdelaymaxfs(i))));
allpass_combs(N) =
fbdelaylines(N) = par(i,N,(de.delay(1024,(fbdelay(i)))));
freqs = (f1,f2); durs = (t60dc,t60m);
delayfilters(N,freqs,durs) = par(i,N,filter(i,freqs,durs));
feedbackmatrix(N) = ro.hadamard(N);
special_lowpass(g,f) = si.smooth(p) with {
gs = g*g;
c = cos(2.0*ma.PI*f/float(ma.SR));
};
filter(i,freqs,durs) = lowshelf_lowpass(i)/sqrt(float(N))+staynormal
with {
lowshelf_lowpass(i) = gM*low_shelf1_l(g0/gM,f(1)):special_lowpass(gM,f(2));
g0 = g(0,i);
gM = g(1,i);
f(k) = ba.take(k,freqs);
dur(j) = ba.take(j+1,durs);
g(j,i) = exp(-3.0*log(10.0)*tdelay(i)/n60(j));
};
};
zita_in_delay(rdel) = zita_delay_mono(rdel), zita_delay_mono(rdel) with {
zita_delay_mono(rdel) = de.delay(50,ma.SR*rdel*0.001) * 0.3;
};
zita_distrib2(N) = _,_ <: fanflip(N) with {
fanflip(4) = _,_,*(-1),*(-1);
fanflip(N) = fanflip(N/2),fanflip(N/2);
};
zita_rev1_stereo(rdel,f1,f2,t60dc,t60m,fsmax) =
zita_in_delay(rdel)
: zita_distrib2(N)
: zita_rev_fdn(f1,f2,t60dc,t60m,fsmax)
: output2(N)
with {
N = 4;
output2(N) = outmix(N) : *(t1),*(t1);
outmix(N) = outmix(N/2),par(i,N/2,!);
};
reverb = _ <: (_,_ <: zita_rev1_stereo(50,200,6000,reverbParam*1.2,reverbParam,48000),_,_ :
out_eq,_,_ : dry_wet) :> _
with{
out_eq = pareq_stereo(eq1f,eq1l,eq1q) : pareq_stereo(eq2f,eq2l,eq2q);
pareq_stereo(eqf,eql,Q) = fi.peak_eq_rm(eql,eqf,tpbt), fi.peak_eq_rm(eql,eqf,tpbt)
with {
};
eq1f = 315;
eq1l = 0;
eq1q = 3;
eq2f = 1500;
eq2l = 0;
eq2q = 3;
dry_wet(x,y) = *(wet) + dry*x, *(wet) + dry*y
with {
wet = 0.5*(drywet+1.0);
dry = 1.0-wet;
};
drywet = 1-reverbDepth;
};
process = compressor : fuzz : phaser : reverb;
|
37c53f2a51a3f77b0431270536206ac69d98d71851f943d596cfb34c6f546e97
|
madskjeldgaard/komet
|
ekvi5.dsp
|
// Equalizer with 5 bells + low and high shelf
import("stdfaust.lib");
import("lib/ekvi.lib");
num_bells = 5;
process = ek.ekvi(num_bells);
|
https://raw.githubusercontent.com/madskjeldgaard/komet/defd9b0b2f4055dcb12b75565631a30152fa779c/faust/ekvi5.dsp
|
faust
|
Equalizer with 5 bells + low and high shelf
|
import("stdfaust.lib");
import("lib/ekvi.lib");
num_bells = 5;
process = ek.ekvi(num_bells);
|
ac282bc3e350ae317b795ee5301ae543dc3e7c6313e26eaa2ed68bc568c1d4ef
|
madskjeldgaard/komet
|
krossover2.dsp
|
// Linkwitz riley based band splitter
import("stdfaust.lib");
process = fi.crossover2LR4(cf) with{
cf = vslider("crossoverFreq",1500,10,20000,0.001);
};
|
https://raw.githubusercontent.com/madskjeldgaard/komet/defd9b0b2f4055dcb12b75565631a30152fa779c/faust/krossover2.dsp
|
faust
|
Linkwitz riley based band splitter
|
import("stdfaust.lib");
process = fi.crossover2LR4(cf) with{
cf = vslider("crossoverFreq",1500,10,20000,0.001);
};
|
e6ccfcc2db6b785f568ffbb742288da7c9bad4cadaff111de9fcc9bf144b1a69
|
madskjeldgaard/komet
|
guitar_streng.dsp
|
import("stdfaust.lib");
import("physmodels.lib");
// Based on guitar_ui_MIDI
streng_guitar1 = pm.guitar(stringLength,pluckPosition,gain,gate)
with{
f = hslider("freq",440,20,20000,0.0001);
gain = hslider("gain",0.8,0,1,0.01);
s = hslider("sustain",0,0,1,1);
pluckPosition = hslider("pluckPosition" ,0.8,0,1,0.01) : si.smoo;
t = button("gate");
gate = t+s : min(1);
freq = f;
stringLength = freq : f2l;
};
process = streng_guitar1;
|
https://raw.githubusercontent.com/madskjeldgaard/komet/defd9b0b2f4055dcb12b75565631a30152fa779c/faust/guitar_streng.dsp
|
faust
|
Based on guitar_ui_MIDI
|
import("stdfaust.lib");
import("physmodels.lib");
streng_guitar1 = pm.guitar(stringLength,pluckPosition,gain,gate)
with{
f = hslider("freq",440,20,20000,0.0001);
gain = hslider("gain",0.8,0,1,0.01);
s = hslider("sustain",0,0,1,1);
pluckPosition = hslider("pluckPosition" ,0.8,0,1,0.01) : si.smoo;
t = button("gate");
gate = t+s : min(1);
freq = f;
stringLength = freq : f2l;
};
process = streng_guitar1;
|
5c44649aa3948e5d937ba8569fdd5e9a390725368d2b4275e30238ec90ada63a
|
madskjeldgaard/komet
|
elektrisk_streng.dsp
|
import("stdfaust.lib");
import("physmodels.lib");
// Based on elecGuitar demo
streng_guitar2 = pm.elecGuitar(stringLength,pluckPosition,1,gain,gate)
with{
f = hslider("freq",440,20,20000,0.001);
gain = hslider("gain",0.8,0,1,0.01);
s = hslider("sustain",0,0,1,1);
pluckPosition = hslider("pluckPosition",0.8,0,1,0.01) : si.smoo;
t = button("gate");
gate = t+s : min(1);
freq = f;
stringLength = freq : f2l;
};
process = streng_guitar2;
|
https://raw.githubusercontent.com/madskjeldgaard/komet/defd9b0b2f4055dcb12b75565631a30152fa779c/faust/elektrisk_streng.dsp
|
faust
|
Based on elecGuitar demo
|
import("stdfaust.lib");
import("physmodels.lib");
streng_guitar2 = pm.elecGuitar(stringLength,pluckPosition,1,gain,gate)
with{
f = hslider("freq",440,20,20000,0.001);
gain = hslider("gain",0.8,0,1,0.01);
s = hslider("sustain",0,0,1,1);
pluckPosition = hslider("pluckPosition",0.8,0,1,0.01) : si.smoo;
t = button("gate");
gate = t+s : min(1);
freq = f;
stringLength = freq : f2l;
};
process = streng_guitar2;
|
d06fb7d76f885c69930242016493f91f73e901a3672e1414314d12b1c25487c9
|
madskjeldgaard/komet
|
modular_streng.dsp
|
import("stdfaust.lib");
import("physmodels.lib");
modular_streng = pm.modularInterpInstr(stringLength,pluckPosition,shape,scale,gain,tapBody,gate)
with{
f = hslider("freq",440,20,20000,0.001);
gain = hslider("gain",0.8,0,1,0.01);
s = hslider("sustain",0,0,1,1);
shape = hslider("shape",0,0,1,0.01)*2;
scale = hslider("scale",0,0,1,0.011)*2;
tapBody = button("tapGate");
pluckPosition = hslider("pluckPosition" ,0.8,0,1,0.01) : si.smoo;
t = button("gate");
gate = t+s : min(1);
freq = f;
stringLength = freq : f2l;
};
process = modular_streng;
|
https://raw.githubusercontent.com/madskjeldgaard/komet/defd9b0b2f4055dcb12b75565631a30152fa779c/faust/modular_streng.dsp
|
faust
|
import("stdfaust.lib");
import("physmodels.lib");
modular_streng = pm.modularInterpInstr(stringLength,pluckPosition,shape,scale,gain,tapBody,gate)
with{
f = hslider("freq",440,20,20000,0.001);
gain = hslider("gain",0.8,0,1,0.01);
s = hslider("sustain",0,0,1,1);
shape = hslider("shape",0,0,1,0.01)*2;
scale = hslider("scale",0,0,1,0.011)*2;
tapBody = button("tapGate");
pluckPosition = hslider("pluckPosition" ,0.8,0,1,0.01) : si.smoo;
t = button("gate");
gate = t+s : min(1);
freq = f;
stringLength = freq : f2l;
};
process = modular_streng;
|
|
7efe2159a4af7fb8da201992d15d009ad06ec11f2031c1d9a595f42f5cea5284
|
madskjeldgaard/komet
|
floejte.dsp
|
import("stdfaust.lib");
import("physmodels.lib");
process = fluteModel(tubeLength,mouthPosition,blow)
with{
f = hslider("freq",440,10,20000,0.00001);
gain = hslider("gain",0.9,0,1,0.01);
envAttack = hslider("envAttack",1,0,10,0.01)*0.001;
s = hslider("sustain",0,0,1,1);
mouthPosition = hslider("mouthPosition",0.5,0,1,0.0001) : si.smoo;
vibratoFreq = hslider("vibratofreq",5,0.0001,1000,0.0001);
vibratoGain = hslider("vibratogain",0.5,0,1,0.0001)*0.04;
t = button("gate");
gate = t+s : min(1);
freq = f;
envelope = gate*gain : si.smooth(ba.tau2pole(envAttack));
tubeLength = freq : f2l;
pressure = envelope;
blow = blower(pressure,0.05,2000,vibratoFreq,vibratoGain);
};
|
https://raw.githubusercontent.com/madskjeldgaard/komet/defd9b0b2f4055dcb12b75565631a30152fa779c/faust/floejte.dsp
|
faust
|
import("stdfaust.lib");
import("physmodels.lib");
process = fluteModel(tubeLength,mouthPosition,blow)
with{
f = hslider("freq",440,10,20000,0.00001);
gain = hslider("gain",0.9,0,1,0.01);
envAttack = hslider("envAttack",1,0,10,0.01)*0.001;
s = hslider("sustain",0,0,1,1);
mouthPosition = hslider("mouthPosition",0.5,0,1,0.0001) : si.smoo;
vibratoFreq = hslider("vibratofreq",5,0.0001,1000,0.0001);
vibratoGain = hslider("vibratogain",0.5,0,1,0.0001)*0.04;
t = button("gate");
gate = t+s : min(1);
freq = f;
envelope = gate*gain : si.smooth(ba.tau2pole(envAttack));
tubeLength = freq : f2l;
pressure = envelope;
blow = blower(pressure,0.05,2000,vibratoFreq,vibratoGain);
};
|
|
7df1b548072475b6765c34de5157e20c3b6066881b610df1ac2b39f17af0f53a
|
madskjeldgaard/komet
|
klimit.dsp
|
import("stdfaust.lib");
// process = co.limiter_1176_R4_mono;
process = co.limiter_lad_mono(LD, ceiling, attack, hold, release) with {
// * `LD` is the lookahead delay in seconds, known at compile-time
LD=0.002;
// * `ceiling` is the linear amplitude output limit
ceiling = vslider("ceiling",0.95,0.00001,1,0.0001);
// * `attack` is the attack time in seconds
attack = vslider("attack",0.001,0.00000001,2,0.0001);
// * `hold` is the hold time in seconds
hold = vslider("hold",0.5,0.00000001,3,0.0001);
// * `release` is the release time in seconds
release = vslider("release",0.01,0.00000001,2,0.0001);
};
|
https://raw.githubusercontent.com/madskjeldgaard/komet/defd9b0b2f4055dcb12b75565631a30152fa779c/faust/klimit.dsp
|
faust
|
process = co.limiter_1176_R4_mono;
* `LD` is the lookahead delay in seconds, known at compile-time
* `ceiling` is the linear amplitude output limit
* `attack` is the attack time in seconds
* `hold` is the hold time in seconds
* `release` is the release time in seconds
|
import("stdfaust.lib");
process = co.limiter_lad_mono(LD, ceiling, attack, hold, release) with {
LD=0.002;
ceiling = vslider("ceiling",0.95,0.00001,1,0.0001);
attack = vslider("attack",0.001,0.00000001,2,0.0001);
hold = vslider("hold",0.5,0.00000001,3,0.0001);
release = vslider("release",0.01,0.00000001,2,0.0001);
};
|
6c8dd8de2fed936d86f43a239c596632350bcee9d4969d9c1376212e56cd8ebb
|
madskjeldgaard/komet
|
messing.dsp
|
import("stdfaust.lib");
import("physmodels.lib");
process = brassModel(tubeLength,lipsTension,mute,pressure)
with{
f = hslider("freq",440,10,20000,0.0001);
gain = hslider("gain",0.5,0,1,0.01);
envAttack = hslider("envAttack",1,0,30,0.01)*0.001;
s = hslider("sustain",0,0,1,1);
lipsTension = hslider("lipsTension",0.5,0,1,0.01) : si.smoo;
mute = hslider("mute",0.5,0,1,0.01) : si.smoo;
vibratoFreq = hslider("vibratoFreq",5,1,100,0.01);
vibratoGain = hslider("vibratoGain",0.5,0,1,0.01)*0.04;
t = button("gate");
gate = t+s : min(1);
vibrato = 1+os.osc(vibratoFreq)*vibratoGain*envelope;
freq = f;
envelope = gate*gain : si.smooth(ba.tau2pole(envAttack));
tubeLength = freq : f2l;
pressure = envelope*vibrato;
};
|
https://raw.githubusercontent.com/madskjeldgaard/komet/defd9b0b2f4055dcb12b75565631a30152fa779c/faust/drafts/messing.dsp
|
faust
|
import("stdfaust.lib");
import("physmodels.lib");
process = brassModel(tubeLength,lipsTension,mute,pressure)
with{
f = hslider("freq",440,10,20000,0.0001);
gain = hslider("gain",0.5,0,1,0.01);
envAttack = hslider("envAttack",1,0,30,0.01)*0.001;
s = hslider("sustain",0,0,1,1);
lipsTension = hslider("lipsTension",0.5,0,1,0.01) : si.smoo;
mute = hslider("mute",0.5,0,1,0.01) : si.smoo;
vibratoFreq = hslider("vibratoFreq",5,1,100,0.01);
vibratoGain = hslider("vibratoGain",0.5,0,1,0.01)*0.04;
t = button("gate");
gate = t+s : min(1);
vibrato = 1+os.osc(vibratoFreq)*vibratoGain*envelope;
freq = f;
envelope = gate*gain : si.smooth(ba.tau2pole(envAttack));
tubeLength = freq : f2l;
pressure = envelope*vibrato;
};
|
|
58b98b36948f78d8930b356cc8ebba1578ae1b1f5717b66066522598aa7e76cb
|
madskjeldgaard/komet
|
klarinet.dsp
|
import("stdfaust.lib");
import("physmodels.lib");
process = clarinetModel(tubeLength,blow,reedStiffness,bellOpening)
with{
f = hslider("freq",440,10,20000,0.00001);
gain = hslider("gain",0.6,0,1,0.01);
envAttack = hslider("envAttack",1,0,30,0.01)*0.001;
s = hslider("sustain",0,0,1,1);
reedStiffness = hslider("reedStiffness",0.5,0,1,0.01);
bellOpening = hslider("bellOpening",0.5,0,1,0.01);
vibratoFreq = hslider("vibratoFreq",5,0.0001,1000,0.0001);
vibratoGain = hslider("vibratoGain",0.25,0,1,0.01)*0.01;
t = button("gate");
gate = t+s : min(1);
vibrato = 1+os.osc(vibratoFreq)*vibratoGain*envelope;
freq = f*vibrato;
envelope = gate*gain : si.smooth(ba.tau2pole(envAttack));
tubeLength = freq : f2l;
pressure = envelope; // TODO: double vibrato here!!
blow = blower(pressure,0.05,2000,vibratoFreq,vibratoGain);
};
|
https://raw.githubusercontent.com/madskjeldgaard/komet/defd9b0b2f4055dcb12b75565631a30152fa779c/faust/drafts/klarinet.dsp
|
faust
|
TODO: double vibrato here!!
|
import("stdfaust.lib");
import("physmodels.lib");
process = clarinetModel(tubeLength,blow,reedStiffness,bellOpening)
with{
f = hslider("freq",440,10,20000,0.00001);
gain = hslider("gain",0.6,0,1,0.01);
envAttack = hslider("envAttack",1,0,30,0.01)*0.001;
s = hslider("sustain",0,0,1,1);
reedStiffness = hslider("reedStiffness",0.5,0,1,0.01);
bellOpening = hslider("bellOpening",0.5,0,1,0.01);
vibratoFreq = hslider("vibratoFreq",5,0.0001,1000,0.0001);
vibratoGain = hslider("vibratoGain",0.25,0,1,0.01)*0.01;
t = button("gate");
gate = t+s : min(1);
vibrato = 1+os.osc(vibratoFreq)*vibratoGain*envelope;
freq = f*vibrato;
envelope = gate*gain : si.smooth(ba.tau2pole(envAttack));
tubeLength = freq : f2l;
blow = blower(pressure,0.05,2000,vibratoFreq,vibratoGain);
};
|
32514681d66b88c48bb9a8a7762a9a1f672777068745f4e969a82016277a013b
|
madskjeldgaard/komet
|
mkdelay.dsp
|
import("stdfaust.lib");
import("lib/mkfilters.dsp");
mkd = environment {
// "Natural comb" - aka a comb filter with a onepole LPF in the feedback path
comblpf(order, maxdelay, delay, fb, lpfcutoff) =
(+ : de.fdelayltv(order, maxdelay, delay)) ~ (* (fb) : mkf.onepolelpf(lpfcutoff)) : fi.dcblocker;
// X number of parallel "natural combs". Multi channel out
parallel_comb_lpf(numDelays, order, maxdelay, delay, delayOffset, fb, lpf) =
par(delayNum, numDelays, delaySig(delayNum))
with{
delaySig(i) = comblpf(order, maxdelay * (i+1), delay * (i+1+delayOffset), fb, lpf) : *(1.0/numDelays);
};
// Same as above but with each comb panned in stereo
parallel_comb_lpf_splayed(numDelays, order, maxdelay, delay, delayOffset, fb, lpf, spread, rotate) =
parallel_comb_lpf(numDelays, order, maxdelay, delay, delayOffset, fb, lpf)
<: par(i,numDelays, pan(i, spread, rotate))
:> _, _
with{
pan(i, spread, rotate, input) = sp.panner(panval(i, spread, rotate));
panval(i, spread, rotate) = (i / numDelays) : *(spread) : +(rotate);
};
};
|
https://raw.githubusercontent.com/madskjeldgaard/komet/defd9b0b2f4055dcb12b75565631a30152fa779c/faust/lib/mkdelay.dsp
|
faust
|
"Natural comb" - aka a comb filter with a onepole LPF in the feedback path
X number of parallel "natural combs". Multi channel out
Same as above but with each comb panned in stereo
|
import("stdfaust.lib");
import("lib/mkfilters.dsp");
mkd = environment {
comblpf(order, maxdelay, delay, fb, lpfcutoff) =
(+ : de.fdelayltv(order, maxdelay, delay)) ~ (* (fb) : mkf.onepolelpf(lpfcutoff)) : fi.dcblocker;
parallel_comb_lpf(numDelays, order, maxdelay, delay, delayOffset, fb, lpf) =
par(delayNum, numDelays, delaySig(delayNum))
with{
delaySig(i) = comblpf(order, maxdelay * (i+1), delay * (i+1+delayOffset), fb, lpf) : *(1.0/numDelays);
};
parallel_comb_lpf_splayed(numDelays, order, maxdelay, delay, delayOffset, fb, lpf, spread, rotate) =
parallel_comb_lpf(numDelays, order, maxdelay, delay, delayOffset, fb, lpf)
<: par(i,numDelays, pan(i, spread, rotate))
:> _, _
with{
pan(i, spread, rotate, input) = sp.panner(panval(i, spread, rotate));
panval(i, spread, rotate) = (i / numDelays) : *(spread) : +(rotate);
};
};
|
e2e3fb172bbe099f2d1751254e1a17f0ff1a6af718458896c82d7aacc6c34dc4
|
madskjeldgaard/komet
|
multikomp3.dsp
|
// Multiband compressor
import("stdfaust.lib");
numBands = 3;
cf1 = vslider("crossoverFreq0",500,10,20000,0.01);
cf2 = vslider("crossoverFreq1",2500,10,20000,0.01);
process = _ : fi.crossover3LR4(cf1, cf2) : par(bandNum,numBands,bandcomp(bandNum)) :> _
with{
bandcomp(bandNum, sig) = makeupGain(bandNum) * co.compressor_mono(
ratio(bandNum),
thresh(bandNum),
att(bandNum),
rel(bandNum),
sig
// knee(bandNum),
// prePost(bandNum),
// abs(_)
);
// TODO
// According to: https://www.thomann.de/se/onlineexpert_page_mastering_dynamic_processing_the_compressor_and_other_tools.html
autoGC = thresh(bandNum) - (thresh(bandNum) / ratio(bandNum)) : ba.db2linear : si.smoo;
makeupGain(bandNum) = vslider("makeupGain%bandNum", 0, -96, 96, 0.1) : si.smoo : ba.db2linear;
ratio(bandNum) = vslider("ratio%bandNum",4,1,40,0.000001);
thresh(bandNum) = vslider("thresh%bandNum",-20,-128,0,0.0001);
att(bandNum) = vslider("attack%bandNum",0.001,0,10,0.0001);
rel(bandNum) = vslider("release%bandNum",0.01,0,10,0.0001);
// knee(bandNum) = vslider("knee%bandNum",6,0,100,0.001);
// prePost(bandNum) = vslider("prePost%bandNum",0,0,2,1); // FIXME: Not sure about this
};
|
https://raw.githubusercontent.com/madskjeldgaard/komet/defd9b0b2f4055dcb12b75565631a30152fa779c/faust/multikomp3.dsp
|
faust
|
Multiband compressor
knee(bandNum),
prePost(bandNum),
abs(_)
TODO
According to: https://www.thomann.de/se/onlineexpert_page_mastering_dynamic_processing_the_compressor_and_other_tools.html
knee(bandNum) = vslider("knee%bandNum",6,0,100,0.001);
prePost(bandNum) = vslider("prePost%bandNum",0,0,2,1); // FIXME: Not sure about this
|
import("stdfaust.lib");
numBands = 3;
cf1 = vslider("crossoverFreq0",500,10,20000,0.01);
cf2 = vslider("crossoverFreq1",2500,10,20000,0.01);
process = _ : fi.crossover3LR4(cf1, cf2) : par(bandNum,numBands,bandcomp(bandNum)) :> _
with{
bandcomp(bandNum, sig) = makeupGain(bandNum) * co.compressor_mono(
ratio(bandNum),
thresh(bandNum),
att(bandNum),
rel(bandNum),
sig
);
autoGC = thresh(bandNum) - (thresh(bandNum) / ratio(bandNum)) : ba.db2linear : si.smoo;
makeupGain(bandNum) = vslider("makeupGain%bandNum", 0, -96, 96, 0.1) : si.smoo : ba.db2linear;
ratio(bandNum) = vslider("ratio%bandNum",4,1,40,0.000001);
thresh(bandNum) = vslider("thresh%bandNum",-20,-128,0,0.0001);
att(bandNum) = vslider("attack%bandNum",0.001,0,10,0.0001);
rel(bandNum) = vslider("release%bandNum",0.01,0,10,0.0001);
};
|
41c556175bfa40f723e6242859bc5917e578a2be91b906f961b57552685de560
|
madskjeldgaard/komet
|
musli.dsp
|
/*
Granola was made by Jean-Louis Paquelin. Thanks Jean-Louis!
https://github.com/jlp6k/faust-things
*/
import("stdfaust.lib");
import("faust-things/Granola.dsp");
BUFFER_DURATION = 10; // Seconds
CONCURRENT_GRAINS = 10;
/*-------------------------------*/
// FREEZE / recording
freeze_ctrl = button("Freeze");
// TODO: Not used. Remove somehow
// writeIndex_disp = hbargraph("writeIndex", 0, ceil(BUFFER_DURATION * 48000) : int);
writeIndex_disp = _;
// Automatic triggering from 0.1 to 1000Hz
density_ctrl = hslider("density", 1, 0.01, 1000, 0.01) : si.smoo;
// Manual triggering
seed_ctrl = button("SEED");
// Input Gain
input_gain_ctrl = vslider("input_gain", 0, -1.5, 1, 0.01) : si.smoo : bipollin2exppos(100);
// Feedback
feedback_ctrl = vslider("feedback", 0, 0, 1, 0.01) : si.smoo;
// Output gain
output_gain_ctrl = vslider("output_gain", 0, -1, 1, 0.01) : si.smoo : bipollin2exppos(100);
// dry (0) / wet (1)
wetting_ctrl = 1;
// position in the table
time_ctrl = hslider("time", 0, 0, 1, 0.001) : si.smoo;
// Grain size
size_ctrl = hslider("size", 0.5, 0.03, BUFFER_DURATION, 0.01) : si.smoo;
// Grain pitch
// TODO: Drop semitone idea
pitch_ctrl = hslider("pitch", 0, -48, 48, 0.5) : ba.semi2ratio;
// Backward playback
reverse_ctrl = button("reverse");
// Grain envelope shape
shape_ctrl = hslider("shape", 0, 0, 1, 0.01);
// In order to reduce the number of control knobs, the window plateau width and plateau position
// are extrapolated from a single shape control. The shape control varies from 0 to 1, smoothly
// morphing the window envelope from a constant 1, to a decreasing ramp, to a triangle and to an
// increasing ramp/saw.
plateau_width_ctrl = 1 - min(shape_ctrl * 3, 1);
plateau_position_ctrl = max((3 * shape_ctrl / 2) - 0.5, 0);
process = _ : Granola(BUFFER_DURATION,CONCURRENT_GRAINS).grains(
freeze_ctrl,
writeIndex_disp,
density_ctrl,
seed_ctrl,
input_gain_ctrl,
feedback_ctrl,
output_gain_ctrl,
wetting_ctrl,
time_ctrl,
size_ctrl,
pitch_ctrl,
reverse_ctrl,
plateau_width_ctrl,
plateau_position_ctrl
) : co.limiter_1176_R4_mono : _;
|
https://raw.githubusercontent.com/madskjeldgaard/komet/defd9b0b2f4055dcb12b75565631a30152fa779c/faust/musli.dsp
|
faust
|
Granola was made by Jean-Louis Paquelin. Thanks Jean-Louis!
https://github.com/jlp6k/faust-things
Seconds
-------------------------------
FREEZE / recording
TODO: Not used. Remove somehow
writeIndex_disp = hbargraph("writeIndex", 0, ceil(BUFFER_DURATION * 48000) : int);
Automatic triggering from 0.1 to 1000Hz
Manual triggering
Input Gain
Feedback
Output gain
dry (0) / wet (1)
position in the table
Grain size
Grain pitch
TODO: Drop semitone idea
Backward playback
Grain envelope shape
In order to reduce the number of control knobs, the window plateau width and plateau position
are extrapolated from a single shape control. The shape control varies from 0 to 1, smoothly
morphing the window envelope from a constant 1, to a decreasing ramp, to a triangle and to an
increasing ramp/saw.
|
import("stdfaust.lib");
import("faust-things/Granola.dsp");
CONCURRENT_GRAINS = 10;
freeze_ctrl = button("Freeze");
writeIndex_disp = _;
density_ctrl = hslider("density", 1, 0.01, 1000, 0.01) : si.smoo;
seed_ctrl = button("SEED");
input_gain_ctrl = vslider("input_gain", 0, -1.5, 1, 0.01) : si.smoo : bipollin2exppos(100);
feedback_ctrl = vslider("feedback", 0, 0, 1, 0.01) : si.smoo;
output_gain_ctrl = vslider("output_gain", 0, -1, 1, 0.01) : si.smoo : bipollin2exppos(100);
wetting_ctrl = 1;
time_ctrl = hslider("time", 0, 0, 1, 0.001) : si.smoo;
size_ctrl = hslider("size", 0.5, 0.03, BUFFER_DURATION, 0.01) : si.smoo;
pitch_ctrl = hslider("pitch", 0, -48, 48, 0.5) : ba.semi2ratio;
reverse_ctrl = button("reverse");
shape_ctrl = hslider("shape", 0, 0, 1, 0.01);
plateau_width_ctrl = 1 - min(shape_ctrl * 3, 1);
plateau_position_ctrl = max((3 * shape_ctrl / 2) - 0.5, 0);
process = _ : Granola(BUFFER_DURATION,CONCURRENT_GRAINS).grains(
freeze_ctrl,
writeIndex_disp,
density_ctrl,
seed_ctrl,
input_gain_ctrl,
feedback_ctrl,
output_gain_ctrl,
wetting_ctrl,
time_ctrl,
size_ctrl,
pitch_ctrl,
reverse_ctrl,
plateau_width_ctrl,
plateau_position_ctrl
) : co.limiter_1176_R4_mono : _;
|
65aafce1090bd54b352aa1627debb30f81c274c96a938bbb83468a0fc5db6d8c
|
madskjeldgaard/komet
|
andromeda.dsp
|
import("stdfaust.lib");
// Modified version of Liam Wall's original from: https://raw.githubusercontent.com/ljwall/er-301-units/main/faustian/dsp/Andromeda.dsp
declare andromeda author "Liam Wall";
declare andromeda license "MIT-style STK-4.3 license";
andromeda(decay, low_pass, high_pass) = _,_ : + : *(0.5) : diffusion_network : (+~chain) <: chain_l, chain_r with {
// allpass using delay with fixed size
allpass_f(t, a) = (+ <: @(t),*(a)) ~ *(-a) : mem,_ : +;
i_diff1 = 0.75;
i_diff2 = 0.625;
diffusion_network = allpass_f(235, i_diff1) : allpass_f(177, i_diff1) : allpass_f(627, i_diff2) : allpass_f(458, i_diff2);
line = de.fdelayltv(2, 28800);
taps = (0.047, 0.120, 0.134, 0.146, 0.158, 0.169, 0.180, 0.190, 0.200, 0.209, 0.217, 0.233, 0.240, 0.244, 0.225, 0.247);
mod = hslider("mod", 50, 0, 100, 0);
min_mod = 31, 25, 19, 11;
mid_mod = 130, 63, 43, 20;
max_mod = 313, 310, 251, 250;
epsilon = par(i, 4,
(mod <= 50)*(ba.take(i+1, min_mod) + (mod/50) * (ba.take(i+1, mid_mod) - ba.take(i+1, min_mod))) +
(mod > 50)*(ba.take(i+1, mid_mod) + (mod/50 - 1) * (ba.take(i+1, max_mod) - ba.take(i+1, mid_mod)))
);
e1 = ba.take(1, epsilon) / 1000000;
e2 = ba.take(2, epsilon) / 1000000;
e3 = ba.take(3, epsilon) / 1000000;
e4 = ba.take(4, epsilon) / 1000000;
mods = x,xq,-x,-xq , y,yq,-y,-yq, z,zq,-z,-zq, a,aq,-a,-aq letrec {
'xq = os.impulse + xq - e1*x;
'x = e1 * (xq - e1 *x) + x;
'yq = os.impulse + yq - e2*y;
'y = e2 * (yq - e2 *y) + y;
'zq = os.impulse + zq - e3*z;
'z = e3 * (zq - e3 *z) + z;
'aq = os.impulse + aq - e4*a;
'a = e4 * (aq - e4 *a) + a;
};
limiter(x) = 2 * x / sqrt(x*x +4);
depth = ba.sec2samp(0.004);
chain = _
<: par(i, ba.count(taps), line(ba.sec2samp(ba.take(i+1, taps)) + depth*ba.take(1 + (i % (ba.count(mods))), mods)))
:> /(ba.count(taps))
: fi.lowpass(1, low_pass)
: fi.highpass(1, high_pass)
: *(decay)
: limiter;
line_out = de.delay(24000);
taps_l = (0.060, 0.137, 0.175, 0.190);
taps_r = (0.077, 0.112, 0.160, 0.212);
chain_l = _ <: par(i, ba.count(taps_l), line_out(ba.take(i+1, taps_l) : ba.sec2samp)) :> /(ba.count(taps_l));
chain_r = _ <: par(i, ba.count(taps_r), line_out(ba.take(i+1, taps_r) : ba.sec2samp)) :> /(ba.count(taps_r));
};
process = _,_ : andromeda(decay_ctrl, low_ctrl, high_ctrl)
with {
decay_ctrl = hslider("Decay", 0.8, 0, 5, 0.001) : si.smoo;
low_ctrl = hslider("HighCut", 20000, 100, 20000, 100) : min(20000) : max(100);
high_ctrl = hslider("LowCut", 20, 20, 20000, 100) : min(20000) : max(20);
};
|
https://raw.githubusercontent.com/madskjeldgaard/komet/defd9b0b2f4055dcb12b75565631a30152fa779c/faust/andromeda.dsp
|
faust
|
Modified version of Liam Wall's original from: https://raw.githubusercontent.com/ljwall/er-301-units/main/faustian/dsp/Andromeda.dsp
allpass using delay with fixed size
|
import("stdfaust.lib");
declare andromeda author "Liam Wall";
declare andromeda license "MIT-style STK-4.3 license";
andromeda(decay, low_pass, high_pass) = _,_ : + : *(0.5) : diffusion_network : (+~chain) <: chain_l, chain_r with {
allpass_f(t, a) = (+ <: @(t),*(a)) ~ *(-a) : mem,_ : +;
i_diff1 = 0.75;
i_diff2 = 0.625;
diffusion_network = allpass_f(235, i_diff1) : allpass_f(177, i_diff1) : allpass_f(627, i_diff2) : allpass_f(458, i_diff2);
line = de.fdelayltv(2, 28800);
taps = (0.047, 0.120, 0.134, 0.146, 0.158, 0.169, 0.180, 0.190, 0.200, 0.209, 0.217, 0.233, 0.240, 0.244, 0.225, 0.247);
mod = hslider("mod", 50, 0, 100, 0);
min_mod = 31, 25, 19, 11;
mid_mod = 130, 63, 43, 20;
max_mod = 313, 310, 251, 250;
epsilon = par(i, 4,
(mod <= 50)*(ba.take(i+1, min_mod) + (mod/50) * (ba.take(i+1, mid_mod) - ba.take(i+1, min_mod))) +
(mod > 50)*(ba.take(i+1, mid_mod) + (mod/50 - 1) * (ba.take(i+1, max_mod) - ba.take(i+1, mid_mod)))
);
e1 = ba.take(1, epsilon) / 1000000;
e2 = ba.take(2, epsilon) / 1000000;
e3 = ba.take(3, epsilon) / 1000000;
e4 = ba.take(4, epsilon) / 1000000;
mods = x,xq,-x,-xq , y,yq,-y,-yq, z,zq,-z,-zq, a,aq,-a,-aq letrec {
'xq = os.impulse + xq - e1*x;
'x = e1 * (xq - e1 *x) + x;
'yq = os.impulse + yq - e2*y;
'y = e2 * (yq - e2 *y) + y;
'zq = os.impulse + zq - e3*z;
'z = e3 * (zq - e3 *z) + z;
'aq = os.impulse + aq - e4*a;
'a = e4 * (aq - e4 *a) + a;
};
limiter(x) = 2 * x / sqrt(x*x +4);
depth = ba.sec2samp(0.004);
chain = _
<: par(i, ba.count(taps), line(ba.sec2samp(ba.take(i+1, taps)) + depth*ba.take(1 + (i % (ba.count(mods))), mods)))
:> /(ba.count(taps))
: fi.lowpass(1, low_pass)
: fi.highpass(1, high_pass)
: *(decay)
: limiter;
line_out = de.delay(24000);
taps_l = (0.060, 0.137, 0.175, 0.190);
taps_r = (0.077, 0.112, 0.160, 0.212);
chain_l = _ <: par(i, ba.count(taps_l), line_out(ba.take(i+1, taps_l) : ba.sec2samp)) :> /(ba.count(taps_l));
chain_r = _ <: par(i, ba.count(taps_r), line_out(ba.take(i+1, taps_r) : ba.sec2samp)) :> /(ba.count(taps_r));
};
process = _,_ : andromeda(decay_ctrl, low_ctrl, high_ctrl)
with {
decay_ctrl = hslider("Decay", 0.8, 0, 5, 0.001) : si.smoo;
low_ctrl = hslider("HighCut", 20000, 100, 20000, 100) : min(20000) : max(100);
high_ctrl = hslider("LowCut", 20, 20, 20000, 100) : min(20000) : max(20);
};
|
fb543e901904dd49d4b55a721f1c2220a99d00d9b3a9839173f7869450821e44
|
madskjeldgaard/komet
|
datorroplusplus.dsp
|
import("stdfaust.lib");
// Modified by Mads Kjeldgaard. Original is here: https://raw.githubusercontent.com/ljwall/er-301-units/main/faustian/dsp/DattorroPlusPlus.dsp
declare dattorro_rev_2 author "Jakob Zerbian, Liam Wall";
declare dattorro_rev_2 license "MIT-style STK-4.3 license";
dattorro_rev_2(pre_delay, bw, i_diff1, i_diff2, decay, d_diff1, d_diff2, damping) =
si.bus(2) : + : *(0.5) : predelay : bw_filter : diffusion_network : reverb_loop
with {
// allpass using delay with fixed size
allpass_f(t, a) = (+ <: @(t),*(a)) ~ *(-a) : mem,_ : +;
// allpass using delay with fixed size, and two extra taps
allpass_f_taps(t, a, tap_1, tap_2) = (+ <: @(t),*(a),@(tap_1),@(tap_2)) ~ *(-a) : mem,_,_,_ : +,_,_;
// allpass using delay with excursion
allpass_exc(t, a, i) = (+ <: de.fdelayltv(2, t+20, t + 16*ba.take(i, mods)),*(a)) ~ *(-a) : mem,_ : +
with {
epsilon = 0.00013; // Around 1Hz
mods = y,yq letrec {
'yq = os.impulse + yq - epsilon*y;
'y = epsilon * (yq - epsilon *y) + y;
};
};
// input pre-delay and diffusion
predelay = de.delay(9600, pre_delay);
bw_filter = *(bw) : +~(mem : *(1-bw));
diffusion_network = allpass_f(235, i_diff1) : allpass_f(177, i_diff1) : allpass_f(627, i_diff2) : allpass_f(458, i_diff2);
damp = (*(1-damping) : +~*(damping) : *(decay)), _,_;
// /********* left output, all wet *********/
// [x] accumulator = 0.6 X node48_54[266]
// [x] accumulator += 0.6 x node48_54[2974]
// [x] accumulator -= 0.6 X node55_59[1913]
// [x] accumulator += 0.6 X node59_63[1996]
// [x] accumulator -= 0.6 X node24_30[1990]
// [x] accumulator -= 0.6 x node31_33[187]
// [x] YL = accumulator - 0.6 X node33_39[1066]
// /********* right output, all wet *********/
// [x] accumulator = 0.6 X node24_30[353]
// [x] accumulator += 0.6 X node24_30[3627]
// [x] accumulator -= 0.6 X node31_33[1228]
// [x] accumulator += 0.6 X node33_39[2673]
// [x] accumulator -= 0.6 X node48_54[2111]
// [x] accumulator -= 0.6 X node55_59[335]
// [x] YR = accumulator - 0.6 X node59_63[121]
// Contains node23_24
decay_diffusion_1a = allpass_exc(1112,-d_diff1, 1),_,_;
// node24_30
z_4453 = (_ <: @(7370), @(3293), @(584), @(6003) : _,_,+ : _,*(-0.6),*(0.6)),_,_ : _,_,ro.cross(2),_ : _,+,+;
// Contains node31_33
decay_diffusion_2a = (allpass_f_taps(2979, d_diff2, 309, 2032) : _,*(-0.6),*(-0.6)),_,_ : _,_,ro.cross(2),_ : _,+,+;
// node33_39
z_3720 = (_ <: @(6157), @(1764), @(4424) : _,*(-0.6),*(0.6)),_,_ : _,_,ro.cross(2),_ : _,+,+;
// Contains node46_48
decay_diffusion_1b = allpass_exc(1502,-d_diff1, 2),_,_;
// node48_54
z_4217 = (_ <: @(6979), @(440), @(4922), @(3494) : _,+,_ : _,*(0.6),*(-0.6)),_,_ : _,_,ro.cross(2),_ : _,+,+;
// Contains node55_59
decay_diffusion_2b = (allpass_f_taps(4396, d_diff2, 3166, 554): _,*(-0.6),*(-0.6)),_,_ : _,_,ro.cross(2),_ : _,+,+;
// node59_63
z_3163 = (_ <: @(5235), @(3303), @(200) : _,*(0.6),*(-0.6)),_,_ : _,_,ro.cross(2),_ : _,+,+ ;
// Three channels: (1) is the output to loop, (2) is Left, and (3) is right.
reverb_chain(loop_in, in)
= (loop_in+in)
<: (_,_,_)
: decay_diffusion_1a
: z_4453
: damp
: decay_diffusion_2a
: z_3720
: (*(decay),_,_)
: (+(in),_,_)
: decay_diffusion_1b
: z_4217
: damp
: decay_diffusion_2b
: z_3163
: (*(decay),_,_);
reverb_loop = reverb_chain~_ : (si.block(1),_,_);
};
// Dattorro reverb with difusion parameters as per https://ccrma.stanford.edu/~dattorro/EffectDesignPart1.pdf
reverb(pre_delay, band_width, decay, damping) = dattorro_rev_2(pre_delay, band_width, 0.75, 0.625, decay, 0.7, 0.5, damping);
// Controls (will become parameters in the er-301 object)
pre_delay_ctrl = hslider("Predelay", 10, 0, 100, 0.5) : /(1000) : ba.sec2samp;
band_width_ctrl = hslider("BandWidth", 0.6, 0, 1, 0.001) : si.smoo;
decay_ctrl = hslider("Decay", 0.8, 0, 1, 0.001) : si.smoo;
damping_ctr = hslider("Damping", 0.25, 0, 1, 0.001) : si.smoo;
process = _,_ : reverb(pre_delay_ctrl, band_width_ctrl, decay_ctrl, damping_ctr);
|
https://raw.githubusercontent.com/madskjeldgaard/komet/defd9b0b2f4055dcb12b75565631a30152fa779c/faust/datorroplusplus.dsp
|
faust
|
Modified by Mads Kjeldgaard. Original is here: https://raw.githubusercontent.com/ljwall/er-301-units/main/faustian/dsp/DattorroPlusPlus.dsp
allpass using delay with fixed size
allpass using delay with fixed size, and two extra taps
allpass using delay with excursion
Around 1Hz
input pre-delay and diffusion
/********* left output, all wet *********/
[x] accumulator = 0.6 X node48_54[266]
[x] accumulator += 0.6 x node48_54[2974]
[x] accumulator -= 0.6 X node55_59[1913]
[x] accumulator += 0.6 X node59_63[1996]
[x] accumulator -= 0.6 X node24_30[1990]
[x] accumulator -= 0.6 x node31_33[187]
[x] YL = accumulator - 0.6 X node33_39[1066]
/********* right output, all wet *********/
[x] accumulator = 0.6 X node24_30[353]
[x] accumulator += 0.6 X node24_30[3627]
[x] accumulator -= 0.6 X node31_33[1228]
[x] accumulator += 0.6 X node33_39[2673]
[x] accumulator -= 0.6 X node48_54[2111]
[x] accumulator -= 0.6 X node55_59[335]
[x] YR = accumulator - 0.6 X node59_63[121]
Contains node23_24
node24_30
Contains node31_33
node33_39
Contains node46_48
node48_54
Contains node55_59
node59_63
Three channels: (1) is the output to loop, (2) is Left, and (3) is right.
Dattorro reverb with difusion parameters as per https://ccrma.stanford.edu/~dattorro/EffectDesignPart1.pdf
Controls (will become parameters in the er-301 object)
|
import("stdfaust.lib");
declare dattorro_rev_2 author "Jakob Zerbian, Liam Wall";
declare dattorro_rev_2 license "MIT-style STK-4.3 license";
dattorro_rev_2(pre_delay, bw, i_diff1, i_diff2, decay, d_diff1, d_diff2, damping) =
si.bus(2) : + : *(0.5) : predelay : bw_filter : diffusion_network : reverb_loop
with {
allpass_f(t, a) = (+ <: @(t),*(a)) ~ *(-a) : mem,_ : +;
allpass_f_taps(t, a, tap_1, tap_2) = (+ <: @(t),*(a),@(tap_1),@(tap_2)) ~ *(-a) : mem,_,_,_ : +,_,_;
allpass_exc(t, a, i) = (+ <: de.fdelayltv(2, t+20, t + 16*ba.take(i, mods)),*(a)) ~ *(-a) : mem,_ : +
with {
mods = y,yq letrec {
'yq = os.impulse + yq - epsilon*y;
'y = epsilon * (yq - epsilon *y) + y;
};
};
predelay = de.delay(9600, pre_delay);
bw_filter = *(bw) : +~(mem : *(1-bw));
diffusion_network = allpass_f(235, i_diff1) : allpass_f(177, i_diff1) : allpass_f(627, i_diff2) : allpass_f(458, i_diff2);
damp = (*(1-damping) : +~*(damping) : *(decay)), _,_;
decay_diffusion_1a = allpass_exc(1112,-d_diff1, 1),_,_;
z_4453 = (_ <: @(7370), @(3293), @(584), @(6003) : _,_,+ : _,*(-0.6),*(0.6)),_,_ : _,_,ro.cross(2),_ : _,+,+;
decay_diffusion_2a = (allpass_f_taps(2979, d_diff2, 309, 2032) : _,*(-0.6),*(-0.6)),_,_ : _,_,ro.cross(2),_ : _,+,+;
z_3720 = (_ <: @(6157), @(1764), @(4424) : _,*(-0.6),*(0.6)),_,_ : _,_,ro.cross(2),_ : _,+,+;
decay_diffusion_1b = allpass_exc(1502,-d_diff1, 2),_,_;
z_4217 = (_ <: @(6979), @(440), @(4922), @(3494) : _,+,_ : _,*(0.6),*(-0.6)),_,_ : _,_,ro.cross(2),_ : _,+,+;
decay_diffusion_2b = (allpass_f_taps(4396, d_diff2, 3166, 554): _,*(-0.6),*(-0.6)),_,_ : _,_,ro.cross(2),_ : _,+,+;
z_3163 = (_ <: @(5235), @(3303), @(200) : _,*(0.6),*(-0.6)),_,_ : _,_,ro.cross(2),_ : _,+,+ ;
reverb_chain(loop_in, in)
= (loop_in+in)
<: (_,_,_)
: decay_diffusion_1a
: z_4453
: damp
: decay_diffusion_2a
: z_3720
: (*(decay),_,_)
: (+(in),_,_)
: decay_diffusion_1b
: z_4217
: damp
: decay_diffusion_2b
: z_3163
: (*(decay),_,_);
reverb_loop = reverb_chain~_ : (si.block(1),_,_);
};
reverb(pre_delay, band_width, decay, damping) = dattorro_rev_2(pre_delay, band_width, 0.75, 0.625, decay, 0.7, 0.5, damping);
pre_delay_ctrl = hslider("Predelay", 10, 0, 100, 0.5) : /(1000) : ba.sec2samp;
band_width_ctrl = hslider("BandWidth", 0.6, 0, 1, 0.001) : si.smoo;
decay_ctrl = hslider("Decay", 0.8, 0, 1, 0.001) : si.smoo;
damping_ctr = hslider("Damping", 0.25, 0, 1, 0.001) : si.smoo;
process = _,_ : reverb(pre_delay_ctrl, band_width_ctrl, decay_ctrl, damping_ctr);
|
97215c4ef02380296654c8ef0ff12a799b34132b14ed2a70db0274b1a9a69ce3
|
madskjeldgaard/mkfaustplugins
|
BowedString.dsp
|
declare name "BowedString";
declare author "James Leonard";
declare date "April 2020";
/* ========= DESCRITPION =============
A simple bowed string model
- inputs: bow position (move it slowly to yield self-sustained oscillations!).
- outputs: two listening points on the string.
- controls: bow pressure and string stiffness.
*/
import("stdfaust.lib");
in1 = hslider("Bow Position", 0, -1, 1, 0.001):si.smoo:si.smoo:si.smoo; // nice and smooth position signal
OutGain = 150.;
low_M = 1.0;
low_K = hslider("String Stiffness",0.3,0.001,0.7,0.0001) : si.smoo;
low_Z = 0.001;
nlZ = hslider("Bow Pressure",0.3,0.001,0.5,0.0001) : si.smoo;
nlscale = 0.0005;
model = (
mi.ground(0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.ground(0.),
mi.posInput(1.):
RoutingMassToLink :
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.nlBow(nlZ, nlscale, 0, 1., 0.),
par(i, nbOut, _):
RoutingLinkToMass
)~par(i, nbMass, _):
par(i, nbMass, !), par(i, nbOut , _)
with{
RoutingMassToLink(m0, m1, m2, m3, m4, m5, m6, m7, m8, m9, m10, m11, m12, m13, m14, m15, m16, m17, m18, m19, m20, m21, m22, m23, m24, m25, m26, m27, m28, m29, m30, m31, m32, m33, m34, m35, m36, m37, m38, m39, m40, m41, m42, m43, m44, m45, m46, m47, m48, m49, m50, m51, m52, m53, m54, m55, m56, m57, m58, m59, m60, m61, m62, m63, m64, m65, m66, m67, m68, m69, m70, m71, m72, m73, m74, m75, m76, m77, m78, m79, m80, m81, m82, m83, m84, m85, m86, m87, m88, m89, m90, m91, m92, m93, m94, m95, m96, m97, m98, m99, m100, m101, m102, m103, m104, m105, m106, m107, m108, m109, m110, m111, m112, m113, m114, m115, m116, m117, m118, m119, m120, m121, m122, m123, m124, m125, m126, m127, m128, m129, m130, m131, m132, m133, m134, m135, m136, m137, m138, m139, m140, m141, m142, m143, m144, m145, m146, m147, m148, m149, m150, m151, m152) = /* routed positions */ m0, m1, m1, m2, m2, m3, m3, m4, m4, m5, m5, m6, m6, m7, m7, m8, m8, m9, m9, m10, m10, m11, m11, m12, m12, m13, m13, m14, m14, m15, m15, m16, m16, m17, m17, m18, m18, m19, m19, m20, m20, m21, m21, m22, m22, m23, m23, m24, m24, m25, m25, m26, m26, m27, m27, m28, m28, m29, m29, m30, m30, m31, m31, m32, m32, m33, m33, m34, m34, m35, m35, m36, m36, m37, m37, m38, m38, m39, m39, m40, m40, m41, m41, m42, m42, m43, m43, m44, m44, m45, m45, m46, m46, m47, m47, m48, m48, m49, m49, m50, m50, m51, m51, m52, m52, m53, m53, m54, m54, m55, m55, m56, m56, m57, m57, m58, m58, m59, m59, m60, m60, m61, m61, m62, m62, m63, m63, m64, m64, m65, m65, m66, m66, m67, m67, m68, m68, m69, m69, m70, m70, m71, m71, m72, m72, m73, m73, m74, m74, m75, m75, m76, m76, m77, m77, m78, m78, m79, m79, m80, m80, m81, m81, m82, m82, m83, m83, m84, m84, m85, m85, m86, m86, m87, m87, m88, m88, m89, m89, m90, m90, m91, m91, m92, m92, m93, m93, m94, m94, m95, m95, m96, m96, m97, m97, m98, m98, m99, m99, m100, m100, m101, m101, m102, m102, m103, m103, m104, m104, m105, m105, m106, m106, m107, m107, m108, m108, m109, m109, m110, m110, m111, m111, m112, m112, m113, m113, m114, m114, m115, m115, m116, m116, m117, m117, m118, m118, m119, m119, m120, m120, m121, m121, m122, m122, m123, m123, m124, m124, m125, m125, m126, m126, m127, m127, m128, m128, m129, m129, m130, m130, m131, m131, m132, m132, m133, m133, m134, m134, m135, m135, m136, m136, m137, m137, m138, m138, m139, m139, m140, m140, m141, m141, m142, m142, m143, m143, m144, m144, m145, m145, m146, m146, m147, m147, m148, m148, m149, m149, m150, m150, m151, m152, m144, /* outputs */ m31, m41;
RoutingLinkToMass(l0_f1, l0_f2, l1_f1, l1_f2, l2_f1, l2_f2, l3_f1, l3_f2, l4_f1, l4_f2, l5_f1, l5_f2, l6_f1, l6_f2, l7_f1, l7_f2, l8_f1, l8_f2, l9_f1, l9_f2, l10_f1, l10_f2, l11_f1, l11_f2, l12_f1, l12_f2, l13_f1, l13_f2, l14_f1, l14_f2, l15_f1, l15_f2, l16_f1, l16_f2, l17_f1, l17_f2, l18_f1, l18_f2, l19_f1, l19_f2, l20_f1, l20_f2, l21_f1, l21_f2, l22_f1, l22_f2, l23_f1, l23_f2, l24_f1, l24_f2, l25_f1, l25_f2, l26_f1, l26_f2, l27_f1, l27_f2, l28_f1, l28_f2, l29_f1, l29_f2, l30_f1, l30_f2, l31_f1, l31_f2, l32_f1, l32_f2, l33_f1, l33_f2, l34_f1, l34_f2, l35_f1, l35_f2, l36_f1, l36_f2, l37_f1, l37_f2, l38_f1, l38_f2, l39_f1, l39_f2, l40_f1, l40_f2, l41_f1, l41_f2, l42_f1, l42_f2, l43_f1, l43_f2, l44_f1, l44_f2, l45_f1, l45_f2, l46_f1, l46_f2, l47_f1, l47_f2, l48_f1, l48_f2, l49_f1, l49_f2, l50_f1, l50_f2, l51_f1, l51_f2, l52_f1, l52_f2, l53_f1, l53_f2, l54_f1, l54_f2, l55_f1, l55_f2, l56_f1, l56_f2, l57_f1, l57_f2, l58_f1, l58_f2, l59_f1, l59_f2, l60_f1, l60_f2, l61_f1, l61_f2, l62_f1, l62_f2, l63_f1, l63_f2, l64_f1, l64_f2, l65_f1, l65_f2, l66_f1, l66_f2, l67_f1, l67_f2, l68_f1, l68_f2, l69_f1, l69_f2, l70_f1, l70_f2, l71_f1, l71_f2, l72_f1, l72_f2, l73_f1, l73_f2, l74_f1, l74_f2, l75_f1, l75_f2, l76_f1, l76_f2, l77_f1, l77_f2, l78_f1, l78_f2, l79_f1, l79_f2, l80_f1, l80_f2, l81_f1, l81_f2, l82_f1, l82_f2, l83_f1, l83_f2, l84_f1, l84_f2, l85_f1, l85_f2, l86_f1, l86_f2, l87_f1, l87_f2, l88_f1, l88_f2, l89_f1, l89_f2, l90_f1, l90_f2, l91_f1, l91_f2, l92_f1, l92_f2, l93_f1, l93_f2, l94_f1, l94_f2, l95_f1, l95_f2, l96_f1, l96_f2, l97_f1, l97_f2, l98_f1, l98_f2, l99_f1, l99_f2, l100_f1, l100_f2, l101_f1, l101_f2, l102_f1, l102_f2, l103_f1, l103_f2, l104_f1, l104_f2, l105_f1, l105_f2, l106_f1, l106_f2, l107_f1, l107_f2, l108_f1, l108_f2, l109_f1, l109_f2, l110_f1, l110_f2, l111_f1, l111_f2, l112_f1, l112_f2, l113_f1, l113_f2, l114_f1, l114_f2, l115_f1, l115_f2, l116_f1, l116_f2, l117_f1, l117_f2, l118_f1, l118_f2, l119_f1, l119_f2, l120_f1, l120_f2, l121_f1, l121_f2, l122_f1, l122_f2, l123_f1, l123_f2, l124_f1, l124_f2, l125_f1, l125_f2, l126_f1, l126_f2, l127_f1, l127_f2, l128_f1, l128_f2, l129_f1, l129_f2, l130_f1, l130_f2, l131_f1, l131_f2, l132_f1, l132_f2, l133_f1, l133_f2, l134_f1, l134_f2, l135_f1, l135_f2, l136_f1, l136_f2, l137_f1, l137_f2, l138_f1, l138_f2, l139_f1, l139_f2, l140_f1, l140_f2, l141_f1, l141_f2, l142_f1, l142_f2, l143_f1, l143_f2, l144_f1, l144_f2, l145_f1, l145_f2, l146_f1, l146_f2, l147_f1, l147_f2, l148_f1, l148_f2, l149_f1, l149_f2, l150_f1, l150_f2, l151_f1, l151_f2, p_out1, p_out2) = /* routed forces */ l0_f1, l0_f2 + l1_f1, l1_f2 + l2_f1, l2_f2 + l3_f1, l3_f2 + l4_f1, l4_f2 + l5_f1, l5_f2 + l6_f1, l6_f2 + l7_f1, l7_f2 + l8_f1, l8_f2 + l9_f1, l9_f2 + l10_f1, l10_f2 + l11_f1, l11_f2 + l12_f1, l12_f2 + l13_f1, l13_f2 + l14_f1, l14_f2 + l15_f1, l15_f2 + l16_f1, l16_f2 + l17_f1, l17_f2 + l18_f1, l18_f2 + l19_f1, l19_f2 + l20_f1, l20_f2 + l21_f1, l21_f2 + l22_f1, l22_f2 + l23_f1, l23_f2 + l24_f1, l24_f2 + l25_f1, l25_f2 + l26_f1, l26_f2 + l27_f1, l27_f2 + l28_f1, l28_f2 + l29_f1, l29_f2 + l30_f1, l30_f2 + l31_f1, l31_f2 + l32_f1, l32_f2 + l33_f1, l33_f2 + l34_f1, l34_f2 + l35_f1, l35_f2 + l36_f1, l36_f2 + l37_f1, l37_f2 + l38_f1, l38_f2 + l39_f1, l39_f2 + l40_f1, l40_f2 + l41_f1, l41_f2 + l42_f1, l42_f2 + l43_f1, l43_f2 + l44_f1, l44_f2 + l45_f1, l45_f2 + l46_f1, l46_f2 + l47_f1, l47_f2 + l48_f1, l48_f2 + l49_f1, l49_f2 + l50_f1, l50_f2 + l51_f1, l51_f2 + l52_f1, l52_f2 + l53_f1, l53_f2 + l54_f1, l54_f2 + l55_f1, l55_f2 + l56_f1, l56_f2 + l57_f1, l57_f2 + l58_f1, l58_f2 + l59_f1, l59_f2 + l60_f1, l60_f2 + l61_f1, l61_f2 + l62_f1, l62_f2 + l63_f1, l63_f2 + l64_f1, l64_f2 + l65_f1, l65_f2 + l66_f1, l66_f2 + l67_f1, l67_f2 + l68_f1, l68_f2 + l69_f1, l69_f2 + l70_f1, l70_f2 + l71_f1, l71_f2 + l72_f1, l72_f2 + l73_f1, l73_f2 + l74_f1, l74_f2 + l75_f1, l75_f2 + l76_f1, l76_f2 + l77_f1, l77_f2 + l78_f1, l78_f2 + l79_f1, l79_f2 + l80_f1, l80_f2 + l81_f1, l81_f2 + l82_f1, l82_f2 + l83_f1, l83_f2 + l84_f1, l84_f2 + l85_f1, l85_f2 + l86_f1, l86_f2 + l87_f1, l87_f2 + l88_f1, l88_f2 + l89_f1, l89_f2 + l90_f1, l90_f2 + l91_f1, l91_f2 + l92_f1, l92_f2 + l93_f1, l93_f2 + l94_f1, l94_f2 + l95_f1, l95_f2 + l96_f1, l96_f2 + l97_f1, l97_f2 + l98_f1, l98_f2 + l99_f1, l99_f2 + l100_f1, l100_f2 + l101_f1, l101_f2 + l102_f1, l102_f2 + l103_f1, l103_f2 + l104_f1, l104_f2 + l105_f1, l105_f2 + l106_f1, l106_f2 + l107_f1, l107_f2 + l108_f1, l108_f2 + l109_f1, l109_f2 + l110_f1, l110_f2 + l111_f1, l111_f2 + l112_f1, l112_f2 + l113_f1, l113_f2 + l114_f1, l114_f2 + l115_f1, l115_f2 + l116_f1, l116_f2 + l117_f1, l117_f2 + l118_f1, l118_f2 + l119_f1, l119_f2 + l120_f1, l120_f2 + l121_f1, l121_f2 + l122_f1, l122_f2 + l123_f1, l123_f2 + l124_f1, l124_f2 + l125_f1, l125_f2 + l126_f1, l126_f2 + l127_f1, l127_f2 + l128_f1, l128_f2 + l129_f1, l129_f2 + l130_f1, l130_f2 + l131_f1, l131_f2 + l132_f1, l132_f2 + l133_f1, l133_f2 + l134_f1, l134_f2 + l135_f1, l135_f2 + l136_f1, l136_f2 + l137_f1, l137_f2 + l138_f1, l138_f2 + l139_f1, l139_f2 + l140_f1, l140_f2 + l141_f1, l141_f2 + l142_f1, l142_f2 + l143_f1, l143_f2 + l144_f1 + l151_f2, l144_f2 + l145_f1, l145_f2 + l146_f1, l146_f2 + l147_f1, l147_f2 + l148_f1, l148_f2 + l149_f1, l149_f2 + l150_f1, l150_f2, l151_f1, /* pass-through */ p_out1, p_out2;
nbMass = 153;
nbOut = 2;
};
process = in1 : model:*(OutGain), *(OutGain);
/*
========= MIMS SCRIPT USED FOR MODEL GENERATION =============
@low_M param 1.0
@low_K param 0.3
@low_Z param 0.001
@nlZ param 0.08
@nlscale param 0.00005
@low_s0 ground 0.
@low_m0 mass low_M 0. 0.
@low_m1 mass low_M 0. 0.
@low_m2 mass low_M 0. 0.
@low_m3 mass low_M 0. 0.
@low_m4 mass low_M 0. 0.
@low_m5 mass low_M 0. 0.
@low_m6 mass low_M 0. 0.
@low_m7 mass low_M 0. 0.
@low_m8 mass low_M 0. 0.
@low_m9 mass low_M 0. 0.
@low_m10 mass low_M 0. 0.
@low_m11 mass low_M 0. 0.
@low_m12 mass low_M 0. 0.
@low_m13 mass low_M 0. 0.
@low_m14 mass low_M 0. 0.
@low_m15 mass low_M 0. 0.
@low_m16 mass low_M 0. 0.
@low_m17 mass low_M 0. 0.
@low_m18 mass low_M 0. 0.
@low_m19 mass low_M 0. 0.
@low_m20 mass low_M 0. 0.
@low_m21 mass low_M 0. 0.
@low_m22 mass low_M 0. 0.
@low_m23 mass low_M 0. 0.
@low_m24 mass low_M 0. 0.
@low_m25 mass low_M 0. 0.
@low_m26 mass low_M 0. 0.
@low_m27 mass low_M 0. 0.
@low_m28 mass low_M 0. 0.
@low_m29 mass low_M 0. 0.
@low_m30 mass low_M 0. 0.
@low_m31 mass low_M 0. 0.
@low_m32 mass low_M 0. 0.
@low_m33 mass low_M 0. 0.
@low_m34 mass low_M 0. 0.
@low_m35 mass low_M 0. 0.
@low_m36 mass low_M 0. 0.
@low_m37 mass low_M 0. 0.
@low_m38 mass low_M 0. 0.
@low_m39 mass low_M 0. 0.
@low_m40 mass low_M 0. 0.
@low_m41 mass low_M 0. 0.
@low_m42 mass low_M 0. 0.
@low_m43 mass low_M 0. 0.
@low_m44 mass low_M 0. 0.
@low_m45 mass low_M 0. 0.
@low_m46 mass low_M 0. 0.
@low_m47 mass low_M 0. 0.
@low_m48 mass low_M 0. 0.
@low_m49 mass low_M 0. 0.
@low_m50 mass low_M 0. 0.
@low_m51 mass low_M 0. 0.
@low_m52 mass low_M 0. 0.
@low_m53 mass low_M 0. 0.
@low_m54 mass low_M 0. 0.
@low_m55 mass low_M 0. 0.
@low_m56 mass low_M 0. 0.
@low_m57 mass low_M 0. 0.
@low_m58 mass low_M 0. 0.
@low_m59 mass low_M 0. 0.
@low_m60 mass low_M 0. 0.
@low_m61 mass low_M 0. 0.
@low_m62 mass low_M 0. 0.
@low_m63 mass low_M 0. 0.
@low_m64 mass low_M 0. 0.
@low_m65 mass low_M 0. 0.
@low_m66 mass low_M 0. 0.
@low_m67 mass low_M 0. 0.
@low_m68 mass low_M 0. 0.
@low_m69 mass low_M 0. 0.
@low_m70 mass low_M 0. 0.
@low_m71 mass low_M 0. 0.
@low_m72 mass low_M 0. 0.
@low_m73 mass low_M 0. 0.
@low_m74 mass low_M 0. 0.
@low_m75 mass low_M 0. 0.
@low_m76 mass low_M 0. 0.
@low_m77 mass low_M 0. 0.
@low_m78 mass low_M 0. 0.
@low_m79 mass low_M 0. 0.
@low_m80 mass low_M 0. 0.
@low_m81 mass low_M 0. 0.
@low_m82 mass low_M 0. 0.
@low_m83 mass low_M 0. 0.
@low_m84 mass low_M 0. 0.
@low_m85 mass low_M 0. 0.
@low_m86 mass low_M 0. 0.
@low_m87 mass low_M 0. 0.
@low_m88 mass low_M 0. 0.
@low_m89 mass low_M 0. 0.
@low_m90 mass low_M 0. 0.
@low_m91 mass low_M 0. 0.
@low_m92 mass low_M 0. 0.
@low_m93 mass low_M 0. 0.
@low_m94 mass low_M 0. 0.
@low_m95 mass low_M 0. 0.
@low_m96 mass low_M 0. 0.
@low_m97 mass low_M 0. 0.
@low_m98 mass low_M 0. 0.
@low_m99 mass low_M 0. 0.
@low_m100 mass low_M 0. 0.
@low_m101 mass low_M 0. 0.
@low_m102 mass low_M 0. 0.
@low_m103 mass low_M 0. 0.
@low_m104 mass low_M 0. 0.
@low_m105 mass low_M 0. 0.
@low_m106 mass low_M 0. 0.
@low_m107 mass low_M 0. 0.
@low_m108 mass low_M 0. 0.
@low_m109 mass low_M 0. 0.
@low_m110 mass low_M 0. 0.
@low_m111 mass low_M 0. 0.
@low_m112 mass low_M 0. 0.
@low_m113 mass low_M 0. 0.
@low_m114 mass low_M 0. 0.
@low_m115 mass low_M 0. 0.
@low_m116 mass low_M 0. 0.
@low_m117 mass low_M 0. 0.
@low_m118 mass low_M 0. 0.
@low_m119 mass low_M 0. 0.
@low_m120 mass low_M 0. 0.
@low_m121 mass low_M 0. 0.
@low_m122 mass low_M 0. 0.
@low_m123 mass low_M 0. 0.
@low_m124 mass low_M 0. 0.
@low_m125 mass low_M 0. 0.
@low_m126 mass low_M 0. 0.
@low_m127 mass low_M 0. 0.
@low_m128 mass low_M 0. 0.
@low_m129 mass low_M 0. 0.
@low_m130 mass low_M 0. 0.
@low_m131 mass low_M 0. 0.
@low_m132 mass low_M 0. 0.
@low_m133 mass low_M 0. 0.
@low_m134 mass low_M 0. 0.
@low_m135 mass low_M 0. 0.
@low_m136 mass low_M 0. 0.
@low_m137 mass low_M 0. 0.
@low_m138 mass low_M 0. 0.
@low_m139 mass low_M 0. 0.
@low_m140 mass low_M 0. 0.
@low_m141 mass low_M 0. 0.
@low_m142 mass low_M 0. 0.
@low_m143 mass low_M 0. 0.
@low_m144 mass low_M 0. 0.
@low_m145 mass low_M 0. 0.
@low_m146 mass low_M 0. 0.
@low_m147 mass low_M 0. 0.
@low_m148 mass low_M 0. 0.
@low_m149 mass low_M 0. 0.
@low_s1 ground 0.
@low_r0 springDamper @low_s0 @low_m0 low_K low_Z
@low_r1 springDamper @low_m0 @low_m1 low_K low_Z
@low_r2 springDamper @low_m1 @low_m2 low_K low_Z
@low_r3 springDamper @low_m2 @low_m3 low_K low_Z
@low_r4 springDamper @low_m3 @low_m4 low_K low_Z
@low_r5 springDamper @low_m4 @low_m5 low_K low_Z
@low_r6 springDamper @low_m5 @low_m6 low_K low_Z
@low_r7 springDamper @low_m6 @low_m7 low_K low_Z
@low_r8 springDamper @low_m7 @low_m8 low_K low_Z
@low_r9 springDamper @low_m8 @low_m9 low_K low_Z
@low_r10 springDamper @low_m9 @low_m10 low_K low_Z
@low_r11 springDamper @low_m10 @low_m11 low_K low_Z
@low_r12 springDamper @low_m11 @low_m12 low_K low_Z
@low_r13 springDamper @low_m12 @low_m13 low_K low_Z
@low_r14 springDamper @low_m13 @low_m14 low_K low_Z
@low_r15 springDamper @low_m14 @low_m15 low_K low_Z
@low_r16 springDamper @low_m15 @low_m16 low_K low_Z
@low_r17 springDamper @low_m16 @low_m17 low_K low_Z
@low_r18 springDamper @low_m17 @low_m18 low_K low_Z
@low_r19 springDamper @low_m18 @low_m19 low_K low_Z
@low_r20 springDamper @low_m19 @low_m20 low_K low_Z
@low_r21 springDamper @low_m20 @low_m21 low_K low_Z
@low_r22 springDamper @low_m21 @low_m22 low_K low_Z
@low_r23 springDamper @low_m22 @low_m23 low_K low_Z
@low_r24 springDamper @low_m23 @low_m24 low_K low_Z
@low_r25 springDamper @low_m24 @low_m25 low_K low_Z
@low_r26 springDamper @low_m25 @low_m26 low_K low_Z
@low_r27 springDamper @low_m26 @low_m27 low_K low_Z
@low_r28 springDamper @low_m27 @low_m28 low_K low_Z
@low_r29 springDamper @low_m28 @low_m29 low_K low_Z
@low_r30 springDamper @low_m29 @low_m30 low_K low_Z
@low_r31 springDamper @low_m30 @low_m31 low_K low_Z
@low_r32 springDamper @low_m31 @low_m32 low_K low_Z
@low_r33 springDamper @low_m32 @low_m33 low_K low_Z
@low_r34 springDamper @low_m33 @low_m34 low_K low_Z
@low_r35 springDamper @low_m34 @low_m35 low_K low_Z
@low_r36 springDamper @low_m35 @low_m36 low_K low_Z
@low_r37 springDamper @low_m36 @low_m37 low_K low_Z
@low_r38 springDamper @low_m37 @low_m38 low_K low_Z
@low_r39 springDamper @low_m38 @low_m39 low_K low_Z
@low_r40 springDamper @low_m39 @low_m40 low_K low_Z
@low_r41 springDamper @low_m40 @low_m41 low_K low_Z
@low_r42 springDamper @low_m41 @low_m42 low_K low_Z
@low_r43 springDamper @low_m42 @low_m43 low_K low_Z
@low_r44 springDamper @low_m43 @low_m44 low_K low_Z
@low_r45 springDamper @low_m44 @low_m45 low_K low_Z
@low_r46 springDamper @low_m45 @low_m46 low_K low_Z
@low_r47 springDamper @low_m46 @low_m47 low_K low_Z
@low_r48 springDamper @low_m47 @low_m48 low_K low_Z
@low_r49 springDamper @low_m48 @low_m49 low_K low_Z
@low_r50 springDamper @low_m49 @low_m50 low_K low_Z
@low_r51 springDamper @low_m50 @low_m51 low_K low_Z
@low_r52 springDamper @low_m51 @low_m52 low_K low_Z
@low_r53 springDamper @low_m52 @low_m53 low_K low_Z
@low_r54 springDamper @low_m53 @low_m54 low_K low_Z
@low_r55 springDamper @low_m54 @low_m55 low_K low_Z
@low_r56 springDamper @low_m55 @low_m56 low_K low_Z
@low_r57 springDamper @low_m56 @low_m57 low_K low_Z
@low_r58 springDamper @low_m57 @low_m58 low_K low_Z
@low_r59 springDamper @low_m58 @low_m59 low_K low_Z
@low_r60 springDamper @low_m59 @low_m60 low_K low_Z
@low_r61 springDamper @low_m60 @low_m61 low_K low_Z
@low_r62 springDamper @low_m61 @low_m62 low_K low_Z
@low_r63 springDamper @low_m62 @low_m63 low_K low_Z
@low_r64 springDamper @low_m63 @low_m64 low_K low_Z
@low_r65 springDamper @low_m64 @low_m65 low_K low_Z
@low_r66 springDamper @low_m65 @low_m66 low_K low_Z
@low_r67 springDamper @low_m66 @low_m67 low_K low_Z
@low_r68 springDamper @low_m67 @low_m68 low_K low_Z
@low_r69 springDamper @low_m68 @low_m69 low_K low_Z
@low_r70 springDamper @low_m69 @low_m70 low_K low_Z
@low_r71 springDamper @low_m70 @low_m71 low_K low_Z
@low_r72 springDamper @low_m71 @low_m72 low_K low_Z
@low_r73 springDamper @low_m72 @low_m73 low_K low_Z
@low_r74 springDamper @low_m73 @low_m74 low_K low_Z
@low_r75 springDamper @low_m74 @low_m75 low_K low_Z
@low_r76 springDamper @low_m75 @low_m76 low_K low_Z
@low_r77 springDamper @low_m76 @low_m77 low_K low_Z
@low_r78 springDamper @low_m77 @low_m78 low_K low_Z
@low_r79 springDamper @low_m78 @low_m79 low_K low_Z
@low_r80 springDamper @low_m79 @low_m80 low_K low_Z
@low_r81 springDamper @low_m80 @low_m81 low_K low_Z
@low_r82 springDamper @low_m81 @low_m82 low_K low_Z
@low_r83 springDamper @low_m82 @low_m83 low_K low_Z
@low_r84 springDamper @low_m83 @low_m84 low_K low_Z
@low_r85 springDamper @low_m84 @low_m85 low_K low_Z
@low_r86 springDamper @low_m85 @low_m86 low_K low_Z
@low_r87 springDamper @low_m86 @low_m87 low_K low_Z
@low_r88 springDamper @low_m87 @low_m88 low_K low_Z
@low_r89 springDamper @low_m88 @low_m89 low_K low_Z
@low_r90 springDamper @low_m89 @low_m90 low_K low_Z
@low_r91 springDamper @low_m90 @low_m91 low_K low_Z
@low_r92 springDamper @low_m91 @low_m92 low_K low_Z
@low_r93 springDamper @low_m92 @low_m93 low_K low_Z
@low_r94 springDamper @low_m93 @low_m94 low_K low_Z
@low_r95 springDamper @low_m94 @low_m95 low_K low_Z
@low_r96 springDamper @low_m95 @low_m96 low_K low_Z
@low_r97 springDamper @low_m96 @low_m97 low_K low_Z
@low_r98 springDamper @low_m97 @low_m98 low_K low_Z
@low_r99 springDamper @low_m98 @low_m99 low_K low_Z
@low_r100 springDamper @low_m99 @low_m100 low_K low_Z
@low_r101 springDamper @low_m100 @low_m101 low_K low_Z
@low_r102 springDamper @low_m101 @low_m102 low_K low_Z
@low_r103 springDamper @low_m102 @low_m103 low_K low_Z
@low_r104 springDamper @low_m103 @low_m104 low_K low_Z
@low_r105 springDamper @low_m104 @low_m105 low_K low_Z
@low_r106 springDamper @low_m105 @low_m106 low_K low_Z
@low_r107 springDamper @low_m106 @low_m107 low_K low_Z
@low_r108 springDamper @low_m107 @low_m108 low_K low_Z
@low_r109 springDamper @low_m108 @low_m109 low_K low_Z
@low_r110 springDamper @low_m109 @low_m110 low_K low_Z
@low_r111 springDamper @low_m110 @low_m111 low_K low_Z
@low_r112 springDamper @low_m111 @low_m112 low_K low_Z
@low_r113 springDamper @low_m112 @low_m113 low_K low_Z
@low_r114 springDamper @low_m113 @low_m114 low_K low_Z
@low_r115 springDamper @low_m114 @low_m115 low_K low_Z
@low_r116 springDamper @low_m115 @low_m116 low_K low_Z
@low_r117 springDamper @low_m116 @low_m117 low_K low_Z
@low_r118 springDamper @low_m117 @low_m118 low_K low_Z
@low_r119 springDamper @low_m118 @low_m119 low_K low_Z
@low_r120 springDamper @low_m119 @low_m120 low_K low_Z
@low_r121 springDamper @low_m120 @low_m121 low_K low_Z
@low_r122 springDamper @low_m121 @low_m122 low_K low_Z
@low_r123 springDamper @low_m122 @low_m123 low_K low_Z
@low_r124 springDamper @low_m123 @low_m124 low_K low_Z
@low_r125 springDamper @low_m124 @low_m125 low_K low_Z
@low_r126 springDamper @low_m125 @low_m126 low_K low_Z
@low_r127 springDamper @low_m126 @low_m127 low_K low_Z
@low_r128 springDamper @low_m127 @low_m128 low_K low_Z
@low_r129 springDamper @low_m128 @low_m129 low_K low_Z
@low_r130 springDamper @low_m129 @low_m130 low_K low_Z
@low_r131 springDamper @low_m130 @low_m131 low_K low_Z
@low_r132 springDamper @low_m131 @low_m132 low_K low_Z
@low_r133 springDamper @low_m132 @low_m133 low_K low_Z
@low_r134 springDamper @low_m133 @low_m134 low_K low_Z
@low_r135 springDamper @low_m134 @low_m135 low_K low_Z
@low_r136 springDamper @low_m135 @low_m136 low_K low_Z
@low_r137 springDamper @low_m136 @low_m137 low_K low_Z
@low_r138 springDamper @low_m137 @low_m138 low_K low_Z
@low_r139 springDamper @low_m138 @low_m139 low_K low_Z
@low_r140 springDamper @low_m139 @low_m140 low_K low_Z
@low_r141 springDamper @low_m140 @low_m141 low_K low_Z
@low_r142 springDamper @low_m141 @low_m142 low_K low_Z
@low_r143 springDamper @low_m142 @low_m143 low_K low_Z
@low_r144 springDamper @low_m143 @low_m144 low_K low_Z
@low_r145 springDamper @low_m144 @low_m145 low_K low_Z
@low_r146 springDamper @low_m145 @low_m146 low_K low_Z
@low_r147 springDamper @low_m146 @low_m147 low_K low_Z
@low_r148 springDamper @low_m147 @low_m148 low_K low_Z
@low_r149 springDamper @low_m148 @low_m149 low_K low_Z
@low_r150 springDamper @low_m149 @low_s1 low_K low_Z
@in1 posInput 1.
@out1 posOutput @low_m30
@out2 posOutput @low_m40
@nlb0 nlBow @in1 @low_m143 nlZ nlscale
*/
|
https://raw.githubusercontent.com/madskjeldgaard/mkfaustplugins/fd7cf250788174b5efa6ae3294997609830875d1/plugins/BowedString/BowedString.dsp
|
faust
|
========= DESCRITPION =============
A simple bowed string model
- inputs: bow position (move it slowly to yield self-sustained oscillations!).
- outputs: two listening points on the string.
- controls: bow pressure and string stiffness.
nice and smooth position signal
routed positions
outputs
routed forces
pass-through
========= MIMS SCRIPT USED FOR MODEL GENERATION =============
@low_M param 1.0
@low_K param 0.3
@low_Z param 0.001
@nlZ param 0.08
@nlscale param 0.00005
@low_s0 ground 0.
@low_m0 mass low_M 0. 0.
@low_m1 mass low_M 0. 0.
@low_m2 mass low_M 0. 0.
@low_m3 mass low_M 0. 0.
@low_m4 mass low_M 0. 0.
@low_m5 mass low_M 0. 0.
@low_m6 mass low_M 0. 0.
@low_m7 mass low_M 0. 0.
@low_m8 mass low_M 0. 0.
@low_m9 mass low_M 0. 0.
@low_m10 mass low_M 0. 0.
@low_m11 mass low_M 0. 0.
@low_m12 mass low_M 0. 0.
@low_m13 mass low_M 0. 0.
@low_m14 mass low_M 0. 0.
@low_m15 mass low_M 0. 0.
@low_m16 mass low_M 0. 0.
@low_m17 mass low_M 0. 0.
@low_m18 mass low_M 0. 0.
@low_m19 mass low_M 0. 0.
@low_m20 mass low_M 0. 0.
@low_m21 mass low_M 0. 0.
@low_m22 mass low_M 0. 0.
@low_m23 mass low_M 0. 0.
@low_m24 mass low_M 0. 0.
@low_m25 mass low_M 0. 0.
@low_m26 mass low_M 0. 0.
@low_m27 mass low_M 0. 0.
@low_m28 mass low_M 0. 0.
@low_m29 mass low_M 0. 0.
@low_m30 mass low_M 0. 0.
@low_m31 mass low_M 0. 0.
@low_m32 mass low_M 0. 0.
@low_m33 mass low_M 0. 0.
@low_m34 mass low_M 0. 0.
@low_m35 mass low_M 0. 0.
@low_m36 mass low_M 0. 0.
@low_m37 mass low_M 0. 0.
@low_m38 mass low_M 0. 0.
@low_m39 mass low_M 0. 0.
@low_m40 mass low_M 0. 0.
@low_m41 mass low_M 0. 0.
@low_m42 mass low_M 0. 0.
@low_m43 mass low_M 0. 0.
@low_m44 mass low_M 0. 0.
@low_m45 mass low_M 0. 0.
@low_m46 mass low_M 0. 0.
@low_m47 mass low_M 0. 0.
@low_m48 mass low_M 0. 0.
@low_m49 mass low_M 0. 0.
@low_m50 mass low_M 0. 0.
@low_m51 mass low_M 0. 0.
@low_m52 mass low_M 0. 0.
@low_m53 mass low_M 0. 0.
@low_m54 mass low_M 0. 0.
@low_m55 mass low_M 0. 0.
@low_m56 mass low_M 0. 0.
@low_m57 mass low_M 0. 0.
@low_m58 mass low_M 0. 0.
@low_m59 mass low_M 0. 0.
@low_m60 mass low_M 0. 0.
@low_m61 mass low_M 0. 0.
@low_m62 mass low_M 0. 0.
@low_m63 mass low_M 0. 0.
@low_m64 mass low_M 0. 0.
@low_m65 mass low_M 0. 0.
@low_m66 mass low_M 0. 0.
@low_m67 mass low_M 0. 0.
@low_m68 mass low_M 0. 0.
@low_m69 mass low_M 0. 0.
@low_m70 mass low_M 0. 0.
@low_m71 mass low_M 0. 0.
@low_m72 mass low_M 0. 0.
@low_m73 mass low_M 0. 0.
@low_m74 mass low_M 0. 0.
@low_m75 mass low_M 0. 0.
@low_m76 mass low_M 0. 0.
@low_m77 mass low_M 0. 0.
@low_m78 mass low_M 0. 0.
@low_m79 mass low_M 0. 0.
@low_m80 mass low_M 0. 0.
@low_m81 mass low_M 0. 0.
@low_m82 mass low_M 0. 0.
@low_m83 mass low_M 0. 0.
@low_m84 mass low_M 0. 0.
@low_m85 mass low_M 0. 0.
@low_m86 mass low_M 0. 0.
@low_m87 mass low_M 0. 0.
@low_m88 mass low_M 0. 0.
@low_m89 mass low_M 0. 0.
@low_m90 mass low_M 0. 0.
@low_m91 mass low_M 0. 0.
@low_m92 mass low_M 0. 0.
@low_m93 mass low_M 0. 0.
@low_m94 mass low_M 0. 0.
@low_m95 mass low_M 0. 0.
@low_m96 mass low_M 0. 0.
@low_m97 mass low_M 0. 0.
@low_m98 mass low_M 0. 0.
@low_m99 mass low_M 0. 0.
@low_m100 mass low_M 0. 0.
@low_m101 mass low_M 0. 0.
@low_m102 mass low_M 0. 0.
@low_m103 mass low_M 0. 0.
@low_m104 mass low_M 0. 0.
@low_m105 mass low_M 0. 0.
@low_m106 mass low_M 0. 0.
@low_m107 mass low_M 0. 0.
@low_m108 mass low_M 0. 0.
@low_m109 mass low_M 0. 0.
@low_m110 mass low_M 0. 0.
@low_m111 mass low_M 0. 0.
@low_m112 mass low_M 0. 0.
@low_m113 mass low_M 0. 0.
@low_m114 mass low_M 0. 0.
@low_m115 mass low_M 0. 0.
@low_m116 mass low_M 0. 0.
@low_m117 mass low_M 0. 0.
@low_m118 mass low_M 0. 0.
@low_m119 mass low_M 0. 0.
@low_m120 mass low_M 0. 0.
@low_m121 mass low_M 0. 0.
@low_m122 mass low_M 0. 0.
@low_m123 mass low_M 0. 0.
@low_m124 mass low_M 0. 0.
@low_m125 mass low_M 0. 0.
@low_m126 mass low_M 0. 0.
@low_m127 mass low_M 0. 0.
@low_m128 mass low_M 0. 0.
@low_m129 mass low_M 0. 0.
@low_m130 mass low_M 0. 0.
@low_m131 mass low_M 0. 0.
@low_m132 mass low_M 0. 0.
@low_m133 mass low_M 0. 0.
@low_m134 mass low_M 0. 0.
@low_m135 mass low_M 0. 0.
@low_m136 mass low_M 0. 0.
@low_m137 mass low_M 0. 0.
@low_m138 mass low_M 0. 0.
@low_m139 mass low_M 0. 0.
@low_m140 mass low_M 0. 0.
@low_m141 mass low_M 0. 0.
@low_m142 mass low_M 0. 0.
@low_m143 mass low_M 0. 0.
@low_m144 mass low_M 0. 0.
@low_m145 mass low_M 0. 0.
@low_m146 mass low_M 0. 0.
@low_m147 mass low_M 0. 0.
@low_m148 mass low_M 0. 0.
@low_m149 mass low_M 0. 0.
@low_s1 ground 0.
@low_r0 springDamper @low_s0 @low_m0 low_K low_Z
@low_r1 springDamper @low_m0 @low_m1 low_K low_Z
@low_r2 springDamper @low_m1 @low_m2 low_K low_Z
@low_r3 springDamper @low_m2 @low_m3 low_K low_Z
@low_r4 springDamper @low_m3 @low_m4 low_K low_Z
@low_r5 springDamper @low_m4 @low_m5 low_K low_Z
@low_r6 springDamper @low_m5 @low_m6 low_K low_Z
@low_r7 springDamper @low_m6 @low_m7 low_K low_Z
@low_r8 springDamper @low_m7 @low_m8 low_K low_Z
@low_r9 springDamper @low_m8 @low_m9 low_K low_Z
@low_r10 springDamper @low_m9 @low_m10 low_K low_Z
@low_r11 springDamper @low_m10 @low_m11 low_K low_Z
@low_r12 springDamper @low_m11 @low_m12 low_K low_Z
@low_r13 springDamper @low_m12 @low_m13 low_K low_Z
@low_r14 springDamper @low_m13 @low_m14 low_K low_Z
@low_r15 springDamper @low_m14 @low_m15 low_K low_Z
@low_r16 springDamper @low_m15 @low_m16 low_K low_Z
@low_r17 springDamper @low_m16 @low_m17 low_K low_Z
@low_r18 springDamper @low_m17 @low_m18 low_K low_Z
@low_r19 springDamper @low_m18 @low_m19 low_K low_Z
@low_r20 springDamper @low_m19 @low_m20 low_K low_Z
@low_r21 springDamper @low_m20 @low_m21 low_K low_Z
@low_r22 springDamper @low_m21 @low_m22 low_K low_Z
@low_r23 springDamper @low_m22 @low_m23 low_K low_Z
@low_r24 springDamper @low_m23 @low_m24 low_K low_Z
@low_r25 springDamper @low_m24 @low_m25 low_K low_Z
@low_r26 springDamper @low_m25 @low_m26 low_K low_Z
@low_r27 springDamper @low_m26 @low_m27 low_K low_Z
@low_r28 springDamper @low_m27 @low_m28 low_K low_Z
@low_r29 springDamper @low_m28 @low_m29 low_K low_Z
@low_r30 springDamper @low_m29 @low_m30 low_K low_Z
@low_r31 springDamper @low_m30 @low_m31 low_K low_Z
@low_r32 springDamper @low_m31 @low_m32 low_K low_Z
@low_r33 springDamper @low_m32 @low_m33 low_K low_Z
@low_r34 springDamper @low_m33 @low_m34 low_K low_Z
@low_r35 springDamper @low_m34 @low_m35 low_K low_Z
@low_r36 springDamper @low_m35 @low_m36 low_K low_Z
@low_r37 springDamper @low_m36 @low_m37 low_K low_Z
@low_r38 springDamper @low_m37 @low_m38 low_K low_Z
@low_r39 springDamper @low_m38 @low_m39 low_K low_Z
@low_r40 springDamper @low_m39 @low_m40 low_K low_Z
@low_r41 springDamper @low_m40 @low_m41 low_K low_Z
@low_r42 springDamper @low_m41 @low_m42 low_K low_Z
@low_r43 springDamper @low_m42 @low_m43 low_K low_Z
@low_r44 springDamper @low_m43 @low_m44 low_K low_Z
@low_r45 springDamper @low_m44 @low_m45 low_K low_Z
@low_r46 springDamper @low_m45 @low_m46 low_K low_Z
@low_r47 springDamper @low_m46 @low_m47 low_K low_Z
@low_r48 springDamper @low_m47 @low_m48 low_K low_Z
@low_r49 springDamper @low_m48 @low_m49 low_K low_Z
@low_r50 springDamper @low_m49 @low_m50 low_K low_Z
@low_r51 springDamper @low_m50 @low_m51 low_K low_Z
@low_r52 springDamper @low_m51 @low_m52 low_K low_Z
@low_r53 springDamper @low_m52 @low_m53 low_K low_Z
@low_r54 springDamper @low_m53 @low_m54 low_K low_Z
@low_r55 springDamper @low_m54 @low_m55 low_K low_Z
@low_r56 springDamper @low_m55 @low_m56 low_K low_Z
@low_r57 springDamper @low_m56 @low_m57 low_K low_Z
@low_r58 springDamper @low_m57 @low_m58 low_K low_Z
@low_r59 springDamper @low_m58 @low_m59 low_K low_Z
@low_r60 springDamper @low_m59 @low_m60 low_K low_Z
@low_r61 springDamper @low_m60 @low_m61 low_K low_Z
@low_r62 springDamper @low_m61 @low_m62 low_K low_Z
@low_r63 springDamper @low_m62 @low_m63 low_K low_Z
@low_r64 springDamper @low_m63 @low_m64 low_K low_Z
@low_r65 springDamper @low_m64 @low_m65 low_K low_Z
@low_r66 springDamper @low_m65 @low_m66 low_K low_Z
@low_r67 springDamper @low_m66 @low_m67 low_K low_Z
@low_r68 springDamper @low_m67 @low_m68 low_K low_Z
@low_r69 springDamper @low_m68 @low_m69 low_K low_Z
@low_r70 springDamper @low_m69 @low_m70 low_K low_Z
@low_r71 springDamper @low_m70 @low_m71 low_K low_Z
@low_r72 springDamper @low_m71 @low_m72 low_K low_Z
@low_r73 springDamper @low_m72 @low_m73 low_K low_Z
@low_r74 springDamper @low_m73 @low_m74 low_K low_Z
@low_r75 springDamper @low_m74 @low_m75 low_K low_Z
@low_r76 springDamper @low_m75 @low_m76 low_K low_Z
@low_r77 springDamper @low_m76 @low_m77 low_K low_Z
@low_r78 springDamper @low_m77 @low_m78 low_K low_Z
@low_r79 springDamper @low_m78 @low_m79 low_K low_Z
@low_r80 springDamper @low_m79 @low_m80 low_K low_Z
@low_r81 springDamper @low_m80 @low_m81 low_K low_Z
@low_r82 springDamper @low_m81 @low_m82 low_K low_Z
@low_r83 springDamper @low_m82 @low_m83 low_K low_Z
@low_r84 springDamper @low_m83 @low_m84 low_K low_Z
@low_r85 springDamper @low_m84 @low_m85 low_K low_Z
@low_r86 springDamper @low_m85 @low_m86 low_K low_Z
@low_r87 springDamper @low_m86 @low_m87 low_K low_Z
@low_r88 springDamper @low_m87 @low_m88 low_K low_Z
@low_r89 springDamper @low_m88 @low_m89 low_K low_Z
@low_r90 springDamper @low_m89 @low_m90 low_K low_Z
@low_r91 springDamper @low_m90 @low_m91 low_K low_Z
@low_r92 springDamper @low_m91 @low_m92 low_K low_Z
@low_r93 springDamper @low_m92 @low_m93 low_K low_Z
@low_r94 springDamper @low_m93 @low_m94 low_K low_Z
@low_r95 springDamper @low_m94 @low_m95 low_K low_Z
@low_r96 springDamper @low_m95 @low_m96 low_K low_Z
@low_r97 springDamper @low_m96 @low_m97 low_K low_Z
@low_r98 springDamper @low_m97 @low_m98 low_K low_Z
@low_r99 springDamper @low_m98 @low_m99 low_K low_Z
@low_r100 springDamper @low_m99 @low_m100 low_K low_Z
@low_r101 springDamper @low_m100 @low_m101 low_K low_Z
@low_r102 springDamper @low_m101 @low_m102 low_K low_Z
@low_r103 springDamper @low_m102 @low_m103 low_K low_Z
@low_r104 springDamper @low_m103 @low_m104 low_K low_Z
@low_r105 springDamper @low_m104 @low_m105 low_K low_Z
@low_r106 springDamper @low_m105 @low_m106 low_K low_Z
@low_r107 springDamper @low_m106 @low_m107 low_K low_Z
@low_r108 springDamper @low_m107 @low_m108 low_K low_Z
@low_r109 springDamper @low_m108 @low_m109 low_K low_Z
@low_r110 springDamper @low_m109 @low_m110 low_K low_Z
@low_r111 springDamper @low_m110 @low_m111 low_K low_Z
@low_r112 springDamper @low_m111 @low_m112 low_K low_Z
@low_r113 springDamper @low_m112 @low_m113 low_K low_Z
@low_r114 springDamper @low_m113 @low_m114 low_K low_Z
@low_r115 springDamper @low_m114 @low_m115 low_K low_Z
@low_r116 springDamper @low_m115 @low_m116 low_K low_Z
@low_r117 springDamper @low_m116 @low_m117 low_K low_Z
@low_r118 springDamper @low_m117 @low_m118 low_K low_Z
@low_r119 springDamper @low_m118 @low_m119 low_K low_Z
@low_r120 springDamper @low_m119 @low_m120 low_K low_Z
@low_r121 springDamper @low_m120 @low_m121 low_K low_Z
@low_r122 springDamper @low_m121 @low_m122 low_K low_Z
@low_r123 springDamper @low_m122 @low_m123 low_K low_Z
@low_r124 springDamper @low_m123 @low_m124 low_K low_Z
@low_r125 springDamper @low_m124 @low_m125 low_K low_Z
@low_r126 springDamper @low_m125 @low_m126 low_K low_Z
@low_r127 springDamper @low_m126 @low_m127 low_K low_Z
@low_r128 springDamper @low_m127 @low_m128 low_K low_Z
@low_r129 springDamper @low_m128 @low_m129 low_K low_Z
@low_r130 springDamper @low_m129 @low_m130 low_K low_Z
@low_r131 springDamper @low_m130 @low_m131 low_K low_Z
@low_r132 springDamper @low_m131 @low_m132 low_K low_Z
@low_r133 springDamper @low_m132 @low_m133 low_K low_Z
@low_r134 springDamper @low_m133 @low_m134 low_K low_Z
@low_r135 springDamper @low_m134 @low_m135 low_K low_Z
@low_r136 springDamper @low_m135 @low_m136 low_K low_Z
@low_r137 springDamper @low_m136 @low_m137 low_K low_Z
@low_r138 springDamper @low_m137 @low_m138 low_K low_Z
@low_r139 springDamper @low_m138 @low_m139 low_K low_Z
@low_r140 springDamper @low_m139 @low_m140 low_K low_Z
@low_r141 springDamper @low_m140 @low_m141 low_K low_Z
@low_r142 springDamper @low_m141 @low_m142 low_K low_Z
@low_r143 springDamper @low_m142 @low_m143 low_K low_Z
@low_r144 springDamper @low_m143 @low_m144 low_K low_Z
@low_r145 springDamper @low_m144 @low_m145 low_K low_Z
@low_r146 springDamper @low_m145 @low_m146 low_K low_Z
@low_r147 springDamper @low_m146 @low_m147 low_K low_Z
@low_r148 springDamper @low_m147 @low_m148 low_K low_Z
@low_r149 springDamper @low_m148 @low_m149 low_K low_Z
@low_r150 springDamper @low_m149 @low_s1 low_K low_Z
@in1 posInput 1.
@out1 posOutput @low_m30
@out2 posOutput @low_m40
@nlb0 nlBow @in1 @low_m143 nlZ nlscale
|
declare name "BowedString";
declare author "James Leonard";
declare date "April 2020";
import("stdfaust.lib");
OutGain = 150.;
low_M = 1.0;
low_K = hslider("String Stiffness",0.3,0.001,0.7,0.0001) : si.smoo;
low_Z = 0.001;
nlZ = hslider("Bow Pressure",0.3,0.001,0.5,0.0001) : si.smoo;
nlscale = 0.0005;
model = (
mi.ground(0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.mass(low_M, 0, 0., 0.),
mi.ground(0.),
mi.posInput(1.):
RoutingMassToLink :
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.springDamper(low_K, low_Z, 0., 0.),
mi.nlBow(nlZ, nlscale, 0, 1., 0.),
par(i, nbOut, _):
RoutingLinkToMass
)~par(i, nbMass, _):
par(i, nbMass, !), par(i, nbOut , _)
with{
nbMass = 153;
nbOut = 2;
};
process = in1 : model:*(OutGain), *(OutGain);
|
846ca6b1b9ad1a546566e02df3c69dc0de538b84c7730e047af622db2fe63d1a
|
madskjeldgaard/mkfaustplugins
|
PluckedString.dsp
|
declare name "PluckedString";
declare author "James Leonard";
declare date "April 2020";
/* ========= DESCRITPION =============
A plucked string with a few controls.
- inputs: pick position.
- outputs: two listening points on the string.
- controls: pick stiffness and damping, string stiffness, damping and air friction.
Note: the model block diagram is starting to look like a piece of modern art.
*/
import("stdfaust.lib");
in1 = _:si.smoo;
OutGain = 5;
str_M = 1.0;
str_K = hslider("stiffness", 0.7, 0.001, 0.7, 0.001):si.smoo;
str_Z = hslider("damping", 0.0009, 0.00, 0.01, 0.00001):si.smoo;
str_Zo = hslider("friction", 0.00005, 0.00, 0.0002, 0.00001):si.smoo;
nlK = hslider("pickstiffness", 0.5, 0., 0.8, 0.001);
nlscale = 0.05;
pZ = hslider("pickdamping", 0.04, 0., 0.1, 0.001);
model = (
mi.ground(0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.ground(0.),
mi.posInput(0.):
RoutingMassToLink :
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.nlPluck(nlK, nlscale, pZ, 0., 0.),
par(i, nbOut, _):
RoutingLinkToMass
)~par(i, nbMass, _):
par(i, nbMass, !), par(i, nbOut , _)
with{
RoutingMassToLink(m0, m1, m2, m3, m4, m5, m6, m7, m8, m9, m10, m11, m12, m13, m14, m15, m16, m17, m18, m19, m20, m21, m22, m23, m24, m25, m26, m27, m28, m29, m30, m31, m32, m33, m34, m35, m36, m37, m38, m39, m40, m41, m42, m43, m44, m45, m46, m47, m48, m49, m50, m51, m52, m53, m54, m55, m56, m57, m58, m59, m60, m61, m62, m63, m64, m65, m66, m67, m68, m69, m70, m71, m72, m73, m74, m75, m76, m77, m78, m79, m80, m81, m82, m83, m84, m85, m86, m87, m88, m89, m90, m91, m92, m93, m94, m95, m96, m97, m98, m99, m100, m101, m102, m103, m104, m105, m106, m107, m108, m109, m110, m111, m112, m113, m114, m115, m116, m117, m118, m119, m120, m121, m122, m123, m124, m125, m126, m127, m128, m129, m130, m131, m132, m133, m134, m135, m136, m137, m138, m139, m140, m141, m142, m143, m144, m145, m146, m147, m148, m149, m150, m151, m152) = /* routed positions */ m0, m1, m1, m2, m2, m3, m3, m4, m4, m5, m5, m6, m6, m7, m7, m8, m8, m9, m9, m10, m10, m11, m11, m12, m12, m13, m13, m14, m14, m15, m15, m16, m16, m17, m17, m18, m18, m19, m19, m20, m20, m21, m21, m22, m22, m23, m23, m24, m24, m25, m25, m26, m26, m27, m27, m28, m28, m29, m29, m30, m30, m31, m31, m32, m32, m33, m33, m34, m34, m35, m35, m36, m36, m37, m37, m38, m38, m39, m39, m40, m40, m41, m41, m42, m42, m43, m43, m44, m44, m45, m45, m46, m46, m47, m47, m48, m48, m49, m49, m50, m50, m51, m51, m52, m52, m53, m53, m54, m54, m55, m55, m56, m56, m57, m57, m58, m58, m59, m59, m60, m60, m61, m61, m62, m62, m63, m63, m64, m64, m65, m65, m66, m66, m67, m67, m68, m68, m69, m69, m70, m70, m71, m71, m72, m72, m73, m73, m74, m74, m75, m75, m76, m76, m77, m77, m78, m78, m79, m79, m80, m80, m81, m81, m82, m82, m83, m83, m84, m84, m85, m85, m86, m86, m87, m87, m88, m88, m89, m89, m90, m90, m91, m91, m92, m92, m93, m93, m94, m94, m95, m95, m96, m96, m97, m97, m98, m98, m99, m99, m100, m100, m101, m101, m102, m102, m103, m103, m104, m104, m105, m105, m106, m106, m107, m107, m108, m108, m109, m109, m110, m110, m111, m111, m112, m112, m113, m113, m114, m114, m115, m115, m116, m116, m117, m117, m118, m118, m119, m119, m120, m120, m121, m121, m122, m122, m123, m123, m124, m124, m125, m125, m126, m126, m127, m127, m128, m128, m129, m129, m130, m130, m131, m131, m132, m132, m133, m133, m134, m134, m135, m135, m136, m136, m137, m137, m138, m138, m139, m139, m140, m140, m141, m141, m142, m142, m143, m143, m144, m144, m145, m145, m146, m146, m147, m147, m148, m148, m149, m149, m150, m150, m151, m152, m141, /* outputs */ m21, m11;
RoutingLinkToMass(l0_f1, l0_f2, l1_f1, l1_f2, l2_f1, l2_f2, l3_f1, l3_f2, l4_f1, l4_f2, l5_f1, l5_f2, l6_f1, l6_f2, l7_f1, l7_f2, l8_f1, l8_f2, l9_f1, l9_f2, l10_f1, l10_f2, l11_f1, l11_f2, l12_f1, l12_f2, l13_f1, l13_f2, l14_f1, l14_f2, l15_f1, l15_f2, l16_f1, l16_f2, l17_f1, l17_f2, l18_f1, l18_f2, l19_f1, l19_f2, l20_f1, l20_f2, l21_f1, l21_f2, l22_f1, l22_f2, l23_f1, l23_f2, l24_f1, l24_f2, l25_f1, l25_f2, l26_f1, l26_f2, l27_f1, l27_f2, l28_f1, l28_f2, l29_f1, l29_f2, l30_f1, l30_f2, l31_f1, l31_f2, l32_f1, l32_f2, l33_f1, l33_f2, l34_f1, l34_f2, l35_f1, l35_f2, l36_f1, l36_f2, l37_f1, l37_f2, l38_f1, l38_f2, l39_f1, l39_f2, l40_f1, l40_f2, l41_f1, l41_f2, l42_f1, l42_f2, l43_f1, l43_f2, l44_f1, l44_f2, l45_f1, l45_f2, l46_f1, l46_f2, l47_f1, l47_f2, l48_f1, l48_f2, l49_f1, l49_f2, l50_f1, l50_f2, l51_f1, l51_f2, l52_f1, l52_f2, l53_f1, l53_f2, l54_f1, l54_f2, l55_f1, l55_f2, l56_f1, l56_f2, l57_f1, l57_f2, l58_f1, l58_f2, l59_f1, l59_f2, l60_f1, l60_f2, l61_f1, l61_f2, l62_f1, l62_f2, l63_f1, l63_f2, l64_f1, l64_f2, l65_f1, l65_f2, l66_f1, l66_f2, l67_f1, l67_f2, l68_f1, l68_f2, l69_f1, l69_f2, l70_f1, l70_f2, l71_f1, l71_f2, l72_f1, l72_f2, l73_f1, l73_f2, l74_f1, l74_f2, l75_f1, l75_f2, l76_f1, l76_f2, l77_f1, l77_f2, l78_f1, l78_f2, l79_f1, l79_f2, l80_f1, l80_f2, l81_f1, l81_f2, l82_f1, l82_f2, l83_f1, l83_f2, l84_f1, l84_f2, l85_f1, l85_f2, l86_f1, l86_f2, l87_f1, l87_f2, l88_f1, l88_f2, l89_f1, l89_f2, l90_f1, l90_f2, l91_f1, l91_f2, l92_f1, l92_f2, l93_f1, l93_f2, l94_f1, l94_f2, l95_f1, l95_f2, l96_f1, l96_f2, l97_f1, l97_f2, l98_f1, l98_f2, l99_f1, l99_f2, l100_f1, l100_f2, l101_f1, l101_f2, l102_f1, l102_f2, l103_f1, l103_f2, l104_f1, l104_f2, l105_f1, l105_f2, l106_f1, l106_f2, l107_f1, l107_f2, l108_f1, l108_f2, l109_f1, l109_f2, l110_f1, l110_f2, l111_f1, l111_f2, l112_f1, l112_f2, l113_f1, l113_f2, l114_f1, l114_f2, l115_f1, l115_f2, l116_f1, l116_f2, l117_f1, l117_f2, l118_f1, l118_f2, l119_f1, l119_f2, l120_f1, l120_f2, l121_f1, l121_f2, l122_f1, l122_f2, l123_f1, l123_f2, l124_f1, l124_f2, l125_f1, l125_f2, l126_f1, l126_f2, l127_f1, l127_f2, l128_f1, l128_f2, l129_f1, l129_f2, l130_f1, l130_f2, l131_f1, l131_f2, l132_f1, l132_f2, l133_f1, l133_f2, l134_f1, l134_f2, l135_f1, l135_f2, l136_f1, l136_f2, l137_f1, l137_f2, l138_f1, l138_f2, l139_f1, l139_f2, l140_f1, l140_f2, l141_f1, l141_f2, l142_f1, l142_f2, l143_f1, l143_f2, l144_f1, l144_f2, l145_f1, l145_f2, l146_f1, l146_f2, l147_f1, l147_f2, l148_f1, l148_f2, l149_f1, l149_f2, l150_f1, l150_f2, l151_f1, l151_f2, p_out1, p_out2) = /* routed forces */ l0_f1, l0_f2 + l1_f1, l1_f2 + l2_f1, l2_f2 + l3_f1, l3_f2 + l4_f1, l4_f2 + l5_f1, l5_f2 + l6_f1, l6_f2 + l7_f1, l7_f2 + l8_f1, l8_f2 + l9_f1, l9_f2 + l10_f1, l10_f2 + l11_f1, l11_f2 + l12_f1, l12_f2 + l13_f1, l13_f2 + l14_f1, l14_f2 + l15_f1, l15_f2 + l16_f1, l16_f2 + l17_f1, l17_f2 + l18_f1, l18_f2 + l19_f1, l19_f2 + l20_f1, l20_f2 + l21_f1, l21_f2 + l22_f1, l22_f2 + l23_f1, l23_f2 + l24_f1, l24_f2 + l25_f1, l25_f2 + l26_f1, l26_f2 + l27_f1, l27_f2 + l28_f1, l28_f2 + l29_f1, l29_f2 + l30_f1, l30_f2 + l31_f1, l31_f2 + l32_f1, l32_f2 + l33_f1, l33_f2 + l34_f1, l34_f2 + l35_f1, l35_f2 + l36_f1, l36_f2 + l37_f1, l37_f2 + l38_f1, l38_f2 + l39_f1, l39_f2 + l40_f1, l40_f2 + l41_f1, l41_f2 + l42_f1, l42_f2 + l43_f1, l43_f2 + l44_f1, l44_f2 + l45_f1, l45_f2 + l46_f1, l46_f2 + l47_f1, l47_f2 + l48_f1, l48_f2 + l49_f1, l49_f2 + l50_f1, l50_f2 + l51_f1, l51_f2 + l52_f1, l52_f2 + l53_f1, l53_f2 + l54_f1, l54_f2 + l55_f1, l55_f2 + l56_f1, l56_f2 + l57_f1, l57_f2 + l58_f1, l58_f2 + l59_f1, l59_f2 + l60_f1, l60_f2 + l61_f1, l61_f2 + l62_f1, l62_f2 + l63_f1, l63_f2 + l64_f1, l64_f2 + l65_f1, l65_f2 + l66_f1, l66_f2 + l67_f1, l67_f2 + l68_f1, l68_f2 + l69_f1, l69_f2 + l70_f1, l70_f2 + l71_f1, l71_f2 + l72_f1, l72_f2 + l73_f1, l73_f2 + l74_f1, l74_f2 + l75_f1, l75_f2 + l76_f1, l76_f2 + l77_f1, l77_f2 + l78_f1, l78_f2 + l79_f1, l79_f2 + l80_f1, l80_f2 + l81_f1, l81_f2 + l82_f1, l82_f2 + l83_f1, l83_f2 + l84_f1, l84_f2 + l85_f1, l85_f2 + l86_f1, l86_f2 + l87_f1, l87_f2 + l88_f1, l88_f2 + l89_f1, l89_f2 + l90_f1, l90_f2 + l91_f1, l91_f2 + l92_f1, l92_f2 + l93_f1, l93_f2 + l94_f1, l94_f2 + l95_f1, l95_f2 + l96_f1, l96_f2 + l97_f1, l97_f2 + l98_f1, l98_f2 + l99_f1, l99_f2 + l100_f1, l100_f2 + l101_f1, l101_f2 + l102_f1, l102_f2 + l103_f1, l103_f2 + l104_f1, l104_f2 + l105_f1, l105_f2 + l106_f1, l106_f2 + l107_f1, l107_f2 + l108_f1, l108_f2 + l109_f1, l109_f2 + l110_f1, l110_f2 + l111_f1, l111_f2 + l112_f1, l112_f2 + l113_f1, l113_f2 + l114_f1, l114_f2 + l115_f1, l115_f2 + l116_f1, l116_f2 + l117_f1, l117_f2 + l118_f1, l118_f2 + l119_f1, l119_f2 + l120_f1, l120_f2 + l121_f1, l121_f2 + l122_f1, l122_f2 + l123_f1, l123_f2 + l124_f1, l124_f2 + l125_f1, l125_f2 + l126_f1, l126_f2 + l127_f1, l127_f2 + l128_f1, l128_f2 + l129_f1, l129_f2 + l130_f1, l130_f2 + l131_f1, l131_f2 + l132_f1, l132_f2 + l133_f1, l133_f2 + l134_f1, l134_f2 + l135_f1, l135_f2 + l136_f1, l136_f2 + l137_f1, l137_f2 + l138_f1, l138_f2 + l139_f1, l139_f2 + l140_f1, l140_f2 + l141_f1 + l151_f2, l141_f2 + l142_f1, l142_f2 + l143_f1, l143_f2 + l144_f1, l144_f2 + l145_f1, l145_f2 + l146_f1, l146_f2 + l147_f1, l147_f2 + l148_f1, l148_f2 + l149_f1, l149_f2 + l150_f1, l150_f2, l151_f1, /* pass-through */ p_out1, p_out2;
nbMass = 153;
nbOut = 2;
};
process = in1 : model:*(OutGain), *(OutGain);
/*
========= MIMS SCRIPT USED FOR MODEL GENERATION =============
# Plucked string model
# Script author : James Leonard
@nlK param 0.8
@nlscale param 0.005
@pZ param 0.001
@str_M param 1
@str_K param 0.5
@str_Z param 0.001
@str_Zo param 0.00005
@str_s0 ground 0.
@str_m0 osc str_M 0 str_Zo 0. 0.
@str_m1 osc str_M 0 str_Zo 0. 0.
@str_m2 osc str_M 0 str_Zo 0. 0.
@str_m3 osc str_M 0 str_Zo 0. 0.
@str_m4 osc str_M 0 str_Zo 0. 0.
@str_m5 osc str_M 0 str_Zo 0. 0.
@str_m6 osc str_M 0 str_Zo 0. 0.
@str_m7 osc str_M 0 str_Zo 0. 0.
@str_m8 osc str_M 0 str_Zo 0. 0.
@str_m9 osc str_M 0 str_Zo 0. 0.
@str_m10 osc str_M 0 str_Zo 0. 0.
@str_m11 osc str_M 0 str_Zo 0. 0.
@str_m12 osc str_M 0 str_Zo 0. 0.
@str_m13 osc str_M 0 str_Zo 0. 0.
@str_m14 osc str_M 0 str_Zo 0. 0.
@str_m15 osc str_M 0 str_Zo 0. 0.
@str_m16 osc str_M 0 str_Zo 0. 0.
@str_m17 osc str_M 0 str_Zo 0. 0.
@str_m18 osc str_M 0 str_Zo 0. 0.
@str_m19 osc str_M 0 str_Zo 0. 0.
@str_m20 osc str_M 0 str_Zo 0. 0.
@str_m21 osc str_M 0 str_Zo 0. 0.
@str_m22 osc str_M 0 str_Zo 0. 0.
@str_m23 osc str_M 0 str_Zo 0. 0.
@str_m24 osc str_M 0 str_Zo 0. 0.
@str_m25 osc str_M 0 str_Zo 0. 0.
@str_m26 osc str_M 0 str_Zo 0. 0.
@str_m27 osc str_M 0 str_Zo 0. 0.
@str_m28 osc str_M 0 str_Zo 0. 0.
@str_m29 osc str_M 0 str_Zo 0. 0.
@str_m30 osc str_M 0 str_Zo 0. 0.
@str_m31 osc str_M 0 str_Zo 0. 0.
@str_m32 osc str_M 0 str_Zo 0. 0.
@str_m33 osc str_M 0 str_Zo 0. 0.
@str_m34 osc str_M 0 str_Zo 0. 0.
@str_m35 osc str_M 0 str_Zo 0. 0.
@str_m36 osc str_M 0 str_Zo 0. 0.
@str_m37 osc str_M 0 str_Zo 0. 0.
@str_m38 osc str_M 0 str_Zo 0. 0.
@str_m39 osc str_M 0 str_Zo 0. 0.
@str_m40 osc str_M 0 str_Zo 0. 0.
@str_m41 osc str_M 0 str_Zo 0. 0.
@str_m42 osc str_M 0 str_Zo 0. 0.
@str_m43 osc str_M 0 str_Zo 0. 0.
@str_m44 osc str_M 0 str_Zo 0. 0.
@str_m45 osc str_M 0 str_Zo 0. 0.
@str_m46 osc str_M 0 str_Zo 0. 0.
@str_m47 osc str_M 0 str_Zo 0. 0.
@str_m48 osc str_M 0 str_Zo 0. 0.
@str_m49 osc str_M 0 str_Zo 0. 0.
@str_m50 osc str_M 0 str_Zo 0. 0.
@str_m51 osc str_M 0 str_Zo 0. 0.
@str_m52 osc str_M 0 str_Zo 0. 0.
@str_m53 osc str_M 0 str_Zo 0. 0.
@str_m54 osc str_M 0 str_Zo 0. 0.
@str_m55 osc str_M 0 str_Zo 0. 0.
@str_m56 osc str_M 0 str_Zo 0. 0.
@str_m57 osc str_M 0 str_Zo 0. 0.
@str_m58 osc str_M 0 str_Zo 0. 0.
@str_m59 osc str_M 0 str_Zo 0. 0.
@str_m60 osc str_M 0 str_Zo 0. 0.
@str_m61 osc str_M 0 str_Zo 0. 0.
@str_m62 osc str_M 0 str_Zo 0. 0.
@str_m63 osc str_M 0 str_Zo 0. 0.
@str_m64 osc str_M 0 str_Zo 0. 0.
@str_m65 osc str_M 0 str_Zo 0. 0.
@str_m66 osc str_M 0 str_Zo 0. 0.
@str_m67 osc str_M 0 str_Zo 0. 0.
@str_m68 osc str_M 0 str_Zo 0. 0.
@str_m69 osc str_M 0 str_Zo 0. 0.
@str_m70 osc str_M 0 str_Zo 0. 0.
@str_m71 osc str_M 0 str_Zo 0. 0.
@str_m72 osc str_M 0 str_Zo 0. 0.
@str_m73 osc str_M 0 str_Zo 0. 0.
@str_m74 osc str_M 0 str_Zo 0. 0.
@str_m75 osc str_M 0 str_Zo 0. 0.
@str_m76 osc str_M 0 str_Zo 0. 0.
@str_m77 osc str_M 0 str_Zo 0. 0.
@str_m78 osc str_M 0 str_Zo 0. 0.
@str_m79 osc str_M 0 str_Zo 0. 0.
@str_m80 osc str_M 0 str_Zo 0. 0.
@str_m81 osc str_M 0 str_Zo 0. 0.
@str_m82 osc str_M 0 str_Zo 0. 0.
@str_m83 osc str_M 0 str_Zo 0. 0.
@str_m84 osc str_M 0 str_Zo 0. 0.
@str_m85 osc str_M 0 str_Zo 0. 0.
@str_m86 osc str_M 0 str_Zo 0. 0.
@str_m87 osc str_M 0 str_Zo 0. 0.
@str_m88 osc str_M 0 str_Zo 0. 0.
@str_m89 osc str_M 0 str_Zo 0. 0.
@str_m90 osc str_M 0 str_Zo 0. 0.
@str_m91 osc str_M 0 str_Zo 0. 0.
@str_m92 osc str_M 0 str_Zo 0. 0.
@str_m93 osc str_M 0 str_Zo 0. 0.
@str_m94 osc str_M 0 str_Zo 0. 0.
@str_m95 osc str_M 0 str_Zo 0. 0.
@str_m96 osc str_M 0 str_Zo 0. 0.
@str_m97 osc str_M 0 str_Zo 0. 0.
@str_m98 osc str_M 0 str_Zo 0. 0.
@str_m99 osc str_M 0 str_Zo 0. 0.
@str_m100 osc str_M 0 str_Zo 0. 0.
@str_m101 osc str_M 0 str_Zo 0. 0.
@str_m102 osc str_M 0 str_Zo 0. 0.
@str_m103 osc str_M 0 str_Zo 0. 0.
@str_m104 osc str_M 0 str_Zo 0. 0.
@str_m105 osc str_M 0 str_Zo 0. 0.
@str_m106 osc str_M 0 str_Zo 0. 0.
@str_m107 osc str_M 0 str_Zo 0. 0.
@str_m108 osc str_M 0 str_Zo 0. 0.
@str_m109 osc str_M 0 str_Zo 0. 0.
@str_m110 osc str_M 0 str_Zo 0. 0.
@str_m111 osc str_M 0 str_Zo 0. 0.
@str_m112 osc str_M 0 str_Zo 0. 0.
@str_m113 osc str_M 0 str_Zo 0. 0.
@str_m114 osc str_M 0 str_Zo 0. 0.
@str_m115 osc str_M 0 str_Zo 0. 0.
@str_m116 osc str_M 0 str_Zo 0. 0.
@str_m117 osc str_M 0 str_Zo 0. 0.
@str_m118 osc str_M 0 str_Zo 0. 0.
@str_m119 osc str_M 0 str_Zo 0. 0.
@str_m120 osc str_M 0 str_Zo 0. 0.
@str_m121 osc str_M 0 str_Zo 0. 0.
@str_m122 osc str_M 0 str_Zo 0. 0.
@str_m123 osc str_M 0 str_Zo 0. 0.
@str_m124 osc str_M 0 str_Zo 0. 0.
@str_m125 osc str_M 0 str_Zo 0. 0.
@str_m126 osc str_M 0 str_Zo 0. 0.
@str_m127 osc str_M 0 str_Zo 0. 0.
@str_m128 osc str_M 0 str_Zo 0. 0.
@str_m129 osc str_M 0 str_Zo 0. 0.
@str_m130 osc str_M 0 str_Zo 0. 0.
@str_m131 osc str_M 0 str_Zo 0. 0.
@str_m132 osc str_M 0 str_Zo 0. 0.
@str_m133 osc str_M 0 str_Zo 0. 0.
@str_m134 osc str_M 0 str_Zo 0. 0.
@str_m135 osc str_M 0 str_Zo 0. 0.
@str_m136 osc str_M 0 str_Zo 0. 0.
@str_m137 osc str_M 0 str_Zo 0. 0.
@str_m138 osc str_M 0 str_Zo 0. 0.
@str_m139 osc str_M 0 str_Zo 0. 0.
@str_m140 osc str_M 0 str_Zo 0. 0.
@str_m141 osc str_M 0 str_Zo 0. 0.
@str_m142 osc str_M 0 str_Zo 0. 0.
@str_m143 osc str_M 0 str_Zo 0. 0.
@str_m144 osc str_M 0 str_Zo 0. 0.
@str_m145 osc str_M 0 str_Zo 0. 0.
@str_m146 osc str_M 0 str_Zo 0. 0.
@str_m147 osc str_M 0 str_Zo 0. 0.
@str_m148 osc str_M 0 str_Zo 0. 0.
@str_m149 osc str_M 0 str_Zo 0. 0.
@str_s1 ground 0.
@str_r0 springDamper @str_s0 @str_m0 str_K str_Z
@str_r1 springDamper @str_m0 @str_m1 str_K str_Z
@str_r2 springDamper @str_m1 @str_m2 str_K str_Z
@str_r3 springDamper @str_m2 @str_m3 str_K str_Z
@str_r4 springDamper @str_m3 @str_m4 str_K str_Z
@str_r5 springDamper @str_m4 @str_m5 str_K str_Z
@str_r6 springDamper @str_m5 @str_m6 str_K str_Z
@str_r7 springDamper @str_m6 @str_m7 str_K str_Z
@str_r8 springDamper @str_m7 @str_m8 str_K str_Z
@str_r9 springDamper @str_m8 @str_m9 str_K str_Z
@str_r10 springDamper @str_m9 @str_m10 str_K str_Z
@str_r11 springDamper @str_m10 @str_m11 str_K str_Z
@str_r12 springDamper @str_m11 @str_m12 str_K str_Z
@str_r13 springDamper @str_m12 @str_m13 str_K str_Z
@str_r14 springDamper @str_m13 @str_m14 str_K str_Z
@str_r15 springDamper @str_m14 @str_m15 str_K str_Z
@str_r16 springDamper @str_m15 @str_m16 str_K str_Z
@str_r17 springDamper @str_m16 @str_m17 str_K str_Z
@str_r18 springDamper @str_m17 @str_m18 str_K str_Z
@str_r19 springDamper @str_m18 @str_m19 str_K str_Z
@str_r20 springDamper @str_m19 @str_m20 str_K str_Z
@str_r21 springDamper @str_m20 @str_m21 str_K str_Z
@str_r22 springDamper @str_m21 @str_m22 str_K str_Z
@str_r23 springDamper @str_m22 @str_m23 str_K str_Z
@str_r24 springDamper @str_m23 @str_m24 str_K str_Z
@str_r25 springDamper @str_m24 @str_m25 str_K str_Z
@str_r26 springDamper @str_m25 @str_m26 str_K str_Z
@str_r27 springDamper @str_m26 @str_m27 str_K str_Z
@str_r28 springDamper @str_m27 @str_m28 str_K str_Z
@str_r29 springDamper @str_m28 @str_m29 str_K str_Z
@str_r30 springDamper @str_m29 @str_m30 str_K str_Z
@str_r31 springDamper @str_m30 @str_m31 str_K str_Z
@str_r32 springDamper @str_m31 @str_m32 str_K str_Z
@str_r33 springDamper @str_m32 @str_m33 str_K str_Z
@str_r34 springDamper @str_m33 @str_m34 str_K str_Z
@str_r35 springDamper @str_m34 @str_m35 str_K str_Z
@str_r36 springDamper @str_m35 @str_m36 str_K str_Z
@str_r37 springDamper @str_m36 @str_m37 str_K str_Z
@str_r38 springDamper @str_m37 @str_m38 str_K str_Z
@str_r39 springDamper @str_m38 @str_m39 str_K str_Z
@str_r40 springDamper @str_m39 @str_m40 str_K str_Z
@str_r41 springDamper @str_m40 @str_m41 str_K str_Z
@str_r42 springDamper @str_m41 @str_m42 str_K str_Z
@str_r43 springDamper @str_m42 @str_m43 str_K str_Z
@str_r44 springDamper @str_m43 @str_m44 str_K str_Z
@str_r45 springDamper @str_m44 @str_m45 str_K str_Z
@str_r46 springDamper @str_m45 @str_m46 str_K str_Z
@str_r47 springDamper @str_m46 @str_m47 str_K str_Z
@str_r48 springDamper @str_m47 @str_m48 str_K str_Z
@str_r49 springDamper @str_m48 @str_m49 str_K str_Z
@str_r50 springDamper @str_m49 @str_m50 str_K str_Z
@str_r51 springDamper @str_m50 @str_m51 str_K str_Z
@str_r52 springDamper @str_m51 @str_m52 str_K str_Z
@str_r53 springDamper @str_m52 @str_m53 str_K str_Z
@str_r54 springDamper @str_m53 @str_m54 str_K str_Z
@str_r55 springDamper @str_m54 @str_m55 str_K str_Z
@str_r56 springDamper @str_m55 @str_m56 str_K str_Z
@str_r57 springDamper @str_m56 @str_m57 str_K str_Z
@str_r58 springDamper @str_m57 @str_m58 str_K str_Z
@str_r59 springDamper @str_m58 @str_m59 str_K str_Z
@str_r60 springDamper @str_m59 @str_m60 str_K str_Z
@str_r61 springDamper @str_m60 @str_m61 str_K str_Z
@str_r62 springDamper @str_m61 @str_m62 str_K str_Z
@str_r63 springDamper @str_m62 @str_m63 str_K str_Z
@str_r64 springDamper @str_m63 @str_m64 str_K str_Z
@str_r65 springDamper @str_m64 @str_m65 str_K str_Z
@str_r66 springDamper @str_m65 @str_m66 str_K str_Z
@str_r67 springDamper @str_m66 @str_m67 str_K str_Z
@str_r68 springDamper @str_m67 @str_m68 str_K str_Z
@str_r69 springDamper @str_m68 @str_m69 str_K str_Z
@str_r70 springDamper @str_m69 @str_m70 str_K str_Z
@str_r71 springDamper @str_m70 @str_m71 str_K str_Z
@str_r72 springDamper @str_m71 @str_m72 str_K str_Z
@str_r73 springDamper @str_m72 @str_m73 str_K str_Z
@str_r74 springDamper @str_m73 @str_m74 str_K str_Z
@str_r75 springDamper @str_m74 @str_m75 str_K str_Z
@str_r76 springDamper @str_m75 @str_m76 str_K str_Z
@str_r77 springDamper @str_m76 @str_m77 str_K str_Z
@str_r78 springDamper @str_m77 @str_m78 str_K str_Z
@str_r79 springDamper @str_m78 @str_m79 str_K str_Z
@str_r80 springDamper @str_m79 @str_m80 str_K str_Z
@str_r81 springDamper @str_m80 @str_m81 str_K str_Z
@str_r82 springDamper @str_m81 @str_m82 str_K str_Z
@str_r83 springDamper @str_m82 @str_m83 str_K str_Z
@str_r84 springDamper @str_m83 @str_m84 str_K str_Z
@str_r85 springDamper @str_m84 @str_m85 str_K str_Z
@str_r86 springDamper @str_m85 @str_m86 str_K str_Z
@str_r87 springDamper @str_m86 @str_m87 str_K str_Z
@str_r88 springDamper @str_m87 @str_m88 str_K str_Z
@str_r89 springDamper @str_m88 @str_m89 str_K str_Z
@str_r90 springDamper @str_m89 @str_m90 str_K str_Z
@str_r91 springDamper @str_m90 @str_m91 str_K str_Z
@str_r92 springDamper @str_m91 @str_m92 str_K str_Z
@str_r93 springDamper @str_m92 @str_m93 str_K str_Z
@str_r94 springDamper @str_m93 @str_m94 str_K str_Z
@str_r95 springDamper @str_m94 @str_m95 str_K str_Z
@str_r96 springDamper @str_m95 @str_m96 str_K str_Z
@str_r97 springDamper @str_m96 @str_m97 str_K str_Z
@str_r98 springDamper @str_m97 @str_m98 str_K str_Z
@str_r99 springDamper @str_m98 @str_m99 str_K str_Z
@str_r100 springDamper @str_m99 @str_m100 str_K str_Z
@str_r101 springDamper @str_m100 @str_m101 str_K str_Z
@str_r102 springDamper @str_m101 @str_m102 str_K str_Z
@str_r103 springDamper @str_m102 @str_m103 str_K str_Z
@str_r104 springDamper @str_m103 @str_m104 str_K str_Z
@str_r105 springDamper @str_m104 @str_m105 str_K str_Z
@str_r106 springDamper @str_m105 @str_m106 str_K str_Z
@str_r107 springDamper @str_m106 @str_m107 str_K str_Z
@str_r108 springDamper @str_m107 @str_m108 str_K str_Z
@str_r109 springDamper @str_m108 @str_m109 str_K str_Z
@str_r110 springDamper @str_m109 @str_m110 str_K str_Z
@str_r111 springDamper @str_m110 @str_m111 str_K str_Z
@str_r112 springDamper @str_m111 @str_m112 str_K str_Z
@str_r113 springDamper @str_m112 @str_m113 str_K str_Z
@str_r114 springDamper @str_m113 @str_m114 str_K str_Z
@str_r115 springDamper @str_m114 @str_m115 str_K str_Z
@str_r116 springDamper @str_m115 @str_m116 str_K str_Z
@str_r117 springDamper @str_m116 @str_m117 str_K str_Z
@str_r118 springDamper @str_m117 @str_m118 str_K str_Z
@str_r119 springDamper @str_m118 @str_m119 str_K str_Z
@str_r120 springDamper @str_m119 @str_m120 str_K str_Z
@str_r121 springDamper @str_m120 @str_m121 str_K str_Z
@str_r122 springDamper @str_m121 @str_m122 str_K str_Z
@str_r123 springDamper @str_m122 @str_m123 str_K str_Z
@str_r124 springDamper @str_m123 @str_m124 str_K str_Z
@str_r125 springDamper @str_m124 @str_m125 str_K str_Z
@str_r126 springDamper @str_m125 @str_m126 str_K str_Z
@str_r127 springDamper @str_m126 @str_m127 str_K str_Z
@str_r128 springDamper @str_m127 @str_m128 str_K str_Z
@str_r129 springDamper @str_m128 @str_m129 str_K str_Z
@str_r130 springDamper @str_m129 @str_m130 str_K str_Z
@str_r131 springDamper @str_m130 @str_m131 str_K str_Z
@str_r132 springDamper @str_m131 @str_m132 str_K str_Z
@str_r133 springDamper @str_m132 @str_m133 str_K str_Z
@str_r134 springDamper @str_m133 @str_m134 str_K str_Z
@str_r135 springDamper @str_m134 @str_m135 str_K str_Z
@str_r136 springDamper @str_m135 @str_m136 str_K str_Z
@str_r137 springDamper @str_m136 @str_m137 str_K str_Z
@str_r138 springDamper @str_m137 @str_m138 str_K str_Z
@str_r139 springDamper @str_m138 @str_m139 str_K str_Z
@str_r140 springDamper @str_m139 @str_m140 str_K str_Z
@str_r141 springDamper @str_m140 @str_m141 str_K str_Z
@str_r142 springDamper @str_m141 @str_m142 str_K str_Z
@str_r143 springDamper @str_m142 @str_m143 str_K str_Z
@str_r144 springDamper @str_m143 @str_m144 str_K str_Z
@str_r145 springDamper @str_m144 @str_m145 str_K str_Z
@str_r146 springDamper @str_m145 @str_m146 str_K str_Z
@str_r147 springDamper @str_m146 @str_m147 str_K str_Z
@str_r148 springDamper @str_m147 @str_m148 str_K str_Z
@str_r149 springDamper @str_m148 @str_m149 str_K str_Z
@str_r150 springDamper @str_m149 @str_s1 str_K str_Z
@in1 posInput 0.
@out1 posOutput @str_m20
@out2 posOutput @str_m10
@nlp0 nlPluck @in1 @str_m140 nlK nlscale pZ
*/
|
https://raw.githubusercontent.com/madskjeldgaard/mkfaustplugins/fd7cf250788174b5efa6ae3294997609830875d1/plugins/PluckedString/PluckedString.dsp
|
faust
|
========= DESCRITPION =============
A plucked string with a few controls.
- inputs: pick position.
- outputs: two listening points on the string.
- controls: pick stiffness and damping, string stiffness, damping and air friction.
Note: the model block diagram is starting to look like a piece of modern art.
routed positions
outputs
routed forces
pass-through
========= MIMS SCRIPT USED FOR MODEL GENERATION =============
# Plucked string model
# Script author : James Leonard
@nlK param 0.8
@nlscale param 0.005
@pZ param 0.001
@str_M param 1
@str_K param 0.5
@str_Z param 0.001
@str_Zo param 0.00005
@str_s0 ground 0.
@str_m0 osc str_M 0 str_Zo 0. 0.
@str_m1 osc str_M 0 str_Zo 0. 0.
@str_m2 osc str_M 0 str_Zo 0. 0.
@str_m3 osc str_M 0 str_Zo 0. 0.
@str_m4 osc str_M 0 str_Zo 0. 0.
@str_m5 osc str_M 0 str_Zo 0. 0.
@str_m6 osc str_M 0 str_Zo 0. 0.
@str_m7 osc str_M 0 str_Zo 0. 0.
@str_m8 osc str_M 0 str_Zo 0. 0.
@str_m9 osc str_M 0 str_Zo 0. 0.
@str_m10 osc str_M 0 str_Zo 0. 0.
@str_m11 osc str_M 0 str_Zo 0. 0.
@str_m12 osc str_M 0 str_Zo 0. 0.
@str_m13 osc str_M 0 str_Zo 0. 0.
@str_m14 osc str_M 0 str_Zo 0. 0.
@str_m15 osc str_M 0 str_Zo 0. 0.
@str_m16 osc str_M 0 str_Zo 0. 0.
@str_m17 osc str_M 0 str_Zo 0. 0.
@str_m18 osc str_M 0 str_Zo 0. 0.
@str_m19 osc str_M 0 str_Zo 0. 0.
@str_m20 osc str_M 0 str_Zo 0. 0.
@str_m21 osc str_M 0 str_Zo 0. 0.
@str_m22 osc str_M 0 str_Zo 0. 0.
@str_m23 osc str_M 0 str_Zo 0. 0.
@str_m24 osc str_M 0 str_Zo 0. 0.
@str_m25 osc str_M 0 str_Zo 0. 0.
@str_m26 osc str_M 0 str_Zo 0. 0.
@str_m27 osc str_M 0 str_Zo 0. 0.
@str_m28 osc str_M 0 str_Zo 0. 0.
@str_m29 osc str_M 0 str_Zo 0. 0.
@str_m30 osc str_M 0 str_Zo 0. 0.
@str_m31 osc str_M 0 str_Zo 0. 0.
@str_m32 osc str_M 0 str_Zo 0. 0.
@str_m33 osc str_M 0 str_Zo 0. 0.
@str_m34 osc str_M 0 str_Zo 0. 0.
@str_m35 osc str_M 0 str_Zo 0. 0.
@str_m36 osc str_M 0 str_Zo 0. 0.
@str_m37 osc str_M 0 str_Zo 0. 0.
@str_m38 osc str_M 0 str_Zo 0. 0.
@str_m39 osc str_M 0 str_Zo 0. 0.
@str_m40 osc str_M 0 str_Zo 0. 0.
@str_m41 osc str_M 0 str_Zo 0. 0.
@str_m42 osc str_M 0 str_Zo 0. 0.
@str_m43 osc str_M 0 str_Zo 0. 0.
@str_m44 osc str_M 0 str_Zo 0. 0.
@str_m45 osc str_M 0 str_Zo 0. 0.
@str_m46 osc str_M 0 str_Zo 0. 0.
@str_m47 osc str_M 0 str_Zo 0. 0.
@str_m48 osc str_M 0 str_Zo 0. 0.
@str_m49 osc str_M 0 str_Zo 0. 0.
@str_m50 osc str_M 0 str_Zo 0. 0.
@str_m51 osc str_M 0 str_Zo 0. 0.
@str_m52 osc str_M 0 str_Zo 0. 0.
@str_m53 osc str_M 0 str_Zo 0. 0.
@str_m54 osc str_M 0 str_Zo 0. 0.
@str_m55 osc str_M 0 str_Zo 0. 0.
@str_m56 osc str_M 0 str_Zo 0. 0.
@str_m57 osc str_M 0 str_Zo 0. 0.
@str_m58 osc str_M 0 str_Zo 0. 0.
@str_m59 osc str_M 0 str_Zo 0. 0.
@str_m60 osc str_M 0 str_Zo 0. 0.
@str_m61 osc str_M 0 str_Zo 0. 0.
@str_m62 osc str_M 0 str_Zo 0. 0.
@str_m63 osc str_M 0 str_Zo 0. 0.
@str_m64 osc str_M 0 str_Zo 0. 0.
@str_m65 osc str_M 0 str_Zo 0. 0.
@str_m66 osc str_M 0 str_Zo 0. 0.
@str_m67 osc str_M 0 str_Zo 0. 0.
@str_m68 osc str_M 0 str_Zo 0. 0.
@str_m69 osc str_M 0 str_Zo 0. 0.
@str_m70 osc str_M 0 str_Zo 0. 0.
@str_m71 osc str_M 0 str_Zo 0. 0.
@str_m72 osc str_M 0 str_Zo 0. 0.
@str_m73 osc str_M 0 str_Zo 0. 0.
@str_m74 osc str_M 0 str_Zo 0. 0.
@str_m75 osc str_M 0 str_Zo 0. 0.
@str_m76 osc str_M 0 str_Zo 0. 0.
@str_m77 osc str_M 0 str_Zo 0. 0.
@str_m78 osc str_M 0 str_Zo 0. 0.
@str_m79 osc str_M 0 str_Zo 0. 0.
@str_m80 osc str_M 0 str_Zo 0. 0.
@str_m81 osc str_M 0 str_Zo 0. 0.
@str_m82 osc str_M 0 str_Zo 0. 0.
@str_m83 osc str_M 0 str_Zo 0. 0.
@str_m84 osc str_M 0 str_Zo 0. 0.
@str_m85 osc str_M 0 str_Zo 0. 0.
@str_m86 osc str_M 0 str_Zo 0. 0.
@str_m87 osc str_M 0 str_Zo 0. 0.
@str_m88 osc str_M 0 str_Zo 0. 0.
@str_m89 osc str_M 0 str_Zo 0. 0.
@str_m90 osc str_M 0 str_Zo 0. 0.
@str_m91 osc str_M 0 str_Zo 0. 0.
@str_m92 osc str_M 0 str_Zo 0. 0.
@str_m93 osc str_M 0 str_Zo 0. 0.
@str_m94 osc str_M 0 str_Zo 0. 0.
@str_m95 osc str_M 0 str_Zo 0. 0.
@str_m96 osc str_M 0 str_Zo 0. 0.
@str_m97 osc str_M 0 str_Zo 0. 0.
@str_m98 osc str_M 0 str_Zo 0. 0.
@str_m99 osc str_M 0 str_Zo 0. 0.
@str_m100 osc str_M 0 str_Zo 0. 0.
@str_m101 osc str_M 0 str_Zo 0. 0.
@str_m102 osc str_M 0 str_Zo 0. 0.
@str_m103 osc str_M 0 str_Zo 0. 0.
@str_m104 osc str_M 0 str_Zo 0. 0.
@str_m105 osc str_M 0 str_Zo 0. 0.
@str_m106 osc str_M 0 str_Zo 0. 0.
@str_m107 osc str_M 0 str_Zo 0. 0.
@str_m108 osc str_M 0 str_Zo 0. 0.
@str_m109 osc str_M 0 str_Zo 0. 0.
@str_m110 osc str_M 0 str_Zo 0. 0.
@str_m111 osc str_M 0 str_Zo 0. 0.
@str_m112 osc str_M 0 str_Zo 0. 0.
@str_m113 osc str_M 0 str_Zo 0. 0.
@str_m114 osc str_M 0 str_Zo 0. 0.
@str_m115 osc str_M 0 str_Zo 0. 0.
@str_m116 osc str_M 0 str_Zo 0. 0.
@str_m117 osc str_M 0 str_Zo 0. 0.
@str_m118 osc str_M 0 str_Zo 0. 0.
@str_m119 osc str_M 0 str_Zo 0. 0.
@str_m120 osc str_M 0 str_Zo 0. 0.
@str_m121 osc str_M 0 str_Zo 0. 0.
@str_m122 osc str_M 0 str_Zo 0. 0.
@str_m123 osc str_M 0 str_Zo 0. 0.
@str_m124 osc str_M 0 str_Zo 0. 0.
@str_m125 osc str_M 0 str_Zo 0. 0.
@str_m126 osc str_M 0 str_Zo 0. 0.
@str_m127 osc str_M 0 str_Zo 0. 0.
@str_m128 osc str_M 0 str_Zo 0. 0.
@str_m129 osc str_M 0 str_Zo 0. 0.
@str_m130 osc str_M 0 str_Zo 0. 0.
@str_m131 osc str_M 0 str_Zo 0. 0.
@str_m132 osc str_M 0 str_Zo 0. 0.
@str_m133 osc str_M 0 str_Zo 0. 0.
@str_m134 osc str_M 0 str_Zo 0. 0.
@str_m135 osc str_M 0 str_Zo 0. 0.
@str_m136 osc str_M 0 str_Zo 0. 0.
@str_m137 osc str_M 0 str_Zo 0. 0.
@str_m138 osc str_M 0 str_Zo 0. 0.
@str_m139 osc str_M 0 str_Zo 0. 0.
@str_m140 osc str_M 0 str_Zo 0. 0.
@str_m141 osc str_M 0 str_Zo 0. 0.
@str_m142 osc str_M 0 str_Zo 0. 0.
@str_m143 osc str_M 0 str_Zo 0. 0.
@str_m144 osc str_M 0 str_Zo 0. 0.
@str_m145 osc str_M 0 str_Zo 0. 0.
@str_m146 osc str_M 0 str_Zo 0. 0.
@str_m147 osc str_M 0 str_Zo 0. 0.
@str_m148 osc str_M 0 str_Zo 0. 0.
@str_m149 osc str_M 0 str_Zo 0. 0.
@str_s1 ground 0.
@str_r0 springDamper @str_s0 @str_m0 str_K str_Z
@str_r1 springDamper @str_m0 @str_m1 str_K str_Z
@str_r2 springDamper @str_m1 @str_m2 str_K str_Z
@str_r3 springDamper @str_m2 @str_m3 str_K str_Z
@str_r4 springDamper @str_m3 @str_m4 str_K str_Z
@str_r5 springDamper @str_m4 @str_m5 str_K str_Z
@str_r6 springDamper @str_m5 @str_m6 str_K str_Z
@str_r7 springDamper @str_m6 @str_m7 str_K str_Z
@str_r8 springDamper @str_m7 @str_m8 str_K str_Z
@str_r9 springDamper @str_m8 @str_m9 str_K str_Z
@str_r10 springDamper @str_m9 @str_m10 str_K str_Z
@str_r11 springDamper @str_m10 @str_m11 str_K str_Z
@str_r12 springDamper @str_m11 @str_m12 str_K str_Z
@str_r13 springDamper @str_m12 @str_m13 str_K str_Z
@str_r14 springDamper @str_m13 @str_m14 str_K str_Z
@str_r15 springDamper @str_m14 @str_m15 str_K str_Z
@str_r16 springDamper @str_m15 @str_m16 str_K str_Z
@str_r17 springDamper @str_m16 @str_m17 str_K str_Z
@str_r18 springDamper @str_m17 @str_m18 str_K str_Z
@str_r19 springDamper @str_m18 @str_m19 str_K str_Z
@str_r20 springDamper @str_m19 @str_m20 str_K str_Z
@str_r21 springDamper @str_m20 @str_m21 str_K str_Z
@str_r22 springDamper @str_m21 @str_m22 str_K str_Z
@str_r23 springDamper @str_m22 @str_m23 str_K str_Z
@str_r24 springDamper @str_m23 @str_m24 str_K str_Z
@str_r25 springDamper @str_m24 @str_m25 str_K str_Z
@str_r26 springDamper @str_m25 @str_m26 str_K str_Z
@str_r27 springDamper @str_m26 @str_m27 str_K str_Z
@str_r28 springDamper @str_m27 @str_m28 str_K str_Z
@str_r29 springDamper @str_m28 @str_m29 str_K str_Z
@str_r30 springDamper @str_m29 @str_m30 str_K str_Z
@str_r31 springDamper @str_m30 @str_m31 str_K str_Z
@str_r32 springDamper @str_m31 @str_m32 str_K str_Z
@str_r33 springDamper @str_m32 @str_m33 str_K str_Z
@str_r34 springDamper @str_m33 @str_m34 str_K str_Z
@str_r35 springDamper @str_m34 @str_m35 str_K str_Z
@str_r36 springDamper @str_m35 @str_m36 str_K str_Z
@str_r37 springDamper @str_m36 @str_m37 str_K str_Z
@str_r38 springDamper @str_m37 @str_m38 str_K str_Z
@str_r39 springDamper @str_m38 @str_m39 str_K str_Z
@str_r40 springDamper @str_m39 @str_m40 str_K str_Z
@str_r41 springDamper @str_m40 @str_m41 str_K str_Z
@str_r42 springDamper @str_m41 @str_m42 str_K str_Z
@str_r43 springDamper @str_m42 @str_m43 str_K str_Z
@str_r44 springDamper @str_m43 @str_m44 str_K str_Z
@str_r45 springDamper @str_m44 @str_m45 str_K str_Z
@str_r46 springDamper @str_m45 @str_m46 str_K str_Z
@str_r47 springDamper @str_m46 @str_m47 str_K str_Z
@str_r48 springDamper @str_m47 @str_m48 str_K str_Z
@str_r49 springDamper @str_m48 @str_m49 str_K str_Z
@str_r50 springDamper @str_m49 @str_m50 str_K str_Z
@str_r51 springDamper @str_m50 @str_m51 str_K str_Z
@str_r52 springDamper @str_m51 @str_m52 str_K str_Z
@str_r53 springDamper @str_m52 @str_m53 str_K str_Z
@str_r54 springDamper @str_m53 @str_m54 str_K str_Z
@str_r55 springDamper @str_m54 @str_m55 str_K str_Z
@str_r56 springDamper @str_m55 @str_m56 str_K str_Z
@str_r57 springDamper @str_m56 @str_m57 str_K str_Z
@str_r58 springDamper @str_m57 @str_m58 str_K str_Z
@str_r59 springDamper @str_m58 @str_m59 str_K str_Z
@str_r60 springDamper @str_m59 @str_m60 str_K str_Z
@str_r61 springDamper @str_m60 @str_m61 str_K str_Z
@str_r62 springDamper @str_m61 @str_m62 str_K str_Z
@str_r63 springDamper @str_m62 @str_m63 str_K str_Z
@str_r64 springDamper @str_m63 @str_m64 str_K str_Z
@str_r65 springDamper @str_m64 @str_m65 str_K str_Z
@str_r66 springDamper @str_m65 @str_m66 str_K str_Z
@str_r67 springDamper @str_m66 @str_m67 str_K str_Z
@str_r68 springDamper @str_m67 @str_m68 str_K str_Z
@str_r69 springDamper @str_m68 @str_m69 str_K str_Z
@str_r70 springDamper @str_m69 @str_m70 str_K str_Z
@str_r71 springDamper @str_m70 @str_m71 str_K str_Z
@str_r72 springDamper @str_m71 @str_m72 str_K str_Z
@str_r73 springDamper @str_m72 @str_m73 str_K str_Z
@str_r74 springDamper @str_m73 @str_m74 str_K str_Z
@str_r75 springDamper @str_m74 @str_m75 str_K str_Z
@str_r76 springDamper @str_m75 @str_m76 str_K str_Z
@str_r77 springDamper @str_m76 @str_m77 str_K str_Z
@str_r78 springDamper @str_m77 @str_m78 str_K str_Z
@str_r79 springDamper @str_m78 @str_m79 str_K str_Z
@str_r80 springDamper @str_m79 @str_m80 str_K str_Z
@str_r81 springDamper @str_m80 @str_m81 str_K str_Z
@str_r82 springDamper @str_m81 @str_m82 str_K str_Z
@str_r83 springDamper @str_m82 @str_m83 str_K str_Z
@str_r84 springDamper @str_m83 @str_m84 str_K str_Z
@str_r85 springDamper @str_m84 @str_m85 str_K str_Z
@str_r86 springDamper @str_m85 @str_m86 str_K str_Z
@str_r87 springDamper @str_m86 @str_m87 str_K str_Z
@str_r88 springDamper @str_m87 @str_m88 str_K str_Z
@str_r89 springDamper @str_m88 @str_m89 str_K str_Z
@str_r90 springDamper @str_m89 @str_m90 str_K str_Z
@str_r91 springDamper @str_m90 @str_m91 str_K str_Z
@str_r92 springDamper @str_m91 @str_m92 str_K str_Z
@str_r93 springDamper @str_m92 @str_m93 str_K str_Z
@str_r94 springDamper @str_m93 @str_m94 str_K str_Z
@str_r95 springDamper @str_m94 @str_m95 str_K str_Z
@str_r96 springDamper @str_m95 @str_m96 str_K str_Z
@str_r97 springDamper @str_m96 @str_m97 str_K str_Z
@str_r98 springDamper @str_m97 @str_m98 str_K str_Z
@str_r99 springDamper @str_m98 @str_m99 str_K str_Z
@str_r100 springDamper @str_m99 @str_m100 str_K str_Z
@str_r101 springDamper @str_m100 @str_m101 str_K str_Z
@str_r102 springDamper @str_m101 @str_m102 str_K str_Z
@str_r103 springDamper @str_m102 @str_m103 str_K str_Z
@str_r104 springDamper @str_m103 @str_m104 str_K str_Z
@str_r105 springDamper @str_m104 @str_m105 str_K str_Z
@str_r106 springDamper @str_m105 @str_m106 str_K str_Z
@str_r107 springDamper @str_m106 @str_m107 str_K str_Z
@str_r108 springDamper @str_m107 @str_m108 str_K str_Z
@str_r109 springDamper @str_m108 @str_m109 str_K str_Z
@str_r110 springDamper @str_m109 @str_m110 str_K str_Z
@str_r111 springDamper @str_m110 @str_m111 str_K str_Z
@str_r112 springDamper @str_m111 @str_m112 str_K str_Z
@str_r113 springDamper @str_m112 @str_m113 str_K str_Z
@str_r114 springDamper @str_m113 @str_m114 str_K str_Z
@str_r115 springDamper @str_m114 @str_m115 str_K str_Z
@str_r116 springDamper @str_m115 @str_m116 str_K str_Z
@str_r117 springDamper @str_m116 @str_m117 str_K str_Z
@str_r118 springDamper @str_m117 @str_m118 str_K str_Z
@str_r119 springDamper @str_m118 @str_m119 str_K str_Z
@str_r120 springDamper @str_m119 @str_m120 str_K str_Z
@str_r121 springDamper @str_m120 @str_m121 str_K str_Z
@str_r122 springDamper @str_m121 @str_m122 str_K str_Z
@str_r123 springDamper @str_m122 @str_m123 str_K str_Z
@str_r124 springDamper @str_m123 @str_m124 str_K str_Z
@str_r125 springDamper @str_m124 @str_m125 str_K str_Z
@str_r126 springDamper @str_m125 @str_m126 str_K str_Z
@str_r127 springDamper @str_m126 @str_m127 str_K str_Z
@str_r128 springDamper @str_m127 @str_m128 str_K str_Z
@str_r129 springDamper @str_m128 @str_m129 str_K str_Z
@str_r130 springDamper @str_m129 @str_m130 str_K str_Z
@str_r131 springDamper @str_m130 @str_m131 str_K str_Z
@str_r132 springDamper @str_m131 @str_m132 str_K str_Z
@str_r133 springDamper @str_m132 @str_m133 str_K str_Z
@str_r134 springDamper @str_m133 @str_m134 str_K str_Z
@str_r135 springDamper @str_m134 @str_m135 str_K str_Z
@str_r136 springDamper @str_m135 @str_m136 str_K str_Z
@str_r137 springDamper @str_m136 @str_m137 str_K str_Z
@str_r138 springDamper @str_m137 @str_m138 str_K str_Z
@str_r139 springDamper @str_m138 @str_m139 str_K str_Z
@str_r140 springDamper @str_m139 @str_m140 str_K str_Z
@str_r141 springDamper @str_m140 @str_m141 str_K str_Z
@str_r142 springDamper @str_m141 @str_m142 str_K str_Z
@str_r143 springDamper @str_m142 @str_m143 str_K str_Z
@str_r144 springDamper @str_m143 @str_m144 str_K str_Z
@str_r145 springDamper @str_m144 @str_m145 str_K str_Z
@str_r146 springDamper @str_m145 @str_m146 str_K str_Z
@str_r147 springDamper @str_m146 @str_m147 str_K str_Z
@str_r148 springDamper @str_m147 @str_m148 str_K str_Z
@str_r149 springDamper @str_m148 @str_m149 str_K str_Z
@str_r150 springDamper @str_m149 @str_s1 str_K str_Z
@in1 posInput 0.
@out1 posOutput @str_m20
@out2 posOutput @str_m10
@nlp0 nlPluck @in1 @str_m140 nlK nlscale pZ
|
declare name "PluckedString";
declare author "James Leonard";
declare date "April 2020";
import("stdfaust.lib");
in1 = _:si.smoo;
OutGain = 5;
str_M = 1.0;
str_K = hslider("stiffness", 0.7, 0.001, 0.7, 0.001):si.smoo;
str_Z = hslider("damping", 0.0009, 0.00, 0.01, 0.00001):si.smoo;
str_Zo = hslider("friction", 0.00005, 0.00, 0.0002, 0.00001):si.smoo;
nlK = hslider("pickstiffness", 0.5, 0., 0.8, 0.001);
nlscale = 0.05;
pZ = hslider("pickdamping", 0.04, 0., 0.1, 0.001);
model = (
mi.ground(0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.oscil(str_M, 0, str_Zo, 0, 0., 0.),
mi.ground(0.),
mi.posInput(0.):
RoutingMassToLink :
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.springDamper(str_K, str_Z, 0., 0.),
mi.nlPluck(nlK, nlscale, pZ, 0., 0.),
par(i, nbOut, _):
RoutingLinkToMass
)~par(i, nbMass, _):
par(i, nbMass, !), par(i, nbOut , _)
with{
nbMass = 153;
nbOut = 2;
};
process = in1 : model:*(OutGain), *(OutGain);
|
09b881551495151f79d18d1cef8a0a4c02d05a7d498ef4b084b1aeef987c343c
|
madskjeldgaard/mkfaustplugins
|
StrangeConstruct.dsp
|
declare name "StrangeConstruct";
declare author "James Leonard";
declare date "April 2020";
/* ========= DESCRITPION =============
A triangle mesh (fixed corners) struck by a hammer, connected (through a slightly non-linear spring)
to a resonant square mesh (fixed corners).
- inputs: Force impulse applied to the hammer
- outputs: one listening point on the triangle, another on the resonnant mesh.
- controls: triangle stiffness and daming, square mesh stiffness and damping, hammer force impulse scaling.
Note: the block diagram of the model will give you nightmares.
*/
import("stdfaust.lib");
in1 = _ : ba.impulsify * hslider("scaling", 0.9, 0.01, 0.9, 0.001) * -1;
OutGain = 1;
t_M = 1;
t_K = hslider("stiffness", 0.1, 0.001, 0.2, 0.0001);
t_Z = hslider("damping", 0.0001, 0.00, 0.0008, 0.000001);
t_Zo = 0.00005;
me_M = 1;
me_K = hslider("stiffness", 0.1, 0.001, 0.2, 0.0001);
me_Z = hslider("damping", 0.0001, 0.00, 0.0008, 0.000001);
me_Zo = 0.00005;
model = (
mi.mass(0.3, 0, 1., 1.),
mi.ground(1.),
mi.ground(0),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.ground(0),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.ground(0),
mi.ground(0),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.ground(0),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.ground(0),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.ground(0),
par(i, nbFrcIn,_):
RoutingMassToLink ,
par(i, nbFrcIn,_):
mi.springDamper(0.0001, 0.05, 1., 1.),
mi.nlCollisionClipped(0.0, 0.01, 0.5, 0.001, 0, 0., 1.),
mi.nlSpringDamperClipped(0.01, 0.01, 0.2, 0., 0., 0.),
mi.springDamper(t_K, t_Z, 0, 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0, 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0, 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0),
mi.springDamper(me_K, me_Z, 0, 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0, 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0),
mi.springDamper(me_K, me_Z, 0, 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0, 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0),
par(i, nbOut+nbFrcIn, _):
RoutingLinkToMass
)~par(i, nbMass, _):
par(i, nbMass, !), par(i, nbOut , _)
with{
RoutingMassToLink(m0, m1, m2, m3, m4, m5, m6, m7, m8, m9, m10, m11, m12, m13, m14, m15, m16, m17, m18, m19, m20, m21, m22, m23, m24, m25, m26, m27, m28, m29, m30, m31, m32, m33, m34, m35, m36, m37, m38, m39, m40, m41, m42, m43, m44, m45, m46, m47, m48, m49, m50, m51, m52, m53, m54, m55, m56, m57, m58, m59, m60, m61, m62, m63, m64, m65, m66, m67, m68, m69, m70, m71, m72, m73, m74, m75, m76, m77, m78, m79, m80, m81, m82, m83, m84, m85, m86, m87, m88, m89, m90, m91, m92, m93, m94, m95, m96, m97, m98, m99, m100, m101, m102, m103, m104, m105, m106, m107, m108, m109, m110, m111, m112, m113, m114, m115, m116, m117, m118, m119, m120, m121, m122, m123, m124, m125, m126, m127, m128, m129, m130, m131, m132, m133, m134, m135, m136, m137, m138, m139, m140, m141, m142, m143, m144, m145, m146, m147, m148, m149, m150, m151, m152, m153, m154, m155, m156) = /* routed positions */ m1, m0, m39, m0, m49, m94, m2, m3, m3, m4, m4, m5, m5, m6, m6, m7, m7, m8, m8, m9, m9, m10, m10, m11, m12, m13, m13, m14, m14, m15, m15, m16, m16, m17, m17, m18, m18, m19, m19, m20, m21, m22, m22, m23, m23, m24, m24, m25, m25, m26, m26, m27, m27, m28, m29, m30, m30, m31, m31, m32, m32, m33, m33, m34, m34, m35, m36, m37, m37, m38, m38, m39, m39, m40, m40, m41, m42, m43, m43, m44, m44, m45, m45, m46, m47, m48, m48, m49, m49, m50, m51, m52, m52, m53, m54, m55, m2, m12, m3, m13, m4, m14, m5, m15, m6, m16, m7, m17, m8, m18, m9, m19, m10, m20, m12, m21, m13, m22, m14, m23, m15, m24, m16, m25, m17, m26, m18, m27, m19, m28, m21, m29, m22, m30, m23, m31, m24, m32, m25, m33, m26, m34, m27, m35, m29, m36, m30, m37, m31, m38, m32, m39, m33, m40, m34, m41, m36, m42, m37, m43, m38, m44, m39, m45, m40, m46, m42, m47, m43, m48, m44, m49, m45, m50, m47, m51, m48, m52, m49, m53, m51, m54, m52, m55, m54, m56, m3, m12, m4, m13, m5, m14, m6, m15, m7, m16, m8, m17, m9, m18, m10, m19, m11, m20, m13, m21, m14, m22, m15, m23, m16, m24, m17, m25, m18, m26, m19, m27, m20, m28, m22, m29, m23, m30, m24, m31, m25, m32, m26, m33, m27, m34, m28, m35, m30, m36, m31, m37, m32, m38, m33, m39, m34, m40, m35, m41, m37, m42, m38, m43, m39, m44, m40, m45, m41, m46, m43, m47, m44, m48, m45, m49, m46, m50, m48, m51, m49, m52, m50, m53, m52, m54, m53, m55, m55, m56, m57, m58, m58, m59, m59, m60, m60, m61, m61, m62, m62, m63, m63, m64, m64, m65, m65, m66, m67, m68, m68, m69, m69, m70, m70, m71, m71, m72, m72, m73, m73, m74, m74, m75, m75, m76, m77, m78, m78, m79, m79, m80, m80, m81, m81, m82, m82, m83, m83, m84, m84, m85, m85, m86, m87, m88, m88, m89, m89, m90, m90, m91, m91, m92, m92, m93, m93, m94, m94, m95, m95, m96, m97, m98, m98, m99, m99, m100, m100, m101, m101, m102, m102, m103, m103, m104, m104, m105, m105, m106, m107, m108, m108, m109, m109, m110, m110, m111, m111, m112, m112, m113, m113, m114, m114, m115, m115, m116, m117, m118, m118, m119, m119, m120, m120, m121, m121, m122, m122, m123, m123, m124, m124, m125, m125, m126, m127, m128, m128, m129, m129, m130, m130, m131, m131, m132, m132, m133, m133, m134, m134, m135, m135, m136, m137, m138, m138, m139, m139, m140, m140, m141, m141, m142, m142, m143, m143, m144, m144, m145, m145, m146, m147, m148, m148, m149, m149, m150, m150, m151, m151, m152, m152, m153, m153, m154, m154, m155, m155, m156, m57, m67, m58, m68, m59, m69, m60, m70, m61, m71, m62, m72, m63, m73, m64, m74, m65, m75, m66, m76, m67, m77, m68, m78, m69, m79, m70, m80, m71, m81, m72, m82, m73, m83, m74, m84, m75, m85, m76, m86, m77, m87, m78, m88, m79, m89, m80, m90, m81, m91, m82, m92, m83, m93, m84, m94, m85, m95, m86, m96, m87, m97, m88, m98, m89, m99, m90, m100, m91, m101, m92, m102, m93, m103, m94, m104, m95, m105, m96, m106, m97, m107, m98, m108, m99, m109, m100, m110, m101, m111, m102, m112, m103, m113, m104, m114, m105, m115, m106, m116, m107, m117, m108, m118, m109, m119, m110, m120, m111, m121, m112, m122, m113, m123, m114, m124, m115, m125, m116, m126, m117, m127, m118, m128, m119, m129, m120, m130, m121, m131, m122, m132, m123, m133, m124, m134, m125, m135, m126, m136, m127, m137, m128, m138, m129, m139, m130, m140, m131, m141, m132, m142, m133, m143, m134, m144, m135, m145, m136, m146, m137, m147, m138, m148, m139, m149, m140, m150, m141, m151, m142, m152, m143, m153, m144, m154, m145, m155, m146, m156, /* outputs */ m112, m22;
RoutingLinkToMass(l0_f1, l0_f2, l1_f1, l1_f2, l2_f1, l2_f2, l3_f1, l3_f2, l4_f1, l4_f2, l5_f1, l5_f2, l6_f1, l6_f2, l7_f1, l7_f2, l8_f1, l8_f2, l9_f1, l9_f2, l10_f1, l10_f2, l11_f1, l11_f2, l12_f1, l12_f2, l13_f1, l13_f2, l14_f1, l14_f2, l15_f1, l15_f2, l16_f1, l16_f2, l17_f1, l17_f2, l18_f1, l18_f2, l19_f1, l19_f2, l20_f1, l20_f2, l21_f1, l21_f2, l22_f1, l22_f2, l23_f1, l23_f2, l24_f1, l24_f2, l25_f1, l25_f2, l26_f1, l26_f2, l27_f1, l27_f2, l28_f1, l28_f2, l29_f1, l29_f2, l30_f1, l30_f2, l31_f1, l31_f2, l32_f1, l32_f2, l33_f1, l33_f2, l34_f1, l34_f2, l35_f1, l35_f2, l36_f1, l36_f2, l37_f1, l37_f2, l38_f1, l38_f2, l39_f1, l39_f2, l40_f1, l40_f2, l41_f1, l41_f2, l42_f1, l42_f2, l43_f1, l43_f2, l44_f1, l44_f2, l45_f1, l45_f2, l46_f1, l46_f2, l47_f1, l47_f2, l48_f1, l48_f2, l49_f1, l49_f2, l50_f1, l50_f2, l51_f1, l51_f2, l52_f1, l52_f2, l53_f1, l53_f2, l54_f1, l54_f2, l55_f1, l55_f2, l56_f1, l56_f2, l57_f1, l57_f2, l58_f1, l58_f2, l59_f1, l59_f2, l60_f1, l60_f2, l61_f1, l61_f2, l62_f1, l62_f2, l63_f1, l63_f2, l64_f1, l64_f2, l65_f1, l65_f2, l66_f1, l66_f2, l67_f1, l67_f2, l68_f1, l68_f2, l69_f1, l69_f2, l70_f1, l70_f2, l71_f1, l71_f2, l72_f1, l72_f2, l73_f1, l73_f2, l74_f1, l74_f2, l75_f1, l75_f2, l76_f1, l76_f2, l77_f1, l77_f2, l78_f1, l78_f2, l79_f1, l79_f2, l80_f1, l80_f2, l81_f1, l81_f2, l82_f1, l82_f2, l83_f1, l83_f2, l84_f1, l84_f2, l85_f1, l85_f2, l86_f1, l86_f2, l87_f1, l87_f2, l88_f1, l88_f2, l89_f1, l89_f2, l90_f1, l90_f2, l91_f1, l91_f2, l92_f1, l92_f2, l93_f1, l93_f2, l94_f1, l94_f2, l95_f1, l95_f2, l96_f1, l96_f2, l97_f1, l97_f2, l98_f1, l98_f2, l99_f1, l99_f2, l100_f1, l100_f2, l101_f1, l101_f2, l102_f1, l102_f2, l103_f1, l103_f2, l104_f1, l104_f2, l105_f1, l105_f2, l106_f1, l106_f2, l107_f1, l107_f2, l108_f1, l108_f2, l109_f1, l109_f2, l110_f1, l110_f2, l111_f1, l111_f2, l112_f1, l112_f2, l113_f1, l113_f2, l114_f1, l114_f2, l115_f1, l115_f2, l116_f1, l116_f2, l117_f1, l117_f2, l118_f1, l118_f2, l119_f1, l119_f2, l120_f1, l120_f2, l121_f1, l121_f2, l122_f1, l122_f2, l123_f1, l123_f2, l124_f1, l124_f2, l125_f1, l125_f2, l126_f1, l126_f2, l127_f1, l127_f2, l128_f1, l128_f2, l129_f1, l129_f2, l130_f1, l130_f2, l131_f1, l131_f2, l132_f1, l132_f2, l133_f1, l133_f2, l134_f1, l134_f2, l135_f1, l135_f2, l136_f1, l136_f2, l137_f1, l137_f2, l138_f1, l138_f2, l139_f1, l139_f2, l140_f1, l140_f2, l141_f1, l141_f2, l142_f1, l142_f2, l143_f1, l143_f2, l144_f1, l144_f2, l145_f1, l145_f2, l146_f1, l146_f2, l147_f1, l147_f2, l148_f1, l148_f2, l149_f1, l149_f2, l150_f1, l150_f2, l151_f1, l151_f2, l152_f1, l152_f2, l153_f1, l153_f2, l154_f1, l154_f2, l155_f1, l155_f2, l156_f1, l156_f2, l157_f1, l157_f2, l158_f1, l158_f2, l159_f1, l159_f2, l160_f1, l160_f2, l161_f1, l161_f2, l162_f1, l162_f2, l163_f1, l163_f2, l164_f1, l164_f2, l165_f1, l165_f2, l166_f1, l166_f2, l167_f1, l167_f2, l168_f1, l168_f2, l169_f1, l169_f2, l170_f1, l170_f2, l171_f1, l171_f2, l172_f1, l172_f2, l173_f1, l173_f2, l174_f1, l174_f2, l175_f1, l175_f2, l176_f1, l176_f2, l177_f1, l177_f2, l178_f1, l178_f2, l179_f1, l179_f2, l180_f1, l180_f2, l181_f1, l181_f2, l182_f1, l182_f2, l183_f1, l183_f2, l184_f1, l184_f2, l185_f1, l185_f2, l186_f1, l186_f2, l187_f1, l187_f2, l188_f1, l188_f2, l189_f1, l189_f2, l190_f1, l190_f2, l191_f1, l191_f2, l192_f1, l192_f2, l193_f1, l193_f2, l194_f1, l194_f2, l195_f1, l195_f2, l196_f1, l196_f2, l197_f1, l197_f2, l198_f1, l198_f2, l199_f1, l199_f2, l200_f1, l200_f2, l201_f1, l201_f2, l202_f1, l202_f2, l203_f1, l203_f2, l204_f1, l204_f2, l205_f1, l205_f2, l206_f1, l206_f2, l207_f1, l207_f2, l208_f1, l208_f2, l209_f1, l209_f2, l210_f1, l210_f2, l211_f1, l211_f2, l212_f1, l212_f2, l213_f1, l213_f2, l214_f1, l214_f2, l215_f1, l215_f2, l216_f1, l216_f2, l217_f1, l217_f2, l218_f1, l218_f2, l219_f1, l219_f2, l220_f1, l220_f2, l221_f1, l221_f2, l222_f1, l222_f2, l223_f1, l223_f2, l224_f1, l224_f2, l225_f1, l225_f2, l226_f1, l226_f2, l227_f1, l227_f2, l228_f1, l228_f2, l229_f1, l229_f2, l230_f1, l230_f2, l231_f1, l231_f2, l232_f1, l232_f2, l233_f1, l233_f2, l234_f1, l234_f2, l235_f1, l235_f2, l236_f1, l236_f2, l237_f1, l237_f2, l238_f1, l238_f2, l239_f1, l239_f2, l240_f1, l240_f2, l241_f1, l241_f2, l242_f1, l242_f2, l243_f1, l243_f2, l244_f1, l244_f2, l245_f1, l245_f2, l246_f1, l246_f2, l247_f1, l247_f2, l248_f1, l248_f2, l249_f1, l249_f2, l250_f1, l250_f2, l251_f1, l251_f2, l252_f1, l252_f2, l253_f1, l253_f2, l254_f1, l254_f2, l255_f1, l255_f2, l256_f1, l256_f2, l257_f1, l257_f2, l258_f1, l258_f2, l259_f1, l259_f2, l260_f1, l260_f2, l261_f1, l261_f2, l262_f1, l262_f2, l263_f1, l263_f2, l264_f1, l264_f2, l265_f1, l265_f2, l266_f1, l266_f2, l267_f1, l267_f2, l268_f1, l268_f2, l269_f1, l269_f2, l270_f1, l270_f2, l271_f1, l271_f2, l272_f1, l272_f2, l273_f1, l273_f2, l274_f1, l274_f2, l275_f1, l275_f2, l276_f1, l276_f2, l277_f1, l277_f2, l278_f1, l278_f2, l279_f1, l279_f2, l280_f1, l280_f2, l281_f1, l281_f2, l282_f1, l282_f2, l283_f1, l283_f2, l284_f1, l284_f2, l285_f1, l285_f2, l286_f1, l286_f2, l287_f1, l287_f2, l288_f1, l288_f2, l289_f1, l289_f2, l290_f1, l290_f2, l291_f1, l291_f2, l292_f1, l292_f2, l293_f1, l293_f2, l294_f1, l294_f2, l295_f1, l295_f2, l296_f1, l296_f2, l297_f1, l297_f2, l298_f1, l298_f2, l299_f1, l299_f2, l300_f1, l300_f2, l301_f1, l301_f2, l302_f1, l302_f2, l303_f1, l303_f2, l304_f1, l304_f2, l305_f1, l305_f2, l306_f1, l306_f2, l307_f1, l307_f2, l308_f1, l308_f2, l309_f1, l309_f2, l310_f1, l310_f2, l311_f1, l311_f2, l312_f1, l312_f2, l313_f1, l313_f2, l314_f1, l314_f2, l315_f1, l315_f2, l316_f1, l316_f2, l317_f1, l317_f2, p_out1, p_out2, f_in1) = /* routed forces */ f_in1 + l0_f2 + l1_f2, l0_f1, l3_f1 + l48_f1, l3_f2 + l4_f1 + l49_f1 + l93_f1, l4_f2 + l5_f1 + l50_f1 + l94_f1, l5_f2 + l6_f1 + l51_f1 + l95_f1, l6_f2 + l7_f1 + l52_f1 + l96_f1, l7_f2 + l8_f1 + l53_f1 + l97_f1, l8_f2 + l9_f1 + l54_f1 + l98_f1, l9_f2 + l10_f1 + l55_f1 + l99_f1, l10_f2 + l11_f1 + l56_f1 + l100_f1, l11_f2 + l101_f1, l12_f1 + l48_f2 + l57_f1 + l93_f2, l12_f2 + l13_f1 + l49_f2 + l58_f1 + l94_f2 + l102_f1, l13_f2 + l14_f1 + l50_f2 + l59_f1 + l95_f2 + l103_f1, l14_f2 + l15_f1 + l51_f2 + l60_f1 + l96_f2 + l104_f1, l15_f2 + l16_f1 + l52_f2 + l61_f1 + l97_f2 + l105_f1, l16_f2 + l17_f1 + l53_f2 + l62_f1 + l98_f2 + l106_f1, l17_f2 + l18_f1 + l54_f2 + l63_f1 + l99_f2 + l107_f1, l18_f2 + l19_f1 + l55_f2 + l64_f1 + l100_f2 + l108_f1, l19_f2 + l56_f2 + l101_f2 + l109_f1, l20_f1 + l57_f2 + l65_f1 + l102_f2, l20_f2 + l21_f1 + l58_f2 + l66_f1 + l103_f2 + l110_f1, l21_f2 + l22_f1 + l59_f2 + l67_f1 + l104_f2 + l111_f1, l22_f2 + l23_f1 + l60_f2 + l68_f1 + l105_f2 + l112_f1, l23_f2 + l24_f1 + l61_f2 + l69_f1 + l106_f2 + l113_f1, l24_f2 + l25_f1 + l62_f2 + l70_f1 + l107_f2 + l114_f1, l25_f2 + l26_f1 + l63_f2 + l71_f1 + l108_f2 + l115_f1, l26_f2 + l64_f2 + l109_f2 + l116_f1, l27_f1 + l65_f2 + l72_f1 + l110_f2, l27_f2 + l28_f1 + l66_f2 + l73_f1 + l111_f2 + l117_f1, l28_f2 + l29_f1 + l67_f2 + l74_f1 + l112_f2 + l118_f1, l29_f2 + l30_f1 + l68_f2 + l75_f1 + l113_f2 + l119_f1, l30_f2 + l31_f1 + l69_f2 + l76_f1 + l114_f2 + l120_f1, l31_f2 + l32_f1 + l70_f2 + l77_f1 + l115_f2 + l121_f1, l32_f2 + l71_f2 + l116_f2 + l122_f1, l33_f1 + l72_f2 + l78_f1 + l117_f2, l33_f2 + l34_f1 + l73_f2 + l79_f1 + l118_f2 + l123_f1, l34_f2 + l35_f1 + l74_f2 + l80_f1 + l119_f2 + l124_f1, l1_f1 + l35_f2 + l36_f1 + l75_f2 + l81_f1 + l120_f2 + l125_f1, l36_f2 + l37_f1 + l76_f2 + l82_f1 + l121_f2 + l126_f1, l37_f2 + l77_f2 + l122_f2 + l127_f1, l38_f1 + l78_f2 + l83_f1 + l123_f2, l38_f2 + l39_f1 + l79_f2 + l84_f1 + l124_f2 + l128_f1, l39_f2 + l40_f1 + l80_f2 + l85_f1 + l125_f2 + l129_f1, l40_f2 + l41_f1 + l81_f2 + l86_f1 + l126_f2 + l130_f1, l41_f2 + l82_f2 + l127_f2 + l131_f1, l42_f1 + l83_f2 + l87_f1 + l128_f2, l42_f2 + l43_f1 + l84_f2 + l88_f1 + l129_f2 + l132_f1, l2_f1 + l43_f2 + l44_f1 + l85_f2 + l89_f1 + l130_f2 + l133_f1, l44_f2 + l86_f2 + l131_f2 + l134_f1, l45_f1 + l87_f2 + l90_f1 + l132_f2, l45_f2 + l46_f1 + l88_f2 + l91_f1 + l133_f2 + l135_f1, l46_f2 + l89_f2 + l134_f2 + l136_f1, l47_f1 + l90_f2 + l92_f1 + l135_f2, l47_f2 + l91_f2 + l136_f2 + l137_f1, l92_f2 + l137_f2, l138_f1 + l228_f1, l138_f2 + l139_f1 + l229_f1, l139_f2 + l140_f1 + l230_f1, l140_f2 + l141_f1 + l231_f1, l141_f2 + l142_f1 + l232_f1, l142_f2 + l143_f1 + l233_f1, l143_f2 + l144_f1 + l234_f1, l144_f2 + l145_f1 + l235_f1, l145_f2 + l146_f1 + l236_f1, l146_f2 + l237_f1, l147_f1 + l228_f2 + l238_f1, l147_f2 + l148_f1 + l229_f2 + l239_f1, l148_f2 + l149_f1 + l230_f2 + l240_f1, l149_f2 + l150_f1 + l231_f2 + l241_f1, l150_f2 + l151_f1 + l232_f2 + l242_f1, l151_f2 + l152_f1 + l233_f2 + l243_f1, l152_f2 + l153_f1 + l234_f2 + l244_f1, l153_f2 + l154_f1 + l235_f2 + l245_f1, l154_f2 + l155_f1 + l236_f2 + l246_f1, l155_f2 + l237_f2 + l247_f1, l156_f1 + l238_f2 + l248_f1, l156_f2 + l157_f1 + l239_f2 + l249_f1, l157_f2 + l158_f1 + l240_f2 + l250_f1, l158_f2 + l159_f1 + l241_f2 + l251_f1, l159_f2 + l160_f1 + l242_f2 + l252_f1, l160_f2 + l161_f1 + l243_f2 + l253_f1, l161_f2 + l162_f1 + l244_f2 + l254_f1, l162_f2 + l163_f1 + l245_f2 + l255_f1, l163_f2 + l164_f1 + l246_f2 + l256_f1, l164_f2 + l247_f2 + l257_f1, l165_f1 + l248_f2 + l258_f1, l165_f2 + l166_f1 + l249_f2 + l259_f1, l166_f2 + l167_f1 + l250_f2 + l260_f1, l167_f2 + l168_f1 + l251_f2 + l261_f1, l168_f2 + l169_f1 + l252_f2 + l262_f1, l169_f2 + l170_f1 + l253_f2 + l263_f1, l170_f2 + l171_f1 + l254_f2 + l264_f1, l2_f2 + l171_f2 + l172_f1 + l255_f2 + l265_f1, l172_f2 + l173_f1 + l256_f2 + l266_f1, l173_f2 + l257_f2 + l267_f1, l174_f1 + l258_f2 + l268_f1, l174_f2 + l175_f1 + l259_f2 + l269_f1, l175_f2 + l176_f1 + l260_f2 + l270_f1, l176_f2 + l177_f1 + l261_f2 + l271_f1, l177_f2 + l178_f1 + l262_f2 + l272_f1, l178_f2 + l179_f1 + l263_f2 + l273_f1, l179_f2 + l180_f1 + l264_f2 + l274_f1, l180_f2 + l181_f1 + l265_f2 + l275_f1, l181_f2 + l182_f1 + l266_f2 + l276_f1, l182_f2 + l267_f2 + l277_f1, l183_f1 + l268_f2 + l278_f1, l183_f2 + l184_f1 + l269_f2 + l279_f1, l184_f2 + l185_f1 + l270_f2 + l280_f1, l185_f2 + l186_f1 + l271_f2 + l281_f1, l186_f2 + l187_f1 + l272_f2 + l282_f1, l187_f2 + l188_f1 + l273_f2 + l283_f1, l188_f2 + l189_f1 + l274_f2 + l284_f1, l189_f2 + l190_f1 + l275_f2 + l285_f1, l190_f2 + l191_f1 + l276_f2 + l286_f1, l191_f2 + l277_f2 + l287_f1, l192_f1 + l278_f2 + l288_f1, l192_f2 + l193_f1 + l279_f2 + l289_f1, l193_f2 + l194_f1 + l280_f2 + l290_f1, l194_f2 + l195_f1 + l281_f2 + l291_f1, l195_f2 + l196_f1 + l282_f2 + l292_f1, l196_f2 + l197_f1 + l283_f2 + l293_f1, l197_f2 + l198_f1 + l284_f2 + l294_f1, l198_f2 + l199_f1 + l285_f2 + l295_f1, l199_f2 + l200_f1 + l286_f2 + l296_f1, l200_f2 + l287_f2 + l297_f1, l201_f1 + l288_f2 + l298_f1, l201_f2 + l202_f1 + l289_f2 + l299_f1, l202_f2 + l203_f1 + l290_f2 + l300_f1, l203_f2 + l204_f1 + l291_f2 + l301_f1, l204_f2 + l205_f1 + l292_f2 + l302_f1, l205_f2 + l206_f1 + l293_f2 + l303_f1, l206_f2 + l207_f1 + l294_f2 + l304_f1, l207_f2 + l208_f1 + l295_f2 + l305_f1, l208_f2 + l209_f1 + l296_f2 + l306_f1, l209_f2 + l297_f2 + l307_f1, l210_f1 + l298_f2 + l308_f1, l210_f2 + l211_f1 + l299_f2 + l309_f1, l211_f2 + l212_f1 + l300_f2 + l310_f1, l212_f2 + l213_f1 + l301_f2 + l311_f1, l213_f2 + l214_f1 + l302_f2 + l312_f1, l214_f2 + l215_f1 + l303_f2 + l313_f1, l215_f2 + l216_f1 + l304_f2 + l314_f1, l216_f2 + l217_f1 + l305_f2 + l315_f1, l217_f2 + l218_f1 + l306_f2 + l316_f1, l218_f2 + l307_f2 + l317_f1, l219_f1 + l308_f2, l219_f2 + l220_f1 + l309_f2, l220_f2 + l221_f1 + l310_f2, l221_f2 + l222_f1 + l311_f2, l222_f2 + l223_f1 + l312_f2, l223_f2 + l224_f1 + l313_f2, l224_f2 + l225_f1 + l314_f2, l225_f2 + l226_f1 + l315_f2, l226_f2 + l227_f1 + l316_f2, l227_f2 + l317_f2, /* pass-through */ p_out1, p_out2;
nbMass = 157;
nbFrcIn = 1;
nbOut = 2;
};
process = in1 : model:*(OutGain), *(OutGain);
/*
========= MIMS SCRIPT USED FOR MODEL GENERATION =============
# A plucked triangular mesh model (fixed at corners)
# Script author: James Leonard
# A slow moving oscillator placed above the other
# serving as a hammer
@ham mass 0.3 1. 0.
@g ground 1.
@sp springDamper @g @ham 0.0001 0.05
# Add force input to the hammer
@in1 frcInput @ham
@c nlContact @t_m4_3 @ham 0. 0.01 0.5 0.001
@nls nlSpringDamper @t_m6_2 @me_m3_7 0.01 0.01 0.2 0.
@t_M param 1
@t_K param 0.1
@t_Z param 0.001
@t_Zo param 0.00005
@t_m0_0 ground 0
@t_m0_1 osc t_M 0 t_Zo 0. 0.
@t_m0_2 osc t_M 0 t_Zo 0. 0.
@t_m0_3 osc t_M 0 t_Zo 0. 0.
@t_m0_4 osc t_M 0 t_Zo 0. 0.
@t_m0_5 osc t_M 0 t_Zo 0. 0.
@t_m0_6 osc t_M 0 t_Zo 0. 0.
@t_m0_7 osc t_M 0 t_Zo 0. 0.
@t_m0_8 osc t_M 0 t_Zo 0. 0.
@t_m0_9 ground 0
@t_m1_0 osc t_M 0 t_Zo 0. 0.
@t_m1_1 osc t_M 0 t_Zo 0. 0.
@t_m1_2 osc t_M 0 t_Zo 0. 0.
@t_m1_3 osc t_M 0 t_Zo 0. 0.
@t_m1_4 osc t_M 0 t_Zo 0. 0.
@t_m1_5 osc t_M 0 t_Zo 0. 0.
@t_m1_6 osc t_M 0 t_Zo 0. 0.
@t_m1_7 osc t_M 0 t_Zo 0. 0.
@t_m1_8 osc t_M 0 t_Zo 0. 0.
@t_m2_0 osc t_M 0 t_Zo 0. 0.
@t_m2_1 osc t_M 0 t_Zo 0. 0.
@t_m2_2 osc t_M 0 t_Zo 0. 0.
@t_m2_3 osc t_M 0 t_Zo 0. 0.
@t_m2_4 osc t_M 0 t_Zo 0. 0.
@t_m2_5 osc t_M 0 t_Zo 0. 0.
@t_m2_6 osc t_M 0 t_Zo 0. 0.
@t_m2_7 osc t_M 0 t_Zo 0. 0.
@t_m3_0 osc t_M 0 t_Zo 0. 0.
@t_m3_1 osc t_M 0 t_Zo 0. 0.
@t_m3_2 osc t_M 0 t_Zo 0. 0.
@t_m3_3 osc t_M 0 t_Zo 0. 0.
@t_m3_4 osc t_M 0 t_Zo 0. 0.
@t_m3_5 osc t_M 0 t_Zo 0. 0.
@t_m3_6 osc t_M 0 t_Zo 0. 0.
@t_m4_0 osc t_M 0 t_Zo 0. 0.
@t_m4_1 osc t_M 0 t_Zo 0. 0.
@t_m4_2 osc t_M 0 t_Zo 0. 0.
@t_m4_3 osc t_M 0 t_Zo 0. 0.
@t_m4_4 osc t_M 0 t_Zo 0. 0.
@t_m4_5 osc t_M 0 t_Zo 0. 0.
@t_m5_0 osc t_M 0 t_Zo 0. 0.
@t_m5_1 osc t_M 0 t_Zo 0. 0.
@t_m5_2 osc t_M 0 t_Zo 0. 0.
@t_m5_3 osc t_M 0 t_Zo 0. 0.
@t_m5_4 osc t_M 0 t_Zo 0. 0.
@t_m6_0 osc t_M 0 t_Zo 0. 0.
@t_m6_1 osc t_M 0 t_Zo 0. 0.
@t_m6_2 osc t_M 0 t_Zo 0. 0.
@t_m6_3 osc t_M 0 t_Zo 0. 0.
@t_m7_0 osc t_M 0 t_Zo 0. 0.
@t_m7_1 osc t_M 0 t_Zo 0. 0.
@t_m7_2 osc t_M 0 t_Zo 0. 0.
@t_m8_0 osc t_M 0 t_Zo 0. 0.
@t_m8_1 osc t_M 0 t_Zo 0. 0.
@t_m9_0 ground 0
@t_r0 springDamper @t_m0_0 @t_m0_1 t_K t_Z
@t_r1 springDamper @t_m0_1 @t_m0_2 t_K t_Z
@t_r2 springDamper @t_m0_2 @t_m0_3 t_K t_Z
@t_r3 springDamper @t_m0_3 @t_m0_4 t_K t_Z
@t_r4 springDamper @t_m0_4 @t_m0_5 t_K t_Z
@t_r5 springDamper @t_m0_5 @t_m0_6 t_K t_Z
@t_r6 springDamper @t_m0_6 @t_m0_7 t_K t_Z
@t_r7 springDamper @t_m0_7 @t_m0_8 t_K t_Z
@t_r8 springDamper @t_m0_8 @t_m0_9 t_K t_Z
@t_r9 springDamper @t_m1_0 @t_m1_1 t_K t_Z
@t_r10 springDamper @t_m1_1 @t_m1_2 t_K t_Z
@t_r11 springDamper @t_m1_2 @t_m1_3 t_K t_Z
@t_r12 springDamper @t_m1_3 @t_m1_4 t_K t_Z
@t_r13 springDamper @t_m1_4 @t_m1_5 t_K t_Z
@t_r14 springDamper @t_m1_5 @t_m1_6 t_K t_Z
@t_r15 springDamper @t_m1_6 @t_m1_7 t_K t_Z
@t_r16 springDamper @t_m1_7 @t_m1_8 t_K t_Z
@t_r17 springDamper @t_m2_0 @t_m2_1 t_K t_Z
@t_r18 springDamper @t_m2_1 @t_m2_2 t_K t_Z
@t_r19 springDamper @t_m2_2 @t_m2_3 t_K t_Z
@t_r20 springDamper @t_m2_3 @t_m2_4 t_K t_Z
@t_r21 springDamper @t_m2_4 @t_m2_5 t_K t_Z
@t_r22 springDamper @t_m2_5 @t_m2_6 t_K t_Z
@t_r23 springDamper @t_m2_6 @t_m2_7 t_K t_Z
@t_r24 springDamper @t_m3_0 @t_m3_1 t_K t_Z
@t_r25 springDamper @t_m3_1 @t_m3_2 t_K t_Z
@t_r26 springDamper @t_m3_2 @t_m3_3 t_K t_Z
@t_r27 springDamper @t_m3_3 @t_m3_4 t_K t_Z
@t_r28 springDamper @t_m3_4 @t_m3_5 t_K t_Z
@t_r29 springDamper @t_m3_5 @t_m3_6 t_K t_Z
@t_r30 springDamper @t_m4_0 @t_m4_1 t_K t_Z
@t_r31 springDamper @t_m4_1 @t_m4_2 t_K t_Z
@t_r32 springDamper @t_m4_2 @t_m4_3 t_K t_Z
@t_r33 springDamper @t_m4_3 @t_m4_4 t_K t_Z
@t_r34 springDamper @t_m4_4 @t_m4_5 t_K t_Z
@t_r35 springDamper @t_m5_0 @t_m5_1 t_K t_Z
@t_r36 springDamper @t_m5_1 @t_m5_2 t_K t_Z
@t_r37 springDamper @t_m5_2 @t_m5_3 t_K t_Z
@t_r38 springDamper @t_m5_3 @t_m5_4 t_K t_Z
@t_r39 springDamper @t_m6_0 @t_m6_1 t_K t_Z
@t_r40 springDamper @t_m6_1 @t_m6_2 t_K t_Z
@t_r41 springDamper @t_m6_2 @t_m6_3 t_K t_Z
@t_r42 springDamper @t_m7_0 @t_m7_1 t_K t_Z
@t_r43 springDamper @t_m7_1 @t_m7_2 t_K t_Z
@t_r44 springDamper @t_m8_0 @t_m8_1 t_K t_Z
@t_r45 springDamper @t_m0_0 @t_m1_0 t_K t_Z
@t_r46 springDamper @t_m0_1 @t_m1_1 t_K t_Z
@t_r47 springDamper @t_m0_2 @t_m1_2 t_K t_Z
@t_r48 springDamper @t_m0_3 @t_m1_3 t_K t_Z
@t_r49 springDamper @t_m0_4 @t_m1_4 t_K t_Z
@t_r50 springDamper @t_m0_5 @t_m1_5 t_K t_Z
@t_r51 springDamper @t_m0_6 @t_m1_6 t_K t_Z
@t_r52 springDamper @t_m0_7 @t_m1_7 t_K t_Z
@t_r53 springDamper @t_m0_8 @t_m1_8 t_K t_Z
@t_r54 springDamper @t_m1_0 @t_m2_0 t_K t_Z
@t_r55 springDamper @t_m1_1 @t_m2_1 t_K t_Z
@t_r56 springDamper @t_m1_2 @t_m2_2 t_K t_Z
@t_r57 springDamper @t_m1_3 @t_m2_3 t_K t_Z
@t_r58 springDamper @t_m1_4 @t_m2_4 t_K t_Z
@t_r59 springDamper @t_m1_5 @t_m2_5 t_K t_Z
@t_r60 springDamper @t_m1_6 @t_m2_6 t_K t_Z
@t_r61 springDamper @t_m1_7 @t_m2_7 t_K t_Z
@t_r62 springDamper @t_m2_0 @t_m3_0 t_K t_Z
@t_r63 springDamper @t_m2_1 @t_m3_1 t_K t_Z
@t_r64 springDamper @t_m2_2 @t_m3_2 t_K t_Z
@t_r65 springDamper @t_m2_3 @t_m3_3 t_K t_Z
@t_r66 springDamper @t_m2_4 @t_m3_4 t_K t_Z
@t_r67 springDamper @t_m2_5 @t_m3_5 t_K t_Z
@t_r68 springDamper @t_m2_6 @t_m3_6 t_K t_Z
@t_r69 springDamper @t_m3_0 @t_m4_0 t_K t_Z
@t_r70 springDamper @t_m3_1 @t_m4_1 t_K t_Z
@t_r71 springDamper @t_m3_2 @t_m4_2 t_K t_Z
@t_r72 springDamper @t_m3_3 @t_m4_3 t_K t_Z
@t_r73 springDamper @t_m3_4 @t_m4_4 t_K t_Z
@t_r74 springDamper @t_m3_5 @t_m4_5 t_K t_Z
@t_r75 springDamper @t_m4_0 @t_m5_0 t_K t_Z
@t_r76 springDamper @t_m4_1 @t_m5_1 t_K t_Z
@t_r77 springDamper @t_m4_2 @t_m5_2 t_K t_Z
@t_r78 springDamper @t_m4_3 @t_m5_3 t_K t_Z
@t_r79 springDamper @t_m4_4 @t_m5_4 t_K t_Z
@t_r80 springDamper @t_m5_0 @t_m6_0 t_K t_Z
@t_r81 springDamper @t_m5_1 @t_m6_1 t_K t_Z
@t_r82 springDamper @t_m5_2 @t_m6_2 t_K t_Z
@t_r83 springDamper @t_m5_3 @t_m6_3 t_K t_Z
@t_r84 springDamper @t_m6_0 @t_m7_0 t_K t_Z
@t_r85 springDamper @t_m6_1 @t_m7_1 t_K t_Z
@t_r86 springDamper @t_m6_2 @t_m7_2 t_K t_Z
@t_r87 springDamper @t_m7_0 @t_m8_0 t_K t_Z
@t_r88 springDamper @t_m7_1 @t_m8_1 t_K t_Z
@t_r89 springDamper @t_m8_0 @t_m9_0 t_K t_Z
@t_r90 springDamper @t_m0_1 @t_m1_0 t_K t_Z
@t_r91 springDamper @t_m0_2 @t_m1_1 t_K t_Z
@t_r92 springDamper @t_m0_3 @t_m1_2 t_K t_Z
@t_r93 springDamper @t_m0_4 @t_m1_3 t_K t_Z
@t_r94 springDamper @t_m0_5 @t_m1_4 t_K t_Z
@t_r95 springDamper @t_m0_6 @t_m1_5 t_K t_Z
@t_r96 springDamper @t_m0_7 @t_m1_6 t_K t_Z
@t_r97 springDamper @t_m0_8 @t_m1_7 t_K t_Z
@t_r98 springDamper @t_m0_9 @t_m1_8 t_K t_Z
@t_r99 springDamper @t_m1_1 @t_m2_0 t_K t_Z
@t_r100 springDamper @t_m1_2 @t_m2_1 t_K t_Z
@t_r101 springDamper @t_m1_3 @t_m2_2 t_K t_Z
@t_r102 springDamper @t_m1_4 @t_m2_3 t_K t_Z
@t_r103 springDamper @t_m1_5 @t_m2_4 t_K t_Z
@t_r104 springDamper @t_m1_6 @t_m2_5 t_K t_Z
@t_r105 springDamper @t_m1_7 @t_m2_6 t_K t_Z
@t_r106 springDamper @t_m1_8 @t_m2_7 t_K t_Z
@t_r107 springDamper @t_m2_1 @t_m3_0 t_K t_Z
@t_r108 springDamper @t_m2_2 @t_m3_1 t_K t_Z
@t_r109 springDamper @t_m2_3 @t_m3_2 t_K t_Z
@t_r110 springDamper @t_m2_4 @t_m3_3 t_K t_Z
@t_r111 springDamper @t_m2_5 @t_m3_4 t_K t_Z
@t_r112 springDamper @t_m2_6 @t_m3_5 t_K t_Z
@t_r113 springDamper @t_m2_7 @t_m3_6 t_K t_Z
@t_r114 springDamper @t_m3_1 @t_m4_0 t_K t_Z
@t_r115 springDamper @t_m3_2 @t_m4_1 t_K t_Z
@t_r116 springDamper @t_m3_3 @t_m4_2 t_K t_Z
@t_r117 springDamper @t_m3_4 @t_m4_3 t_K t_Z
@t_r118 springDamper @t_m3_5 @t_m4_4 t_K t_Z
@t_r119 springDamper @t_m3_6 @t_m4_5 t_K t_Z
@t_r120 springDamper @t_m4_1 @t_m5_0 t_K t_Z
@t_r121 springDamper @t_m4_2 @t_m5_1 t_K t_Z
@t_r122 springDamper @t_m4_3 @t_m5_2 t_K t_Z
@t_r123 springDamper @t_m4_4 @t_m5_3 t_K t_Z
@t_r124 springDamper @t_m4_5 @t_m5_4 t_K t_Z
@t_r125 springDamper @t_m5_1 @t_m6_0 t_K t_Z
@t_r126 springDamper @t_m5_2 @t_m6_1 t_K t_Z
@t_r127 springDamper @t_m5_3 @t_m6_2 t_K t_Z
@t_r128 springDamper @t_m5_4 @t_m6_3 t_K t_Z
@t_r129 springDamper @t_m6_1 @t_m7_0 t_K t_Z
@t_r130 springDamper @t_m6_2 @t_m7_1 t_K t_Z
@t_r131 springDamper @t_m6_3 @t_m7_2 t_K t_Z
@t_r132 springDamper @t_m7_1 @t_m8_0 t_K t_Z
@t_r133 springDamper @t_m7_2 @t_m8_1 t_K t_Z
@t_r134 springDamper @t_m8_1 @t_m9_0 t_K t_Z
@me_M param 1
@me_K param 0.1
@me_Z param 0.001
@me_Zo param 0.00005
@me_m0_0 ground 0
@me_m0_1 osc me_M 0 me_Zo 0. 0.
@me_m0_2 osc me_M 0 me_Zo 0. 0.
@me_m0_3 osc me_M 0 me_Zo 0. 0.
@me_m0_4 osc me_M 0 me_Zo 0. 0.
@me_m0_5 osc me_M 0 me_Zo 0. 0.
@me_m0_6 osc me_M 0 me_Zo 0. 0.
@me_m0_7 osc me_M 0 me_Zo 0. 0.
@me_m0_8 osc me_M 0 me_Zo 0. 0.
@me_m0_9 ground 0
@me_m1_0 osc me_M 0 me_Zo 0. 0.
@me_m1_1 osc me_M 0 me_Zo 0. 0.
@me_m1_2 osc me_M 0 me_Zo 0. 0.
@me_m1_3 osc me_M 0 me_Zo 0. 0.
@me_m1_4 osc me_M 0 me_Zo 0. 0.
@me_m1_5 osc me_M 0 me_Zo 0. 0.
@me_m1_6 osc me_M 0 me_Zo 0. 0.
@me_m1_7 osc me_M 0 me_Zo 0. 0.
@me_m1_8 osc me_M 0 me_Zo 0. 0.
@me_m1_9 osc me_M 0 me_Zo 0. 0.
@me_m2_0 osc me_M 0 me_Zo 0. 0.
@me_m2_1 osc me_M 0 me_Zo 0. 0.
@me_m2_2 osc me_M 0 me_Zo 0. 0.
@me_m2_3 osc me_M 0 me_Zo 0. 0.
@me_m2_4 osc me_M 0 me_Zo 0. 0.
@me_m2_5 osc me_M 0 me_Zo 0. 0.
@me_m2_6 osc me_M 0 me_Zo 0. 0.
@me_m2_7 osc me_M 0 me_Zo 0. 0.
@me_m2_8 osc me_M 0 me_Zo 0. 0.
@me_m2_9 osc me_M 0 me_Zo 0. 0.
@me_m3_0 osc me_M 0 me_Zo 0. 0.
@me_m3_1 osc me_M 0 me_Zo 0. 0.
@me_m3_2 osc me_M 0 me_Zo 0. 0.
@me_m3_3 osc me_M 0 me_Zo 0. 0.
@me_m3_4 osc me_M 0 me_Zo 0. 0.
@me_m3_5 osc me_M 0 me_Zo 0. 0.
@me_m3_6 osc me_M 0 me_Zo 0. 0.
@me_m3_7 osc me_M 0 me_Zo 0. 0.
@me_m3_8 osc me_M 0 me_Zo 0. 0.
@me_m3_9 osc me_M 0 me_Zo 0. 0.
@me_m4_0 osc me_M 0 me_Zo 0. 0.
@me_m4_1 osc me_M 0 me_Zo 0. 0.
@me_m4_2 osc me_M 0 me_Zo 0. 0.
@me_m4_3 osc me_M 0 me_Zo 0. 0.
@me_m4_4 osc me_M 0 me_Zo 0. 0.
@me_m4_5 osc me_M 0 me_Zo 0. 0.
@me_m4_6 osc me_M 0 me_Zo 0. 0.
@me_m4_7 osc me_M 0 me_Zo 0. 0.
@me_m4_8 osc me_M 0 me_Zo 0. 0.
@me_m4_9 osc me_M 0 me_Zo 0. 0.
@me_m5_0 osc me_M 0 me_Zo 0. 0.
@me_m5_1 osc me_M 0 me_Zo 0. 0.
@me_m5_2 osc me_M 0 me_Zo 0. 0.
@me_m5_3 osc me_M 0 me_Zo 0. 0.
@me_m5_4 osc me_M 0 me_Zo 0. 0.
@me_m5_5 osc me_M 0 me_Zo 0. 0.
@me_m5_6 osc me_M 0 me_Zo 0. 0.
@me_m5_7 osc me_M 0 me_Zo 0. 0.
@me_m5_8 osc me_M 0 me_Zo 0. 0.
@me_m5_9 osc me_M 0 me_Zo 0. 0.
@me_m6_0 osc me_M 0 me_Zo 0. 0.
@me_m6_1 osc me_M 0 me_Zo 0. 0.
@me_m6_2 osc me_M 0 me_Zo 0. 0.
@me_m6_3 osc me_M 0 me_Zo 0. 0.
@me_m6_4 osc me_M 0 me_Zo 0. 0.
@me_m6_5 osc me_M 0 me_Zo 0. 0.
@me_m6_6 osc me_M 0 me_Zo 0. 0.
@me_m6_7 osc me_M 0 me_Zo 0. 0.
@me_m6_8 osc me_M 0 me_Zo 0. 0.
@me_m6_9 osc me_M 0 me_Zo 0. 0.
@me_m7_0 osc me_M 0 me_Zo 0. 0.
@me_m7_1 osc me_M 0 me_Zo 0. 0.
@me_m7_2 osc me_M 0 me_Zo 0. 0.
@me_m7_3 osc me_M 0 me_Zo 0. 0.
@me_m7_4 osc me_M 0 me_Zo 0. 0.
@me_m7_5 osc me_M 0 me_Zo 0. 0.
@me_m7_6 osc me_M 0 me_Zo 0. 0.
@me_m7_7 osc me_M 0 me_Zo 0. 0.
@me_m7_8 osc me_M 0 me_Zo 0. 0.
@me_m7_9 osc me_M 0 me_Zo 0. 0.
@me_m8_0 osc me_M 0 me_Zo 0. 0.
@me_m8_1 osc me_M 0 me_Zo 0. 0.
@me_m8_2 osc me_M 0 me_Zo 0. 0.
@me_m8_3 osc me_M 0 me_Zo 0. 0.
@me_m8_4 osc me_M 0 me_Zo 0. 0.
@me_m8_5 osc me_M 0 me_Zo 0. 0.
@me_m8_6 osc me_M 0 me_Zo 0. 0.
@me_m8_7 osc me_M 0 me_Zo 0. 0.
@me_m8_8 osc me_M 0 me_Zo 0. 0.
@me_m8_9 osc me_M 0 me_Zo 0. 0.
@me_m9_0 ground 0
@me_m9_1 osc me_M 0 me_Zo 0. 0.
@me_m9_2 osc me_M 0 me_Zo 0. 0.
@me_m9_3 osc me_M 0 me_Zo 0. 0.
@me_m9_4 osc me_M 0 me_Zo 0. 0.
@me_m9_5 osc me_M 0 me_Zo 0. 0.
@me_m9_6 osc me_M 0 me_Zo 0. 0.
@me_m9_7 osc me_M 0 me_Zo 0. 0.
@me_m9_8 osc me_M 0 me_Zo 0. 0.
@me_m9_9 ground 0
@me_r0 springDamper @me_m0_0 @me_m0_1 me_K me_Z
@me_r1 springDamper @me_m0_1 @me_m0_2 me_K me_Z
@me_r2 springDamper @me_m0_2 @me_m0_3 me_K me_Z
@me_r3 springDamper @me_m0_3 @me_m0_4 me_K me_Z
@me_r4 springDamper @me_m0_4 @me_m0_5 me_K me_Z
@me_r5 springDamper @me_m0_5 @me_m0_6 me_K me_Z
@me_r6 springDamper @me_m0_6 @me_m0_7 me_K me_Z
@me_r7 springDamper @me_m0_7 @me_m0_8 me_K me_Z
@me_r8 springDamper @me_m0_8 @me_m0_9 me_K me_Z
@me_r9 springDamper @me_m1_0 @me_m1_1 me_K me_Z
@me_r10 springDamper @me_m1_1 @me_m1_2 me_K me_Z
@me_r11 springDamper @me_m1_2 @me_m1_3 me_K me_Z
@me_r12 springDamper @me_m1_3 @me_m1_4 me_K me_Z
@me_r13 springDamper @me_m1_4 @me_m1_5 me_K me_Z
@me_r14 springDamper @me_m1_5 @me_m1_6 me_K me_Z
@me_r15 springDamper @me_m1_6 @me_m1_7 me_K me_Z
@me_r16 springDamper @me_m1_7 @me_m1_8 me_K me_Z
@me_r17 springDamper @me_m1_8 @me_m1_9 me_K me_Z
@me_r18 springDamper @me_m2_0 @me_m2_1 me_K me_Z
@me_r19 springDamper @me_m2_1 @me_m2_2 me_K me_Z
@me_r20 springDamper @me_m2_2 @me_m2_3 me_K me_Z
@me_r21 springDamper @me_m2_3 @me_m2_4 me_K me_Z
@me_r22 springDamper @me_m2_4 @me_m2_5 me_K me_Z
@me_r23 springDamper @me_m2_5 @me_m2_6 me_K me_Z
@me_r24 springDamper @me_m2_6 @me_m2_7 me_K me_Z
@me_r25 springDamper @me_m2_7 @me_m2_8 me_K me_Z
@me_r26 springDamper @me_m2_8 @me_m2_9 me_K me_Z
@me_r27 springDamper @me_m3_0 @me_m3_1 me_K me_Z
@me_r28 springDamper @me_m3_1 @me_m3_2 me_K me_Z
@me_r29 springDamper @me_m3_2 @me_m3_3 me_K me_Z
@me_r30 springDamper @me_m3_3 @me_m3_4 me_K me_Z
@me_r31 springDamper @me_m3_4 @me_m3_5 me_K me_Z
@me_r32 springDamper @me_m3_5 @me_m3_6 me_K me_Z
@me_r33 springDamper @me_m3_6 @me_m3_7 me_K me_Z
@me_r34 springDamper @me_m3_7 @me_m3_8 me_K me_Z
@me_r35 springDamper @me_m3_8 @me_m3_9 me_K me_Z
@me_r36 springDamper @me_m4_0 @me_m4_1 me_K me_Z
@me_r37 springDamper @me_m4_1 @me_m4_2 me_K me_Z
@me_r38 springDamper @me_m4_2 @me_m4_3 me_K me_Z
@me_r39 springDamper @me_m4_3 @me_m4_4 me_K me_Z
@me_r40 springDamper @me_m4_4 @me_m4_5 me_K me_Z
@me_r41 springDamper @me_m4_5 @me_m4_6 me_K me_Z
@me_r42 springDamper @me_m4_6 @me_m4_7 me_K me_Z
@me_r43 springDamper @me_m4_7 @me_m4_8 me_K me_Z
@me_r44 springDamper @me_m4_8 @me_m4_9 me_K me_Z
@me_r45 springDamper @me_m5_0 @me_m5_1 me_K me_Z
@me_r46 springDamper @me_m5_1 @me_m5_2 me_K me_Z
@me_r47 springDamper @me_m5_2 @me_m5_3 me_K me_Z
@me_r48 springDamper @me_m5_3 @me_m5_4 me_K me_Z
@me_r49 springDamper @me_m5_4 @me_m5_5 me_K me_Z
@me_r50 springDamper @me_m5_5 @me_m5_6 me_K me_Z
@me_r51 springDamper @me_m5_6 @me_m5_7 me_K me_Z
@me_r52 springDamper @me_m5_7 @me_m5_8 me_K me_Z
@me_r53 springDamper @me_m5_8 @me_m5_9 me_K me_Z
@me_r54 springDamper @me_m6_0 @me_m6_1 me_K me_Z
@me_r55 springDamper @me_m6_1 @me_m6_2 me_K me_Z
@me_r56 springDamper @me_m6_2 @me_m6_3 me_K me_Z
@me_r57 springDamper @me_m6_3 @me_m6_4 me_K me_Z
@me_r58 springDamper @me_m6_4 @me_m6_5 me_K me_Z
@me_r59 springDamper @me_m6_5 @me_m6_6 me_K me_Z
@me_r60 springDamper @me_m6_6 @me_m6_7 me_K me_Z
@me_r61 springDamper @me_m6_7 @me_m6_8 me_K me_Z
@me_r62 springDamper @me_m6_8 @me_m6_9 me_K me_Z
@me_r63 springDamper @me_m7_0 @me_m7_1 me_K me_Z
@me_r64 springDamper @me_m7_1 @me_m7_2 me_K me_Z
@me_r65 springDamper @me_m7_2 @me_m7_3 me_K me_Z
@me_r66 springDamper @me_m7_3 @me_m7_4 me_K me_Z
@me_r67 springDamper @me_m7_4 @me_m7_5 me_K me_Z
@me_r68 springDamper @me_m7_5 @me_m7_6 me_K me_Z
@me_r69 springDamper @me_m7_6 @me_m7_7 me_K me_Z
@me_r70 springDamper @me_m7_7 @me_m7_8 me_K me_Z
@me_r71 springDamper @me_m7_8 @me_m7_9 me_K me_Z
@me_r72 springDamper @me_m8_0 @me_m8_1 me_K me_Z
@me_r73 springDamper @me_m8_1 @me_m8_2 me_K me_Z
@me_r74 springDamper @me_m8_2 @me_m8_3 me_K me_Z
@me_r75 springDamper @me_m8_3 @me_m8_4 me_K me_Z
@me_r76 springDamper @me_m8_4 @me_m8_5 me_K me_Z
@me_r77 springDamper @me_m8_5 @me_m8_6 me_K me_Z
@me_r78 springDamper @me_m8_6 @me_m8_7 me_K me_Z
@me_r79 springDamper @me_m8_7 @me_m8_8 me_K me_Z
@me_r80 springDamper @me_m8_8 @me_m8_9 me_K me_Z
@me_r81 springDamper @me_m9_0 @me_m9_1 me_K me_Z
@me_r82 springDamper @me_m9_1 @me_m9_2 me_K me_Z
@me_r83 springDamper @me_m9_2 @me_m9_3 me_K me_Z
@me_r84 springDamper @me_m9_3 @me_m9_4 me_K me_Z
@me_r85 springDamper @me_m9_4 @me_m9_5 me_K me_Z
@me_r86 springDamper @me_m9_5 @me_m9_6 me_K me_Z
@me_r87 springDamper @me_m9_6 @me_m9_7 me_K me_Z
@me_r88 springDamper @me_m9_7 @me_m9_8 me_K me_Z
@me_r89 springDamper @me_m9_8 @me_m9_9 me_K me_Z
@me_r90 springDamper @me_m0_0 @me_m1_0 me_K me_Z
@me_r91 springDamper @me_m0_1 @me_m1_1 me_K me_Z
@me_r92 springDamper @me_m0_2 @me_m1_2 me_K me_Z
@me_r93 springDamper @me_m0_3 @me_m1_3 me_K me_Z
@me_r94 springDamper @me_m0_4 @me_m1_4 me_K me_Z
@me_r95 springDamper @me_m0_5 @me_m1_5 me_K me_Z
@me_r96 springDamper @me_m0_6 @me_m1_6 me_K me_Z
@me_r97 springDamper @me_m0_7 @me_m1_7 me_K me_Z
@me_r98 springDamper @me_m0_8 @me_m1_8 me_K me_Z
@me_r99 springDamper @me_m0_9 @me_m1_9 me_K me_Z
@me_r100 springDamper @me_m1_0 @me_m2_0 me_K me_Z
@me_r101 springDamper @me_m1_1 @me_m2_1 me_K me_Z
@me_r102 springDamper @me_m1_2 @me_m2_2 me_K me_Z
@me_r103 springDamper @me_m1_3 @me_m2_3 me_K me_Z
@me_r104 springDamper @me_m1_4 @me_m2_4 me_K me_Z
@me_r105 springDamper @me_m1_5 @me_m2_5 me_K me_Z
@me_r106 springDamper @me_m1_6 @me_m2_6 me_K me_Z
@me_r107 springDamper @me_m1_7 @me_m2_7 me_K me_Z
@me_r108 springDamper @me_m1_8 @me_m2_8 me_K me_Z
@me_r109 springDamper @me_m1_9 @me_m2_9 me_K me_Z
@me_r110 springDamper @me_m2_0 @me_m3_0 me_K me_Z
@me_r111 springDamper @me_m2_1 @me_m3_1 me_K me_Z
@me_r112 springDamper @me_m2_2 @me_m3_2 me_K me_Z
@me_r113 springDamper @me_m2_3 @me_m3_3 me_K me_Z
@me_r114 springDamper @me_m2_4 @me_m3_4 me_K me_Z
@me_r115 springDamper @me_m2_5 @me_m3_5 me_K me_Z
@me_r116 springDamper @me_m2_6 @me_m3_6 me_K me_Z
@me_r117 springDamper @me_m2_7 @me_m3_7 me_K me_Z
@me_r118 springDamper @me_m2_8 @me_m3_8 me_K me_Z
@me_r119 springDamper @me_m2_9 @me_m3_9 me_K me_Z
@me_r120 springDamper @me_m3_0 @me_m4_0 me_K me_Z
@me_r121 springDamper @me_m3_1 @me_m4_1 me_K me_Z
@me_r122 springDamper @me_m3_2 @me_m4_2 me_K me_Z
@me_r123 springDamper @me_m3_3 @me_m4_3 me_K me_Z
@me_r124 springDamper @me_m3_4 @me_m4_4 me_K me_Z
@me_r125 springDamper @me_m3_5 @me_m4_5 me_K me_Z
@me_r126 springDamper @me_m3_6 @me_m4_6 me_K me_Z
@me_r127 springDamper @me_m3_7 @me_m4_7 me_K me_Z
@me_r128 springDamper @me_m3_8 @me_m4_8 me_K me_Z
@me_r129 springDamper @me_m3_9 @me_m4_9 me_K me_Z
@me_r130 springDamper @me_m4_0 @me_m5_0 me_K me_Z
@me_r131 springDamper @me_m4_1 @me_m5_1 me_K me_Z
@me_r132 springDamper @me_m4_2 @me_m5_2 me_K me_Z
@me_r133 springDamper @me_m4_3 @me_m5_3 me_K me_Z
@me_r134 springDamper @me_m4_4 @me_m5_4 me_K me_Z
@me_r135 springDamper @me_m4_5 @me_m5_5 me_K me_Z
@me_r136 springDamper @me_m4_6 @me_m5_6 me_K me_Z
@me_r137 springDamper @me_m4_7 @me_m5_7 me_K me_Z
@me_r138 springDamper @me_m4_8 @me_m5_8 me_K me_Z
@me_r139 springDamper @me_m4_9 @me_m5_9 me_K me_Z
@me_r140 springDamper @me_m5_0 @me_m6_0 me_K me_Z
@me_r141 springDamper @me_m5_1 @me_m6_1 me_K me_Z
@me_r142 springDamper @me_m5_2 @me_m6_2 me_K me_Z
@me_r143 springDamper @me_m5_3 @me_m6_3 me_K me_Z
@me_r144 springDamper @me_m5_4 @me_m6_4 me_K me_Z
@me_r145 springDamper @me_m5_5 @me_m6_5 me_K me_Z
@me_r146 springDamper @me_m5_6 @me_m6_6 me_K me_Z
@me_r147 springDamper @me_m5_7 @me_m6_7 me_K me_Z
@me_r148 springDamper @me_m5_8 @me_m6_8 me_K me_Z
@me_r149 springDamper @me_m5_9 @me_m6_9 me_K me_Z
@me_r150 springDamper @me_m6_0 @me_m7_0 me_K me_Z
@me_r151 springDamper @me_m6_1 @me_m7_1 me_K me_Z
@me_r152 springDamper @me_m6_2 @me_m7_2 me_K me_Z
@me_r153 springDamper @me_m6_3 @me_m7_3 me_K me_Z
@me_r154 springDamper @me_m6_4 @me_m7_4 me_K me_Z
@me_r155 springDamper @me_m6_5 @me_m7_5 me_K me_Z
@me_r156 springDamper @me_m6_6 @me_m7_6 me_K me_Z
@me_r157 springDamper @me_m6_7 @me_m7_7 me_K me_Z
@me_r158 springDamper @me_m6_8 @me_m7_8 me_K me_Z
@me_r159 springDamper @me_m6_9 @me_m7_9 me_K me_Z
@me_r160 springDamper @me_m7_0 @me_m8_0 me_K me_Z
@me_r161 springDamper @me_m7_1 @me_m8_1 me_K me_Z
@me_r162 springDamper @me_m7_2 @me_m8_2 me_K me_Z
@me_r163 springDamper @me_m7_3 @me_m8_3 me_K me_Z
@me_r164 springDamper @me_m7_4 @me_m8_4 me_K me_Z
@me_r165 springDamper @me_m7_5 @me_m8_5 me_K me_Z
@me_r166 springDamper @me_m7_6 @me_m8_6 me_K me_Z
@me_r167 springDamper @me_m7_7 @me_m8_7 me_K me_Z
@me_r168 springDamper @me_m7_8 @me_m8_8 me_K me_Z
@me_r169 springDamper @me_m7_9 @me_m8_9 me_K me_Z
@me_r170 springDamper @me_m8_0 @me_m9_0 me_K me_Z
@me_r171 springDamper @me_m8_1 @me_m9_1 me_K me_Z
@me_r172 springDamper @me_m8_2 @me_m9_2 me_K me_Z
@me_r173 springDamper @me_m8_3 @me_m9_3 me_K me_Z
@me_r174 springDamper @me_m8_4 @me_m9_4 me_K me_Z
@me_r175 springDamper @me_m8_5 @me_m9_5 me_K me_Z
@me_r176 springDamper @me_m8_6 @me_m9_6 me_K me_Z
@me_r177 springDamper @me_m8_7 @me_m9_7 me_K me_Z
@me_r178 springDamper @me_m8_8 @me_m9_8 me_K me_Z
@me_r179 springDamper @me_m8_9 @me_m9_9 me_K me_Z
@out1 posOutput @me_m5_5
@out2 posOutput @t_m2_1
*/
|
https://raw.githubusercontent.com/madskjeldgaard/mkfaustplugins/fd7cf250788174b5efa6ae3294997609830875d1/plugins/StrangeConstruct/StrangeConstruct.dsp
|
faust
|
========= DESCRITPION =============
A triangle mesh (fixed corners) struck by a hammer, connected (through a slightly non-linear spring)
to a resonant square mesh (fixed corners).
- inputs: Force impulse applied to the hammer
- outputs: one listening point on the triangle, another on the resonnant mesh.
- controls: triangle stiffness and daming, square mesh stiffness and damping, hammer force impulse scaling.
Note: the block diagram of the model will give you nightmares.
routed positions
outputs
routed forces
pass-through
========= MIMS SCRIPT USED FOR MODEL GENERATION =============
# A plucked triangular mesh model (fixed at corners)
# Script author: James Leonard
# A slow moving oscillator placed above the other
# serving as a hammer
@ham mass 0.3 1. 0.
@g ground 1.
@sp springDamper @g @ham 0.0001 0.05
# Add force input to the hammer
@in1 frcInput @ham
@c nlContact @t_m4_3 @ham 0. 0.01 0.5 0.001
@nls nlSpringDamper @t_m6_2 @me_m3_7 0.01 0.01 0.2 0.
@t_M param 1
@t_K param 0.1
@t_Z param 0.001
@t_Zo param 0.00005
@t_m0_0 ground 0
@t_m0_1 osc t_M 0 t_Zo 0. 0.
@t_m0_2 osc t_M 0 t_Zo 0. 0.
@t_m0_3 osc t_M 0 t_Zo 0. 0.
@t_m0_4 osc t_M 0 t_Zo 0. 0.
@t_m0_5 osc t_M 0 t_Zo 0. 0.
@t_m0_6 osc t_M 0 t_Zo 0. 0.
@t_m0_7 osc t_M 0 t_Zo 0. 0.
@t_m0_8 osc t_M 0 t_Zo 0. 0.
@t_m0_9 ground 0
@t_m1_0 osc t_M 0 t_Zo 0. 0.
@t_m1_1 osc t_M 0 t_Zo 0. 0.
@t_m1_2 osc t_M 0 t_Zo 0. 0.
@t_m1_3 osc t_M 0 t_Zo 0. 0.
@t_m1_4 osc t_M 0 t_Zo 0. 0.
@t_m1_5 osc t_M 0 t_Zo 0. 0.
@t_m1_6 osc t_M 0 t_Zo 0. 0.
@t_m1_7 osc t_M 0 t_Zo 0. 0.
@t_m1_8 osc t_M 0 t_Zo 0. 0.
@t_m2_0 osc t_M 0 t_Zo 0. 0.
@t_m2_1 osc t_M 0 t_Zo 0. 0.
@t_m2_2 osc t_M 0 t_Zo 0. 0.
@t_m2_3 osc t_M 0 t_Zo 0. 0.
@t_m2_4 osc t_M 0 t_Zo 0. 0.
@t_m2_5 osc t_M 0 t_Zo 0. 0.
@t_m2_6 osc t_M 0 t_Zo 0. 0.
@t_m2_7 osc t_M 0 t_Zo 0. 0.
@t_m3_0 osc t_M 0 t_Zo 0. 0.
@t_m3_1 osc t_M 0 t_Zo 0. 0.
@t_m3_2 osc t_M 0 t_Zo 0. 0.
@t_m3_3 osc t_M 0 t_Zo 0. 0.
@t_m3_4 osc t_M 0 t_Zo 0. 0.
@t_m3_5 osc t_M 0 t_Zo 0. 0.
@t_m3_6 osc t_M 0 t_Zo 0. 0.
@t_m4_0 osc t_M 0 t_Zo 0. 0.
@t_m4_1 osc t_M 0 t_Zo 0. 0.
@t_m4_2 osc t_M 0 t_Zo 0. 0.
@t_m4_3 osc t_M 0 t_Zo 0. 0.
@t_m4_4 osc t_M 0 t_Zo 0. 0.
@t_m4_5 osc t_M 0 t_Zo 0. 0.
@t_m5_0 osc t_M 0 t_Zo 0. 0.
@t_m5_1 osc t_M 0 t_Zo 0. 0.
@t_m5_2 osc t_M 0 t_Zo 0. 0.
@t_m5_3 osc t_M 0 t_Zo 0. 0.
@t_m5_4 osc t_M 0 t_Zo 0. 0.
@t_m6_0 osc t_M 0 t_Zo 0. 0.
@t_m6_1 osc t_M 0 t_Zo 0. 0.
@t_m6_2 osc t_M 0 t_Zo 0. 0.
@t_m6_3 osc t_M 0 t_Zo 0. 0.
@t_m7_0 osc t_M 0 t_Zo 0. 0.
@t_m7_1 osc t_M 0 t_Zo 0. 0.
@t_m7_2 osc t_M 0 t_Zo 0. 0.
@t_m8_0 osc t_M 0 t_Zo 0. 0.
@t_m8_1 osc t_M 0 t_Zo 0. 0.
@t_m9_0 ground 0
@t_r0 springDamper @t_m0_0 @t_m0_1 t_K t_Z
@t_r1 springDamper @t_m0_1 @t_m0_2 t_K t_Z
@t_r2 springDamper @t_m0_2 @t_m0_3 t_K t_Z
@t_r3 springDamper @t_m0_3 @t_m0_4 t_K t_Z
@t_r4 springDamper @t_m0_4 @t_m0_5 t_K t_Z
@t_r5 springDamper @t_m0_5 @t_m0_6 t_K t_Z
@t_r6 springDamper @t_m0_6 @t_m0_7 t_K t_Z
@t_r7 springDamper @t_m0_7 @t_m0_8 t_K t_Z
@t_r8 springDamper @t_m0_8 @t_m0_9 t_K t_Z
@t_r9 springDamper @t_m1_0 @t_m1_1 t_K t_Z
@t_r10 springDamper @t_m1_1 @t_m1_2 t_K t_Z
@t_r11 springDamper @t_m1_2 @t_m1_3 t_K t_Z
@t_r12 springDamper @t_m1_3 @t_m1_4 t_K t_Z
@t_r13 springDamper @t_m1_4 @t_m1_5 t_K t_Z
@t_r14 springDamper @t_m1_5 @t_m1_6 t_K t_Z
@t_r15 springDamper @t_m1_6 @t_m1_7 t_K t_Z
@t_r16 springDamper @t_m1_7 @t_m1_8 t_K t_Z
@t_r17 springDamper @t_m2_0 @t_m2_1 t_K t_Z
@t_r18 springDamper @t_m2_1 @t_m2_2 t_K t_Z
@t_r19 springDamper @t_m2_2 @t_m2_3 t_K t_Z
@t_r20 springDamper @t_m2_3 @t_m2_4 t_K t_Z
@t_r21 springDamper @t_m2_4 @t_m2_5 t_K t_Z
@t_r22 springDamper @t_m2_5 @t_m2_6 t_K t_Z
@t_r23 springDamper @t_m2_6 @t_m2_7 t_K t_Z
@t_r24 springDamper @t_m3_0 @t_m3_1 t_K t_Z
@t_r25 springDamper @t_m3_1 @t_m3_2 t_K t_Z
@t_r26 springDamper @t_m3_2 @t_m3_3 t_K t_Z
@t_r27 springDamper @t_m3_3 @t_m3_4 t_K t_Z
@t_r28 springDamper @t_m3_4 @t_m3_5 t_K t_Z
@t_r29 springDamper @t_m3_5 @t_m3_6 t_K t_Z
@t_r30 springDamper @t_m4_0 @t_m4_1 t_K t_Z
@t_r31 springDamper @t_m4_1 @t_m4_2 t_K t_Z
@t_r32 springDamper @t_m4_2 @t_m4_3 t_K t_Z
@t_r33 springDamper @t_m4_3 @t_m4_4 t_K t_Z
@t_r34 springDamper @t_m4_4 @t_m4_5 t_K t_Z
@t_r35 springDamper @t_m5_0 @t_m5_1 t_K t_Z
@t_r36 springDamper @t_m5_1 @t_m5_2 t_K t_Z
@t_r37 springDamper @t_m5_2 @t_m5_3 t_K t_Z
@t_r38 springDamper @t_m5_3 @t_m5_4 t_K t_Z
@t_r39 springDamper @t_m6_0 @t_m6_1 t_K t_Z
@t_r40 springDamper @t_m6_1 @t_m6_2 t_K t_Z
@t_r41 springDamper @t_m6_2 @t_m6_3 t_K t_Z
@t_r42 springDamper @t_m7_0 @t_m7_1 t_K t_Z
@t_r43 springDamper @t_m7_1 @t_m7_2 t_K t_Z
@t_r44 springDamper @t_m8_0 @t_m8_1 t_K t_Z
@t_r45 springDamper @t_m0_0 @t_m1_0 t_K t_Z
@t_r46 springDamper @t_m0_1 @t_m1_1 t_K t_Z
@t_r47 springDamper @t_m0_2 @t_m1_2 t_K t_Z
@t_r48 springDamper @t_m0_3 @t_m1_3 t_K t_Z
@t_r49 springDamper @t_m0_4 @t_m1_4 t_K t_Z
@t_r50 springDamper @t_m0_5 @t_m1_5 t_K t_Z
@t_r51 springDamper @t_m0_6 @t_m1_6 t_K t_Z
@t_r52 springDamper @t_m0_7 @t_m1_7 t_K t_Z
@t_r53 springDamper @t_m0_8 @t_m1_8 t_K t_Z
@t_r54 springDamper @t_m1_0 @t_m2_0 t_K t_Z
@t_r55 springDamper @t_m1_1 @t_m2_1 t_K t_Z
@t_r56 springDamper @t_m1_2 @t_m2_2 t_K t_Z
@t_r57 springDamper @t_m1_3 @t_m2_3 t_K t_Z
@t_r58 springDamper @t_m1_4 @t_m2_4 t_K t_Z
@t_r59 springDamper @t_m1_5 @t_m2_5 t_K t_Z
@t_r60 springDamper @t_m1_6 @t_m2_6 t_K t_Z
@t_r61 springDamper @t_m1_7 @t_m2_7 t_K t_Z
@t_r62 springDamper @t_m2_0 @t_m3_0 t_K t_Z
@t_r63 springDamper @t_m2_1 @t_m3_1 t_K t_Z
@t_r64 springDamper @t_m2_2 @t_m3_2 t_K t_Z
@t_r65 springDamper @t_m2_3 @t_m3_3 t_K t_Z
@t_r66 springDamper @t_m2_4 @t_m3_4 t_K t_Z
@t_r67 springDamper @t_m2_5 @t_m3_5 t_K t_Z
@t_r68 springDamper @t_m2_6 @t_m3_6 t_K t_Z
@t_r69 springDamper @t_m3_0 @t_m4_0 t_K t_Z
@t_r70 springDamper @t_m3_1 @t_m4_1 t_K t_Z
@t_r71 springDamper @t_m3_2 @t_m4_2 t_K t_Z
@t_r72 springDamper @t_m3_3 @t_m4_3 t_K t_Z
@t_r73 springDamper @t_m3_4 @t_m4_4 t_K t_Z
@t_r74 springDamper @t_m3_5 @t_m4_5 t_K t_Z
@t_r75 springDamper @t_m4_0 @t_m5_0 t_K t_Z
@t_r76 springDamper @t_m4_1 @t_m5_1 t_K t_Z
@t_r77 springDamper @t_m4_2 @t_m5_2 t_K t_Z
@t_r78 springDamper @t_m4_3 @t_m5_3 t_K t_Z
@t_r79 springDamper @t_m4_4 @t_m5_4 t_K t_Z
@t_r80 springDamper @t_m5_0 @t_m6_0 t_K t_Z
@t_r81 springDamper @t_m5_1 @t_m6_1 t_K t_Z
@t_r82 springDamper @t_m5_2 @t_m6_2 t_K t_Z
@t_r83 springDamper @t_m5_3 @t_m6_3 t_K t_Z
@t_r84 springDamper @t_m6_0 @t_m7_0 t_K t_Z
@t_r85 springDamper @t_m6_1 @t_m7_1 t_K t_Z
@t_r86 springDamper @t_m6_2 @t_m7_2 t_K t_Z
@t_r87 springDamper @t_m7_0 @t_m8_0 t_K t_Z
@t_r88 springDamper @t_m7_1 @t_m8_1 t_K t_Z
@t_r89 springDamper @t_m8_0 @t_m9_0 t_K t_Z
@t_r90 springDamper @t_m0_1 @t_m1_0 t_K t_Z
@t_r91 springDamper @t_m0_2 @t_m1_1 t_K t_Z
@t_r92 springDamper @t_m0_3 @t_m1_2 t_K t_Z
@t_r93 springDamper @t_m0_4 @t_m1_3 t_K t_Z
@t_r94 springDamper @t_m0_5 @t_m1_4 t_K t_Z
@t_r95 springDamper @t_m0_6 @t_m1_5 t_K t_Z
@t_r96 springDamper @t_m0_7 @t_m1_6 t_K t_Z
@t_r97 springDamper @t_m0_8 @t_m1_7 t_K t_Z
@t_r98 springDamper @t_m0_9 @t_m1_8 t_K t_Z
@t_r99 springDamper @t_m1_1 @t_m2_0 t_K t_Z
@t_r100 springDamper @t_m1_2 @t_m2_1 t_K t_Z
@t_r101 springDamper @t_m1_3 @t_m2_2 t_K t_Z
@t_r102 springDamper @t_m1_4 @t_m2_3 t_K t_Z
@t_r103 springDamper @t_m1_5 @t_m2_4 t_K t_Z
@t_r104 springDamper @t_m1_6 @t_m2_5 t_K t_Z
@t_r105 springDamper @t_m1_7 @t_m2_6 t_K t_Z
@t_r106 springDamper @t_m1_8 @t_m2_7 t_K t_Z
@t_r107 springDamper @t_m2_1 @t_m3_0 t_K t_Z
@t_r108 springDamper @t_m2_2 @t_m3_1 t_K t_Z
@t_r109 springDamper @t_m2_3 @t_m3_2 t_K t_Z
@t_r110 springDamper @t_m2_4 @t_m3_3 t_K t_Z
@t_r111 springDamper @t_m2_5 @t_m3_4 t_K t_Z
@t_r112 springDamper @t_m2_6 @t_m3_5 t_K t_Z
@t_r113 springDamper @t_m2_7 @t_m3_6 t_K t_Z
@t_r114 springDamper @t_m3_1 @t_m4_0 t_K t_Z
@t_r115 springDamper @t_m3_2 @t_m4_1 t_K t_Z
@t_r116 springDamper @t_m3_3 @t_m4_2 t_K t_Z
@t_r117 springDamper @t_m3_4 @t_m4_3 t_K t_Z
@t_r118 springDamper @t_m3_5 @t_m4_4 t_K t_Z
@t_r119 springDamper @t_m3_6 @t_m4_5 t_K t_Z
@t_r120 springDamper @t_m4_1 @t_m5_0 t_K t_Z
@t_r121 springDamper @t_m4_2 @t_m5_1 t_K t_Z
@t_r122 springDamper @t_m4_3 @t_m5_2 t_K t_Z
@t_r123 springDamper @t_m4_4 @t_m5_3 t_K t_Z
@t_r124 springDamper @t_m4_5 @t_m5_4 t_K t_Z
@t_r125 springDamper @t_m5_1 @t_m6_0 t_K t_Z
@t_r126 springDamper @t_m5_2 @t_m6_1 t_K t_Z
@t_r127 springDamper @t_m5_3 @t_m6_2 t_K t_Z
@t_r128 springDamper @t_m5_4 @t_m6_3 t_K t_Z
@t_r129 springDamper @t_m6_1 @t_m7_0 t_K t_Z
@t_r130 springDamper @t_m6_2 @t_m7_1 t_K t_Z
@t_r131 springDamper @t_m6_3 @t_m7_2 t_K t_Z
@t_r132 springDamper @t_m7_1 @t_m8_0 t_K t_Z
@t_r133 springDamper @t_m7_2 @t_m8_1 t_K t_Z
@t_r134 springDamper @t_m8_1 @t_m9_0 t_K t_Z
@me_M param 1
@me_K param 0.1
@me_Z param 0.001
@me_Zo param 0.00005
@me_m0_0 ground 0
@me_m0_1 osc me_M 0 me_Zo 0. 0.
@me_m0_2 osc me_M 0 me_Zo 0. 0.
@me_m0_3 osc me_M 0 me_Zo 0. 0.
@me_m0_4 osc me_M 0 me_Zo 0. 0.
@me_m0_5 osc me_M 0 me_Zo 0. 0.
@me_m0_6 osc me_M 0 me_Zo 0. 0.
@me_m0_7 osc me_M 0 me_Zo 0. 0.
@me_m0_8 osc me_M 0 me_Zo 0. 0.
@me_m0_9 ground 0
@me_m1_0 osc me_M 0 me_Zo 0. 0.
@me_m1_1 osc me_M 0 me_Zo 0. 0.
@me_m1_2 osc me_M 0 me_Zo 0. 0.
@me_m1_3 osc me_M 0 me_Zo 0. 0.
@me_m1_4 osc me_M 0 me_Zo 0. 0.
@me_m1_5 osc me_M 0 me_Zo 0. 0.
@me_m1_6 osc me_M 0 me_Zo 0. 0.
@me_m1_7 osc me_M 0 me_Zo 0. 0.
@me_m1_8 osc me_M 0 me_Zo 0. 0.
@me_m1_9 osc me_M 0 me_Zo 0. 0.
@me_m2_0 osc me_M 0 me_Zo 0. 0.
@me_m2_1 osc me_M 0 me_Zo 0. 0.
@me_m2_2 osc me_M 0 me_Zo 0. 0.
@me_m2_3 osc me_M 0 me_Zo 0. 0.
@me_m2_4 osc me_M 0 me_Zo 0. 0.
@me_m2_5 osc me_M 0 me_Zo 0. 0.
@me_m2_6 osc me_M 0 me_Zo 0. 0.
@me_m2_7 osc me_M 0 me_Zo 0. 0.
@me_m2_8 osc me_M 0 me_Zo 0. 0.
@me_m2_9 osc me_M 0 me_Zo 0. 0.
@me_m3_0 osc me_M 0 me_Zo 0. 0.
@me_m3_1 osc me_M 0 me_Zo 0. 0.
@me_m3_2 osc me_M 0 me_Zo 0. 0.
@me_m3_3 osc me_M 0 me_Zo 0. 0.
@me_m3_4 osc me_M 0 me_Zo 0. 0.
@me_m3_5 osc me_M 0 me_Zo 0. 0.
@me_m3_6 osc me_M 0 me_Zo 0. 0.
@me_m3_7 osc me_M 0 me_Zo 0. 0.
@me_m3_8 osc me_M 0 me_Zo 0. 0.
@me_m3_9 osc me_M 0 me_Zo 0. 0.
@me_m4_0 osc me_M 0 me_Zo 0. 0.
@me_m4_1 osc me_M 0 me_Zo 0. 0.
@me_m4_2 osc me_M 0 me_Zo 0. 0.
@me_m4_3 osc me_M 0 me_Zo 0. 0.
@me_m4_4 osc me_M 0 me_Zo 0. 0.
@me_m4_5 osc me_M 0 me_Zo 0. 0.
@me_m4_6 osc me_M 0 me_Zo 0. 0.
@me_m4_7 osc me_M 0 me_Zo 0. 0.
@me_m4_8 osc me_M 0 me_Zo 0. 0.
@me_m4_9 osc me_M 0 me_Zo 0. 0.
@me_m5_0 osc me_M 0 me_Zo 0. 0.
@me_m5_1 osc me_M 0 me_Zo 0. 0.
@me_m5_2 osc me_M 0 me_Zo 0. 0.
@me_m5_3 osc me_M 0 me_Zo 0. 0.
@me_m5_4 osc me_M 0 me_Zo 0. 0.
@me_m5_5 osc me_M 0 me_Zo 0. 0.
@me_m5_6 osc me_M 0 me_Zo 0. 0.
@me_m5_7 osc me_M 0 me_Zo 0. 0.
@me_m5_8 osc me_M 0 me_Zo 0. 0.
@me_m5_9 osc me_M 0 me_Zo 0. 0.
@me_m6_0 osc me_M 0 me_Zo 0. 0.
@me_m6_1 osc me_M 0 me_Zo 0. 0.
@me_m6_2 osc me_M 0 me_Zo 0. 0.
@me_m6_3 osc me_M 0 me_Zo 0. 0.
@me_m6_4 osc me_M 0 me_Zo 0. 0.
@me_m6_5 osc me_M 0 me_Zo 0. 0.
@me_m6_6 osc me_M 0 me_Zo 0. 0.
@me_m6_7 osc me_M 0 me_Zo 0. 0.
@me_m6_8 osc me_M 0 me_Zo 0. 0.
@me_m6_9 osc me_M 0 me_Zo 0. 0.
@me_m7_0 osc me_M 0 me_Zo 0. 0.
@me_m7_1 osc me_M 0 me_Zo 0. 0.
@me_m7_2 osc me_M 0 me_Zo 0. 0.
@me_m7_3 osc me_M 0 me_Zo 0. 0.
@me_m7_4 osc me_M 0 me_Zo 0. 0.
@me_m7_5 osc me_M 0 me_Zo 0. 0.
@me_m7_6 osc me_M 0 me_Zo 0. 0.
@me_m7_7 osc me_M 0 me_Zo 0. 0.
@me_m7_8 osc me_M 0 me_Zo 0. 0.
@me_m7_9 osc me_M 0 me_Zo 0. 0.
@me_m8_0 osc me_M 0 me_Zo 0. 0.
@me_m8_1 osc me_M 0 me_Zo 0. 0.
@me_m8_2 osc me_M 0 me_Zo 0. 0.
@me_m8_3 osc me_M 0 me_Zo 0. 0.
@me_m8_4 osc me_M 0 me_Zo 0. 0.
@me_m8_5 osc me_M 0 me_Zo 0. 0.
@me_m8_6 osc me_M 0 me_Zo 0. 0.
@me_m8_7 osc me_M 0 me_Zo 0. 0.
@me_m8_8 osc me_M 0 me_Zo 0. 0.
@me_m8_9 osc me_M 0 me_Zo 0. 0.
@me_m9_0 ground 0
@me_m9_1 osc me_M 0 me_Zo 0. 0.
@me_m9_2 osc me_M 0 me_Zo 0. 0.
@me_m9_3 osc me_M 0 me_Zo 0. 0.
@me_m9_4 osc me_M 0 me_Zo 0. 0.
@me_m9_5 osc me_M 0 me_Zo 0. 0.
@me_m9_6 osc me_M 0 me_Zo 0. 0.
@me_m9_7 osc me_M 0 me_Zo 0. 0.
@me_m9_8 osc me_M 0 me_Zo 0. 0.
@me_m9_9 ground 0
@me_r0 springDamper @me_m0_0 @me_m0_1 me_K me_Z
@me_r1 springDamper @me_m0_1 @me_m0_2 me_K me_Z
@me_r2 springDamper @me_m0_2 @me_m0_3 me_K me_Z
@me_r3 springDamper @me_m0_3 @me_m0_4 me_K me_Z
@me_r4 springDamper @me_m0_4 @me_m0_5 me_K me_Z
@me_r5 springDamper @me_m0_5 @me_m0_6 me_K me_Z
@me_r6 springDamper @me_m0_6 @me_m0_7 me_K me_Z
@me_r7 springDamper @me_m0_7 @me_m0_8 me_K me_Z
@me_r8 springDamper @me_m0_8 @me_m0_9 me_K me_Z
@me_r9 springDamper @me_m1_0 @me_m1_1 me_K me_Z
@me_r10 springDamper @me_m1_1 @me_m1_2 me_K me_Z
@me_r11 springDamper @me_m1_2 @me_m1_3 me_K me_Z
@me_r12 springDamper @me_m1_3 @me_m1_4 me_K me_Z
@me_r13 springDamper @me_m1_4 @me_m1_5 me_K me_Z
@me_r14 springDamper @me_m1_5 @me_m1_6 me_K me_Z
@me_r15 springDamper @me_m1_6 @me_m1_7 me_K me_Z
@me_r16 springDamper @me_m1_7 @me_m1_8 me_K me_Z
@me_r17 springDamper @me_m1_8 @me_m1_9 me_K me_Z
@me_r18 springDamper @me_m2_0 @me_m2_1 me_K me_Z
@me_r19 springDamper @me_m2_1 @me_m2_2 me_K me_Z
@me_r20 springDamper @me_m2_2 @me_m2_3 me_K me_Z
@me_r21 springDamper @me_m2_3 @me_m2_4 me_K me_Z
@me_r22 springDamper @me_m2_4 @me_m2_5 me_K me_Z
@me_r23 springDamper @me_m2_5 @me_m2_6 me_K me_Z
@me_r24 springDamper @me_m2_6 @me_m2_7 me_K me_Z
@me_r25 springDamper @me_m2_7 @me_m2_8 me_K me_Z
@me_r26 springDamper @me_m2_8 @me_m2_9 me_K me_Z
@me_r27 springDamper @me_m3_0 @me_m3_1 me_K me_Z
@me_r28 springDamper @me_m3_1 @me_m3_2 me_K me_Z
@me_r29 springDamper @me_m3_2 @me_m3_3 me_K me_Z
@me_r30 springDamper @me_m3_3 @me_m3_4 me_K me_Z
@me_r31 springDamper @me_m3_4 @me_m3_5 me_K me_Z
@me_r32 springDamper @me_m3_5 @me_m3_6 me_K me_Z
@me_r33 springDamper @me_m3_6 @me_m3_7 me_K me_Z
@me_r34 springDamper @me_m3_7 @me_m3_8 me_K me_Z
@me_r35 springDamper @me_m3_8 @me_m3_9 me_K me_Z
@me_r36 springDamper @me_m4_0 @me_m4_1 me_K me_Z
@me_r37 springDamper @me_m4_1 @me_m4_2 me_K me_Z
@me_r38 springDamper @me_m4_2 @me_m4_3 me_K me_Z
@me_r39 springDamper @me_m4_3 @me_m4_4 me_K me_Z
@me_r40 springDamper @me_m4_4 @me_m4_5 me_K me_Z
@me_r41 springDamper @me_m4_5 @me_m4_6 me_K me_Z
@me_r42 springDamper @me_m4_6 @me_m4_7 me_K me_Z
@me_r43 springDamper @me_m4_7 @me_m4_8 me_K me_Z
@me_r44 springDamper @me_m4_8 @me_m4_9 me_K me_Z
@me_r45 springDamper @me_m5_0 @me_m5_1 me_K me_Z
@me_r46 springDamper @me_m5_1 @me_m5_2 me_K me_Z
@me_r47 springDamper @me_m5_2 @me_m5_3 me_K me_Z
@me_r48 springDamper @me_m5_3 @me_m5_4 me_K me_Z
@me_r49 springDamper @me_m5_4 @me_m5_5 me_K me_Z
@me_r50 springDamper @me_m5_5 @me_m5_6 me_K me_Z
@me_r51 springDamper @me_m5_6 @me_m5_7 me_K me_Z
@me_r52 springDamper @me_m5_7 @me_m5_8 me_K me_Z
@me_r53 springDamper @me_m5_8 @me_m5_9 me_K me_Z
@me_r54 springDamper @me_m6_0 @me_m6_1 me_K me_Z
@me_r55 springDamper @me_m6_1 @me_m6_2 me_K me_Z
@me_r56 springDamper @me_m6_2 @me_m6_3 me_K me_Z
@me_r57 springDamper @me_m6_3 @me_m6_4 me_K me_Z
@me_r58 springDamper @me_m6_4 @me_m6_5 me_K me_Z
@me_r59 springDamper @me_m6_5 @me_m6_6 me_K me_Z
@me_r60 springDamper @me_m6_6 @me_m6_7 me_K me_Z
@me_r61 springDamper @me_m6_7 @me_m6_8 me_K me_Z
@me_r62 springDamper @me_m6_8 @me_m6_9 me_K me_Z
@me_r63 springDamper @me_m7_0 @me_m7_1 me_K me_Z
@me_r64 springDamper @me_m7_1 @me_m7_2 me_K me_Z
@me_r65 springDamper @me_m7_2 @me_m7_3 me_K me_Z
@me_r66 springDamper @me_m7_3 @me_m7_4 me_K me_Z
@me_r67 springDamper @me_m7_4 @me_m7_5 me_K me_Z
@me_r68 springDamper @me_m7_5 @me_m7_6 me_K me_Z
@me_r69 springDamper @me_m7_6 @me_m7_7 me_K me_Z
@me_r70 springDamper @me_m7_7 @me_m7_8 me_K me_Z
@me_r71 springDamper @me_m7_8 @me_m7_9 me_K me_Z
@me_r72 springDamper @me_m8_0 @me_m8_1 me_K me_Z
@me_r73 springDamper @me_m8_1 @me_m8_2 me_K me_Z
@me_r74 springDamper @me_m8_2 @me_m8_3 me_K me_Z
@me_r75 springDamper @me_m8_3 @me_m8_4 me_K me_Z
@me_r76 springDamper @me_m8_4 @me_m8_5 me_K me_Z
@me_r77 springDamper @me_m8_5 @me_m8_6 me_K me_Z
@me_r78 springDamper @me_m8_6 @me_m8_7 me_K me_Z
@me_r79 springDamper @me_m8_7 @me_m8_8 me_K me_Z
@me_r80 springDamper @me_m8_8 @me_m8_9 me_K me_Z
@me_r81 springDamper @me_m9_0 @me_m9_1 me_K me_Z
@me_r82 springDamper @me_m9_1 @me_m9_2 me_K me_Z
@me_r83 springDamper @me_m9_2 @me_m9_3 me_K me_Z
@me_r84 springDamper @me_m9_3 @me_m9_4 me_K me_Z
@me_r85 springDamper @me_m9_4 @me_m9_5 me_K me_Z
@me_r86 springDamper @me_m9_5 @me_m9_6 me_K me_Z
@me_r87 springDamper @me_m9_6 @me_m9_7 me_K me_Z
@me_r88 springDamper @me_m9_7 @me_m9_8 me_K me_Z
@me_r89 springDamper @me_m9_8 @me_m9_9 me_K me_Z
@me_r90 springDamper @me_m0_0 @me_m1_0 me_K me_Z
@me_r91 springDamper @me_m0_1 @me_m1_1 me_K me_Z
@me_r92 springDamper @me_m0_2 @me_m1_2 me_K me_Z
@me_r93 springDamper @me_m0_3 @me_m1_3 me_K me_Z
@me_r94 springDamper @me_m0_4 @me_m1_4 me_K me_Z
@me_r95 springDamper @me_m0_5 @me_m1_5 me_K me_Z
@me_r96 springDamper @me_m0_6 @me_m1_6 me_K me_Z
@me_r97 springDamper @me_m0_7 @me_m1_7 me_K me_Z
@me_r98 springDamper @me_m0_8 @me_m1_8 me_K me_Z
@me_r99 springDamper @me_m0_9 @me_m1_9 me_K me_Z
@me_r100 springDamper @me_m1_0 @me_m2_0 me_K me_Z
@me_r101 springDamper @me_m1_1 @me_m2_1 me_K me_Z
@me_r102 springDamper @me_m1_2 @me_m2_2 me_K me_Z
@me_r103 springDamper @me_m1_3 @me_m2_3 me_K me_Z
@me_r104 springDamper @me_m1_4 @me_m2_4 me_K me_Z
@me_r105 springDamper @me_m1_5 @me_m2_5 me_K me_Z
@me_r106 springDamper @me_m1_6 @me_m2_6 me_K me_Z
@me_r107 springDamper @me_m1_7 @me_m2_7 me_K me_Z
@me_r108 springDamper @me_m1_8 @me_m2_8 me_K me_Z
@me_r109 springDamper @me_m1_9 @me_m2_9 me_K me_Z
@me_r110 springDamper @me_m2_0 @me_m3_0 me_K me_Z
@me_r111 springDamper @me_m2_1 @me_m3_1 me_K me_Z
@me_r112 springDamper @me_m2_2 @me_m3_2 me_K me_Z
@me_r113 springDamper @me_m2_3 @me_m3_3 me_K me_Z
@me_r114 springDamper @me_m2_4 @me_m3_4 me_K me_Z
@me_r115 springDamper @me_m2_5 @me_m3_5 me_K me_Z
@me_r116 springDamper @me_m2_6 @me_m3_6 me_K me_Z
@me_r117 springDamper @me_m2_7 @me_m3_7 me_K me_Z
@me_r118 springDamper @me_m2_8 @me_m3_8 me_K me_Z
@me_r119 springDamper @me_m2_9 @me_m3_9 me_K me_Z
@me_r120 springDamper @me_m3_0 @me_m4_0 me_K me_Z
@me_r121 springDamper @me_m3_1 @me_m4_1 me_K me_Z
@me_r122 springDamper @me_m3_2 @me_m4_2 me_K me_Z
@me_r123 springDamper @me_m3_3 @me_m4_3 me_K me_Z
@me_r124 springDamper @me_m3_4 @me_m4_4 me_K me_Z
@me_r125 springDamper @me_m3_5 @me_m4_5 me_K me_Z
@me_r126 springDamper @me_m3_6 @me_m4_6 me_K me_Z
@me_r127 springDamper @me_m3_7 @me_m4_7 me_K me_Z
@me_r128 springDamper @me_m3_8 @me_m4_8 me_K me_Z
@me_r129 springDamper @me_m3_9 @me_m4_9 me_K me_Z
@me_r130 springDamper @me_m4_0 @me_m5_0 me_K me_Z
@me_r131 springDamper @me_m4_1 @me_m5_1 me_K me_Z
@me_r132 springDamper @me_m4_2 @me_m5_2 me_K me_Z
@me_r133 springDamper @me_m4_3 @me_m5_3 me_K me_Z
@me_r134 springDamper @me_m4_4 @me_m5_4 me_K me_Z
@me_r135 springDamper @me_m4_5 @me_m5_5 me_K me_Z
@me_r136 springDamper @me_m4_6 @me_m5_6 me_K me_Z
@me_r137 springDamper @me_m4_7 @me_m5_7 me_K me_Z
@me_r138 springDamper @me_m4_8 @me_m5_8 me_K me_Z
@me_r139 springDamper @me_m4_9 @me_m5_9 me_K me_Z
@me_r140 springDamper @me_m5_0 @me_m6_0 me_K me_Z
@me_r141 springDamper @me_m5_1 @me_m6_1 me_K me_Z
@me_r142 springDamper @me_m5_2 @me_m6_2 me_K me_Z
@me_r143 springDamper @me_m5_3 @me_m6_3 me_K me_Z
@me_r144 springDamper @me_m5_4 @me_m6_4 me_K me_Z
@me_r145 springDamper @me_m5_5 @me_m6_5 me_K me_Z
@me_r146 springDamper @me_m5_6 @me_m6_6 me_K me_Z
@me_r147 springDamper @me_m5_7 @me_m6_7 me_K me_Z
@me_r148 springDamper @me_m5_8 @me_m6_8 me_K me_Z
@me_r149 springDamper @me_m5_9 @me_m6_9 me_K me_Z
@me_r150 springDamper @me_m6_0 @me_m7_0 me_K me_Z
@me_r151 springDamper @me_m6_1 @me_m7_1 me_K me_Z
@me_r152 springDamper @me_m6_2 @me_m7_2 me_K me_Z
@me_r153 springDamper @me_m6_3 @me_m7_3 me_K me_Z
@me_r154 springDamper @me_m6_4 @me_m7_4 me_K me_Z
@me_r155 springDamper @me_m6_5 @me_m7_5 me_K me_Z
@me_r156 springDamper @me_m6_6 @me_m7_6 me_K me_Z
@me_r157 springDamper @me_m6_7 @me_m7_7 me_K me_Z
@me_r158 springDamper @me_m6_8 @me_m7_8 me_K me_Z
@me_r159 springDamper @me_m6_9 @me_m7_9 me_K me_Z
@me_r160 springDamper @me_m7_0 @me_m8_0 me_K me_Z
@me_r161 springDamper @me_m7_1 @me_m8_1 me_K me_Z
@me_r162 springDamper @me_m7_2 @me_m8_2 me_K me_Z
@me_r163 springDamper @me_m7_3 @me_m8_3 me_K me_Z
@me_r164 springDamper @me_m7_4 @me_m8_4 me_K me_Z
@me_r165 springDamper @me_m7_5 @me_m8_5 me_K me_Z
@me_r166 springDamper @me_m7_6 @me_m8_6 me_K me_Z
@me_r167 springDamper @me_m7_7 @me_m8_7 me_K me_Z
@me_r168 springDamper @me_m7_8 @me_m8_8 me_K me_Z
@me_r169 springDamper @me_m7_9 @me_m8_9 me_K me_Z
@me_r170 springDamper @me_m8_0 @me_m9_0 me_K me_Z
@me_r171 springDamper @me_m8_1 @me_m9_1 me_K me_Z
@me_r172 springDamper @me_m8_2 @me_m9_2 me_K me_Z
@me_r173 springDamper @me_m8_3 @me_m9_3 me_K me_Z
@me_r174 springDamper @me_m8_4 @me_m9_4 me_K me_Z
@me_r175 springDamper @me_m8_5 @me_m9_5 me_K me_Z
@me_r176 springDamper @me_m8_6 @me_m9_6 me_K me_Z
@me_r177 springDamper @me_m8_7 @me_m9_7 me_K me_Z
@me_r178 springDamper @me_m8_8 @me_m9_8 me_K me_Z
@me_r179 springDamper @me_m8_9 @me_m9_9 me_K me_Z
@out1 posOutput @me_m5_5
@out2 posOutput @t_m2_1
|
declare name "StrangeConstruct";
declare author "James Leonard";
declare date "April 2020";
import("stdfaust.lib");
in1 = _ : ba.impulsify * hslider("scaling", 0.9, 0.01, 0.9, 0.001) * -1;
OutGain = 1;
t_M = 1;
t_K = hslider("stiffness", 0.1, 0.001, 0.2, 0.0001);
t_Z = hslider("damping", 0.0001, 0.00, 0.0008, 0.000001);
t_Zo = 0.00005;
me_M = 1;
me_K = hslider("stiffness", 0.1, 0.001, 0.2, 0.0001);
me_Z = hslider("damping", 0.0001, 0.00, 0.0008, 0.000001);
me_Zo = 0.00005;
model = (
mi.mass(0.3, 0, 1., 1.),
mi.ground(1.),
mi.ground(0),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.ground(0),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.oscil(t_M, 0, t_Zo, 0, 0., 0.),
mi.ground(0),
mi.ground(0),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.ground(0),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.ground(0),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.oscil(me_M, 0, me_Zo, 0, 0., 0.),
mi.ground(0),
par(i, nbFrcIn,_):
RoutingMassToLink ,
par(i, nbFrcIn,_):
mi.springDamper(0.0001, 0.05, 1., 1.),
mi.nlCollisionClipped(0.0, 0.01, 0.5, 0.001, 0, 0., 1.),
mi.nlSpringDamperClipped(0.01, 0.01, 0.2, 0., 0., 0.),
mi.springDamper(t_K, t_Z, 0, 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0, 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0, 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0.),
mi.springDamper(t_K, t_Z, 0., 0),
mi.springDamper(me_K, me_Z, 0, 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0, 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0),
mi.springDamper(me_K, me_Z, 0, 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0, 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0.),
mi.springDamper(me_K, me_Z, 0., 0),
par(i, nbOut+nbFrcIn, _):
RoutingLinkToMass
)~par(i, nbMass, _):
par(i, nbMass, !), par(i, nbOut , _)
with{
nbMass = 157;
nbFrcIn = 1;
nbOut = 2;
};
process = in1 : model:*(OutGain), *(OutGain);
|
089cd416e9856d3170222f580f81afb2d448dcda3829520bf58d2731083f1755
|
JoeWrightMusic/QuickNDirtyFaustSynths
|
Water.dsp
|
import("stdfaust.lib");
//Utilities-----------
lfNoise(freq) = no.lfnoise0(freq):si.smooth(ba.tau2pole(1/freq));
randRangeNoInt(freq, lo, hi) = no.lfnoise0(freq)*((hi-lo)*0.5)+(lo+((hi-lo)*0.5));
dust(freq, thresh) = no.lfnoise(freq) >(thresh);
clip(in, thresh) = in : min(thresh) : max(thresh * -1);
waterflow = hslider("waterflow", 140, 100, 400,0.01);
trigs = dust(waterflow, 0.7);
env = en.ar(0.015,1,trigs);
freq = ba.midikey2hz(randRangeNoInt(waterflow, 70, 98)) + (lfNoise(20)*300) + (env*17);
someWater = os.osc(freq)*0.3*env:fi.lowpass(1, 700);
stream = someWater+someWater+someWater+someWater*0.2;
vol = hslider("vol", 0, 0,1,0.01);
process = someWater*vol;
|
https://raw.githubusercontent.com/JoeWrightMusic/QuickNDirtyFaustSynths/ea69cff586c41aabd9e057c7171fa9a5043fd79b/Textures/Water/Water.dsp
|
faust
|
Utilities-----------
|
import("stdfaust.lib");
lfNoise(freq) = no.lfnoise0(freq):si.smooth(ba.tau2pole(1/freq));
randRangeNoInt(freq, lo, hi) = no.lfnoise0(freq)*((hi-lo)*0.5)+(lo+((hi-lo)*0.5));
dust(freq, thresh) = no.lfnoise(freq) >(thresh);
clip(in, thresh) = in : min(thresh) : max(thresh * -1);
waterflow = hslider("waterflow", 140, 100, 400,0.01);
trigs = dust(waterflow, 0.7);
env = en.ar(0.015,1,trigs);
freq = ba.midikey2hz(randRangeNoInt(waterflow, 70, 98)) + (lfNoise(20)*300) + (env*17);
someWater = os.osc(freq)*0.3*env:fi.lowpass(1, 700);
stream = someWater+someWater+someWater+someWater*0.2;
vol = hslider("vol", 0, 0,1,0.01);
process = someWater*vol;
|
1c3f0e8900a64961a6dcbee4b9fc57b0906be8033914727084362c2baf770384
|
JoeWrightMusic/QuickNDirtyFaustSynths
|
Simple2opFM.dsp
|
import("stdfaust.lib");
//____________________________________________________________________________________FM2OSC
trig = button("trig");
freq = hslider("freq",200,10,20000,0.01):si.smoo;
mMul = hslider("mMul",0.5,0.0,100,0.0001):si.smoo;
dMul = hslider("dMul",0.5,0.00,10,0.0001):si.smoo;
aM = hslider("aM",0.1,0.01,10,0.01);
dM = hslider("dM",0.1,0.01,10,0.01);
sM = hslider("sM",0.8,0.0,1,0.01);
rM = hslider("rM",0.1,0.01,10,0.01);
aC = hslider("aC",0.1,0.01,10,0.01);
dC = hslider("dC",0.1,0.01,10,0.01);
sC = hslider("sC",0.8,0.0,1,0.01);
rC = hslider("rC",0.1,0.01,10,0.01);
fm2op(freq,mMul,dMul,trig, am,dm,sm,rm, ac,dc,sc,rc) =
os.osc(
freq+(os.osc(freq*mMul)*freq*dMul*en.adsr(am,dm,sm,rm,trig))
)*en.adsr(ac,dc,sc,rc, trig);
process = fm2op(freq,mMul,dMul,trig, aM,dM,sM,rM, aC,dC,sC,rC);
// re.mono_freeverb(0.5,0.9,0.1,0.5)
|
https://raw.githubusercontent.com/JoeWrightMusic/QuickNDirtyFaustSynths/995047809aaaa0083340cdbcb727ceae0fc01a88/Basic/Simple2opFM.dsp
|
faust
|
____________________________________________________________________________________FM2OSC
re.mono_freeverb(0.5,0.9,0.1,0.5)
|
import("stdfaust.lib");
trig = button("trig");
freq = hslider("freq",200,10,20000,0.01):si.smoo;
mMul = hslider("mMul",0.5,0.0,100,0.0001):si.smoo;
dMul = hslider("dMul",0.5,0.00,10,0.0001):si.smoo;
aM = hslider("aM",0.1,0.01,10,0.01);
dM = hslider("dM",0.1,0.01,10,0.01);
sM = hslider("sM",0.8,0.0,1,0.01);
rM = hslider("rM",0.1,0.01,10,0.01);
aC = hslider("aC",0.1,0.01,10,0.01);
dC = hslider("dC",0.1,0.01,10,0.01);
sC = hslider("sC",0.8,0.0,1,0.01);
rC = hslider("rC",0.1,0.01,10,0.01);
fm2op(freq,mMul,dMul,trig, am,dm,sm,rm, ac,dc,sc,rc) =
os.osc(
freq+(os.osc(freq*mMul)*freq*dMul*en.adsr(am,dm,sm,rm,trig))
)*en.adsr(ac,dc,sc,rc, trig);
process = fm2op(freq,mMul,dMul,trig, aM,dM,sM,rM, aC,dC,sC,rC);
|
6940ac792ec2bbbc94dcf46c6afd907b69052db078a42732d941b1af1ec96b14
|
JoeWrightMusic/QuickNDirtyFaustSynths
|
PMTrombone.dsp
|
import("stdfaust.lib");
//volume / vibrato / smoothing
vol = hslider("vol",35,0,100,0.01);
vib = hslider("vib",0,-1,1,0.01);
smoo = hslider("smoo",0.1,0,1,0.1);
//brass model parameters
tubeLength = hslider("length",3.3,0,5,0.01);
lipsTension = hslider("lipsTension",0.62,0,1,0.01);
mute = hslider("mute",0,0,1,0.01);
pressure = hslider("pressure",0.05,0,1,0.01);
//non-player vibrato
autoVibHz = hslider("autoVibHz", 4, 0, 10, 0.01);
autoVibWidth = hslider("autoVibWidth", 0.05, 0, 1, 0.01);
//phasor
phasor(freq) = (+(freq/ma.SR) ~ ma.decimal);
//sine
osc(freq, amp) = sin(phasor(freq)*2*ma.PI)*amp;
//autovib
autoVib = 1+(osc(autoVibHz, autoVibWidth));
//envelopes
toneGate = button("toneGate");
toneEnv = en.adsr(0.01,0.01,0.7,0.15,toneGate);
pressEnv = en.adsr(0.01,0.01,0.9,0.15,toneGate)+0.1;
tbLen=(tubeLength+(vib*0.1)) : si.smooth(ba.tau2pole(smoo));
tbTens=(lipsTension) : si.smooth(ba.tau2pole(smoo));
tbMute=(mute) : si.smooth(ba.tau2pole(smoo));
tbPress=((pressure+(vib*0.02))*autoVib)*pressEnv : si.smooth(ba.tau2pole(smoo));
//brass PM
trombone = pm.brassModel(tbLen,tbTens,tbMute,tbPress);
process = trombone*autoVib*vol*toneEnv;
|
https://raw.githubusercontent.com/JoeWrightMusic/QuickNDirtyFaustSynths/ea69cff586c41aabd9e057c7171fa9a5043fd79b/Instruments/Trombone/PMTrombone.dsp
|
faust
|
volume / vibrato / smoothing
brass model parameters
non-player vibrato
phasor
sine
autovib
envelopes
brass PM
|
import("stdfaust.lib");
vol = hslider("vol",35,0,100,0.01);
vib = hslider("vib",0,-1,1,0.01);
smoo = hslider("smoo",0.1,0,1,0.1);
tubeLength = hslider("length",3.3,0,5,0.01);
lipsTension = hslider("lipsTension",0.62,0,1,0.01);
mute = hslider("mute",0,0,1,0.01);
pressure = hslider("pressure",0.05,0,1,0.01);
autoVibHz = hslider("autoVibHz", 4, 0, 10, 0.01);
autoVibWidth = hslider("autoVibWidth", 0.05, 0, 1, 0.01);
phasor(freq) = (+(freq/ma.SR) ~ ma.decimal);
osc(freq, amp) = sin(phasor(freq)*2*ma.PI)*amp;
autoVib = 1+(osc(autoVibHz, autoVibWidth));
toneGate = button("toneGate");
toneEnv = en.adsr(0.01,0.01,0.7,0.15,toneGate);
pressEnv = en.adsr(0.01,0.01,0.9,0.15,toneGate)+0.1;
tbLen=(tubeLength+(vib*0.1)) : si.smooth(ba.tau2pole(smoo));
tbTens=(lipsTension) : si.smooth(ba.tau2pole(smoo));
tbMute=(mute) : si.smooth(ba.tau2pole(smoo));
tbPress=((pressure+(vib*0.02))*autoVib)*pressEnv : si.smooth(ba.tau2pole(smoo));
trombone = pm.brassModel(tbLen,tbTens,tbMute,tbPress);
process = trombone*autoVib*vol*toneEnv;
|
df786edd66c1cee11f9221e97074e589fbcc0f93aaf68246a251cf5e744e7a8a
|
JoeWrightMusic/QuickNDirtyFaustSynths
|
Fire.dsp
|
import("stdfaust.lib");
//Utilities-----------
lfNoise(freq) = no.lfnoise0(freq):si.smooth(ba.tau2pole(1/freq));
randRange(freq, lo, hi) = lfNoise(freq)*((hi-lo)*0.5)+(hi-(lo));
dust(freq, thresh) = no.lfnoise(freq) >(thresh);
clip(in, thresh) = in : min(thresh) : max(thresh * -1);
//FIRE------------------
phutBalance=0.4;
popBalance=1;
hissBalance=0.05;
woofBalance=0.3;
hiss(freq) = no.noise * lfNoise(freq)*lfNoise(freq): fi.resonhp(randRange(freq*0.4,2500,10000),3,0.5)*hissBalance;
phut(freq) = en.ar(0.00001, randRange(5, 0.0,0.02), dust(freq, 0.7))*no.noise : fi.resonlp(randRange(freq,900,3000),4,0.5) * phutBalance * lfNoise(freq);
pop(freq) = en.ar(0.000001,0.00001,dust(freq, 0.7)):fi.resonlp(randRange(freq*10,600,15000),1,1) * popBalance * lfNoise(freq*0.2)*lfNoise(freq*0.5);
woof(freq) = no.pink_noise * lfNoise(freq)*lfNoise(freq)*100: fi.resonlp(randRange(freq*0.4,80,150),3,0.5) : clip(_, 1): fi.resonlp(2000,1,1);
fire(dens) = woof(1) + woof(1 + dens*0.4) + hiss(dens*0.05 ) + phut(dens*0.9) + pop(1 +(dens*100) ) : clip(_, 1): co.limiter_1176_R4_mono;
fireDens = hslider("firedens", 1, 0.5, 100, 0.01);
vol = hslider("vol", 0, 0,1,0.01);
// process = vol*hiss;
// process = phut(0.9)+pop(10)+hiss(1)+hiss(0.7),phut(0.9)+pop(10)+hiss(1)+hiss(0.7): _*vol,_*vol;
process = fire(fireDens)*vol;
|
https://raw.githubusercontent.com/JoeWrightMusic/QuickNDirtyFaustSynths/ea69cff586c41aabd9e057c7171fa9a5043fd79b/Textures/Fire/Fire.dsp
|
faust
|
Utilities-----------
FIRE------------------
process = vol*hiss;
process = phut(0.9)+pop(10)+hiss(1)+hiss(0.7),phut(0.9)+pop(10)+hiss(1)+hiss(0.7): _*vol,_*vol;
|
import("stdfaust.lib");
lfNoise(freq) = no.lfnoise0(freq):si.smooth(ba.tau2pole(1/freq));
randRange(freq, lo, hi) = lfNoise(freq)*((hi-lo)*0.5)+(hi-(lo));
dust(freq, thresh) = no.lfnoise(freq) >(thresh);
clip(in, thresh) = in : min(thresh) : max(thresh * -1);
phutBalance=0.4;
popBalance=1;
hissBalance=0.05;
woofBalance=0.3;
hiss(freq) = no.noise * lfNoise(freq)*lfNoise(freq): fi.resonhp(randRange(freq*0.4,2500,10000),3,0.5)*hissBalance;
phut(freq) = en.ar(0.00001, randRange(5, 0.0,0.02), dust(freq, 0.7))*no.noise : fi.resonlp(randRange(freq,900,3000),4,0.5) * phutBalance * lfNoise(freq);
pop(freq) = en.ar(0.000001,0.00001,dust(freq, 0.7)):fi.resonlp(randRange(freq*10,600,15000),1,1) * popBalance * lfNoise(freq*0.2)*lfNoise(freq*0.5);
woof(freq) = no.pink_noise * lfNoise(freq)*lfNoise(freq)*100: fi.resonlp(randRange(freq*0.4,80,150),3,0.5) : clip(_, 1): fi.resonlp(2000,1,1);
fire(dens) = woof(1) + woof(1 + dens*0.4) + hiss(dens*0.05 ) + phut(dens*0.9) + pop(1 +(dens*100) ) : clip(_, 1): co.limiter_1176_R4_mono;
fireDens = hslider("firedens", 1, 0.5, 100, 0.01);
vol = hslider("vol", 0, 0,1,0.01);
process = fire(fireDens)*vol;
|
5e4d80e508bc1d045ee1ae88d2081afa7a00f54682ae5be42360070bad69f445
|
JoeWrightMusic/QuickNDirtyFaustSynths
|
FireWater.dsp
|
import("stdfaust.lib");
smthFactor = hslider("smthFactor",0.2,0,2,0.01);
volSmth = hslider("volSmth",0.2,0,2,0.01);
fireWater = hslider("fireWater",0,0,1,0.01);//:si.smooth(ba.tau2pole(smthFactor));
vol = hslider("vol", 0, 0,1,0.01):si.smooth(ba.tau2pole(volSmth));
waterSmth = hslider("waterSmth",0.2,0,4,0.01);
waterVol = (0.33-(fireWater)) : max(0) *3 : si.smooth(ba.tau2pole(waterSmth));
maxWater = hslider("maxWater", 300, 0,900,0.01);
waterflow = waterVol*waterVol*maxWater +1;
fireAmt = (-0.3+(fireWater)) : max(0.1);
//Volumes
phutBalance=hslider("phut",0.4,0,1,0.01);
popBalance=hslider("pop",0.4,0,1,0.01 );
maxPop=hslider("maxPop",30,20,200,0.01);
hissBalance=hslider("hiss",0.05,0,1,0.01);
woofBalance=hslider("woof",0.1,0,1,0.01);
waterBalance=hslider("water",0.2,0,1,0.01);
//Utilities-----------
lfNoise(freq) = no.lfnoise0(freq):si.smooth(ba.tau2pole(1/freq));
randRange0(freq, lo, hi) = no.lfnoise0(freq)*((hi-lo)*0.5)+(lo+((hi-lo)*0.5));
randRange1(freq, lo, hi) = lfNoise(freq)*((hi-lo)*0.5)+(hi-(lo));
dust(freq, thresh) = no.lfnoise0(freq) >(thresh);
clip(in, thresh) = in : min(thresh) : max(thresh * -1);
//WATER
trigs = dust(waterflow, 0.7);
env = en.ar(0.015,1,trigs);
freq = ba.midikey2hz(randRange0(waterflow, 70, 98)) + (lfNoise(20)*300) + (env*17);
someWater = os.osc(freq)*0.3*env:fi.fi.lowpass3e(800);
stream = (someWater+someWater)*0.2*waterVol;
//FIRE
hiss(freq) = no.noise * lfNoise(freq)*lfNoise(freq): fi.resonhp(randRange1(freq*0.4,2500,10000),3,0.5)*hissBalance;
phut(freq) = en.ar(0.00001, randRange1(5, 0.0001,0.02), dust(freq, 0.7))*no.noise : fi.resonlp(randRange1(freq,900,3000),4,0.5) * lfNoise(freq) * phutBalance;
pop(freq) = en.ar(0.000001,0.00001,dust(freq, 0.7)):fi.resonlp(randRange1(freq*10,600,15000),1,1) * lfNoise(freq*0.2)*lfNoise(freq*0.5) * popBalance;
woof(freq) = no.pink_noise * lfNoise(freq)*lfNoise(freq)*100: fi.resonlp(randRange1(freq*0.4,80,150),3,0.5) : clip(_, 1): fi.resonlp(2000,1,1)*woofBalance;
fire = woof(1) + woof(1 + fireAmt*20) + hiss(fireAmt) + phut(1 + fireAmt*(maxPop*0.1)) + pop(fireAmt*maxPop) : clip(_, 1): co.limiter_1176_R4_mono*fireWater;
process = (stream+(fire))*vol;
// process = (stream+(fire))*vol;
|
https://raw.githubusercontent.com/JoeWrightMusic/QuickNDirtyFaustSynths/ea69cff586c41aabd9e057c7171fa9a5043fd79b/Textures/FireWater/FireWater.dsp
|
faust
|
:si.smooth(ba.tau2pole(smthFactor));
Volumes
Utilities-----------
WATER
FIRE
process = (stream+(fire))*vol;
|
import("stdfaust.lib");
smthFactor = hslider("smthFactor",0.2,0,2,0.01);
volSmth = hslider("volSmth",0.2,0,2,0.01);
vol = hslider("vol", 0, 0,1,0.01):si.smooth(ba.tau2pole(volSmth));
waterSmth = hslider("waterSmth",0.2,0,4,0.01);
waterVol = (0.33-(fireWater)) : max(0) *3 : si.smooth(ba.tau2pole(waterSmth));
maxWater = hslider("maxWater", 300, 0,900,0.01);
waterflow = waterVol*waterVol*maxWater +1;
fireAmt = (-0.3+(fireWater)) : max(0.1);
phutBalance=hslider("phut",0.4,0,1,0.01);
popBalance=hslider("pop",0.4,0,1,0.01 );
maxPop=hslider("maxPop",30,20,200,0.01);
hissBalance=hslider("hiss",0.05,0,1,0.01);
woofBalance=hslider("woof",0.1,0,1,0.01);
waterBalance=hslider("water",0.2,0,1,0.01);
lfNoise(freq) = no.lfnoise0(freq):si.smooth(ba.tau2pole(1/freq));
randRange0(freq, lo, hi) = no.lfnoise0(freq)*((hi-lo)*0.5)+(lo+((hi-lo)*0.5));
randRange1(freq, lo, hi) = lfNoise(freq)*((hi-lo)*0.5)+(hi-(lo));
dust(freq, thresh) = no.lfnoise0(freq) >(thresh);
clip(in, thresh) = in : min(thresh) : max(thresh * -1);
trigs = dust(waterflow, 0.7);
env = en.ar(0.015,1,trigs);
freq = ba.midikey2hz(randRange0(waterflow, 70, 98)) + (lfNoise(20)*300) + (env*17);
someWater = os.osc(freq)*0.3*env:fi.fi.lowpass3e(800);
stream = (someWater+someWater)*0.2*waterVol;
hiss(freq) = no.noise * lfNoise(freq)*lfNoise(freq): fi.resonhp(randRange1(freq*0.4,2500,10000),3,0.5)*hissBalance;
phut(freq) = en.ar(0.00001, randRange1(5, 0.0001,0.02), dust(freq, 0.7))*no.noise : fi.resonlp(randRange1(freq,900,3000),4,0.5) * lfNoise(freq) * phutBalance;
pop(freq) = en.ar(0.000001,0.00001,dust(freq, 0.7)):fi.resonlp(randRange1(freq*10,600,15000),1,1) * lfNoise(freq*0.2)*lfNoise(freq*0.5) * popBalance;
woof(freq) = no.pink_noise * lfNoise(freq)*lfNoise(freq)*100: fi.resonlp(randRange1(freq*0.4,80,150),3,0.5) : clip(_, 1): fi.resonlp(2000,1,1)*woofBalance;
fire = woof(1) + woof(1 + fireAmt*20) + hiss(fireAmt) + phut(1 + fireAmt*(maxPop*0.1)) + pop(fireAmt*maxPop) : clip(_, 1): co.limiter_1176_R4_mono*fireWater;
process = (stream+(fire))*vol;
|
9df0aa9c23ec6afe25e5b851f24ff90648bd3f2a8722435df5eca7da2f0b0df2
|
JoeWrightMusic/QuickNDirtyFaustSynths
|
AddSynthOboe.dsp
|
import("stdfaust.lib");
//OBOE ARGUMENTS
//choose note & define range (Bb3-Bb5)
fund = hslider("fundFreq", 60, 60, 72, 0.001):ba.midikey2hz;
vibratoHz = hslider("vibratoHz", 4, 0, 10, 0.01)+(randomize(0.7));
trigger = button("trigger");
legatoTrigger = button("legatoTrig");
loShelfFreq = hslider("loShelfFreq",1000,10,20000,1);
loShelfGain = hslider("loShelfGain",-36,-64,64,0.1);
randomize(amt)=no.sparse_noise(5)*amt+(amt)+(0.002);
//amp envs
vSlowEnv = en.adsr(2*randomize(2),0.01,0.8,0.03,trigger-legatoTrigger);
fastEnv1 = en.adsr(0.01*randomize(1.5),0.01,0.5,0.23,trigger);
fastEnv2 = en.adsr(0.02*randomize(1.5),0.02,0.8,0.09,trigger);
fastEnv3 = en.adsr(0.04*randomize(2.5),0.04,0.8,0.03,trigger);
fastEnv4 = en.adsr(0.08*randomize(2.5),0.08,0.8,0.03,trigger);
fastEnv7 = en.adsr(0.2*randomize(3.5),0.2,0.8,0.03,trigger);
medEnv = en.adsr(0.2*randomize(1.5),0.05,0.8,0.03,trigger);
//legato amp Envs
legatoEnv = en.adsr(0.1*randomize(1.5),0.05,1,0.1,legatoTrigger);
legatoDip(amt) = 1-(legatoEnv*amt);
vibratoWidth = hslider("vibratoWidth", 0.45, 0, 1, 0.01)*vSlowEnv*randomize(0.4);
vol = hslider("vol", 1, 0, 1, 0.001);
//phasor
phasor(freq) = (+(freq/ma.SR) ~ ma.decimal);
//sine
osc(freq, amp) = sin(phasor(freq)*2*ma.PI)*amp;
//AM
am(freq, amt) = 1 - ((osc(freq,0.5)+0.5) * amt);
//FM
fm(freq, amt) = 1 + (osc(freq,amt));
//partial
partial(fund, ratio, amp) = sin(
phasor(fund*ratio*fm(vibratoHz,
vibratoWidth*.0028*ratio)
)*2*ma.PI)*amp;
pulse = os.pulsetrain(fund*fm(vibratoHz,
vibratoWidth*.0018),0.88):fi.bandpass(
3,110,1720
);
oboeComponents(fund, amp) = (
no.noise*0.009*fastEnv1 +
partial(fund, 1, 0.2) * fastEnv7*vol *legatoDip(0.8) +
partial(fund, 2, 0.380)* fastEnv2*vol *legatoDip(0.4) +
partial(fund, 3, 0.780)* fastEnv2*vol *legatoDip(0.3) +
partial(fund, 4, 0.20) * fastEnv3*vol *legatoDip(0.4) +
partial(fund, 5, 0.090)* fastEnv4*vol *legatoDip(0.6) +
partial(fund, 6, 0.030)* fastEnv7*vol *legatoDip(0.6) +
partial(fund, 7, 0.025)* medEnv*vol *legatoDip(0.6) +
partial(fund, 8, 0.025)* medEnv*vol *legatoDip(0.6) +
partial(fund, 9, 0.02) * medEnv*vol *legatoDip(0.6) +
partial(fund, 10, 0.02) * medEnv*vol *legatoDip(0.6) +
(pulse*0.2)*en.adsr(0.01,0.01,0.8,0.03,trigger)
)*amp*am(vibratoHz, vibratoWidth):fi.resonbp(fund*fm(vibratoHz,
vibratoWidth*.0018),0.025,200)*vol*fastEnv2;
oboe = oboeComponents:pm.modalModel(5,
(233.88, 467.6, 935.52, 1871.04, 3742.08),
(0.15, 0.05,0.02,0.01,0.01),
(
ba.db2linear(-3),
ba.db2linear(-1),
ba.db2linear(-2),
ba.db2linear(-5),
ba.db2linear(-12)
)
)*0.01 +(no.noise*0.003*fastEnv1);
process = oboe(fund, 0.1):fi.low_shelf(loShelfGain,loShelfFreq)<:_,_;
|
https://raw.githubusercontent.com/JoeWrightMusic/QuickNDirtyFaustSynths/ea69cff586c41aabd9e057c7171fa9a5043fd79b/Instruments/AddSynthOboe/AddSynthOboe.dsp
|
faust
|
OBOE ARGUMENTS
choose note & define range (Bb3-Bb5)
amp envs
legato amp Envs
phasor
sine
AM
FM
partial
|
import("stdfaust.lib");
fund = hslider("fundFreq", 60, 60, 72, 0.001):ba.midikey2hz;
vibratoHz = hslider("vibratoHz", 4, 0, 10, 0.01)+(randomize(0.7));
trigger = button("trigger");
legatoTrigger = button("legatoTrig");
loShelfFreq = hslider("loShelfFreq",1000,10,20000,1);
loShelfGain = hslider("loShelfGain",-36,-64,64,0.1);
randomize(amt)=no.sparse_noise(5)*amt+(amt)+(0.002);
vSlowEnv = en.adsr(2*randomize(2),0.01,0.8,0.03,trigger-legatoTrigger);
fastEnv1 = en.adsr(0.01*randomize(1.5),0.01,0.5,0.23,trigger);
fastEnv2 = en.adsr(0.02*randomize(1.5),0.02,0.8,0.09,trigger);
fastEnv3 = en.adsr(0.04*randomize(2.5),0.04,0.8,0.03,trigger);
fastEnv4 = en.adsr(0.08*randomize(2.5),0.08,0.8,0.03,trigger);
fastEnv7 = en.adsr(0.2*randomize(3.5),0.2,0.8,0.03,trigger);
medEnv = en.adsr(0.2*randomize(1.5),0.05,0.8,0.03,trigger);
legatoEnv = en.adsr(0.1*randomize(1.5),0.05,1,0.1,legatoTrigger);
legatoDip(amt) = 1-(legatoEnv*amt);
vibratoWidth = hslider("vibratoWidth", 0.45, 0, 1, 0.01)*vSlowEnv*randomize(0.4);
vol = hslider("vol", 1, 0, 1, 0.001);
phasor(freq) = (+(freq/ma.SR) ~ ma.decimal);
osc(freq, amp) = sin(phasor(freq)*2*ma.PI)*amp;
am(freq, amt) = 1 - ((osc(freq,0.5)+0.5) * amt);
fm(freq, amt) = 1 + (osc(freq,amt));
partial(fund, ratio, amp) = sin(
phasor(fund*ratio*fm(vibratoHz,
vibratoWidth*.0028*ratio)
)*2*ma.PI)*amp;
pulse = os.pulsetrain(fund*fm(vibratoHz,
vibratoWidth*.0018),0.88):fi.bandpass(
3,110,1720
);
oboeComponents(fund, amp) = (
no.noise*0.009*fastEnv1 +
partial(fund, 1, 0.2) * fastEnv7*vol *legatoDip(0.8) +
partial(fund, 2, 0.380)* fastEnv2*vol *legatoDip(0.4) +
partial(fund, 3, 0.780)* fastEnv2*vol *legatoDip(0.3) +
partial(fund, 4, 0.20) * fastEnv3*vol *legatoDip(0.4) +
partial(fund, 5, 0.090)* fastEnv4*vol *legatoDip(0.6) +
partial(fund, 6, 0.030)* fastEnv7*vol *legatoDip(0.6) +
partial(fund, 7, 0.025)* medEnv*vol *legatoDip(0.6) +
partial(fund, 8, 0.025)* medEnv*vol *legatoDip(0.6) +
partial(fund, 9, 0.02) * medEnv*vol *legatoDip(0.6) +
partial(fund, 10, 0.02) * medEnv*vol *legatoDip(0.6) +
(pulse*0.2)*en.adsr(0.01,0.01,0.8,0.03,trigger)
)*amp*am(vibratoHz, vibratoWidth):fi.resonbp(fund*fm(vibratoHz,
vibratoWidth*.0018),0.025,200)*vol*fastEnv2;
oboe = oboeComponents:pm.modalModel(5,
(233.88, 467.6, 935.52, 1871.04, 3742.08),
(0.15, 0.05,0.02,0.01,0.01),
(
ba.db2linear(-3),
ba.db2linear(-1),
ba.db2linear(-2),
ba.db2linear(-5),
ba.db2linear(-12)
)
)*0.01 +(no.noise*0.003*fastEnv1);
process = oboe(fund, 0.1):fi.low_shelf(loShelfGain,loShelfFreq)<:_,_;
|
634b12f53472b3aca809762899afb698b409066968fa2d5a6d4279efd4a03b3c
|
JoeWrightMusic/QuickNDirtyFaustSynths
|
RumbleBox.dsp
|
import("stdfaust.lib");
wobWob = hslider("wobWob",0,0,10,0.01):si.smoo;
wobFreq = hslider("wobFreq",1, 0.5,10,0.01);
aMinVol = hslider("aMinVol",0,0,1,0.01):si.smoo;
aMinEno = hslider("aMinEno",0,0,1,0.01):si.smoo;
aMinLPF = hslider("aMinLPF",250,5,800,0.01);
aMinDist = hslider("aMinDist",0.01,0,1,0.001);
techno = hslider("techno",0,0,1,0.01):si.smoo;
setPip = hslider("setPip",81, 80,110,1);
pipVol = hslider("pipVol",0.03, 0,10,0.01);
pipLP = hslider("pipLP",800,5,800,0.01);
pipDist = hslider("pipDist",0.01,0,1,0.001);
kickVol = hslider("kickVol",1.2,0,10,0.01):si.smoo;
rscal = hslider("rscal",0.2, 0,1,0.01):si.smoo;
mvol = hslider("mvol",0,0,1,0.01):si.smoo;
mcomp = hslider("mcomp",-10,-50,0,0.01):si.smoo;
mcompra = hslider("mcompra",100,1,100,0.01):si.smoo;
kikSpd = hslider("kikSpd",0.1,0.1,2,0.01);
// //WOBWOB
freqGen(freq, mul, add) = os.osc(freq)*mul + add;
wobWobOut = (
os.osc(freqGen(2.07*wobFreq,wobFreq,35+wobFreq*20))*0.5 +
os.osc(freqGen(3.32*wobFreq,wobFreq,35+wobFreq*21))*0.5 +
os.osc(freqGen(5*wobFreq,wobFreq,25+wobFreq*10))*0.5
)*wobWob:ef.cubicnl(0.01,0):fi.lowpass3e(200) : co.compressor_mono(100,-2,0.01,0.05);
//AMINENO
dust(freq, thresh) = no.lfnoise0(freq) >(thresh);
drone(freq, dens) = os.osc(freq)*(en.ar(1/(dens*dens*5),1/(dens*dens*5), dust(dens*200, 0.99)):si.smoo);
aMDens = 5;
aMinor = (
drone(110, aMinEno*1.1) +
drone(130.81, aMinEno*1.01) +
drone(164.81, aMinEno*1.02) +
drone(196, aMinEno*1.21) +
drone(293.66, aMinEno*1.05)
):ef.cubicnl(aMinDist,0):fi.lowpass3e(aMinLPF) :co.compressor_mono(100,-5,0.01,0.05)*aMinVol;
//TECHNO
kickFreq = 0.7+(techno*kikSpd);
kickTrig = os.lf_imptrain(kickFreq);
kickFM = kickTrig:si.lag_ud(0.0,0.02)*400;
kickOsc = os.osc(27.5+kickFM)+os.osc(55+kickFM);
kickEnv = en.ar(
0.025,
(1/kickFreq)*0.9,
kickTrig
);
kick = kickOsc*kickEnv:co.compressor_mono(100,-10,0.005,0.01);
pipNote = setPip:ba.sAndH(os.lf_imptrain(kickFreq*4));
timePip(note, freq, thresh) =
os.osc(ba.midikey2hz(note))*
en.asr(
(1/freq)*0.01,
1,
(1/freq)*0.99,
(no.noise+(1))*os.lf_imptrain(freq):ba.sAndH(os.lf_imptrain(freq)) > (thresh)
)
;
timePips=(
timePip(pipNote, kickFreq*4, 0.8)
):ef.cubicnl(pipDist,0):fi.lowpass3e(pipLP)*pipVol;
technoL = kick*kickVol:co.compressor_mono(100,-5,0.005,0.01)*techno:fi.lowpass3e(500);
technoR = (timePips+(technoL)):co.compressor_mono(100,-5,0.005,0.01)*techno;
//OUTPUT
left = technoL + (aMinor + (wobWobOut)) : co.compressor_mono(mcompra, mcomp, 0.01,0.02)*mvol; //+ wobWobOut;
right = (technoR+ (aMinor*0.5)+ (wobWobOut))*rscal : co.compressor_mono(mcompra, mcomp, 0.01,0.02)*mvol;
// process = left*mvol,right*mvol;
process = left,right;
|
https://raw.githubusercontent.com/JoeWrightMusic/QuickNDirtyFaustSynths/aab452c99976a17d2dfb7e688fc046c823af8eb0/RumbleBox/RumbleBox_V1.1/RumbleBox.dsp
|
faust
|
//WOBWOB
AMINENO
TECHNO
OUTPUT
+ wobWobOut;
process = left*mvol,right*mvol;
|
import("stdfaust.lib");
wobWob = hslider("wobWob",0,0,10,0.01):si.smoo;
wobFreq = hslider("wobFreq",1, 0.5,10,0.01);
aMinVol = hslider("aMinVol",0,0,1,0.01):si.smoo;
aMinEno = hslider("aMinEno",0,0,1,0.01):si.smoo;
aMinLPF = hslider("aMinLPF",250,5,800,0.01);
aMinDist = hslider("aMinDist",0.01,0,1,0.001);
techno = hslider("techno",0,0,1,0.01):si.smoo;
setPip = hslider("setPip",81, 80,110,1);
pipVol = hslider("pipVol",0.03, 0,10,0.01);
pipLP = hslider("pipLP",800,5,800,0.01);
pipDist = hslider("pipDist",0.01,0,1,0.001);
kickVol = hslider("kickVol",1.2,0,10,0.01):si.smoo;
rscal = hslider("rscal",0.2, 0,1,0.01):si.smoo;
mvol = hslider("mvol",0,0,1,0.01):si.smoo;
mcomp = hslider("mcomp",-10,-50,0,0.01):si.smoo;
mcompra = hslider("mcompra",100,1,100,0.01):si.smoo;
kikSpd = hslider("kikSpd",0.1,0.1,2,0.01);
freqGen(freq, mul, add) = os.osc(freq)*mul + add;
wobWobOut = (
os.osc(freqGen(2.07*wobFreq,wobFreq,35+wobFreq*20))*0.5 +
os.osc(freqGen(3.32*wobFreq,wobFreq,35+wobFreq*21))*0.5 +
os.osc(freqGen(5*wobFreq,wobFreq,25+wobFreq*10))*0.5
)*wobWob:ef.cubicnl(0.01,0):fi.lowpass3e(200) : co.compressor_mono(100,-2,0.01,0.05);
dust(freq, thresh) = no.lfnoise0(freq) >(thresh);
drone(freq, dens) = os.osc(freq)*(en.ar(1/(dens*dens*5),1/(dens*dens*5), dust(dens*200, 0.99)):si.smoo);
aMDens = 5;
aMinor = (
drone(110, aMinEno*1.1) +
drone(130.81, aMinEno*1.01) +
drone(164.81, aMinEno*1.02) +
drone(196, aMinEno*1.21) +
drone(293.66, aMinEno*1.05)
):ef.cubicnl(aMinDist,0):fi.lowpass3e(aMinLPF) :co.compressor_mono(100,-5,0.01,0.05)*aMinVol;
kickFreq = 0.7+(techno*kikSpd);
kickTrig = os.lf_imptrain(kickFreq);
kickFM = kickTrig:si.lag_ud(0.0,0.02)*400;
kickOsc = os.osc(27.5+kickFM)+os.osc(55+kickFM);
kickEnv = en.ar(
0.025,
(1/kickFreq)*0.9,
kickTrig
);
kick = kickOsc*kickEnv:co.compressor_mono(100,-10,0.005,0.01);
pipNote = setPip:ba.sAndH(os.lf_imptrain(kickFreq*4));
timePip(note, freq, thresh) =
os.osc(ba.midikey2hz(note))*
en.asr(
(1/freq)*0.01,
1,
(1/freq)*0.99,
(no.noise+(1))*os.lf_imptrain(freq):ba.sAndH(os.lf_imptrain(freq)) > (thresh)
)
;
timePips=(
timePip(pipNote, kickFreq*4, 0.8)
):ef.cubicnl(pipDist,0):fi.lowpass3e(pipLP)*pipVol;
technoL = kick*kickVol:co.compressor_mono(100,-5,0.005,0.01)*techno:fi.lowpass3e(500);
technoR = (timePips+(technoL)):co.compressor_mono(100,-5,0.005,0.01)*techno;
right = (technoR+ (aMinor*0.5)+ (wobWobOut))*rscal : co.compressor_mono(mcompra, mcomp, 0.01,0.02)*mvol;
process = left,right;
|
c67407ffa4c9e8d2dac36756b411743fe878e19c761e6f7933296e55734f45ba
|
JoeWrightMusic/S2B-SolarSail
|
Synth3.dsp
|
// SPACE TO BE RESONATOR INSTRUMENT v3.0
import("stdfaust.lib");
//-------------------------------------------CLOCKS
bpm=hslider("bpm",81,1,400,1);
barHz=bpm/(60*6);
step=os.phasor(48,barHz):int+1;
//-------------------------------------------UTILS
//___________________SELF BLOCKING ENV
envAR(att,rel,gate) = (_:1,_>0:- <: en.ar((_*gate,att:ba.sAndH),(_*gate,rel:ba.sAndH),(_*gate))) ~ _;
osc(freq) = rdtable(tablesize, os.sinwaveform(tablesize), int(os.phasor(tablesize,freq)))
with{
tablesize = 1 << 15; // instead of 1 << 16
};
//-------------------------------------------FM-2OPs
//___________________VARIABLES
fmVol = hslider("fmVol",0.5,0,1,0.001):si.smoo;
fmVerb = hslider("fmVerb", 0.14,0,1,0.001):si.smoo;
//fm synth 1
fm1vol=hslider("fm1vol",1,0,1,0.001);
fmNxtFreq1 = hslider("fmFreq1",92,0,127,0.01):ba.midikey2hz;
fmNxtFreq2 = hslider("fmFreq2",92,0,127,0.01):ba.midikey2hz;
fmMm1 = hslider("fmMm1",0.666,0.0,100,0.0001):si.smoo;
fmDp1 = hslider("fmDp1",0.3,0.00,10,0.0001):si.smoo;
fmAM1 = hslider("fmAM1",0.02,0.001,10,0.01);
fmRM1 = hslider("fmRM1",0.2,0.001,10,0.01);
fmAC1 = hslider("fmAC1",0.03,0.001,10,0.01);
fmRC1 = hslider("fmRC1",0.1,0.001,10,0.01);
fmTrigD1 = button("fmTrigD1");
fmGateT1 = checkbox("fmGateT1");
fmEucNo1 = hslider("fmEucNo1", 19, 0, 24, 1);
fmEucNo2 = hslider("fmEucNo2", 19, 0, 24, 1);
fmModWheel1 = hslider("fmModWheel1", 1, 0.1, 100, 0.001):si.smoo;
//fm synth 1
fmEuc1 = ((step*fmEucNo1) % 48) < fmEucNo1 : en.ar(0,0.001);
fmRawTrig1 = fmTrigD1+(fmEuc1*fmGateT1);
fmTrig1 = envAR(0, fmAC1+fmRC1, fmRawTrig1):en.ar(0,0.001);
fmFreq1 = fmNxtFreq1:ba.sAndH(fmTrig1);
fmac1 = fmAC1:ba.sAndH(fmTrig1);
fmrc1 = fmRC1:ba.sAndH(fmTrig1);
fmam1 = fmAM1:ba.sAndH(fmTrig1);
fmrm1 = fmRM1:ba.sAndH(fmTrig1);
fm2op1(freq,mMul,dMul,trig,am,rm,ac,rc) =
osc(
freq+( osc(freq*mMul)*freq*dMul*en.ar(am,rm,trig) )
)*envAR(ac,rc, trig)*fm1vol;
fmDpm1 = fmDp1*fmModWheel1;
//fm synth 1
fmEuc2 = ((step*fmEucNo2) % 48) < fmEucNo2 : en.ar(0,0.001);
fmRawTrig2 = fmTrigD1+(fmEuc2*fmGateT1);
fmTrig2 = envAR(0, fmAC1+fmRC1, fmRawTrig2):en.ar(0,0.001);
fmFreq2 = fmNxtFreq2:ba.sAndH(fmTrig2);
//fm group
dry = 1-(fmVerb);
fmSynths = fmVol*(
fm2op1(fmFreq1,fmMm1,fmDpm1,fmTrig1, fmam1,fmrm1,fmac1,fmrc1)+
fm2op1(fmFreq2,fmMm1,fmDpm1,fmTrig2, fmam1,fmrm1,fmac1,fmrc1)
)<: (_*dry),(_*fmVerb) : _,(_ : re.mono_freeverb(0.88,0.88,0.8,0)) :+;
// re.mono_freeverb(0.88,0.2,0.8,0)
//-------------------------------------------KICK/DRONEs
//___________________VARIABLES
kroneVol = hslider("kroneVol",0.5,0,1,0.001);
//krone1
kd1vol=hslider("kd1vol",1,0,1,0.001);
kdTrig1 = button("kdTrig1");
kdNxtFreq1 = hslider("kdNxtFreq1", 40, 0, 127, 1):ba.midikey2hz;
kdDelta1 = hslider("kdDelta1", -.79,-0.99,5,0.001);
kdA1 = hslider("kdA1", 0.02, 0, 15, 0.01);
kdR1 = hslider("kdR1", 0.15, 0, 15, 0.01);
kdTrigD1 = button("kdTrigD1");
kdGateT1 = checkbox("kdGateT1");
kdEucNo1 = hslider("kdEucNo1", 6, 0, 24, 1);
//krone2
kd2vol=hslider("kd2vol",1,0,1,0.001);
kdTrig2 = button("kdTrig2");
kdNxtFreq2 = hslider("kdNxtFreq2", 38, 0, 127, 1):ba.midikey2hz;
kdDelta2 = hslider("kdDelta2", 0,-0.99,5,0.001);
kdA2 = hslider("kdA2", 0.02, 0, 15, 0.01);
kdR2 = hslider("kdR2", 3, 0, 15, 0.01);
kdTrigD2 = button("kdTrigD2");
kdGateT2 = checkbox("kdGateT2");
kdEucNo2 = hslider("kdEucNo2", 1, 0, 24, 1);
//___________________DSP
//krone1
kdEuc1 = ((step*kdEucNo1) % 48) < kdEucNo1 : en.ar(0,0.001);
kdRawTrig1 = kdTrig1+(kdEuc1*kdGateT1);
kdEnvT1 = envAR(kdA1+kdR1, 0, kdRawTrig1);
kdGate1 = 1-en.ar(0,0.001,kdEnvT1);
kdFreq1 = kdNxtFreq1:ba.sAndH(kdGate1);
kddelta1 = kdDelta1:ba.sAndH(kdGate1);
kdRamp1 = kdFreq1+(kdFreq1*kddelta1*kdEnvT1);
kdEnv1 = envAR(kdA1, kdR1, kdRawTrig1);
krone1 = os.triangle(kdRamp1)*kdEnv1*kd1vol;
//krone2
kdEuc2 = ((step*kdEucNo2) % 48) < kdEucNo2 : en.ar(0,0.001);
kdRawTrig2 = kdTrig2+(kdEuc2*kdGateT2);
kdEnvT2 = envAR(kdA2+kdR2, 0, kdRawTrig2);
kdGate2 = 1-en.ar(0,0.001,kdEnvT2);
kdFreq2 = kdNxtFreq2:ba.sAndH(kdGate2);
kddelta2 = kdDelta2:ba.sAndH(kdGate2);
kdRamp2 = kdFreq2+(kdFreq2*kddelta2*kdEnvT2);
kdEnv2 = envAR(kdA2, kdR2, kdRawTrig2);
krone2 = (os.triangle(kdRamp2*2)+os.triangle(kdRamp2))*kdEnv2*kd2vol:fi.lowpass(1, 600);
//-------------------------------------------ADRIFT
adriftVol = hslider("adriftVol", 0, 0, 1, 0.001)^2:si.smooth(ba.tau2pole(1));
adriftFreq = hslider("adriftFreq", 0, 0, 1, 0.001)*1000+120:si.smoo;
noise = no.noise*0.1;
filtNoise1 = noise:fi.lowpass6e(adriftFreq):fi.highpass6e(100);
adrift = filtNoise1*adriftVol;
//-------------------------------------------OUTPUT
masterVol = hslider("masterVol", 0.5, 0, 1, 0.001):si.smoo;
high = fmSynths+adrift:co.compressor_mono(8,-8,0.02,0.02);
low = krone1+(krone1+krone2+(high:fi.lowpass6e(600)*0.7):co.compressor_mono(8,-15,0.02,0.02)):co.compressor_mono(8,-8,0.02,0.02);
process = high*masterVol, low*masterVol;
|
https://raw.githubusercontent.com/JoeWrightMusic/S2B-SolarSail/82d3a76181e5cd6ffee1d33772d6d185ba991eb8/Faust/Synth3.dsp
|
faust
|
SPACE TO BE RESONATOR INSTRUMENT v3.0
-------------------------------------------CLOCKS
-------------------------------------------UTILS
___________________SELF BLOCKING ENV
instead of 1 << 16
-------------------------------------------FM-2OPs
___________________VARIABLES
fm synth 1
fm synth 1
fm synth 1
fm group
re.mono_freeverb(0.88,0.2,0.8,0)
-------------------------------------------KICK/DRONEs
___________________VARIABLES
krone1
krone2
___________________DSP
krone1
krone2
-------------------------------------------ADRIFT
-------------------------------------------OUTPUT
|
import("stdfaust.lib");
bpm=hslider("bpm",81,1,400,1);
barHz=bpm/(60*6);
step=os.phasor(48,barHz):int+1;
envAR(att,rel,gate) = (_:1,_>0:- <: en.ar((_*gate,att:ba.sAndH),(_*gate,rel:ba.sAndH),(_*gate))) ~ _;
osc(freq) = rdtable(tablesize, os.sinwaveform(tablesize), int(os.phasor(tablesize,freq)))
with{
};
fmVol = hslider("fmVol",0.5,0,1,0.001):si.smoo;
fmVerb = hslider("fmVerb", 0.14,0,1,0.001):si.smoo;
fm1vol=hslider("fm1vol",1,0,1,0.001);
fmNxtFreq1 = hslider("fmFreq1",92,0,127,0.01):ba.midikey2hz;
fmNxtFreq2 = hslider("fmFreq2",92,0,127,0.01):ba.midikey2hz;
fmMm1 = hslider("fmMm1",0.666,0.0,100,0.0001):si.smoo;
fmDp1 = hslider("fmDp1",0.3,0.00,10,0.0001):si.smoo;
fmAM1 = hslider("fmAM1",0.02,0.001,10,0.01);
fmRM1 = hslider("fmRM1",0.2,0.001,10,0.01);
fmAC1 = hslider("fmAC1",0.03,0.001,10,0.01);
fmRC1 = hslider("fmRC1",0.1,0.001,10,0.01);
fmTrigD1 = button("fmTrigD1");
fmGateT1 = checkbox("fmGateT1");
fmEucNo1 = hslider("fmEucNo1", 19, 0, 24, 1);
fmEucNo2 = hslider("fmEucNo2", 19, 0, 24, 1);
fmModWheel1 = hslider("fmModWheel1", 1, 0.1, 100, 0.001):si.smoo;
fmEuc1 = ((step*fmEucNo1) % 48) < fmEucNo1 : en.ar(0,0.001);
fmRawTrig1 = fmTrigD1+(fmEuc1*fmGateT1);
fmTrig1 = envAR(0, fmAC1+fmRC1, fmRawTrig1):en.ar(0,0.001);
fmFreq1 = fmNxtFreq1:ba.sAndH(fmTrig1);
fmac1 = fmAC1:ba.sAndH(fmTrig1);
fmrc1 = fmRC1:ba.sAndH(fmTrig1);
fmam1 = fmAM1:ba.sAndH(fmTrig1);
fmrm1 = fmRM1:ba.sAndH(fmTrig1);
fm2op1(freq,mMul,dMul,trig,am,rm,ac,rc) =
osc(
freq+( osc(freq*mMul)*freq*dMul*en.ar(am,rm,trig) )
)*envAR(ac,rc, trig)*fm1vol;
fmDpm1 = fmDp1*fmModWheel1;
fmEuc2 = ((step*fmEucNo2) % 48) < fmEucNo2 : en.ar(0,0.001);
fmRawTrig2 = fmTrigD1+(fmEuc2*fmGateT1);
fmTrig2 = envAR(0, fmAC1+fmRC1, fmRawTrig2):en.ar(0,0.001);
fmFreq2 = fmNxtFreq2:ba.sAndH(fmTrig2);
dry = 1-(fmVerb);
fmSynths = fmVol*(
fm2op1(fmFreq1,fmMm1,fmDpm1,fmTrig1, fmam1,fmrm1,fmac1,fmrc1)+
fm2op1(fmFreq2,fmMm1,fmDpm1,fmTrig2, fmam1,fmrm1,fmac1,fmrc1)
)<: (_*dry),(_*fmVerb) : _,(_ : re.mono_freeverb(0.88,0.88,0.8,0)) :+;
kroneVol = hslider("kroneVol",0.5,0,1,0.001);
kd1vol=hslider("kd1vol",1,0,1,0.001);
kdTrig1 = button("kdTrig1");
kdNxtFreq1 = hslider("kdNxtFreq1", 40, 0, 127, 1):ba.midikey2hz;
kdDelta1 = hslider("kdDelta1", -.79,-0.99,5,0.001);
kdA1 = hslider("kdA1", 0.02, 0, 15, 0.01);
kdR1 = hslider("kdR1", 0.15, 0, 15, 0.01);
kdTrigD1 = button("kdTrigD1");
kdGateT1 = checkbox("kdGateT1");
kdEucNo1 = hslider("kdEucNo1", 6, 0, 24, 1);
kd2vol=hslider("kd2vol",1,0,1,0.001);
kdTrig2 = button("kdTrig2");
kdNxtFreq2 = hslider("kdNxtFreq2", 38, 0, 127, 1):ba.midikey2hz;
kdDelta2 = hslider("kdDelta2", 0,-0.99,5,0.001);
kdA2 = hslider("kdA2", 0.02, 0, 15, 0.01);
kdR2 = hslider("kdR2", 3, 0, 15, 0.01);
kdTrigD2 = button("kdTrigD2");
kdGateT2 = checkbox("kdGateT2");
kdEucNo2 = hslider("kdEucNo2", 1, 0, 24, 1);
kdEuc1 = ((step*kdEucNo1) % 48) < kdEucNo1 : en.ar(0,0.001);
kdRawTrig1 = kdTrig1+(kdEuc1*kdGateT1);
kdEnvT1 = envAR(kdA1+kdR1, 0, kdRawTrig1);
kdGate1 = 1-en.ar(0,0.001,kdEnvT1);
kdFreq1 = kdNxtFreq1:ba.sAndH(kdGate1);
kddelta1 = kdDelta1:ba.sAndH(kdGate1);
kdRamp1 = kdFreq1+(kdFreq1*kddelta1*kdEnvT1);
kdEnv1 = envAR(kdA1, kdR1, kdRawTrig1);
krone1 = os.triangle(kdRamp1)*kdEnv1*kd1vol;
kdEuc2 = ((step*kdEucNo2) % 48) < kdEucNo2 : en.ar(0,0.001);
kdRawTrig2 = kdTrig2+(kdEuc2*kdGateT2);
kdEnvT2 = envAR(kdA2+kdR2, 0, kdRawTrig2);
kdGate2 = 1-en.ar(0,0.001,kdEnvT2);
kdFreq2 = kdNxtFreq2:ba.sAndH(kdGate2);
kddelta2 = kdDelta2:ba.sAndH(kdGate2);
kdRamp2 = kdFreq2+(kdFreq2*kddelta2*kdEnvT2);
kdEnv2 = envAR(kdA2, kdR2, kdRawTrig2);
krone2 = (os.triangle(kdRamp2*2)+os.triangle(kdRamp2))*kdEnv2*kd2vol:fi.lowpass(1, 600);
adriftVol = hslider("adriftVol", 0, 0, 1, 0.001)^2:si.smooth(ba.tau2pole(1));
adriftFreq = hslider("adriftFreq", 0, 0, 1, 0.001)*1000+120:si.smoo;
noise = no.noise*0.1;
filtNoise1 = noise:fi.lowpass6e(adriftFreq):fi.highpass6e(100);
adrift = filtNoise1*adriftVol;
masterVol = hslider("masterVol", 0.5, 0, 1, 0.001):si.smoo;
high = fmSynths+adrift:co.compressor_mono(8,-8,0.02,0.02);
low = krone1+(krone1+krone2+(high:fi.lowpass6e(600)*0.7):co.compressor_mono(8,-15,0.02,0.02)):co.compressor_mono(8,-8,0.02,0.02);
process = high*masterVol, low*masterVol;
|
764a3257fd299d75980888d3d81f9eebe124dcd484a7536c05c3efa9753941da
|
JoeWrightMusic/ResonatorInst-v2
|
Synth.dsp
|
// SPACE TO BE RESONATOR INSTRUMENT v2.0
import("stdfaust.lib");
//-------------------------------------------CLOCKS
bpm=hslider("bpm",120,1,400,1);
barHz=bpm/(60*6);
step=os.phasor(48,barHz):int+1;
//-------------------------------------------UTILS
//___________________SELF BLOCKING ENV
envAR(att,rel,gate) = (_:1,_>0:- <: en.ar((_*gate,att:ba.sAndH),(_*gate,rel:ba.sAndH),(_*gate))) ~ _;
//-------------------------------------------FM-2OPs
//___________________VARIABLES
fmVol = hslider("fmVol",0.5,0,1,0.001):si.smoo;
fmVerb = hslider("fmVerb", 0.5,0,1,0.001):si.smoo;
//fm synth 1
fm1vol=hslider("fm1vol",1,0,1,0.001);
fmNxtFreq1 = hslider("fmFreq1",69,0,127,0.01):ba.midikey2hz;
fmMm1 = hslider("fmMm1",0.5,0.0,100,0.0001):si.smoo;
fmDp1 = hslider("fmDp1",0.5,0.00,10,0.0001):si.smoo;
fmAM1 = hslider("fmAM1",0.1,0.001,10,0.01);
fmRM1 = hslider("fmRM1",0.3,0.001,10,0.01);
fmAC1 = hslider("fmAC1",0.1,0.001,10,0.01);
fmRC1 = hslider("fmRC1",0.3,0.001,10,0.01);
fmTrigD1 = button("fmTrigD1");
fmGateT1 = checkbox("fmGateT1");
fmEucNo1 = hslider("fmEucNo1", 7, 0, 24, 1);
fmModWheel1 = hslider("fmModWheel1", 1, 0.1, 100, 0.001):si.smoo;
//fm synth 2
fm2vol=hslider("fm2vol",1,0,1,0.001);
fmNxtFreq2 = hslider("fmFreq2",62,0,127,0.01):ba.midikey2hz;
fmMm2 = hslider("fmMm2",0.5,0.0,100,0.0001):si.smoo;
fmDp2 = hslider("fmDp2",0.5,0.00,10,0.0001):si.smoo;
fmAM2 = hslider("fmAM2",0.1,0.001,10,0.01);
fmRM2 = hslider("fmRM2",0.3,0.001,10,0.01);
fmAC2 = hslider("fmAC2",0.1,0.001,10,0.01);
fmRC2 = hslider("fmRC2",0.3,0.001,10,0.01);
fmTrigD2 = button("fmTrigD2");
fmGateT2 = checkbox("fmGateT2");
fmEucNo2 = hslider("fmEucNo2", 9, 0, 24, 1);
fmModWheel2 = hslider("fmModWheel2", 1, 0.1, 100, 0.001):si.smoo;
//fm synth 3
fm3vol=hslider("fm3vol",1,0,1,0.001);
fmNxtFreq3 = hslider("fmFreq3",52,0,127,0.01):ba.midikey2hz;
fmMm3 = hslider("fmMm3",0.5,0.0,100,0.0001):si.smoo;
fmDp3 = hslider("fmDp3",0.5,0.00,10,0.0001):si.smoo;
fmAM3 = hslider("fmAM3",0.1,0.001,10,0.01);
fmRM3 = hslider("fmRM3",0.3,0.001,10,0.01);
fmAC3 = hslider("fmAC3",0.1,0.001,10,0.01);
fmRC3 = hslider("fmRC3",0.3,0.001,10,0.01);
fmTrigD3 = button("fmTrigD3");
fmGateT3 = checkbox("fmGateT3");
fmEucNo3 = hslider("fmEucNo3", 16, 0, 24, 1);
fmModWheel3 = hslider("fmModWheel3", 1, 0.1, 100, 0.001):si.smoo;
//___________________DSP
//fm synth 1
fmEuc1 = ((step*fmEucNo1) % 48) < fmEucNo1 : en.ar(0,0.001);
fmRawTrig1 = fmTrigD1+(fmEuc1*fmGateT1);
fmTrig1 = envAR(0, fmAC1+fmRC1, fmRawTrig1):en.ar(0,0.001);
fmFreq1 = fmNxtFreq1:ba.sAndH(fmTrig1);
fmac1 = fmAC1:ba.sAndH(fmTrig1);
fmrc1 = fmRC1:ba.sAndH(fmTrig1);
fmam1 = fmAM1:ba.sAndH(fmTrig1);
fmrm1 = fmRM1:ba.sAndH(fmTrig1);
fm2op1(freq,mMul,dMul,trig,am,rm,ac,rc) =
os.osc(
freq+( os.osc(freq*mMul)*freq*dMul*en.ar(am,rm,trig) )
)*envAR(ac,rc, trig)*fm1vol;
fmDpm1 = fmDp1*fmModWheel1;
//fm synth 2
fmEuc2 = ((step*fmEucNo2) % 48) < fmEucNo2 : en.ar(0,0.001);
fmRawTrig2 = fmTrigD2+(fmEuc2*fmGateT2);
fmTrig2 = envAR(0, fmAC2+fmRC2, fmRawTrig2):en.ar(0,0.001);
fmFreq2 = fmNxtFreq2:ba.sAndH(fmTrig2);
fmac2 = fmAC2:ba.sAndH(fmTrig2);
fmrc2 = fmRC2:ba.sAndH(fmTrig2);
fmam2 = fmAM2:ba.sAndH(fmTrig2);
fmrm2 = fmRM2:ba.sAndH(fmTrig2);
fm2op2(freq,mMul,dMul,trig,am,rm,ac,rc) =
os.osc(
freq+( os.osc(freq*mMul)*freq*dMul*en.ar(am,rm,trig) )
)*envAR(ac,rc, trig)*fm2vol;
fmDpm2 = fmDp2*fmModWheel2;
//fm synth 3
fmEuc3 = ((step*fmEucNo3) % 48) < fmEucNo3 : en.ar(0,0.001);
fmRawTrig3 = fmTrigD3+(fmEuc3*fmGateT3);
fmTrig3 = envAR(0, fmAC3+fmRC3, fmRawTrig3):en.ar(0,0.001);
fmFreq3 = fmNxtFreq3:ba.sAndH(fmTrig3);
fmac3 = fmAC3:ba.sAndH(fmTrig3);
fmrc3 = fmRC3:ba.sAndH(fmTrig3);
fmam3 = fmAM3:ba.sAndH(fmTrig3);
fmrm3 = fmRM3:ba.sAndH(fmTrig3);
fm2op3(freq,mMul,dMul,trig,am,rm,ac,rc) =
os.osc(
freq+( os.osc(freq*mMul)*freq*dMul*en.ar(am,rm,trig) )
)*envAR(ac,rc, trig)*fm3vol;
fmDpm3 = fmDp3*fmModWheel3;
//fm group
dry = 1-(fmVerb);
fmSynths = (
fm2op1(fmFreq1,fmMm1,fmDpm1,fmTrig1, fmam1,fmrm1,fmac1,fmrc1)+
fm2op2(fmFreq2,fmMm2,fmDpm2,fmTrig2, fmam2,fmrm2,fmac2,fmrc2)+
fm2op3(fmFreq3,fmMm3,fmDpm3,fmTrig3, fmam3,fmrm3,fmac3,fmrc3)
)<: (_*dry),(_*fmVerb) : _,(_:re.mono_freeverb(0.88,0.2,0.8,0)) :+;
// re.mono_freeverb(0.5,0.9,0.1,0.5)
//-------------------------------------------KICK/DRONEs
//___________________VARIABLES
kroneVol = hslider("kroneVol",0.5,0,1,0.001);
//krone1
kd1vol=hslider("kd1vol",1,0,1,0.001);
kdTrig1 = button("kdTrig1");
kdNxtFreq1 = hslider("kdNxtFreq1", 30, 0, 127, 1):ba.midikey2hz;
kdDelta1 = hslider("kdDelta1", -0.9,-0.99,5,0.001);
kdA1 = hslider("kdA1", 0.01, 0, 15, 0.01);
kdR1 = hslider("kdR1", 0.09, 0, 15, 0.01);
kdTrigD1 = button("kdTrigD1");
kdGateT1 = checkbox("kdGateT1");
kdEucNo1 = hslider("kdEucNo1", 16, 0, 24, 1);
//krone2
kd2vol=hslider("kd2vol",1,0,1,0.001);
kdTrig2 = button("kdTrig2");
kdNxtFreq2 = hslider("kdNxtFreq2", 34, 0, 127, 1):ba.midikey2hz;
kdDelta2 = hslider("kdDelta2", -0.1,-0.99,5,0.001);
kdA2 = hslider("kdA2", 2, 0, 15, 0.01);
kdR2 = hslider("kdR2", 2, 0, 15, 0.01);
kdTrigD2 = button("kdTrigD2");
kdGateT2 = checkbox("kdGateT2");
kdEucNo2 = hslider("kdEucNo2", 1, 0, 24, 1);
//___________________DSP
//krone1
kdEuc1 = ((step*kdEucNo1) % 48) < kdEucNo1 : en.ar(0,0.001);
kdRawTrig1 = kdTrig1+(kdEuc1*kdGateT1);
kdEnvT1 = envAR(kdA1+kdR1, 0, kdRawTrig1);
kdGate1 = 1-en.ar(0,0.001,kdEnvT1);
kdFreq1 = kdNxtFreq1:ba.sAndH(kdGate1);
kddelta1 = kdDelta1:ba.sAndH(kdGate1);
kdRamp1 = kdFreq1+(kdFreq1*kddelta1*kdEnvT1);
kdEnv1 = envAR(kdA1, kdR1, kdRawTrig1);
krone1 = os.triangle(kdRamp1)*kdEnv1*kd1vol;
//krone2
kdEuc2 = ((step*kdEucNo2) % 48) < kdEucNo2 : en.ar(0,0.001);
kdRawTrig2 = kdTrig2+(kdEuc2*kdGateT2);
kdEnvT2 = envAR(kdA2+kdR2, 0, kdRawTrig2);
kdGate2 = 1-en.ar(0,0.001,kdEnvT2);
kdFreq2 = kdNxtFreq2:ba.sAndH(kdGate2);
kddelta2 = kdDelta2:ba.sAndH(kdGate2);
kdRamp2 = kdFreq2+(kdFreq2*kddelta2*kdEnvT2);
kdEnv2 = envAR(kdA2, kdR2, kdRawTrig2);
krone2 = os.triangle(kdRamp2)*kdEnv2*kd2vol;
//-------------------------------------------OUTPUT
high = fmSynths:co.compressor_mono(20,-15,0.01,0.02)*fmVol;
low = krone1+krone2+(high:fi.lowpass6e(150)*0.2):co.compressor_mono(20,-15,0.01,0.02)*kroneVol;
process = high, low;
//-------------------------------------------TESTING
// process = fmEuc1;
// process = fmSynths:co.compressor_mono(20, -15, 0.01, 0.02);
// process = krone1+krone2:co.limiter_1176_R4_mono;
// process = kdFreq1;
// process = swerc1+swerc2:co.limiter_1176_R4_mono;s
|
https://raw.githubusercontent.com/JoeWrightMusic/ResonatorInst-v2/a231ad325d8f13c1e3b3ce582ffedd95081200e8/FAUST/Synth.dsp
|
faust
|
SPACE TO BE RESONATOR INSTRUMENT v2.0
-------------------------------------------CLOCKS
-------------------------------------------UTILS
___________________SELF BLOCKING ENV
-------------------------------------------FM-2OPs
___________________VARIABLES
fm synth 1
fm synth 2
fm synth 3
___________________DSP
fm synth 1
fm synth 2
fm synth 3
fm group
re.mono_freeverb(0.5,0.9,0.1,0.5)
-------------------------------------------KICK/DRONEs
___________________VARIABLES
krone1
krone2
___________________DSP
krone1
krone2
-------------------------------------------OUTPUT
-------------------------------------------TESTING
process = fmEuc1;
process = fmSynths:co.compressor_mono(20, -15, 0.01, 0.02);
process = krone1+krone2:co.limiter_1176_R4_mono;
process = kdFreq1;
process = swerc1+swerc2:co.limiter_1176_R4_mono;s
|
import("stdfaust.lib");
bpm=hslider("bpm",120,1,400,1);
barHz=bpm/(60*6);
step=os.phasor(48,barHz):int+1;
envAR(att,rel,gate) = (_:1,_>0:- <: en.ar((_*gate,att:ba.sAndH),(_*gate,rel:ba.sAndH),(_*gate))) ~ _;
fmVol = hslider("fmVol",0.5,0,1,0.001):si.smoo;
fmVerb = hslider("fmVerb", 0.5,0,1,0.001):si.smoo;
fm1vol=hslider("fm1vol",1,0,1,0.001);
fmNxtFreq1 = hslider("fmFreq1",69,0,127,0.01):ba.midikey2hz;
fmMm1 = hslider("fmMm1",0.5,0.0,100,0.0001):si.smoo;
fmDp1 = hslider("fmDp1",0.5,0.00,10,0.0001):si.smoo;
fmAM1 = hslider("fmAM1",0.1,0.001,10,0.01);
fmRM1 = hslider("fmRM1",0.3,0.001,10,0.01);
fmAC1 = hslider("fmAC1",0.1,0.001,10,0.01);
fmRC1 = hslider("fmRC1",0.3,0.001,10,0.01);
fmTrigD1 = button("fmTrigD1");
fmGateT1 = checkbox("fmGateT1");
fmEucNo1 = hslider("fmEucNo1", 7, 0, 24, 1);
fmModWheel1 = hslider("fmModWheel1", 1, 0.1, 100, 0.001):si.smoo;
fm2vol=hslider("fm2vol",1,0,1,0.001);
fmNxtFreq2 = hslider("fmFreq2",62,0,127,0.01):ba.midikey2hz;
fmMm2 = hslider("fmMm2",0.5,0.0,100,0.0001):si.smoo;
fmDp2 = hslider("fmDp2",0.5,0.00,10,0.0001):si.smoo;
fmAM2 = hslider("fmAM2",0.1,0.001,10,0.01);
fmRM2 = hslider("fmRM2",0.3,0.001,10,0.01);
fmAC2 = hslider("fmAC2",0.1,0.001,10,0.01);
fmRC2 = hslider("fmRC2",0.3,0.001,10,0.01);
fmTrigD2 = button("fmTrigD2");
fmGateT2 = checkbox("fmGateT2");
fmEucNo2 = hslider("fmEucNo2", 9, 0, 24, 1);
fmModWheel2 = hslider("fmModWheel2", 1, 0.1, 100, 0.001):si.smoo;
fm3vol=hslider("fm3vol",1,0,1,0.001);
fmNxtFreq3 = hslider("fmFreq3",52,0,127,0.01):ba.midikey2hz;
fmMm3 = hslider("fmMm3",0.5,0.0,100,0.0001):si.smoo;
fmDp3 = hslider("fmDp3",0.5,0.00,10,0.0001):si.smoo;
fmAM3 = hslider("fmAM3",0.1,0.001,10,0.01);
fmRM3 = hslider("fmRM3",0.3,0.001,10,0.01);
fmAC3 = hslider("fmAC3",0.1,0.001,10,0.01);
fmRC3 = hslider("fmRC3",0.3,0.001,10,0.01);
fmTrigD3 = button("fmTrigD3");
fmGateT3 = checkbox("fmGateT3");
fmEucNo3 = hslider("fmEucNo3", 16, 0, 24, 1);
fmModWheel3 = hslider("fmModWheel3", 1, 0.1, 100, 0.001):si.smoo;
fmEuc1 = ((step*fmEucNo1) % 48) < fmEucNo1 : en.ar(0,0.001);
fmRawTrig1 = fmTrigD1+(fmEuc1*fmGateT1);
fmTrig1 = envAR(0, fmAC1+fmRC1, fmRawTrig1):en.ar(0,0.001);
fmFreq1 = fmNxtFreq1:ba.sAndH(fmTrig1);
fmac1 = fmAC1:ba.sAndH(fmTrig1);
fmrc1 = fmRC1:ba.sAndH(fmTrig1);
fmam1 = fmAM1:ba.sAndH(fmTrig1);
fmrm1 = fmRM1:ba.sAndH(fmTrig1);
fm2op1(freq,mMul,dMul,trig,am,rm,ac,rc) =
os.osc(
freq+( os.osc(freq*mMul)*freq*dMul*en.ar(am,rm,trig) )
)*envAR(ac,rc, trig)*fm1vol;
fmDpm1 = fmDp1*fmModWheel1;
fmEuc2 = ((step*fmEucNo2) % 48) < fmEucNo2 : en.ar(0,0.001);
fmRawTrig2 = fmTrigD2+(fmEuc2*fmGateT2);
fmTrig2 = envAR(0, fmAC2+fmRC2, fmRawTrig2):en.ar(0,0.001);
fmFreq2 = fmNxtFreq2:ba.sAndH(fmTrig2);
fmac2 = fmAC2:ba.sAndH(fmTrig2);
fmrc2 = fmRC2:ba.sAndH(fmTrig2);
fmam2 = fmAM2:ba.sAndH(fmTrig2);
fmrm2 = fmRM2:ba.sAndH(fmTrig2);
fm2op2(freq,mMul,dMul,trig,am,rm,ac,rc) =
os.osc(
freq+( os.osc(freq*mMul)*freq*dMul*en.ar(am,rm,trig) )
)*envAR(ac,rc, trig)*fm2vol;
fmDpm2 = fmDp2*fmModWheel2;
fmEuc3 = ((step*fmEucNo3) % 48) < fmEucNo3 : en.ar(0,0.001);
fmRawTrig3 = fmTrigD3+(fmEuc3*fmGateT3);
fmTrig3 = envAR(0, fmAC3+fmRC3, fmRawTrig3):en.ar(0,0.001);
fmFreq3 = fmNxtFreq3:ba.sAndH(fmTrig3);
fmac3 = fmAC3:ba.sAndH(fmTrig3);
fmrc3 = fmRC3:ba.sAndH(fmTrig3);
fmam3 = fmAM3:ba.sAndH(fmTrig3);
fmrm3 = fmRM3:ba.sAndH(fmTrig3);
fm2op3(freq,mMul,dMul,trig,am,rm,ac,rc) =
os.osc(
freq+( os.osc(freq*mMul)*freq*dMul*en.ar(am,rm,trig) )
)*envAR(ac,rc, trig)*fm3vol;
fmDpm3 = fmDp3*fmModWheel3;
dry = 1-(fmVerb);
fmSynths = (
fm2op1(fmFreq1,fmMm1,fmDpm1,fmTrig1, fmam1,fmrm1,fmac1,fmrc1)+
fm2op2(fmFreq2,fmMm2,fmDpm2,fmTrig2, fmam2,fmrm2,fmac2,fmrc2)+
fm2op3(fmFreq3,fmMm3,fmDpm3,fmTrig3, fmam3,fmrm3,fmac3,fmrc3)
)<: (_*dry),(_*fmVerb) : _,(_:re.mono_freeverb(0.88,0.2,0.8,0)) :+;
kroneVol = hslider("kroneVol",0.5,0,1,0.001);
kd1vol=hslider("kd1vol",1,0,1,0.001);
kdTrig1 = button("kdTrig1");
kdNxtFreq1 = hslider("kdNxtFreq1", 30, 0, 127, 1):ba.midikey2hz;
kdDelta1 = hslider("kdDelta1", -0.9,-0.99,5,0.001);
kdA1 = hslider("kdA1", 0.01, 0, 15, 0.01);
kdR1 = hslider("kdR1", 0.09, 0, 15, 0.01);
kdTrigD1 = button("kdTrigD1");
kdGateT1 = checkbox("kdGateT1");
kdEucNo1 = hslider("kdEucNo1", 16, 0, 24, 1);
kd2vol=hslider("kd2vol",1,0,1,0.001);
kdTrig2 = button("kdTrig2");
kdNxtFreq2 = hslider("kdNxtFreq2", 34, 0, 127, 1):ba.midikey2hz;
kdDelta2 = hslider("kdDelta2", -0.1,-0.99,5,0.001);
kdA2 = hslider("kdA2", 2, 0, 15, 0.01);
kdR2 = hslider("kdR2", 2, 0, 15, 0.01);
kdTrigD2 = button("kdTrigD2");
kdGateT2 = checkbox("kdGateT2");
kdEucNo2 = hslider("kdEucNo2", 1, 0, 24, 1);
kdEuc1 = ((step*kdEucNo1) % 48) < kdEucNo1 : en.ar(0,0.001);
kdRawTrig1 = kdTrig1+(kdEuc1*kdGateT1);
kdEnvT1 = envAR(kdA1+kdR1, 0, kdRawTrig1);
kdGate1 = 1-en.ar(0,0.001,kdEnvT1);
kdFreq1 = kdNxtFreq1:ba.sAndH(kdGate1);
kddelta1 = kdDelta1:ba.sAndH(kdGate1);
kdRamp1 = kdFreq1+(kdFreq1*kddelta1*kdEnvT1);
kdEnv1 = envAR(kdA1, kdR1, kdRawTrig1);
krone1 = os.triangle(kdRamp1)*kdEnv1*kd1vol;
kdEuc2 = ((step*kdEucNo2) % 48) < kdEucNo2 : en.ar(0,0.001);
kdRawTrig2 = kdTrig2+(kdEuc2*kdGateT2);
kdEnvT2 = envAR(kdA2+kdR2, 0, kdRawTrig2);
kdGate2 = 1-en.ar(0,0.001,kdEnvT2);
kdFreq2 = kdNxtFreq2:ba.sAndH(kdGate2);
kddelta2 = kdDelta2:ba.sAndH(kdGate2);
kdRamp2 = kdFreq2+(kdFreq2*kddelta2*kdEnvT2);
kdEnv2 = envAR(kdA2, kdR2, kdRawTrig2);
krone2 = os.triangle(kdRamp2)*kdEnv2*kd2vol;
high = fmSynths:co.compressor_mono(20,-15,0.01,0.02)*fmVol;
low = krone1+krone2+(high:fi.lowpass6e(150)*0.2):co.compressor_mono(20,-15,0.01,0.02)*kroneVol;
process = high, low;
|
30387c322220ed374b7d869c83ca3347a2e89bd5140e149aa621c121286542d1
|
nickgang/AFDN-reverb
|
afdnRev3rd.dsp
|
declare name "afdnRev3rd";
declare version "0.0";
declare author "Nick Gang & Wisam Reid";
declare description "A feedback delay network reverb for 3rd order ambisonics";
import("stdfaust.lib");
import("AFDN.lib");
//-------------------------`afdnrev3_demo`---------------------------
// A reverb application using `afdnrev0`.
//
// #### Usage
//
// ```
// _ : afdnrev1_demo(N,M,NB) : _
// ```
//
// Where:
//
// * `N`: Feedback Delay Network (FDN) order / number of delay lines used =
// order of feedback matrix / 2, 4, 8, or 16 [extend primes array below for
// 32, 64, ...]
// * `M`: Number of delays for early reflections, should have M<=N
// * `NB`: Number of frequency bands / Number of (nearly) independent T60 controls
// / Integer 3 or greater
//------------------------------------------------------------
afdnrev3_demo(N,M,NB) = par(i,A,
afdnEarly0(MAXDELAY,delEarly,3,freqs,durs,loopgainmax,nonl))
: hoaRotate3rd(theta) :
( _ : afdnrev0(MAXDELAY,delays,3,freqs,durs,loopgainmax,nonl):> *(gain)) ,
(si.bus(A-1))
with{
A = 16; // Number of Ambisonics channels
MAXDELAY = 8192; // sync w delays and prime_power_delays above
defdurs = (8.4,6.5,5.0,3.8,2.7); // NB default durations (sec)
deffreqs = (500,1000,2000,4000); // NB-1 default crossover frequencies (Hz)
deflens = (56.3,63.0); // 2 default min and max path lengths (same for early and late for now)
fdn_group(x) = vgroup("Ambisonics FDN, ORDER 16
[tooltip: See Faust's reverbs.lib for documentation and references]", x);
theta_group(x) = fdn_group(hgroup("[1] Reflection Width",x));
freq_group(x) = fdn_group(vgroup("[1] Band Crossover Frequencies", x));
t60_group(x) = fdn_group(hgroup("[2] Band Decay Times (T60)", x));
path_group(x) = fdn_group(vgroup("[3] Room Dimensions", x));
revin_group(x) = fdn_group(hgroup("[4] Input Controls", x));
nonl_group(x) = revin_group(vgroup("[4] Nonlinearity",x));
quench_group(x) = revin_group(vgroup("[3] Reverb State",x));
theta = theta_group(hslider("[1] Rotation of early reflections (radians)",
ma.PI/6,0,2*ma.PI,.001));
nonl = nonl_group(hslider("[style:knob] [tooltip: nonlinear mode coupling]",
0, -0.999, 0.999, 0.001));
loopgainmax = 1.0-0.5*quench_group(button("[1] Quench
[tooltip: Hold down 'Quench' to clear the reverberator]"));
pathmin = path_group(hslider("[1] min acoustic ray length [unit:m] [scale:log]
[tooltip: This length (in meters) determines the shortest delay-line used in the FDN
reverberator. Think of it as the shortest wall-to-wall separation in the room.]",
46, 0.1, 63, 0.1));
pathmax = path_group(hslider("[2] max acoustic ray length [unit:m] [scale:log]
[tooltip: This length (in meters) determines the longest delay-line used in the
FDN reverberator. Think of it as the largest wall-to-wall separation in the room.]",
63, 0.1, 63, 0.1));
durvals(i) = t60_group(vslider("[%i] %i [unit:s] [scale:log][tooltip: T60 is the 60dB
decay-time in seconds. For concert halls, an overall reverberation time (T60) near
1.9 seconds is typical [Beranek 2004]. Here we may set T60 independently in each
frequency band. In real rooms, higher frequency bands generally decay faster due
to absorption and scattering.]",ba.take(i+1,defdurs), 0.1, 100, 0.1));
durs = par(i,NB,durvals(NB-1-i));
freqvals(i) = freq_group(hslider("[%i] Band %i upper edge in Hz [unit:Hz] [scale:log]
[tooltip: Each delay-line signal is split into frequency-bands for separate
decay-time control in each band]",ba.take(i+1,deffreqs), 100, 10000, 1));
freqs = par(i,NB-1,freqvals(i));
delays = de.prime_power_delays(N,pathmin,pathmax);
delEarly = de.prime_power_delays(M,pathmin,pathmax); // Early delay times
gain = hslider("[3] Wet Level (dB) [unit:dB][tooltip: Output scale factor]",
-20, -70, 20, 0.1) : ba.db2linear;
// (can cause infinite loop:) with { db2linear(x) = pow(10, x/20.0); };
};
process = afdnrev3_demo(16,8,5);
|
https://raw.githubusercontent.com/nickgang/AFDN-reverb/48224a4de72617adef0c36ceec0814af611f2582/Source/Faust/afdnRev3rd.dsp
|
faust
|
-------------------------`afdnrev3_demo`---------------------------
A reverb application using `afdnrev0`.
#### Usage
```
_ : afdnrev1_demo(N,M,NB) : _
```
Where:
* `N`: Feedback Delay Network (FDN) order / number of delay lines used =
order of feedback matrix / 2, 4, 8, or 16 [extend primes array below for
32, 64, ...]
* `M`: Number of delays for early reflections, should have M<=N
* `NB`: Number of frequency bands / Number of (nearly) independent T60 controls
/ Integer 3 or greater
------------------------------------------------------------
Number of Ambisonics channels
sync w delays and prime_power_delays above
NB default durations (sec)
NB-1 default crossover frequencies (Hz)
2 default min and max path lengths (same for early and late for now)
Early delay times
(can cause infinite loop:) with { db2linear(x) = pow(10, x/20.0); };
|
declare name "afdnRev3rd";
declare version "0.0";
declare author "Nick Gang & Wisam Reid";
declare description "A feedback delay network reverb for 3rd order ambisonics";
import("stdfaust.lib");
import("AFDN.lib");
afdnrev3_demo(N,M,NB) = par(i,A,
afdnEarly0(MAXDELAY,delEarly,3,freqs,durs,loopgainmax,nonl))
: hoaRotate3rd(theta) :
( _ : afdnrev0(MAXDELAY,delays,3,freqs,durs,loopgainmax,nonl):> *(gain)) ,
(si.bus(A-1))
with{
fdn_group(x) = vgroup("Ambisonics FDN, ORDER 16
[tooltip: See Faust's reverbs.lib for documentation and references]", x);
theta_group(x) = fdn_group(hgroup("[1] Reflection Width",x));
freq_group(x) = fdn_group(vgroup("[1] Band Crossover Frequencies", x));
t60_group(x) = fdn_group(hgroup("[2] Band Decay Times (T60)", x));
path_group(x) = fdn_group(vgroup("[3] Room Dimensions", x));
revin_group(x) = fdn_group(hgroup("[4] Input Controls", x));
nonl_group(x) = revin_group(vgroup("[4] Nonlinearity",x));
quench_group(x) = revin_group(vgroup("[3] Reverb State",x));
theta = theta_group(hslider("[1] Rotation of early reflections (radians)",
ma.PI/6,0,2*ma.PI,.001));
nonl = nonl_group(hslider("[style:knob] [tooltip: nonlinear mode coupling]",
0, -0.999, 0.999, 0.001));
loopgainmax = 1.0-0.5*quench_group(button("[1] Quench
[tooltip: Hold down 'Quench' to clear the reverberator]"));
pathmin = path_group(hslider("[1] min acoustic ray length [unit:m] [scale:log]
[tooltip: This length (in meters) determines the shortest delay-line used in the FDN
reverberator. Think of it as the shortest wall-to-wall separation in the room.]",
46, 0.1, 63, 0.1));
pathmax = path_group(hslider("[2] max acoustic ray length [unit:m] [scale:log]
[tooltip: This length (in meters) determines the longest delay-line used in the
FDN reverberator. Think of it as the largest wall-to-wall separation in the room.]",
63, 0.1, 63, 0.1));
durvals(i) = t60_group(vslider("[%i] %i [unit:s] [scale:log][tooltip: T60 is the 60dB
decay-time in seconds. For concert halls, an overall reverberation time (T60) near
1.9 seconds is typical [Beranek 2004]. Here we may set T60 independently in each
frequency band. In real rooms, higher frequency bands generally decay faster due
to absorption and scattering.]",ba.take(i+1,defdurs), 0.1, 100, 0.1));
durs = par(i,NB,durvals(NB-1-i));
freqvals(i) = freq_group(hslider("[%i] Band %i upper edge in Hz [unit:Hz] [scale:log]
[tooltip: Each delay-line signal is split into frequency-bands for separate
decay-time control in each band]",ba.take(i+1,deffreqs), 100, 10000, 1));
freqs = par(i,NB-1,freqvals(i));
delays = de.prime_power_delays(N,pathmin,pathmax);
gain = hslider("[3] Wet Level (dB) [unit:dB][tooltip: Output scale factor]",
-20, -70, 20, 0.1) : ba.db2linear;
};
process = afdnrev3_demo(16,8,5);
|
2d6da10f4c550bad42242cf97c060d35a65a1c0f35bf0f8095e3ddf765726847
|
nickgang/AFDN-reverb
|
afdnRev2nd.dsp
|
declare name "afdnRev2nd";
declare version "0.0";
declare author "Nick Gang & Wisam Reid";
declare description "A feedback delay network reverb for 2nd order ambisonics";
import("stdfaust.lib");
import("AFDN.lib");
//-------------------------`afdnrev2_demo`---------------------------
// A reverb application using `afdnrev0`.
//
// #### Usage
//
// ```
// _ : afdnrev1_demo(N,M,NB) : _
// ```
//
// Where:
//
// * `N`: Feedback Delay Network (FDN) order / number of delay lines used =
// order of feedback matrix / 2, 4, 8, or 16 [extend primes array below for
// 32, 64, ...]
// * `M`: Number of delays for early reflections, should have M<=N
// * `NB`: Number of frequency bands / Number of (nearly) independent T60 controls
// / Integer 3 or greater
//------------------------------------------------------------
afdnrev2_demo(N,M,NB) = par(i,A,
afdnEarly0(MAXDELAY,delEarly,3,freqs,durs,loopgainmax,nonl))
: hoaRotate2nd(theta) :
( _ : afdnrev0(MAXDELAY,delays,3,freqs,durs,loopgainmax,nonl):> *(gain)) ,
(si.bus(A-1))
with{
A = 9; // Number of Ambisonics channels
MAXDELAY = 8192; // sync w delays and prime_power_delays above
defdurs = (8.4,6.5,5.0,3.8,2.7); // NB default durations (sec)
deffreqs = (500,1000,2000,4000); // NB-1 default crossover frequencies (Hz)
deflens = (56.3,63.0); // 2 default min and max path lengths (same for early and late for now)
fdn_group(x) = vgroup("Ambisonics FDN, ORDER 16
[tooltip: See Faust's reverbs.lib for documentation and references]", x);
theta_group(x) = fdn_group(hgroup("[1] Reflection Width",x));
freq_group(x) = fdn_group(vgroup("[1] Band Crossover Frequencies", x));
t60_group(x) = fdn_group(hgroup("[2] Band Decay Times (T60)", x));
path_group(x) = fdn_group(vgroup("[3] Room Dimensions", x));
revin_group(x) = fdn_group(hgroup("[4] Input Controls", x));
nonl_group(x) = revin_group(vgroup("[4] Nonlinearity",x));
quench_group(x) = revin_group(vgroup("[3] Reverb State",x));
theta = theta_group(hslider("[1] Rotation of early reflections (radians)",
ma.PI/6,0,2*ma.PI,.001));
nonl = nonl_group(hslider("[style:knob] [tooltip: nonlinear mode coupling]",
0, -0.999, 0.999, 0.001));
loopgainmax = 1.0-0.5*quench_group(button("[1] Quench
[tooltip: Hold down 'Quench' to clear the reverberator]"));
pathmin = path_group(hslider("[1] min acoustic ray length [unit:m] [scale:log]
[tooltip: This length (in meters) determines the shortest delay-line used in the FDN
reverberator. Think of it as the shortest wall-to-wall separation in the room.]",
46, 0.1, 63, 0.1));
pathmax = path_group(hslider("[2] max acoustic ray length [unit:m] [scale:log]
[tooltip: This length (in meters) determines the longest delay-line used in the
FDN reverberator. Think of it as the largest wall-to-wall separation in the room.]",
63, 0.1, 63, 0.1));
durvals(i) = t60_group(vslider("[%i] %i [unit:s] [scale:log][tooltip: T60 is the 60dB
decay-time in seconds. For concert halls, an overall reverberation time (T60) near
1.9 seconds is typical [Beranek 2004]. Here we may set T60 independently in each
frequency band. In real rooms, higher frequency bands generally decay faster due
to absorption and scattering.]",ba.take(i+1,defdurs), 0.1, 100, 0.1));
durs = par(i,NB,durvals(NB-1-i));
freqvals(i) = freq_group(hslider("[%i] Band %i upper edge in Hz [unit:Hz] [scale:log]
[tooltip: Each delay-line signal is split into frequency-bands for separate
decay-time control in each band]",ba.take(i+1,deffreqs), 100, 10000, 1));
freqs = par(i,NB-1,freqvals(i));
delays = de.prime_power_delays(N,pathmin,pathmax);
delEarly = de.prime_power_delays(M,pathmin,pathmax); // Early delay times
gain = hslider("[3] Wet Level (dB) [unit:dB][tooltip: Output scale factor]",
-20, -70, 20, 0.1) : ba.db2linear;
// (can cause infinite loop:) with { db2linear(x) = pow(10, x/20.0); };
};
process = afdnrev2_demo(16,8,5);
|
https://raw.githubusercontent.com/nickgang/AFDN-reverb/48224a4de72617adef0c36ceec0814af611f2582/Source/Faust/afdnRev2nd.dsp
|
faust
|
-------------------------`afdnrev2_demo`---------------------------
A reverb application using `afdnrev0`.
#### Usage
```
_ : afdnrev1_demo(N,M,NB) : _
```
Where:
* `N`: Feedback Delay Network (FDN) order / number of delay lines used =
order of feedback matrix / 2, 4, 8, or 16 [extend primes array below for
32, 64, ...]
* `M`: Number of delays for early reflections, should have M<=N
* `NB`: Number of frequency bands / Number of (nearly) independent T60 controls
/ Integer 3 or greater
------------------------------------------------------------
Number of Ambisonics channels
sync w delays and prime_power_delays above
NB default durations (sec)
NB-1 default crossover frequencies (Hz)
2 default min and max path lengths (same for early and late for now)
Early delay times
(can cause infinite loop:) with { db2linear(x) = pow(10, x/20.0); };
|
declare name "afdnRev2nd";
declare version "0.0";
declare author "Nick Gang & Wisam Reid";
declare description "A feedback delay network reverb for 2nd order ambisonics";
import("stdfaust.lib");
import("AFDN.lib");
afdnrev2_demo(N,M,NB) = par(i,A,
afdnEarly0(MAXDELAY,delEarly,3,freqs,durs,loopgainmax,nonl))
: hoaRotate2nd(theta) :
( _ : afdnrev0(MAXDELAY,delays,3,freqs,durs,loopgainmax,nonl):> *(gain)) ,
(si.bus(A-1))
with{
fdn_group(x) = vgroup("Ambisonics FDN, ORDER 16
[tooltip: See Faust's reverbs.lib for documentation and references]", x);
theta_group(x) = fdn_group(hgroup("[1] Reflection Width",x));
freq_group(x) = fdn_group(vgroup("[1] Band Crossover Frequencies", x));
t60_group(x) = fdn_group(hgroup("[2] Band Decay Times (T60)", x));
path_group(x) = fdn_group(vgroup("[3] Room Dimensions", x));
revin_group(x) = fdn_group(hgroup("[4] Input Controls", x));
nonl_group(x) = revin_group(vgroup("[4] Nonlinearity",x));
quench_group(x) = revin_group(vgroup("[3] Reverb State",x));
theta = theta_group(hslider("[1] Rotation of early reflections (radians)",
ma.PI/6,0,2*ma.PI,.001));
nonl = nonl_group(hslider("[style:knob] [tooltip: nonlinear mode coupling]",
0, -0.999, 0.999, 0.001));
loopgainmax = 1.0-0.5*quench_group(button("[1] Quench
[tooltip: Hold down 'Quench' to clear the reverberator]"));
pathmin = path_group(hslider("[1] min acoustic ray length [unit:m] [scale:log]
[tooltip: This length (in meters) determines the shortest delay-line used in the FDN
reverberator. Think of it as the shortest wall-to-wall separation in the room.]",
46, 0.1, 63, 0.1));
pathmax = path_group(hslider("[2] max acoustic ray length [unit:m] [scale:log]
[tooltip: This length (in meters) determines the longest delay-line used in the
FDN reverberator. Think of it as the largest wall-to-wall separation in the room.]",
63, 0.1, 63, 0.1));
durvals(i) = t60_group(vslider("[%i] %i [unit:s] [scale:log][tooltip: T60 is the 60dB
decay-time in seconds. For concert halls, an overall reverberation time (T60) near
1.9 seconds is typical [Beranek 2004]. Here we may set T60 independently in each
frequency band. In real rooms, higher frequency bands generally decay faster due
to absorption and scattering.]",ba.take(i+1,defdurs), 0.1, 100, 0.1));
durs = par(i,NB,durvals(NB-1-i));
freqvals(i) = freq_group(hslider("[%i] Band %i upper edge in Hz [unit:Hz] [scale:log]
[tooltip: Each delay-line signal is split into frequency-bands for separate
decay-time control in each band]",ba.take(i+1,deffreqs), 100, 10000, 1));
freqs = par(i,NB-1,freqvals(i));
delays = de.prime_power_delays(N,pathmin,pathmax);
gain = hslider("[3] Wet Level (dB) [unit:dB][tooltip: Output scale factor]",
-20, -70, 20, 0.1) : ba.db2linear;
};
process = afdnrev2_demo(16,8,5);
|
c062bf9969aec8491cdb06dd6496e5e8e9452ab4a67d8b28a1c1d0ddeeef2556
|
nickgang/AFDN-reverb
|
afdnRev1st.dsp
|
declare name "afdnRev1st";
declare version "0.0";
declare author "Nick Gang & Wisam Reid";
declare description "A feedback delay network reverb for 1st order ambisonics";
import("stdfaust.lib");
import("AFDN.lib");
//-------------------------`afdnrev1_demo`---------------------------
// A reverb application using `afdnrev0`.
//
// #### Usage
//
// ```
// _ : afdnrev1_demo(N,M,NB) : _
// ```
//
// Where:
//
// * `N`: Feedback Delay Network (FDN) order / number of delay lines used =
// order of feedback matrix / 2, 4, 8, or 16 [extend primes array below for
// 32, 64, ...]
// * `M`: Number of delays for early reflections, should have M<=N
// * `NB`: Number of frequency bands / Number of (nearly) independent T60 controls
// / Integer 3 or greater
//------------------------------------------------------------
afdnrev1_demo(N,M,NB) = par(i,A,
afdnEarly0(MAXDELAY,delEarly,3,freqs,durs,loopgainmax,nonl))
: hoaRotate1st(theta) :
( _ : afdnrev0(MAXDELAY,delays,3,freqs,durs,loopgainmax,nonl):> *(gain)) ,
(si.bus(A-1))
with{
A = 4; // Number of Ambisonics channels
MAXDELAY = 8192; // sync w delays and prime_power_delays above
defdurs = (8.4,6.5,5.0,3.8,2.7); // NB default durations (sec)
deffreqs = (500,1000,2000,4000); // NB-1 default crossover frequencies (Hz)
deflens = (56.3,63.0); // 2 default min and max path lengths (same for early and late for now)
fdn_group(x) = vgroup("Ambisonics FDN, ORDER 16
[tooltip: See Faust's reverbs.lib for documentation and references]", x);
theta_group(x) = fdn_group(hgroup("[1] Reflection Width",x));
freq_group(x) = fdn_group(vgroup("[1] Band Crossover Frequencies", x));
t60_group(x) = fdn_group(hgroup("[2] Band Decay Times (T60)", x));
path_group(x) = fdn_group(vgroup("[3] Room Dimensions", x));
revin_group(x) = fdn_group(hgroup("[4] Input Controls", x));
nonl_group(x) = revin_group(vgroup("[4] Nonlinearity",x));
quench_group(x) = revin_group(vgroup("[3] Reverb State",x));
theta = theta_group(hslider("[1] Rotation of early reflections (radians)",
ma.PI/6,0,2*ma.PI,.001));
nonl = nonl_group(hslider("[style:knob] [tooltip: nonlinear mode coupling]",
0, -0.999, 0.999, 0.001));
loopgainmax = 1.0-0.5*quench_group(button("[1] Quench
[tooltip: Hold down 'Quench' to clear the reverberator]"));
pathmin = path_group(hslider("[1] min acoustic ray length [unit:m] [scale:log]
[tooltip: This length (in meters) determines the shortest delay-line used in the FDN
reverberator. Think of it as the shortest wall-to-wall separation in the room.]",
46, 0.1, 63, 0.1));
pathmax = path_group(hslider("[2] max acoustic ray length [unit:m] [scale:log]
[tooltip: This length (in meters) determines the longest delay-line used in the
FDN reverberator. Think of it as the largest wall-to-wall separation in the room.]",
63, 0.1, 63, 0.1));
durvals(i) = t60_group(vslider("[%i] %i [unit:s] [scale:log][tooltip: T60 is the 60dB
decay-time in seconds. For concert halls, an overall reverberation time (T60) near
1.9 seconds is typical [Beranek 2004]. Here we may set T60 independently in each
frequency band. In real rooms, higher frequency bands generally decay faster due
to absorption and scattering.]",ba.take(i+1,defdurs), 0.1, 100, 0.1));
durs = par(i,NB,durvals(NB-1-i));
freqvals(i) = freq_group(hslider("[%i] Band %i upper edge in Hz [unit:Hz] [scale:log]
[tooltip: Each delay-line signal is split into frequency-bands for separate
decay-time control in each band]",ba.take(i+1,deffreqs), 100, 10000, 1));
freqs = par(i,NB-1,freqvals(i));
delays = de.prime_power_delays(N,pathmin,pathmax);
delEarly = de.prime_power_delays(M,pathmin,pathmax); // Early delay times
gain = hslider("[3] Wet Level (dB) [unit:dB][tooltip: Output scale factor]",
-20, -70, 20, 0.1) : ba.db2linear;
// (can cause infinite loop:) with { db2linear(x) = pow(10, x/20.0); };
};
process = afdnrev1_demo(16,8,5);
|
https://raw.githubusercontent.com/nickgang/AFDN-reverb/48224a4de72617adef0c36ceec0814af611f2582/Source/Faust/afdnRev1st.dsp
|
faust
|
-------------------------`afdnrev1_demo`---------------------------
A reverb application using `afdnrev0`.
#### Usage
```
_ : afdnrev1_demo(N,M,NB) : _
```
Where:
* `N`: Feedback Delay Network (FDN) order / number of delay lines used =
order of feedback matrix / 2, 4, 8, or 16 [extend primes array below for
32, 64, ...]
* `M`: Number of delays for early reflections, should have M<=N
* `NB`: Number of frequency bands / Number of (nearly) independent T60 controls
/ Integer 3 or greater
------------------------------------------------------------
Number of Ambisonics channels
sync w delays and prime_power_delays above
NB default durations (sec)
NB-1 default crossover frequencies (Hz)
2 default min and max path lengths (same for early and late for now)
Early delay times
(can cause infinite loop:) with { db2linear(x) = pow(10, x/20.0); };
|
declare name "afdnRev1st";
declare version "0.0";
declare author "Nick Gang & Wisam Reid";
declare description "A feedback delay network reverb for 1st order ambisonics";
import("stdfaust.lib");
import("AFDN.lib");
afdnrev1_demo(N,M,NB) = par(i,A,
afdnEarly0(MAXDELAY,delEarly,3,freqs,durs,loopgainmax,nonl))
: hoaRotate1st(theta) :
( _ : afdnrev0(MAXDELAY,delays,3,freqs,durs,loopgainmax,nonl):> *(gain)) ,
(si.bus(A-1))
with{
fdn_group(x) = vgroup("Ambisonics FDN, ORDER 16
[tooltip: See Faust's reverbs.lib for documentation and references]", x);
theta_group(x) = fdn_group(hgroup("[1] Reflection Width",x));
freq_group(x) = fdn_group(vgroup("[1] Band Crossover Frequencies", x));
t60_group(x) = fdn_group(hgroup("[2] Band Decay Times (T60)", x));
path_group(x) = fdn_group(vgroup("[3] Room Dimensions", x));
revin_group(x) = fdn_group(hgroup("[4] Input Controls", x));
nonl_group(x) = revin_group(vgroup("[4] Nonlinearity",x));
quench_group(x) = revin_group(vgroup("[3] Reverb State",x));
theta = theta_group(hslider("[1] Rotation of early reflections (radians)",
ma.PI/6,0,2*ma.PI,.001));
nonl = nonl_group(hslider("[style:knob] [tooltip: nonlinear mode coupling]",
0, -0.999, 0.999, 0.001));
loopgainmax = 1.0-0.5*quench_group(button("[1] Quench
[tooltip: Hold down 'Quench' to clear the reverberator]"));
pathmin = path_group(hslider("[1] min acoustic ray length [unit:m] [scale:log]
[tooltip: This length (in meters) determines the shortest delay-line used in the FDN
reverberator. Think of it as the shortest wall-to-wall separation in the room.]",
46, 0.1, 63, 0.1));
pathmax = path_group(hslider("[2] max acoustic ray length [unit:m] [scale:log]
[tooltip: This length (in meters) determines the longest delay-line used in the
FDN reverberator. Think of it as the largest wall-to-wall separation in the room.]",
63, 0.1, 63, 0.1));
durvals(i) = t60_group(vslider("[%i] %i [unit:s] [scale:log][tooltip: T60 is the 60dB
decay-time in seconds. For concert halls, an overall reverberation time (T60) near
1.9 seconds is typical [Beranek 2004]. Here we may set T60 independently in each
frequency band. In real rooms, higher frequency bands generally decay faster due
to absorption and scattering.]",ba.take(i+1,defdurs), 0.1, 100, 0.1));
durs = par(i,NB,durvals(NB-1-i));
freqvals(i) = freq_group(hslider("[%i] Band %i upper edge in Hz [unit:Hz] [scale:log]
[tooltip: Each delay-line signal is split into frequency-bands for separate
decay-time control in each band]",ba.take(i+1,deffreqs), 100, 10000, 1));
freqs = par(i,NB-1,freqvals(i));
delays = de.prime_power_delays(N,pathmin,pathmax);
gain = hslider("[3] Wet Level (dB) [unit:dB][tooltip: Output scale factor]",
-20, -70, 20, 0.1) : ba.db2linear;
};
process = afdnrev1_demo(16,8,5);
|
e36847046ee5f54b4769df542080551d645119b873685b78eac81ad56a051ade
|
JaoRamos/Faust
|
11_Led.dsp
|
/*
Detector estilo LED (interfaz grafica)
Al mismo medidor del ejemplo anterior podemos cambiarle el estilo para verlo estilo
LED que se enciende segun la señal. Para ello le agregamos [style:led] en la etiqueta.
Suele ser mas util como detector de señal.
A veces hay que ajustar el minimo y maximo hasta tener una visualizacion mas adecuada.
[Se aplican todas las mismas ideas y advertencias que antes]
Poner un audio en la entrada!
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
*/
import("stdfaust.lib");
led = abs : ba.linear2db : vbargraph("Señal [style:led]", -50, 0);
process = _ <: attach(_, led);
|
https://raw.githubusercontent.com/JaoRamos/Faust/c8895c672104b10729ddc06b42e2169a2943d839/unq/Clase%209/11_Led.dsp
|
faust
|
Detector estilo LED (interfaz grafica)
Al mismo medidor del ejemplo anterior podemos cambiarle el estilo para verlo estilo
LED que se enciende segun la señal. Para ello le agregamos [style:led] en la etiqueta.
Suele ser mas util como detector de señal.
A veces hay que ajustar el minimo y maximo hasta tener una visualizacion mas adecuada.
[Se aplican todas las mismas ideas y advertencias que antes]
Poner un audio en la entrada!
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
|
import("stdfaust.lib");
led = abs : ba.linear2db : vbargraph("Señal [style:led]", -50, 0);
process = _ <: attach(_, led);
|
15469226b82cbecbdff36f81d15d8f87baa6df84777ab2a08b2f9416dd4da3ee
|
JaoRamos/Faust
|
2_Rotador.dsp
|
/*
Efecto super elemental de rotador estereo (paneador) automatizado, a partir de una señal mono.
Al final sumamos la señal original para obtener una suerte de control de profundidad.
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
*/
import("stdfaust.lib");
rate = hslider("Rate (Hz) [scale:exp]", 1, 0.01, 30, 0.01);
profundidad = hslider("Profundidad", 0.5, 0, 1, 0.01);
oscilador = os.osc(rate)*0.5 + 0.5;
rotador = sp.panner(oscilador);
// aplicamos el rotador, y luego sumamos por separado la señal original
// a cada canal (ya que el original era MONO, y el paneado ESTEREO)
// al usar un parametro (entrada) podemos generar copias reutilizables
// de la señal, y asi las dirigiremos a distintos lugares.
process(entrada) = (entrada*profundidad : rotador) :
(+(entrada*(1-profundidad)), // canal L
+(entrada*(1-profundidad)) ); // canal R
|
https://raw.githubusercontent.com/JaoRamos/Faust/c8895c672104b10729ddc06b42e2169a2943d839/unq/Clase_8/2_Rotador.dsp
|
faust
|
Efecto super elemental de rotador estereo (paneador) automatizado, a partir de una señal mono.
Al final sumamos la señal original para obtener una suerte de control de profundidad.
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
aplicamos el rotador, y luego sumamos por separado la señal original
a cada canal (ya que el original era MONO, y el paneado ESTEREO)
al usar un parametro (entrada) podemos generar copias reutilizables
de la señal, y asi las dirigiremos a distintos lugares.
canal L
canal R
|
import("stdfaust.lib");
rate = hslider("Rate (Hz) [scale:exp]", 1, 0.01, 30, 0.01);
profundidad = hslider("Profundidad", 0.5, 0, 1, 0.01);
oscilador = os.osc(rate)*0.5 + 0.5;
rotador = sp.panner(oscilador);
process(entrada) = (entrada*profundidad : rotador) :
|
e8d76db0330ec89af1bac4f20b9b52ceef396f2d59a62cdeebb542c32f532835
|
JaoRamos/Faust
|
4_Achurador.dsp
|
/*
Efecto casi comico de distorsion achuradora destructora...
Hacemos la señal totalmente cuadrada, y luego la hacemos seguir la amplitud de la señal
original mediante un seguidor de envolvente. De no hacerlo, la amplitud seria siempre
entre 1 y -1 totalmente saturado.
Es necesario añadir un filtro de agudos porque la señal 100% saturada es... insoportable!
Si observamos el osciloscopio, veremos señales casi cuadradas como resultado.
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
*/
import("stdfaust.lib");
// hacemos cuadrada la señal, muy cuadrada!, utilizando un condicional if():
// si la señal es mayor que cero, el resultado es +1
// si la señal es menor que cero, el resultado es -1
// resultado: señal achurada con un hacha desafilada!!
achurador(x) = ba.if(x > 0, 1, -1) * 0.5;
filtroAgudos = fi.lowpass(10, 10000);
process(x) = x : achurador : filtroAgudos
*(x : an.amp_follower(0.01)) // seguimos la amplitud original
<: _, _;
|
https://raw.githubusercontent.com/JaoRamos/Faust/c8895c672104b10729ddc06b42e2169a2943d839/unq/Clase_8/4_Achurador.dsp
|
faust
|
Efecto casi comico de distorsion achuradora destructora...
Hacemos la señal totalmente cuadrada, y luego la hacemos seguir la amplitud de la señal
original mediante un seguidor de envolvente. De no hacerlo, la amplitud seria siempre
entre 1 y -1 totalmente saturado.
Es necesario añadir un filtro de agudos porque la señal 100% saturada es... insoportable!
Si observamos el osciloscopio, veremos señales casi cuadradas como resultado.
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
hacemos cuadrada la señal, muy cuadrada!, utilizando un condicional if():
si la señal es mayor que cero, el resultado es +1
si la señal es menor que cero, el resultado es -1
resultado: señal achurada con un hacha desafilada!!
seguimos la amplitud original
|
import("stdfaust.lib");
achurador(x) = ba.if(x > 0, 1, -1) * 0.5;
filtroAgudos = fi.lowpass(10, 10000);
process(x) = x : achurador : filtroAgudos
<: _, _;
|
923f771bc42de8e56bc671bba6002f5462daaa9b8dfbe28fac39051441540d07
|
JaoRamos/Faust
|
15_Menu.dsp
|
/*
Selector estilo menu (interfaz grafica)
Otra alternativa que tenemos para los sliders es utilizarlos como menu de opciones.
Funciona exactamente igual que los ejemplos anteriores, pero como un grupo desplegable de opciones.
Para ello utilizamos la etiqueta:
"Nombre[style:menu{'Opcion A':0;'Opcion B':1}]"
Nuevamente, podemos incluir tantas opciones como necesitemos. Aqui lo limitaremos a solo 3 porque
utilizaremos select3 para conmutarlas.
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
*/
import("stdfaust.lib");
// "slider" estilo menu (si.. ya no es un slider, pero siempre es un numero)
formaOnda = vslider("Forma de onda[style:menu{'Triangular':0;'Diente de sierra':1;'Cuadrada':2}]", 0, 0, 2, 1);
triangular = os.triangle(220);
sierra = os.sawtooth(220);
cuadrada = os.square(220);
modulador = os.osc(0.5) * 0.5 + 0.5; // modulamos para que sea mas amena la nota fija
// esta vez utilizamos select3 para tener 3 opciones
process = select3(formaOnda, triangular, sierra, cuadrada) * modulador * 0.3 <: _, _;
|
https://raw.githubusercontent.com/JaoRamos/Faust/c8895c672104b10729ddc06b42e2169a2943d839/unq/Clase%209/15_Menu.dsp
|
faust
|
Selector estilo menu (interfaz grafica)
Otra alternativa que tenemos para los sliders es utilizarlos como menu de opciones.
Funciona exactamente igual que los ejemplos anteriores, pero como un grupo desplegable de opciones.
Para ello utilizamos la etiqueta:
"Nombre[style:menu{'Opcion A':0;'Opcion B':1}]"
Nuevamente, podemos incluir tantas opciones como necesitemos. Aqui lo limitaremos a solo 3 porque
utilizaremos select3 para conmutarlas.
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
"slider" estilo menu (si.. ya no es un slider, pero siempre es un numero)
modulamos para que sea mas amena la nota fija
esta vez utilizamos select3 para tener 3 opciones
|
import("stdfaust.lib");
formaOnda = vslider("Forma de onda[style:menu{'Triangular':0;'Diente de sierra':1;'Cuadrada':2}]", 0, 0, 2, 1);
triangular = os.triangle(220);
sierra = os.sawtooth(220);
cuadrada = os.square(220);
process = select3(formaOnda, triangular, sierra, cuadrada) * modulador * 0.3 <: _, _;
|
ae633f5fdd2b708b752e852eb0cc311e5d619a5d9c822cc9d79acf43c566c7e6
|
JaoRamos/Faust
|
14_Conmutador.dsp
|
/*
Conmutador y selectores de opciones (interfaz grafica)
Teniendo un panel de opciones (o cualquier numero en realidad) podemos crear un conmutador entre
DOS o TRES señales utilizando la primitiva select2(x, señal1, señal2).
Si x vale 0, se utilizara la primer señal, si vale 1 la segunda señal.
Tenemos otro selector llamado select3, exactamente igual a select2 pero con 3 señales conmutables.
select3(x, señal1, señal2, señal3)
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
*/
import("stdfaust.lib");
// cuidado con los valores que ponemos de inicio/minimo/maximo/paso en el slider
// necesitamos configurar el "slider" para que SOLO nos devuelva 0 - 1 (0 - 1 - 2 para select3)
formaOnda = vslider("Forma de onda[style:radio{'Triangular':0;'Diente de sierra':1}]", 0, 0, 1, 1);
modulacion = vslider("Velocidad de modulacion [style:radio{'Lenta':0;'Media':1;'Rapida':2;'Maxima':3}]", 0, 0, 3, 1);
triangular = os.triangle(220);
sierra = os.sawtooth(220);
modulador = os.osc(0.5 + modulacion) * 0.5 + 0.5; // modulamos para que sea mas amena la nota fija
// select2 dejara pasar solo la señal que diga su primer argumento (0 o 1)
// podriamos tener 3 señales utilizando select3
process = hgroup("Conmutadores", select2(formaOnda, triangular, sierra) * modulador * 0.5);
|
https://raw.githubusercontent.com/JaoRamos/Faust/c8895c672104b10729ddc06b42e2169a2943d839/unq/Clase%209/14_Conmutador.dsp
|
faust
|
Conmutador y selectores de opciones (interfaz grafica)
Teniendo un panel de opciones (o cualquier numero en realidad) podemos crear un conmutador entre
DOS o TRES señales utilizando la primitiva select2(x, señal1, señal2).
Si x vale 0, se utilizara la primer señal, si vale 1 la segunda señal.
Tenemos otro selector llamado select3, exactamente igual a select2 pero con 3 señales conmutables.
select3(x, señal1, señal2, señal3)
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
cuidado con los valores que ponemos de inicio/minimo/maximo/paso en el slider
necesitamos configurar el "slider" para que SOLO nos devuelva 0 - 1 (0 - 1 - 2 para select3)
modulamos para que sea mas amena la nota fija
select2 dejara pasar solo la señal que diga su primer argumento (0 o 1)
podriamos tener 3 señales utilizando select3
|
import("stdfaust.lib");
formaOnda = vslider("Forma de onda[style:radio{'Triangular':0;'Diente de sierra':1}]", 0, 0, 1, 1);
modulacion = vslider("Velocidad de modulacion [style:radio{'Lenta':0;'Media':1;'Rapida':2;'Maxima':3}]", 0, 0, 3, 1);
triangular = os.triangle(220);
sierra = os.sawtooth(220);
process = hgroup("Conmutadores", select2(formaOnda, triangular, sierra) * modulador * 0.5);
|
fa37e740c2bd7e59c4bbd0515dae4332e23aa8672df926adaf04c223066ef0b9
|
JaoRamos/Faust
|
6_ChorusMono.dsp
|
/*
Efecto de Chorus MONO de una voz
Basicamente generamos un delay con tiempo variable, lo que cambiará el pich/afinación
de la señal. La variación la realizamos con un oscilador senoidal, aunque podríamos
usar otras formas de onda para distintos colores de chorus. Luego añadimos la señal
original a la modificada e incorporamos un filtro de agudos (pasabajos...).
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
*/
import("stdfaust.lib");
// controles
rate = hslider("Rate (Hz) [scale:exp]", 0.5, 0.1, 20, 0.1);
mix = hslider("Dry/Wet %", 40, 0, 100, 1) / 100;
tiempo = ma.SR * hslider("Tiempo (ms) [scale:exp]", 6, 0.1, 20, 0.1) / 1000; // ms
corteAgudos = hslider("Corte agudos (Hz) [scale:exp]", 5000, 1000, 20000, 100);
// Generamos la envolvente senoidal para el tiempo de delay
delayVariante = (os.osc(rate)*0.5 + 0.5) * tiempo;
// Al usar un parámetro (x) podemos generar "copias" de la señal ingresante,
// que luego podemos dirigir a diferentes secciones.
chorus(x) = x * (1-mix) + // señal original
((x : de.fdelay(tiempo, delayVariante) * mix) : // señal con delay variable
fi.lowpass(1, corteAgudos)); // filtro
// "x" representara a la primera entrada (puede tener cualquier nombre, no solo x)
process(x) = chorus(x) <: _, _;
|
https://raw.githubusercontent.com/JaoRamos/Faust/c8895c672104b10729ddc06b42e2169a2943d839/unq/Clase_8/6_ChorusMono.dsp
|
faust
|
Efecto de Chorus MONO de una voz
Basicamente generamos un delay con tiempo variable, lo que cambiará el pich/afinación
de la señal. La variación la realizamos con un oscilador senoidal, aunque podríamos
usar otras formas de onda para distintos colores de chorus. Luego añadimos la señal
original a la modificada e incorporamos un filtro de agudos (pasabajos...).
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
controles
ms
Generamos la envolvente senoidal para el tiempo de delay
Al usar un parámetro (x) podemos generar "copias" de la señal ingresante,
que luego podemos dirigir a diferentes secciones.
señal original
señal con delay variable
filtro
"x" representara a la primera entrada (puede tener cualquier nombre, no solo x)
|
import("stdfaust.lib");
rate = hslider("Rate (Hz) [scale:exp]", 0.5, 0.1, 20, 0.1);
mix = hslider("Dry/Wet %", 40, 0, 100, 1) / 100;
corteAgudos = hslider("Corte agudos (Hz) [scale:exp]", 5000, 1000, 20000, 100);
delayVariante = (os.osc(rate)*0.5 + 0.5) * tiempo;
process(x) = chorus(x) <: _, _;
|
8b0b2d78c71232782aa8606970d1508afe19d8e7dc53616cbaf89f560ae7825a
|
JaoRamos/Faust
|
13_Opciones.dsp
|
/*
Selector de opciones (interfaz grafica)
Los "sliders" pueden configurarse para mostrarse como botones de opciones, con cada
una representando un numero. Recordemos que "un slider es solo un numero" !!.
Para ello incluiremos lo siguiente en su etiqueta de nombre:
"Nombre [style:radio{'Opcion A':0;'Opcion B':1}]"
Aqui tenemos dos opciones, 'Opcion A' y 'Opcion B' (notar las comillas simples ' ),
separadas por el caracter de punto y coma ; A cada opcion se le asigna un valor fijo
numerico, 0 y 1 con el caracter dos puntos :
Del mismo modo podemos añadir multiples opciones.
[Advertencia: el control no funciona si añadimos espacios entre las opciones]
De esta forma podemos crear un panel de opciones numericas con un texto indicativo.
En el ejemplo siguiente veremos otra aplicacion util de esto.
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
*/
import("stdfaust.lib");
notaMidi = vslider("Nota [style:radio{'Do':60;'Mi':64;'Sol':67;'Si':71}]", 60, 0, 100, 1);
modulador = os.osc(0.5) * 0.5 + 0.5; // modulamos para que sea mas amena la nota fija
// usamos ba.midikey2hz para convertir un numero de nota MIDI en frecuencia
process = os.triangle(ba.midikey2hz(notaMidi)) * modulador * 0.5 <: _, _;
|
https://raw.githubusercontent.com/JaoRamos/Faust/c8895c672104b10729ddc06b42e2169a2943d839/unq/Clase%209/13_Opciones.dsp
|
faust
|
Selector de opciones (interfaz grafica)
Los "sliders" pueden configurarse para mostrarse como botones de opciones, con cada
una representando un numero. Recordemos que "un slider es solo un numero" !!.
Para ello incluiremos lo siguiente en su etiqueta de nombre:
"Nombre [style:radio{'Opcion A':0;'Opcion B':1}]"
Aqui tenemos dos opciones, 'Opcion A' y 'Opcion B' (notar las comillas simples ' ),
separadas por el caracter de punto y coma ; A cada opcion se le asigna un valor fijo
numerico, 0 y 1 con el caracter dos puntos :
Del mismo modo podemos añadir multiples opciones.
[Advertencia: el control no funciona si añadimos espacios entre las opciones]
De esta forma podemos crear un panel de opciones numericas con un texto indicativo.
En el ejemplo siguiente veremos otra aplicacion util de esto.
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
modulamos para que sea mas amena la nota fija
usamos ba.midikey2hz para convertir un numero de nota MIDI en frecuencia
|
import("stdfaust.lib");
notaMidi = vslider("Nota [style:radio{'Do':60;'Mi':64;'Sol':67;'Si':71}]", 60, 0, 100, 1);
process = os.triangle(ba.midikey2hz(notaMidi)) * modulador * 0.5 <: _, _;
|
1aae70c2068102aecdc7da9ebf149eef9314026c53597175ef0741ddcf87f87f
|
JaoRamos/Faust
|
11_Flanger.dsp
|
/*
Efecto de Flanger estereo simple.
El flanger mas elemental se compone de un filtro comb (peine) modulado aplicado a una
señal. Tradicionalmente se lo obtiene sumando al original, una copia retrasada en el
tiempo. Esto produce una serie de valles en el espectro, cuyas posiciones guardan una
relación armónica. Es habitual que estas posiciones sean moduladas por un LFO.
Aquí tenemos un ejemplo rudimentario de flanger estereo, mediante una sencilla modulación
del tiempo de retardo (en samples, realmente) mencionado.
Mas info en: https://en.wikipedia.org/wiki/Flanging
|| Juan Ramos 2021 - Universidad Nacional de Quilmes ||
|| [email protected] ||
*/
import("stdfaust.lib");
retardo = vslider("Retardo", 20, 10, 100, 0.01) + (rango*lfo);
rate = vslider("Rate LFO", 0.3, 0.1, 5, 0.01);
est = vslider("Estereo", 40, 0, 100, 1);
feedback = vslider("Feedback", 0.5, 0, 0.99, 0.01);
depth = vslider("Profundidad", 0.75, 0.0, 1.0, 0.01);
rango = vslider("Rango retardo", 15, 10, 100, 0.01);
master = vslider("Volumen", 0.8, 0.0, 1.5, 0.01);
// se pueden usar otros osciladores como LFO
lfo = (os.osc(rate) + 1)*0.5;
flanger(in, del, est, feedb, depth) = ((@(del + est))
~ (in + *(feedb)) // bardo
) *(depth) + in;
process(in) = hgroup("Super flanger", flanger(in, retardo, 0, feedback, depth)*master,
flanger(in, retardo, est, feedback, depth)*master);
|
https://raw.githubusercontent.com/JaoRamos/Faust/d3c8edcd42f44f37975d1fe80064be98434706cc/unq/Clase_8/11_Flanger.dsp
|
faust
|
Efecto de Flanger estereo simple.
El flanger mas elemental se compone de un filtro comb (peine) modulado aplicado a una
señal. Tradicionalmente se lo obtiene sumando al original, una copia retrasada en el
tiempo. Esto produce una serie de valles en el espectro, cuyas posiciones guardan una
relación armónica. Es habitual que estas posiciones sean moduladas por un LFO.
Aquí tenemos un ejemplo rudimentario de flanger estereo, mediante una sencilla modulación
del tiempo de retardo (en samples, realmente) mencionado.
Mas info en: https://en.wikipedia.org/wiki/Flanging
|| Juan Ramos 2021 - Universidad Nacional de Quilmes ||
|| [email protected] ||
se pueden usar otros osciladores como LFO
bardo
|
import("stdfaust.lib");
retardo = vslider("Retardo", 20, 10, 100, 0.01) + (rango*lfo);
rate = vslider("Rate LFO", 0.3, 0.1, 5, 0.01);
est = vslider("Estereo", 40, 0, 100, 1);
feedback = vslider("Feedback", 0.5, 0, 0.99, 0.01);
depth = vslider("Profundidad", 0.75, 0.0, 1.0, 0.01);
rango = vslider("Rango retardo", 15, 10, 100, 0.01);
master = vslider("Volumen", 0.8, 0.0, 1.5, 0.01);
lfo = (os.osc(rate) + 1)*0.5;
flanger(in, del, est, feedb, depth) = ((@(del + est))
) *(depth) + in;
process(in) = hgroup("Super flanger", flanger(in, retardo, 0, feedback, depth)*master,
flanger(in, retardo, est, feedback, depth)*master);
|
58f429087825678e94ceb76af7862c6b4c0aa89b67771f4ca0502e84bf2fbe53
|
JaoRamos/Faust
|
karplus.dsp
|
import("stdfaust.lib");
// frecuencia desde MIDI o teclado
frecuencia = nentry("freq", 120, 60, 20000, 1);
// cantidad de muestras de retardo segun la fundamental deseada
// puede haber desafinaciones porque los retardos son numeros enteros!
retardo = int(ma.SR / frecuencia);
// Controles del ruido del Karplus-Strong
GAIN_MINIMO = 0.7; // Cuanto menor sea, mas se parecera al ruido blanco
GAIN_MAXIMO = 0.999; // Cuidado no llegar a 1, ¡o el sonido no se detendra!
invertir = (checkbox("Invertir ruido") * 2 - 1) * -1; // -1 a 1 ¡ver el efecto!
gainRealimentacion = hslider("Gain", GAIN_MAXIMO * 0.99, GAIN_MINIMO, GAIN_MAXIMO, 0.0001);
envolvente = en.ar(0.003, 0.01, button("gate")) ; // envolvente para el ruido, experimentar!
// Filtro. Probar cambiar sus parametros
filtroKarplus = fi.lowpass(2, 5000);
// Generamos el retardo con el filtro
retardoFiltrado = @ (retardo)
: filtroKarplus
: *(gainRealimentacion * invertir);
// Componemos el algoritmo, con la recursion ~ para que se vaya sumando al original
karplusStrong = no.noise * envolvente : + ~ retardoFiltrado;
// si se dispone de un control de modulacion MIDI, jugar con este filtro
frecResonante = hslider("Resonante Wah (¡mover!)[midi:ctrl 1]", 1, 0, 1, 0.01) : si.smoo;
filtroRes = fi.resonlp(frecResonante * 4000 + 300,
hslider("Q del filtro Resonante", 10, 1, 100, 0.01),
0.5); // Gain fijo de 0.5
// incorporamos el velocity MIDI
velocity = nentry("gain", 0, 0, 1, 0.0001);
// Karplus Strong! (mono duplicado en L y R mediante la bifurcacion <: )
process = karplusStrong * velocity : filtroRes <: _, _;
|
https://raw.githubusercontent.com/JaoRamos/Faust/4659e248a42dfcb8e623283ce4e6e60dd8b3ca59/unq/Clase_6/karplus.dsp
|
faust
|
frecuencia desde MIDI o teclado
cantidad de muestras de retardo segun la fundamental deseada
puede haber desafinaciones porque los retardos son numeros enteros!
Controles del ruido del Karplus-Strong
Cuanto menor sea, mas se parecera al ruido blanco
Cuidado no llegar a 1, ¡o el sonido no se detendra!
-1 a 1 ¡ver el efecto!
envolvente para el ruido, experimentar!
Filtro. Probar cambiar sus parametros
Generamos el retardo con el filtro
Componemos el algoritmo, con la recursion ~ para que se vaya sumando al original
si se dispone de un control de modulacion MIDI, jugar con este filtro
Gain fijo de 0.5
incorporamos el velocity MIDI
Karplus Strong! (mono duplicado en L y R mediante la bifurcacion <: )
|
import("stdfaust.lib");
frecuencia = nentry("freq", 120, 60, 20000, 1);
retardo = int(ma.SR / frecuencia);
gainRealimentacion = hslider("Gain", GAIN_MAXIMO * 0.99, GAIN_MINIMO, GAIN_MAXIMO, 0.0001);
filtroKarplus = fi.lowpass(2, 5000);
retardoFiltrado = @ (retardo)
: filtroKarplus
: *(gainRealimentacion * invertir);
karplusStrong = no.noise * envolvente : + ~ retardoFiltrado;
frecResonante = hslider("Resonante Wah (¡mover!)[midi:ctrl 1]", 1, 0, 1, 0.01) : si.smoo;
filtroRes = fi.resonlp(frecResonante * 4000 + 300,
hslider("Q del filtro Resonante", 10, 1, 100, 0.01),
velocity = nentry("gain", 0, 0, 1, 0.0001);
process = karplusStrong * velocity : filtroRes <: _, _;
|
f2e30d686f1696557c64f5427e8c47793e716936b6fefed7f024e4e95c2d50e4
|
JaoRamos/Faust
|
karplus_wah.dsp
|
/* NOTA: para que suene hay que poner poly voices en 1 o mas (mono no sirve) y darle RUN*/
import("stdfaust.lib");
// frecuencia desde MIDI o teclado
frecuencia = nentry("freq", 120, 60, 20000, 1);
// cantidad de muestras de retardo segun la fundamental deseada
// puede haber desafinaciones porque los retardos son numeros enteros!
retardo = int(ma.SR / frecuencia);
// Controles del ruido del Karplus-Strong
GAIN_MINIMO = 0.7; // Cuanto menor sea, mas se parecera al ruido blanco
GAIN_MAXIMO = 0.999; // Cuidado no llegar a 1, ¡o el sonido no se detendra!
invertir = (checkbox("Invertir ruido") * 2 - 1) * -1; // -1 a 1 ¡ver el efecto!
gainRealimentacion = hslider("Gain", GAIN_MAXIMO * 0.99, GAIN_MINIMO, GAIN_MAXIMO, 0.0001);
envolvente = en.ar(0.003, 0.01, button("gate")) ; // envolvente para el ruido, experimentar!
// Filtro. Probar cambiar sus parametros
filtroKarplus = fi.lowpass(2, 5000);
// Generamos el retardo con el filtro
retardoFiltrado = @ (retardo)
: filtroKarplus
: *(gainRealimentacion * invertir);
// Componemos el algoritmo, con la recursion ~ para que se vaya sumando al original
karplusStrong = no.noise * envolvente : + ~ retardoFiltrado;
// si se dispone de un control de modulacion MIDI, jugar con este filtro
frecResonante = hslider("Resonante Wah (¡mover!)[midi:ctrl 1]", 1, 0, 1, 0.01) : si.smoo;
filtroRes = fi.resonlp(frecResonante * 4000 + 300,
hslider("Q del filtro Resonante", 10, 1, 100, 0.01),
0.5); // Gain fijo de 0.5
// incorporamos el velocity MIDI
velocity = nentry("gain", 0, 0, 1, 0.0001);
// Karplus Strong! (mono duplicado en L y R mediante la bifurcacion <: )
process = karplusStrong * velocity : filtroRes <: _, _;
|
https://raw.githubusercontent.com/JaoRamos/Faust/10dc7845e80940bf82549a0ad8ede97abfd2f7f7/sueltos/karplus_wah.dsp
|
faust
|
NOTA: para que suene hay que poner poly voices en 1 o mas (mono no sirve) y darle RUN
frecuencia desde MIDI o teclado
cantidad de muestras de retardo segun la fundamental deseada
puede haber desafinaciones porque los retardos son numeros enteros!
Controles del ruido del Karplus-Strong
Cuanto menor sea, mas se parecera al ruido blanco
Cuidado no llegar a 1, ¡o el sonido no se detendra!
-1 a 1 ¡ver el efecto!
envolvente para el ruido, experimentar!
Filtro. Probar cambiar sus parametros
Generamos el retardo con el filtro
Componemos el algoritmo, con la recursion ~ para que se vaya sumando al original
si se dispone de un control de modulacion MIDI, jugar con este filtro
Gain fijo de 0.5
incorporamos el velocity MIDI
Karplus Strong! (mono duplicado en L y R mediante la bifurcacion <: )
|
import("stdfaust.lib");
frecuencia = nentry("freq", 120, 60, 20000, 1);
retardo = int(ma.SR / frecuencia);
gainRealimentacion = hslider("Gain", GAIN_MAXIMO * 0.99, GAIN_MINIMO, GAIN_MAXIMO, 0.0001);
filtroKarplus = fi.lowpass(2, 5000);
retardoFiltrado = @ (retardo)
: filtroKarplus
: *(gainRealimentacion * invertir);
karplusStrong = no.noise * envolvente : + ~ retardoFiltrado;
frecResonante = hslider("Resonante Wah (¡mover!)[midi:ctrl 1]", 1, 0, 1, 0.01) : si.smoo;
filtroRes = fi.resonlp(frecResonante * 4000 + 300,
hslider("Q del filtro Resonante", 10, 1, 100, 0.01),
velocity = nentry("gain", 0, 0, 1, 0.0001);
process = karplusStrong * velocity : filtroRes <: _, _;
|
1831d32d39b65aa12559bfa2a3f7be588b00efdebe7cb265db97bb207e775143
|
JaoRamos/Faust
|
7_ChorusEstereo.dsp
|
/*
Efecto de Chorus ESTEREO simple
Partiendo del Chorus MONO, generamos el efecto en ambos canales, pero a uno (R)
le invertimos la fase del oscilador. El resultado es que la "desafinación" queda
invertida en R respecto de L, cuando uno está al máximo, el otro al mínimo.
Es crudo pero efectivo...! Un chorus estereo más sofisticado podría tener voces
independientes con parámetros distintos... veremos eso en el siguiente ejemplo.
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
*/
import("stdfaust.lib");
rate = hslider("Rate (Hz) [scale:exp]", 1, 0.01, 20, 0.01);
mix = hslider("Dry/Wet %", 50, 0, 100, 1) / 100;
tiempoMax = ma.SR * hslider("Tiempo máximo (ms) [scale:exp]", 2, 0.01, 20, 0.01) / 1000; // ms
corteAgudos = hslider("Corte agudos (Hz) [scale:exp]", 8000, 100, 20000, 100);
// Generamos la envolvente senoidal para el tiempo de delay
// Icorporamos el parámetro inversor de fase (1 o -1)
delayVariante(fase) = (fase * os.osc(rate) * 0.5 + 0.5) * tiempoMax;
// Al usar un parámetro (x) podemos generar "copias" de la señal ingresante,
// que luego podemos dirigir a diferentes secciones.
chorus(x, fase) = x * (1-mix) + // señal original
((x : de.fdelay(tiempoMax, delayVariante(fase)) * mix) : // delay variable
fi.lowpass(1, corteAgudos)); // filtro
inversor = (checkbox("Bypass estereo!") * 2) - 1;
// Acá está la clave de la inversión de fase: si ambos canales tienen la misma fase,
// no habrá efecto estereo, sonarán iguales (mono), por eso también le podemos llamar
// "bypass" al inversor del canal derecho. Al izquierdo le damos fase *1 (sin cambios).
// Ponemos (x) en process, porque necesitamos copiar la entrada L a ambos chorus
process(x) = chorus(x, 1), chorus(x, inversor);
|
https://raw.githubusercontent.com/JaoRamos/Faust/c8895c672104b10729ddc06b42e2169a2943d839/unq/Clase_8/7_ChorusEstereo.dsp
|
faust
|
Efecto de Chorus ESTEREO simple
Partiendo del Chorus MONO, generamos el efecto en ambos canales, pero a uno (R)
le invertimos la fase del oscilador. El resultado es que la "desafinación" queda
invertida en R respecto de L, cuando uno está al máximo, el otro al mínimo.
Es crudo pero efectivo...! Un chorus estereo más sofisticado podría tener voces
independientes con parámetros distintos... veremos eso en el siguiente ejemplo.
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
ms
Generamos la envolvente senoidal para el tiempo de delay
Icorporamos el parámetro inversor de fase (1 o -1)
Al usar un parámetro (x) podemos generar "copias" de la señal ingresante,
que luego podemos dirigir a diferentes secciones.
señal original
delay variable
filtro
Acá está la clave de la inversión de fase: si ambos canales tienen la misma fase,
no habrá efecto estereo, sonarán iguales (mono), por eso también le podemos llamar
"bypass" al inversor del canal derecho. Al izquierdo le damos fase *1 (sin cambios).
Ponemos (x) en process, porque necesitamos copiar la entrada L a ambos chorus
|
import("stdfaust.lib");
rate = hslider("Rate (Hz) [scale:exp]", 1, 0.01, 20, 0.01);
mix = hslider("Dry/Wet %", 50, 0, 100, 1) / 100;
corteAgudos = hslider("Corte agudos (Hz) [scale:exp]", 8000, 100, 20000, 100);
delayVariante(fase) = (fase * os.osc(rate) * 0.5 + 0.5) * tiempoMax;
inversor = (checkbox("Bypass estereo!") * 2) - 1;
process(x) = chorus(x, 1), chorus(x, inversor);
|
4b233b7f94a0b85a04bf95eb170238c49d2b6f7e9decb8a4c4b77d3d0a562750
|
JaoRamos/Faust
|
16_TabsSinte.dsp
|
/*
Tabs/pestañas (interfaz grafica)
Podemos mejorar notablemente la interfaz grafica utilizando pestañas para agrupar
los distintos controles, por ejempo segun categorias.
Para ello utilizamos la primitiva:
tgroup("nombre", elementos);
Aqui "elementos" seran elementos que utilicen conjuntos de vgroup o hgroup,
y automaticamente se organizaran en pestañas.
[Advertencia: a veces las pestañas se amontonan si la ventana del DSP es muy pequeña,
conviene agrandarla o seleccionar Popup UI en el panel de la izquierda!]
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
*/
import("stdfaust.lib");
// GRUPOS DEFINIDOS de oscilador, salida y reverb
numOscilador = hgroup("[0]Oscilador", formaOnda);
// "slider" estilo menu (si.. ya no es un slider, pero siempre es un numero)
formaOnda = vslider(
"Forma de onda[style:menu{'Triangular':0;'Diente de sierra':1;'Cuadrada':2}]",
1, 0, 2, 1 );
// (recordemos que con un numero entre corchetes [x] forzamos un orden en particular para los elementos)
salida = hgroup("[2]Salida", filtro : volumen);
volumen = * (hslider("Volumen", 50, 0, 100, 0.1) / 100);
filtro = fi.lowpass(2, hslider("Corte agudos (Hz)[scale:exp]", 2000, 500, 20000, 1));
reverb = hgroup("[1]Reverb", dm.freeverb_demo); // reverb estereo
// GRUPO/PESTAÑA "FORZADA"
// Con h:xxxx/ o v:xxxx/ podemos forzar un grupo horizontal o vertical a donde pertenecera cada control
// este "grupo" se transformara en una pestaña
// Lo escribimos usando / como si fueran carpetas o una direccion web
velocity = nentry("h:[3]MIDI/gain", 0, 0, 1, 0.01);
frecuencia = nentry("h:[3]MIDI/freq", 220, 1, 4000, 0.01);
gate = nentry("h:[3]MIDI/gate", 0, 0, 1, 1) : si.smoo; // smoo para evitar clics de audio (envolvente)
// los osciladores que van a sonar
triangular = os.triangle(frecuencia);
sierra = os.sawtooth(frecuencia);
cuadrada = os.square(frecuencia);
// esta vez utilizamos select3 para tener 3 opciones
sinte = select3(numOscilador, triangular, sierra, cuadrada) * velocity * gate : salida <: reverb;
// creamos el grupo de pestañas, definidas segun cada hgroup (o vgroup)
process = tgroup("Super sinte genial", sinte);
|
https://raw.githubusercontent.com/JaoRamos/Faust/c8895c672104b10729ddc06b42e2169a2943d839/unq/Clase%209/16_TabsSinte.dsp
|
faust
|
Tabs/pestañas (interfaz grafica)
Podemos mejorar notablemente la interfaz grafica utilizando pestañas para agrupar
los distintos controles, por ejempo segun categorias.
Para ello utilizamos la primitiva:
tgroup("nombre", elementos);
Aqui "elementos" seran elementos que utilicen conjuntos de vgroup o hgroup,
y automaticamente se organizaran en pestañas.
[Advertencia: a veces las pestañas se amontonan si la ventana del DSP es muy pequeña,
conviene agrandarla o seleccionar Popup UI en el panel de la izquierda!]
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
GRUPOS DEFINIDOS de oscilador, salida y reverb
"slider" estilo menu (si.. ya no es un slider, pero siempre es un numero)
(recordemos que con un numero entre corchetes [x] forzamos un orden en particular para los elementos)
reverb estereo
GRUPO/PESTAÑA "FORZADA"
Con h:xxxx/ o v:xxxx/ podemos forzar un grupo horizontal o vertical a donde pertenecera cada control
este "grupo" se transformara en una pestaña
Lo escribimos usando / como si fueran carpetas o una direccion web
smoo para evitar clics de audio (envolvente)
los osciladores que van a sonar
esta vez utilizamos select3 para tener 3 opciones
creamos el grupo de pestañas, definidas segun cada hgroup (o vgroup)
|
import("stdfaust.lib");
numOscilador = hgroup("[0]Oscilador", formaOnda);
formaOnda = vslider(
"Forma de onda[style:menu{'Triangular':0;'Diente de sierra':1;'Cuadrada':2}]",
1, 0, 2, 1 );
salida = hgroup("[2]Salida", filtro : volumen);
volumen = * (hslider("Volumen", 50, 0, 100, 0.1) / 100);
filtro = fi.lowpass(2, hslider("Corte agudos (Hz)[scale:exp]", 2000, 500, 20000, 1));
velocity = nentry("h:[3]MIDI/gain", 0, 0, 1, 0.01);
frecuencia = nentry("h:[3]MIDI/freq", 220, 1, 4000, 0.01);
triangular = os.triangle(frecuencia);
sierra = os.sawtooth(frecuencia);
cuadrada = os.square(frecuencia);
sinte = select3(numOscilador, triangular, sierra, cuadrada) * velocity * gate : salida <: reverb;
process = tgroup("Super sinte genial", sinte);
|
9a6d7221b0ac94b1663ee939b10a96ce70f48da574b55a25df7d2b50c3e0ee4d
|
JaoRamos/Faust
|
8_ChorusVoces.dsp
|
import("stdfaust.lib");
/*
Efecto de Chorus ESTEREO de multiples voces
Este efecto es mas complejo: definiremos un "coro" compuesto de "voces".
Cada voz será aproximadamente lo mismo que el chorus mono, pero con parámetros
que nos permitirán replicarla muchas veces y asignarle un valor de Paneo.
Utilizaremos la expresión with{...}, que nos permite especificar un ámbito
particular para alguna definición. Por lo general esto lo hacíamos por fuera,
pero para que cada voz tenga su propio grupo de parámetros es necesario with{}
*/
nVoces = 8; // se puede cambiar... enteros mayores a 1
unaVoz(entr, j) = vgroup("[%j] Voz %j", voz)
with {
voz = entr : de.fdelay(tiempoMax, delayVariable) * vol : sp.panner(pan);
// aprovecharemos la funcion sin() para generar variedad en los valores por defecto!!
vol = vslider("[2]Nivel[style:knob]", abs(sin(j*10)) / 2 + 0.25, 0, 1, 0.01) : si.smoo;
tiempoMax = ma.SR * hslider("[1]Tiempo (ms) [scale:exp][style:knob]", 0.2 + abs(sin(j*5)*2), 0.01, 20, 0.01) / 1000;
rate = vslider("[0]Rate (Hz) [scale:exp] [style:knob]", 0.2 + abs(sin(j*10)), 0.1, 10, 0.1) : si.smoo;
pan = vslider("[3]Pan[style:knob]", sin(j*5), -1, 1, 0.01) * 0.5 + 0.5 : si.smoo;
delayVariable = (os.osc(rate) * 0.5 + 1) * tiempoMax;
};
coro(audioIn, nVoces) = hgroup("Chorus de %nVoces voces", par(i, nVoces, unaVoz(audioIn, i+1)));
corteAgudos = fi.lowpass(1, vslider("[0]HiCut (Hz) [scale:exp]", 8000, 100, 20000, 100) : si.smoo);
wet = vslider("[1]Wet % [scale:exp]", 50, 0, 200, 1) / 100 : si.smoo;
dry = vslider("[2]Dry % [scale:exp]", 50, 0, 200, 1) / 100 : si.smoo;
master = vslider("[3]Volumen % [scale:exp]", 100, 0, 200, 1) / 100 : si.smoo;
process(entrada) = hgroup("Efecto chorus", coro(entrada, nVoces) :> // bajamos a 2 canales
hgroup("Controles",
(_ : corteAgudos : *(wet) : +(entrada*dry)) * master,
(_ : corteAgudos : *(wet) : +(entrada*dry)) * master )
);
|
https://raw.githubusercontent.com/JaoRamos/Faust/c8895c672104b10729ddc06b42e2169a2943d839/unq/Clase_8/8_ChorusVoces.dsp
|
faust
|
Efecto de Chorus ESTEREO de multiples voces
Este efecto es mas complejo: definiremos un "coro" compuesto de "voces".
Cada voz será aproximadamente lo mismo que el chorus mono, pero con parámetros
que nos permitirán replicarla muchas veces y asignarle un valor de Paneo.
Utilizaremos la expresión with{...}, que nos permite especificar un ámbito
particular para alguna definición. Por lo general esto lo hacíamos por fuera,
pero para que cada voz tenga su propio grupo de parámetros es necesario with{}
se puede cambiar... enteros mayores a 1
aprovecharemos la funcion sin() para generar variedad en los valores por defecto!!
bajamos a 2 canales
|
import("stdfaust.lib");
unaVoz(entr, j) = vgroup("[%j] Voz %j", voz)
with {
voz = entr : de.fdelay(tiempoMax, delayVariable) * vol : sp.panner(pan);
vol = vslider("[2]Nivel[style:knob]", abs(sin(j*10)) / 2 + 0.25, 0, 1, 0.01) : si.smoo;
tiempoMax = ma.SR * hslider("[1]Tiempo (ms) [scale:exp][style:knob]", 0.2 + abs(sin(j*5)*2), 0.01, 20, 0.01) / 1000;
rate = vslider("[0]Rate (Hz) [scale:exp] [style:knob]", 0.2 + abs(sin(j*10)), 0.1, 10, 0.1) : si.smoo;
pan = vslider("[3]Pan[style:knob]", sin(j*5), -1, 1, 0.01) * 0.5 + 0.5 : si.smoo;
delayVariable = (os.osc(rate) * 0.5 + 1) * tiempoMax;
};
coro(audioIn, nVoces) = hgroup("Chorus de %nVoces voces", par(i, nVoces, unaVoz(audioIn, i+1)));
corteAgudos = fi.lowpass(1, vslider("[0]HiCut (Hz) [scale:exp]", 8000, 100, 20000, 100) : si.smoo);
wet = vslider("[1]Wet % [scale:exp]", 50, 0, 200, 1) / 100 : si.smoo;
dry = vslider("[2]Dry % [scale:exp]", 50, 0, 200, 1) / 100 : si.smoo;
master = vslider("[3]Volumen % [scale:exp]", 100, 0, 200, 1) / 100 : si.smoo;
hgroup("Controles",
(_ : corteAgudos : *(wet) : +(entrada*dry)) * master,
(_ : corteAgudos : *(wet) : +(entrada*dry)) * master )
);
|
e4027c9ae6f18feddad0ce8646f6e87eae050b6896e85a4c147355c871d72908
|
JaoRamos/Faust
|
5_Phaser.dsp
|
/*
Efecto de Phaser estereo simple.
El phaser mas elemental se compone de un filtro all-pass (pasa todo), que (en teoria) no
modifica la amplitud de las frecuencias (a diferencia de los demas filtros), pero cambia
las relaciones de FASE de estas frecuencias. Si luego sumamos su resultado con la señal
original, produciremos cancelaciones y todo tipo de efectos de fase en distintas partes
del espectro. Finalmente, si incorporamos una modulación en el parametro de retardo del
filtro all-pass, haremos que estas cancelaciones cambien constantemente, produciendo
el efecto que conocemos como PHASER. A diferencia de un flanger, por lo general un phaser
no guarda una relación específica (ni armónica...) entre las posiciones de los valles que
se producen en el espectro; el efecto es similar, pero presenta "otro color".
Aquí tenemos un ejemplo de un phaser de 5 etapas, pero en dos canales independientes
para tener un pseudo phaser estereo. Simplemente reusamos la misma definicion y le ponemos
una pequeña diferencia de frecuencia en el canal derecho.
Mas info en: https://en.wikipedia.org/wiki/Phaser_(effect)
|| Juan Ramos 2021 - Universidad Nacional de Quilmes ||
|| [email protected] ||
*/
import("stdfaust.lib");
frecuencia = vslider("Frec minima", 100, 50, 10000, 0.01) + (rango*lfo);
rate = vslider("Rate LFO", 0.3, 0.1, 5, 0.01);
est = vslider("Estereo", 75, 0, 100, 1)*6;
feedback = vslider("Feedback", 0.5, 0, 0.9, 0.01);
depth = vslider("Profundidad", 1.0, 0.0, 1.0, 0.01);
rango = vslider("Rango frec", 300, 100, 2000, 0.01);
//q = vslider("Q de filtros", 1, 0.5, 5, 0.01);
q = 1;
// se pueden usar otros osciladores como LFO
lfo = (os.osc(rate) + 1)*0.5;
phaser(in, f, det, feedb, depth, q) = (
(wa.allpass2(f*1.0, q, det) :
wa.allpass2(f*2.3, q, det) :
wa.allpass2(f*3.7, q, det) :
wa.allpass2(f*5.0, q, det) :
wa.allpass2(f*6.3, q, det) )
~ (in + *(feedb)) // bardo
) *(depth) + in;
//in = no.noise;
process(in) = hgroup("Super phaser", phaser(in, frecuencia, 0.0, feedback, depth, q),
phaser(in, frecuencia, est, feedback, depth, q));
|
https://raw.githubusercontent.com/JaoRamos/Faust/197e891722ae3630e54ae2eac38b3752570bf8c7/unq/Clase_8/5_Phaser.dsp
|
faust
|
Efecto de Phaser estereo simple.
El phaser mas elemental se compone de un filtro all-pass (pasa todo), que (en teoria) no
modifica la amplitud de las frecuencias (a diferencia de los demas filtros), pero cambia
las relaciones de FASE de estas frecuencias. Si luego sumamos su resultado con la señal
original, produciremos cancelaciones y todo tipo de efectos de fase en distintas partes
del espectro. Finalmente, si incorporamos una modulación en el parametro de retardo del
filtro all-pass, haremos que estas cancelaciones cambien constantemente, produciendo
el efecto que conocemos como PHASER. A diferencia de un flanger, por lo general un phaser
no guarda una relación específica (ni armónica...) entre las posiciones de los valles que
se producen en el espectro; el efecto es similar, pero presenta "otro color".
Aquí tenemos un ejemplo de un phaser de 5 etapas, pero en dos canales independientes
para tener un pseudo phaser estereo. Simplemente reusamos la misma definicion y le ponemos
una pequeña diferencia de frecuencia en el canal derecho.
Mas info en: https://en.wikipedia.org/wiki/Phaser_(effect)
|| Juan Ramos 2021 - Universidad Nacional de Quilmes ||
|| [email protected] ||
q = vslider("Q de filtros", 1, 0.5, 5, 0.01);
se pueden usar otros osciladores como LFO
bardo
in = no.noise;
|
import("stdfaust.lib");
frecuencia = vslider("Frec minima", 100, 50, 10000, 0.01) + (rango*lfo);
rate = vslider("Rate LFO", 0.3, 0.1, 5, 0.01);
est = vslider("Estereo", 75, 0, 100, 1)*6;
feedback = vslider("Feedback", 0.5, 0, 0.9, 0.01);
depth = vslider("Profundidad", 1.0, 0.0, 1.0, 0.01);
rango = vslider("Rango frec", 300, 100, 2000, 0.01);
q = 1;
lfo = (os.osc(rate) + 1)*0.5;
phaser(in, f, det, feedb, depth, q) = (
(wa.allpass2(f*1.0, q, det) :
wa.allpass2(f*2.3, q, det) :
wa.allpass2(f*3.7, q, det) :
wa.allpass2(f*5.0, q, det) :
wa.allpass2(f*6.3, q, det) )
) *(depth) + in;
process(in) = hgroup("Super phaser", phaser(in, frecuencia, 0.0, feedback, depth, q),
phaser(in, frecuencia, est, feedback, depth, q));
|
57620ebe1767bf03c12062df93be08155ed1660a3871b2e6ba7e860a9cd9e0ff
|
JaoRamos/Faust
|
9_DelayEstereo.dsp
|
import("stdfaust.lib");
/*
Efecto de Delay ESTEREO de multiples taps
Para este efecto solo simplificaremos el funcionamiento del Chorus de voces multiples
(¡ver primero los ejemplos de chorus!)
Eliminaremos la modulacion y demas factores innecesarios
Y agregaremos un control de feedback
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
*/
nTaps = 4; // se puede cambiar... enteros mayores a 1
// Nuestra definicion de lo que es "un" tap del delay
// la variable "n" aqui sera el numero de tap, esto lo produce el par() en la definicion delay (mas abajo)
// usaremos esta variable para nombrar cada elemento y generar algo de variedad en los valores
unTap(entr, n) = hgroup("[%n] Tap %n", tap)
with {
tap = entr : eco * vol : sp.panner(pan); // delay completo con filtros, pan y volumen
eco = filtroHP : filtroLP : + @(tiempoDelay) ~ *(feedBack) ; // eco con feedback y filtro
// aprovecharemos la funcion sin() para generar variedad en los valores por defecto!!
filtroLP = fi.lowpass(2, hslider("[1]Hi Cut[unit:Hz][style:knob][scale:exp]", int(abs(sin(n*5)) * 5000 + 5000), 100, 20000, 100));
filtroHP = fi.highpass(2, hslider("[0]Lo Cut[unit:Hz][style:knob][scale:exp]", int(abs(sin(n*5)) * 50 + 10), 10, 20000, 10));
vol = vslider("[5]Nivel[unit:%][style:knob]", int(abs(sin(n*10))*75 + 25), 0, 100, 1) / 100 : si.smoo;
tiempoDelay = ma.SR * hslider("[2]Tiempo [unit:ms][style:knob]", int(20 + abs(sin(n*5))*500), 1, 1000, 1) / 1000;
feedBack = vslider("[3]Feedback [unit:%][style:knob]", int(abs(sin(n*10)) * 20), 0, 100, 1) / 100 : si.smoo;
pan = vslider("[4]Pan[style:knob]", sin(n*5), -1, 1, 0.01) * 0.5 + 0.5 : si.smoo;
};
// Nuestra definicion del delay completo, suma de varios "taps" utilizando par(), que replica un elemento
// (en este caso "tap") en paralelo cierta cantidad de veces. par() nos generara una multitud de salidas estereo,
// una por cada elemento (tap) que contenga. En process deberemos unificar estos canales en L y R.
// La variable "n" en par() sera el numero de iteracion, en este caso, el numero de cada tap generado
delay(entrada, nTaps) = vgroup("Delay de %nTaps taps", par(n, nTaps, unTap(entrada, n+1)));
// controles
wet = vslider("[1]Wet [unit:%][scale:exp]", 20, 0, 200, 1) / 100 : si.smoo;
dry = vslider("[2]Dry [unit:%][scale:exp]", 80, 0, 200, 1) / 100 : si.smoo;
master = vslider("[3]Volumen [unit:%][scale:exp]", 100, 0, 200, 1) / 100 : si.smoo;
// aqui unificamos la multitud de canales estereo en solo un par L-R
process(entrada) = hgroup("Efecto delay estereo", delay(entrada, nTaps) :> // bajamos a 2 canales
hgroup("Controles",
(_ : *(wet) : +(entrada*dry)) * master,
(_ : *(wet) : +(entrada*dry)) * master )
);
|
https://raw.githubusercontent.com/JaoRamos/Faust/c8895c672104b10729ddc06b42e2169a2943d839/unq/Clase_8/9_DelayEstereo.dsp
|
faust
|
Efecto de Delay ESTEREO de multiples taps
Para este efecto solo simplificaremos el funcionamiento del Chorus de voces multiples
(¡ver primero los ejemplos de chorus!)
Eliminaremos la modulacion y demas factores innecesarios
Y agregaremos un control de feedback
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
se puede cambiar... enteros mayores a 1
Nuestra definicion de lo que es "un" tap del delay
la variable "n" aqui sera el numero de tap, esto lo produce el par() en la definicion delay (mas abajo)
usaremos esta variable para nombrar cada elemento y generar algo de variedad en los valores
delay completo con filtros, pan y volumen
eco con feedback y filtro
aprovecharemos la funcion sin() para generar variedad en los valores por defecto!!
Nuestra definicion del delay completo, suma de varios "taps" utilizando par(), que replica un elemento
(en este caso "tap") en paralelo cierta cantidad de veces. par() nos generara una multitud de salidas estereo,
una por cada elemento (tap) que contenga. En process deberemos unificar estos canales en L y R.
La variable "n" en par() sera el numero de iteracion, en este caso, el numero de cada tap generado
controles
aqui unificamos la multitud de canales estereo en solo un par L-R
bajamos a 2 canales
|
import("stdfaust.lib");
unTap(entr, n) = hgroup("[%n] Tap %n", tap)
with {
filtroLP = fi.lowpass(2, hslider("[1]Hi Cut[unit:Hz][style:knob][scale:exp]", int(abs(sin(n*5)) * 5000 + 5000), 100, 20000, 100));
filtroHP = fi.highpass(2, hslider("[0]Lo Cut[unit:Hz][style:knob][scale:exp]", int(abs(sin(n*5)) * 50 + 10), 10, 20000, 10));
vol = vslider("[5]Nivel[unit:%][style:knob]", int(abs(sin(n*10))*75 + 25), 0, 100, 1) / 100 : si.smoo;
tiempoDelay = ma.SR * hslider("[2]Tiempo [unit:ms][style:knob]", int(20 + abs(sin(n*5))*500), 1, 1000, 1) / 1000;
feedBack = vslider("[3]Feedback [unit:%][style:knob]", int(abs(sin(n*10)) * 20), 0, 100, 1) / 100 : si.smoo;
pan = vslider("[4]Pan[style:knob]", sin(n*5), -1, 1, 0.01) * 0.5 + 0.5 : si.smoo;
};
delay(entrada, nTaps) = vgroup("Delay de %nTaps taps", par(n, nTaps, unTap(entrada, n+1)));
wet = vslider("[1]Wet [unit:%][scale:exp]", 20, 0, 200, 1) / 100 : si.smoo;
dry = vslider("[2]Dry [unit:%][scale:exp]", 80, 0, 200, 1) / 100 : si.smoo;
master = vslider("[3]Volumen [unit:%][scale:exp]", 100, 0, 200, 1) / 100 : si.smoo;
hgroup("Controles",
(_ : *(wet) : +(entrada*dry)) * master,
(_ : *(wet) : +(entrada*dry)) * master )
);
|
2a4d4ec0f47b56734ea10fc8f8e683383a949978bf62ff1d92a1126202283cf9
|
JaoRamos/Faust
|
3_Distorsion.dsp
|
/*
Efecto de distorsion
En este ejemplo saturamos la señal con un control de ganancia para producir un efecto tipo
distorsion muy elemental. Existen maneras simples de distorsionar una señal, por ejemplo
haciendo un recorte directo una vez pasado cierto nivel (tambien llamado clip). Sin embargo
para tener un sonido algo mas natural, es conveniente utilizar un recorte progresivo. Para
ello existen muchas tecnicas. Aqui realizaremos un recorte aprovechando la funcion trigonometrica
tanh (tangente hiperbolica). En este caso no es tan relevante que es la tangente hiperbolica...
sino que lo importante es la curva que produce, podemos verla en:
https://es.wikipedia.org/wiki/Tangente_hiperb%C3%B3lica
Podemos utilizar esta curva como un "reductor de amplitud" con un maximo de 1, pero que llega
GRADUALMENTE al 1. Si pensamos el eje X como nivel de entrada (nuestra señal de origen), entonces
el eje Y es el resultado de la funcion. A medida que aumenta el nivel (X) el resultado se limita
en 1. De un modo similar funcionan los distorsionadores analogicos para instrumentos musicales,
pero en lugar de una funcion como tanh, este recorte lo producen valvulas, transistores, diodos,
etc...
Para producir la distorsion le añadimos un control de ganancia (amplificador) para que luego
tanh recorte la señal. A mayor ganancia, mas distorsionado el resultado.
Podemos conectar una guitarra en la entrada (o una grabacion de linea), pero el timbre sera
similar a un Fuzz y poco agradable, ya que no estamos incluyendo la simulacion de un parlante
y otros componentes cruciales para el sonido caracteristico de una guitarra distorsionada. Esto
lo veremos mas adelante.
Para un efecto mas extraño podemos incorporar una asimetria en la señal a distorsionar. Las
valvulas, por ejemplo, producen una distorsion ligeramente asimetrica. Sumando un valor fijo
podemos correr la señal "hacia el lado positivo o negativo", y tras distorsionarla escucharemos
efectos muy particulares, al extremo de parecer una señal de pulsos. Incluso podemos generar
un pseudo estereo generando una minima diferencia de asimetria en ambos canales.
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
*/
import("stdfaust.lib");
// controles
volumen = hslider("[5]Volumen", 0.5, 0, 1, 0.01);
separacion = hslider("[2]Diferencia estereo", 0.3, 0, 1, 0.01);
offset = hslider("[1]Asimetria", 0, 0, 2, 0.01);
gain = hslider("[0]Ganancia [scale:exp]", 5, 0, 100, 0.01);
graves = hslider("[3]Graves", 70, 0, 100, 1) / 100;
agudos = hslider("[4]Agudos", 50, 0, 100, 1) / 100;
distorsion(in, difEstereo) = ma.tanh(in * gain : // amplificamos la entrada por el gain
fi.highpass(1, 1020 - graves*1000) // "graves"
+ offset + difEstereo) // asimetria y diferencia extra estereo
: fi.highpass(1, 5) // para corregir el descentrado del offset
: fi.lowpass(1, 1000 + agudos*10000) // "agudos"
* volumen;
process(x) = distorsion(x, 0 ), // canal izquierdo
distorsion(x, separacion); // canal derecho
|
https://raw.githubusercontent.com/JaoRamos/Faust/c8895c672104b10729ddc06b42e2169a2943d839/unq/Clase_8/3_Distorsion.dsp
|
faust
|
Efecto de distorsion
En este ejemplo saturamos la señal con un control de ganancia para producir un efecto tipo
distorsion muy elemental. Existen maneras simples de distorsionar una señal, por ejemplo
haciendo un recorte directo una vez pasado cierto nivel (tambien llamado clip). Sin embargo
para tener un sonido algo mas natural, es conveniente utilizar un recorte progresivo. Para
ello existen muchas tecnicas. Aqui realizaremos un recorte aprovechando la funcion trigonometrica
tanh (tangente hiperbolica). En este caso no es tan relevante que es la tangente hiperbolica...
sino que lo importante es la curva que produce, podemos verla en:
https://es.wikipedia.org/wiki/Tangente_hiperb%C3%B3lica
Podemos utilizar esta curva como un "reductor de amplitud" con un maximo de 1, pero que llega
GRADUALMENTE al 1. Si pensamos el eje X como nivel de entrada (nuestra señal de origen), entonces
el eje Y es el resultado de la funcion. A medida que aumenta el nivel (X) el resultado se limita
en 1. De un modo similar funcionan los distorsionadores analogicos para instrumentos musicales,
pero en lugar de una funcion como tanh, este recorte lo producen valvulas, transistores, diodos,
etc...
Para producir la distorsion le añadimos un control de ganancia (amplificador) para que luego
tanh recorte la señal. A mayor ganancia, mas distorsionado el resultado.
Podemos conectar una guitarra en la entrada (o una grabacion de linea), pero el timbre sera
similar a un Fuzz y poco agradable, ya que no estamos incluyendo la simulacion de un parlante
y otros componentes cruciales para el sonido caracteristico de una guitarra distorsionada. Esto
lo veremos mas adelante.
Para un efecto mas extraño podemos incorporar una asimetria en la señal a distorsionar. Las
valvulas, por ejemplo, producen una distorsion ligeramente asimetrica. Sumando un valor fijo
podemos correr la señal "hacia el lado positivo o negativo", y tras distorsionarla escucharemos
efectos muy particulares, al extremo de parecer una señal de pulsos. Incluso podemos generar
un pseudo estereo generando una minima diferencia de asimetria en ambos canales.
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
controles
amplificamos la entrada por el gain
"graves"
asimetria y diferencia extra estereo
para corregir el descentrado del offset
"agudos"
canal izquierdo
canal derecho
|
import("stdfaust.lib");
volumen = hslider("[5]Volumen", 0.5, 0, 1, 0.01);
separacion = hslider("[2]Diferencia estereo", 0.3, 0, 1, 0.01);
offset = hslider("[1]Asimetria", 0, 0, 2, 0.01);
gain = hslider("[0]Ganancia [scale:exp]", 5, 0, 100, 0.01);
graves = hslider("[3]Graves", 70, 0, 100, 1) / 100;
agudos = hslider("[4]Agudos", 50, 0, 100, 1) / 100;
* volumen;
|
4f2995a79a97dfe73723846eff1815dcc2bf4c108a550f14bb80b9bb8b93ef72
|
JaoRamos/Faust
|
10_Vumetro.dsp
|
/*
Vumetro (interfaz grafica)
Advertencia: explicacion larga, pero uso muy facil!!!
Podemos crear un "vumetro" para tener una indicacion visual de -por ejemplo- el nivel
de una señal (¡pero podria ser otra cosa!).
Para ello podemos utilizar las primitivas hbargraph y vbargraph (horizontal/vertical).
Toman tres parametros:
- Etiqueta / nombre
- Minimo
- Maximo
Necesitaremos algunos pasos mas para usar estos medidores. En primer lugar adaptar la
señal a la escala adecuada (por ejemplo pasarla a dB). Ya que normalmente las señales
de audio varian entre numeros negativos y positivos, es conveniente utilizar abs para
obtener el valor absoluto (descartando el signo), y tener solo numeros positivos. Todo
dependera de como sea la señal de origen.
Luego, si deseamos convertir señales lineales (-1 a +1) a valores en dB, utilizamos
la funcion ba.linear2db que nos devolvera un valor en dB entre -infinito y 0 o mas.
Por ultimo, y muy importante: si deseamos tanto VER el nivel, como ESCUCHAR (o seguir
procesando) la señal original, requerimos dos copias de esta señal. Pero debido al
funcionamiento interno del compilador de Faust, cualquier señal que no siga el camino
hacia el final de process, sera ignorada. La señal del vumetro.. morira en el vumetro.
En el editor puede que esto no influya en nada, pero si deseamos compilar nuestro DSP
para otras plataformas, es posible que no funcione como esperamos. La solucion para
esto es utilizar la funcion attach, que tiene dos entradas, dos parametros, y UNA
salida. Es mas simple de lo que parece: le pasamos una señal "duplicada", y attach
dirigira una copia directo a la salida (para continuar los procesos de audio) y la
otra hacia -por ejemplo- hbargraph. Aunque podemos hacer esto sin attach, esta funcion
asegura que el compilador siempre respete al vumetro, por mas que su señal no llegue
hasta process (ya que el vumetro no tiene salidas...).
Tras toda esta explicacion.... simplemente podemos copiar el ejemplo y replicarlo en
nuestros proyectos. Nada mas!
Poner un audio en la entrada y probar los tres medidores!
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
*/
import("stdfaust.lib");
// medidor lineal, nivel entre 0 y 1
medidor_0a1 = abs : hbargraph("Nivel (lineal)", 0, 1);
// medidor logaritmico en dB entre -60 y 0
medidor_db = abs : ba.linear2db : hbargraph("Nivel (dB)", -60, 0);
// podemos ver cualquier numero en realidad, no solo señales de audio
// aqui no necesitamos abs, solo un slider o cualquier otro numero
medidor_slider = slider : hbargraph("La barra de poder", 0, 100);
slider = hslider("Funciona no solo con audio!", 50, 0, 100, 1);
// attach fuerza que la segunda señal (hacia el vumetro) se compile aunque no "suene"
// en su primer argumento, dejamos _ para que la señal pase directo a la salida
// en el segundo ponemos "algo", en este caso nuestro medidor
// cambiar por cualquiera de los tres medidores!
process = _ <: attach(_, medidor_db ) ;
|
https://raw.githubusercontent.com/JaoRamos/Faust/c8895c672104b10729ddc06b42e2169a2943d839/unq/Clase%209/10_Vumetro.dsp
|
faust
|
Vumetro (interfaz grafica)
Advertencia: explicacion larga, pero uso muy facil!!!
Podemos crear un "vumetro" para tener una indicacion visual de -por ejemplo- el nivel
de una señal (¡pero podria ser otra cosa!).
Para ello podemos utilizar las primitivas hbargraph y vbargraph (horizontal/vertical).
Toman tres parametros:
- Etiqueta / nombre
- Minimo
- Maximo
Necesitaremos algunos pasos mas para usar estos medidores. En primer lugar adaptar la
señal a la escala adecuada (por ejemplo pasarla a dB). Ya que normalmente las señales
de audio varian entre numeros negativos y positivos, es conveniente utilizar abs para
obtener el valor absoluto (descartando el signo), y tener solo numeros positivos. Todo
dependera de como sea la señal de origen.
Luego, si deseamos convertir señales lineales (-1 a +1) a valores en dB, utilizamos
la funcion ba.linear2db que nos devolvera un valor en dB entre -infinito y 0 o mas.
Por ultimo, y muy importante: si deseamos tanto VER el nivel, como ESCUCHAR (o seguir
procesando) la señal original, requerimos dos copias de esta señal. Pero debido al
funcionamiento interno del compilador de Faust, cualquier señal que no siga el camino
hacia el final de process, sera ignorada. La señal del vumetro.. morira en el vumetro.
En el editor puede que esto no influya en nada, pero si deseamos compilar nuestro DSP
para otras plataformas, es posible que no funcione como esperamos. La solucion para
esto es utilizar la funcion attach, que tiene dos entradas, dos parametros, y UNA
salida. Es mas simple de lo que parece: le pasamos una señal "duplicada", y attach
dirigira una copia directo a la salida (para continuar los procesos de audio) y la
otra hacia -por ejemplo- hbargraph. Aunque podemos hacer esto sin attach, esta funcion
asegura que el compilador siempre respete al vumetro, por mas que su señal no llegue
hasta process (ya que el vumetro no tiene salidas...).
Tras toda esta explicacion.... simplemente podemos copiar el ejemplo y replicarlo en
nuestros proyectos. Nada mas!
Poner un audio en la entrada y probar los tres medidores!
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
medidor lineal, nivel entre 0 y 1
medidor logaritmico en dB entre -60 y 0
podemos ver cualquier numero en realidad, no solo señales de audio
aqui no necesitamos abs, solo un slider o cualquier otro numero
attach fuerza que la segunda señal (hacia el vumetro) se compile aunque no "suene"
en su primer argumento, dejamos _ para que la señal pase directo a la salida
en el segundo ponemos "algo", en este caso nuestro medidor
cambiar por cualquiera de los tres medidores!
|
import("stdfaust.lib");
medidor_0a1 = abs : hbargraph("Nivel (lineal)", 0, 1);
medidor_db = abs : ba.linear2db : hbargraph("Nivel (dB)", -60, 0);
medidor_slider = slider : hbargraph("La barra de poder", 0, 100);
slider = hslider("Funciona no solo con audio!", 50, 0, 100, 1);
process = _ <: attach(_, medidor_db ) ;
|
3de2128af2a9a3f0ecd3ee5e04b4babe4305b6db0c33cef0948345c024898756
|
JaoRamos/Faust
|
10_CompresorSimple.dsp
|
/*
Ejemplo de compresor/limitador MONO parametrizable
El funcionamiento elemental de este compresor se basa en hacer un analisis de
la amplitud de la señal ingresante, aplicando un pequeño retardo, para poder
determinar un nivel de reduccion de ganancia segun los parametros elegidos
por el usuario. Esta basado en "compressor_lad_mono" de las librerias de Faust.
https://github.com/grame-cncm/faustlibraries/blob/master/compressors.lib
Como es algo complejo su funcionamiento, esta organizado en un solo bloque
muy comentado, que se puede "copiar y pegar" en otro proyecto directamente.
Los controles son opcionales segun cada caso, no es necesario ofrecer todos
los sliders siempre al usuario, algunos valores se pueden fijar en codigo.
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
*/
import("stdfaust.lib");
// comienzo del codigo del compresor ----------------------------------------
compresorSimple(lad, rat, thr, att, rel, preGain, postGain, entrada) =
entrada * ba.db2linear(preGain) @ max(0, floor(0.5 + ma.SR * lad))
* compGain(rat, thr, att, rel, entrada * ba.db2linear(preGain))
* ba.db2linear(postGain)
/*
lad: look ahead delay, necesario para analizar y aplicar el cambio de gain
rat: ratio de compresion x:1
thr: threshold, umbral **en dB** (normalmente es un numero negativo)
att/rel: attack y release en SEGUNDOS (ojo la conversion a ms !)
pre/postGain: gain **en dB** antes y despues de la compresion
entrada: señal de entrada a comprimir. Si se deja vacio, Faust usa la señal
que llegue desde el elemento anterior, o una entrada de audio.
*/
// En un with{..} analizamos y calculamos el gain para reducir la señal
with {
// todo este bloque se encarga de analizar la señal para obtener un
// valor de reduccion del gain, segun los parametros del usuario
compGain(rat, thr, att, rel) =
an.amp_follower_ar(att, rel) :
ba.linear2db : outminusindb(rat, thr) :
kneesmooth(att) : ba.db2linear;
// kneesmooth(att) installs a "knee" in the dynamic-range compression,
// where knee smoothness is set equal to half that of the compression-attack.
// A general 'knee' parameter could be used instead of tying it to att/2:
kneesmooth(att) = si.smooth(ba.tau2pole(att/2.0));
// compression gain in dB:
// level esta implicito y es el valor "conectado" desde ba.linear2db
outminusindb(rat, thr, level) = max(level-thr,0.0)
* (1.0/max(ma.EPSILON, float(rat))-1.0);
};
// fin del codigo del compresor ----------------------------------------------
// Controles, todo esto es personalizable segun la necesidad particular
// Algunos sliders pueden eliminarse, y dejar numeros fijos en el compresor
ampl = hslider("[0]Pre gain (dB)", 0, -18, 18, 0.1);
makeup = hslider("[5]Post gain (dB)", 0, -18, 18, 0.1);
thresh = hslider("[1]Threshold (dB)", 0, -80, 0, 1);
ataque = hslider("[2]Ataque (ms) [scale:exp]", 5, 0.1, 500, 0.1) / 1000;
release = hslider("[3]Release (ms) [scale:exp]", 100, 0.1, 500, 0.1) / 1000;
ratio = hslider("[4]Ratio X:1 [scale:exp]", 3, 1, 50, 0.1);
// Conviene elegir un valor fijo de Look Ahead y dejarlo ahi...
// Ni siquiera deberia ofrecerse al usuario como slider!
laDel = hslider("[6]Look ahead (ms) [scale:exp]", 1, 0.1, 20, 0.1) / 1000;
// lo duplicamos para hacerlo estereo, pero usando los mismos parametros
// en caso de usar una entrada de audio (no un wav estereo), no necesitamos duplicar
process = compresorSimple(laDel, ratio, thresh, ataque, release, ampl, makeup),
compresorSimple(laDel, ratio, thresh, ataque, release, ampl, makeup);
|
https://raw.githubusercontent.com/JaoRamos/Faust/197e891722ae3630e54ae2eac38b3752570bf8c7/unq/Clase_8/10_CompresorSimple.dsp
|
faust
|
Ejemplo de compresor/limitador MONO parametrizable
El funcionamiento elemental de este compresor se basa en hacer un analisis de
la amplitud de la señal ingresante, aplicando un pequeño retardo, para poder
determinar un nivel de reduccion de ganancia segun los parametros elegidos
por el usuario. Esta basado en "compressor_lad_mono" de las librerias de Faust.
https://github.com/grame-cncm/faustlibraries/blob/master/compressors.lib
Como es algo complejo su funcionamiento, esta organizado en un solo bloque
muy comentado, que se puede "copiar y pegar" en otro proyecto directamente.
Los controles son opcionales segun cada caso, no es necesario ofrecer todos
los sliders siempre al usuario, algunos valores se pueden fijar en codigo.
|| Juan Ramos 2020 - Universidad Nacional de Quilmes ||
|| [email protected] ||
comienzo del codigo del compresor ----------------------------------------
lad: look ahead delay, necesario para analizar y aplicar el cambio de gain
rat: ratio de compresion x:1
thr: threshold, umbral **en dB** (normalmente es un numero negativo)
att/rel: attack y release en SEGUNDOS (ojo la conversion a ms !)
pre/postGain: gain **en dB** antes y despues de la compresion
entrada: señal de entrada a comprimir. Si se deja vacio, Faust usa la señal
que llegue desde el elemento anterior, o una entrada de audio.
En un with{..} analizamos y calculamos el gain para reducir la señal
todo este bloque se encarga de analizar la señal para obtener un
valor de reduccion del gain, segun los parametros del usuario
kneesmooth(att) installs a "knee" in the dynamic-range compression,
where knee smoothness is set equal to half that of the compression-attack.
A general 'knee' parameter could be used instead of tying it to att/2:
compression gain in dB:
level esta implicito y es el valor "conectado" desde ba.linear2db
fin del codigo del compresor ----------------------------------------------
Controles, todo esto es personalizable segun la necesidad particular
Algunos sliders pueden eliminarse, y dejar numeros fijos en el compresor
Conviene elegir un valor fijo de Look Ahead y dejarlo ahi...
Ni siquiera deberia ofrecerse al usuario como slider!
lo duplicamos para hacerlo estereo, pero usando los mismos parametros
en caso de usar una entrada de audio (no un wav estereo), no necesitamos duplicar
|
import("stdfaust.lib");
compresorSimple(lad, rat, thr, att, rel, preGain, postGain, entrada) =
entrada * ba.db2linear(preGain) @ max(0, floor(0.5 + ma.SR * lad))
* compGain(rat, thr, att, rel, entrada * ba.db2linear(preGain))
* ba.db2linear(postGain)
with {
compGain(rat, thr, att, rel) =
an.amp_follower_ar(att, rel) :
ba.linear2db : outminusindb(rat, thr) :
kneesmooth(att) : ba.db2linear;
kneesmooth(att) = si.smooth(ba.tau2pole(att/2.0));
outminusindb(rat, thr, level) = max(level-thr,0.0)
* (1.0/max(ma.EPSILON, float(rat))-1.0);
};
ampl = hslider("[0]Pre gain (dB)", 0, -18, 18, 0.1);
makeup = hslider("[5]Post gain (dB)", 0, -18, 18, 0.1);
thresh = hslider("[1]Threshold (dB)", 0, -80, 0, 1);
ataque = hslider("[2]Ataque (ms) [scale:exp]", 5, 0.1, 500, 0.1) / 1000;
release = hslider("[3]Release (ms) [scale:exp]", 100, 0.1, 500, 0.1) / 1000;
ratio = hslider("[4]Ratio X:1 [scale:exp]", 3, 1, 50, 0.1);
laDel = hslider("[6]Look ahead (ms) [scale:exp]", 1, 0.1, 20, 0.1) / 1000;
process = compresorSimple(laDel, ratio, thresh, ataque, release, ampl, makeup),
compresorSimple(laDel, ratio, thresh, ataque, release, ampl, makeup);
|
51cf0cea720b6ea1e36c2477508ab2190f7ef2c97669f20ac76e4d6d494f6db8
|
JaoRamos/Faust
|
JaoAmpIR_64.dsp
|
declare name "Simulador de Amp Jao 64bit";
declare version "0.1";
declare author "Jao Corporation";
declare description "Simulador de Amp Jao 64bit";
import("stdfaust.lib");
impulso = fi.fir(RESPUESTA_IMPULSO) * (0.2);
mixImpulso = _ <: ( *(1 - impulsoSlider) , impulso *(impulsoSlider) ) : +;
gain = hslider("Gain", 100, 1, 200, 0.1);
prefiltro = hslider("Pasaaltos pre", 1000, 20, 1500, 10);
agudos = hslider("Parlante (pasabajos)", 3000, 100, 5000, 10);
delaySlider = hslider("Delay", 0.2, 0, 0.9, 0.01);
blend = hslider("Blend Clean", 2, 0, 10, 0.01);
master = hslider("Volumen Master", 0.3, 0, 1, 0.01);
impulsoSlider = hslider("IR mix", 0.5, 0, 1, 0.01);
pre = ((fi.highpass(1, prefiltro)) * gain : ma .tanh) / (gain/10 : ma.tanh : *(2));
cleanMezcla = fi.highpass(1, 100) : medios : *(blend);
medios = fi.peak_eq(-15, 1200, 400) : fi.peak_eq(9, 2500, 1000);
delay = @(ma.SR / 3) : *(delaySlider) : fi.lowpass(1, 500);
tono = fi.lowpass(3, agudos);
cadena = _ <: cleanMezcla, (pre : medios) :> tono : + ~ delay : mixImpulso : *(master);
process = cadena <: _, _;
RESPUESTA_IMPULSO = 0.167663574218750,0.569000244140625,0.891204833984375,0.858764648437500,0.591705322265625,0.264221191406250,-0.095092773437500,-0.415100097656250,
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|
https://raw.githubusercontent.com/JaoRamos/Faust/dffd281724d8941aa1efa7b8abeb09c6b2f7dee0/sueltos/JaoAmpIR_64.dsp
|
faust
|
declare name "Simulador de Amp Jao 64bit";
declare version "0.1";
declare author "Jao Corporation";
declare description "Simulador de Amp Jao 64bit";
import("stdfaust.lib");
impulso = fi.fir(RESPUESTA_IMPULSO) * (0.2);
mixImpulso = _ <: ( *(1 - impulsoSlider) , impulso *(impulsoSlider) ) : +;
gain = hslider("Gain", 100, 1, 200, 0.1);
prefiltro = hslider("Pasaaltos pre", 1000, 20, 1500, 10);
agudos = hslider("Parlante (pasabajos)", 3000, 100, 5000, 10);
delaySlider = hslider("Delay", 0.2, 0, 0.9, 0.01);
blend = hslider("Blend Clean", 2, 0, 10, 0.01);
master = hslider("Volumen Master", 0.3, 0, 1, 0.01);
impulsoSlider = hslider("IR mix", 0.5, 0, 1, 0.01);
pre = ((fi.highpass(1, prefiltro)) * gain : ma .tanh) / (gain/10 : ma.tanh : *(2));
cleanMezcla = fi.highpass(1, 100) : medios : *(blend);
medios = fi.peak_eq(-15, 1200, 400) : fi.peak_eq(9, 2500, 1000);
delay = @(ma.SR / 3) : *(delaySlider) : fi.lowpass(1, 500);
tono = fi.lowpass(3, agudos);
cadena = _ <: cleanMezcla, (pre : medios) :> tono : + ~ delay : mixImpulso : *(master);
process = cadena <: _, _;
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-0.000457763671875,-0.000640869140625;
|
|
4a188bef8ff5589f5ccb504fd5cba6f6b26eedc4dfba132395771a5c2509b6c0
|
Msc-program/Jacklink
|
zitarevdsp.dsp
|
import("stdfaust.lib");
// Modified version from Faust Libraries demos.lib
process = zita_rev1; // same as dm.zita_rev1 but for wetness control and some defaults
//----------------------------------`(dm.)zita_rev1`------------------------------
// Example GUI for `zita_rev1_stereo` (mostly following the Linux `zita-rev1` GUI).
//
// Only the dry/wet and output level parameters are "dezippered" here. If
// parameters are to be varied in real time, use `smooth(0.999)` or the like
// in the same way.
//
// #### Usage
//
// ```
// _,_ : zita_rev1 : _,_
// ```
//
// #### Reference
//
// <http://www.kokkinizita.net/linuxaudio/zita-rev1-doc/quickguide.html>
//------------------------------------------------------------
zita_rev1 = _,_ <: re.zita_rev1_stereo(rdel,f1,f2,t60dc,t60m,fsmax),_,_ : out_eq,_,_ :
wet_dry_2(wet) : out_level
with{
fsmax = 48000.0; // highest sampling rate that will be used
fdn_group(x) = hgroup(
"[0] Zita_Rev1 [tooltip: ~ ZITA REV1 FEEDBACK DELAY NETWORK (FDN) & SCHROEDER
ALLPASS-COMB REVERBERATOR (8x8). See Faust's reverbs.lib for documentation and
references]", x);
in_group(x) = fdn_group(hgroup("[1] Input", x));
rdel = in_group(vslider("[1] In Delay [unit:ms] [style:knob] [tooltip: Delay in ms
before reverberation begins]",60,20,100,1));
freq_group(x) = fdn_group(hgroup("[2] Decay Times in Bands (see tooltips)", x));
f1 = freq_group(vslider("[1] LF X [unit:Hz] [style:knob] [scale:log] [tooltip:
Crossover frequency (Hz) separating low and middle frequencies]", 200, 50, 1000, 1));
t60dc = freq_group(vslider("[2] Low RT60 [unit:s] [style:knob] [scale:log]
[style:knob] [tooltip: T60 = time (in seconds) to decay 60dB in low-frequency band]",
3, 1, 8, 0.1));
t60m = freq_group(vslider("[3] Mid RT60 [unit:s] [style:knob] [scale:log] [tooltip:
T60 = time (in seconds) to decay 60dB in middle band]",2, 1, 8, 0.1));
f2 = freq_group(vslider("[4] HF Damping [unit:Hz] [style:knob] [scale:log]
[tooltip: Frequency (Hz) at which the high-frequency T60 is half the middle-band's T60]",
6000, 1500, 0.49*fsmax, 1));
out_eq = pareq_stereo(eq1f,eq1l,eq1q) : pareq_stereo(eq2f,eq2l,eq2q);
// Zolzer style peaking eq (not used in zita-rev1) (filters.lib):
// pareq_stereo(eqf,eql,Q) = peak_eq(eql,eqf,eqf/Q), peak_eq(eql,eqf,eqf/Q);
// Regalia-Mitra peaking eq with "Q" hard-wired near sqrt(g)/2 (filters.lib):
pareq_stereo(eqf,eql,Q) = fi.peak_eq_rm(eql,eqf,tpbt), fi.peak_eq_rm(eql,eqf,tpbt)
with {
tpbt = wcT/sqrt(max(0,g)); // tan(PI*B/SR), B bw in Hz (Q^2 ~ g/4)
wcT = 2*ma.PI*eqf/ma.SR; // peak frequency in rad/sample
g = ba.db2linear(eql); // peak gain
};
eq1_group(x) = fdn_group(hgroup("[3] RM Peaking Equalizer 1", x));
eq1f = eq1_group(vslider("[1] Eq1 Freq [unit:Hz] [style:knob] [scale:log] [tooltip:
Center-frequency of second-order Regalia-Mitra peaking equalizer section 1]",
315, 40, 2500, 1));
eq1l = eq1_group(vslider("[2] Eq1 Level [unit:dB] [style:knob] [tooltip: Peak level
in dB of second-order Regalia-Mitra peaking equalizer section 1]", 0, -15, 15, 0.1));
eq1q = eq1_group(vslider("[3] Eq1 Q [style:knob] [tooltip: Q = centerFrequency/bandwidth
of second-order peaking equalizer section 1]", 3, 0.1, 10, 0.1));
eq2_group(x) = fdn_group(hgroup("[4] RM Peaking Equalizer 2", x));
eq2f = eq2_group(vslider("[1] Eq2 Freq [unit:Hz] [style:knob] [scale:log] [tooltip:
Center-frequency of second-order Regalia-Mitra peaking equalizer section 2]",
1500, 160, 10000, 1));
eq2l = eq2_group(vslider("[2] Eq2 Level [unit:dB] [style:knob] [tooltip: Peak level
in dB of second-order Regalia-Mitra peaking equalizer section 2]", 0, -15, 15, 0.1));
eq2q = eq2_group(vslider("[3] Eq2 Q [style:knob] [tooltip: Q = centerFrequency/bandwidth
of second-order peaking equalizer section 2]", 3, 0.1, 10, 0.1));
out_group(x) = fdn_group(hgroup("[5] Output", x));
wet_dry(wet,y,x) = wet*y + (1-wet)*x;
wet_dry_2(wet,y1,y2,x1,x2) = wet_dry(wet,y1,x1), wet_dry(wet,y2,x2);
wet = out_group(vslider("[1] Wet [style:knob] [tooltip: Dry/Wet Mix: 0 = dry, 1 = wet]",
0, 0.0, 1.0, 0.01)) : si.smoo;
out_level = *(gain),*(gain);
gain = out_group(vslider("[2] Level [unit:dB] [style:knob] [tooltip: Output scale
factor]", -3, -70, 20, 0.1)) : ba.db2linear : si.smoo;
};
|
https://raw.githubusercontent.com/Msc-program/Jacklink/70b8634173e66d89884bb77b70b7b3ed01f71f79/faust-src/zitarevdsp.dsp
|
faust
|
Modified version from Faust Libraries demos.lib
same as dm.zita_rev1 but for wetness control and some defaults
----------------------------------`(dm.)zita_rev1`------------------------------
Example GUI for `zita_rev1_stereo` (mostly following the Linux `zita-rev1` GUI).
Only the dry/wet and output level parameters are "dezippered" here. If
parameters are to be varied in real time, use `smooth(0.999)` or the like
in the same way.
#### Usage
```
_,_ : zita_rev1 : _,_
```
#### Reference
<http://www.kokkinizita.net/linuxaudio/zita-rev1-doc/quickguide.html>
------------------------------------------------------------
highest sampling rate that will be used
Zolzer style peaking eq (not used in zita-rev1) (filters.lib):
pareq_stereo(eqf,eql,Q) = peak_eq(eql,eqf,eqf/Q), peak_eq(eql,eqf,eqf/Q);
Regalia-Mitra peaking eq with "Q" hard-wired near sqrt(g)/2 (filters.lib):
tan(PI*B/SR), B bw in Hz (Q^2 ~ g/4)
peak frequency in rad/sample
peak gain
|
import("stdfaust.lib");
zita_rev1 = _,_ <: re.zita_rev1_stereo(rdel,f1,f2,t60dc,t60m,fsmax),_,_ : out_eq,_,_ :
wet_dry_2(wet) : out_level
with{
fdn_group(x) = hgroup(
"[0] Zita_Rev1 [tooltip: ~ ZITA REV1 FEEDBACK DELAY NETWORK (FDN) & SCHROEDER
ALLPASS-COMB REVERBERATOR (8x8). See Faust's reverbs.lib for documentation and
references]", x);
in_group(x) = fdn_group(hgroup("[1] Input", x));
rdel = in_group(vslider("[1] In Delay [unit:ms] [style:knob] [tooltip: Delay in ms
before reverberation begins]",60,20,100,1));
freq_group(x) = fdn_group(hgroup("[2] Decay Times in Bands (see tooltips)", x));
f1 = freq_group(vslider("[1] LF X [unit:Hz] [style:knob] [scale:log] [tooltip:
Crossover frequency (Hz) separating low and middle frequencies]", 200, 50, 1000, 1));
t60dc = freq_group(vslider("[2] Low RT60 [unit:s] [style:knob] [scale:log]
[style:knob] [tooltip: T60 = time (in seconds) to decay 60dB in low-frequency band]",
3, 1, 8, 0.1));
t60m = freq_group(vslider("[3] Mid RT60 [unit:s] [style:knob] [scale:log] [tooltip:
T60 = time (in seconds) to decay 60dB in middle band]",2, 1, 8, 0.1));
f2 = freq_group(vslider("[4] HF Damping [unit:Hz] [style:knob] [scale:log]
[tooltip: Frequency (Hz) at which the high-frequency T60 is half the middle-band's T60]",
6000, 1500, 0.49*fsmax, 1));
out_eq = pareq_stereo(eq1f,eq1l,eq1q) : pareq_stereo(eq2f,eq2l,eq2q);
pareq_stereo(eqf,eql,Q) = fi.peak_eq_rm(eql,eqf,tpbt), fi.peak_eq_rm(eql,eqf,tpbt)
with {
};
eq1_group(x) = fdn_group(hgroup("[3] RM Peaking Equalizer 1", x));
eq1f = eq1_group(vslider("[1] Eq1 Freq [unit:Hz] [style:knob] [scale:log] [tooltip:
Center-frequency of second-order Regalia-Mitra peaking equalizer section 1]",
315, 40, 2500, 1));
eq1l = eq1_group(vslider("[2] Eq1 Level [unit:dB] [style:knob] [tooltip: Peak level
in dB of second-order Regalia-Mitra peaking equalizer section 1]", 0, -15, 15, 0.1));
eq1q = eq1_group(vslider("[3] Eq1 Q [style:knob] [tooltip: Q = centerFrequency/bandwidth
of second-order peaking equalizer section 1]", 3, 0.1, 10, 0.1));
eq2_group(x) = fdn_group(hgroup("[4] RM Peaking Equalizer 2", x));
eq2f = eq2_group(vslider("[1] Eq2 Freq [unit:Hz] [style:knob] [scale:log] [tooltip:
Center-frequency of second-order Regalia-Mitra peaking equalizer section 2]",
1500, 160, 10000, 1));
eq2l = eq2_group(vslider("[2] Eq2 Level [unit:dB] [style:knob] [tooltip: Peak level
in dB of second-order Regalia-Mitra peaking equalizer section 2]", 0, -15, 15, 0.1));
eq2q = eq2_group(vslider("[3] Eq2 Q [style:knob] [tooltip: Q = centerFrequency/bandwidth
of second-order peaking equalizer section 2]", 3, 0.1, 10, 0.1));
out_group(x) = fdn_group(hgroup("[5] Output", x));
wet_dry(wet,y,x) = wet*y + (1-wet)*x;
wet_dry_2(wet,y1,y2,x1,x2) = wet_dry(wet,y1,x1), wet_dry(wet,y2,x2);
wet = out_group(vslider("[1] Wet [style:knob] [tooltip: Dry/Wet Mix: 0 = dry, 1 = wet]",
0, 0.0, 1.0, 0.01)) : si.smoo;
out_level = *(gain),*(gain);
gain = out_group(vslider("[2] Level [unit:dB] [style:knob] [tooltip: Output scale
factor]", -3, -70, 20, 0.1)) : ba.db2linear : si.smoo;
};
|
5cc498c9f11bba81c0c8c6859c93cf0a6b89d98bd403e821b649750e93ec7676
|
micbuffa/FaustPowerAmp
|
PowerAmpNeo.dsp
|
import("stdfaust.lib");
wa = library("webaudio.lib");
// Modified version of https://github.com/creativeintent/temper/blob/master/Dsp/temper.dsp
// Adapted for PowerAmp simulation (addition of presence filter, param adaptation, small changes...)
// Distortion parameters
pdrive = hslider("Drive gain[style:knob]", 4.0, -10.0, 10.0, 0.001) : si.smooth(0.995);
psat = hslider("Saturation dry wet[style:knob]", 1.0, 0.0, 1.0, 0.001) : si.smooth(0.995);
pcurve = hslider("Curve k[style:knob]", 1.0, 0.1, 4.0, 0.001) : si.smooth(0.995);
// Output parameters
plevel = hslider("Level[style:knob]", -3, -24, 24, 1) : ba.db2linear : si.smooth(0.995);
// A fairly standard wave shaping curve; we use this to shape the input signal
// before modulating the filter coefficients by this signal. Which shaping curve
// we use here is pretty unimportant; as long as we can introduce higher harmonics,
// the coefficient modulation will react. Which harmonics we introduce here seems
// to affect the resulting sound pretty minimally.
//
// Also note here that we use an approximation of the `tanh` function for computational
// improvement. See `http://www.musicdsp.org/showone.php?id=238`.
tanh(x) = x * (27 + x * x) / (27 + 9 * x * x);
transfer(x) = tanh(pcurve * x) / tanh(pcurve);
// The allpass filter is stable for `|m(x)| <= 1`, but should not linger
// near +/-1.0 for very long. We therefore clamp the driven signal with a tanh
// function to ensure smooth coefficient calculation. We also here introduce
// a modulated DC offset in the signal before the curve.
drive(x) = x : *(pdrive) : +(fol(x)) : max(-3) : min(3) with {
fol = an.amp_follower(0.04);
};
// Our modulated filter is an allpass with coefficients governed by the input
// signal applied through our wave shaper. Before the filter, we mix the dry
// input signal with the raw waveshaper output according to the `psat` parameter.
// Note the constant gain coefficient on the waveshaper; that number is to offset
// the global gain from the waveshaper to make sure the shaping process stays
// under unity gain. The maximum differential gain of the waveshaper can be found
// by evaluating the derivative of the transfer function at x0 where x0 is the
// steepest part of the slope. Here that number is ~4, so we multiply by ~1/4.
waveshaper(x) = x <: _, tap(x) : *(1.0 - psat), *(psat) : + : fi.tf1(b0(x), b1(x), a1(x)) with {
b0(x) = m(x);
b1(x) = 1.0;
a1(x) = m(x);
m(x) = drive(x) : transfer : *(0.24);
tap(x) = m(x);
};
// A fork of the `tf2s` function from the standard filter library which uses a
// smoothing function after the `tan` computation to move that expensive call
// outside of the inner loop of the filter function.
tf2s(b2,b1,b0,a1,a0,w1) = fi.tf2(b0d,b1d,b2d,a1d,a2d)
with {
c = 1/tan(w1*0.5/ma.SR) : si.smooth(0.995); // bilinear-transform scale-factor
csq = c*c;
d = a0 + a1 * c + csq;
b0d = (b0 + b1 * c + b2 * csq)/d;
b1d = 2 * (b0 - b2 * csq)/d;
b2d = (b0 - b1 * c + b2 * csq)/d;
a1d = 2 * (a0 - csq)/d;
a2d = (a0 - a1*c + csq)/d;
};
// A fork of the `resonlp` function from the standard filter library which uses
// a local `tf2s` implementation.
resonlp(fc,Q,gain) = tf2s(b2,b1,b0,a1,a0,wc)
with {
wc = 2*ma.PI*fc;
a1 = 1/Q;
a0 = 1;
b2 = 0;
b1 = 0;
b0 = gain;
};
feedbackCircuit = presence:*(gainNFL)
with {
p1gain = hslider("Presence[name:p1Gain][style:knob]", 0, -15, 15, 0.1);
presence =wa.peaking(2000, p1gain, 1, 1) : wa.peaking(4000, p1gain, 1, 1);
gainNFL = hslider("Negative gain[name:Level][style:knob]", -0.4, -0.8, 1, 0.01) : si.smoo;
};
// Our main processing block.
main = *(masterVolume) :(+ : waveshaper : fi.dcblocker) ~ feedbackCircuit : gain with {
// This explicit gain multiplier of 4.0 accounts for the loss of gain that
// occurs from oversampling by a factor of 2, and for the loss of gain that
// occurs from the prefilter and modulation step. Then we apply the output
// level parameter.
gain = *(4.0) : *(plevel);
masterVolume = hslider("Master Volume[name:MV][style:knob]", 1, 0, 4, 0.1) : si.smoo;
};
// And the overall process declaration.
poweramp = main;
finalPWAMono = hgroup("PowerAmp FAUST / WebAudio",ba.bypass_fade(ma.SR/10, checkbox("bypass"), poweramp));
process = finalPWAMono, finalPWAMono;
|
https://raw.githubusercontent.com/micbuffa/FaustPowerAmp/415435288c32efad3d0de64b18004ebca3d3c06d/dsp/PowerAmpNeo.dsp
|
faust
|
Modified version of https://github.com/creativeintent/temper/blob/master/Dsp/temper.dsp
Adapted for PowerAmp simulation (addition of presence filter, param adaptation, small changes...)
Distortion parameters
Output parameters
A fairly standard wave shaping curve; we use this to shape the input signal
before modulating the filter coefficients by this signal. Which shaping curve
we use here is pretty unimportant; as long as we can introduce higher harmonics,
the coefficient modulation will react. Which harmonics we introduce here seems
to affect the resulting sound pretty minimally.
Also note here that we use an approximation of the `tanh` function for computational
improvement. See `http://www.musicdsp.org/showone.php?id=238`.
The allpass filter is stable for `|m(x)| <= 1`, but should not linger
near +/-1.0 for very long. We therefore clamp the driven signal with a tanh
function to ensure smooth coefficient calculation. We also here introduce
a modulated DC offset in the signal before the curve.
Our modulated filter is an allpass with coefficients governed by the input
signal applied through our wave shaper. Before the filter, we mix the dry
input signal with the raw waveshaper output according to the `psat` parameter.
Note the constant gain coefficient on the waveshaper; that number is to offset
the global gain from the waveshaper to make sure the shaping process stays
under unity gain. The maximum differential gain of the waveshaper can be found
by evaluating the derivative of the transfer function at x0 where x0 is the
steepest part of the slope. Here that number is ~4, so we multiply by ~1/4.
A fork of the `tf2s` function from the standard filter library which uses a
smoothing function after the `tan` computation to move that expensive call
outside of the inner loop of the filter function.
bilinear-transform scale-factor
A fork of the `resonlp` function from the standard filter library which uses
a local `tf2s` implementation.
Our main processing block.
This explicit gain multiplier of 4.0 accounts for the loss of gain that
occurs from oversampling by a factor of 2, and for the loss of gain that
occurs from the prefilter and modulation step. Then we apply the output
level parameter.
And the overall process declaration.
|
import("stdfaust.lib");
wa = library("webaudio.lib");
pdrive = hslider("Drive gain[style:knob]", 4.0, -10.0, 10.0, 0.001) : si.smooth(0.995);
psat = hslider("Saturation dry wet[style:knob]", 1.0, 0.0, 1.0, 0.001) : si.smooth(0.995);
pcurve = hslider("Curve k[style:knob]", 1.0, 0.1, 4.0, 0.001) : si.smooth(0.995);
plevel = hslider("Level[style:knob]", -3, -24, 24, 1) : ba.db2linear : si.smooth(0.995);
tanh(x) = x * (27 + x * x) / (27 + 9 * x * x);
transfer(x) = tanh(pcurve * x) / tanh(pcurve);
drive(x) = x : *(pdrive) : +(fol(x)) : max(-3) : min(3) with {
fol = an.amp_follower(0.04);
};
waveshaper(x) = x <: _, tap(x) : *(1.0 - psat), *(psat) : + : fi.tf1(b0(x), b1(x), a1(x)) with {
b0(x) = m(x);
b1(x) = 1.0;
a1(x) = m(x);
m(x) = drive(x) : transfer : *(0.24);
tap(x) = m(x);
};
tf2s(b2,b1,b0,a1,a0,w1) = fi.tf2(b0d,b1d,b2d,a1d,a2d)
with {
csq = c*c;
d = a0 + a1 * c + csq;
b0d = (b0 + b1 * c + b2 * csq)/d;
b1d = 2 * (b0 - b2 * csq)/d;
b2d = (b0 - b1 * c + b2 * csq)/d;
a1d = 2 * (a0 - csq)/d;
a2d = (a0 - a1*c + csq)/d;
};
resonlp(fc,Q,gain) = tf2s(b2,b1,b0,a1,a0,wc)
with {
wc = 2*ma.PI*fc;
a1 = 1/Q;
a0 = 1;
b2 = 0;
b1 = 0;
b0 = gain;
};
feedbackCircuit = presence:*(gainNFL)
with {
p1gain = hslider("Presence[name:p1Gain][style:knob]", 0, -15, 15, 0.1);
presence =wa.peaking(2000, p1gain, 1, 1) : wa.peaking(4000, p1gain, 1, 1);
gainNFL = hslider("Negative gain[name:Level][style:knob]", -0.4, -0.8, 1, 0.01) : si.smoo;
};
main = *(masterVolume) :(+ : waveshaper : fi.dcblocker) ~ feedbackCircuit : gain with {
gain = *(4.0) : *(plevel);
masterVolume = hslider("Master Volume[name:MV][style:knob]", 1, 0, 4, 0.1) : si.smoo;
};
poweramp = main;
finalPWAMono = hgroup("PowerAmp FAUST / WebAudio",ba.bypass_fade(ma.SR/10, checkbox("bypass"), poweramp));
process = finalPWAMono, finalPWAMono;
|
ba3d5f92348c377085dd190144f024a392317acf02280c8d4c2353f130b0d83b
|
tognitete/BJT
|
freeverbTEST.dsp
|
// Created from flange.dsp 2015/06/21
import("stdfaust.lib");
flanger_mono(dmax,curdel,depth,fb,invert,lfoshape)
= _ <: _, (-:de.fdelay(dmax,curdel)) ~ *(fb) : _,
*(select2(invert,depth,0-depth))
: + : *(1/(1+depth)); // ideal for dc and reinforced sinusoids (in-phase summed signals)
process = ba.bypass1(fbp,flanger_mono_gui);
// Kill the groups to save vertical space:
meter_group(x) = flsg(x);
ctl_group(x) = flkg(x);
del_group(x) = flkg(x);
lvl_group(x) = flkf(x);
flangeview = lfo(freq);
flanger_mono_gui = attach(flangeview) : flanger_mono(dmax,curdel,depth,fb,invert,lfoshape);
sinlfo(freq) = (1 + os.oscrs(freq))/2;
trilfo(freq) = 1.0-abs(os.saw1(freq));
lfo(f) = (lfoshape * trilfo(f)) + ((1-lfoshape) * sinlfo(f));
dmax = 2048;
odflange = 44; // ~1 ms at 44.1 kHz = min delay
dflange = ((dmax-1)-odflange)*del_group(vslider("[1] Delay [midi:ctrl 50][style:knob]", 0.22, 0, 1, 1));
freq = ctl_group(vslider("[1] Rate [midi:ctrl 2] [unit:Hz] [style:knob]", 0.5, 0, 10, 0.01)) : si.smooth(ba.tau2pole(freqT60/6.91));
freqT60 = 0.15661;
depth = ctl_group(vslider("[3] Depth [midi:ctrl 3] [style:knob]", .75, 0, 1, 0.001)) : si.smooth(ba.tau2pole(depthT60/6.91));
depthT60 = 0.15661;
fb = ctl_group(vslider("[5] Feedback [midi:ctrl 4] [style:knob]", 0, -0.995, 0.99, 0.001)) : si.smooth(ba.tau2pole(fbT60/6.91));
fbT60 = 0.15661;
lfoshape = ctl_group(vslider("[7] Waveshape [midi:ctrl 54] [style:knob]", 0, 0, 1, 0.001));
curdel = odflange+dflange*lfo(freq);
fbp = int(rsg(checkbox("[0] Enable [midi:ctrl 105]")));
invert = flsg(vslider("[1] Invert [midi:ctrl 49][style:knob]",0,0,1,1):int);
// This layout loosely follows the MiniMoog-V
// Arturia-only features are labeled
// Original versions also added where different
// Need vrocker and hrocker toggle switches in Faust!
// Need orange and blue color choices
// Orange => Connect modulation sources to their destinations
// Blue => Turn audio sources On and Off
// - and later -
// White => Turn performance features On and Off
// Black => Select between modulation sources
// Julius Smith for Analog Devices 3/1/2017
vrocker(x) = checkbox("%%x [style:vrocker]");
hrocker(x) = checkbox("%%x [style:hrocker]");
vrockerblue(x) = checkbox("%x [style:vrocker] [color:blue]");
vrockerblue(x) = checkbox("%x [style:vrocker] [color:blue]");
// USAGE: vrockerorange("[0] ModulationEnable");
hrockerblue(x) = checkbox("%%x [style:hrocker] [color:blue]");
vrockerred(x) = checkbox("%%x [style:vrocker] [color:red]");
hrockerred(x) = checkbox("%%x [style:hrocker] [color:red]");
declare designer "Robert A. Moog";
mmg(x) = hgroup("",x); // Minimoog + Effects
synthg(x) = mmg(vgroup("[0] Minimoog",x));
fxg(x) = mmg(hgroup("[1] Effects",x));
mg(x) = synthg(hgroup("[0]",x));
cg(x) = mg(vgroup("[0] Controllers",x)); // Formerly named "Modules" but "Minimoog" group-title is enough
vg(x) = cg(hgroup("[0] Master Volume", x));
dg(x) = cg(hgroup("[1] Oscillator Tuning & Switching", x));
// Tune knob = master tune
dsg(x) = dg(vgroup("[1] Switches", x));
// Oscillator Modulation HrockerRed => apply Modulation Mix output to osc1&2 pitches
// [MOVED here from osc3 group] Osc 3 Control VrockerRed => use osc3 as LFO instead of osc3
gmmg(x) = cg(hgroup("[2] Glide and ModMix", x));
// Glide knob [0:10] = portamento speed
// Modulation Mix knob [0:10] (between Osc3 and Noise) = mix of noise and osc3 modulating osc1&2 pitch and/or VCF freq
og(x) = mg(vgroup("[1] Oscillator Bank", x));
osc1(x) = og(hgroup("[1] Oscillator 1", x));
// UNUSED Control switch (for alignment) - Could put Oscillator Modulation switch there
// Range rotary switch: LO (slow pulses or rhythm), 32', 16', 8', 4', 2'
// Frequency <something> switch: LED to right
// Waveform rotary switch: tri, impulse/bent-triangle, saw, pulseWide, pulseMed, pulseNarrow
osc2(x) = og(hgroup("[2] Oscillator 2", x));
// UNUSED (originall) or Osc 2 Control VrockerRed
// Range rotary switch: LO, 32', 16', 8', 4', 2'
// Detuning knob: -7 to 7 [NO SWITCH]
// Waveform rotary switch: tri, impulse(?), saw, pulseWide, pulseMed, pulseNarrow
osc3(x) = og(hgroup("[3] Oscillator 3", x));
// Osc 3 Control VrockerRed => use osc3 as LFO instead of osc3
// Range rotary switch: LO, 32', 16', 8', 4', 2'
// Detuning knob: -7 to 7 [NO SWITCH]
// Waveform rotary switch: tri, impulse(?), saw, pulseWide, pulseMed, pulseNarrow
mixg(x) = mg(vgroup("[2] Mixer", x));
// Each row 5 slots to maintain alignment and include red rockers joining VCF area:
mr1(x) = mixg(hgroup("[0] Osc1", x)); // mixer row 1 =
// Osc1 Volume and Osc1 HrockerBlue & _ & _ & Filter Modulation HrockerRed
// Filter Modulation => Modulation Mix output to VCF freq
mr2(x) = mixg(hgroup("[1] Ext In, KeyCtl", x)); // row 2 = Ext In HrockerBlue and Vol and Overload LED and Keyboard Ctl HrockerRed 1
mr3(x) = mixg(hgroup("[2] Osc2", x)); // = Osc2 Volume and Osc2 HrockerBlue and Keyboard Ctl HrockerRed 2
// Keyboard Control Modulation 1&2 => 0, 1/3, 2/3, all of Keyboard Control Signal ("gate?") applied to VCF freq
mr4(x) = mixg(hgroup("[3] Noise", x)); // = Noise HrockerBlue and Volume and Noise Type VrockerBlue
mr4cbg(x) = mr4(vgroup("[1]", x)); // = Noise Off and White/Pink selection
// two rockers
mr5(x) = mixg(hgroup("[4] Osc3", x)); // Osc3 Volume and Osc3 HrockerBlue
modg(x) = mg(vgroup("[3] Modifiers", x));
vcfg(x) = modg(vgroup("[0] Filter", x));
vcf1(x) = vcfg(hgroup("[0] [tooltip:freq, Q, ContourScale]", x));
vcf1cbg(x) = vcf1(vgroup("[0] [tooltip:two checkboxes]", x));
// Filter Modulation switch
// VCF Off switch
// Corner Frequency knob
// Filter Emphasis knob
// Amount of Contour knob
vcf2(x) = vcfg(hgroup("[1] Filter Contour [tooltip:AttFilt, DecFilt, Sustain Level for Filter Contour]", x));
// Attack Time knob
// Decay Time knob
// Sustain Level knob
ng(x) = modg(hgroup("[1] Loudness Contour", x));
// Attack Time knob
// Decay Time knob
// Sustain Level knob
echog(x) = fxg(hgroup("[4] Echo",x));
ekg(x) = echog(vgroup("[0] Knobs",x));
esg(x) = echog(vgroup("[1] Switches",x));
flg(x) = fxg(hgroup("[5] Flanger",x));
flkg(x) = flg(vgroup("[0] Knobs",x));
flsg(x) = flg(vgroup("[1] Switches",x));
chg(x) = fxg(hgroup("[6] Chorus",x));
ckg(x) = chg(vgroup("[0] Knobs",x));
csg(x) = chg(vgroup("[1] Switches",x));
rg(x) = fxg(hgroup("[7] Reverb",x));
rkg(x) = rg(vgroup("[0] Knobs",x));
rsg(x) = rg(vgroup("[1] Switches",x));
outg(x) = fxg(vgroup("[8] Output", x));
volg(x) = outg(hgroup("[0] Volume Main Output", x));
// Volume knob [0-10]
// Unison switch (Arturia) or Output connect/disconnect switch (original)
// When set, all voices are stacked and instrument is in mono mode
tunerg(x) = outg(hgroup("[1] A-440 Switch", x));
vdtpolyg(x) = outg(hgroup("[2] Voice Detune / Poly", x));
// Voice Detune knob [0-10] (Arturia) or
// Polyphonic switch [red LED below] (Arturia)
// When set, instrument is in polyphonic mode with one oscillator per key
clipg(x) = fxg(vgroup("[9] Soft Clip", x));
// Soft Clipping switch [red LED above]
kg(x) = synthg(hgroup("[1] Keyboard Group", x)); // Keyboard was 3 1/2 octaves
ws(x) = kg(vgroup("[0] Wheels and Switches", x));
s1g(x) = ws(hgroup("[0] Jacks and Rockers", x));
jg(x) = s1g(vgroup("[0] MiniJacks",x));
gdlg(x) = s1g(vgroup("[1] Glide/Decay/Legato Enables",x)); // Arturia
// Glide Hrocker (see original Button version below)
// Decay Hrocker (see original Button version below) => Sets Release (R) of ADSR to either 0 or Decay (R)
// Legato Hrocker (not in original)
s2g(x) = ws(hgroup("[1] [tooltip:Wheels+]", x));
bg(x) = s2g(vgroup("[0] [tooltip:Bend Enable and Range]", x));
wg(x) = s2g(hgroup("[1] [tooltip:Bend and Mod Wheels]", x));
// Using Glide/Decay/Legato enables above following Arturia:
// dg(x) = s2g(hgroup("[2] Glide and Decay momentary pushbuttons", x));
// Glide Button injects portamento as set by Glide knob
// Decay Button uses decay of Loudness Contour (else 0)
keys(x) = kg(hgroup("[1] [tooltip:Keys]", x));
gg(x) = keys(hgroup("[0] [tooltip: Gates]",x));
// leave slot 1 open for sustain (below)
|
https://raw.githubusercontent.com/tognitete/BJT/2818b850f2531bb8a0e84ab0f53f66b33bb256d0/server-side/plugin-services/plugins/freeverbTEST/freeverbTEST.dsp
|
faust
|
Created from flange.dsp 2015/06/21
ideal for dc and reinforced sinusoids (in-phase summed signals)
Kill the groups to save vertical space:
~1 ms at 44.1 kHz = min delay
This layout loosely follows the MiniMoog-V
Arturia-only features are labeled
Original versions also added where different
Need vrocker and hrocker toggle switches in Faust!
Need orange and blue color choices
Orange => Connect modulation sources to their destinations
Blue => Turn audio sources On and Off
- and later -
White => Turn performance features On and Off
Black => Select between modulation sources
Julius Smith for Analog Devices 3/1/2017
USAGE: vrockerorange("[0] ModulationEnable");
Minimoog + Effects
Formerly named "Modules" but "Minimoog" group-title is enough
Tune knob = master tune
Oscillator Modulation HrockerRed => apply Modulation Mix output to osc1&2 pitches
[MOVED here from osc3 group] Osc 3 Control VrockerRed => use osc3 as LFO instead of osc3
Glide knob [0:10] = portamento speed
Modulation Mix knob [0:10] (between Osc3 and Noise) = mix of noise and osc3 modulating osc1&2 pitch and/or VCF freq
UNUSED Control switch (for alignment) - Could put Oscillator Modulation switch there
Range rotary switch: LO (slow pulses or rhythm), 32', 16', 8', 4', 2'
Frequency <something> switch: LED to right
Waveform rotary switch: tri, impulse/bent-triangle, saw, pulseWide, pulseMed, pulseNarrow
UNUSED (originall) or Osc 2 Control VrockerRed
Range rotary switch: LO, 32', 16', 8', 4', 2'
Detuning knob: -7 to 7 [NO SWITCH]
Waveform rotary switch: tri, impulse(?), saw, pulseWide, pulseMed, pulseNarrow
Osc 3 Control VrockerRed => use osc3 as LFO instead of osc3
Range rotary switch: LO, 32', 16', 8', 4', 2'
Detuning knob: -7 to 7 [NO SWITCH]
Waveform rotary switch: tri, impulse(?), saw, pulseWide, pulseMed, pulseNarrow
Each row 5 slots to maintain alignment and include red rockers joining VCF area:
mixer row 1 =
Osc1 Volume and Osc1 HrockerBlue & _ & _ & Filter Modulation HrockerRed
Filter Modulation => Modulation Mix output to VCF freq
row 2 = Ext In HrockerBlue and Vol and Overload LED and Keyboard Ctl HrockerRed 1
= Osc2 Volume and Osc2 HrockerBlue and Keyboard Ctl HrockerRed 2
Keyboard Control Modulation 1&2 => 0, 1/3, 2/3, all of Keyboard Control Signal ("gate?") applied to VCF freq
= Noise HrockerBlue and Volume and Noise Type VrockerBlue
= Noise Off and White/Pink selection
two rockers
Osc3 Volume and Osc3 HrockerBlue
Filter Modulation switch
VCF Off switch
Corner Frequency knob
Filter Emphasis knob
Amount of Contour knob
Attack Time knob
Decay Time knob
Sustain Level knob
Attack Time knob
Decay Time knob
Sustain Level knob
Volume knob [0-10]
Unison switch (Arturia) or Output connect/disconnect switch (original)
When set, all voices are stacked and instrument is in mono mode
Voice Detune knob [0-10] (Arturia) or
Polyphonic switch [red LED below] (Arturia)
When set, instrument is in polyphonic mode with one oscillator per key
Soft Clipping switch [red LED above]
Keyboard was 3 1/2 octaves
Arturia
Glide Hrocker (see original Button version below)
Decay Hrocker (see original Button version below) => Sets Release (R) of ADSR to either 0 or Decay (R)
Legato Hrocker (not in original)
Using Glide/Decay/Legato enables above following Arturia:
dg(x) = s2g(hgroup("[2] Glide and Decay momentary pushbuttons", x));
Glide Button injects portamento as set by Glide knob
Decay Button uses decay of Loudness Contour (else 0)
leave slot 1 open for sustain (below)
|
import("stdfaust.lib");
flanger_mono(dmax,curdel,depth,fb,invert,lfoshape)
= _ <: _, (-:de.fdelay(dmax,curdel)) ~ *(fb) : _,
*(select2(invert,depth,0-depth))
process = ba.bypass1(fbp,flanger_mono_gui);
meter_group(x) = flsg(x);
ctl_group(x) = flkg(x);
del_group(x) = flkg(x);
lvl_group(x) = flkf(x);
flangeview = lfo(freq);
flanger_mono_gui = attach(flangeview) : flanger_mono(dmax,curdel,depth,fb,invert,lfoshape);
sinlfo(freq) = (1 + os.oscrs(freq))/2;
trilfo(freq) = 1.0-abs(os.saw1(freq));
lfo(f) = (lfoshape * trilfo(f)) + ((1-lfoshape) * sinlfo(f));
dmax = 2048;
dflange = ((dmax-1)-odflange)*del_group(vslider("[1] Delay [midi:ctrl 50][style:knob]", 0.22, 0, 1, 1));
freq = ctl_group(vslider("[1] Rate [midi:ctrl 2] [unit:Hz] [style:knob]", 0.5, 0, 10, 0.01)) : si.smooth(ba.tau2pole(freqT60/6.91));
freqT60 = 0.15661;
depth = ctl_group(vslider("[3] Depth [midi:ctrl 3] [style:knob]", .75, 0, 1, 0.001)) : si.smooth(ba.tau2pole(depthT60/6.91));
depthT60 = 0.15661;
fb = ctl_group(vslider("[5] Feedback [midi:ctrl 4] [style:knob]", 0, -0.995, 0.99, 0.001)) : si.smooth(ba.tau2pole(fbT60/6.91));
fbT60 = 0.15661;
lfoshape = ctl_group(vslider("[7] Waveshape [midi:ctrl 54] [style:knob]", 0, 0, 1, 0.001));
curdel = odflange+dflange*lfo(freq);
fbp = int(rsg(checkbox("[0] Enable [midi:ctrl 105]")));
invert = flsg(vslider("[1] Invert [midi:ctrl 49][style:knob]",0,0,1,1):int);
vrocker(x) = checkbox("%%x [style:vrocker]");
hrocker(x) = checkbox("%%x [style:hrocker]");
vrockerblue(x) = checkbox("%x [style:vrocker] [color:blue]");
vrockerblue(x) = checkbox("%x [style:vrocker] [color:blue]");
hrockerblue(x) = checkbox("%%x [style:hrocker] [color:blue]");
vrockerred(x) = checkbox("%%x [style:vrocker] [color:red]");
hrockerred(x) = checkbox("%%x [style:hrocker] [color:red]");
declare designer "Robert A. Moog";
synthg(x) = mmg(vgroup("[0] Minimoog",x));
fxg(x) = mmg(hgroup("[1] Effects",x));
mg(x) = synthg(hgroup("[0]",x));
vg(x) = cg(hgroup("[0] Master Volume", x));
dg(x) = cg(hgroup("[1] Oscillator Tuning & Switching", x));
dsg(x) = dg(vgroup("[1] Switches", x));
gmmg(x) = cg(hgroup("[2] Glide and ModMix", x));
og(x) = mg(vgroup("[1] Oscillator Bank", x));
osc1(x) = og(hgroup("[1] Oscillator 1", x));
osc2(x) = og(hgroup("[2] Oscillator 2", x));
osc3(x) = og(hgroup("[3] Oscillator 3", x));
mixg(x) = mg(vgroup("[2] Mixer", x));
modg(x) = mg(vgroup("[3] Modifiers", x));
vcfg(x) = modg(vgroup("[0] Filter", x));
vcf1(x) = vcfg(hgroup("[0] [tooltip:freq, Q, ContourScale]", x));
vcf1cbg(x) = vcf1(vgroup("[0] [tooltip:two checkboxes]", x));
vcf2(x) = vcfg(hgroup("[1] Filter Contour [tooltip:AttFilt, DecFilt, Sustain Level for Filter Contour]", x));
ng(x) = modg(hgroup("[1] Loudness Contour", x));
echog(x) = fxg(hgroup("[4] Echo",x));
ekg(x) = echog(vgroup("[0] Knobs",x));
esg(x) = echog(vgroup("[1] Switches",x));
flg(x) = fxg(hgroup("[5] Flanger",x));
flkg(x) = flg(vgroup("[0] Knobs",x));
flsg(x) = flg(vgroup("[1] Switches",x));
chg(x) = fxg(hgroup("[6] Chorus",x));
ckg(x) = chg(vgroup("[0] Knobs",x));
csg(x) = chg(vgroup("[1] Switches",x));
rg(x) = fxg(hgroup("[7] Reverb",x));
rkg(x) = rg(vgroup("[0] Knobs",x));
rsg(x) = rg(vgroup("[1] Switches",x));
outg(x) = fxg(vgroup("[8] Output", x));
volg(x) = outg(hgroup("[0] Volume Main Output", x));
tunerg(x) = outg(hgroup("[1] A-440 Switch", x));
vdtpolyg(x) = outg(hgroup("[2] Voice Detune / Poly", x));
clipg(x) = fxg(vgroup("[9] Soft Clip", x));
ws(x) = kg(vgroup("[0] Wheels and Switches", x));
s1g(x) = ws(hgroup("[0] Jacks and Rockers", x));
jg(x) = s1g(vgroup("[0] MiniJacks",x));
s2g(x) = ws(hgroup("[1] [tooltip:Wheels+]", x));
bg(x) = s2g(vgroup("[0] [tooltip:Bend Enable and Range]", x));
wg(x) = s2g(hgroup("[1] [tooltip:Bend and Mod Wheels]", x));
keys(x) = kg(hgroup("[1] [tooltip:Keys]", x));
gg(x) = keys(hgroup("[0] [tooltip: Gates]",x));
|
57b8bb1885cf0efb29f58a8cda4477cb17b8b9860de2256cf232a7f3a9283e78
|
rottingsounds/bitDSP-faust
|
intDivision.dsp
|
import("stdfaust.lib");
a = int(os.osc(440) * 20);
b = 7;
process = int(a/b);
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/21cf36105c55b6e18969a867a319530a0ef1ea63/test/intDivision.dsp
|
faust
|
import("stdfaust.lib");
a = int(os.osc(440) * 20);
b = 7;
process = int(a/b);
|
|
be8c4797d0a4610f1ea8316da193c7a5bdb592b0da9fe16813b7c5e569a97645
|
rottingsounds/bitDSP-faust
|
test_bitDAC.dsp
|
import("stdfaust.lib");
b = library("bitDSP.lib");
process = b.bitDAC(6, 0, int(no.noise * b.int_max));
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/21cf36105c55b6e18969a867a319530a0ef1ea63/test/test_bitDAC.dsp
|
faust
|
import("stdfaust.lib");
b = library("bitDSP.lib");
process = b.bitDAC(6, 0, int(no.noise * b.int_max));
|
|
39436de19b94128381fb594c1de6b7f294a15eabdb802dcbde05ca282f7ff4f1
|
rottingsounds/bitDSP-faust
|
literals.dsp
|
import("stdfaust.lib");
b = library("bitDSP.lib");
// CXXFLAGS="-I ../lib" faust2csvplot -I ../lib literals.dsp
s_count = (1:+~_) - 1;
a = (4:b.left_shift(1)) | (6:b.left_shift(1)) | (31:b.left_shift(1));
process = a : b.print2(0, s_count);
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/c436ecad29c57d46d5e3e59110c25e71a3761fc5/test/literals.dsp
|
faust
|
CXXFLAGS="-I ../lib" faust2csvplot -I ../lib literals.dsp
|
import("stdfaust.lib");
b = library("bitDSP.lib");
s_count = (1:+~_) - 1;
a = (4:b.left_shift(1)) | (6:b.left_shift(1)) | (31:b.left_shift(1));
process = a : b.print2(0, s_count);
|
b71de14860dd2b3c4de71fcd658484a509e00fe48bbc465e6b8771a82c9b78c6
|
rottingsounds/bitDSP-faust
|
test_bitMask.dsp
|
import("stdfaust.lib");
b = library("bitDSP.lib");
// compile
// CXXFLAGS="-I ../lib" faust2csvplot -I ../lib bitMask.dsp
// ./bitMask -n 10
s_count = (1:+~_) - 1;
// a = (4:b.left_shift(1)) | (6:b.left_shift(1)) | (31:b.left_shift(1));
a = b.bit_mask((s_count % 32, 6, 31));
process = a : b.print2(0, s_count);
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/21cf36105c55b6e18969a867a319530a0ef1ea63/test/test_bitMask.dsp
|
faust
|
compile
CXXFLAGS="-I ../lib" faust2csvplot -I ../lib bitMask.dsp
./bitMask -n 10
a = (4:b.left_shift(1)) | (6:b.left_shift(1)) | (31:b.left_shift(1));
|
import("stdfaust.lib");
b = library("bitDSP.lib");
s_count = (1:+~_) - 1;
a = b.bit_mask((s_count % 32, 6, 31));
process = a : b.print2(0, s_count);
|
f423129d22908ded20b96825c25996bf953db681faf951ef5c6e2e33506e3f3b
|
rottingsounds/bitDSP-faust
|
tillRBN.dsp
|
import("stdfaust.lib");
bitConv = library("bitDSP_conversion"); // conversion between formats library
node(function_seed, select_seed, N, K) = si.bus(N) : r_select(select_seed, K) : si.bus(K) : s_node(function_seed) with {
s_node(seed, K) = si.bus(K) : bitConv.bitBus_to_int(K) : sc.hasher(seed + _) > 0.5 : _;
};
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/c436ecad29c57d46d5e3e59110c25e71a3761fc5/test/tillRBN.dsp
|
faust
|
conversion between formats library
|
import("stdfaust.lib");
node(function_seed, select_seed, N, K) = si.bus(N) : r_select(select_seed, K) : si.bus(K) : s_node(function_seed) with {
s_node(seed, K) = si.bus(K) : bitConv.bitBus_to_int(K) : sc.hasher(seed + _) > 0.5 : _;
};
|
cf0007e362c4be271cb38dd587b1f464c51188d01687bdd5fdea34bf35fa9f85
|
rottingsounds/bitDSP-faust
|
test_autoparam.dsp
|
import("stdfaust.lib");
inspect(i) = bit.inspect(i, -1, 1);
bit = library("bitDSP.lib");
gen = library("bitDSP_gen.lib");
fb1 = hslider("fb1", 0.1, -1, 1, .000001);
fb2 = hslider("fb2", 0.1, -1, 1, .000001);
process = gen.gen3 ~ (ro.cross(2) : par(i, 2, bit.autoparam + .54233) : par(i, 2, inspect(i))) : par(i, 2, fi.highpass(1, 20));
//process = gen.gen3(fb1, fb2) <: par(i, 2, fi.highpass(1, 20)) , (par(i, 2, bit.autoparam) : par(i, 2, inspect(i)));
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/c436ecad29c57d46d5e3e59110c25e71a3761fc5/test/test_autoparam.dsp
|
faust
|
process = gen.gen3(fb1, fb2) <: par(i, 2, fi.highpass(1, 20)) , (par(i, 2, bit.autoparam) : par(i, 2, inspect(i)));
|
import("stdfaust.lib");
inspect(i) = bit.inspect(i, -1, 1);
bit = library("bitDSP.lib");
gen = library("bitDSP_gen.lib");
fb1 = hslider("fb1", 0.1, -1, 1, .000001);
fb2 = hslider("fb2", 0.1, -1, 1, .000001);
process = gen.gen3 ~ (ro.cross(2) : par(i, 2, bit.autoparam + .54233) : par(i, 2, inspect(i))) : par(i, 2, fi.highpass(1, 20));
|
667404401f6ce6ff4907a13daa1f34b17bb65f68461003bbb19b5735d01e98e7
|
rottingsounds/bitDSP-faust
|
LowPressure.dsp
|
declare name "LowPressure";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
// bit = library("bitDSP.lib");
bit_gen = library("bitDSP_gen.lib");
// SuperCollider
// export SUPERCOLLIDER_HEADERS=/localvol/sound/src/supercollider/include/
// faust2supercollider -I ../../lib -noprefix LowPressure.dsp
c1 = hslider("c1",0,0,1,0.001);
c2 = hslider("c2",0.5,0,1,0.001);
// Final output
process = bit_gen.lowPressure(c1, c2) : si.bus(2);
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/d70843492b65bb2cb9cf97c2240905fefacc7383/synths/_sc/LowPressure.dsp
|
faust
|
bit = library("bitDSP.lib");
SuperCollider
export SUPERCOLLIDER_HEADERS=/localvol/sound/src/supercollider/include/
faust2supercollider -I ../../lib -noprefix LowPressure.dsp
Final output
|
declare name "LowPressure";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
bit_gen = library("bitDSP_gen.lib");
c1 = hslider("c1",0,0,1,0.001);
c2 = hslider("c2",0.5,0,1,0.001);
process = bit_gen.lowPressure(c1, c2) : si.bus(2);
|
dce143bcf25e22fd8bcf1596afa9100eea95bb60cecc0143adca5077970095fe
|
rottingsounds/bitDSP-faust
|
test_lfsr.dsp
|
declare name "lfsr printVals";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
bit32 = library("bitDSP_int32.lib");
// plot
// CXXFLAGS="-I ../include" faust2csvplot -I ../lib lfsr.dsp
// ./lfsr -n 10
// compile
// CXXFLAGS="-I ../../../include" faust2caqt -I ../lib lfsr.dsp
// ./lfsr
s_count = (1:+~_) - 1;
// a = (4:b.left_shift(1)) | (6:bit32.left_shift(1)) | (31:bit32.left_shift(1));
a = 1: bit32.lfsr32(b.bit_mask((3, 6, 31)));
process = a : bit32.print2(0, s_count);
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/21cf36105c55b6e18969a867a319530a0ef1ea63/test/test_lfsr.dsp
|
faust
|
plot
CXXFLAGS="-I ../include" faust2csvplot -I ../lib lfsr.dsp
./lfsr -n 10
compile
CXXFLAGS="-I ../../../include" faust2caqt -I ../lib lfsr.dsp
./lfsr
a = (4:b.left_shift(1)) | (6:bit32.left_shift(1)) | (31:bit32.left_shift(1));
|
declare name "lfsr printVals";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
bit32 = library("bitDSP_int32.lib");
s_count = (1:+~_) - 1;
a = 1: bit32.lfsr32(b.bit_mask((3, 6, 31)));
process = a : bit32.print2(0, s_count);
|
346c286b39fe636e9a1850935e185458a5f6cd9cc12cd77256bee8939f9b4b0d
|
rottingsounds/bitDSP-faust
|
test_bit_delay.dsp
|
import("stdfaust.lib");
b = library("bitDSP.lib");
// bit_delay(0, x) = x;
// bit_delay(32, x) = x';
// bit_delay(delta, x) = ((x >> delta) | (x' << (32-delta)));
line = 1:+~_;
input = select2(1', -1216614433, 1216614432);
s_count = (1:+~_) - 1;
// parallel execution of the 32 cases for the bit_delay,
// I'd like to feed all of them the two values I defined in `input`,
// where the first value (-1216614433) is x' and the second value (1216614432) is x
process = input <: par(i,32,b.delay32(i) : b.print2(s_count, i));
// process = input <: par(i,32,b.delay32(i));
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/21cf36105c55b6e18969a867a319530a0ef1ea63/test/test_bit_delay.dsp
|
faust
|
bit_delay(0, x) = x;
bit_delay(32, x) = x';
bit_delay(delta, x) = ((x >> delta) | (x' << (32-delta)));
parallel execution of the 32 cases for the bit_delay,
I'd like to feed all of them the two values I defined in `input`,
where the first value (-1216614433) is x' and the second value (1216614432) is x
process = input <: par(i,32,b.delay32(i));
|
import("stdfaust.lib");
b = library("bitDSP.lib");
line = 1:+~_;
input = select2(1', -1216614433, 1216614432);
s_count = (1:+~_) - 1;
process = input <: par(i,32,b.delay32(i) : b.print2(s_count, i));
|
281990af0fdfb3df950ddcf5752a21ae3086f5b4d9c8204252f5d398f1d48564
|
rottingsounds/bitDSP-faust
|
boolOsc0.dsp
|
declare name "boolOsc0";
declare description "bool_osc_0 - example";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
bit = library("bitDSP.lib");
// plot
// CXXFLAGS="-I ../include" faust2csvplot -I ../lib boolOsc0.dsp
// ./boolOsc0 -n 10
// compile
// CXXFLAGS="-I ../../../include" faust2caqt -I ../lib boolOsc0.dsp
// ./boolOsc0
dt1 = int(hslider("dt1",0,0,1,0) * ma.SR);
dt2 = int(hslider("dt2",0,0,1,0) * ma.SR);
dt3 = int(hslider("dt3",0,0,1,0) * ma.SR);
dt4 = int(hslider("dt4",0,0,1,0) * ma.SR);
// stereo out
process = bit.bool_osc0(dt1, dt2, dt3, dt4) <: _, _;
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/c436ecad29c57d46d5e3e59110c25e71a3761fc5/synths/boolOsc0.dsp
|
faust
|
plot
CXXFLAGS="-I ../include" faust2csvplot -I ../lib boolOsc0.dsp
./boolOsc0 -n 10
compile
CXXFLAGS="-I ../../../include" faust2caqt -I ../lib boolOsc0.dsp
./boolOsc0
stereo out
|
declare name "boolOsc0";
declare description "bool_osc_0 - example";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
bit = library("bitDSP.lib");
dt1 = int(hslider("dt1",0,0,1,0) * ma.SR);
dt2 = int(hslider("dt2",0,0,1,0) * ma.SR);
dt3 = int(hslider("dt3",0,0,1,0) * ma.SR);
dt4 = int(hslider("dt4",0,0,1,0) * ma.SR);
process = bit.bool_osc0(dt1, dt2, dt3, dt4) <: _, _;
|
0ee641e2491ecdd6510d2b72dc72f0568fee0ee6e281fc52974c482e0381b300
|
rottingsounds/bitDSP-faust
|
boolOsc1.dsp
|
declare name "boolOsc1";
declare description "bool_osc_0 - example";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
bit = library("bitDSP.lib");
// SuperCollider
// CXXFLAGS="-I ../../../../include" faust2supercollider -I ../../lib -noprefix boolOsc1.dsp
// plot
// CXXFLAGS="-I ../include" faust2csvplot -I ../lib boolOsc1.dsp
// ./boolOsc1 -n 10
// compile
// CXXFLAGS="-I ../../../include" faust2caqt -I ../lib boolOsc1.dsp
// ./boolOsc1
dt1 = int(hslider("dt1",0,0,1,0) * ma.SR);
dt2 = int(hslider("dt2",0,0,1,0) * ma.SR);
// mono out
process = bit.bool_osc1(dt1, dt2);
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/21cf36105c55b6e18969a867a319530a0ef1ea63/examples/_sc/boolOsc1.dsp
|
faust
|
SuperCollider
CXXFLAGS="-I ../../../../include" faust2supercollider -I ../../lib -noprefix boolOsc1.dsp
plot
CXXFLAGS="-I ../include" faust2csvplot -I ../lib boolOsc1.dsp
./boolOsc1 -n 10
compile
CXXFLAGS="-I ../../../include" faust2caqt -I ../lib boolOsc1.dsp
./boolOsc1
mono out
|
declare name "boolOsc1";
declare description "bool_osc_0 - example";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
bit = library("bitDSP.lib");
dt1 = int(hslider("dt1",0,0,1,0) * ma.SR);
dt2 = int(hslider("dt2",0,0,1,0) * ma.SR);
process = bit.bool_osc1(dt1, dt2);
|
b6c4c49ae609cb59593c0b03ef11d753585354fd4ffe8186237ac1ef25a903d3
|
rottingsounds/bitDSP-faust
|
boolOsc2.dsp
|
declare name "boolOsc2";
declare description "bool_osc_0 - example";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
bit = library("bitDSP.lib");
// SuperCollider
// CXXFLAGS="-I ../../../../include" faust2supercollider -I ../../lib -noprefix boolOsc2.dsp
// plot
// CXXFLAGS="-I ../include" faust2csvplot -I ../lib boolOsc2.dsp
// ./boolOsc2 -n 10
// compile
// CXXFLAGS="-I ../../../include" faust2caqt -I ../lib boolOsc2.dsp
// ./boolOsc2
dt1 = int(hslider("dt1",0,0,1,0) * ma.SR);
dt2 = int(hslider("dt2",0,0,1,0) * ma.SR);
// mono out
process = bit.bool_osc2(dt1, dt2);
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/21cf36105c55b6e18969a867a319530a0ef1ea63/examples/_sc/boolOsc2.dsp
|
faust
|
SuperCollider
CXXFLAGS="-I ../../../../include" faust2supercollider -I ../../lib -noprefix boolOsc2.dsp
plot
CXXFLAGS="-I ../include" faust2csvplot -I ../lib boolOsc2.dsp
./boolOsc2 -n 10
compile
CXXFLAGS="-I ../../../include" faust2caqt -I ../lib boolOsc2.dsp
./boolOsc2
mono out
|
declare name "boolOsc2";
declare description "bool_osc_0 - example";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
bit = library("bitDSP.lib");
dt1 = int(hslider("dt1",0,0,1,0) * ma.SR);
dt2 = int(hslider("dt2",0,0,1,0) * ma.SR);
process = bit.bool_osc2(dt1, dt2);
|
e3079457d2410632da3a4d43390890865233c90af7963893ff3cc775117b960c
|
rottingsounds/bitDSP-faust
|
lfsr.dsp
|
declare name "LFSR";
declare author "Till Bovermann";
declare description "linear feedback shift register example";
declare reference "http://rottingsounds.org";
// compute lfsr on an n-bit integer bitset (assuming it to be unsigned, [0 < n <= 32] ).
// see https://en.wikipedia.org/wiki/Linear-feedback_shift_register
import("stdfaust.lib");
bit32 = library("bitDSP_int32.lib");
// SuperCollider
// CXXFLAGS="-I ../../../../include" faust2supercollider -d -I ../lib -noprefix lfsr32.dsp
// plot
// CXXFLAGS="-I ../include" faust2csvplot -I ../lib lfsr.dsp
// ./lfsr -n 10
// compile
// CXXFLAGS="-I ../../../include" faust2caqt -I ../lib lfsr.dsp
// // open lfsr.app
dac_bits = int(nentry("dacBits",1,1,32,1));
dac_offset = min(int(nentry("dacOffset",0,0,31,1)), 32-dac_bits);
// how many bits the LFSR runs on (1-32)
lfsr_num_bits = int(nentry("lfsrBits",1,1,32,1));
// initial state of the LFSR as 32bit (!=0)
// change to reset LFSR to start with that new value
lfsr_init_state = nentry("init",1,1,492000,1);
lfsr_parity_mask = bit32.bit_mask(
par(i,32,
nentry("pBit%i",i,0,31,1)
)
);
// lfsr = (
// bit32.lfsr(lfsr_num_bits, lfsr_parity_mask, lfsr_init_state),
// bit32.lfsr(lfsr_num_bits, lfsr_parity_mask, lfsr_init_state + 1)
// );
lfsr = bit32.lfsr(lfsr_num_bits, lfsr_parity_mask, lfsr_init_state);
// select which bit range should be used to create the PCM signal
process = lfsr : par(i, outputs(lfsr), bit32.bitDAC(dac_offset, dac_bits));
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/21cf36105c55b6e18969a867a319530a0ef1ea63/examples/_sc/lfsr.dsp
|
faust
|
compute lfsr on an n-bit integer bitset (assuming it to be unsigned, [0 < n <= 32] ).
see https://en.wikipedia.org/wiki/Linear-feedback_shift_register
SuperCollider
CXXFLAGS="-I ../../../../include" faust2supercollider -d -I ../lib -noprefix lfsr32.dsp
plot
CXXFLAGS="-I ../include" faust2csvplot -I ../lib lfsr.dsp
./lfsr -n 10
compile
CXXFLAGS="-I ../../../include" faust2caqt -I ../lib lfsr.dsp
// open lfsr.app
how many bits the LFSR runs on (1-32)
initial state of the LFSR as 32bit (!=0)
change to reset LFSR to start with that new value
lfsr = (
bit32.lfsr(lfsr_num_bits, lfsr_parity_mask, lfsr_init_state),
bit32.lfsr(lfsr_num_bits, lfsr_parity_mask, lfsr_init_state + 1)
);
select which bit range should be used to create the PCM signal
|
declare name "LFSR";
declare author "Till Bovermann";
declare description "linear feedback shift register example";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
bit32 = library("bitDSP_int32.lib");
dac_bits = int(nentry("dacBits",1,1,32,1));
dac_offset = min(int(nentry("dacOffset",0,0,31,1)), 32-dac_bits);
lfsr_num_bits = int(nentry("lfsrBits",1,1,32,1));
lfsr_init_state = nentry("init",1,1,492000,1);
lfsr_parity_mask = bit32.bit_mask(
par(i,32,
nentry("pBit%i",i,0,31,1)
)
);
lfsr = bit32.lfsr(lfsr_num_bits, lfsr_parity_mask, lfsr_init_state);
process = lfsr : par(i, outputs(lfsr), bit32.bitDAC(dac_offset, dac_bits));
|
cc161ea792dbc0a9879f5fd82eb89880d6a1945976a4d1b7ddb0001e36df1229
|
rottingsounds/bitDSP-faust
|
BoolOscFB.dsp
|
declare name "BoolOscFB";
declare description "bool_osc FB";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
bit = library("bitDSP.lib");
// SuperCollider
// CXXFLAGS="-I ../../../../include" faust2supercollider -I ../../lib -noprefix BoolOscFB.dsp
// plot
// CXXFLAGS="-I ../include" faust2csvplot -I ../lib boolOsc_fb.dsp
// ./boolOsc_fb -n 10
// compile
// CXXFLAGS="-I ../../../include" faust2caqt -I ../lib boolOsc_fb.dsp
// ./boolOsc_fb
// bool_osc1(del1, del2) = node1
// letrec {
// 'node1 = not(node1 xor node2 & node1) @ max(0, min(ma.SR, del1));
// 'node2 = not(node2 xor node1 xor node2) @ max(0, min(ma.SR, del2));
// }
// with {
// not(x) = 1 - x;
// };
// bool_osc2(del1, del2) = node1
// letrec {
// 'node1 = not(node1 & node2) @ max(0, min(ma.SR, del1));
// 'node2 = not(node1 & node2) @ max(0, min(ma.SR, del2));
// }
// with {
// not(x) = rint(1 - x);
// };
// lp1p (Dario)
// One-pole lowpass (design by Chamberlin).
//
// 2 inputs:
// CF[n], cut-off frequency in Hz;
// x[n].
//
// 1 outputs:
// y[n], lowpassed x[n].
lp1p(cf, in) = + (in * a0) ~ * (b1) with {
a0 = 1 - b1;
b1 = exp(w(cf) * -1);
w(x) = x * twopi / ma.SR;
twopi = 2 * ma.PI;
};
// rms (dario)
rms(window, in) = in <: * : lp1p(window) : sqrt;
// sc-like leakdc
leakdc(coef, x) = y letrec {
'y = x - x' + coef * y;
};
feedbackOsc(cutoff, dt1, dt2, leakcoef, att,rel) = loop ~ (_, _) with {
loop(fb1, fb2) =
bit.bool_osc1(amp(fb2), amp(fb1))@(dt1),
(bit.bool_osc2(amp(fb1), amp(fb2))@(dt2));
rmsN(sig) = leakdc(leakcoef, rms(cutoff, sig));
amp(sig) = 40 * leakdc(leakcoef, sig) : an.amp_follower_ud(att,rel);
// amp(sig) = leakdc(leakcoef, sig) : an.amp_follower(att);
};
dt1 = hslider("dt1",0,0,20000,1);
dt2 = hslider("dt2",0,0,20000,1);
cutoff = hslider("cutoff",100,100,1000,0);
leakcoef = hslider("leakcoef",0.99,0.99, 1, 0.000001);
att = hslider("att",0,0, 1, 0.000001);
rel = hslider("rel",0,0, 1, 0.000001);
// stereo out
process = feedbackOsc(cutoff, dt1, dt2, leakcoef, att, rel);
// process = leakdc(leakcoef, os.impulse);
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/21cf36105c55b6e18969a867a319530a0ef1ea63/examples/_sc/BoolOscFB.dsp
|
faust
|
SuperCollider
CXXFLAGS="-I ../../../../include" faust2supercollider -I ../../lib -noprefix BoolOscFB.dsp
plot
CXXFLAGS="-I ../include" faust2csvplot -I ../lib boolOsc_fb.dsp
./boolOsc_fb -n 10
compile
CXXFLAGS="-I ../../../include" faust2caqt -I ../lib boolOsc_fb.dsp
./boolOsc_fb
bool_osc1(del1, del2) = node1
letrec {
'node1 = not(node1 xor node2 & node1) @ max(0, min(ma.SR, del1));
'node2 = not(node2 xor node1 xor node2) @ max(0, min(ma.SR, del2));
}
with {
not(x) = 1 - x;
};
bool_osc2(del1, del2) = node1
letrec {
'node1 = not(node1 & node2) @ max(0, min(ma.SR, del1));
'node2 = not(node1 & node2) @ max(0, min(ma.SR, del2));
}
with {
not(x) = rint(1 - x);
};
lp1p (Dario)
One-pole lowpass (design by Chamberlin).
2 inputs:
CF[n], cut-off frequency in Hz;
x[n].
1 outputs:
y[n], lowpassed x[n].
rms (dario)
sc-like leakdc
amp(sig) = leakdc(leakcoef, sig) : an.amp_follower(att);
stereo out
process = leakdc(leakcoef, os.impulse);
|
declare name "BoolOscFB";
declare description "bool_osc FB";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
bit = library("bitDSP.lib");
lp1p(cf, in) = + (in * a0) ~ * (b1) with {
a0 = 1 - b1;
b1 = exp(w(cf) * -1);
w(x) = x * twopi / ma.SR;
twopi = 2 * ma.PI;
};
rms(window, in) = in <: * : lp1p(window) : sqrt;
leakdc(coef, x) = y letrec {
'y = x - x' + coef * y;
};
feedbackOsc(cutoff, dt1, dt2, leakcoef, att,rel) = loop ~ (_, _) with {
loop(fb1, fb2) =
bit.bool_osc1(amp(fb2), amp(fb1))@(dt1),
(bit.bool_osc2(amp(fb1), amp(fb2))@(dt2));
rmsN(sig) = leakdc(leakcoef, rms(cutoff, sig));
amp(sig) = 40 * leakdc(leakcoef, sig) : an.amp_follower_ud(att,rel);
};
dt1 = hslider("dt1",0,0,20000,1);
dt2 = hslider("dt2",0,0,20000,1);
cutoff = hslider("cutoff",100,100,1000,0);
leakcoef = hslider("leakcoef",0.99,0.99, 1, 0.000001);
att = hslider("att",0,0, 1, 0.000001);
rel = hslider("rel",0,0, 1, 0.000001);
process = feedbackOsc(cutoff, dt1, dt2, leakcoef, att, rel);
|
af3dc5426fb20e40a6aee2a79ddee5d551af0f2a1f39aed0192a7a8aef8f89ff
|
rottingsounds/bitDSP-faust
|
BoolOscFB1.dsp
|
declare name "BoolOscFB1";
declare description "bool_osc FB alternative 1";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
// bit = library("bitDSP.lib");
// SuperCollider
// CXXFLAGS="-I ../../../../include" faust2supercollider -I ../../lib -noprefix BoolOscFB1.dsp
// plot
// CXXFLAGS="-I ../include" faust2csvplot -I ../lib boolOsc_fb.dsp
// ./boolOsc_fb -n 10
// compile
// CXXFLAGS="-I ../../../include" faust2caqt -I ../lib boolOsc_fb.dsp
// ./boolOsc_fb
bool_osc1_mod(del1, del2) = node1 letrec {
'node1 = not(node1 xor node2 & node1) @ min(ma.SR,(del1 % ma.SR));
'node2 = not(node2 xor node1 xor node2) @ min(ma.SR,(del2 % ma.SR));
} with {
not(x) = 1 - x;
};
bool_osc2_mod(del1, del2) = node1 letrec {
'node1 = not(node1 & node2) @ min(ma.SR,(del1 % ma.SR));
'node2 = not(node1 & node2) @ min(ma.SR,(del2 % ma.SR));
} with {
not(x) = rint(1 - x);
};
oscfb1(leakcoef, bias1, bias2, mod1, mod2) = loop ~ _ with {
loop(fb) = bool_osc1_mod(
(fb : map(bias1, mod2)),
(fb : map(bias2, mod1))
) : leakdc(leakcoef);
};
oscfb2(leakcoef, bias1, bias2, mod1, mod2) = loop ~ _ with {
loop(fb) = bool_osc2_mod(
(fb : map(bias1, mod1)),
(fb : map(bias2, mod2))
) : leakdc(leakcoef);
};
map(bias, scale, in) = max(0, (bias * biasfac) + (scale * in * modfac)) with {
biasfac = 15000;
modfac = 15000;
};
// sc-like leakdc
leakdc(coef, x) = y letrec {
'y = x - x' + coef * y;
};
// MS processor
// ms(x, y, width) = (x + y) * 0.5, (x-y) * 0.5 * width;
ms(1, midIn, sideIn) = (midIn + sideIn) * 0.5, (midIn-sideIn) * 0.5;
ms(width, midIn, sideIn) = (mid + side) * 0.5, (mid-side) * 0.5 with {
mid = midIn;
side = sideIn * width;
};
rotate2(r, x, y) = xout, yout with {
xout = cos(r) * x + sin(r) * y;
yout = cos(r) * y - sin(r) * x;
};
// stereo out
process =
oscfb1(leakcoef, bias1, bias2, mod1, mod2),
oscfb2(leakcoef, bias1, bias2, mod1, mod2)
: leak
: rotate2(rot)
: ms(1) : ms(width)
: vca(distort)
: tanh
: vca(amp)
: fi.lowpass(lporder, lpfreq), fi.lowpass(lporder, lpfreq)
<: si.bus(2)
with {
distort = hslider("m_distort[scale:exp]", 1, 1, 100, 0.001) : si.smoo;
amp = hslider("m_amp", 0, 0, 4, 0.001) : si.smoo;
width = hslider("m_width", 0, 0, 1, 0.001) : si.smoo;
rot = hslider("m_rot", 0, 0, 1, 0.001) : si.smoo * ma.PI;
lpfreq = hslider("m_lpfreq[scale:exp]", 2400, 10, 20000, 1) : si.smoo;
coef_in = hslider("d_leak", 0, 0, 1, 0.0001) : si.smoo;
leakcoef = 1 - (coef_in * 0.001);
mod1 = hslider("d_mod1[scale:exp]", 0.0001, 0.0001, 1, 0.00001) : si.smoo;
mod2 = hslider("d_mod2[scale:exp]", 0.0001, 0.0001, 1, 0.00001) : si.smoo;
bias1 = hslider("d_bias1[scale:exp]", 0.0001, 0.0001, 1, 0.00001) : si.smoo;
bias2 = hslider("d_bias2[scale:exp]", 0.0001, 0.0001, 1, 0.00001) : si.smoo;
lporder = 4;
tanh = ma.tanh(_), ma.tanh(_);
leak = leakdc(0.999), leakdc(0.999);
vca(amp) = _ * amp, _ * amp;
};
// process = ma.SR / 100000;
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/21cf36105c55b6e18969a867a319530a0ef1ea63/examples/_sc/BoolOscFB1.dsp
|
faust
|
bit = library("bitDSP.lib");
SuperCollider
CXXFLAGS="-I ../../../../include" faust2supercollider -I ../../lib -noprefix BoolOscFB1.dsp
plot
CXXFLAGS="-I ../include" faust2csvplot -I ../lib boolOsc_fb.dsp
./boolOsc_fb -n 10
compile
CXXFLAGS="-I ../../../include" faust2caqt -I ../lib boolOsc_fb.dsp
./boolOsc_fb
sc-like leakdc
MS processor
ms(x, y, width) = (x + y) * 0.5, (x-y) * 0.5 * width;
stereo out
process = ma.SR / 100000;
|
declare name "BoolOscFB1";
declare description "bool_osc FB alternative 1";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
bool_osc1_mod(del1, del2) = node1 letrec {
'node1 = not(node1 xor node2 & node1) @ min(ma.SR,(del1 % ma.SR));
'node2 = not(node2 xor node1 xor node2) @ min(ma.SR,(del2 % ma.SR));
} with {
not(x) = 1 - x;
};
bool_osc2_mod(del1, del2) = node1 letrec {
'node1 = not(node1 & node2) @ min(ma.SR,(del1 % ma.SR));
'node2 = not(node1 & node2) @ min(ma.SR,(del2 % ma.SR));
} with {
not(x) = rint(1 - x);
};
oscfb1(leakcoef, bias1, bias2, mod1, mod2) = loop ~ _ with {
loop(fb) = bool_osc1_mod(
(fb : map(bias1, mod2)),
(fb : map(bias2, mod1))
) : leakdc(leakcoef);
};
oscfb2(leakcoef, bias1, bias2, mod1, mod2) = loop ~ _ with {
loop(fb) = bool_osc2_mod(
(fb : map(bias1, mod1)),
(fb : map(bias2, mod2))
) : leakdc(leakcoef);
};
map(bias, scale, in) = max(0, (bias * biasfac) + (scale * in * modfac)) with {
biasfac = 15000;
modfac = 15000;
};
leakdc(coef, x) = y letrec {
'y = x - x' + coef * y;
};
ms(1, midIn, sideIn) = (midIn + sideIn) * 0.5, (midIn-sideIn) * 0.5;
ms(width, midIn, sideIn) = (mid + side) * 0.5, (mid-side) * 0.5 with {
mid = midIn;
side = sideIn * width;
};
rotate2(r, x, y) = xout, yout with {
xout = cos(r) * x + sin(r) * y;
yout = cos(r) * y - sin(r) * x;
};
process =
oscfb1(leakcoef, bias1, bias2, mod1, mod2),
oscfb2(leakcoef, bias1, bias2, mod1, mod2)
: leak
: rotate2(rot)
: ms(1) : ms(width)
: vca(distort)
: tanh
: vca(amp)
: fi.lowpass(lporder, lpfreq), fi.lowpass(lporder, lpfreq)
<: si.bus(2)
with {
distort = hslider("m_distort[scale:exp]", 1, 1, 100, 0.001) : si.smoo;
amp = hslider("m_amp", 0, 0, 4, 0.001) : si.smoo;
width = hslider("m_width", 0, 0, 1, 0.001) : si.smoo;
rot = hslider("m_rot", 0, 0, 1, 0.001) : si.smoo * ma.PI;
lpfreq = hslider("m_lpfreq[scale:exp]", 2400, 10, 20000, 1) : si.smoo;
coef_in = hslider("d_leak", 0, 0, 1, 0.0001) : si.smoo;
leakcoef = 1 - (coef_in * 0.001);
mod1 = hslider("d_mod1[scale:exp]", 0.0001, 0.0001, 1, 0.00001) : si.smoo;
mod2 = hslider("d_mod2[scale:exp]", 0.0001, 0.0001, 1, 0.00001) : si.smoo;
bias1 = hslider("d_bias1[scale:exp]", 0.0001, 0.0001, 1, 0.00001) : si.smoo;
bias2 = hslider("d_bias2[scale:exp]", 0.0001, 0.0001, 1, 0.00001) : si.smoo;
lporder = 4;
tanh = ma.tanh(_), ma.tanh(_);
leak = leakdc(0.999), leakdc(0.999);
vca(amp) = _ * amp, _ * amp;
};
|
77864491586143a53df1d9dc111d36eb9d855526f54565e922dafe2cb5521e8e
|
rottingsounds/bitDSP-faust
|
BoolOscFB3.dsp
|
declare name "BoolOscFB1";
declare description "bool_osc FB alternative 1";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
// bit = library("bitDSP.lib");
// SuperCollider
// CXXFLAGS="-I ../../../../include" faust2supercollider -I ../../lib -noprefix BoolOscFB1.dsp
// plot
// CXXFLAGS="-I ../include" faust2csvplot -I ../lib boolOsc_fb.dsp
// ./boolOsc_fb -n 10
// compile
// CXXFLAGS="-I ../../../include" faust2caqt -I ../lib boolOsc_fb.dsp
// ./boolOsc_fb
// sc-type mod (always >= 0)
mod(a, 0) = 0;
mod(a, b) = ba.if(a > 0, a % b, a % b + b);
bool_osc1_mod(d1, d2) = node1 letrec {
'node1 = not(node1 xor node2 & node1) @ min(ma.SR,mod(d1, ma.SR));
'node2 = not(node2 xor node1 xor node2) @ min(ma.SR,mod(d2, ma.SR));
} with {
not(x) = rint(1 - x);
};
bool_osc2_mod(d1, d2) = node1 letrec {
'node1 = not(node1 & node2) @ min(ma.SR,mod(d1, ma.SR));
'node2 = not(node1 & node2) @ min(ma.SR,mod(d2, ma.SR));
} with {
not(x) = rint(1 - x);
};
// bitrot(noise, chance, type) = _ <: select3(type-1, low(noise, chance, _), flip(noise, chance, _), high(noise, chance, _)) with {
// low(noise, chance, x) = select2(coin(noise, chance), x, 0);
// high(noise, chance, x) = select2(coin(noise, chance), x, 1);
// flip(noise, chance, x) = select2(coin(noise, chance), x, 1-x);
// coin(noise, chance) = noise < chance;
// };
// rms (dario)
rms(window, in) = in <: * : lp1p(window) : sqrt with {
// lp1p (Dario)
// One-pole lowpass (design by Chamberlin).
lp1p(cf, in) = + (in * a0) ~ * (b1) with {
a0 = 1 - b1;
b1 = exp(w(cf) * -1);
w(x) = x * twopi / ma.SR;
twopi = 2 * ma.PI;
};
};
// sc-like leakdc
leakdc(coef, x) = y letrec {
'y = x - x' + coef * y;
};
selectx(which, x, y) = (which * x) + ((1-which) * y);
// MS processor
ms(width, x, y) = (x + y) * 0.5, (x-y) * 0.5 * width;
coef_in = hslider("coefIn", 0, 0, 1, 0.0001) : si.smoo;
d11bias = hslider("d11bias", 24, 0, 2000, 1);
d11 = hslider("d11", 95/1000, 0, 1, 0.0001) : si.smoo;
d12bias = hslider("d12bias", 49, 0, 2000, 1);
d12 = hslider("d12", 116/1000, 0, 1, 0.0001) : si.smoo;
d21bias = hslider("d21bias", 24, 0, 2000, 1);
d21 = hslider("d21", 95/1000, 0, 1, 0.0001) : si.smoo;
d22bias = hslider("d22bias", 49, 0, 2000, 1);
d22 = hslider("d22", 116/1000, 0, 1, 0.0001) : si.smoo;
lpfreq = hslider("lpfreq", 2400, 0, 10000, 1) : si.smoo;
lporder = 5; // low=pass order
amp = hslider("amp", 0, 0, 1, 0.01) : si.smoo;
xfb = hslider("xfb", 0, 0, 1, 0.01) : si.smoo;
// d1 = 0.03843526787654;
// d2 = 0.421234567658;
// d1off = 280;
// d2off = 334;
// stereo out
process = oscfb(leakcoef, xfb, d11bias, d11, d12bias, d12, d21bias, d21, d22bias, d22)
: leakdc(0.99999), leakdc(0.99999)
: ms(1)
: fi.lowpass(lporder, lpfreq), fi.lowpass(lporder, lpfreq)
: _ * amp, _ * amp
with {
leakcoef = 1 - ((1-coef_in) * 0.0001);
oscfb(leakcoef, xfb, d11bias, d11, d12bias, d12, d21bias, d21, d22bias, d22) = (loop ~ (_, _)) with {
loop(fb1, fb2) =
loop1(
selectx(xfb, fb1, fb2),
leakcoef,
d11bias, d11,
d12bias, d12
),
loop2(
selectx(xfb, fb2, fb1),
leakcoef,
d21bias, d21,
d22bias, d22
);
loop1(fb, coef, d1off, d1, d2off, d2) =
bool_osc1_mod(
max(0, d1off + (fb * 5000 * d1)),
max(0, d2off + (fb * 5000 * d2))
)
: leakdc(coef);
loop2(fb, coef, d1off, d1, d2off, d2) =
bool_osc2_mod(
max(0, d1off + (fb * 5000 * d1)),
max(0, d2off + (fb * 5000 * d2))
)
: leakdc(coef);
};
};
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/c436ecad29c57d46d5e3e59110c25e71a3761fc5/synths/BoolOscFB3.dsp
|
faust
|
bit = library("bitDSP.lib");
SuperCollider
CXXFLAGS="-I ../../../../include" faust2supercollider -I ../../lib -noprefix BoolOscFB1.dsp
plot
CXXFLAGS="-I ../include" faust2csvplot -I ../lib boolOsc_fb.dsp
./boolOsc_fb -n 10
compile
CXXFLAGS="-I ../../../include" faust2caqt -I ../lib boolOsc_fb.dsp
./boolOsc_fb
sc-type mod (always >= 0)
bitrot(noise, chance, type) = _ <: select3(type-1, low(noise, chance, _), flip(noise, chance, _), high(noise, chance, _)) with {
low(noise, chance, x) = select2(coin(noise, chance), x, 0);
high(noise, chance, x) = select2(coin(noise, chance), x, 1);
flip(noise, chance, x) = select2(coin(noise, chance), x, 1-x);
coin(noise, chance) = noise < chance;
};
rms (dario)
lp1p (Dario)
One-pole lowpass (design by Chamberlin).
sc-like leakdc
MS processor
low=pass order
d1 = 0.03843526787654;
d2 = 0.421234567658;
d1off = 280;
d2off = 334;
stereo out
|
declare name "BoolOscFB1";
declare description "bool_osc FB alternative 1";
declare author "Till Bovermann";
declare reference "http://rottingsounds.org";
import("stdfaust.lib");
mod(a, 0) = 0;
mod(a, b) = ba.if(a > 0, a % b, a % b + b);
bool_osc1_mod(d1, d2) = node1 letrec {
'node1 = not(node1 xor node2 & node1) @ min(ma.SR,mod(d1, ma.SR));
'node2 = not(node2 xor node1 xor node2) @ min(ma.SR,mod(d2, ma.SR));
} with {
not(x) = rint(1 - x);
};
bool_osc2_mod(d1, d2) = node1 letrec {
'node1 = not(node1 & node2) @ min(ma.SR,mod(d1, ma.SR));
'node2 = not(node1 & node2) @ min(ma.SR,mod(d2, ma.SR));
} with {
not(x) = rint(1 - x);
};
rms(window, in) = in <: * : lp1p(window) : sqrt with {
lp1p(cf, in) = + (in * a0) ~ * (b1) with {
a0 = 1 - b1;
b1 = exp(w(cf) * -1);
w(x) = x * twopi / ma.SR;
twopi = 2 * ma.PI;
};
};
leakdc(coef, x) = y letrec {
'y = x - x' + coef * y;
};
selectx(which, x, y) = (which * x) + ((1-which) * y);
ms(width, x, y) = (x + y) * 0.5, (x-y) * 0.5 * width;
coef_in = hslider("coefIn", 0, 0, 1, 0.0001) : si.smoo;
d11bias = hslider("d11bias", 24, 0, 2000, 1);
d11 = hslider("d11", 95/1000, 0, 1, 0.0001) : si.smoo;
d12bias = hslider("d12bias", 49, 0, 2000, 1);
d12 = hslider("d12", 116/1000, 0, 1, 0.0001) : si.smoo;
d21bias = hslider("d21bias", 24, 0, 2000, 1);
d21 = hslider("d21", 95/1000, 0, 1, 0.0001) : si.smoo;
d22bias = hslider("d22bias", 49, 0, 2000, 1);
d22 = hslider("d22", 116/1000, 0, 1, 0.0001) : si.smoo;
lpfreq = hslider("lpfreq", 2400, 0, 10000, 1) : si.smoo;
amp = hslider("amp", 0, 0, 1, 0.01) : si.smoo;
xfb = hslider("xfb", 0, 0, 1, 0.01) : si.smoo;
process = oscfb(leakcoef, xfb, d11bias, d11, d12bias, d12, d21bias, d21, d22bias, d22)
: leakdc(0.99999), leakdc(0.99999)
: ms(1)
: fi.lowpass(lporder, lpfreq), fi.lowpass(lporder, lpfreq)
: _ * amp, _ * amp
with {
leakcoef = 1 - ((1-coef_in) * 0.0001);
oscfb(leakcoef, xfb, d11bias, d11, d12bias, d12, d21bias, d21, d22bias, d22) = (loop ~ (_, _)) with {
loop(fb1, fb2) =
loop1(
selectx(xfb, fb1, fb2),
leakcoef,
d11bias, d11,
d12bias, d12
),
loop2(
selectx(xfb, fb2, fb1),
leakcoef,
d21bias, d21,
d22bias, d22
);
loop1(fb, coef, d1off, d1, d2off, d2) =
bool_osc1_mod(
max(0, d1off + (fb * 5000 * d1)),
max(0, d2off + (fb * 5000 * d2))
)
: leakdc(coef);
loop2(fb, coef, d1off, d1, d2off, d2) =
bool_osc2_mod(
max(0, d1off + (fb * 5000 * d1)),
max(0, d2off + (fb * 5000 * d2))
)
: leakdc(coef);
};
};
|
acde87b5a36b3a67b65ae0f1400d4da53215211b0134b75ad53d972f674cda48
|
rottingsounds/bitDSP-faust
|
BASP.dsp
|
/*******************************************************************************
* BASP is a project for the creative use of bitstream musical DSP in Faust.
* The work relies on a several library modules developed over almost a year
* by Dario Sanfilippo and Till Bovermann. The library includes standard
* functions for delta-sigma modulation and processing as well as original
* algorithms for information processing and audio manipulation.
* Part of the library modules are described in the following publication:
* https://ifc20.sciencesconf.org/332745/document.
*
* The code below was developed by Dario Sanfilippo and it is a music
* piece based on an adaptive, self-organising bitstream network. The work
* includes four interdependent adaptive agents deploying different
* techniques for the analysis, adaptation, and manipulation of single-bit
* audio streams.
*
* Specifically, the adaptation infrastructure includes
* statistical samplewise processing for the measurement of polarity
* tendency, and an experimental algorithm for the approximation of
* noisiness through fixed-latency autocorrelation. The adaptation mechanisms
* operate both at timbral and formal time-scales for short and long-term
* evolutions, and deploy hysteresis for low and high-level activation
* functions for enhanced complexity.
*
* The algorithms for audio generation and manupilation include chaotic
* self-oscillating systems based on bitwise operations, cross-coupled
* delta-sigma filters, and nonlinear distortion through bitstream
* audio pattern-matching.
*
* Even though the system has been designed to operate autonomously, the
* user interface provides parameters to alter the adaptation infrustructure
* to experience the work through different self-organising dynamics.
*
* PARAMETERS:
*
* - Gate de/activation rate (.001-.125 Hz): this parameter affects
* affects the responsiveness of the statistical analysis that opens
* and closes the outputs of the individual agents. The collective
* behaviour of this gating de/activation results in an autonomous
* regulation of the agents' presence over time.
*
* - Stepped changes rate (.001-.125 Hz): this parameter affects the
* responsiveness of the adaptation mechanism dedicated to stepped
* self-modulation. The input of each agent is analysed and the condition
* to trigger a new parameter is given by a change of direction of the
* signal, whereas the target value is determined by a time-variant
* function that is given by integration of the magnitude of the
* derivative.
*
* - Continuous changes rate (.001-.125 Hz): this parameter sets the
* cut-off of a set of cascaded one-pole lowpass filters that act upon
* the input signal of each agent. Slow cut-off values result in slower
* continuous variations of the parameters, as the derivartive of the
* input is decreased.
*
* - On/Off relay threshold: - these parameters set the lower and upper
* boundaries of a one-bit hysteresis function, that is the deactivation
* and activation thresholds, respectively. This hysteresis function
* controls the parameter self-modulation modality: stepped, or continuous.
*
*******************************************************************************/
import("stdfaust.lib");
declare name "BASP – Boolean Audio Signal Processing";
declare author "Dario Sanfilippo";
declare copyright "Copyright (C) 2021 Dario Sanfilippo
<[email protected]>";
declare version "1.0";
declare license "MIT license";
bit = library("bitDSP.lib");
gen = library("bitDSP_gen.lib");
vol = hslider("[05]Vol", 0, 0, 1, .000001);
stmix = si.bus(8) : par(i, 8, bit.meter(i, -60, 0)) :> si.bus(2) : par(i, 2, /(4) : bit.onebit2mbit * vol);
gates = par(i, 8, bit.autogate(gate_rate));
params = par(i, 2, bit.autoparam(step_rate, incr_rate, alpha, beta) + init);
init = .1890809373898301;
gate_rate = hslider("[00]Gate de/activation rate (.001-.125 Hz)", .01, .001, .125, .000001);
step_rate = hslider("[01]Stepped changes rate (.001-.125 Hz)", .01, .001, .125, .000001);
incr_rate = hslider("[02]Continuous changes rate (.001-.125 Hz)", .01, .001, .125, .000001);
alpha = hslider("[03]Off relay threshold", .3, 0, 1, .000001);
beta = hslider("[04]On relay threshold", .7, 0, 1, .000001);
circular = route(8, 8, (1,3), (2,4), (3,5), (4,6), (5,7), (6,8), (7,1), (8,2));
agent1 = params : gen.gen1;
agent2 = params : gen.gen2;
agent3 = params : gen.gen3;
agent4 = params : gen.gen4;
network = ( agent1 ,
agent2 ,
agent3 ,
agent4) ~
circular : gates : stmix;
process = network;
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/c436ecad29c57d46d5e3e59110c25e71a3761fc5/works/BASP.dsp
|
faust
|
******************************************************************************
* BASP is a project for the creative use of bitstream musical DSP in Faust.
* The work relies on a several library modules developed over almost a year
* by Dario Sanfilippo and Till Bovermann. The library includes standard
* functions for delta-sigma modulation and processing as well as original
* algorithms for information processing and audio manipulation.
* Part of the library modules are described in the following publication:
* https://ifc20.sciencesconf.org/332745/document.
*
* The code below was developed by Dario Sanfilippo and it is a music
* piece based on an adaptive, self-organising bitstream network. The work
* includes four interdependent adaptive agents deploying different
* techniques for the analysis, adaptation, and manipulation of single-bit
* audio streams.
*
* Specifically, the adaptation infrastructure includes
* statistical samplewise processing for the measurement of polarity
* tendency, and an experimental algorithm for the approximation of
* noisiness through fixed-latency autocorrelation. The adaptation mechanisms
* operate both at timbral and formal time-scales for short and long-term
* evolutions, and deploy hysteresis for low and high-level activation
* functions for enhanced complexity.
*
* The algorithms for audio generation and manupilation include chaotic
* self-oscillating systems based on bitwise operations, cross-coupled
* delta-sigma filters, and nonlinear distortion through bitstream
* audio pattern-matching.
*
* Even though the system has been designed to operate autonomously, the
* user interface provides parameters to alter the adaptation infrustructure
* to experience the work through different self-organising dynamics.
*
* PARAMETERS:
*
* - Gate de/activation rate (.001-.125 Hz): this parameter affects
* affects the responsiveness of the statistical analysis that opens
* and closes the outputs of the individual agents. The collective
* behaviour of this gating de/activation results in an autonomous
* regulation of the agents' presence over time.
*
* - Stepped changes rate (.001-.125 Hz): this parameter affects the
* responsiveness of the adaptation mechanism dedicated to stepped
* self-modulation. The input of each agent is analysed and the condition
* to trigger a new parameter is given by a change of direction of the
* signal, whereas the target value is determined by a time-variant
* function that is given by integration of the magnitude of the
* derivative.
*
* - Continuous changes rate (.001-.125 Hz): this parameter sets the
* cut-off of a set of cascaded one-pole lowpass filters that act upon
* the input signal of each agent. Slow cut-off values result in slower
* continuous variations of the parameters, as the derivartive of the
* input is decreased.
*
* - On/Off relay threshold: - these parameters set the lower and upper
* boundaries of a one-bit hysteresis function, that is the deactivation
* and activation thresholds, respectively. This hysteresis function
* controls the parameter self-modulation modality: stepped, or continuous.
*
******************************************************************************
|
import("stdfaust.lib");
declare name "BASP – Boolean Audio Signal Processing";
declare author "Dario Sanfilippo";
declare copyright "Copyright (C) 2021 Dario Sanfilippo
<[email protected]>";
declare version "1.0";
declare license "MIT license";
bit = library("bitDSP.lib");
gen = library("bitDSP_gen.lib");
vol = hslider("[05]Vol", 0, 0, 1, .000001);
stmix = si.bus(8) : par(i, 8, bit.meter(i, -60, 0)) :> si.bus(2) : par(i, 2, /(4) : bit.onebit2mbit * vol);
gates = par(i, 8, bit.autogate(gate_rate));
params = par(i, 2, bit.autoparam(step_rate, incr_rate, alpha, beta) + init);
init = .1890809373898301;
gate_rate = hslider("[00]Gate de/activation rate (.001-.125 Hz)", .01, .001, .125, .000001);
step_rate = hslider("[01]Stepped changes rate (.001-.125 Hz)", .01, .001, .125, .000001);
incr_rate = hslider("[02]Continuous changes rate (.001-.125 Hz)", .01, .001, .125, .000001);
alpha = hslider("[03]Off relay threshold", .3, 0, 1, .000001);
beta = hslider("[04]On relay threshold", .7, 0, 1, .000001);
circular = route(8, 8, (1,3), (2,4), (3,5), (4,6), (5,7), (6,8), (7,1), (8,2));
agent1 = params : gen.gen1;
agent2 = params : gen.gen2;
agent3 = params : gen.gen3;
agent4 = params : gen.gen4;
network = ( agent1 ,
agent2 ,
agent3 ,
agent4) ~
circular : gates : stmix;
process = network;
|
e3653ca9b15baca8b24a1f4c8ea8df808ab75f97b5b6190b49933b6c2f22569f
|
rottingsounds/bitDSP-faust
|
rbn.dsp
|
// =============================================================================
// Preliminary tests for random Boolean networks.
// reference paper: https://arxiv.org/pdf/0706.3351v2.pdf
// quick introduction: http://www.complexityexplorer.org/system/explore/models/writeup_files/000/000/040/original/random-boolean.pdf
// =============================================================================
declare author "Dario Sanfilippo";
declare copyright "Copyright (C) 2020 Dario Sanfilippo
<[email protected]>";
declare lcg_par license "GPL v3 license";
import("stdfaust.lib");
// AUXILIARY FUNCTIONS
//------------------------------------------------------------------------------
// Linear congruential generator for streams of integer values based on
// the equation: y[n] = (A * y[n - 1] + C) % M.
// See https://en.wikipedia.org/wiki/Linear_congruential_generator.
//
// For a period-(M-1) LCG, with C != 0, we must satisfy the following conditions:
//
// 1: M and C are relatively prime,
// 2: A-1 is divisible by all prime factors of M,
// 3: A-1 is divisible by 4 if M is divisible by 4.
//
// This way, full-period cycles are guaranteed with any seeds != 0.
//
// For example, we can use lcg(14, 15, 5, S) to select the update functions
// with uniform probability.
//
// For power-of-two Ms, C should be coprime to M and A should 1+4K, where K
// is an int, to have a full-cycle LCG.
//
// #### Usage
//
// ````
// lcg(M, A, C, S) : _
// ````
//
// Where:
//
// * M is the divisor in the modulo operation.
// * A is the multiplier.
// * C is the offset.
// * S is the seed.
//
// #### Reference:
//
// L’ecuyer, P. (1999). Tables of linear congruential generators of different
// sizes and good lattice structure. Mathematics of Computation, 68(225),
// 249-260.
//
// Steele, G., & Vigna, S. (2020). Computationally easy, spectrally good
// multipliers for congruential pseudorandom number generators. arXiv
// preprint arXiv:2001.05304.
//
lcg(M, A, C, S) = ((+ (S - S') * A + C) % M) ~ _;
//------------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// Linear congruential list generator
//
lcg_par(1, M, A, C, S) = (A * S + C) % M;
lcg_par(N, M, A, C, S) = (A * S + C) % M ,
lcg_par(N - 1, M, A, C, (A * S + C) % M);
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// Negation for single-digit binary values.
//
not(N) = rint(1 - N);
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// UPDATE FUNCTIONS
// The input cases for K = 2 (i.e., two-input genes) are: 00 - 01 - 10 - 11.
// Four input cases and binary updates, hence 2^4 update functions.
// The update functions below determine the next state of each gene depending
// on the inputs.
// The 'frozen' update functions 1111 and 0000 are not considered.
//
uf(1) = &; // 0001
uf(2) = si.bus(2) <: uf(3) & uf(6); // 0010
uf(3) = _ ,
(_ : !); // 0011
uf(4) = si.bus(2) <: uf(6) & uf(12); // 0100
uf(5) = (_ : !) ,
_; // 0101
uf(6) = xor; // 0110
uf(7) = |; // 0111
uf(8) = not(|); // 1000
uf(9) = not(xor); // 1001
uf(10) = not(uf(5)); // 1010
uf(12) = not(uf(3)); // 1100
uf(11) = not(uf(4)); // 1011
uf(13) = not(uf(2)); // 1101
uf(14) = not(&); // 1110
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// This function creates a list with the digits of an integer number.
//
digits_par(0) = 0 : !;
digits_par(N) = digits_par(int(N / 10)) ,
N % 10;
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// This function converts from binary to decimal.
//
bin2dec(0) = 0;
bin2dec(B) = digits_par(B) : par(i, elem, *(2 ^ (elem - (i + 1)))) :> _
with {
elem = outputs(digits_par(B));
};
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// Genes array generation through randomly chosen update functions.
// This function takes an int, N, indicating the array size, and a seed, S, for
// an LCG function that generates N seeds for N LCG functions.
// The gene selection has a uniform probability distribution p = 1/14.
// Roughly, the given seed should be a positive int between 1 and 2^16.
//
genes(N, S) =
par(i, N, uf(lcg_par(1, 14, 15, 5, ba.take(i + 1, seeds) + 1) + 1))
with {
seeds = lcg_par(N, 65521, 17364, 0, S);
};
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// This function generates uniformely distributed (or almost) positive random
// ints between 0 and M-1. The function also takes a seed, S.
//
rand_int(M, S) = abs(random) % M
with {
mask = 4294967295; // 2^32-1
random = (+(S) : *(1103515245) & mask)
~ _; // "linear congruential"
};
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// This recursive function generates a gene with arbitrary K (inputs) based on
// a seed between 1 and 2^16, roughly. The genes are generated as homogeneous
// combinations of the 14 K=2 update functions defined above.
//
gene(2, S) = uf(ba.take(1, org) + 1)
with {
org = lcg_par(1, 14, 15, 5, S);
};
gene(K, S) =
uf(ba.take(K - 1, org) + 1, gene(K - 1, S))
with {
org = lcg_par(K - 1, 14, 15, 5, S);
};
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// This function generates a genes array of size N with arbitrary K based on
// a seed between 1 and 2^16, roughly.
//
genes2(N, K, S) = par(i, N, gene(K, ba.take(i + 1, seeds) + 1))
with {
seeds = lcg_par(N, 65521, 17364, 0, S);
};
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// This function creates a list of N elements with random ints between
// 0 and M-1. The function also takes increment (C) and seed parameters (S).
// The increment should be odd to increase uniformity.
//
rand_int_par(1, M, C, S) =
(S + C) * 1103515245 & 4294967295 : abs : %(M);
rand_int_par(N, M, C, S) =
(S + C) * 1103515245 & 4294967295 : abs : %(M) ,
rand_int_par(N - 1, M, C, (S + C) * 1103515245 & 4294967295);
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// Topology selection for genes interactions. This function takes an int, N,
// representing the order of the network, the inputs number in each gene, K,
// and a seed, S. The function generates homogeneous topologies, that is,
// genes interactions where individual gene contributions are equally but
// randomly distributed throughout the network. N and K should be pow-of-2
// for maximum homogeneity.
// The seed should be a positive int roughly below 2^16.
//
topology(N, K, S) =
si.bus(N) <:
par(i, N * K, si.bus(N) <:
ba.selector(ba.take(i + 1, routes), N * K))
with {
routes = lcg_par(N * K, N * K, 5, 15, S);
};
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// Random Boolean networks generator. The function takes four ints, N, K, S_1,
// and S_2, respectively for the network order (pow-of-2), genes inputs,
// the seed for the genes array, the seed for the topology type, and a list
// of numbers determining the delays in samples for each feedback path. The function also
// provides a slider to expand or compress the delays.
//
rbn(N, K, S_1, S_2, del_seq) =
genes2(N, K, S_1)
~ (delays(N, del_seq) : topology(N, K, S_2));
// -----------------------------------------------------------------------------
// full_adder(x1[n], x2[n], c_in[n]); ------------------------------------------
//
// (author: Dario Sanfilippo)
//
// Adder for binary values. It adds two operands as well as a carrier
// input. It outputs the sum as well as the carrier output.
//
// 3 inputs:
// x1[n], first operand;
// x2[n], second operand;
// c_in[n], carrier input.
//
// 2 outputs:
// s_out[n], resulting sum;
// c_out[n], carrier output.
//
full_adder(x1, x2, c_in) = s_out ,
c_out
with {
s_out = xor(rint(c_in), xor(rint(x1), rint(x2)));
c_out = (rint(c_in) & xor(rint(x1), rint(x2))) |
(rint(x1) & rint(x2));
};
// -----------------------------------------------------------------------------
// bitstream_adder(x1[n], x2[n]); ----------------------------------------------
//
// (author: Dario Sanfilippo)
//
// Adder for delta-sigma-modulated streams.
//
// 2 inputs:
// x1[n], first bitstream;
// x2[n], second bitstream.
//
// 1 outputs:
// y[n], resulting bitstream summation.
//
bitstream_adder(x1, x2) = loop
~ _ : ! ,
_
with {
loop(fb) = full_adder(x1, x2, fb);
};
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// Binary summing bus of N inputs.
//
bitstream_adderN(1) = _;
bitstream_adderN(2) = bitstream_adder;
bitstream_adderN(N) = bitstream_adderN(N - 1) ,
_ : bitstream_adder;
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// N-delay array.
//
delays(N, sequence) =
par(i, N, rint(de.fdelay(ba.take(i + 1, sequence),
abs((ba.take(i + 1, sequence) * factor) % ba.take(i + 1, sequence)))))
with {
factor = 16 ^ hslider("delays stretching", 0, -1, 1, .001);
};
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// Lists of number sequences for delay lines.
//
seq_primes =
(2, 3, 5, 7, 11, 13, 17, 19, 23, 29, 31, 37, 41, 43, 47, 53);
seq_fibonacci =
(1, 1, 2, 3, 5, 8, 13, 21, 34, 55, 89, 144, 233, 377, 610, 987);
seq_hexagonal =
(1, 6, 15, 28, 45, 66, 91, 120, 153, 190, 231, 276, 325, 378, 435, 496);
seq_lazycaterer =
(1, 2, 4, 7, 11, 16, 22, 29, 37, 46, 56, 67, 79, 92, 106, 121);
seq_magic =
(15, 34, 65, 111, 175, 260, 369, 505, 671, 870, 1105, 1379, 1695, 2056,
2465, 2925);
seq_pentagonal =
(1, 2, 5, 7, 12, 15, 22, 26, 35, 40, 51, 57, 70, 77, 92, 100);
seq_square =
(1, 4, 9, 16, 25, 36, 49, 64, 81, 100, 121, 144, 169, 196, 225, 256);
seq_triangular =
(1, 3, 6, 10, 15, 21, 28, 36, 45, 55, 66, 78, 91, 105, 120, 136);
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// Process example.
//
// Try stretch values 0.042 or -0.037.
//
// N = 8;
// K = 8;
// process =
// rbn(N, K, 316, 153, seq_hexagonal) : par(i, 2, bitstream_adderN(N / 2));
// -----------------------------------------------------------------------------
// -----------------------------------------------------------------------------
// Process example.
//
N = 16; // genes array size
K = 8; // genes input size
process =
rbn(N, K, 231, 415, seq_fibonacci) : par(i, 2, bitstream_adderN(N / 2));
// -----------------------------------------------------------------------------
|
https://raw.githubusercontent.com/rottingsounds/bitDSP-faust/c436ecad29c57d46d5e3e59110c25e71a3761fc5/test/rbn.dsp
|
faust
|
=============================================================================
Preliminary tests for random Boolean networks.
reference paper: https://arxiv.org/pdf/0706.3351v2.pdf
quick introduction: http://www.complexityexplorer.org/system/explore/models/writeup_files/000/000/040/original/random-boolean.pdf
=============================================================================
AUXILIARY FUNCTIONS
------------------------------------------------------------------------------
Linear congruential generator for streams of integer values based on
the equation: y[n] = (A * y[n - 1] + C) % M.
See https://en.wikipedia.org/wiki/Linear_congruential_generator.
For a period-(M-1) LCG, with C != 0, we must satisfy the following conditions:
1: M and C are relatively prime,
2: A-1 is divisible by all prime factors of M,
3: A-1 is divisible by 4 if M is divisible by 4.
This way, full-period cycles are guaranteed with any seeds != 0.
For example, we can use lcg(14, 15, 5, S) to select the update functions
with uniform probability.
For power-of-two Ms, C should be coprime to M and A should 1+4K, where K
is an int, to have a full-cycle LCG.
#### Usage
````
lcg(M, A, C, S) : _
````
Where:
* M is the divisor in the modulo operation.
* A is the multiplier.
* C is the offset.
* S is the seed.
#### Reference:
L’ecuyer, P. (1999). Tables of linear congruential generators of different
sizes and good lattice structure. Mathematics of Computation, 68(225),
249-260.
Steele, G., & Vigna, S. (2020). Computationally easy, spectrally good
multipliers for congruential pseudorandom number generators. arXiv
preprint arXiv:2001.05304.
------------------------------------------------------------------------------
-----------------------------------------------------------------------------
Linear congruential list generator
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
Negation for single-digit binary values.
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
UPDATE FUNCTIONS
The input cases for K = 2 (i.e., two-input genes) are: 00 - 01 - 10 - 11.
Four input cases and binary updates, hence 2^4 update functions.
The update functions below determine the next state of each gene depending
on the inputs.
The 'frozen' update functions 1111 and 0000 are not considered.
0001
0010
0011
0100
0101
0110
0111
1000
1001
1010
1100
1011
1101
1110
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
This function creates a list with the digits of an integer number.
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
This function converts from binary to decimal.
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
Genes array generation through randomly chosen update functions.
This function takes an int, N, indicating the array size, and a seed, S, for
an LCG function that generates N seeds for N LCG functions.
The gene selection has a uniform probability distribution p = 1/14.
Roughly, the given seed should be a positive int between 1 and 2^16.
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
This function generates uniformely distributed (or almost) positive random
ints between 0 and M-1. The function also takes a seed, S.
2^32-1
"linear congruential"
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
This recursive function generates a gene with arbitrary K (inputs) based on
a seed between 1 and 2^16, roughly. The genes are generated as homogeneous
combinations of the 14 K=2 update functions defined above.
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
This function generates a genes array of size N with arbitrary K based on
a seed between 1 and 2^16, roughly.
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
This function creates a list of N elements with random ints between
0 and M-1. The function also takes increment (C) and seed parameters (S).
The increment should be odd to increase uniformity.
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
Topology selection for genes interactions. This function takes an int, N,
representing the order of the network, the inputs number in each gene, K,
and a seed, S. The function generates homogeneous topologies, that is,
genes interactions where individual gene contributions are equally but
randomly distributed throughout the network. N and K should be pow-of-2
for maximum homogeneity.
The seed should be a positive int roughly below 2^16.
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
Random Boolean networks generator. The function takes four ints, N, K, S_1,
and S_2, respectively for the network order (pow-of-2), genes inputs,
the seed for the genes array, the seed for the topology type, and a list
of numbers determining the delays in samples for each feedback path. The function also
provides a slider to expand or compress the delays.
-----------------------------------------------------------------------------
full_adder(x1[n], x2[n], c_in[n]); ------------------------------------------
(author: Dario Sanfilippo)
Adder for binary values. It adds two operands as well as a carrier
input. It outputs the sum as well as the carrier output.
3 inputs:
x1[n], first operand;
x2[n], second operand;
c_in[n], carrier input.
2 outputs:
s_out[n], resulting sum;
c_out[n], carrier output.
-----------------------------------------------------------------------------
bitstream_adder(x1[n], x2[n]); ----------------------------------------------
(author: Dario Sanfilippo)
Adder for delta-sigma-modulated streams.
2 inputs:
x1[n], first bitstream;
x2[n], second bitstream.
1 outputs:
y[n], resulting bitstream summation.
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
Binary summing bus of N inputs.
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
N-delay array.
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
Lists of number sequences for delay lines.
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
Process example.
Try stretch values 0.042 or -0.037.
N = 8;
K = 8;
process =
rbn(N, K, 316, 153, seq_hexagonal) : par(i, 2, bitstream_adderN(N / 2));
-----------------------------------------------------------------------------
-----------------------------------------------------------------------------
Process example.
genes array size
genes input size
-----------------------------------------------------------------------------
|
declare author "Dario Sanfilippo";
declare copyright "Copyright (C) 2020 Dario Sanfilippo
<[email protected]>";
declare lcg_par license "GPL v3 license";
import("stdfaust.lib");
lcg(M, A, C, S) = ((+ (S - S') * A + C) % M) ~ _;
lcg_par(1, M, A, C, S) = (A * S + C) % M;
lcg_par(N, M, A, C, S) = (A * S + C) % M ,
lcg_par(N - 1, M, A, C, (A * S + C) % M);
not(N) = rint(1 - N);
uf(3) = _ ,
uf(5) = (_ : !) ,
digits_par(0) = 0 : !;
digits_par(N) = digits_par(int(N / 10)) ,
N % 10;
bin2dec(0) = 0;
bin2dec(B) = digits_par(B) : par(i, elem, *(2 ^ (elem - (i + 1)))) :> _
with {
elem = outputs(digits_par(B));
};
genes(N, S) =
par(i, N, uf(lcg_par(1, 14, 15, 5, ba.take(i + 1, seeds) + 1) + 1))
with {
seeds = lcg_par(N, 65521, 17364, 0, S);
};
rand_int(M, S) = abs(random) % M
with {
random = (+(S) : *(1103515245) & mask)
};
gene(2, S) = uf(ba.take(1, org) + 1)
with {
org = lcg_par(1, 14, 15, 5, S);
};
gene(K, S) =
uf(ba.take(K - 1, org) + 1, gene(K - 1, S))
with {
org = lcg_par(K - 1, 14, 15, 5, S);
};
genes2(N, K, S) = par(i, N, gene(K, ba.take(i + 1, seeds) + 1))
with {
seeds = lcg_par(N, 65521, 17364, 0, S);
};
rand_int_par(1, M, C, S) =
(S + C) * 1103515245 & 4294967295 : abs : %(M);
rand_int_par(N, M, C, S) =
(S + C) * 1103515245 & 4294967295 : abs : %(M) ,
rand_int_par(N - 1, M, C, (S + C) * 1103515245 & 4294967295);
topology(N, K, S) =
si.bus(N) <:
par(i, N * K, si.bus(N) <:
ba.selector(ba.take(i + 1, routes), N * K))
with {
routes = lcg_par(N * K, N * K, 5, 15, S);
};
rbn(N, K, S_1, S_2, del_seq) =
genes2(N, K, S_1)
~ (delays(N, del_seq) : topology(N, K, S_2));
full_adder(x1, x2, c_in) = s_out ,
c_out
with {
s_out = xor(rint(c_in), xor(rint(x1), rint(x2)));
c_out = (rint(c_in) & xor(rint(x1), rint(x2))) |
(rint(x1) & rint(x2));
};
bitstream_adder(x1, x2) = loop
~ _ : ! ,
_
with {
loop(fb) = full_adder(x1, x2, fb);
};
bitstream_adderN(1) = _;
bitstream_adderN(2) = bitstream_adder;
bitstream_adderN(N) = bitstream_adderN(N - 1) ,
_ : bitstream_adder;
delays(N, sequence) =
par(i, N, rint(de.fdelay(ba.take(i + 1, sequence),
abs((ba.take(i + 1, sequence) * factor) % ba.take(i + 1, sequence)))))
with {
factor = 16 ^ hslider("delays stretching", 0, -1, 1, .001);
};
seq_primes =
(2, 3, 5, 7, 11, 13, 17, 19, 23, 29, 31, 37, 41, 43, 47, 53);
seq_fibonacci =
(1, 1, 2, 3, 5, 8, 13, 21, 34, 55, 89, 144, 233, 377, 610, 987);
seq_hexagonal =
(1, 6, 15, 28, 45, 66, 91, 120, 153, 190, 231, 276, 325, 378, 435, 496);
seq_lazycaterer =
(1, 2, 4, 7, 11, 16, 22, 29, 37, 46, 56, 67, 79, 92, 106, 121);
seq_magic =
(15, 34, 65, 111, 175, 260, 369, 505, 671, 870, 1105, 1379, 1695, 2056,
2465, 2925);
seq_pentagonal =
(1, 2, 5, 7, 12, 15, 22, 26, 35, 40, 51, 57, 70, 77, 92, 100);
seq_square =
(1, 4, 9, 16, 25, 36, 49, 64, 81, 100, 121, 144, 169, 196, 225, 256);
seq_triangular =
(1, 3, 6, 10, 15, 21, 28, 36, 45, 55, 66, 78, 91, 105, 120, 136);
process =
rbn(N, K, 231, 415, seq_fibonacci) : par(i, 2, bitstream_adderN(N / 2));
|
0f16a86df869072cfc71d2e9c8fe67d7b3926ba4852024012a1f1a71d8b82de0
|
Sylcantor/wam-web-components
|
StereoEnhancer.dsp
|
declare id "panoram_enhancer";
declare name "Panoram Enhancer";
declare shortname "Panoram";
declare category "Misc";
//------------------------------------
//Based at:
//ECE542 T. Tran; Rice University; Spring 2005
//"Title: Stereo Enhancement Algorithm"
//------------------------------------
import("stdfaust.lib");
//Controls
delay_width = hslider("Delay width[name:Delay][tooltip:Delay Width] [style:knob]",0,0,1,0.01):si.smooth(0.999);
freq_width = hslider("Frequency width[name:Frequency][tooltip:Frequency Width] [style:knob]",0,0,1,0.01);
//Constants
dt_max_const = 65536; //Max length of all de.delay lines, to provide 200 ms at 192 kHz
dt_max = 0.2 * ma.SR; //Real max length, 200 ms
filters_order = 6; //Filters order in filter-banks
fmain = 1800; //Main filter fhi
f1 = 3600; f2 = 6400; f3 = 20000; //Border freqs of filters in filter-banks
freq_shift = 1500; //Filters freq difference between filter-banks
fbank_coef_gap = 0.6; //Filters in filter-banks gain coefs min value
//Random changed values emulation
rv1 = _; rv2 = _*0.7; rv3 = _ + 0.3:sqrt(_);
rv4 = _*3.14:sin; rv5 = _*1.23:cos; rv6 = _+9:log10;
pa_filter(dt,flo,fhi,coef) = de.fdelay(dt_max_const,dt):fi.highpass(filters_order,flo):fi.lowpass(filters_order,fhi):_*coef;
gain_coef = _*(1 - fbank_coef_gap):_+fbank_coef_gap;
pa_filter_bank1(delay_width,filter_width) = _<:
pa_filter(dt_max:rv1:_*delay_width,fmain,f1,freq_width:rv5:gain_coef),
pa_filter(dt_max:rv3:_*delay_width,f1,f2, freq_width:rv2:gain_coef),
pa_filter(dt_max:rv2:_*delay_width,f2,f3, freq_width:rv4:gain_coef)
:>_;
pa_filter_bank2(delay_width,filter_width) = _<:
pa_filter(dt_max:rv5:_*delay_width,fmain - freq_shift*freq_width,f1 - freq_shift*freq_width,freq_width:rv3:gain_coef),
pa_filter(dt_max:rv1:_*delay_width,f1 - freq_shift*freq_width,f2 - freq_shift*freq_width,freq_width:rv4:gain_coef),
pa_filter(dt_max:rv6:_*delay_width,f2 - freq_shift*freq_width,f3 - freq_shift*freq_width,freq_width:rv2:gain_coef)
:>_;
stereoenhancer = _,_<:
pa_filter_bank1(delay_width,freq_width),
(_,_:(_*0.5,_*0.5:>fi.lowpass(4,fmain))<:_,_),
pa_filter_bank2(delay_width,freq_width)
:>_,_;
process = ba.bypass_fade(ma.SR/10, checkbox("bypass"), stereoenhancer);
|
https://raw.githubusercontent.com/Sylcantor/wam-web-components/c54352dae5b80bcf6d8d4c306ea22e2c91a12b08/plugins/StereoEnhancer/StereoEnhancer.dsp
|
faust
|
------------------------------------
Based at:
ECE542 T. Tran; Rice University; Spring 2005
"Title: Stereo Enhancement Algorithm"
------------------------------------
Controls
Constants
Max length of all de.delay lines, to provide 200 ms at 192 kHz
Real max length, 200 ms
Filters order in filter-banks
Main filter fhi
Border freqs of filters in filter-banks
Filters freq difference between filter-banks
Filters in filter-banks gain coefs min value
Random changed values emulation
|
declare id "panoram_enhancer";
declare name "Panoram Enhancer";
declare shortname "Panoram";
declare category "Misc";
import("stdfaust.lib");
delay_width = hslider("Delay width[name:Delay][tooltip:Delay Width] [style:knob]",0,0,1,0.01):si.smooth(0.999);
freq_width = hslider("Frequency width[name:Frequency][tooltip:Frequency Width] [style:knob]",0,0,1,0.01);
rv1 = _; rv2 = _*0.7; rv3 = _ + 0.3:sqrt(_);
rv4 = _*3.14:sin; rv5 = _*1.23:cos; rv6 = _+9:log10;
pa_filter(dt,flo,fhi,coef) = de.fdelay(dt_max_const,dt):fi.highpass(filters_order,flo):fi.lowpass(filters_order,fhi):_*coef;
gain_coef = _*(1 - fbank_coef_gap):_+fbank_coef_gap;
pa_filter_bank1(delay_width,filter_width) = _<:
pa_filter(dt_max:rv1:_*delay_width,fmain,f1,freq_width:rv5:gain_coef),
pa_filter(dt_max:rv3:_*delay_width,f1,f2, freq_width:rv2:gain_coef),
pa_filter(dt_max:rv2:_*delay_width,f2,f3, freq_width:rv4:gain_coef)
:>_;
pa_filter_bank2(delay_width,filter_width) = _<:
pa_filter(dt_max:rv5:_*delay_width,fmain - freq_shift*freq_width,f1 - freq_shift*freq_width,freq_width:rv3:gain_coef),
pa_filter(dt_max:rv1:_*delay_width,f1 - freq_shift*freq_width,f2 - freq_shift*freq_width,freq_width:rv4:gain_coef),
pa_filter(dt_max:rv6:_*delay_width,f2 - freq_shift*freq_width,f3 - freq_shift*freq_width,freq_width:rv2:gain_coef)
:>_;
stereoenhancer = _,_<:
pa_filter_bank1(delay_width,freq_width),
(_,_:(_*0.5,_*0.5:>fi.lowpass(4,fmain))<:_,_),
pa_filter_bank2(delay_width,freq_width)
:>_,_;
process = ba.bypass_fade(ma.SR/10, checkbox("bypass"), stereoenhancer);
|
1f45bdc88ff2b3b3b3c0396bda37ccde2281cae429e192317e2279c78b80900e
|
Sylcantor/wam-web-components
|
temper.dsp
|
import("stdfaust.lib");
bypass = checkbox("99_bypass");
// Pre-filter parameters
pfilterfc = hslider("Cutoff[style:knobs]", 20000, 100, 20000, 1.0);
pfilterq = hslider("Resonance[style:knobs]", 1.0, 1.0, 8, 0.001) : si.smooth(0.995);
// Distortion parameters
pdrive = hslider("Drive[style:knobs]", 4.0, -10.0, 10.0, 0.001) : si.smooth(0.995);
psat = hslider("Saturation[style:knobs]", 1.0, 0.0, 1.0, 0.001) : si.smooth(0.995);
pcurve = hslider("Curve[style:knobs]", 1.0, 0.1, 4.0, 0.001) : si.smooth(0.995);
// Output parameters
pfeedback = hslider("Feedback[style:knobs]", -60, -60, -24, 1) : ba.db2linear : si.smooth(0.995);
plevel = hslider("Level[style:knobs]", -3, -24, 24, 1) : ba.db2linear : si.smooth(0.995);
// A fairly standard wave shaping curve; we use this to shape the input signal
// before modulating the filter coefficients by this signal. Which shaping curve
// we use here is pretty unimportant; as long as we can introduce higher harmonics,
// the coefficient modulation will react. Which harmonics we introduce here seems
// to affect the resulting sound pretty minimally.
//
// Also note here that we use an approximation of the `tanh` function for computational
// improvement. See `http://www.musicdsp.org/showone.php?id=238`.
tanh(x) = x * (27 + x * x) / (27 + 9 * x * x);
transfer(x) = tanh(pcurve * x) / tanh(pcurve);
// The allpass filter is stable for `|m(x)| <= 1`, but should not linger
// near +/-1.0 for very long. We therefore clamp the driven signal with a tanh
// function to ensure smooth coefficient calculation. We also here introduce
// a modulated DC offset in the signal before the curve.
drive(x) = x : *(pdrive) : +(fol(x)) : max(-3) : min(3) with {
fol = an.amp_follower(0.04);
};
// Our modulated filter is an allpass with coefficients governed by the input
// signal applied through our wave shaper. Before the filter, we mix the dry
// input signal with the raw waveshaper output according to the `psat` parameter.
// Note the constant gain coefficient on the waveshaper; that number is to offset
// the global gain from the waveshaper to make sure the shaping process stays
// under unity gain. The maximum differential gain of the waveshaper can be found
// by evaluating the derivative of the transfer function at x0 where x0 is the
// steepest part of the slope. Here that number is ~4, so we multiply by ~1/4.
modfilter(x) = x <: _, tap(x) : *(1.0 - psat), *(psat) : + : fi.tf1(b0(x), b1(x), a1(x)) with {
b0(x) = m(x);
b1(x) = 1.0;
a1(x) = m(x);
m(x) = drive(x) : transfer : *(0.24);
tap(x) = m(x);
};
// A fork of the `tf2s` function from the standard filter library which uses a
// smoothing function after the `tan` computation to move that expensive call
// outside of the inner loop of the filter function.
tf2s(b2,b1,b0,a1,a0,w1) = fi.tf2(b0d,b1d,b2d,a1d,a2d)
with {
c = 1/tan(w1*0.5/ma.SR) : si.smooth(0.995); // bilinear-transform scale-factor
csq = c*c;
d = a0 + a1 * c + csq;
b0d = (b0 + b1 * c + b2 * csq)/d;
b1d = 2 * (b0 - b2 * csq)/d;
b2d = (b0 - b1 * c + b2 * csq)/d;
a1d = 2 * (a0 - csq)/d;
a2d = (a0 - a1*c + csq)/d;
};
// A fork of the `resonlp` function from the standard filter library which uses
// a local `tf2s` implementation.
resonlp(fc,Q,gain) = tf2s(b2,b1,b0,a1,a0,wc)
with {
wc = 2*ma.PI*fc;
a1 = 1/Q;
a0 = 1;
b2 = 0;
b1 = 0;
b0 = gain;
};
// We have a resonant lowpass filter at the beginning of our signal chain
// to control what part of the input signal becomes the modulating signal.
filter = resonlp(pfilterfc, pfilterq, 1.0);
// Our main processing block.
main = (+ : modfilter : fi.dcblocker) ~ *(pfeedback) : gain with {
// This explicit gain multiplier of 4.0 accounts for the loss of gain that
// occurs from oversampling by a factor of 2, and for the loss of gain that
// occurs from the prefilter and modulation step. Then we apply the output
// level parameter.
gain = *(4.0) : *(plevel);
};
// And the overall process declaration.
output = _,_ : + : ba.bypass1(bypass, filter,main) <: _,_;
process = output;
|
https://raw.githubusercontent.com/Sylcantor/wam-web-components/c54352dae5b80bcf6d8d4c306ea22e2c91a12b08/plugins/temper/temper.dsp
|
faust
|
Pre-filter parameters
Distortion parameters
Output parameters
A fairly standard wave shaping curve; we use this to shape the input signal
before modulating the filter coefficients by this signal. Which shaping curve
we use here is pretty unimportant; as long as we can introduce higher harmonics,
the coefficient modulation will react. Which harmonics we introduce here seems
to affect the resulting sound pretty minimally.
Also note here that we use an approximation of the `tanh` function for computational
improvement. See `http://www.musicdsp.org/showone.php?id=238`.
The allpass filter is stable for `|m(x)| <= 1`, but should not linger
near +/-1.0 for very long. We therefore clamp the driven signal with a tanh
function to ensure smooth coefficient calculation. We also here introduce
a modulated DC offset in the signal before the curve.
Our modulated filter is an allpass with coefficients governed by the input
signal applied through our wave shaper. Before the filter, we mix the dry
input signal with the raw waveshaper output according to the `psat` parameter.
Note the constant gain coefficient on the waveshaper; that number is to offset
the global gain from the waveshaper to make sure the shaping process stays
under unity gain. The maximum differential gain of the waveshaper can be found
by evaluating the derivative of the transfer function at x0 where x0 is the
steepest part of the slope. Here that number is ~4, so we multiply by ~1/4.
A fork of the `tf2s` function from the standard filter library which uses a
smoothing function after the `tan` computation to move that expensive call
outside of the inner loop of the filter function.
bilinear-transform scale-factor
A fork of the `resonlp` function from the standard filter library which uses
a local `tf2s` implementation.
We have a resonant lowpass filter at the beginning of our signal chain
to control what part of the input signal becomes the modulating signal.
Our main processing block.
This explicit gain multiplier of 4.0 accounts for the loss of gain that
occurs from oversampling by a factor of 2, and for the loss of gain that
occurs from the prefilter and modulation step. Then we apply the output
level parameter.
And the overall process declaration.
|
import("stdfaust.lib");
bypass = checkbox("99_bypass");
pfilterfc = hslider("Cutoff[style:knobs]", 20000, 100, 20000, 1.0);
pfilterq = hslider("Resonance[style:knobs]", 1.0, 1.0, 8, 0.001) : si.smooth(0.995);
pdrive = hslider("Drive[style:knobs]", 4.0, -10.0, 10.0, 0.001) : si.smooth(0.995);
psat = hslider("Saturation[style:knobs]", 1.0, 0.0, 1.0, 0.001) : si.smooth(0.995);
pcurve = hslider("Curve[style:knobs]", 1.0, 0.1, 4.0, 0.001) : si.smooth(0.995);
pfeedback = hslider("Feedback[style:knobs]", -60, -60, -24, 1) : ba.db2linear : si.smooth(0.995);
plevel = hslider("Level[style:knobs]", -3, -24, 24, 1) : ba.db2linear : si.smooth(0.995);
tanh(x) = x * (27 + x * x) / (27 + 9 * x * x);
transfer(x) = tanh(pcurve * x) / tanh(pcurve);
drive(x) = x : *(pdrive) : +(fol(x)) : max(-3) : min(3) with {
fol = an.amp_follower(0.04);
};
modfilter(x) = x <: _, tap(x) : *(1.0 - psat), *(psat) : + : fi.tf1(b0(x), b1(x), a1(x)) with {
b0(x) = m(x);
b1(x) = 1.0;
a1(x) = m(x);
m(x) = drive(x) : transfer : *(0.24);
tap(x) = m(x);
};
tf2s(b2,b1,b0,a1,a0,w1) = fi.tf2(b0d,b1d,b2d,a1d,a2d)
with {
csq = c*c;
d = a0 + a1 * c + csq;
b0d = (b0 + b1 * c + b2 * csq)/d;
b1d = 2 * (b0 - b2 * csq)/d;
b2d = (b0 - b1 * c + b2 * csq)/d;
a1d = 2 * (a0 - csq)/d;
a2d = (a0 - a1*c + csq)/d;
};
resonlp(fc,Q,gain) = tf2s(b2,b1,b0,a1,a0,wc)
with {
wc = 2*ma.PI*fc;
a1 = 1/Q;
a0 = 1;
b2 = 0;
b1 = 0;
b0 = gain;
};
filter = resonlp(pfilterfc, pfilterq, 1.0);
main = (+ : modfilter : fi.dcblocker) ~ *(pfeedback) : gain with {
gain = *(4.0) : *(plevel);
};
output = _,_ : + : ba.bypass1(bypass, filter,main) <: _,_;
process = output;
|
bf36a575268543e26b068e7bbe237f9046ac09ffc270426c078d46efc38208be
|
Sylcantor/wam-web-components
|
greyhole.dsp
|
declare name "GreyholeRaw";
declare version "1.0";
declare author "Julian Parker, bug fixes by Till Bovermann";
declare license "GPL2+";
declare copyright "(c) Julian Parker 2013";
import("stdfaust.lib");
fb = hslider("feedback [style:knob]",0.9,0.0,1.0,0.01):linear_interp;
depth = ((ma.SR/44100)*50*hslider("modDepth [style:knob]",0.1,0.0,1.0,0.001)):linear_interp;
freq = hslider("modFreq[style:knob]",2.0,0.0,10.0,0.01):linear_interp;
diff = hslider("diffusion[style:knob]",0.5,0.0,0.99,0.0001):linear_interp;
dt = min(65533,ma.SR*hslider("delayTime[style:knob]",0.2,0.001,1.45,0.0001)): si.smooth(0.9999);
size = hslider("size[style:knob]",1.0,0.5,3.0,0.0001): si.smooth(0.9999);
damp = hslider("damping[style:knob]", 0.0, 0.0, 0.99,0.001):linear_interp;
linear_interp = _<:(mem,_):+:*(0.5):_;
smooth_init(s,default) = *(1.0 - s) : + ~ (+(default*init(1)):*(s))
with
{
init(value) = value - value';
};
// using exteral function to access list of prime numbers is slightly faster than an inline approach (as of 428bf3b)
//prime_delays = ffunction(int primes (int),<jprev.h>,"primes");
prime_delays(x) = (waveform {2, 3, 5, 7, 11, 13, 17, 19, 23, 29, 31, 37, 41, 43, 47, 53, 59, 61, 67, 71, 73, 79, 83, 89, 97, 101, 103, 107, 109, 113, 127, 131, 137, 139, 149, 151, 157, 163, 167, 173, 179, 181, 191, 193, 197, 199, 211, 223, 227, 229, 233, 239, 241, 251, 257, 263, 269, 271, 277, 281, 283, 293, 307, 311, 313, 317, 331, 337, 347, 349, 353, 359, 367, 373, 379, 383, 389, 397, 401, 409, 419, 421, 431, 433, 439, 443, 449, 457, 461, 463, 467, 479, 487, 491, 499, 503, 509, 521, 523, 541, 547, 557, 563, 569, 571, 577, 587, 593, 599, 601, 607, 613, 617, 619, 631, 641, 643, 647, 653, 659, 661, 673, 677, 683, 691, 701, 709, 719, 727, 733, 739, 743, 751, 757, 761, 769, 773, 787, 797, 809, 811, 821, 823, 827, 829, 839, 853, 857, 859, 863, 877, 881, 883, 887, 907, 911, 919, 929, 937, 941, 947, 953, 967, 971, 977, 983, 991, 997, 1009, 1013, 1019, 1021, 1031, 1033, 1039, 1049, 1051, 1061, 1063, 1069, 1087, 1091, 1093, 1097, 1103, 1109, 1117, 1123, 1129, 1151, 1153, 1163, 1171, 1181, 1187, 1193, 1201, 1213, 1217, 1223, 1229, 1231, 1237, 1249, 1259, 1277, 1279, 1283, 1289, 1291, 1297, 1301, 1303, 1307, 1319, 1321, 1327, 1361, 1367, 1373, 1381, 1399, 1409, 1423, 1427, 1429, 1433, 1439, 1447, 1451, 1453, 1459, 1471, 1481, 1483, 1487, 1489, 1493, 1499, 1511, 1523, 1531, 1543, 1549, 1553, 1559, 1567, 1571, 1579, 1583, 1597, 1601, 1607, 1609, 1613, 1619, 1621, 1627, 1637, 1657, 1663, 1667, 1669, 1693, 1697, 1699, 1709, 1721, 1723, 1733, 1741, 1747, 1753, 1759, 1777, 1783, 1787, 1789, 1801, 1811, 1823, 1831, 1847, 1861, 1867, 1871, 1873, 1877, 1879, 1889, 1901, 1907, 1913, 1931, 1933, 1949, 1951, 1973, 1979, 1987, 1993, 1997, 1999, 2003, 2011, 2017, 2027, 2029, 2039, 2053, 2063, 2069, 2081, 2083, 2087, 2089, 2099, 2111, 2113, 2129, 2131, 2137, 2141, 2143, 2153, 2161, 2179, 2203, 2207, 2213, 2221, 2237, 2239, 2243, 2251, 2267, 2269, 2273, 2281, 2287, 2293, 2297, 2309, 2311, 2333, 2339, 2341, 2347, 2351, 2357, 2371, 2377, 2381, 2383, 2389, 2393, 2399, 2411, 2417, 2423, 2437, 2441, 2447, 2459, 2467, 2473, 2477, 2503, 2521, 2531, 2539, 2543, 2549, 2551, 2557, 2579, 2591, 2593, 2609, 2617, 2621, 2633, 2647, 2657, 2659, 2663, 2671, 2677, 2683, 2687, 2689, 2693, 2699, 2707, 2711, 2713, 2719, 2729, 2731, 2741, 2749, 2753, 2767, 2777, 2789, 2791, 2797, 2801, 2803, 2819, 2833, 2837, 2843, 2851, 2857, 2861, 2879, 2887, 2897, 2903, 2909, 2917, 2927, 2939, 2953, 2957, 2963, 2969, 2971, 2999, 3001, 3011, 3019, 3023, 3037, 3041, 3049, 3061, 3067, 3079, 3083, 3089, 3109, 3119, 3121, 3137, 3163, 3167, 3169, 3181, 3187, 3191, 3203, 3209, 3217, 3221, 3229, 3251, 3253, 3257, 3259, 3271, 3299, 3301, 3307, 3313, 3319, 3323, 3329, 3331, 3343, 3347, 3359, 3361, 3371, 3373, 3389, 3391, 3407, 3413, 3433, 3449, 3457, 3461, 3463, 3467, 3469, 3491, 3499, 3511, 3517, 3527, 3529, 3533, 3539, 3541, 3547, 3557, 3559, 3571, 3581, 3583, 3593, 3607, 3613, 3617, 3623, 3631, 3637, 3643, 3659, 3671, 3673, 3677, 3691, 3697, 3701, 3709, 3719, 3727, 3733, 3739, 3761, 3767, 3769, 3779, 3793, 3797, 3803, 3821, 3823, 3833, 3847, 3851, 3853, 3863, 3877, 3881, 3889, 3907, 3911, 3917, 3919, 3923, 3929, 3931, 3943, 3947, 3967, 3989, 4001, 4003, 4007, 4013, 4019, 4021, 4027, 4049, 4051, 4057, 4073, 4079, 4091, 4093, 4099, 4111, 4127, 4129, 4133, 4139, 4153, 4157, 4159, 4177, 4201, 4211, 4217, 4219, 4229, 4231, 4241, 4243, 4253, 4259, 4261, 4271, 4273, 4283, 4289, 4297, 4327, 4337, 4339, 4349, 4357, 4363, 4373, 4391, 4397, 4409, 4421, 4423, 4441, 4447, 4451, 4457, 4463, 4481, 4483, 4493, 4507, 4513, 4517, 4519, 4523, 4547, 4549, 4561, 4567, 4583, 4591, 4597, 4603, 4621, 4637, 4639, 4643, 4649, 4651, 4657, 4663, 4673, 4679, 4691, 4703, 4721, 4723, 4729, 4733, 4751, 4759, 4783, 4787, 4789, 4793, 4799, 4801, 4813, 4817, 4831, 4861, 4871, 4877, 4889, 4903, 4909, 4919, 4931, 4933, 4937, 4943, 4951, 4957, 4967, 4969, 4973, 4987, 4993, 4999, 5003, 5009, 5011, 5021, 5023, 5039, 5051, 5059, 5077, 5081, 5087, 5099, 5101, 5107, 5113, 5119, 5147, 5153, 5167, 5171, 5179, 5189, 5197, 5209, 5227, 5231, 5233, 5237, 5261, 5273, 5279, 5281, 5297, 5303, 5309, 5323, 5333, 5347, 5351, 5381, 5387, 5393, 5399, 5407, 5413, 5417, 5419, 5431, 5437, 5441, 5443, 5449, 5471, 5477, 5479, 5483, 5501, 5503, 5507, 5519, 5521, 5527, 5531, 5557, 5563, 5569, 5573, 5581, 5591, 5623, 5639, 5641, 5647, 5651, 5653, 5657, 5659, 5669, 5683, 5689, 5693, 5701, 5711, 5717, 5737, 5741, 5743, 5749, 5779, 5783, 5791, 5801, 5807, 5813, 5821, 5827, 5839, 5843, 5849, 5851, 5857, 5861, 5867, 5869, 5879, 5881, 5897, 5903, 5923, 5927, 5939, 5953, 5981, 5987, 6007, 6011, 6029, 6037, 6043, 6047, 6053, 6067, 6073, 6079, 6089, 6091, 6101, 6113, 6121, 6131, 6133, 6143, 6151, 6163, 6173, 6197, 6199, 6203, 6211, 6217, 6221, 6229, 6247, 6257, 6263, 6269, 6271, 6277, 6287, 6299, 6301, 6311, 6317, 6323, 6329, 6337, 6343, 6353, 6359, 6361, 6367, 6373, 6379, 6389, 6397, 6421, 6427, 6449, 6451, 6469, 6473, 6481, 6491, 6521, 6529, 6547, 6551, 6553, 6563, 6569, 6571, 6577, 6581, 6599, 6607, 6619, 6637, 6653, 6659, 6661, 6673, 6679, 6689, 6691, 6701, 6703, 6709, 6719, 6733, 6737, 6761, 6763, 6779, 6781, 6791, 6793, 6803, 6823, 6827, 6829, 6833, 6841, 6857, 6863, 6869, 6871, 6883, 6899, 6907, 6911, 6917, 6947, 6949, 6959, 6961, 6967, 6971, 6977, 6983, 6991, 6997, 7001, 7013, 7019, 7027, 7039, 7043, 7057, 7069, 7079, 7103, 7109, 7121, 7127, 7129, 7151, 7159, 7177, 7187, 7193, 7207, 7211, 7213, 7219, 7229, 7237, 7243, 7247, 7253, 7283, 7297, 7307, 7309, 7321, 7331, 7333, 7349, 7351, 7369, 7393, 7411, 7417, 7433, 7451, 7457, 7459, 7477, 7481, 7487, 7489, 7499, 7507, 7517, 7523, 7529, 7537, 7541, 7547, 7549, 7559, 7561, 7573, 7577, 7583, 7589, 7591, 7603, 7607, 7621, 7639, 7643, 7649, 7669, 7673, 7681, 7687, 7691, 7699, 7703, 7717, 7723, 7727, 7741, 7753, 7757, 7759, 7789, 7793, 7817, 7823, 7829, 7841, 7853, 7867, 7873, 7877, 7879, 7883, 7901, 7907, 7919, 7927, 7933, 7937, 7949, 7951, 7963, 7993, 8009, 8011, 8017, 8039, 8053, 8059, 8069, 8081, 8087, 8089, 8093, 8101, 8111, 8117, 8123, 8147, 8161, 8167, 8171, 8179, 8191, 8209, 8219, 8221, 8231, 8233, 8237, 8243, 8263, 8269, 8273, 8287, 8291, 8293, 8297, 8311, 8317, 8329, 8353, 8363, 8369, 8377, 8387, 8389, 8419, 8423, 8429, 8431, 8443, 8447, 8461, 8467, 8501, 8513, 8521, 8527, 8537, 8539, 8543, 8563, 8573, 8581, 8597, 8599, 8609, 8623, 8627, 8629, 8641, 8647, 8663, 8669, 8677, 8681, 8689, 8693, 8699, 8707, 8713, 8719, 8731, 8737, 8741, 8747, 8753, 8761, 8779, 8783, 8803, 8807, 8819, 8821, 8831, 8837, 8839, 8849, 8861, 8863, 8867, 8887, 8893, 8923, 8929, 8933, 8941, 8951, 8963, 8969, 8971, 8999, 9001, 9007, 9011, 9013, 9029, 9041, 9043, 9049, 9059, 9067, 9091, 9103, 9109, 9127, 9133, 9137, 9151, 9157, 9161, 9173, 9181, 9187, 9199, 9203, 9209, 9221, 9227, 9239, 9241, 9257, 9277, 9281, 9283, 9293, 9311, 9319, 9323, 9337, 9341, 9343, 9349, 9371, 9377, 9391, 9397, 9403, 9413, 9419, 9421, 9431, 9433, 9437, 9439, 9461, 9463, 9467, 9473, 9479, 9491, 9497, 9511, 9521, 9533, 9539, 9547, 9551, 9587, 9601, 9613, 9619, 9623, 9629, 9631, 9643, 9649, 9661, 9677, 9679, 9689, 9697, 9719, 9721, 9733, 9739, 9743, 9749, 9767, 9769, 9781, 9787, 9791, 9803, 9811, 9817, 9829, 9833, 9839, 9851, 9857, 9859, 9871, 9883, 9887, 9901, 9907, 9923, 9929, 9931, 9941, 9949, 9967, 9973, 10007, 10009, 10037, 10039, 10061, 10067, 10069, 10079, 10091, 10093, 10099, 10103, 10111, 10133, 10139, 10141, 10151, 10159, 10163, 10169, 10177, 10181, 10193, 10211, 10223, 10243, 10247, 10253, 10259, 10267, 10271, 10273, 10289, 10301, 10303, 10313, 10321, 10331, 10333, 10337, 10343, 10357, 10369, 10391, 10399, 10427, 10429, 10433, 10453, 10457, 10459, 10463, 10477, 10487, 10499, 10501, 10513, 10529, 10531, 10559, 10567, 10589, 10597, 10601, 10607, 10613, 10627, 10631, 10639, 10651, 10657, 10663, 10667}, int(x))
: rdtable;
diffuser_nested(1,angle,g,scale) = si.bus(2) <: ( (si.bus(2) :par(i,2,*(c_norm))
: (( si.bus(4) :> si.bus(2) :rotator(angle) : (
de.fdelay1a(8192, prime_delays(size*scale):smooth_init(0.9999,prime_delays(size*scale)) -1 ),
de.fdelay1a(8192, prime_delays(size*scale +10):smooth_init(0.9999,prime_delays(size*scale + 10)) -1 )
) )~par(i,2,*(-s_norm)))
: par(i,2,mem:*(c_norm)) )
,
par(i,2,*(s_norm)))
:> si.bus(2)
with
{
rotator(angle) = si.bus(2) <: (*(c),*(-s),*(s),*(c)) :(+,+) : si.bus(2)
with{
c = cos(angle);
s = sin(angle);
};
c_norm = cos(g);
s_norm = sin(g);
};
diffuser_nested(N,angle,g,scale) = si.bus(2) <: ( (si.bus(2) :par(i,2,*(c_norm))
: (( si.bus(4) :> si.bus(2) : diffuser_nested(N-1,angle,g,scale+13) : rotator(angle) : (
de.fdelay1a(8192, prime_delays(size*scale):smooth_init(0.999,prime_delays(size*scale)) -1 ),
de.fdelay1a(8192, prime_delays(size*scale +10):smooth_init(0.999,prime_delays(size*scale + 10)) -1 )
) )~par(i,2,*(-s_norm)))
: par(i,2,mem:*(c_norm)) )
,
par(i,2,*(s_norm)))
:> si.bus(2)
with
{
rotator(angle) = si.bus(2) <: (*(c),*(-s),*(s),*(c)) :(+,+) : si.bus(2)
with{
c = cos(angle);
s = sin(angle);
};
c_norm = cos(g);
s_norm = sin(g);
};
// blackhole =
greyhole = ( si.bus(4) :> seq(i,3,diffuser_nested(4,ma.PI/2,(-1^i)*diff,10+19*i) ):par(i,2,si.smooth(damp)) )
~( (de.fdelay4(512, 10+depth + depth*os.oscrc(freq)),de.fdelay4(512, 10+ depth + depth*os.oscrs(freq)) ) :
(de.sdelay(65536,44100/2,floor(dt)),de.sdelay(65536,44100/2,floor(dt))) :
par(i,2,*(fb)) );
process = ba.bypass_fade(ma.SR/10, checkbox("bypass"), greyhole);
|
https://raw.githubusercontent.com/Sylcantor/wam-web-components/c54352dae5b80bcf6d8d4c306ea22e2c91a12b08/plugins/greyhole/greyhole.dsp
|
faust
|
using exteral function to access list of prime numbers is slightly faster than an inline approach (as of 428bf3b)
prime_delays = ffunction(int primes (int),<jprev.h>,"primes");
blackhole =
|
declare name "GreyholeRaw";
declare version "1.0";
declare author "Julian Parker, bug fixes by Till Bovermann";
declare license "GPL2+";
declare copyright "(c) Julian Parker 2013";
import("stdfaust.lib");
fb = hslider("feedback [style:knob]",0.9,0.0,1.0,0.01):linear_interp;
depth = ((ma.SR/44100)*50*hslider("modDepth [style:knob]",0.1,0.0,1.0,0.001)):linear_interp;
freq = hslider("modFreq[style:knob]",2.0,0.0,10.0,0.01):linear_interp;
diff = hslider("diffusion[style:knob]",0.5,0.0,0.99,0.0001):linear_interp;
dt = min(65533,ma.SR*hslider("delayTime[style:knob]",0.2,0.001,1.45,0.0001)): si.smooth(0.9999);
size = hslider("size[style:knob]",1.0,0.5,3.0,0.0001): si.smooth(0.9999);
damp = hslider("damping[style:knob]", 0.0, 0.0, 0.99,0.001):linear_interp;
linear_interp = _<:(mem,_):+:*(0.5):_;
smooth_init(s,default) = *(1.0 - s) : + ~ (+(default*init(1)):*(s))
with
{
init(value) = value - value';
};
prime_delays(x) = (waveform {2, 3, 5, 7, 11, 13, 17, 19, 23, 29, 31, 37, 41, 43, 47, 53, 59, 61, 67, 71, 73, 79, 83, 89, 97, 101, 103, 107, 109, 113, 127, 131, 137, 139, 149, 151, 157, 163, 167, 173, 179, 181, 191, 193, 197, 199, 211, 223, 227, 229, 233, 239, 241, 251, 257, 263, 269, 271, 277, 281, 283, 293, 307, 311, 313, 317, 331, 337, 347, 349, 353, 359, 367, 373, 379, 383, 389, 397, 401, 409, 419, 421, 431, 433, 439, 443, 449, 457, 461, 463, 467, 479, 487, 491, 499, 503, 509, 521, 523, 541, 547, 557, 563, 569, 571, 577, 587, 593, 599, 601, 607, 613, 617, 619, 631, 641, 643, 647, 653, 659, 661, 673, 677, 683, 691, 701, 709, 719, 727, 733, 739, 743, 751, 757, 761, 769, 773, 787, 797, 809, 811, 821, 823, 827, 829, 839, 853, 857, 859, 863, 877, 881, 883, 887, 907, 911, 919, 929, 937, 941, 947, 953, 967, 971, 977, 983, 991, 997, 1009, 1013, 1019, 1021, 1031, 1033, 1039, 1049, 1051, 1061, 1063, 1069, 1087, 1091, 1093, 1097, 1103, 1109, 1117, 1123, 1129, 1151, 1153, 1163, 1171, 1181, 1187, 1193, 1201, 1213, 1217, 1223, 1229, 1231, 1237, 1249, 1259, 1277, 1279, 1283, 1289, 1291, 1297, 1301, 1303, 1307, 1319, 1321, 1327, 1361, 1367, 1373, 1381, 1399, 1409, 1423, 1427, 1429, 1433, 1439, 1447, 1451, 1453, 1459, 1471, 1481, 1483, 1487, 1489, 1493, 1499, 1511, 1523, 1531, 1543, 1549, 1553, 1559, 1567, 1571, 1579, 1583, 1597, 1601, 1607, 1609, 1613, 1619, 1621, 1627, 1637, 1657, 1663, 1667, 1669, 1693, 1697, 1699, 1709, 1721, 1723, 1733, 1741, 1747, 1753, 1759, 1777, 1783, 1787, 1789, 1801, 1811, 1823, 1831, 1847, 1861, 1867, 1871, 1873, 1877, 1879, 1889, 1901, 1907, 1913, 1931, 1933, 1949, 1951, 1973, 1979, 1987, 1993, 1997, 1999, 2003, 2011, 2017, 2027, 2029, 2039, 2053, 2063, 2069, 2081, 2083, 2087, 2089, 2099, 2111, 2113, 2129, 2131, 2137, 2141, 2143, 2153, 2161, 2179, 2203, 2207, 2213, 2221, 2237, 2239, 2243, 2251, 2267, 2269, 2273, 2281, 2287, 2293, 2297, 2309, 2311, 2333, 2339, 2341, 2347, 2351, 2357, 2371, 2377, 2381, 2383, 2389, 2393, 2399, 2411, 2417, 2423, 2437, 2441, 2447, 2459, 2467, 2473, 2477, 2503, 2521, 2531, 2539, 2543, 2549, 2551, 2557, 2579, 2591, 2593, 2609, 2617, 2621, 2633, 2647, 2657, 2659, 2663, 2671, 2677, 2683, 2687, 2689, 2693, 2699, 2707, 2711, 2713, 2719, 2729, 2731, 2741, 2749, 2753, 2767, 2777, 2789, 2791, 2797, 2801, 2803, 2819, 2833, 2837, 2843, 2851, 2857, 2861, 2879, 2887, 2897, 2903, 2909, 2917, 2927, 2939, 2953, 2957, 2963, 2969, 2971, 2999, 3001, 3011, 3019, 3023, 3037, 3041, 3049, 3061, 3067, 3079, 3083, 3089, 3109, 3119, 3121, 3137, 3163, 3167, 3169, 3181, 3187, 3191, 3203, 3209, 3217, 3221, 3229, 3251, 3253, 3257, 3259, 3271, 3299, 3301, 3307, 3313, 3319, 3323, 3329, 3331, 3343, 3347, 3359, 3361, 3371, 3373, 3389, 3391, 3407, 3413, 3433, 3449, 3457, 3461, 3463, 3467, 3469, 3491, 3499, 3511, 3517, 3527, 3529, 3533, 3539, 3541, 3547, 3557, 3559, 3571, 3581, 3583, 3593, 3607, 3613, 3617, 3623, 3631, 3637, 3643, 3659, 3671, 3673, 3677, 3691, 3697, 3701, 3709, 3719, 3727, 3733, 3739, 3761, 3767, 3769, 3779, 3793, 3797, 3803, 3821, 3823, 3833, 3847, 3851, 3853, 3863, 3877, 3881, 3889, 3907, 3911, 3917, 3919, 3923, 3929, 3931, 3943, 3947, 3967, 3989, 4001, 4003, 4007, 4013, 4019, 4021, 4027, 4049, 4051, 4057, 4073, 4079, 4091, 4093, 4099, 4111, 4127, 4129, 4133, 4139, 4153, 4157, 4159, 4177, 4201, 4211, 4217, 4219, 4229, 4231, 4241, 4243, 4253, 4259, 4261, 4271, 4273, 4283, 4289, 4297, 4327, 4337, 4339, 4349, 4357, 4363, 4373, 4391, 4397, 4409, 4421, 4423, 4441, 4447, 4451, 4457, 4463, 4481, 4483, 4493, 4507, 4513, 4517, 4519, 4523, 4547, 4549, 4561, 4567, 4583, 4591, 4597, 4603, 4621, 4637, 4639, 4643, 4649, 4651, 4657, 4663, 4673, 4679, 4691, 4703, 4721, 4723, 4729, 4733, 4751, 4759, 4783, 4787, 4789, 4793, 4799, 4801, 4813, 4817, 4831, 4861, 4871, 4877, 4889, 4903, 4909, 4919, 4931, 4933, 4937, 4943, 4951, 4957, 4967, 4969, 4973, 4987, 4993, 4999, 5003, 5009, 5011, 5021, 5023, 5039, 5051, 5059, 5077, 5081, 5087, 5099, 5101, 5107, 5113, 5119, 5147, 5153, 5167, 5171, 5179, 5189, 5197, 5209, 5227, 5231, 5233, 5237, 5261, 5273, 5279, 5281, 5297, 5303, 5309, 5323, 5333, 5347, 5351, 5381, 5387, 5393, 5399, 5407, 5413, 5417, 5419, 5431, 5437, 5441, 5443, 5449, 5471, 5477, 5479, 5483, 5501, 5503, 5507, 5519, 5521, 5527, 5531, 5557, 5563, 5569, 5573, 5581, 5591, 5623, 5639, 5641, 5647, 5651, 5653, 5657, 5659, 5669, 5683, 5689, 5693, 5701, 5711, 5717, 5737, 5741, 5743, 5749, 5779, 5783, 5791, 5801, 5807, 5813, 5821, 5827, 5839, 5843, 5849, 5851, 5857, 5861, 5867, 5869, 5879, 5881, 5897, 5903, 5923, 5927, 5939, 5953, 5981, 5987, 6007, 6011, 6029, 6037, 6043, 6047, 6053, 6067, 6073, 6079, 6089, 6091, 6101, 6113, 6121, 6131, 6133, 6143, 6151, 6163, 6173, 6197, 6199, 6203, 6211, 6217, 6221, 6229, 6247, 6257, 6263, 6269, 6271, 6277, 6287, 6299, 6301, 6311, 6317, 6323, 6329, 6337, 6343, 6353, 6359, 6361, 6367, 6373, 6379, 6389, 6397, 6421, 6427, 6449, 6451, 6469, 6473, 6481, 6491, 6521, 6529, 6547, 6551, 6553, 6563, 6569, 6571, 6577, 6581, 6599, 6607, 6619, 6637, 6653, 6659, 6661, 6673, 6679, 6689, 6691, 6701, 6703, 6709, 6719, 6733, 6737, 6761, 6763, 6779, 6781, 6791, 6793, 6803, 6823, 6827, 6829, 6833, 6841, 6857, 6863, 6869, 6871, 6883, 6899, 6907, 6911, 6917, 6947, 6949, 6959, 6961, 6967, 6971, 6977, 6983, 6991, 6997, 7001, 7013, 7019, 7027, 7039, 7043, 7057, 7069, 7079, 7103, 7109, 7121, 7127, 7129, 7151, 7159, 7177, 7187, 7193, 7207, 7211, 7213, 7219, 7229, 7237, 7243, 7247, 7253, 7283, 7297, 7307, 7309, 7321, 7331, 7333, 7349, 7351, 7369, 7393, 7411, 7417, 7433, 7451, 7457, 7459, 7477, 7481, 7487, 7489, 7499, 7507, 7517, 7523, 7529, 7537, 7541, 7547, 7549, 7559, 7561, 7573, 7577, 7583, 7589, 7591, 7603, 7607, 7621, 7639, 7643, 7649, 7669, 7673, 7681, 7687, 7691, 7699, 7703, 7717, 7723, 7727, 7741, 7753, 7757, 7759, 7789, 7793, 7817, 7823, 7829, 7841, 7853, 7867, 7873, 7877, 7879, 7883, 7901, 7907, 7919, 7927, 7933, 7937, 7949, 7951, 7963, 7993, 8009, 8011, 8017, 8039, 8053, 8059, 8069, 8081, 8087, 8089, 8093, 8101, 8111, 8117, 8123, 8147, 8161, 8167, 8171, 8179, 8191, 8209, 8219, 8221, 8231, 8233, 8237, 8243, 8263, 8269, 8273, 8287, 8291, 8293, 8297, 8311, 8317, 8329, 8353, 8363, 8369, 8377, 8387, 8389, 8419, 8423, 8429, 8431, 8443, 8447, 8461, 8467, 8501, 8513, 8521, 8527, 8537, 8539, 8543, 8563, 8573, 8581, 8597, 8599, 8609, 8623, 8627, 8629, 8641, 8647, 8663, 8669, 8677, 8681, 8689, 8693, 8699, 8707, 8713, 8719, 8731, 8737, 8741, 8747, 8753, 8761, 8779, 8783, 8803, 8807, 8819, 8821, 8831, 8837, 8839, 8849, 8861, 8863, 8867, 8887, 8893, 8923, 8929, 8933, 8941, 8951, 8963, 8969, 8971, 8999, 9001, 9007, 9011, 9013, 9029, 9041, 9043, 9049, 9059, 9067, 9091, 9103, 9109, 9127, 9133, 9137, 9151, 9157, 9161, 9173, 9181, 9187, 9199, 9203, 9209, 9221, 9227, 9239, 9241, 9257, 9277, 9281, 9283, 9293, 9311, 9319, 9323, 9337, 9341, 9343, 9349, 9371, 9377, 9391, 9397, 9403, 9413, 9419, 9421, 9431, 9433, 9437, 9439, 9461, 9463, 9467, 9473, 9479, 9491, 9497, 9511, 9521, 9533, 9539, 9547, 9551, 9587, 9601, 9613, 9619, 9623, 9629, 9631, 9643, 9649, 9661, 9677, 9679, 9689, 9697, 9719, 9721, 9733, 9739, 9743, 9749, 9767, 9769, 9781, 9787, 9791, 9803, 9811, 9817, 9829, 9833, 9839, 9851, 9857, 9859, 9871, 9883, 9887, 9901, 9907, 9923, 9929, 9931, 9941, 9949, 9967, 9973, 10007, 10009, 10037, 10039, 10061, 10067, 10069, 10079, 10091, 10093, 10099, 10103, 10111, 10133, 10139, 10141, 10151, 10159, 10163, 10169, 10177, 10181, 10193, 10211, 10223, 10243, 10247, 10253, 10259, 10267, 10271, 10273, 10289, 10301, 10303, 10313, 10321, 10331, 10333, 10337, 10343, 10357, 10369, 10391, 10399, 10427, 10429, 10433, 10453, 10457, 10459, 10463, 10477, 10487, 10499, 10501, 10513, 10529, 10531, 10559, 10567, 10589, 10597, 10601, 10607, 10613, 10627, 10631, 10639, 10651, 10657, 10663, 10667}, int(x))
: rdtable;
diffuser_nested(1,angle,g,scale) = si.bus(2) <: ( (si.bus(2) :par(i,2,*(c_norm))
: (( si.bus(4) :> si.bus(2) :rotator(angle) : (
de.fdelay1a(8192, prime_delays(size*scale):smooth_init(0.9999,prime_delays(size*scale)) -1 ),
de.fdelay1a(8192, prime_delays(size*scale +10):smooth_init(0.9999,prime_delays(size*scale + 10)) -1 )
) )~par(i,2,*(-s_norm)))
: par(i,2,mem:*(c_norm)) )
,
par(i,2,*(s_norm)))
:> si.bus(2)
with
{
rotator(angle) = si.bus(2) <: (*(c),*(-s),*(s),*(c)) :(+,+) : si.bus(2)
with{
c = cos(angle);
s = sin(angle);
};
c_norm = cos(g);
s_norm = sin(g);
};
diffuser_nested(N,angle,g,scale) = si.bus(2) <: ( (si.bus(2) :par(i,2,*(c_norm))
: (( si.bus(4) :> si.bus(2) : diffuser_nested(N-1,angle,g,scale+13) : rotator(angle) : (
de.fdelay1a(8192, prime_delays(size*scale):smooth_init(0.999,prime_delays(size*scale)) -1 ),
de.fdelay1a(8192, prime_delays(size*scale +10):smooth_init(0.999,prime_delays(size*scale + 10)) -1 )
) )~par(i,2,*(-s_norm)))
: par(i,2,mem:*(c_norm)) )
,
par(i,2,*(s_norm)))
:> si.bus(2)
with
{
rotator(angle) = si.bus(2) <: (*(c),*(-s),*(s),*(c)) :(+,+) : si.bus(2)
with{
c = cos(angle);
s = sin(angle);
};
c_norm = cos(g);
s_norm = sin(g);
};
greyhole = ( si.bus(4) :> seq(i,3,diffuser_nested(4,ma.PI/2,(-1^i)*diff,10+19*i) ):par(i,2,si.smooth(damp)) )
~( (de.fdelay4(512, 10+depth + depth*os.oscrc(freq)),de.fdelay4(512, 10+ depth + depth*os.oscrs(freq)) ) :
(de.sdelay(65536,44100/2,floor(dt)),de.sdelay(65536,44100/2,floor(dt))) :
par(i,2,*(fb)) );
process = ba.bypass_fade(ma.SR/10, checkbox("bypass"), greyhole);
|
7e88aed13515a8a6203d79a919a1b3c613cfbbfc5b5bb7e163f5d1aa882f39d3
|
Sylcantor/wam-web-components
|
kbverb.dsp
|
import("stdfaust.lib");
// Simple bypass mecanism
// Bypass an effect (fx:n->n). Once bypassed the effect is replaced by par(i,n,_).
// Bypassed effects can be chained.
// Example: _,_ : bypass(checkbox("bypass reverb"), freeverb) : _,_
bypass_fx(b, fx) = par(i, inputs(fx), _) <: ((block_on(b, fx):fx), block_off(b, fx)) :> par(i, outputs(fx), _)
with {
block_on(b, fx) = par(i, inputs(fx), _*(1-b));
block_off(b, fx) = par(i, inputs(fx), _*b);
};
// Bypass an effect (fx:n->n) with 's' samples crossfades. Once bypassed the
// effect is replaced by par(i,n,_). Bypassed effects can be chained.
// Example: _,_ : bypass_fx_fade(checkbox("bypass reverb"), ma.SR/10, freeverb) : _,_
bypass_fade(b, s, fx) = par(i, inputs(fx), _)
<: (par(i, inputs(fx), *(1-xb)) : fx : par(i, outputs(fx), *(1-xb)))
, par(i, inputs(fx), *(xb))
:> par(i, outputs(fx), _)
with {
xb = ramp(s, b);
ramp(n) = \(y,x).(if (y+1.0/n < x, y+1.0/n, if(y-1.0/n > x, y-1.0/n, x))) ~ _;
if (c,t,e) = select2(c,e,t);
};
// Bypass an effect (fx:n->n) with crossfades expressed in seconds.
bypass_fade_sec(b, d, fx) = bypass_fx_fade(b, ba.sec2samp(d), fx);
// faust -a supercollider.cpp KBVerb.dsp -o KBVerb.cpp
// g++ -O3 -DNO_LIBSNDFILE -DSC_DARWIN -DSC_FAUST_PREFIX="\"\"" -bundle -I./include -I/Users/corey/Development/supercollider/include/{plugin_interface,common,server} -I/usr/local/lib/faust/ -Dmydsp=KBVERB -o KBVerb.scx KBVerb.cpp
declare name "KBVerb";
declare author "Corey Kereliuk";
declare copyright "Corey Kereliuk";
declare version "0.0";
declare license "MIT";
import("maths.lib");
import("signals.lib");
import("delays.lib");
// for testing
os = library("oscillators.lib");
prime_nums = waveform {2, 3, 5, 7, 11, 13, 17, 19, 23, 29, 31, 37, 41, 43, 47, 53, 59, 61, 67, 71, 73, 79, 83, 89, 97, 101, 103, 107, 109, 113, 127, 131, 137, 139, 149, 151, 157, 163, 167, 173, 179, 181, 191, 193, 197, 199, 211, 223, 227, 229, 233, 239, 241, 251, 257, 263, 269, 271, 277, 281, 283, 293, 307, 311, 313, 317, 331, 337, 347, 349, 353, 359, 367, 373, 379, 383, 389, 397, 401, 409, 419, 421, 431, 433, 439, 443, 449, 457, 461, 463, 467, 479, 487, 491, 499, 503, 509, 521, 523, 541, 547, 557, 563, 569, 571, 577, 587, 593, 599, 601, 607, 613, 617, 619, 631, 641, 643, 647, 653, 659, 661, 673, 677, 683, 691, 701, 709, 719, 727, 733, 739, 743, 751, 757, 761, 769, 773, 787, 797, 809, 811, 821, 823, 827, 829, 839, 853, 857, 859, 863, 877, 881, 883, 887, 907, 911, 919, 929, 937, 941, 947, 953, 967, 971, 977, 983, 991, 997, 1009, 1013, 1019, 1021, 1031, 1033, 1039, 1049, 1051, 1061, 1063, 1069, 1087, 1091, 1093, 1097, 1103, 1109, 1117, 1123, 1129, 1151, 1153, 1163, 1171, 1181, 1187, 1193, 1201, 1213, 1217, 1223, 1229, 1231, 1237, 1249, 1259, 1277, 1279, 1283, 1289, 1291, 1297, 1301, 1303, 1307, 1319, 1321, 1327, 1361, 1367, 1373, 1381, 1399, 1409, 1423, 1427, 1429, 1433, 1439, 1447, 1451, 1453, 1459, 1471, 1481, 1483, 1487, 1489, 1493, 1499, 1511, 1523, 1531, 1543, 1549, 1553, 1559, 1567, 1571, 1579, 1583, 1597, 1601, 1607, 1609, 1613, 1619, 1621, 1627, 1637, 1657, 1663, 1667, 1669, 1693, 1697, 1699, 1709, 1721, 1723, 1733, 1741, 1747, 1753, 1759, 1777, 1783, 1787, 1789, 1801, 1811, 1823, 1831, 1847, 1861, 1867, 1871, 1873, 1877, 1879, 1889, 1901, 1907, 1913, 1931, 1933, 1949, 1951, 1973, 1979, 1987, 1993, 1997, 1999, 2003, 2011, 2017, 2027, 2029, 2039, 2053, 2063, 2069, 2081, 2083, 2087, 2089, 2099, 2111, 2113, 2129, 2131, 2137, 2141, 2143, 2153, 2161, 2179, 2203, 2207, 2213, 2221, 2237, 2239, 2243, 2251, 2267, 2269, 2273, 2281, 2287, 2293, 2297, 2309, 2311, 2333, 2339, 2341, 2347, 2351, 2357, 2371, 2377, 2381, 2383, 2389, 2393, 2399, 2411, 2417, 2423, 2437, 2441, 2447, 2459, 2467, 2473, 2477, 2503, 2521, 2531, 2539, 2543, 2549, 2551, 2557, 2579, 2591, 2593, 2609, 2617, 2621, 2633, 2647, 2657, 2659, 2663, 2671, 2677, 2683, 2687, 2689, 2693, 2699, 2707, 2711, 2713, 2719, 2729, 2731, 2741, 2749, 2753, 2767, 2777, 2789, 2791, 2797, 2801, 2803, 2819, 2833, 2837, 2843, 2851, 2857, 2861, 2879, 2887, 2897, 2903, 2909, 2917, 2927, 2939, 2953, 2957, 2963, 2969, 2971, 2999, 3001, 3011, 3019, 3023, 3037, 3041, 3049, 3061, 3067, 3079, 3083, 3089, 3109, 3119, 3121, 3137, 3163, 3167, 3169, 3181, 3187, 3191, 3203, 3209, 3217, 3221, 3229, 3251, 3253, 3257, 3259, 3271, 3299, 3301, 3307, 3313, 3319, 3323, 3329, 3331, 3343, 3347, 3359, 3361, 3371, 3373, 3389, 3391, 3407, 3413, 3433, 3449, 3457, 3461, 3463, 3467, 3469, 3491, 3499, 3511, 3517, 3527, 3529, 3533, 3539, 3541, 3547, 3557, 3559, 3571, 3581, 3583, 3593, 3607, 3613, 3617, 3623, 3631, 3637, 3643, 3659, 3671, 3673, 3677, 3691, 3697, 3701, 3709, 3719, 3727, 3733, 3739, 3761, 3767, 3769, 3779, 3793, 3797, 3803, 3821, 3823, 3833, 3847, 3851, 3853, 3863, 3877, 3881, 3889, 3907, 3911, 3917, 3919, 3923, 3929, 3931, 3943, 3947, 3967, 3989, 4001, 4003, 4007, 4013, 4019, 4021, 4027, 4049, 4051, 4057, 4073, 4079, 4091, 4093, 4099, 4111, 4127, 4129, 4133, 4139, 4153, 4157, 4159, 4177, 4201, 4211, 4217, 4219, 4229, 4231, 4241, 4243, 4253, 4259, 4261, 4271, 4273, 4283, 4289, 4297, 4327, 4337, 4339, 4349, 4357, 4363, 4373, 4391, 4397, 4409, 4421, 4423, 4441, 4447, 4451, 4457, 4463, 4481, 4483, 4493, 4507, 4513, 4517, 4519, 4523, 4547, 4549, 4561, 4567, 4583, 4591, 4597, 4603, 4621, 4637, 4639, 4643, 4649, 4651, 4657, 4663, 4673, 4679, 4691, 4703, 4721, 4723, 4729, 4733, 4751, 4759, 4783, 4787, 4789, 4793, 4799, 4801, 4813, 4817, 4831, 4861, 4871, 4877, 4889, 4903, 4909, 4919, 4931, 4933, 4937, 4943, 4951, 4957, 4967, 4969, 4973, 4987, 4993, 4999, 5003, 5009, 5011, 5021, 5023, 5039, 5051, 5059, 5077, 5081, 5087, 5099, 5101, 5107, 5113, 5119, 5147, 5153, 5167, 5171, 5179, 5189, 5197, 5209, 5227, 5231, 5233, 5237, 5261, 5273, 5279, 5281, 5297, 5303, 5309, 5323, 5333, 5347, 5351, 5381, 5387, 5393, 5399, 5407, 5413, 5417, 5419, 5431, 5437, 5441, 5443, 5449, 5471, 5477, 5479, 5483, 5501, 5503, 5507, 5519, 5521, 5527, 5531, 5557, 5563, 5569, 5573, 5581, 5591, 5623, 5639, 5641, 5647, 5651, 5653, 5657, 5659, 5669, 5683, 5689, 5693, 5701, 5711, 5717, 5737, 5741, 5743, 5749, 5779, 5783, 5791, 5801, 5807, 5813, 5821, 5827, 5839, 5843, 5849, 5851, 5857, 5861, 5867, 5869, 5879, 5881, 5897, 5903, 5923, 5927, 5939, 5953, 5981, 5987, 6007, 6011, 6029, 6037, 6043, 6047, 6053, 6067, 6073, 6079, 6089, 6091, 6101, 6113, 6121, 6131, 6133, 6143, 6151, 6163, 6173, 6197, 6199, 6203, 6211, 6217, 6221, 6229, 6247, 6257, 6263, 6269, 6271, 6277, 6287, 6299, 6301, 6311, 6317, 6323, 6329, 6337, 6343, 6353, 6359, 6361, 6367, 6373, 6379, 6389, 6397, 6421, 6427, 6449, 6451, 6469, 6473, 6481, 6491, 6521, 6529, 6547, 6551, 6553, 6563, 6569, 6571, 6577, 6581, 6599, 6607, 6619, 6637, 6653, 6659, 6661, 6673, 6679, 6689, 6691, 6701, 6703, 6709, 6719, 6733, 6737, 6761, 6763, 6779, 6781, 6791, 6793, 6803, 6823, 6827, 6829, 6833, 6841, 6857, 6863, 6869, 6871, 6883, 6899, 6907, 6911, 6917, 6947, 6949, 6959, 6961, 6967, 6971, 6977, 6983, 6991, 6997, 7001, 7013, 7019, 7027, 7039, 7043, 7057, 7069, 7079, 7103, 7109, 7121, 7127, 7129, 7151, 7159, 7177, 7187, 7193, 7207, 7211, 7213, 7219, 7229, 7237, 7243, 7247, 7253, 7283, 7297, 7307, 7309, 7321, 7331, 7333, 7349, 7351, 7369, 7393, 7411, 7417, 7433, 7451, 7457, 7459, 7477, 7481, 7487, 7489, 7499, 7507, 7517, 7523, 7529, 7537, 7541, 7547, 7549, 7559, 7561, 7573, 7577, 7583, 7589, 7591, 7603, 7607, 7621, 7639, 7643, 7649, 7669, 7673, 7681, 7687, 7691, 7699, 7703, 7717, 7723, 7727, 7741, 7753, 7757, 7759, 7789, 7793, 7817, 7823, 7829, 7841, 7853, 7867, 7873, 7877, 7879, 7883, 7901, 7907, 7919, 7927, 7933, 7937, 7949, 7951, 7963, 7993, 8009, 8011, 8017, 8039, 8053, 8059, 8069, 8081, 8087, 8089, 8093, 8101, 8111, 8117, 8123, 8147, 8161, 8167, 8171, 8179, 8191, 8209, 8219, 8221, 8231, 8233, 8237, 8243, 8263, 8269, 8273, 8287, 8291, 8293, 8297, 8311, 8317, 8329, 8353, 8363, 8369, 8377, 8387, 8389, 8419, 8423, 8429, 8431, 8443, 8447, 8461, 8467, 8501, 8513, 8521, 8527, 8537, 8539, 8543, 8563, 8573, 8581, 8597, 8599, 8609, 8623, 8627, 8629, 8641, 8647, 8663, 8669, 8677, 8681, 8689, 8693, 8699, 8707, 8713, 8719, 8731, 8737, 8741, 8747, 8753, 8761, 8779, 8783, 8803, 8807, 8819, 8821, 8831, 8837, 8839, 8849, 8861, 8863, 8867, 8887, 8893, 8923, 8929, 8933, 8941, 8951, 8963, 8969, 8971, 8999, 9001, 9007, 9011, 9013, 9029, 9041, 9043, 9049, 9059, 9067, 9091, 9103, 9109, 9127, 9133, 9137, 9151, 9157, 9161, 9173, 9181, 9187, 9199, 9203, 9209, 9221, 9227, 9239, 9241, 9257, 9277, 9281, 9283, 9293, 9311, 9319, 9323, 9337, 9341, 9343, 9349, 9371, 9377, 9391, 9397, 9403, 9413, 9419, 9421, 9431, 9433, 9437, 9439, 9461, 9463, 9467, 9473, 9479, 9491, 9497, 9511, 9521, 9533, 9539, 9547, 9551, 9587, 9601, 9613, 9619, 9623, 9629, 9631, 9643, 9649, 9661, 9677, 9679, 9689, 9697, 9719, 9721, 9733, 9739, 9743, 9749, 9767, 9769, 9781, 9787, 9791, 9803, 9811, 9817, 9829, 9833, 9839, 9851, 9857, 9859, 9871, 9883, 9887, 9901, 9907, 9923, 9929, 9931, 9941, 9949, 9967, 9973, 10007, 10009, 10037, 10039, 10061, 10067, 10069, 10079, 10091, 10093, 10099, 10103, 10111, 10133, 10139, 10141, 10151, 10159, 10163, 10169, 10177, 10181, 10193, 10211, 10223, 10243, 10247, 10253, 10259, 10267, 10271, 10273, 10289, 10301, 10303, 10313, 10321, 10331, 10333, 10337, 10343, 10357, 10369, 10391, 10399, 10427, 10429, 10433, 10453, 10457, 10459, 10463, 10477, 10487, 10499, 10501, 10513, 10529, 10531, 10559, 10567, 10589, 10597, 10601, 10607, 10613, 10627, 10631, 10639, 10651, 10657, 10663, 10667};
primes(n) = (prime_nums, int(n)) : rdtable;
fb = hslider("feedback[style:knob]",0.5,0.0,1.0,0.01):smooth(0.99);
allpass(N,n,g) = (+ <: (delay(N, n), *(g))) ~ *(-g) : mem, _: +;
section((n1, n2)) = allpass(2048, n1, 0.7) : allpass(2048, n2, 0.7) : delay(4096, int(0.75*(n1+n2)));
allpass_chain(((n1, n2), ns), x) = _ : section((n1, n2)) <: R(x, ns), _
with {
R(x, ((n1, n2), ns)) = _,x : + : section((n1, n2)) <: R(x, ns), _;
R(x, (n1, n2)) = _,x : + : section((n1, n2));
};
procMono(feedfwd_delays, feedback_delays, feedback_gain, x) = x : (+ : allpass_chain(feedfwd_delays, x)) ~ (_,x : + : section(feedback_delays) : *(feedback_gain)) :> _;
kBVerb = bus(2) : mix(PI/2) : *(0.5), *(0.5) : procLeft, procRight : bus(2)
with {
mix(theta) = bus(2) <: (*(c), *(-s), *(s), *(c)) : (+,+) : bus(2)
with {
c = cos(theta);
s = sin(theta);
};
ind_left(i) = 100 + 10*pow(2,i);
feedfwd_delays_left = par(i, 5, (primes(ind_left(i)), primes(ind_left(i)+1)));
feedback_delays_left = (primes(100), primes(101));
procLeft = procMono(feedfwd_delays_left, feedback_delays_left, fb);
ind_right(i) = 100 + 11*pow(2,i);
feedfwd_delays_right = par(i, 4, (primes(ind_right(i)), primes(ind_right(i)+1)));
feedback_delays_right = (primes(97), primes(99));
procRight = procMono(feedfwd_delays_right, feedback_delays_right, fb);
};
// impulse (test)
/*
process = os.lf_imptrain(0.25) <: procLeft, procRight
with {
ind_left(i) = 100 + 10*pow(2,i);
feedfwd_delays_left = par(i, 5, (primes(ind_left(i)), primes(ind_left(i)+1)));
feedback_delays_left = (primes(100), primes(101));
procLeft = procMono(feedfwd_delays_left, feedback_delays_left, fb);
ind_right(i) = 100 + 11*pow(2,i);
feedfwd_delays_right = par(i, 4, (primes(ind_right(i)), primes(ind_right(i)+1)));
feedback_delays_right = (primes(97), primes(99));
procRight = procMono(feedfwd_delays_right, feedback_delays_right, fb);
};
*/
process = bypass_fade(checkbox("bypass"), ma.SR/10, kBVerb);
|
https://raw.githubusercontent.com/Sylcantor/wam-web-components/c54352dae5b80bcf6d8d4c306ea22e2c91a12b08/plugins/kbverb/kbverb.dsp
|
faust
|
Simple bypass mecanism
Bypass an effect (fx:n->n). Once bypassed the effect is replaced by par(i,n,_).
Bypassed effects can be chained.
Example: _,_ : bypass(checkbox("bypass reverb"), freeverb) : _,_
Bypass an effect (fx:n->n) with 's' samples crossfades. Once bypassed the
effect is replaced by par(i,n,_). Bypassed effects can be chained.
Example: _,_ : bypass_fx_fade(checkbox("bypass reverb"), ma.SR/10, freeverb) : _,_
Bypass an effect (fx:n->n) with crossfades expressed in seconds.
faust -a supercollider.cpp KBVerb.dsp -o KBVerb.cpp
g++ -O3 -DNO_LIBSNDFILE -DSC_DARWIN -DSC_FAUST_PREFIX="\"\"" -bundle -I./include -I/Users/corey/Development/supercollider/include/{plugin_interface,common,server} -I/usr/local/lib/faust/ -Dmydsp=KBVERB -o KBVerb.scx KBVerb.cpp
for testing
impulse (test)
process = os.lf_imptrain(0.25) <: procLeft, procRight
with {
ind_left(i) = 100 + 10*pow(2,i);
feedfwd_delays_left = par(i, 5, (primes(ind_left(i)), primes(ind_left(i)+1)));
feedback_delays_left = (primes(100), primes(101));
procLeft = procMono(feedfwd_delays_left, feedback_delays_left, fb);
ind_right(i) = 100 + 11*pow(2,i);
feedfwd_delays_right = par(i, 4, (primes(ind_right(i)), primes(ind_right(i)+1)));
feedback_delays_right = (primes(97), primes(99));
procRight = procMono(feedfwd_delays_right, feedback_delays_right, fb);
};
|
import("stdfaust.lib");
bypass_fx(b, fx) = par(i, inputs(fx), _) <: ((block_on(b, fx):fx), block_off(b, fx)) :> par(i, outputs(fx), _)
with {
block_on(b, fx) = par(i, inputs(fx), _*(1-b));
block_off(b, fx) = par(i, inputs(fx), _*b);
};
bypass_fade(b, s, fx) = par(i, inputs(fx), _)
<: (par(i, inputs(fx), *(1-xb)) : fx : par(i, outputs(fx), *(1-xb)))
, par(i, inputs(fx), *(xb))
:> par(i, outputs(fx), _)
with {
xb = ramp(s, b);
ramp(n) = \(y,x).(if (y+1.0/n < x, y+1.0/n, if(y-1.0/n > x, y-1.0/n, x))) ~ _;
if (c,t,e) = select2(c,e,t);
};
bypass_fade_sec(b, d, fx) = bypass_fx_fade(b, ba.sec2samp(d), fx);
declare name "KBVerb";
declare author "Corey Kereliuk";
declare copyright "Corey Kereliuk";
declare version "0.0";
declare license "MIT";
import("maths.lib");
import("signals.lib");
import("delays.lib");
os = library("oscillators.lib");
prime_nums = waveform {2, 3, 5, 7, 11, 13, 17, 19, 23, 29, 31, 37, 41, 43, 47, 53, 59, 61, 67, 71, 73, 79, 83, 89, 97, 101, 103, 107, 109, 113, 127, 131, 137, 139, 149, 151, 157, 163, 167, 173, 179, 181, 191, 193, 197, 199, 211, 223, 227, 229, 233, 239, 241, 251, 257, 263, 269, 271, 277, 281, 283, 293, 307, 311, 313, 317, 331, 337, 347, 349, 353, 359, 367, 373, 379, 383, 389, 397, 401, 409, 419, 421, 431, 433, 439, 443, 449, 457, 461, 463, 467, 479, 487, 491, 499, 503, 509, 521, 523, 541, 547, 557, 563, 569, 571, 577, 587, 593, 599, 601, 607, 613, 617, 619, 631, 641, 643, 647, 653, 659, 661, 673, 677, 683, 691, 701, 709, 719, 727, 733, 739, 743, 751, 757, 761, 769, 773, 787, 797, 809, 811, 821, 823, 827, 829, 839, 853, 857, 859, 863, 877, 881, 883, 887, 907, 911, 919, 929, 937, 941, 947, 953, 967, 971, 977, 983, 991, 997, 1009, 1013, 1019, 1021, 1031, 1033, 1039, 1049, 1051, 1061, 1063, 1069, 1087, 1091, 1093, 1097, 1103, 1109, 1117, 1123, 1129, 1151, 1153, 1163, 1171, 1181, 1187, 1193, 1201, 1213, 1217, 1223, 1229, 1231, 1237, 1249, 1259, 1277, 1279, 1283, 1289, 1291, 1297, 1301, 1303, 1307, 1319, 1321, 1327, 1361, 1367, 1373, 1381, 1399, 1409, 1423, 1427, 1429, 1433, 1439, 1447, 1451, 1453, 1459, 1471, 1481, 1483, 1487, 1489, 1493, 1499, 1511, 1523, 1531, 1543, 1549, 1553, 1559, 1567, 1571, 1579, 1583, 1597, 1601, 1607, 1609, 1613, 1619, 1621, 1627, 1637, 1657, 1663, 1667, 1669, 1693, 1697, 1699, 1709, 1721, 1723, 1733, 1741, 1747, 1753, 1759, 1777, 1783, 1787, 1789, 1801, 1811, 1823, 1831, 1847, 1861, 1867, 1871, 1873, 1877, 1879, 1889, 1901, 1907, 1913, 1931, 1933, 1949, 1951, 1973, 1979, 1987, 1993, 1997, 1999, 2003, 2011, 2017, 2027, 2029, 2039, 2053, 2063, 2069, 2081, 2083, 2087, 2089, 2099, 2111, 2113, 2129, 2131, 2137, 2141, 2143, 2153, 2161, 2179, 2203, 2207, 2213, 2221, 2237, 2239, 2243, 2251, 2267, 2269, 2273, 2281, 2287, 2293, 2297, 2309, 2311, 2333, 2339, 2341, 2347, 2351, 2357, 2371, 2377, 2381, 2383, 2389, 2393, 2399, 2411, 2417, 2423, 2437, 2441, 2447, 2459, 2467, 2473, 2477, 2503, 2521, 2531, 2539, 2543, 2549, 2551, 2557, 2579, 2591, 2593, 2609, 2617, 2621, 2633, 2647, 2657, 2659, 2663, 2671, 2677, 2683, 2687, 2689, 2693, 2699, 2707, 2711, 2713, 2719, 2729, 2731, 2741, 2749, 2753, 2767, 2777, 2789, 2791, 2797, 2801, 2803, 2819, 2833, 2837, 2843, 2851, 2857, 2861, 2879, 2887, 2897, 2903, 2909, 2917, 2927, 2939, 2953, 2957, 2963, 2969, 2971, 2999, 3001, 3011, 3019, 3023, 3037, 3041, 3049, 3061, 3067, 3079, 3083, 3089, 3109, 3119, 3121, 3137, 3163, 3167, 3169, 3181, 3187, 3191, 3203, 3209, 3217, 3221, 3229, 3251, 3253, 3257, 3259, 3271, 3299, 3301, 3307, 3313, 3319, 3323, 3329, 3331, 3343, 3347, 3359, 3361, 3371, 3373, 3389, 3391, 3407, 3413, 3433, 3449, 3457, 3461, 3463, 3467, 3469, 3491, 3499, 3511, 3517, 3527, 3529, 3533, 3539, 3541, 3547, 3557, 3559, 3571, 3581, 3583, 3593, 3607, 3613, 3617, 3623, 3631, 3637, 3643, 3659, 3671, 3673, 3677, 3691, 3697, 3701, 3709, 3719, 3727, 3733, 3739, 3761, 3767, 3769, 3779, 3793, 3797, 3803, 3821, 3823, 3833, 3847, 3851, 3853, 3863, 3877, 3881, 3889, 3907, 3911, 3917, 3919, 3923, 3929, 3931, 3943, 3947, 3967, 3989, 4001, 4003, 4007, 4013, 4019, 4021, 4027, 4049, 4051, 4057, 4073, 4079, 4091, 4093, 4099, 4111, 4127, 4129, 4133, 4139, 4153, 4157, 4159, 4177, 4201, 4211, 4217, 4219, 4229, 4231, 4241, 4243, 4253, 4259, 4261, 4271, 4273, 4283, 4289, 4297, 4327, 4337, 4339, 4349, 4357, 4363, 4373, 4391, 4397, 4409, 4421, 4423, 4441, 4447, 4451, 4457, 4463, 4481, 4483, 4493, 4507, 4513, 4517, 4519, 4523, 4547, 4549, 4561, 4567, 4583, 4591, 4597, 4603, 4621, 4637, 4639, 4643, 4649, 4651, 4657, 4663, 4673, 4679, 4691, 4703, 4721, 4723, 4729, 4733, 4751, 4759, 4783, 4787, 4789, 4793, 4799, 4801, 4813, 4817, 4831, 4861, 4871, 4877, 4889, 4903, 4909, 4919, 4931, 4933, 4937, 4943, 4951, 4957, 4967, 4969, 4973, 4987, 4993, 4999, 5003, 5009, 5011, 5021, 5023, 5039, 5051, 5059, 5077, 5081, 5087, 5099, 5101, 5107, 5113, 5119, 5147, 5153, 5167, 5171, 5179, 5189, 5197, 5209, 5227, 5231, 5233, 5237, 5261, 5273, 5279, 5281, 5297, 5303, 5309, 5323, 5333, 5347, 5351, 5381, 5387, 5393, 5399, 5407, 5413, 5417, 5419, 5431, 5437, 5441, 5443, 5449, 5471, 5477, 5479, 5483, 5501, 5503, 5507, 5519, 5521, 5527, 5531, 5557, 5563, 5569, 5573, 5581, 5591, 5623, 5639, 5641, 5647, 5651, 5653, 5657, 5659, 5669, 5683, 5689, 5693, 5701, 5711, 5717, 5737, 5741, 5743, 5749, 5779, 5783, 5791, 5801, 5807, 5813, 5821, 5827, 5839, 5843, 5849, 5851, 5857, 5861, 5867, 5869, 5879, 5881, 5897, 5903, 5923, 5927, 5939, 5953, 5981, 5987, 6007, 6011, 6029, 6037, 6043, 6047, 6053, 6067, 6073, 6079, 6089, 6091, 6101, 6113, 6121, 6131, 6133, 6143, 6151, 6163, 6173, 6197, 6199, 6203, 6211, 6217, 6221, 6229, 6247, 6257, 6263, 6269, 6271, 6277, 6287, 6299, 6301, 6311, 6317, 6323, 6329, 6337, 6343, 6353, 6359, 6361, 6367, 6373, 6379, 6389, 6397, 6421, 6427, 6449, 6451, 6469, 6473, 6481, 6491, 6521, 6529, 6547, 6551, 6553, 6563, 6569, 6571, 6577, 6581, 6599, 6607, 6619, 6637, 6653, 6659, 6661, 6673, 6679, 6689, 6691, 6701, 6703, 6709, 6719, 6733, 6737, 6761, 6763, 6779, 6781, 6791, 6793, 6803, 6823, 6827, 6829, 6833, 6841, 6857, 6863, 6869, 6871, 6883, 6899, 6907, 6911, 6917, 6947, 6949, 6959, 6961, 6967, 6971, 6977, 6983, 6991, 6997, 7001, 7013, 7019, 7027, 7039, 7043, 7057, 7069, 7079, 7103, 7109, 7121, 7127, 7129, 7151, 7159, 7177, 7187, 7193, 7207, 7211, 7213, 7219, 7229, 7237, 7243, 7247, 7253, 7283, 7297, 7307, 7309, 7321, 7331, 7333, 7349, 7351, 7369, 7393, 7411, 7417, 7433, 7451, 7457, 7459, 7477, 7481, 7487, 7489, 7499, 7507, 7517, 7523, 7529, 7537, 7541, 7547, 7549, 7559, 7561, 7573, 7577, 7583, 7589, 7591, 7603, 7607, 7621, 7639, 7643, 7649, 7669, 7673, 7681, 7687, 7691, 7699, 7703, 7717, 7723, 7727, 7741, 7753, 7757, 7759, 7789, 7793, 7817, 7823, 7829, 7841, 7853, 7867, 7873, 7877, 7879, 7883, 7901, 7907, 7919, 7927, 7933, 7937, 7949, 7951, 7963, 7993, 8009, 8011, 8017, 8039, 8053, 8059, 8069, 8081, 8087, 8089, 8093, 8101, 8111, 8117, 8123, 8147, 8161, 8167, 8171, 8179, 8191, 8209, 8219, 8221, 8231, 8233, 8237, 8243, 8263, 8269, 8273, 8287, 8291, 8293, 8297, 8311, 8317, 8329, 8353, 8363, 8369, 8377, 8387, 8389, 8419, 8423, 8429, 8431, 8443, 8447, 8461, 8467, 8501, 8513, 8521, 8527, 8537, 8539, 8543, 8563, 8573, 8581, 8597, 8599, 8609, 8623, 8627, 8629, 8641, 8647, 8663, 8669, 8677, 8681, 8689, 8693, 8699, 8707, 8713, 8719, 8731, 8737, 8741, 8747, 8753, 8761, 8779, 8783, 8803, 8807, 8819, 8821, 8831, 8837, 8839, 8849, 8861, 8863, 8867, 8887, 8893, 8923, 8929, 8933, 8941, 8951, 8963, 8969, 8971, 8999, 9001, 9007, 9011, 9013, 9029, 9041, 9043, 9049, 9059, 9067, 9091, 9103, 9109, 9127, 9133, 9137, 9151, 9157, 9161, 9173, 9181, 9187, 9199, 9203, 9209, 9221, 9227, 9239, 9241, 9257, 9277, 9281, 9283, 9293, 9311, 9319, 9323, 9337, 9341, 9343, 9349, 9371, 9377, 9391, 9397, 9403, 9413, 9419, 9421, 9431, 9433, 9437, 9439, 9461, 9463, 9467, 9473, 9479, 9491, 9497, 9511, 9521, 9533, 9539, 9547, 9551, 9587, 9601, 9613, 9619, 9623, 9629, 9631, 9643, 9649, 9661, 9677, 9679, 9689, 9697, 9719, 9721, 9733, 9739, 9743, 9749, 9767, 9769, 9781, 9787, 9791, 9803, 9811, 9817, 9829, 9833, 9839, 9851, 9857, 9859, 9871, 9883, 9887, 9901, 9907, 9923, 9929, 9931, 9941, 9949, 9967, 9973, 10007, 10009, 10037, 10039, 10061, 10067, 10069, 10079, 10091, 10093, 10099, 10103, 10111, 10133, 10139, 10141, 10151, 10159, 10163, 10169, 10177, 10181, 10193, 10211, 10223, 10243, 10247, 10253, 10259, 10267, 10271, 10273, 10289, 10301, 10303, 10313, 10321, 10331, 10333, 10337, 10343, 10357, 10369, 10391, 10399, 10427, 10429, 10433, 10453, 10457, 10459, 10463, 10477, 10487, 10499, 10501, 10513, 10529, 10531, 10559, 10567, 10589, 10597, 10601, 10607, 10613, 10627, 10631, 10639, 10651, 10657, 10663, 10667};
primes(n) = (prime_nums, int(n)) : rdtable;
fb = hslider("feedback[style:knob]",0.5,0.0,1.0,0.01):smooth(0.99);
allpass(N,n,g) = (+ <: (delay(N, n), *(g))) ~ *(-g) : mem, _: +;
section((n1, n2)) = allpass(2048, n1, 0.7) : allpass(2048, n2, 0.7) : delay(4096, int(0.75*(n1+n2)));
allpass_chain(((n1, n2), ns), x) = _ : section((n1, n2)) <: R(x, ns), _
with {
R(x, ((n1, n2), ns)) = _,x : + : section((n1, n2)) <: R(x, ns), _;
R(x, (n1, n2)) = _,x : + : section((n1, n2));
};
procMono(feedfwd_delays, feedback_delays, feedback_gain, x) = x : (+ : allpass_chain(feedfwd_delays, x)) ~ (_,x : + : section(feedback_delays) : *(feedback_gain)) :> _;
kBVerb = bus(2) : mix(PI/2) : *(0.5), *(0.5) : procLeft, procRight : bus(2)
with {
mix(theta) = bus(2) <: (*(c), *(-s), *(s), *(c)) : (+,+) : bus(2)
with {
c = cos(theta);
s = sin(theta);
};
ind_left(i) = 100 + 10*pow(2,i);
feedfwd_delays_left = par(i, 5, (primes(ind_left(i)), primes(ind_left(i)+1)));
feedback_delays_left = (primes(100), primes(101));
procLeft = procMono(feedfwd_delays_left, feedback_delays_left, fb);
ind_right(i) = 100 + 11*pow(2,i);
feedfwd_delays_right = par(i, 4, (primes(ind_right(i)), primes(ind_right(i)+1)));
feedback_delays_right = (primes(97), primes(99));
procRight = procMono(feedfwd_delays_right, feedback_delays_right, fb);
};
process = bypass_fade(checkbox("bypass"), ma.SR/10, kBVerb);
|
b46762b6478cb07eb0bb87608b26975e5612f8558e6877e2eb5c7a0b269b92ec
|
clearly-broken-software/Uprising
|
ur_oscillator.dsp
|
import("stdfaust.lib");
gate = 1-button("gate"); // starts the ramp envelope
// general purpose ramp envelope
env(start,end,len) = urRamp
with {
urRamp = ba.countup(len,gate): ba.bpf.start(0,start): ba.bpf.end(len,end);//:si.smoo;
};
// constant power panning ; reference The Audio Programming Book p.236
piOver2 = ma.PI/2;
root2over2 = (2 : sqrt) * 0.5;
angle = pan * piOver2 * 0.5;
posLeft = root2over2 * (cos(angle) - sin(angle));
posRight = root2over2 * (cos(angle) + sin(angle));
panStartPos = hslider("panStartPosition",0,-1,1,0.001);
panEndPos = hslider("panEndPosition", 0,-1,1,0.001);
pan = env(panStartPos,panEndPos,bufferSize);
// oscilator
oscType = hslider("oscType",0,0,4,1);
oscStartFreq = hslider("oscStartFreq", 440, 20, 20000,0.01);
oscEndFreq = hslider("oscEndFreq", 440, 20, 20000, 0.01);
bufferSize = hslider("bufferSize", 1024, 1, 10 * 44100,1);
oscStartGain = hslider("oscStartGain", 1, 0, 1, 0.001);
oscEndGain = hslider("oscEndGain",1,0,1,0.001);
oscAmp = env(oscStartGain,oscEndGain,bufferSize);
oscPitchRamp = env(oscStartFreq,oscEndFreq,bufferSize);
oscFreq = oscPitchRamp + LFO;
urOsc = ba.selectmulti(ma.SR/10,(os.osc(oscFreq),os.triangle(oscFreq),os.sawtooth(oscFreq),os.square(oscFreq),no.noise),oscType)*oscAmp;
// lfo
lfoStartFreq = hslider("lfoStartFreq", 6, 0, 15, 0.001);
lfoEndFreq = hslider("lfoEndFreq", 6, 0.001, 15, 0.001);
lfoStartDepth = hslider("lfoStartDepth", 0, 0,1, 0.001);
lfoEndDepth = hslider("lfoEndDepth", 0, 0,1, 0.001);
lfoPitchRamp = env(lfoStartFreq,lfoEndFreq,bufferSize);
lfoDepthRamp = env(lfoStartDepth,lfoEndDepth,bufferSize);
LFO = os.lf_triangle(lfoPitchRamp)*lfoDepthRamp*20;
// filter
filterType = hslider ("filterType",0,0,3,1);
filterGain = hslider ("filterGain",1,0,1,0.001);
filterQ = hslider("filterQ",1,1,20,1);
filterFreq = hslider("filterFreq",20000,20,20000,0.001);
lpf = fi.resonlp(filterFreq,filterQ,filterGain);
process = 1 - gate : si.smoo * urOsc:lpf<:_*posLeft,_*posRight;
|
https://raw.githubusercontent.com/clearly-broken-software/Uprising/89f5b49d90cd47611da7e7dc2009061768716b4c/plugins/uprising/dsp/faust/ur_oscillator.dsp
|
faust
|
starts the ramp envelope
general purpose ramp envelope
:si.smoo;
constant power panning ; reference The Audio Programming Book p.236
oscilator
lfo
filter
|
import("stdfaust.lib");
env(start,end,len) = urRamp
with {
};
piOver2 = ma.PI/2;
root2over2 = (2 : sqrt) * 0.5;
angle = pan * piOver2 * 0.5;
posLeft = root2over2 * (cos(angle) - sin(angle));
posRight = root2over2 * (cos(angle) + sin(angle));
panStartPos = hslider("panStartPosition",0,-1,1,0.001);
panEndPos = hslider("panEndPosition", 0,-1,1,0.001);
pan = env(panStartPos,panEndPos,bufferSize);
oscType = hslider("oscType",0,0,4,1);
oscStartFreq = hslider("oscStartFreq", 440, 20, 20000,0.01);
oscEndFreq = hslider("oscEndFreq", 440, 20, 20000, 0.01);
bufferSize = hslider("bufferSize", 1024, 1, 10 * 44100,1);
oscStartGain = hslider("oscStartGain", 1, 0, 1, 0.001);
oscEndGain = hslider("oscEndGain",1,0,1,0.001);
oscAmp = env(oscStartGain,oscEndGain,bufferSize);
oscPitchRamp = env(oscStartFreq,oscEndFreq,bufferSize);
oscFreq = oscPitchRamp + LFO;
urOsc = ba.selectmulti(ma.SR/10,(os.osc(oscFreq),os.triangle(oscFreq),os.sawtooth(oscFreq),os.square(oscFreq),no.noise),oscType)*oscAmp;
lfoStartFreq = hslider("lfoStartFreq", 6, 0, 15, 0.001);
lfoEndFreq = hslider("lfoEndFreq", 6, 0.001, 15, 0.001);
lfoStartDepth = hslider("lfoStartDepth", 0, 0,1, 0.001);
lfoEndDepth = hslider("lfoEndDepth", 0, 0,1, 0.001);
lfoPitchRamp = env(lfoStartFreq,lfoEndFreq,bufferSize);
lfoDepthRamp = env(lfoStartDepth,lfoEndDepth,bufferSize);
LFO = os.lf_triangle(lfoPitchRamp)*lfoDepthRamp*20;
filterType = hslider ("filterType",0,0,3,1);
filterGain = hslider ("filterGain",1,0,1,0.001);
filterQ = hslider("filterQ",1,1,20,1);
filterFreq = hslider("filterFreq",20000,20,20000,0.001);
lpf = fi.resonlp(filterFreq,filterQ,filterGain);
process = 1 - gate : si.smoo * urOsc:lpf<:_*posLeft,_*posRight;
|
66b9259a69479fdb9e905d8f9cc58f283b9d3fd9bf2db4753fc2163afaa4ba01
|
VCVRack/VCV-Prototype
|
physicalmodel.dsp
|
import("stdfaust.lib");
import("rack.lib");
frenchBell_ui = pm.frenchBell(strikePosition,strikeCutoff,strikeSharpness,gain,gate)
with {
strikePosition = nentry("v:frenchBell/[0]strikePosition", 0,0,4,1);
strikeCutoff = hslider("v:frenchBell/[1]strikeCutOff", 6500,20,20000,1);
strikeSharpness = hslider("v:frenchBell/[2]strikeSharpness", 0.5,0.01,5,0.01);
// Connection with VCV knob and switch
gain = hslider("v:frenchBell/[3]gain [knob:1]",1,0,1,0.01);
gate = button("v:frenchBell/[4]gate [switch:1]");
};
freeverb_demo = _,_ <: (*(g)*fixedgain,*(g)*fixedgain :
re.stereo_freeverb(combfeed, allpassfeed, damping, spatSpread)),
*(1-g), *(1-g) :> _,_
with{
scaleroom = 0.28;
offsetroom = 0.7;
allpassfeed = 0.5;
scaledamp = 0.4;
fixedgain = 0.1;
origSR = 44100;
parameters(x) = hgroup("Freeverb",x);
knobGroup(x) = parameters(vgroup("[0]",x));
// Connection with VCV knobs
damping = knobGroup(vslider("[0] Damp [knob:2] [style: knob] [tooltip: Somehow control the
density of the reverb.]",0.5, 0, 1, 0.025)*scaledamp*origSR/ma.SR);
combfeed = knobGroup(vslider("[1] RoomSize [knob:3] [style: knob] [tooltip: The room size
between 0 and 1 with 1 for the largest room.]", 0.5, 0, 1, 0.025)*scaleroom*
origSR/ma.SR + offsetroom);
spatSpread = knobGroup(vslider("[2] Stereo Spread [knob:4] [style: knob] [tooltip: Spatial
spread between 0 and 1 with 1 for maximum spread.]",0.5,0,1,0.01)*46*ma.SR/origSR
: int);
g = parameters(vslider("[1] Wet [knob:5] [tooltip: The amount of reverb applied to the signal
between 0 and 1 with 1 for the maximum amount of reverb.]", 0.3333, 0, 1, 0.025));
};
process = frenchBell_ui <: freeverb_demo;
|
https://raw.githubusercontent.com/VCVRack/VCV-Prototype/6980f0f0aca2517ea4a44e749515fe868d4ff532/examples/physicalmodel.dsp
|
faust
|
Connection with VCV knob and switch
Connection with VCV knobs
|
import("stdfaust.lib");
import("rack.lib");
frenchBell_ui = pm.frenchBell(strikePosition,strikeCutoff,strikeSharpness,gain,gate)
with {
strikePosition = nentry("v:frenchBell/[0]strikePosition", 0,0,4,1);
strikeCutoff = hslider("v:frenchBell/[1]strikeCutOff", 6500,20,20000,1);
strikeSharpness = hslider("v:frenchBell/[2]strikeSharpness", 0.5,0.01,5,0.01);
gain = hslider("v:frenchBell/[3]gain [knob:1]",1,0,1,0.01);
gate = button("v:frenchBell/[4]gate [switch:1]");
};
freeverb_demo = _,_ <: (*(g)*fixedgain,*(g)*fixedgain :
re.stereo_freeverb(combfeed, allpassfeed, damping, spatSpread)),
*(1-g), *(1-g) :> _,_
with{
scaleroom = 0.28;
offsetroom = 0.7;
allpassfeed = 0.5;
scaledamp = 0.4;
fixedgain = 0.1;
origSR = 44100;
parameters(x) = hgroup("Freeverb",x);
knobGroup(x) = parameters(vgroup("[0]",x));
damping = knobGroup(vslider("[0] Damp [knob:2] [style: knob] [tooltip: Somehow control the
density of the reverb.]",0.5, 0, 1, 0.025)*scaledamp*origSR/ma.SR);
combfeed = knobGroup(vslider("[1] RoomSize [knob:3] [style: knob] [tooltip: The room size
between 0 and 1 with 1 for the largest room.]", 0.5, 0, 1, 0.025)*scaleroom*
origSR/ma.SR + offsetroom);
spatSpread = knobGroup(vslider("[2] Stereo Spread [knob:4] [style: knob] [tooltip: Spatial
spread between 0 and 1 with 1 for maximum spread.]",0.5,0,1,0.01)*46*ma.SR/origSR
: int);
g = parameters(vslider("[1] Wet [knob:5] [tooltip: The amount of reverb applied to the signal
between 0 and 1 with 1 for the maximum amount of reverb.]", 0.3333, 0, 1, 0.025));
};
process = frenchBell_ui <: freeverb_demo;
|
659e065e0f76408145ad478d228e846ba5910f29ea92739422251fdb8df3e7b6
|
guizmo2000/WebAudioPluginBank
|
stereoChorus.dsp
|
/* Stereo chorus. */
declare name "chorus";
declare description "stereo chorus effect";
declare author "Albert Graef";
declare version "1.1";
import("stdfaust.lib");
level = hslider("level [style: knob]", 0.5, 0, 1, 0.01);
freq = hslider("freq [style: knob]", 3, 0, 10, 0.01);
// Both must be filtered to avoid artefact when changing the values
dtime = hslider("delay [style: knob]", 0.025, 0, 0.2, 0.001) : si.smooth(0.9999);
depth = hslider("depth [style: knob]", 0.02, 0, 0.5, 0.001) : si.smooth(0.9999);
tblosc(n, f, freq, mod) = (1-d)*rdtable(n, wave, i&(n-1)) + d*rdtable(n, wave, (i+1)&(n-1))
with {
wave = ba.time*(2*ma.PI)/n : f;
phase = freq/ma.SR : (+ : ma.decimal) ~ _;
modphase = ma.decimal(phase + mod/(2*ma.PI))*n;
i = int(floor(modphase));
d = ma.decimal(modphase);
};
chorus(dtime, freq, depth, phase, x) = x+level*de.fdelay(1<<16, t, x)
with {
t = ma.SR*dtime/2*(1+depth*tblosc(1<<16, sin, freq, phase));
};
stereoChorus = (left, right)
with {
left = chorus(dtime,freq,depth,0);
right = chorus(dtime,freq,depth,ma.PI/2);
};
process = ba.bypass_fade( ma.SR/10, checkbox("bypass"), stereoChorus);
|
https://raw.githubusercontent.com/guizmo2000/WebAudioPluginBank/9d7a3c1bd0977d57316046c116c217dccd6caa10/jordan-SINTES/stereoChorus/assets/dsp_src/stereoChorus.dsp
|
faust
|
Stereo chorus.
Both must be filtered to avoid artefact when changing the values
|
declare name "chorus";
declare description "stereo chorus effect";
declare author "Albert Graef";
declare version "1.1";
import("stdfaust.lib");
level = hslider("level [style: knob]", 0.5, 0, 1, 0.01);
freq = hslider("freq [style: knob]", 3, 0, 10, 0.01);
dtime = hslider("delay [style: knob]", 0.025, 0, 0.2, 0.001) : si.smooth(0.9999);
depth = hslider("depth [style: knob]", 0.02, 0, 0.5, 0.001) : si.smooth(0.9999);
tblosc(n, f, freq, mod) = (1-d)*rdtable(n, wave, i&(n-1)) + d*rdtable(n, wave, (i+1)&(n-1))
with {
wave = ba.time*(2*ma.PI)/n : f;
phase = freq/ma.SR : (+ : ma.decimal) ~ _;
modphase = ma.decimal(phase + mod/(2*ma.PI))*n;
i = int(floor(modphase));
d = ma.decimal(modphase);
};
chorus(dtime, freq, depth, phase, x) = x+level*de.fdelay(1<<16, t, x)
with {
t = ma.SR*dtime/2*(1+depth*tblosc(1<<16, sin, freq, phase));
};
stereoChorus = (left, right)
with {
left = chorus(dtime,freq,depth,0);
right = chorus(dtime,freq,depth,ma.PI/2);
};
process = ba.bypass_fade( ma.SR/10, checkbox("bypass"), stereoChorus);
|
6958e0b08c2145cb69841c102ba572977987ab444a184237e76d2ea4da1ede1a
|
guizmo2000/WebAudioPluginBank
|
SmoothDelay.dsp
|
declare name "SmoothDelay";
declare author "Yann Orlarey";
declare copyright "Grame";
declare version "1.0";
declare license "STK-4.3";
//--------------------------process----------------------------
//
// A stereo smooth delay with a feedback control
//
// This example shows how to use sdelay, a delay that doesn't
// click and doesn't transpose when the delay time is changed
//-------------------------------------------------------------
import("stdfaust.lib");
// Simple bypass mecanism
// Bypass an effect (fx:n->n). Once bypassed the effect is replaced by par(i,n,_).
// Bypassed effects can be chained.
// Example: _,_ : bypass(checkbox("bypass reverb"), freeverb) : _,_
bypass_fx(b, fx) = par(i, inputs(fx), _) <: ((block_on(b, fx):fx), block_off(b, fx)) :> par(i, outputs(fx), _)
with {
block_on(b, fx) = par(i, inputs(fx), _*(1-b));
block_off(b, fx) = par(i, inputs(fx), _*b);
};
// Bypass an effect (fx:n->n) with 's' samples crossfades. Once bypassed the
// effect is replaced by par(i,n,_). Bypassed effects can be chained.
// Example: _,_ : bypass_fx_fade(checkbox("bypass reverb"), ma.SR/10, freeverb) : _,_
bypass_fade(b, s, fx) = par(i, inputs(fx), _)
<: (par(i, inputs(fx), *(1-xb)) : fx : par(i, outputs(fx), *(1-xb)))
, par(i, inputs(fx), *(xb))
:> par(i, outputs(fx), _)
with {
xb = ramp(s, b);
ramp(n) = \(y,x).(if (y+1.0/n < x, y+1.0/n, if(y-1.0/n > x, y-1.0/n, x))) ~ _;
if (c,t,e) = select2(c,e,t);
};
// Bypass an effect (fx:n->n) with crossfades expressed in seconds.
bypass_fade_sec(b, d, fx) = bypass_fx_fade(b, ba.sec2samp(d), fx);
smoothdelay = (+ :de.sdelay(N, interp, dtime)) ~ *(fback)
with
{
s = 0.999; // smoothing parameter (one-fi.pole fi.pole location)
N = int(2^17);
dtime = hslider("Delay[unit:ms][style:knob][OWL:PARAMETER_A]", 1, 0.0001, 500, 0.1)*ma.SR/1000.0 : si.smooth(s);
fback = hslider("Feedback[style:knob][OWL:PARAMETER_B]",0,0,100,0.1)/100.0;
interp = hslider("Interpolation[unit:ms][style:knob][OWL:PARAMETER_C]",10,1,100,0.1)*ma.SR/1000.0;
};
dry = 1 - hslider("Dry/Wet[style:knob][OWL:PARAMETER_D]", 0.3333, 0, 1, 0.025);
wet = 1 - dry + hslider("Super Wet[style:knob][OWL:PARAMETER_E]", 0.0, 0, 0.5, 0.025);
SmoothDelay = _<:*(dry),(*(wet) : smoothdelay ) :>_;
process = bypass_fade(checkbox("bypass"), ma.SR/10, SmoothDelay);
|
https://raw.githubusercontent.com/guizmo2000/WebAudioPluginBank/9d7a3c1bd0977d57316046c116c217dccd6caa10/jordan-SINTES/SmoothDelay/assets/dsp_src/SmoothDelay.dsp
|
faust
|
--------------------------process----------------------------
A stereo smooth delay with a feedback control
This example shows how to use sdelay, a delay that doesn't
click and doesn't transpose when the delay time is changed
-------------------------------------------------------------
Simple bypass mecanism
Bypass an effect (fx:n->n). Once bypassed the effect is replaced by par(i,n,_).
Bypassed effects can be chained.
Example: _,_ : bypass(checkbox("bypass reverb"), freeverb) : _,_
Bypass an effect (fx:n->n) with 's' samples crossfades. Once bypassed the
effect is replaced by par(i,n,_). Bypassed effects can be chained.
Example: _,_ : bypass_fx_fade(checkbox("bypass reverb"), ma.SR/10, freeverb) : _,_
Bypass an effect (fx:n->n) with crossfades expressed in seconds.
smoothing parameter (one-fi.pole fi.pole location)
|
declare name "SmoothDelay";
declare author "Yann Orlarey";
declare copyright "Grame";
declare version "1.0";
declare license "STK-4.3";
import("stdfaust.lib");
bypass_fx(b, fx) = par(i, inputs(fx), _) <: ((block_on(b, fx):fx), block_off(b, fx)) :> par(i, outputs(fx), _)
with {
block_on(b, fx) = par(i, inputs(fx), _*(1-b));
block_off(b, fx) = par(i, inputs(fx), _*b);
};
bypass_fade(b, s, fx) = par(i, inputs(fx), _)
<: (par(i, inputs(fx), *(1-xb)) : fx : par(i, outputs(fx), *(1-xb)))
, par(i, inputs(fx), *(xb))
:> par(i, outputs(fx), _)
with {
xb = ramp(s, b);
ramp(n) = \(y,x).(if (y+1.0/n < x, y+1.0/n, if(y-1.0/n > x, y-1.0/n, x))) ~ _;
if (c,t,e) = select2(c,e,t);
};
bypass_fade_sec(b, d, fx) = bypass_fx_fade(b, ba.sec2samp(d), fx);
smoothdelay = (+ :de.sdelay(N, interp, dtime)) ~ *(fback)
with
{
N = int(2^17);
dtime = hslider("Delay[unit:ms][style:knob][OWL:PARAMETER_A]", 1, 0.0001, 500, 0.1)*ma.SR/1000.0 : si.smooth(s);
fback = hslider("Feedback[style:knob][OWL:PARAMETER_B]",0,0,100,0.1)/100.0;
interp = hslider("Interpolation[unit:ms][style:knob][OWL:PARAMETER_C]",10,1,100,0.1)*ma.SR/1000.0;
};
dry = 1 - hslider("Dry/Wet[style:knob][OWL:PARAMETER_D]", 0.3333, 0, 1, 0.025);
wet = 1 - dry + hslider("Super Wet[style:knob][OWL:PARAMETER_E]", 0.0, 0, 0.5, 0.025);
SmoothDelay = _<:*(dry),(*(wet) : smoothdelay ) :>_;
process = bypass_fade(checkbox("bypass"), ma.SR/10, SmoothDelay);
|
56995712586b9a5120f2ff8dfa7ace2c2cf9bc016378f52174bbfcce8f64f199
|
guizmo2000/WebAudioPluginBank
|
kpp_bluedream_without_bypass.dsp
|
/*
* Copyright (C) 2018 Oleg Kapitonov
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation; either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, write to the Free Software
* Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301 USA.
* --------------------------------------------------------------------------
*/
/*
* This plugin is a booster/overdrive pedal emulator with equalizer.
* When the _voice_ knob is in the left position the pedal works as a booster
* When the _voice_ knob is in the right position the pedal works as a "tube screamer"
*
* Process chain:
*
* input->pre_filter->*drive_knob->overdrive->equalizer->post-filter->*volume_knob->output
* ->---voice---> ->---voice---->
*
*
* pre-filter - highpass, 1 order, 720 Hz. Bypassed when _voice_ is in right position.
* overdrive - nonlinear element, emulation of the push-pull tube amplifier.
* equalizer - tonestack, bass-middle-treble.
* post-filter - lowpass, 1 order, 720 Hz. Bypassed when _voice_ is in right position.
*/
declare name "kpp_bluedream";
declare author "Oleg Kapitonov";
declare license "GPLv3";
declare version "0.1b";
import("stdfaust.lib");
process = output with {
// Bypass button, 0 - pedal on, 1 -pedal off (bypass on)
bypass = checkbox("99_bypass");
drive = vslider("drive",63,0,100,0.01);
volume = vslider("volume",0.5,0,1,0.001);
voice = vslider("voice",0.5,0,1,0.001);
tonestack_low = vslider("bass",-6.9,-15,15,0.1);
tonestack_middle = vslider("middle",-3.9,-15,15,0.1);
tonestack_high = vslider("treble",0.6,-15,15,0.1);
tonestack_low_freq = 20;
tonestack_middle_freq = 500;
tonestack_high_freq = 10000;
tonestack_low_band = 400;
tonestack_middle_band = 700;
tonestack_high_band = 18000;
/*-----Model of the tube in a push-pull amplifier-------*/
// Bias of each half-wave so that they better match
bias = 0.2;
// Grid resistor
Rg = 50000;
// Grid capacitor
Cgb = 100;
// Distortion threshold, if the signal is bigger
// it starts to get distorted
Upor = 0.2;
// Softness of distortion
Kreg = 0.427;
tau = 1/ma.SR;
Cg = Cgb*1e-9;
// Grid leak resistor (between the grid and the ground)
Remax = 200000;
// Model of the tube cascade, 0.5 is a hard clipping threshold
tube(Rg,Cg,Kreg,Upor,bias,cut) = main ~ _ : min(0.5) : +(bias) : max(cut) with {
Ks(x) = 1/(max((x-Upor)*(Kreg),0)+1);
Ksplus(x) = Upor - x*Upor;
main(Uout,Uin) = (Ug * Ks(Ug) + Ksplus(Ks(Ug))) * Remax/(Remax+Rg) with {
Ug = Uin - Uc letrec {
'Uc = Uc + (Uin - Uc - Uout)/Rg/Cg*tau;
};
};
};
/*--------Processing chain-----------------*/
// Used 2 tubes - for positive and negative half-waves (push-pull).
// Stereo input and output, but during processing the signal is
// converted to mono.
pre_filter = _ <: fi.highpass(1, 720) * min((1 - voice + 0.75 * drive / 100), 1),
*(max((voice - 0.75 * drive / 100), 0)) : + ;
post_filter = _ <: fi.lowpass(1, 720) * min((1 - voice + 0.75 * drive / 100), 1),
*(max((voice - 0.75 * drive / 100), 0)) : + ;
stage_stomp = pre_filter : fi.lowpass(1,9000) : _<:
_,*(-1.0) : tube(Rg,Cg,Kreg,Upor,bias,0), tube(Rg,Cg,Kreg,Upor,bias,0) : - :
fi.peak_eq(tonestack_low,tonestack_low_freq,tonestack_low_band) :
fi.peak_eq(tonestack_middle,tonestack_middle_freq,tonestack_middle_band) :
fi.peak_eq(tonestack_high,tonestack_high_freq,tonestack_high_band) :
post_filter ;
stomp = fi.highpass(1,20) : *(ba.db2linear(drive * 0.4 * (1 - voice * 0.5))) : stage_stomp :
*(ba.db2linear(volume * 60.0 * (1 - voice * 0.25) ) / 100.0) ;
output = _,_ : + : ba.bypass1(bypass, stomp) <: _,_;
};
|
https://raw.githubusercontent.com/guizmo2000/WebAudioPluginBank/9d7a3c1bd0977d57316046c116c217dccd6caa10/Faust/BlueDream/Original%20Faust%20Code/kpp_bluedream_without_bypass.dsp
|
faust
|
* Copyright (C) 2018 Oleg Kapitonov
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation; either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, write to the Free Software
* Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301 USA.
* --------------------------------------------------------------------------
* This plugin is a booster/overdrive pedal emulator with equalizer.
* When the _voice_ knob is in the left position the pedal works as a booster
* When the _voice_ knob is in the right position the pedal works as a "tube screamer"
*
* Process chain:
*
* input->pre_filter->*drive_knob->overdrive->equalizer->post-filter->*volume_knob->output
* ->---voice---> ->---voice---->
*
*
* pre-filter - highpass, 1 order, 720 Hz. Bypassed when _voice_ is in right position.
* overdrive - nonlinear element, emulation of the push-pull tube amplifier.
* equalizer - tonestack, bass-middle-treble.
* post-filter - lowpass, 1 order, 720 Hz. Bypassed when _voice_ is in right position.
Bypass button, 0 - pedal on, 1 -pedal off (bypass on)
-----Model of the tube in a push-pull amplifier-------
Bias of each half-wave so that they better match
Grid resistor
Grid capacitor
Distortion threshold, if the signal is bigger
it starts to get distorted
Softness of distortion
Grid leak resistor (between the grid and the ground)
Model of the tube cascade, 0.5 is a hard clipping threshold
--------Processing chain-----------------
Used 2 tubes - for positive and negative half-waves (push-pull).
Stereo input and output, but during processing the signal is
converted to mono.
|
declare name "kpp_bluedream";
declare author "Oleg Kapitonov";
declare license "GPLv3";
declare version "0.1b";
import("stdfaust.lib");
process = output with {
bypass = checkbox("99_bypass");
drive = vslider("drive",63,0,100,0.01);
volume = vslider("volume",0.5,0,1,0.001);
voice = vslider("voice",0.5,0,1,0.001);
tonestack_low = vslider("bass",-6.9,-15,15,0.1);
tonestack_middle = vslider("middle",-3.9,-15,15,0.1);
tonestack_high = vslider("treble",0.6,-15,15,0.1);
tonestack_low_freq = 20;
tonestack_middle_freq = 500;
tonestack_high_freq = 10000;
tonestack_low_band = 400;
tonestack_middle_band = 700;
tonestack_high_band = 18000;
bias = 0.2;
Rg = 50000;
Cgb = 100;
Upor = 0.2;
Kreg = 0.427;
tau = 1/ma.SR;
Cg = Cgb*1e-9;
Remax = 200000;
tube(Rg,Cg,Kreg,Upor,bias,cut) = main ~ _ : min(0.5) : +(bias) : max(cut) with {
Ks(x) = 1/(max((x-Upor)*(Kreg),0)+1);
Ksplus(x) = Upor - x*Upor;
main(Uout,Uin) = (Ug * Ks(Ug) + Ksplus(Ks(Ug))) * Remax/(Remax+Rg) with {
Ug = Uin - Uc letrec {
'Uc = Uc + (Uin - Uc - Uout)/Rg/Cg*tau;
};
};
};
pre_filter = _ <: fi.highpass(1, 720) * min((1 - voice + 0.75 * drive / 100), 1),
*(max((voice - 0.75 * drive / 100), 0)) : + ;
post_filter = _ <: fi.lowpass(1, 720) * min((1 - voice + 0.75 * drive / 100), 1),
*(max((voice - 0.75 * drive / 100), 0)) : + ;
stage_stomp = pre_filter : fi.lowpass(1,9000) : _<:
_,*(-1.0) : tube(Rg,Cg,Kreg,Upor,bias,0), tube(Rg,Cg,Kreg,Upor,bias,0) : - :
fi.peak_eq(tonestack_low,tonestack_low_freq,tonestack_low_band) :
fi.peak_eq(tonestack_middle,tonestack_middle_freq,tonestack_middle_band) :
fi.peak_eq(tonestack_high,tonestack_high_freq,tonestack_high_band) :
post_filter ;
stomp = fi.highpass(1,20) : *(ba.db2linear(drive * 0.4 * (1 - voice * 0.5))) : stage_stomp :
*(ba.db2linear(volume * 60.0 * (1 - voice * 0.25) ) / 100.0) ;
output = _,_ : + : ba.bypass1(bypass, stomp) <: _,_;
};
|
60c512a3ef5dfcb25139dc7e5f49e364c8e78c7525d4f0c77d0a8fea124d9c41
|
guizmo2000/WebAudioPluginBank
|
stonephaser.dsp
|
declare name "Stone Phaser";
declare author "Jean Pierre Cimalando";
declare version "1.2.2";
declare license "CC0-1.0";
// Référence :
// Kiiski, R., Esqueda, F., & Välimäki, V. (2016).
// Time-variant gray-box modeling of a phaser pedal.
// In 19th International Conference on Digital Audio Effects (DAFx-16).
import("stdfaust.lib");
/////////////
// Control //
/////////////
bypass = checkbox("[0] Bypass [symbol:bypass]");
color = checkbox("[1] Color [symbol:color]");
lf = hslider("[2] LFO frequency [symbol:lfo_frequency] [unit:Hz] [scale:log] [style:knob]", 0.2, 0.01, 5., 0.01) : tsmooth;
fb = hslider("[3] Feedback depth [symbol:feedback_depth] [unit:%] [integer] [style:knob]", 75, 0, 99, 1) : *(0.01) : tsmooth;
fbHf = hslider("[4] Feedback bass cut [abbrev:Fb bass cut] [symbol:feedback_hpf_cutoff] [unit:Hz] [scale:log] [style:knob]", 500., 10., 5000., 1.) : tsmooth;
dw = hslider("[5] Dry/wet mix [symbol:mix] [unit:%] [integer] [style:knob]", 50, 0, 100, 1) : *(0.01);
w = sin(dw*(ma.PI/2)) : tsmooth;
d = cos(dw*(ma.PI/2)) : tsmooth;
ph = hslider("[6] Stereo phase [symbol:stereo_phase] [unit:deg] [integer] [style:knob]", 0., -180., +180., 1.) : /(360.) : +(1.) : tsmooth;
//////////////////////////
// All-pass filter unit //
//////////////////////////
allpass1(f) = fi.iir((a,1.),(a)) with {
a = -1.+2.*ma.PI*f/ma.SR;
};
//////////////////////
// High-pass filter //
//////////////////////
highpass1(f) = fi.iir((0.5*(1.+p), -0.5*(1.+p)), (-p)) with {
p = exp(-2.*ma.PI*f/ma.SR);
};
//////////////////////
// Low-pass filter //
//////////////////////
lowpass1(f) = fi.iir((1.-p), (-p)) with {
p = exp(-2.*ma.PI*f/ma.SR);
};
////////////////////////////////////////////
// Smooth filter with fixed time constant //
////////////////////////////////////////////
tsmooth = si.smooth(ba.tau2pole(t)) with { t = 100e-3; };
//////////
// LFOs //
//////////
lfoTriangle(pos, y1, y2) = val*(y2-y1)+y1 with {
val = 1.-abs(2.*pos-1.);
};
lfoRectifiedSine(pos, y1, y2) = val*(y2-y1)+y1 with {
val = rsin(pos);
};
lfoAnalogTriangle(roundness, pos, y1, y2) = val*(y2-y1)+y1 with {
val = sineTri(roundness, pos);
};
lfoExponentialTriangle(roundness, slopeUp, slopeDown, pos, y1, y2) = val*(y2-y1)+y1 with {
val = expTri(roundness, slopeUp, slopeDown, pos);
};
////////////
// Phaser //
////////////
mono_phaser(x, lfo_pos) = (fadeBypass * x) + (1. - fadeBypass) * (dry + wet) with {
dry = x*d;
wet = (x <: highpass1(33.0) : (+:a1:a2:a3:a4)~feedback)*w;
fadeBypass = bypass : tsmooth;
colorFb = ba.if(color, fb, 0.1*fb) : tsmooth;
feedback = highpass1(fbHf) : *(colorFb);
lfoLoF = ba.if(color, ba.hz2midikey(80.), ba.hz2midikey(300.)) : tsmooth;
lfoHiF = ba.if(color, ba.hz2midikey(2200.), ba.hz2midikey(6000.)) : tsmooth;
modFreq = ba.midikey2hz(lfoAnalogTriangle(0.95, lfo_pos, lfoLoF, lfoHiF));
//modFreq = ba.midikey2hz(lfoExponentialTriangle(128., 0.6, 0.9, lfo_pos, lfoLoF, lfoHiF));
a1 = allpass1(modFreq);
a2 = allpass1(modFreq);
a3 = allpass1(modFreq);
a4 = allpass1(modFreq);
};
stereo_phaser(x1, x2, lfo_pos) = mono_phaser(x1, lfo_pos), mono_phaser(x2, lfo_pos2) with {
lfo_pos2 = wrap(lfo_pos + ph);
wrap(p) = p-float(int(p));
};
/////////////
// Utility //
/////////////
lerp(tab, pos, size) = (tab(i1), tab(i2)) : si.interpolate(mu) with {
fracIndex = pos*size;
i1 = int(fracIndex);
i2 = (i1+1)%size;
mu = fracIndex-float(i1);
};
rsin(pos) = lerp(tab, pos, ts) with {
ts = 128;
tab(i) = rdtable(ts, abs(os.sinwaveform(ts)), i);
};
sineTriWaveform(roundness, tablesize) = 1.-sin(2.*ba.if(x<0.5, x, 1.-x)*asin(a))/a with {
a = max(0., min(1., roundness * 0.5 + 0.5));
x = wrap(float(ba.time)/float(tablesize));
wrap(p) = p-float(int(p));
};
sineTri(roundness, pos) = lerp(tab, pos, ts) with {
ts = 128;
tab(i) = rdtable(ts, sineTriWaveform(roundness, ts), i);
};
/*
# Gnuplot code of the sineTri function
sineTri(r, x)=sineTri_(r, wrap(x+0.5))
sineTri_(r, x)=1.-sin(((x<0.5)?x:(1.-x))*2.*asin(r))/r
wrap(x)=x-floor(x)
set xrange [0:1]
plot(sineTri(0.99, x))
*/
expTriWaveform(roundness, slopeUp, slopeDown, tablesize) = ba.if(x<0.5, expUp, expDown) with {
normExp(a, b, x) = (1.-pow(a, -b*x))/(1.-pow(a, -b));
expUp = 1.-normExp(roundness, slopeUp, (-x+0.5)*2);
expDown = 1.-normExp(roundness, slopeDown, (x-0.5)*2);
x = wrap(float(ba.time)/float(tablesize));
wrap(p) = p-float(int(p));
};
expTri(roundness, slopeUp, slopeDown, pos) = lerp(tab, pos, ts) with {
ts = 128;
tab(i) = rdtable(ts, expTriWaveform(roundness, slopeUp, slopeDown, ts), i);
};
/*
# Gnuplot code of the expTri function
roundness=128
slopeUp = 0.6
slopeDown = 0.9
normExp(a,b,x)=(1.-a**-(b*x))/(1.-a**-b)
set xrange [0:1]
plot (x<0.5) ? (1.-normExp(roundness, slopeUp, (-x+0.5)*2)) : (1.-normExp(roundness, slopeDown, (x-0.5)*2))
*/
//////////
// Main //
//////////
process_mono(x) = mono_phaser(x, os.lf_sawpos(lf));
process_stereo(x1, x2) = stereo_phaser(x1, x2, os.lf_sawpos(lf));
process = process_mono;
|
https://raw.githubusercontent.com/guizmo2000/WebAudioPluginBank/9d7a3c1bd0977d57316046c116c217dccd6caa10/jordan-SINTES/stonephaser/stonephaser.dsp
|
faust
|
Référence :
Kiiski, R., Esqueda, F., & Välimäki, V. (2016).
Time-variant gray-box modeling of a phaser pedal.
In 19th International Conference on Digital Audio Effects (DAFx-16).
///////////
Control //
///////////
////////////////////////
All-pass filter unit //
////////////////////////
////////////////////
High-pass filter //
////////////////////
////////////////////
Low-pass filter //
////////////////////
//////////////////////////////////////////
Smooth filter with fixed time constant //
//////////////////////////////////////////
////////
LFOs //
////////
//////////
Phaser //
//////////
modFreq = ba.midikey2hz(lfoExponentialTriangle(128., 0.6, 0.9, lfo_pos, lfoLoF, lfoHiF));
///////////
Utility //
///////////
# Gnuplot code of the sineTri function
sineTri(r, x)=sineTri_(r, wrap(x+0.5))
sineTri_(r, x)=1.-sin(((x<0.5)?x:(1.-x))*2.*asin(r))/r
wrap(x)=x-floor(x)
set xrange [0:1]
plot(sineTri(0.99, x))
# Gnuplot code of the expTri function
roundness=128
slopeUp = 0.6
slopeDown = 0.9
normExp(a,b,x)=(1.-a**-(b*x))/(1.-a**-b)
set xrange [0:1]
plot (x<0.5) ? (1.-normExp(roundness, slopeUp, (-x+0.5)*2)) : (1.-normExp(roundness, slopeDown, (x-0.5)*2))
////////
Main //
////////
|
declare name "Stone Phaser";
declare author "Jean Pierre Cimalando";
declare version "1.2.2";
declare license "CC0-1.0";
import("stdfaust.lib");
bypass = checkbox("[0] Bypass [symbol:bypass]");
color = checkbox("[1] Color [symbol:color]");
lf = hslider("[2] LFO frequency [symbol:lfo_frequency] [unit:Hz] [scale:log] [style:knob]", 0.2, 0.01, 5., 0.01) : tsmooth;
fb = hslider("[3] Feedback depth [symbol:feedback_depth] [unit:%] [integer] [style:knob]", 75, 0, 99, 1) : *(0.01) : tsmooth;
fbHf = hslider("[4] Feedback bass cut [abbrev:Fb bass cut] [symbol:feedback_hpf_cutoff] [unit:Hz] [scale:log] [style:knob]", 500., 10., 5000., 1.) : tsmooth;
dw = hslider("[5] Dry/wet mix [symbol:mix] [unit:%] [integer] [style:knob]", 50, 0, 100, 1) : *(0.01);
w = sin(dw*(ma.PI/2)) : tsmooth;
d = cos(dw*(ma.PI/2)) : tsmooth;
ph = hslider("[6] Stereo phase [symbol:stereo_phase] [unit:deg] [integer] [style:knob]", 0., -180., +180., 1.) : /(360.) : +(1.) : tsmooth;
allpass1(f) = fi.iir((a,1.),(a)) with {
a = -1.+2.*ma.PI*f/ma.SR;
};
highpass1(f) = fi.iir((0.5*(1.+p), -0.5*(1.+p)), (-p)) with {
p = exp(-2.*ma.PI*f/ma.SR);
};
lowpass1(f) = fi.iir((1.-p), (-p)) with {
p = exp(-2.*ma.PI*f/ma.SR);
};
tsmooth = si.smooth(ba.tau2pole(t)) with { t = 100e-3; };
lfoTriangle(pos, y1, y2) = val*(y2-y1)+y1 with {
val = 1.-abs(2.*pos-1.);
};
lfoRectifiedSine(pos, y1, y2) = val*(y2-y1)+y1 with {
val = rsin(pos);
};
lfoAnalogTriangle(roundness, pos, y1, y2) = val*(y2-y1)+y1 with {
val = sineTri(roundness, pos);
};
lfoExponentialTriangle(roundness, slopeUp, slopeDown, pos, y1, y2) = val*(y2-y1)+y1 with {
val = expTri(roundness, slopeUp, slopeDown, pos);
};
mono_phaser(x, lfo_pos) = (fadeBypass * x) + (1. - fadeBypass) * (dry + wet) with {
dry = x*d;
wet = (x <: highpass1(33.0) : (+:a1:a2:a3:a4)~feedback)*w;
fadeBypass = bypass : tsmooth;
colorFb = ba.if(color, fb, 0.1*fb) : tsmooth;
feedback = highpass1(fbHf) : *(colorFb);
lfoLoF = ba.if(color, ba.hz2midikey(80.), ba.hz2midikey(300.)) : tsmooth;
lfoHiF = ba.if(color, ba.hz2midikey(2200.), ba.hz2midikey(6000.)) : tsmooth;
modFreq = ba.midikey2hz(lfoAnalogTriangle(0.95, lfo_pos, lfoLoF, lfoHiF));
a1 = allpass1(modFreq);
a2 = allpass1(modFreq);
a3 = allpass1(modFreq);
a4 = allpass1(modFreq);
};
stereo_phaser(x1, x2, lfo_pos) = mono_phaser(x1, lfo_pos), mono_phaser(x2, lfo_pos2) with {
lfo_pos2 = wrap(lfo_pos + ph);
wrap(p) = p-float(int(p));
};
lerp(tab, pos, size) = (tab(i1), tab(i2)) : si.interpolate(mu) with {
fracIndex = pos*size;
i1 = int(fracIndex);
i2 = (i1+1)%size;
mu = fracIndex-float(i1);
};
rsin(pos) = lerp(tab, pos, ts) with {
ts = 128;
tab(i) = rdtable(ts, abs(os.sinwaveform(ts)), i);
};
sineTriWaveform(roundness, tablesize) = 1.-sin(2.*ba.if(x<0.5, x, 1.-x)*asin(a))/a with {
a = max(0., min(1., roundness * 0.5 + 0.5));
x = wrap(float(ba.time)/float(tablesize));
wrap(p) = p-float(int(p));
};
sineTri(roundness, pos) = lerp(tab, pos, ts) with {
ts = 128;
tab(i) = rdtable(ts, sineTriWaveform(roundness, ts), i);
};
expTriWaveform(roundness, slopeUp, slopeDown, tablesize) = ba.if(x<0.5, expUp, expDown) with {
normExp(a, b, x) = (1.-pow(a, -b*x))/(1.-pow(a, -b));
expUp = 1.-normExp(roundness, slopeUp, (-x+0.5)*2);
expDown = 1.-normExp(roundness, slopeDown, (x-0.5)*2);
x = wrap(float(ba.time)/float(tablesize));
wrap(p) = p-float(int(p));
};
expTri(roundness, slopeUp, slopeDown, pos) = lerp(tab, pos, ts) with {
ts = 128;
tab(i) = rdtable(ts, expTriWaveform(roundness, slopeUp, slopeDown, ts), i);
};
process_mono(x) = mono_phaser(x, os.lf_sawpos(lf));
process_stereo(x1, x2) = stereo_phaser(x1, x2, os.lf_sawpos(lf));
process = process_mono;
|
a9550b04cf21e0ba1e158444dcb20c75deaf434cc8a3ea10e3f58a286a5c1c1d
|
guizmo2000/WebAudioPluginBank
|
stonePhaserJari.dsp
|
declare name "Stone Phaser";
declare author "Jean Pierre Cimalando";
declare version "1.2.2";
declare license "CC0-1.0";
// Référence :
// Kiiski, R., Esqueda, F., & Välimäki, V. (2016).
// Time-variant gray-box modeling of a phaser pedal.
// In 19th International Conference on Digital Audio Effects (DAFx-16).
import("stdfaust.lib");
/////////////
// Control //
/////////////
bypass = checkbox("[0] Bypass [symbol:bypass]");
color = hslider("[1] Color [symbol:color] [boolean] [style:knob]", 1, 0, 1, 1);
lf = hslider("[2] LFO frequency [symbol:lfo_frequency] [unit:Hz] [scale:log][style:knob]", 0.2, 0.01, 5., 0.01) : tsmooth;
fb = hslider("[3] Feedback depth [symbol:feedback_depth] [unit:%] [integer][style:knob]", 75, 0, 99, 1) : *(0.01) : tsmooth;
fbHf = hslider("[4] Feedback bass cut [abbrev:Fb bass cut] [symbol:feedback_hpf_cutoff] [style:knob][unit:Hz] [scale:log]", 500., 10., 5000., 1.) : tsmooth;
dw = hslider("[5] Dry wet mix [symbol:mix] [unit:%] [integer][style:knob]", 50, 0, 100, 1) : *(0.01);
w = sin(dw*(ma.PI/2)) : tsmooth;
d = cos(dw*(ma.PI/2)) : tsmooth;
ph = hslider("[6] Stereo phase [symbol:stereo_phase] [unit:deg][style:knob] [integer]", 0., -180., +180., 1.) : /(360.) : +(1.) : tsmooth;
//////////////////////////
// All-pass filter unit //
//////////////////////////
allpass1(f) = fi.iir((a,1.),(a)) with {
a = -1.+2.*ma.PI*f/ma.SR;
};
//////////////////////
// High-pass filter //
//////////////////////
highpass1(f) = fi.iir((0.5*(1.+p), -0.5*(1.+p)), (-p)) with {
p = exp(-2.*ma.PI*f/ma.SR);
};
//////////////////////
// Low-pass filter //
//////////////////////
lowpass1(f) = fi.iir((1.-p), (-p)) with {
p = exp(-2.*ma.PI*f/ma.SR);
};
////////////////////////////////////////////
// Smooth filter with fixed time constant //
////////////////////////////////////////////
tsmooth = si.smooth(ba.tau2pole(t)) with { t = 100e-3; };
//////////
// LFOs //
//////////
lfoTriangle(pos, y1, y2) = val*(y2-y1)+y1 with {
val = 1.-abs(2.*pos-1.);
};
lfoRectifiedSine(pos, y1, y2) = val*(y2-y1)+y1 with {
val = rsin(pos);
};
lfoAnalogTriangle(roundness, pos, y1, y2) = val*(y2-y1)+y1 with {
val = sineTri(roundness, pos);
};
lfoExponentialTriangle(roundness, slopeUp, slopeDown, pos, y1, y2) = val*(y2-y1)+y1 with {
val = expTri(roundness, slopeUp, slopeDown, pos);
};
////////////
// Phaser //
////////////
mono_phaser(x, lfo_pos) = (fadeBypass * x) + (1. - fadeBypass) * (dry + wet) with {
dry = x*d;
wet = (x <: highpass1(33.0) : (+:a1:a2:a3:a4)~feedback)*w;
fadeBypass = bypass : tsmooth;
colorFb = ba.if(color, fb, 0.1*fb) : tsmooth;
feedback = highpass1(fbHf) : *(colorFb);
lfoLoF = ba.if(color, ba.hz2midikey(80.), ba.hz2midikey(300.)) : tsmooth;
lfoHiF = ba.if(color, ba.hz2midikey(2200.), ba.hz2midikey(6000.)) : tsmooth;
modFreq = ba.midikey2hz(lfoAnalogTriangle(0.95, lfo_pos, lfoLoF, lfoHiF));
//modFreq = ba.midikey2hz(lfoExponentialTriangle(128., 0.6, 0.9, lfo_pos, lfoLoF, lfoHiF));
a1 = allpass1(modFreq);
a2 = allpass1(modFreq);
a3 = allpass1(modFreq);
a4 = allpass1(modFreq);
};
stereo_phaser(x1, x2, lfo_pos) = mono_phaser(x1, lfo_pos), mono_phaser(x2, lfo_pos2) with {
lfo_pos2 = wrap(lfo_pos + ph);
wrap(p) = p-float(int(p));
};
/////////////
// Utility //
/////////////
lerp(tab, pos, size) = (tab(i1), tab(i2)) : si.interpolate(mu) with {
fracIndex = pos*size;
i1 = int(fracIndex);
i2 = (i1+1)%size;
mu = fracIndex-float(i1);
};
rsin(pos) = lerp(tab, pos, ts) with {
ts = 128;
tab(i) = rdtable(ts, abs(os.sinwaveform(ts)), i);
};
sineTriWaveform(roundness, tablesize) = 1.-sin(2.*ba.if(x<0.5, x, 1.-x)*asin(a))/a with {
a = max(0., min(1., roundness * 0.5 + 0.5));
x = wrap(float(ba.time)/float(tablesize));
wrap(p) = p-float(int(p));
};
sineTri(roundness, pos) = lerp(tab, pos, ts) with {
ts = 128;
tab(i) = rdtable(ts, sineTriWaveform(roundness, ts), i);
};
/*
# Gnuplot code of the sineTri function
sineTri(r, x)=sineTri_(r, wrap(x+0.5))
sineTri_(r, x)=1.-sin(((x<0.5)?x:(1.-x))*2.*asin(r))/r
wrap(x)=x-floor(x)
set xrange [0:1]
plot(sineTri(0.99, x))
*/
expTriWaveform(roundness, slopeUp, slopeDown, tablesize) = ba.if(x<0.5, expUp, expDown) with {
normExp(a, b, x) = (1.-pow(a, -b*x))/(1.-pow(a, -b));
expUp = 1.-normExp(roundness, slopeUp, (-x+0.5)*2);
expDown = 1.-normExp(roundness, slopeDown, (x-0.5)*2);
x = wrap(float(ba.time)/float(tablesize));
wrap(p) = p-float(int(p));
};
expTri(roundness, slopeUp, slopeDown, pos) = lerp(tab, pos, ts) with {
ts = 128;
tab(i) = rdtable(ts, expTriWaveform(roundness, slopeUp, slopeDown, ts), i);
};
/*
# Gnuplot code of the expTri function
roundness=128
slopeUp = 0.6
slopeDown = 0.9
normExp(a,b,x)=(1.-a**-(b*x))/(1.-a**-b)
set xrange [0:1]
plot (x<0.5) ? (1.-normExp(roundness, slopeUp, (-x+0.5)*2)) : (1.-normExp(roundness, slopeDown, (x-0.5)*2))
*/
//////////
// Main //
//////////
process_mono(x) = mono_phaser(x, os.lf_sawpos(lf));
process_stereo(x1, x2) = stereo_phaser(x1, x2, os.lf_sawpos(lf));
process = process_mono;
|
https://raw.githubusercontent.com/guizmo2000/WebAudioPluginBank/9d7a3c1bd0977d57316046c116c217dccd6caa10/Buffa/stonePhaserJari/stonePhaserJari.dsp
|
faust
|
Référence :
Kiiski, R., Esqueda, F., & Välimäki, V. (2016).
Time-variant gray-box modeling of a phaser pedal.
In 19th International Conference on Digital Audio Effects (DAFx-16).
///////////
Control //
///////////
////////////////////////
All-pass filter unit //
////////////////////////
////////////////////
High-pass filter //
////////////////////
////////////////////
Low-pass filter //
////////////////////
//////////////////////////////////////////
Smooth filter with fixed time constant //
//////////////////////////////////////////
////////
LFOs //
////////
//////////
Phaser //
//////////
modFreq = ba.midikey2hz(lfoExponentialTriangle(128., 0.6, 0.9, lfo_pos, lfoLoF, lfoHiF));
///////////
Utility //
///////////
# Gnuplot code of the sineTri function
sineTri(r, x)=sineTri_(r, wrap(x+0.5))
sineTri_(r, x)=1.-sin(((x<0.5)?x:(1.-x))*2.*asin(r))/r
wrap(x)=x-floor(x)
set xrange [0:1]
plot(sineTri(0.99, x))
# Gnuplot code of the expTri function
roundness=128
slopeUp = 0.6
slopeDown = 0.9
normExp(a,b,x)=(1.-a**-(b*x))/(1.-a**-b)
set xrange [0:1]
plot (x<0.5) ? (1.-normExp(roundness, slopeUp, (-x+0.5)*2)) : (1.-normExp(roundness, slopeDown, (x-0.5)*2))
////////
Main //
////////
|
declare name "Stone Phaser";
declare author "Jean Pierre Cimalando";
declare version "1.2.2";
declare license "CC0-1.0";
import("stdfaust.lib");
bypass = checkbox("[0] Bypass [symbol:bypass]");
color = hslider("[1] Color [symbol:color] [boolean] [style:knob]", 1, 0, 1, 1);
lf = hslider("[2] LFO frequency [symbol:lfo_frequency] [unit:Hz] [scale:log][style:knob]", 0.2, 0.01, 5., 0.01) : tsmooth;
fb = hslider("[3] Feedback depth [symbol:feedback_depth] [unit:%] [integer][style:knob]", 75, 0, 99, 1) : *(0.01) : tsmooth;
fbHf = hslider("[4] Feedback bass cut [abbrev:Fb bass cut] [symbol:feedback_hpf_cutoff] [style:knob][unit:Hz] [scale:log]", 500., 10., 5000., 1.) : tsmooth;
dw = hslider("[5] Dry wet mix [symbol:mix] [unit:%] [integer][style:knob]", 50, 0, 100, 1) : *(0.01);
w = sin(dw*(ma.PI/2)) : tsmooth;
d = cos(dw*(ma.PI/2)) : tsmooth;
ph = hslider("[6] Stereo phase [symbol:stereo_phase] [unit:deg][style:knob] [integer]", 0., -180., +180., 1.) : /(360.) : +(1.) : tsmooth;
allpass1(f) = fi.iir((a,1.),(a)) with {
a = -1.+2.*ma.PI*f/ma.SR;
};
highpass1(f) = fi.iir((0.5*(1.+p), -0.5*(1.+p)), (-p)) with {
p = exp(-2.*ma.PI*f/ma.SR);
};
lowpass1(f) = fi.iir((1.-p), (-p)) with {
p = exp(-2.*ma.PI*f/ma.SR);
};
tsmooth = si.smooth(ba.tau2pole(t)) with { t = 100e-3; };
lfoTriangle(pos, y1, y2) = val*(y2-y1)+y1 with {
val = 1.-abs(2.*pos-1.);
};
lfoRectifiedSine(pos, y1, y2) = val*(y2-y1)+y1 with {
val = rsin(pos);
};
lfoAnalogTriangle(roundness, pos, y1, y2) = val*(y2-y1)+y1 with {
val = sineTri(roundness, pos);
};
lfoExponentialTriangle(roundness, slopeUp, slopeDown, pos, y1, y2) = val*(y2-y1)+y1 with {
val = expTri(roundness, slopeUp, slopeDown, pos);
};
mono_phaser(x, lfo_pos) = (fadeBypass * x) + (1. - fadeBypass) * (dry + wet) with {
dry = x*d;
wet = (x <: highpass1(33.0) : (+:a1:a2:a3:a4)~feedback)*w;
fadeBypass = bypass : tsmooth;
colorFb = ba.if(color, fb, 0.1*fb) : tsmooth;
feedback = highpass1(fbHf) : *(colorFb);
lfoLoF = ba.if(color, ba.hz2midikey(80.), ba.hz2midikey(300.)) : tsmooth;
lfoHiF = ba.if(color, ba.hz2midikey(2200.), ba.hz2midikey(6000.)) : tsmooth;
modFreq = ba.midikey2hz(lfoAnalogTriangle(0.95, lfo_pos, lfoLoF, lfoHiF));
a1 = allpass1(modFreq);
a2 = allpass1(modFreq);
a3 = allpass1(modFreq);
a4 = allpass1(modFreq);
};
stereo_phaser(x1, x2, lfo_pos) = mono_phaser(x1, lfo_pos), mono_phaser(x2, lfo_pos2) with {
lfo_pos2 = wrap(lfo_pos + ph);
wrap(p) = p-float(int(p));
};
lerp(tab, pos, size) = (tab(i1), tab(i2)) : si.interpolate(mu) with {
fracIndex = pos*size;
i1 = int(fracIndex);
i2 = (i1+1)%size;
mu = fracIndex-float(i1);
};
rsin(pos) = lerp(tab, pos, ts) with {
ts = 128;
tab(i) = rdtable(ts, abs(os.sinwaveform(ts)), i);
};
sineTriWaveform(roundness, tablesize) = 1.-sin(2.*ba.if(x<0.5, x, 1.-x)*asin(a))/a with {
a = max(0., min(1., roundness * 0.5 + 0.5));
x = wrap(float(ba.time)/float(tablesize));
wrap(p) = p-float(int(p));
};
sineTri(roundness, pos) = lerp(tab, pos, ts) with {
ts = 128;
tab(i) = rdtable(ts, sineTriWaveform(roundness, ts), i);
};
expTriWaveform(roundness, slopeUp, slopeDown, tablesize) = ba.if(x<0.5, expUp, expDown) with {
normExp(a, b, x) = (1.-pow(a, -b*x))/(1.-pow(a, -b));
expUp = 1.-normExp(roundness, slopeUp, (-x+0.5)*2);
expDown = 1.-normExp(roundness, slopeDown, (x-0.5)*2);
x = wrap(float(ba.time)/float(tablesize));
wrap(p) = p-float(int(p));
};
expTri(roundness, slopeUp, slopeDown, pos) = lerp(tab, pos, ts) with {
ts = 128;
tab(i) = rdtable(ts, expTriWaveform(roundness, slopeUp, slopeDown, ts), i);
};
process_mono(x) = mono_phaser(x, os.lf_sawpos(lf));
process_stereo(x1, x2) = stereo_phaser(x1, x2, os.lf_sawpos(lf));
process = process_mono;
|
c186683087ad93c23f300d192ebb8bc4abf155ed42f23304108df9801f6a8fcf
|
guizmo2000/WebAudioPluginBank
|
GreyHoleRaw.dsp
|
declare name "GreyholeRaw";
declare version "1.0";
declare author "Julian Parker, bug fixes by Till Bovermann";
declare license "GPL2+";
declare copyright "(c) Julian Parker 2013";
import("stdfaust.lib");
fb = hslider("feedback [style:knob]",0.9,0.0,1.0,0.01):linear_interp;
depth = ((ma.SR/44100)*50*hslider("modDepth [style:knob]",0.1,0.0,1.0,0.001)):linear_interp;
freq = hslider("modFreq[style:knob]",2.0,0.0,10.0,0.01):linear_interp;
diff = hslider("diffusion[style:knob]",0.5,0.0,0.99,0.0001):linear_interp;
dt = min(65533,ma.SR*hslider("delayTime[style:knob]",0.2,0.001,1.45,0.0001)): si.smooth(0.9999);
size = hslider("size[style:knob]",1.0,0.5,3.0,0.0001): si.smooth(0.9999);
damp = hslider("damping[style:knob]", 0.0, 0.0, 0.99,0.001):linear_interp;
linear_interp = _<:(mem,_):+:*(0.5):_;
smooth_init(s,default) = *(1.0 - s) : + ~ (+(default*init(1)):*(s))
with
{
init(value) = value - value';
};
// using exteral function to access list of prime numbers is slightly faster than an inline approach (as of 428bf3b)
//prime_delays = ffunction(int primes (int),<jprev.h>,"primes");
prime_delays(x) = (waveform {2, 3, 5, 7, 11, 13, 17, 19, 23, 29, 31, 37, 41, 43, 47, 53, 59, 61, 67, 71, 73, 79, 83, 89, 97, 101, 103, 107, 109, 113, 127, 131, 137, 139, 149, 151, 157, 163, 167, 173, 179, 181, 191, 193, 197, 199, 211, 223, 227, 229, 233, 239, 241, 251, 257, 263, 269, 271, 277, 281, 283, 293, 307, 311, 313, 317, 331, 337, 347, 349, 353, 359, 367, 373, 379, 383, 389, 397, 401, 409, 419, 421, 431, 433, 439, 443, 449, 457, 461, 463, 467, 479, 487, 491, 499, 503, 509, 521, 523, 541, 547, 557, 563, 569, 571, 577, 587, 593, 599, 601, 607, 613, 617, 619, 631, 641, 643, 647, 653, 659, 661, 673, 677, 683, 691, 701, 709, 719, 727, 733, 739, 743, 751, 757, 761, 769, 773, 787, 797, 809, 811, 821, 823, 827, 829, 839, 853, 857, 859, 863, 877, 881, 883, 887, 907, 911, 919, 929, 937, 941, 947, 953, 967, 971, 977, 983, 991, 997, 1009, 1013, 1019, 1021, 1031, 1033, 1039, 1049, 1051, 1061, 1063, 1069, 1087, 1091, 1093, 1097, 1103, 1109, 1117, 1123, 1129, 1151, 1153, 1163, 1171, 1181, 1187, 1193, 1201, 1213, 1217, 1223, 1229, 1231, 1237, 1249, 1259, 1277, 1279, 1283, 1289, 1291, 1297, 1301, 1303, 1307, 1319, 1321, 1327, 1361, 1367, 1373, 1381, 1399, 1409, 1423, 1427, 1429, 1433, 1439, 1447, 1451, 1453, 1459, 1471, 1481, 1483, 1487, 1489, 1493, 1499, 1511, 1523, 1531, 1543, 1549, 1553, 1559, 1567, 1571, 1579, 1583, 1597, 1601, 1607, 1609, 1613, 1619, 1621, 1627, 1637, 1657, 1663, 1667, 1669, 1693, 1697, 1699, 1709, 1721, 1723, 1733, 1741, 1747, 1753, 1759, 1777, 1783, 1787, 1789, 1801, 1811, 1823, 1831, 1847, 1861, 1867, 1871, 1873, 1877, 1879, 1889, 1901, 1907, 1913, 1931, 1933, 1949, 1951, 1973, 1979, 1987, 1993, 1997, 1999, 2003, 2011, 2017, 2027, 2029, 2039, 2053, 2063, 2069, 2081, 2083, 2087, 2089, 2099, 2111, 2113, 2129, 2131, 2137, 2141, 2143, 2153, 2161, 2179, 2203, 2207, 2213, 2221, 2237, 2239, 2243, 2251, 2267, 2269, 2273, 2281, 2287, 2293, 2297, 2309, 2311, 2333, 2339, 2341, 2347, 2351, 2357, 2371, 2377, 2381, 2383, 2389, 2393, 2399, 2411, 2417, 2423, 2437, 2441, 2447, 2459, 2467, 2473, 2477, 2503, 2521, 2531, 2539, 2543, 2549, 2551, 2557, 2579, 2591, 2593, 2609, 2617, 2621, 2633, 2647, 2657, 2659, 2663, 2671, 2677, 2683, 2687, 2689, 2693, 2699, 2707, 2711, 2713, 2719, 2729, 2731, 2741, 2749, 2753, 2767, 2777, 2789, 2791, 2797, 2801, 2803, 2819, 2833, 2837, 2843, 2851, 2857, 2861, 2879, 2887, 2897, 2903, 2909, 2917, 2927, 2939, 2953, 2957, 2963, 2969, 2971, 2999, 3001, 3011, 3019, 3023, 3037, 3041, 3049, 3061, 3067, 3079, 3083, 3089, 3109, 3119, 3121, 3137, 3163, 3167, 3169, 3181, 3187, 3191, 3203, 3209, 3217, 3221, 3229, 3251, 3253, 3257, 3259, 3271, 3299, 3301, 3307, 3313, 3319, 3323, 3329, 3331, 3343, 3347, 3359, 3361, 3371, 3373, 3389, 3391, 3407, 3413, 3433, 3449, 3457, 3461, 3463, 3467, 3469, 3491, 3499, 3511, 3517, 3527, 3529, 3533, 3539, 3541, 3547, 3557, 3559, 3571, 3581, 3583, 3593, 3607, 3613, 3617, 3623, 3631, 3637, 3643, 3659, 3671, 3673, 3677, 3691, 3697, 3701, 3709, 3719, 3727, 3733, 3739, 3761, 3767, 3769, 3779, 3793, 3797, 3803, 3821, 3823, 3833, 3847, 3851, 3853, 3863, 3877, 3881, 3889, 3907, 3911, 3917, 3919, 3923, 3929, 3931, 3943, 3947, 3967, 3989, 4001, 4003, 4007, 4013, 4019, 4021, 4027, 4049, 4051, 4057, 4073, 4079, 4091, 4093, 4099, 4111, 4127, 4129, 4133, 4139, 4153, 4157, 4159, 4177, 4201, 4211, 4217, 4219, 4229, 4231, 4241, 4243, 4253, 4259, 4261, 4271, 4273, 4283, 4289, 4297, 4327, 4337, 4339, 4349, 4357, 4363, 4373, 4391, 4397, 4409, 4421, 4423, 4441, 4447, 4451, 4457, 4463, 4481, 4483, 4493, 4507, 4513, 4517, 4519, 4523, 4547, 4549, 4561, 4567, 4583, 4591, 4597, 4603, 4621, 4637, 4639, 4643, 4649, 4651, 4657, 4663, 4673, 4679, 4691, 4703, 4721, 4723, 4729, 4733, 4751, 4759, 4783, 4787, 4789, 4793, 4799, 4801, 4813, 4817, 4831, 4861, 4871, 4877, 4889, 4903, 4909, 4919, 4931, 4933, 4937, 4943, 4951, 4957, 4967, 4969, 4973, 4987, 4993, 4999, 5003, 5009, 5011, 5021, 5023, 5039, 5051, 5059, 5077, 5081, 5087, 5099, 5101, 5107, 5113, 5119, 5147, 5153, 5167, 5171, 5179, 5189, 5197, 5209, 5227, 5231, 5233, 5237, 5261, 5273, 5279, 5281, 5297, 5303, 5309, 5323, 5333, 5347, 5351, 5381, 5387, 5393, 5399, 5407, 5413, 5417, 5419, 5431, 5437, 5441, 5443, 5449, 5471, 5477, 5479, 5483, 5501, 5503, 5507, 5519, 5521, 5527, 5531, 5557, 5563, 5569, 5573, 5581, 5591, 5623, 5639, 5641, 5647, 5651, 5653, 5657, 5659, 5669, 5683, 5689, 5693, 5701, 5711, 5717, 5737, 5741, 5743, 5749, 5779, 5783, 5791, 5801, 5807, 5813, 5821, 5827, 5839, 5843, 5849, 5851, 5857, 5861, 5867, 5869, 5879, 5881, 5897, 5903, 5923, 5927, 5939, 5953, 5981, 5987, 6007, 6011, 6029, 6037, 6043, 6047, 6053, 6067, 6073, 6079, 6089, 6091, 6101, 6113, 6121, 6131, 6133, 6143, 6151, 6163, 6173, 6197, 6199, 6203, 6211, 6217, 6221, 6229, 6247, 6257, 6263, 6269, 6271, 6277, 6287, 6299, 6301, 6311, 6317, 6323, 6329, 6337, 6343, 6353, 6359, 6361, 6367, 6373, 6379, 6389, 6397, 6421, 6427, 6449, 6451, 6469, 6473, 6481, 6491, 6521, 6529, 6547, 6551, 6553, 6563, 6569, 6571, 6577, 6581, 6599, 6607, 6619, 6637, 6653, 6659, 6661, 6673, 6679, 6689, 6691, 6701, 6703, 6709, 6719, 6733, 6737, 6761, 6763, 6779, 6781, 6791, 6793, 6803, 6823, 6827, 6829, 6833, 6841, 6857, 6863, 6869, 6871, 6883, 6899, 6907, 6911, 6917, 6947, 6949, 6959, 6961, 6967, 6971, 6977, 6983, 6991, 6997, 7001, 7013, 7019, 7027, 7039, 7043, 7057, 7069, 7079, 7103, 7109, 7121, 7127, 7129, 7151, 7159, 7177, 7187, 7193, 7207, 7211, 7213, 7219, 7229, 7237, 7243, 7247, 7253, 7283, 7297, 7307, 7309, 7321, 7331, 7333, 7349, 7351, 7369, 7393, 7411, 7417, 7433, 7451, 7457, 7459, 7477, 7481, 7487, 7489, 7499, 7507, 7517, 7523, 7529, 7537, 7541, 7547, 7549, 7559, 7561, 7573, 7577, 7583, 7589, 7591, 7603, 7607, 7621, 7639, 7643, 7649, 7669, 7673, 7681, 7687, 7691, 7699, 7703, 7717, 7723, 7727, 7741, 7753, 7757, 7759, 7789, 7793, 7817, 7823, 7829, 7841, 7853, 7867, 7873, 7877, 7879, 7883, 7901, 7907, 7919, 7927, 7933, 7937, 7949, 7951, 7963, 7993, 8009, 8011, 8017, 8039, 8053, 8059, 8069, 8081, 8087, 8089, 8093, 8101, 8111, 8117, 8123, 8147, 8161, 8167, 8171, 8179, 8191, 8209, 8219, 8221, 8231, 8233, 8237, 8243, 8263, 8269, 8273, 8287, 8291, 8293, 8297, 8311, 8317, 8329, 8353, 8363, 8369, 8377, 8387, 8389, 8419, 8423, 8429, 8431, 8443, 8447, 8461, 8467, 8501, 8513, 8521, 8527, 8537, 8539, 8543, 8563, 8573, 8581, 8597, 8599, 8609, 8623, 8627, 8629, 8641, 8647, 8663, 8669, 8677, 8681, 8689, 8693, 8699, 8707, 8713, 8719, 8731, 8737, 8741, 8747, 8753, 8761, 8779, 8783, 8803, 8807, 8819, 8821, 8831, 8837, 8839, 8849, 8861, 8863, 8867, 8887, 8893, 8923, 8929, 8933, 8941, 8951, 8963, 8969, 8971, 8999, 9001, 9007, 9011, 9013, 9029, 9041, 9043, 9049, 9059, 9067, 9091, 9103, 9109, 9127, 9133, 9137, 9151, 9157, 9161, 9173, 9181, 9187, 9199, 9203, 9209, 9221, 9227, 9239, 9241, 9257, 9277, 9281, 9283, 9293, 9311, 9319, 9323, 9337, 9341, 9343, 9349, 9371, 9377, 9391, 9397, 9403, 9413, 9419, 9421, 9431, 9433, 9437, 9439, 9461, 9463, 9467, 9473, 9479, 9491, 9497, 9511, 9521, 9533, 9539, 9547, 9551, 9587, 9601, 9613, 9619, 9623, 9629, 9631, 9643, 9649, 9661, 9677, 9679, 9689, 9697, 9719, 9721, 9733, 9739, 9743, 9749, 9767, 9769, 9781, 9787, 9791, 9803, 9811, 9817, 9829, 9833, 9839, 9851, 9857, 9859, 9871, 9883, 9887, 9901, 9907, 9923, 9929, 9931, 9941, 9949, 9967, 9973, 10007, 10009, 10037, 10039, 10061, 10067, 10069, 10079, 10091, 10093, 10099, 10103, 10111, 10133, 10139, 10141, 10151, 10159, 10163, 10169, 10177, 10181, 10193, 10211, 10223, 10243, 10247, 10253, 10259, 10267, 10271, 10273, 10289, 10301, 10303, 10313, 10321, 10331, 10333, 10337, 10343, 10357, 10369, 10391, 10399, 10427, 10429, 10433, 10453, 10457, 10459, 10463, 10477, 10487, 10499, 10501, 10513, 10529, 10531, 10559, 10567, 10589, 10597, 10601, 10607, 10613, 10627, 10631, 10639, 10651, 10657, 10663, 10667}, int(x))
: rdtable;
diffuser_nested(1,angle,g,scale) = si.bus(2) <: ( (si.bus(2) :par(i,2,*(c_norm))
: (( si.bus(4) :> si.bus(2) :rotator(angle) : (
de.fdelay1a(8192, prime_delays(size*scale):smooth_init(0.9999,prime_delays(size*scale)) -1 ),
de.fdelay1a(8192, prime_delays(size*scale +10):smooth_init(0.9999,prime_delays(size*scale + 10)) -1 )
) )~par(i,2,*(-s_norm)))
: par(i,2,mem:*(c_norm)) )
,
par(i,2,*(s_norm)))
:> si.bus(2)
with
{
rotator(angle) = si.bus(2) <: (*(c),*(-s),*(s),*(c)) :(+,+) : si.bus(2)
with{
c = cos(angle);
s = sin(angle);
};
c_norm = cos(g);
s_norm = sin(g);
};
diffuser_nested(N,angle,g,scale) = si.bus(2) <: ( (si.bus(2) :par(i,2,*(c_norm))
: (( si.bus(4) :> si.bus(2) : diffuser_nested(N-1,angle,g,scale+13) : rotator(angle) : (
de.fdelay1a(8192, prime_delays(size*scale):smooth_init(0.999,prime_delays(size*scale)) -1 ),
de.fdelay1a(8192, prime_delays(size*scale +10):smooth_init(0.999,prime_delays(size*scale + 10)) -1 )
) )~par(i,2,*(-s_norm)))
: par(i,2,mem:*(c_norm)) )
,
par(i,2,*(s_norm)))
:> si.bus(2)
with
{
rotator(angle) = si.bus(2) <: (*(c),*(-s),*(s),*(c)) :(+,+) : si.bus(2)
with{
c = cos(angle);
s = sin(angle);
};
c_norm = cos(g);
s_norm = sin(g);
};
// blackhole =
process = ( si.bus(4) :> seq(i,3,diffuser_nested(4,ma.PI/2,(-1^i)*diff,10+19*i) ):par(i,2,si.smooth(damp)) )
~( (de.fdelay4(512, 10+depth + depth*os.oscrc(freq)),de.fdelay4(512, 10+ depth + depth*os.oscrs(freq)) ) :
(de.sdelay(65536,44100/2,floor(dt)),de.sdelay(65536,44100/2,floor(dt))) :
par(i,2,*(fb)) );
|
https://raw.githubusercontent.com/guizmo2000/WebAudioPluginBank/9d7a3c1bd0977d57316046c116c217dccd6caa10/jordan-SINTES/GreyHoleRaw/GreyHoleRaw.dsp
|
faust
|
using exteral function to access list of prime numbers is slightly faster than an inline approach (as of 428bf3b)
prime_delays = ffunction(int primes (int),<jprev.h>,"primes");
blackhole =
|
declare name "GreyholeRaw";
declare version "1.0";
declare author "Julian Parker, bug fixes by Till Bovermann";
declare license "GPL2+";
declare copyright "(c) Julian Parker 2013";
import("stdfaust.lib");
fb = hslider("feedback [style:knob]",0.9,0.0,1.0,0.01):linear_interp;
depth = ((ma.SR/44100)*50*hslider("modDepth [style:knob]",0.1,0.0,1.0,0.001)):linear_interp;
freq = hslider("modFreq[style:knob]",2.0,0.0,10.0,0.01):linear_interp;
diff = hslider("diffusion[style:knob]",0.5,0.0,0.99,0.0001):linear_interp;
dt = min(65533,ma.SR*hslider("delayTime[style:knob]",0.2,0.001,1.45,0.0001)): si.smooth(0.9999);
size = hslider("size[style:knob]",1.0,0.5,3.0,0.0001): si.smooth(0.9999);
damp = hslider("damping[style:knob]", 0.0, 0.0, 0.99,0.001):linear_interp;
linear_interp = _<:(mem,_):+:*(0.5):_;
smooth_init(s,default) = *(1.0 - s) : + ~ (+(default*init(1)):*(s))
with
{
init(value) = value - value';
};
prime_delays(x) = (waveform {2, 3, 5, 7, 11, 13, 17, 19, 23, 29, 31, 37, 41, 43, 47, 53, 59, 61, 67, 71, 73, 79, 83, 89, 97, 101, 103, 107, 109, 113, 127, 131, 137, 139, 149, 151, 157, 163, 167, 173, 179, 181, 191, 193, 197, 199, 211, 223, 227, 229, 233, 239, 241, 251, 257, 263, 269, 271, 277, 281, 283, 293, 307, 311, 313, 317, 331, 337, 347, 349, 353, 359, 367, 373, 379, 383, 389, 397, 401, 409, 419, 421, 431, 433, 439, 443, 449, 457, 461, 463, 467, 479, 487, 491, 499, 503, 509, 521, 523, 541, 547, 557, 563, 569, 571, 577, 587, 593, 599, 601, 607, 613, 617, 619, 631, 641, 643, 647, 653, 659, 661, 673, 677, 683, 691, 701, 709, 719, 727, 733, 739, 743, 751, 757, 761, 769, 773, 787, 797, 809, 811, 821, 823, 827, 829, 839, 853, 857, 859, 863, 877, 881, 883, 887, 907, 911, 919, 929, 937, 941, 947, 953, 967, 971, 977, 983, 991, 997, 1009, 1013, 1019, 1021, 1031, 1033, 1039, 1049, 1051, 1061, 1063, 1069, 1087, 1091, 1093, 1097, 1103, 1109, 1117, 1123, 1129, 1151, 1153, 1163, 1171, 1181, 1187, 1193, 1201, 1213, 1217, 1223, 1229, 1231, 1237, 1249, 1259, 1277, 1279, 1283, 1289, 1291, 1297, 1301, 1303, 1307, 1319, 1321, 1327, 1361, 1367, 1373, 1381, 1399, 1409, 1423, 1427, 1429, 1433, 1439, 1447, 1451, 1453, 1459, 1471, 1481, 1483, 1487, 1489, 1493, 1499, 1511, 1523, 1531, 1543, 1549, 1553, 1559, 1567, 1571, 1579, 1583, 1597, 1601, 1607, 1609, 1613, 1619, 1621, 1627, 1637, 1657, 1663, 1667, 1669, 1693, 1697, 1699, 1709, 1721, 1723, 1733, 1741, 1747, 1753, 1759, 1777, 1783, 1787, 1789, 1801, 1811, 1823, 1831, 1847, 1861, 1867, 1871, 1873, 1877, 1879, 1889, 1901, 1907, 1913, 1931, 1933, 1949, 1951, 1973, 1979, 1987, 1993, 1997, 1999, 2003, 2011, 2017, 2027, 2029, 2039, 2053, 2063, 2069, 2081, 2083, 2087, 2089, 2099, 2111, 2113, 2129, 2131, 2137, 2141, 2143, 2153, 2161, 2179, 2203, 2207, 2213, 2221, 2237, 2239, 2243, 2251, 2267, 2269, 2273, 2281, 2287, 2293, 2297, 2309, 2311, 2333, 2339, 2341, 2347, 2351, 2357, 2371, 2377, 2381, 2383, 2389, 2393, 2399, 2411, 2417, 2423, 2437, 2441, 2447, 2459, 2467, 2473, 2477, 2503, 2521, 2531, 2539, 2543, 2549, 2551, 2557, 2579, 2591, 2593, 2609, 2617, 2621, 2633, 2647, 2657, 2659, 2663, 2671, 2677, 2683, 2687, 2689, 2693, 2699, 2707, 2711, 2713, 2719, 2729, 2731, 2741, 2749, 2753, 2767, 2777, 2789, 2791, 2797, 2801, 2803, 2819, 2833, 2837, 2843, 2851, 2857, 2861, 2879, 2887, 2897, 2903, 2909, 2917, 2927, 2939, 2953, 2957, 2963, 2969, 2971, 2999, 3001, 3011, 3019, 3023, 3037, 3041, 3049, 3061, 3067, 3079, 3083, 3089, 3109, 3119, 3121, 3137, 3163, 3167, 3169, 3181, 3187, 3191, 3203, 3209, 3217, 3221, 3229, 3251, 3253, 3257, 3259, 3271, 3299, 3301, 3307, 3313, 3319, 3323, 3329, 3331, 3343, 3347, 3359, 3361, 3371, 3373, 3389, 3391, 3407, 3413, 3433, 3449, 3457, 3461, 3463, 3467, 3469, 3491, 3499, 3511, 3517, 3527, 3529, 3533, 3539, 3541, 3547, 3557, 3559, 3571, 3581, 3583, 3593, 3607, 3613, 3617, 3623, 3631, 3637, 3643, 3659, 3671, 3673, 3677, 3691, 3697, 3701, 3709, 3719, 3727, 3733, 3739, 3761, 3767, 3769, 3779, 3793, 3797, 3803, 3821, 3823, 3833, 3847, 3851, 3853, 3863, 3877, 3881, 3889, 3907, 3911, 3917, 3919, 3923, 3929, 3931, 3943, 3947, 3967, 3989, 4001, 4003, 4007, 4013, 4019, 4021, 4027, 4049, 4051, 4057, 4073, 4079, 4091, 4093, 4099, 4111, 4127, 4129, 4133, 4139, 4153, 4157, 4159, 4177, 4201, 4211, 4217, 4219, 4229, 4231, 4241, 4243, 4253, 4259, 4261, 4271, 4273, 4283, 4289, 4297, 4327, 4337, 4339, 4349, 4357, 4363, 4373, 4391, 4397, 4409, 4421, 4423, 4441, 4447, 4451, 4457, 4463, 4481, 4483, 4493, 4507, 4513, 4517, 4519, 4523, 4547, 4549, 4561, 4567, 4583, 4591, 4597, 4603, 4621, 4637, 4639, 4643, 4649, 4651, 4657, 4663, 4673, 4679, 4691, 4703, 4721, 4723, 4729, 4733, 4751, 4759, 4783, 4787, 4789, 4793, 4799, 4801, 4813, 4817, 4831, 4861, 4871, 4877, 4889, 4903, 4909, 4919, 4931, 4933, 4937, 4943, 4951, 4957, 4967, 4969, 4973, 4987, 4993, 4999, 5003, 5009, 5011, 5021, 5023, 5039, 5051, 5059, 5077, 5081, 5087, 5099, 5101, 5107, 5113, 5119, 5147, 5153, 5167, 5171, 5179, 5189, 5197, 5209, 5227, 5231, 5233, 5237, 5261, 5273, 5279, 5281, 5297, 5303, 5309, 5323, 5333, 5347, 5351, 5381, 5387, 5393, 5399, 5407, 5413, 5417, 5419, 5431, 5437, 5441, 5443, 5449, 5471, 5477, 5479, 5483, 5501, 5503, 5507, 5519, 5521, 5527, 5531, 5557, 5563, 5569, 5573, 5581, 5591, 5623, 5639, 5641, 5647, 5651, 5653, 5657, 5659, 5669, 5683, 5689, 5693, 5701, 5711, 5717, 5737, 5741, 5743, 5749, 5779, 5783, 5791, 5801, 5807, 5813, 5821, 5827, 5839, 5843, 5849, 5851, 5857, 5861, 5867, 5869, 5879, 5881, 5897, 5903, 5923, 5927, 5939, 5953, 5981, 5987, 6007, 6011, 6029, 6037, 6043, 6047, 6053, 6067, 6073, 6079, 6089, 6091, 6101, 6113, 6121, 6131, 6133, 6143, 6151, 6163, 6173, 6197, 6199, 6203, 6211, 6217, 6221, 6229, 6247, 6257, 6263, 6269, 6271, 6277, 6287, 6299, 6301, 6311, 6317, 6323, 6329, 6337, 6343, 6353, 6359, 6361, 6367, 6373, 6379, 6389, 6397, 6421, 6427, 6449, 6451, 6469, 6473, 6481, 6491, 6521, 6529, 6547, 6551, 6553, 6563, 6569, 6571, 6577, 6581, 6599, 6607, 6619, 6637, 6653, 6659, 6661, 6673, 6679, 6689, 6691, 6701, 6703, 6709, 6719, 6733, 6737, 6761, 6763, 6779, 6781, 6791, 6793, 6803, 6823, 6827, 6829, 6833, 6841, 6857, 6863, 6869, 6871, 6883, 6899, 6907, 6911, 6917, 6947, 6949, 6959, 6961, 6967, 6971, 6977, 6983, 6991, 6997, 7001, 7013, 7019, 7027, 7039, 7043, 7057, 7069, 7079, 7103, 7109, 7121, 7127, 7129, 7151, 7159, 7177, 7187, 7193, 7207, 7211, 7213, 7219, 7229, 7237, 7243, 7247, 7253, 7283, 7297, 7307, 7309, 7321, 7331, 7333, 7349, 7351, 7369, 7393, 7411, 7417, 7433, 7451, 7457, 7459, 7477, 7481, 7487, 7489, 7499, 7507, 7517, 7523, 7529, 7537, 7541, 7547, 7549, 7559, 7561, 7573, 7577, 7583, 7589, 7591, 7603, 7607, 7621, 7639, 7643, 7649, 7669, 7673, 7681, 7687, 7691, 7699, 7703, 7717, 7723, 7727, 7741, 7753, 7757, 7759, 7789, 7793, 7817, 7823, 7829, 7841, 7853, 7867, 7873, 7877, 7879, 7883, 7901, 7907, 7919, 7927, 7933, 7937, 7949, 7951, 7963, 7993, 8009, 8011, 8017, 8039, 8053, 8059, 8069, 8081, 8087, 8089, 8093, 8101, 8111, 8117, 8123, 8147, 8161, 8167, 8171, 8179, 8191, 8209, 8219, 8221, 8231, 8233, 8237, 8243, 8263, 8269, 8273, 8287, 8291, 8293, 8297, 8311, 8317, 8329, 8353, 8363, 8369, 8377, 8387, 8389, 8419, 8423, 8429, 8431, 8443, 8447, 8461, 8467, 8501, 8513, 8521, 8527, 8537, 8539, 8543, 8563, 8573, 8581, 8597, 8599, 8609, 8623, 8627, 8629, 8641, 8647, 8663, 8669, 8677, 8681, 8689, 8693, 8699, 8707, 8713, 8719, 8731, 8737, 8741, 8747, 8753, 8761, 8779, 8783, 8803, 8807, 8819, 8821, 8831, 8837, 8839, 8849, 8861, 8863, 8867, 8887, 8893, 8923, 8929, 8933, 8941, 8951, 8963, 8969, 8971, 8999, 9001, 9007, 9011, 9013, 9029, 9041, 9043, 9049, 9059, 9067, 9091, 9103, 9109, 9127, 9133, 9137, 9151, 9157, 9161, 9173, 9181, 9187, 9199, 9203, 9209, 9221, 9227, 9239, 9241, 9257, 9277, 9281, 9283, 9293, 9311, 9319, 9323, 9337, 9341, 9343, 9349, 9371, 9377, 9391, 9397, 9403, 9413, 9419, 9421, 9431, 9433, 9437, 9439, 9461, 9463, 9467, 9473, 9479, 9491, 9497, 9511, 9521, 9533, 9539, 9547, 9551, 9587, 9601, 9613, 9619, 9623, 9629, 9631, 9643, 9649, 9661, 9677, 9679, 9689, 9697, 9719, 9721, 9733, 9739, 9743, 9749, 9767, 9769, 9781, 9787, 9791, 9803, 9811, 9817, 9829, 9833, 9839, 9851, 9857, 9859, 9871, 9883, 9887, 9901, 9907, 9923, 9929, 9931, 9941, 9949, 9967, 9973, 10007, 10009, 10037, 10039, 10061, 10067, 10069, 10079, 10091, 10093, 10099, 10103, 10111, 10133, 10139, 10141, 10151, 10159, 10163, 10169, 10177, 10181, 10193, 10211, 10223, 10243, 10247, 10253, 10259, 10267, 10271, 10273, 10289, 10301, 10303, 10313, 10321, 10331, 10333, 10337, 10343, 10357, 10369, 10391, 10399, 10427, 10429, 10433, 10453, 10457, 10459, 10463, 10477, 10487, 10499, 10501, 10513, 10529, 10531, 10559, 10567, 10589, 10597, 10601, 10607, 10613, 10627, 10631, 10639, 10651, 10657, 10663, 10667}, int(x))
: rdtable;
diffuser_nested(1,angle,g,scale) = si.bus(2) <: ( (si.bus(2) :par(i,2,*(c_norm))
: (( si.bus(4) :> si.bus(2) :rotator(angle) : (
de.fdelay1a(8192, prime_delays(size*scale):smooth_init(0.9999,prime_delays(size*scale)) -1 ),
de.fdelay1a(8192, prime_delays(size*scale +10):smooth_init(0.9999,prime_delays(size*scale + 10)) -1 )
) )~par(i,2,*(-s_norm)))
: par(i,2,mem:*(c_norm)) )
,
par(i,2,*(s_norm)))
:> si.bus(2)
with
{
rotator(angle) = si.bus(2) <: (*(c),*(-s),*(s),*(c)) :(+,+) : si.bus(2)
with{
c = cos(angle);
s = sin(angle);
};
c_norm = cos(g);
s_norm = sin(g);
};
diffuser_nested(N,angle,g,scale) = si.bus(2) <: ( (si.bus(2) :par(i,2,*(c_norm))
: (( si.bus(4) :> si.bus(2) : diffuser_nested(N-1,angle,g,scale+13) : rotator(angle) : (
de.fdelay1a(8192, prime_delays(size*scale):smooth_init(0.999,prime_delays(size*scale)) -1 ),
de.fdelay1a(8192, prime_delays(size*scale +10):smooth_init(0.999,prime_delays(size*scale + 10)) -1 )
) )~par(i,2,*(-s_norm)))
: par(i,2,mem:*(c_norm)) )
,
par(i,2,*(s_norm)))
:> si.bus(2)
with
{
rotator(angle) = si.bus(2) <: (*(c),*(-s),*(s),*(c)) :(+,+) : si.bus(2)
with{
c = cos(angle);
s = sin(angle);
};
c_norm = cos(g);
s_norm = sin(g);
};
process = ( si.bus(4) :> seq(i,3,diffuser_nested(4,ma.PI/2,(-1^i)*diff,10+19*i) ):par(i,2,si.smooth(damp)) )
~( (de.fdelay4(512, 10+depth + depth*os.oscrc(freq)),de.fdelay4(512, 10+ depth + depth*os.oscrs(freq)) ) :
(de.sdelay(65536,44100/2,floor(dt)),de.sdelay(65536,44100/2,floor(dt))) :
par(i,2,*(fb)) );
|
42de1c72c846faa7e49b4ada4a9992bdfcc489d6d6c8baa654a4d341b025d951
|
guizmo2000/WebAudioPluginBank
|
ReverbRaw.dsp
|
declare name "JPverbRaw";
declare version "1.1";
declare author "Julian Parker, bug fixes by Till Bovermann";
declare license "GPL2+";
declare copyright "(c) Julian Parker 2013";
import("stdfaust.lib");
allpass_stretched(maxdel,N,a) = (+ <: de.fdelay1a(maxdel,N-1),*(a)) ~ *(-a) : mem, _ : + ;
// using exteral function to access list of prime numbers is slightly faster than an inline approach (as of 428bf3b)
//prime_delays = ffunction(int primes (int),<jprev.h>,"primes");
prime_delays(x) = (waveform {2, 3, 5, 7, 11, 13, 17, 19, 23, 29, 31, 37, 41, 43, 47, 53, 59, 61, 67, 71, 73, 79, 83, 89, 97, 101, 103, 107, 109, 113, 127, 131, 137, 139, 149, 151, 157, 163, 167, 173, 179, 181, 191, 193, 197, 199, 211, 223, 227, 229, 233, 239, 241, 251, 257, 263, 269, 271, 277, 281, 283, 293, 307, 311, 313, 317, 331, 337, 347, 349, 353, 359, 367, 373, 379, 383, 389, 397, 401, 409, 419, 421, 431, 433, 439, 443, 449, 457, 461, 463, 467, 479, 487, 491, 499, 503, 509, 521, 523, 541, 547, 557, 563, 569, 571, 577, 587, 593, 599, 601, 607, 613, 617, 619, 631, 641, 643, 647, 653, 659, 661, 673, 677, 683, 691, 701, 709, 719, 727, 733, 739, 743, 751, 757, 761, 769, 773, 787, 797, 809, 811, 821, 823, 827, 829, 839, 853, 857, 859, 863, 877, 881, 883, 887, 907, 911, 919, 929, 937, 941, 947, 953, 967, 971, 977, 983, 991, 997, 1009, 1013, 1019, 1021, 1031, 1033, 1039, 1049, 1051, 1061, 1063, 1069, 1087, 1091, 1093, 1097, 1103, 1109, 1117, 1123, 1129, 1151, 1153, 1163, 1171, 1181, 1187, 1193, 1201, 1213, 1217, 1223, 1229, 1231, 1237, 1249, 1259, 1277, 1279, 1283, 1289, 1291, 1297, 1301, 1303, 1307, 1319, 1321, 1327, 1361, 1367, 1373, 1381, 1399, 1409, 1423, 1427, 1429, 1433, 1439, 1447, 1451, 1453, 1459, 1471, 1481, 1483, 1487, 1489, 1493, 1499, 1511, 1523, 1531, 1543, 1549, 1553, 1559, 1567, 1571, 1579, 1583, 1597, 1601, 1607, 1609, 1613, 1619, 1621, 1627, 1637, 1657, 1663, 1667, 1669, 1693, 1697, 1699, 1709, 1721, 1723, 1733, 1741, 1747, 1753, 1759, 1777, 1783, 1787, 1789, 1801, 1811, 1823, 1831, 1847, 1861, 1867, 1871, 1873, 1877, 1879, 1889, 1901, 1907, 1913, 1931, 1933, 1949, 1951, 1973, 1979, 1987, 1993, 1997, 1999, 2003, 2011, 2017, 2027, 2029, 2039, 2053, 2063, 2069, 2081, 2083, 2087, 2089, 2099, 2111, 2113, 2129, 2131, 2137, 2141, 2143, 2153, 2161, 2179, 2203, 2207, 2213, 2221, 2237, 2239, 2243, 2251, 2267, 2269, 2273, 2281, 2287, 2293, 2297, 2309, 2311, 2333, 2339, 2341, 2347, 2351, 2357, 2371, 2377, 2381, 2383, 2389, 2393, 2399, 2411, 2417, 2423, 2437, 2441, 2447, 2459, 2467, 2473, 2477, 2503, 2521, 2531, 2539, 2543, 2549, 2551, 2557, 2579, 2591, 2593, 2609, 2617, 2621, 2633, 2647, 2657, 2659, 2663, 2671, 2677, 2683, 2687, 2689, 2693, 2699, 2707, 2711, 2713, 2719, 2729, 2731, 2741, 2749, 2753, 2767, 2777, 2789, 2791, 2797, 2801, 2803, 2819, 2833, 2837, 2843, 2851, 2857, 2861, 2879, 2887, 2897, 2903, 2909, 2917, 2927, 2939, 2953, 2957, 2963, 2969, 2971, 2999, 3001, 3011, 3019, 3023, 3037, 3041, 3049, 3061, 3067, 3079, 3083, 3089, 3109, 3119, 3121, 3137, 3163, 3167, 3169, 3181, 3187, 3191, 3203, 3209, 3217, 3221, 3229, 3251, 3253, 3257, 3259, 3271, 3299, 3301, 3307, 3313, 3319, 3323, 3329, 3331, 3343, 3347, 3359, 3361, 3371, 3373, 3389, 3391, 3407, 3413, 3433, 3449, 3457, 3461, 3463, 3467, 3469, 3491, 3499, 3511, 3517, 3527, 3529, 3533, 3539, 3541, 3547, 3557, 3559, 3571, 3581, 3583, 3593, 3607, 3613, 3617, 3623, 3631, 3637, 3643, 3659, 3671, 3673, 3677, 3691, 3697, 3701, 3709, 3719, 3727, 3733, 3739, 3761, 3767, 3769, 3779, 3793, 3797, 3803, 3821, 3823, 3833, 3847, 3851, 3853, 3863, 3877, 3881, 3889, 3907, 3911, 3917, 3919, 3923, 3929, 3931, 3943, 3947, 3967, 3989, 4001, 4003, 4007, 4013, 4019, 4021, 4027, 4049, 4051, 4057, 4073, 4079, 4091, 4093, 4099, 4111, 4127, 4129, 4133, 4139, 4153, 4157, 4159, 4177, 4201, 4211, 4217, 4219, 4229, 4231, 4241, 4243, 4253, 4259, 4261, 4271, 4273, 4283, 4289, 4297, 4327, 4337, 4339, 4349, 4357, 4363, 4373, 4391, 4397, 4409, 4421, 4423, 4441, 4447, 4451, 4457, 4463, 4481, 4483, 4493, 4507, 4513, 4517, 4519, 4523, 4547, 4549, 4561, 4567, 4583, 4591, 4597, 4603, 4621, 4637, 4639, 4643, 4649, 4651, 4657, 4663, 4673, 4679, 4691, 4703, 4721, 4723, 4729, 4733, 4751, 4759, 4783, 4787, 4789, 4793, 4799, 4801, 4813, 4817, 4831, 4861, 4871, 4877, 4889, 4903, 4909, 4919, 4931, 4933, 4937, 4943, 4951, 4957, 4967, 4969, 4973, 4987, 4993, 4999, 5003, 5009, 5011, 5021, 5023, 5039, 5051, 5059, 5077, 5081, 5087, 5099, 5101, 5107, 5113, 5119, 5147, 5153, 5167, 5171, 5179, 5189, 5197, 5209, 5227, 5231, 5233, 5237, 5261, 5273, 5279, 5281, 5297, 5303, 5309, 5323, 5333, 5347, 5351, 5381, 5387, 5393, 5399, 5407, 5413, 5417, 5419, 5431, 5437, 5441, 5443, 5449, 5471, 5477, 5479, 5483, 5501, 5503, 5507, 5519, 5521, 5527, 5531, 5557, 5563, 5569, 5573, 5581, 5591, 5623, 5639, 5641, 5647, 5651, 5653, 5657, 5659, 5669, 5683, 5689, 5693, 5701, 5711, 5717, 5737, 5741, 5743, 5749, 5779, 5783, 5791, 5801, 5807, 5813, 5821, 5827, 5839, 5843, 5849, 5851, 5857, 5861, 5867, 5869, 5879, 5881, 5897, 5903, 5923, 5927, 5939, 5953, 5981, 5987, 6007, 6011, 6029, 6037, 6043, 6047, 6053, 6067, 6073, 6079, 6089, 6091, 6101, 6113, 6121, 6131, 6133, 6143, 6151, 6163, 6173, 6197, 6199, 6203, 6211, 6217, 6221, 6229, 6247, 6257, 6263, 6269, 6271, 6277, 6287, 6299, 6301, 6311, 6317, 6323, 6329, 6337, 6343, 6353, 6359, 6361, 6367, 6373, 6379, 6389, 6397, 6421, 6427, 6449, 6451, 6469, 6473, 6481, 6491, 6521, 6529, 6547, 6551, 6553, 6563, 6569, 6571, 6577, 6581, 6599, 6607, 6619, 6637, 6653, 6659, 6661, 6673, 6679, 6689, 6691, 6701, 6703, 6709, 6719, 6733, 6737, 6761, 6763, 6779, 6781, 6791, 6793, 6803, 6823, 6827, 6829, 6833, 6841, 6857, 6863, 6869, 6871, 6883, 6899, 6907, 6911, 6917, 6947, 6949, 6959, 6961, 6967, 6971, 6977, 6983, 6991, 6997, 7001, 7013, 7019, 7027, 7039, 7043, 7057, 7069, 7079, 7103, 7109, 7121, 7127, 7129, 7151, 7159, 7177, 7187, 7193, 7207, 7211, 7213, 7219, 7229, 7237, 7243, 7247, 7253, 7283, 7297, 7307, 7309, 7321, 7331, 7333, 7349, 7351, 7369, 7393, 7411, 7417, 7433, 7451, 7457, 7459, 7477, 7481, 7487, 7489, 7499, 7507, 7517, 7523, 7529, 7537, 7541, 7547, 7549, 7559, 7561, 7573, 7577, 7583, 7589, 7591, 7603, 7607, 7621, 7639, 7643, 7649, 7669, 7673, 7681, 7687, 7691, 7699, 7703, 7717, 7723, 7727, 7741, 7753, 7757, 7759, 7789, 7793, 7817, 7823, 7829, 7841, 7853, 7867, 7873, 7877, 7879, 7883, 7901, 7907, 7919, 7927, 7933, 7937, 7949, 7951, 7963, 7993, 8009, 8011, 8017, 8039, 8053, 8059, 8069, 8081, 8087, 8089, 8093, 8101, 8111, 8117, 8123, 8147, 8161, 8167, 8171, 8179, 8191, 8209, 8219, 8221, 8231, 8233, 8237, 8243, 8263, 8269, 8273, 8287, 8291, 8293, 8297, 8311, 8317, 8329, 8353, 8363, 8369, 8377, 8387, 8389, 8419, 8423, 8429, 8431, 8443, 8447, 8461, 8467, 8501, 8513, 8521, 8527, 8537, 8539, 8543, 8563, 8573, 8581, 8597, 8599, 8609, 8623, 8627, 8629, 8641, 8647, 8663, 8669, 8677, 8681, 8689, 8693, 8699, 8707, 8713, 8719, 8731, 8737, 8741, 8747, 8753, 8761, 8779, 8783, 8803, 8807, 8819, 8821, 8831, 8837, 8839, 8849, 8861, 8863, 8867, 8887, 8893, 8923, 8929, 8933, 8941, 8951, 8963, 8969, 8971, 8999, 9001, 9007, 9011, 9013, 9029, 9041, 9043, 9049, 9059, 9067, 9091, 9103, 9109, 9127, 9133, 9137, 9151, 9157, 9161, 9173, 9181, 9187, 9199, 9203, 9209, 9221, 9227, 9239, 9241, 9257, 9277, 9281, 9283, 9293, 9311, 9319, 9323, 9337, 9341, 9343, 9349, 9371, 9377, 9391, 9397, 9403, 9413, 9419, 9421, 9431, 9433, 9437, 9439, 9461, 9463, 9467, 9473, 9479, 9491, 9497, 9511, 9521, 9533, 9539, 9547, 9551, 9587, 9601, 9613, 9619, 9623, 9629, 9631, 9643, 9649, 9661, 9677, 9679, 9689, 9697, 9719, 9721, 9733, 9739, 9743, 9749, 9767, 9769, 9781, 9787, 9791, 9803, 9811, 9817, 9829, 9833, 9839, 9851, 9857, 9859, 9871, 9883, 9887, 9901, 9907, 9923, 9929, 9931, 9941, 9949, 9967, 9973, 10007, 10009, 10037, 10039, 10061, 10067, 10069, 10079, 10091, 10093, 10099, 10103, 10111, 10133, 10139, 10141, 10151, 10159, 10163, 10169, 10177, 10181, 10193, 10211, 10223, 10243, 10247, 10253, 10259, 10267, 10271, 10273, 10289, 10301, 10303, 10313, 10321, 10331, 10333, 10337, 10343, 10357, 10369, 10391, 10399, 10427, 10429, 10433, 10453, 10457, 10459, 10463, 10477, 10487, 10499, 10501, 10513, 10529, 10531, 10559, 10567, 10589, 10597, 10601, 10607, 10613, 10627, 10631, 10639, 10651, 10657, 10663, 10667}, int(x))
: rdtable;
// gi = 1.618;
depth = 50*hslider("mDepth[style:knob]",0.1,0.0,1.0,0.001);
freq = hslider("mFreq[style:knob]",2.0,0.0,10.0,0.01);
wet = hslider("wet[style:knob]",0.5,0.0,1.0,0.01);
low = hslider("lowX[style:knob]",1.0,0.0,1.0,0.01);
mid = hslider("midX[style:knob]",1.0,0.0,1.0,0.01);
high = hslider("highX[style:knob]",1.0,0.0,1.0,0.01);
early_diff = hslider("earlyDiff[style:knob]", 0.707, 0.0 ,0.99,0.001);
low_cutoff = hslider("lowBand[style:knob]",500,100.0,6000.0,0.1);
high_cutoff = hslider("highBand[style:knob]",2000,1000.0,10000.0,0.1);
size = hslider("size[style:knob]",1.0, 0.5,3.0,0.01): si.smooth(0.9999);
T60 = hslider("t60[style:knob]",1.0,0.1,60.0,0.1): si.smooth(0.9999);
damping = hslider("damp[style:knob]",0.0,0.0,0.999,0.0001);
calib = 1.7; // Calibration constant given by T60 in seconds when fb = 0.5
total_length = calib*0.1*(size*5/4 -1/4);
fb = 10^(-3/((T60)/(total_length)));
smooth_init(s,default) = *(1.0 - s) : + ~ (+(default*init(1)):*(s))
with
{
init(value) = value - value';
};
diffuser(angle,g,scale1,scale2) = si.bus(2) <: ( (si.bus(2) :par(i,2,*(c_norm))
: (( si.bus(4) :> si.bus(2) :rotator(angle) : (
de.fdelay1a(8192, prime_delays(size*scale1):smooth_init(0.9999,prime_delays(size*scale1)) -1 ),
de.fdelay1a(8192, prime_delays(size*scale2):smooth_init(0.9999,prime_delays(size*scale2)) -1 )
) )~par(i,2,*(-s_norm)))
: par(i,2,mem:*(c_norm)) )
,
par(i,2,*(s_norm)))
:> si.bus(2)
with
{
rotator(angle) = si.bus(2) <: (*(c),*(-s),*(s),*(c)) :(+,+) : si.bus(2)
with{
c = cos(angle);
s = sin(angle);
};
c_norm = cos(g);
s_norm = sin(g);
};
reverb = ( ( si.bus(4) :> (de.fdelay4(512, depth + depth*os.oscrs(freq) +5 ),de.fdelay4(512, depth + depth*os.oscrc(freq)+ 5 ) )
: par(i,2,si.smooth(damping)) : diffuser(ma.PI/4,early_diff,55,240) :diffuser(ma.PI/4,early_diff,215,85):diffuser(ma.PI/4,early_diff,115,190):diffuser(ma.PI/4,early_diff,175,145)
) ~(
seq(i,5,diffuser(ma.PI/4,0.707,10+30*i,110 + 30*i) ): par(i,2,de.fdelay4(512, depth + (-1^i)*depth*os.oscrc(freq)+5):de.fdelay1a(8192,(prime_delays(size*(54+150*i)):smooth_init(0.995,prime_delays(size*(54+150*i)))) -1 )) :
seq(i,5,diffuser(ma.PI/4,0.707,125+30*i, 25+30*i) ): par(i,2,de.fdelay4(8192, depth + (-1^i)*depth*os.oscrs(freq) + 5) : de.fdelay1a(8192,(prime_delays(size*(134-100*i)):smooth_init(0.995,prime_delays(size*(134-100*i)))) -1 )) :
par(i,2, fi.filterbank(5,(low_cutoff,high_cutoff) ):(_*(high),_*(mid),_*(low)) :> _ ):
par(i,2,*(fb))
));
//Alesis Style 2-channel
// with wet control
// process = (_,_) <: ((reverb:par(i,2,_*(wet))), par(i,2,_*(1-wet))) :> (_,_);
// without wet control
process = (_,_) : reverb : (_,_);
|
https://raw.githubusercontent.com/guizmo2000/WebAudioPluginBank/9d7a3c1bd0977d57316046c116c217dccd6caa10/jordan-SINTES/ReverbRaw/ReverbRaw.dsp
|
faust
|
using exteral function to access list of prime numbers is slightly faster than an inline approach (as of 428bf3b)
prime_delays = ffunction(int primes (int),<jprev.h>,"primes");
gi = 1.618;
Calibration constant given by T60 in seconds when fb = 0.5
Alesis Style 2-channel
with wet control
process = (_,_) <: ((reverb:par(i,2,_*(wet))), par(i,2,_*(1-wet))) :> (_,_);
without wet control
|
declare name "JPverbRaw";
declare version "1.1";
declare author "Julian Parker, bug fixes by Till Bovermann";
declare license "GPL2+";
declare copyright "(c) Julian Parker 2013";
import("stdfaust.lib");
allpass_stretched(maxdel,N,a) = (+ <: de.fdelay1a(maxdel,N-1),*(a)) ~ *(-a) : mem, _ : + ;
prime_delays(x) = (waveform {2, 3, 5, 7, 11, 13, 17, 19, 23, 29, 31, 37, 41, 43, 47, 53, 59, 61, 67, 71, 73, 79, 83, 89, 97, 101, 103, 107, 109, 113, 127, 131, 137, 139, 149, 151, 157, 163, 167, 173, 179, 181, 191, 193, 197, 199, 211, 223, 227, 229, 233, 239, 241, 251, 257, 263, 269, 271, 277, 281, 283, 293, 307, 311, 313, 317, 331, 337, 347, 349, 353, 359, 367, 373, 379, 383, 389, 397, 401, 409, 419, 421, 431, 433, 439, 443, 449, 457, 461, 463, 467, 479, 487, 491, 499, 503, 509, 521, 523, 541, 547, 557, 563, 569, 571, 577, 587, 593, 599, 601, 607, 613, 617, 619, 631, 641, 643, 647, 653, 659, 661, 673, 677, 683, 691, 701, 709, 719, 727, 733, 739, 743, 751, 757, 761, 769, 773, 787, 797, 809, 811, 821, 823, 827, 829, 839, 853, 857, 859, 863, 877, 881, 883, 887, 907, 911, 919, 929, 937, 941, 947, 953, 967, 971, 977, 983, 991, 997, 1009, 1013, 1019, 1021, 1031, 1033, 1039, 1049, 1051, 1061, 1063, 1069, 1087, 1091, 1093, 1097, 1103, 1109, 1117, 1123, 1129, 1151, 1153, 1163, 1171, 1181, 1187, 1193, 1201, 1213, 1217, 1223, 1229, 1231, 1237, 1249, 1259, 1277, 1279, 1283, 1289, 1291, 1297, 1301, 1303, 1307, 1319, 1321, 1327, 1361, 1367, 1373, 1381, 1399, 1409, 1423, 1427, 1429, 1433, 1439, 1447, 1451, 1453, 1459, 1471, 1481, 1483, 1487, 1489, 1493, 1499, 1511, 1523, 1531, 1543, 1549, 1553, 1559, 1567, 1571, 1579, 1583, 1597, 1601, 1607, 1609, 1613, 1619, 1621, 1627, 1637, 1657, 1663, 1667, 1669, 1693, 1697, 1699, 1709, 1721, 1723, 1733, 1741, 1747, 1753, 1759, 1777, 1783, 1787, 1789, 1801, 1811, 1823, 1831, 1847, 1861, 1867, 1871, 1873, 1877, 1879, 1889, 1901, 1907, 1913, 1931, 1933, 1949, 1951, 1973, 1979, 1987, 1993, 1997, 1999, 2003, 2011, 2017, 2027, 2029, 2039, 2053, 2063, 2069, 2081, 2083, 2087, 2089, 2099, 2111, 2113, 2129, 2131, 2137, 2141, 2143, 2153, 2161, 2179, 2203, 2207, 2213, 2221, 2237, 2239, 2243, 2251, 2267, 2269, 2273, 2281, 2287, 2293, 2297, 2309, 2311, 2333, 2339, 2341, 2347, 2351, 2357, 2371, 2377, 2381, 2383, 2389, 2393, 2399, 2411, 2417, 2423, 2437, 2441, 2447, 2459, 2467, 2473, 2477, 2503, 2521, 2531, 2539, 2543, 2549, 2551, 2557, 2579, 2591, 2593, 2609, 2617, 2621, 2633, 2647, 2657, 2659, 2663, 2671, 2677, 2683, 2687, 2689, 2693, 2699, 2707, 2711, 2713, 2719, 2729, 2731, 2741, 2749, 2753, 2767, 2777, 2789, 2791, 2797, 2801, 2803, 2819, 2833, 2837, 2843, 2851, 2857, 2861, 2879, 2887, 2897, 2903, 2909, 2917, 2927, 2939, 2953, 2957, 2963, 2969, 2971, 2999, 3001, 3011, 3019, 3023, 3037, 3041, 3049, 3061, 3067, 3079, 3083, 3089, 3109, 3119, 3121, 3137, 3163, 3167, 3169, 3181, 3187, 3191, 3203, 3209, 3217, 3221, 3229, 3251, 3253, 3257, 3259, 3271, 3299, 3301, 3307, 3313, 3319, 3323, 3329, 3331, 3343, 3347, 3359, 3361, 3371, 3373, 3389, 3391, 3407, 3413, 3433, 3449, 3457, 3461, 3463, 3467, 3469, 3491, 3499, 3511, 3517, 3527, 3529, 3533, 3539, 3541, 3547, 3557, 3559, 3571, 3581, 3583, 3593, 3607, 3613, 3617, 3623, 3631, 3637, 3643, 3659, 3671, 3673, 3677, 3691, 3697, 3701, 3709, 3719, 3727, 3733, 3739, 3761, 3767, 3769, 3779, 3793, 3797, 3803, 3821, 3823, 3833, 3847, 3851, 3853, 3863, 3877, 3881, 3889, 3907, 3911, 3917, 3919, 3923, 3929, 3931, 3943, 3947, 3967, 3989, 4001, 4003, 4007, 4013, 4019, 4021, 4027, 4049, 4051, 4057, 4073, 4079, 4091, 4093, 4099, 4111, 4127, 4129, 4133, 4139, 4153, 4157, 4159, 4177, 4201, 4211, 4217, 4219, 4229, 4231, 4241, 4243, 4253, 4259, 4261, 4271, 4273, 4283, 4289, 4297, 4327, 4337, 4339, 4349, 4357, 4363, 4373, 4391, 4397, 4409, 4421, 4423, 4441, 4447, 4451, 4457, 4463, 4481, 4483, 4493, 4507, 4513, 4517, 4519, 4523, 4547, 4549, 4561, 4567, 4583, 4591, 4597, 4603, 4621, 4637, 4639, 4643, 4649, 4651, 4657, 4663, 4673, 4679, 4691, 4703, 4721, 4723, 4729, 4733, 4751, 4759, 4783, 4787, 4789, 4793, 4799, 4801, 4813, 4817, 4831, 4861, 4871, 4877, 4889, 4903, 4909, 4919, 4931, 4933, 4937, 4943, 4951, 4957, 4967, 4969, 4973, 4987, 4993, 4999, 5003, 5009, 5011, 5021, 5023, 5039, 5051, 5059, 5077, 5081, 5087, 5099, 5101, 5107, 5113, 5119, 5147, 5153, 5167, 5171, 5179, 5189, 5197, 5209, 5227, 5231, 5233, 5237, 5261, 5273, 5279, 5281, 5297, 5303, 5309, 5323, 5333, 5347, 5351, 5381, 5387, 5393, 5399, 5407, 5413, 5417, 5419, 5431, 5437, 5441, 5443, 5449, 5471, 5477, 5479, 5483, 5501, 5503, 5507, 5519, 5521, 5527, 5531, 5557, 5563, 5569, 5573, 5581, 5591, 5623, 5639, 5641, 5647, 5651, 5653, 5657, 5659, 5669, 5683, 5689, 5693, 5701, 5711, 5717, 5737, 5741, 5743, 5749, 5779, 5783, 5791, 5801, 5807, 5813, 5821, 5827, 5839, 5843, 5849, 5851, 5857, 5861, 5867, 5869, 5879, 5881, 5897, 5903, 5923, 5927, 5939, 5953, 5981, 5987, 6007, 6011, 6029, 6037, 6043, 6047, 6053, 6067, 6073, 6079, 6089, 6091, 6101, 6113, 6121, 6131, 6133, 6143, 6151, 6163, 6173, 6197, 6199, 6203, 6211, 6217, 6221, 6229, 6247, 6257, 6263, 6269, 6271, 6277, 6287, 6299, 6301, 6311, 6317, 6323, 6329, 6337, 6343, 6353, 6359, 6361, 6367, 6373, 6379, 6389, 6397, 6421, 6427, 6449, 6451, 6469, 6473, 6481, 6491, 6521, 6529, 6547, 6551, 6553, 6563, 6569, 6571, 6577, 6581, 6599, 6607, 6619, 6637, 6653, 6659, 6661, 6673, 6679, 6689, 6691, 6701, 6703, 6709, 6719, 6733, 6737, 6761, 6763, 6779, 6781, 6791, 6793, 6803, 6823, 6827, 6829, 6833, 6841, 6857, 6863, 6869, 6871, 6883, 6899, 6907, 6911, 6917, 6947, 6949, 6959, 6961, 6967, 6971, 6977, 6983, 6991, 6997, 7001, 7013, 7019, 7027, 7039, 7043, 7057, 7069, 7079, 7103, 7109, 7121, 7127, 7129, 7151, 7159, 7177, 7187, 7193, 7207, 7211, 7213, 7219, 7229, 7237, 7243, 7247, 7253, 7283, 7297, 7307, 7309, 7321, 7331, 7333, 7349, 7351, 7369, 7393, 7411, 7417, 7433, 7451, 7457, 7459, 7477, 7481, 7487, 7489, 7499, 7507, 7517, 7523, 7529, 7537, 7541, 7547, 7549, 7559, 7561, 7573, 7577, 7583, 7589, 7591, 7603, 7607, 7621, 7639, 7643, 7649, 7669, 7673, 7681, 7687, 7691, 7699, 7703, 7717, 7723, 7727, 7741, 7753, 7757, 7759, 7789, 7793, 7817, 7823, 7829, 7841, 7853, 7867, 7873, 7877, 7879, 7883, 7901, 7907, 7919, 7927, 7933, 7937, 7949, 7951, 7963, 7993, 8009, 8011, 8017, 8039, 8053, 8059, 8069, 8081, 8087, 8089, 8093, 8101, 8111, 8117, 8123, 8147, 8161, 8167, 8171, 8179, 8191, 8209, 8219, 8221, 8231, 8233, 8237, 8243, 8263, 8269, 8273, 8287, 8291, 8293, 8297, 8311, 8317, 8329, 8353, 8363, 8369, 8377, 8387, 8389, 8419, 8423, 8429, 8431, 8443, 8447, 8461, 8467, 8501, 8513, 8521, 8527, 8537, 8539, 8543, 8563, 8573, 8581, 8597, 8599, 8609, 8623, 8627, 8629, 8641, 8647, 8663, 8669, 8677, 8681, 8689, 8693, 8699, 8707, 8713, 8719, 8731, 8737, 8741, 8747, 8753, 8761, 8779, 8783, 8803, 8807, 8819, 8821, 8831, 8837, 8839, 8849, 8861, 8863, 8867, 8887, 8893, 8923, 8929, 8933, 8941, 8951, 8963, 8969, 8971, 8999, 9001, 9007, 9011, 9013, 9029, 9041, 9043, 9049, 9059, 9067, 9091, 9103, 9109, 9127, 9133, 9137, 9151, 9157, 9161, 9173, 9181, 9187, 9199, 9203, 9209, 9221, 9227, 9239, 9241, 9257, 9277, 9281, 9283, 9293, 9311, 9319, 9323, 9337, 9341, 9343, 9349, 9371, 9377, 9391, 9397, 9403, 9413, 9419, 9421, 9431, 9433, 9437, 9439, 9461, 9463, 9467, 9473, 9479, 9491, 9497, 9511, 9521, 9533, 9539, 9547, 9551, 9587, 9601, 9613, 9619, 9623, 9629, 9631, 9643, 9649, 9661, 9677, 9679, 9689, 9697, 9719, 9721, 9733, 9739, 9743, 9749, 9767, 9769, 9781, 9787, 9791, 9803, 9811, 9817, 9829, 9833, 9839, 9851, 9857, 9859, 9871, 9883, 9887, 9901, 9907, 9923, 9929, 9931, 9941, 9949, 9967, 9973, 10007, 10009, 10037, 10039, 10061, 10067, 10069, 10079, 10091, 10093, 10099, 10103, 10111, 10133, 10139, 10141, 10151, 10159, 10163, 10169, 10177, 10181, 10193, 10211, 10223, 10243, 10247, 10253, 10259, 10267, 10271, 10273, 10289, 10301, 10303, 10313, 10321, 10331, 10333, 10337, 10343, 10357, 10369, 10391, 10399, 10427, 10429, 10433, 10453, 10457, 10459, 10463, 10477, 10487, 10499, 10501, 10513, 10529, 10531, 10559, 10567, 10589, 10597, 10601, 10607, 10613, 10627, 10631, 10639, 10651, 10657, 10663, 10667}, int(x))
: rdtable;
depth = 50*hslider("mDepth[style:knob]",0.1,0.0,1.0,0.001);
freq = hslider("mFreq[style:knob]",2.0,0.0,10.0,0.01);
wet = hslider("wet[style:knob]",0.5,0.0,1.0,0.01);
low = hslider("lowX[style:knob]",1.0,0.0,1.0,0.01);
mid = hslider("midX[style:knob]",1.0,0.0,1.0,0.01);
high = hslider("highX[style:knob]",1.0,0.0,1.0,0.01);
early_diff = hslider("earlyDiff[style:knob]", 0.707, 0.0 ,0.99,0.001);
low_cutoff = hslider("lowBand[style:knob]",500,100.0,6000.0,0.1);
high_cutoff = hslider("highBand[style:knob]",2000,1000.0,10000.0,0.1);
size = hslider("size[style:knob]",1.0, 0.5,3.0,0.01): si.smooth(0.9999);
T60 = hslider("t60[style:knob]",1.0,0.1,60.0,0.1): si.smooth(0.9999);
damping = hslider("damp[style:knob]",0.0,0.0,0.999,0.0001);
total_length = calib*0.1*(size*5/4 -1/4);
fb = 10^(-3/((T60)/(total_length)));
smooth_init(s,default) = *(1.0 - s) : + ~ (+(default*init(1)):*(s))
with
{
init(value) = value - value';
};
diffuser(angle,g,scale1,scale2) = si.bus(2) <: ( (si.bus(2) :par(i,2,*(c_norm))
: (( si.bus(4) :> si.bus(2) :rotator(angle) : (
de.fdelay1a(8192, prime_delays(size*scale1):smooth_init(0.9999,prime_delays(size*scale1)) -1 ),
de.fdelay1a(8192, prime_delays(size*scale2):smooth_init(0.9999,prime_delays(size*scale2)) -1 )
) )~par(i,2,*(-s_norm)))
: par(i,2,mem:*(c_norm)) )
,
par(i,2,*(s_norm)))
:> si.bus(2)
with
{
rotator(angle) = si.bus(2) <: (*(c),*(-s),*(s),*(c)) :(+,+) : si.bus(2)
with{
c = cos(angle);
s = sin(angle);
};
c_norm = cos(g);
s_norm = sin(g);
};
reverb = ( ( si.bus(4) :> (de.fdelay4(512, depth + depth*os.oscrs(freq) +5 ),de.fdelay4(512, depth + depth*os.oscrc(freq)+ 5 ) )
: par(i,2,si.smooth(damping)) : diffuser(ma.PI/4,early_diff,55,240) :diffuser(ma.PI/4,early_diff,215,85):diffuser(ma.PI/4,early_diff,115,190):diffuser(ma.PI/4,early_diff,175,145)
) ~(
seq(i,5,diffuser(ma.PI/4,0.707,10+30*i,110 + 30*i) ): par(i,2,de.fdelay4(512, depth + (-1^i)*depth*os.oscrc(freq)+5):de.fdelay1a(8192,(prime_delays(size*(54+150*i)):smooth_init(0.995,prime_delays(size*(54+150*i)))) -1 )) :
seq(i,5,diffuser(ma.PI/4,0.707,125+30*i, 25+30*i) ): par(i,2,de.fdelay4(8192, depth + (-1^i)*depth*os.oscrs(freq) + 5) : de.fdelay1a(8192,(prime_delays(size*(134-100*i)):smooth_init(0.995,prime_delays(size*(134-100*i)))) -1 )) :
par(i,2, fi.filterbank(5,(low_cutoff,high_cutoff) ):(_*(high),_*(mid),_*(low)) :> _ ):
par(i,2,*(fb))
));
process = (_,_) : reverb : (_,_);
|
ddb75dc12593cd7376b74428a1e06f679d315ea9e1a14782e4510e8a6da418c9
|
polyeffects/PolyLV2
|
vibrato_ext.dsp
|
import("stdfaust.lib");
vibrato2_mono(sections,fb,width,frqmin,fratio,frqmax, lfo) =
(+ : seq(i,sections,ap2p(R,th(i)))) ~ *(fb)
with {
//tf2 = component("filters.lib").tf2;
// second-order resonant digital allpass given pole radius and angle:
ap2p(R,th) = fi.tf2(a2,a1,1,a1,a2) with {
a2 = R^2;
a1 = -2*R*cos(th);
};
R = exp(-pi*width/ma.SR);
pi = 4*atan(1);
thmin = 2*pi*frqmin/ma.SR;
thmax = 2*pi*frqmax/ma.SR;
th1 = thmin + (thmax-thmin)*lfo;
th(i) = (fratio^(i+1))*th1;
};
phaser2_mono(Notches,width,frqmin,fratio,frqmax,depth,fb,invert, lfo) =
_ <: *(g1) + g2mi*vibrato2_mono(Notches, fb,width,frqmin,fratio,frqmax, lfo)
with { // depth=0 => direct-signal only
g1 = 1-depth/2; // depth=1 => phaser mode (equal sum of direct and allpass-chain)
g2 = depth/2; // depth=2 => vibrato mode (allpass-chain signal only)
g2mi = select2(invert,g2,-g2); // inversion negates the allpass-chain signal
};
process = phaser2_demo;
phaser2_demo(lfo) = phaser2_mono(Notches, width,frqmin,fratio,frqmax, mdepth,fb,invert, lfo);
phaser2_group(x) = vgroup("PHASER2 [tooltip: Reference:
https://ccrma.stanford.edu/~jos/pasp/Flanging.html]", x);
meter_group(x) = phaser2_group(hgroup("[0]", x));
ctl_group(x) = phaser2_group(hgroup("[1]", x));
nch_group(x) = phaser2_group(hgroup("[2]", x));
lvl_group(x) = phaser2_group(hgroup("[3]", x));
invert = meter_group(checkbox("[1] Invert Internal Phaser Sum"));
vibr = meter_group(checkbox("[2] Vibrato Mode")); // In this mode you can hear any "Doppler"
Notches = 6; // Compile-time parameter: 4 is typical for analog phaser stomp-boxes
depth = ctl_group(hslider("[2] Notch Depth (Intensity) [style:knob]", 1, 0, 1, 0.001));
fb = ctl_group(hslider("[3] Feedback Gain [style:knob]", 0, -0.999, 0.999, 0.001));
width = nch_group(hslider("[1] Notch width [unit:Hz] [style:knob] [scale:log]",
1000, 10, 5000, 1));
frqmin = nch_group(hslider("[2] Min Notch1 Freq [unit:Hz] [style:knob] [scale:log]",
100, 20, 5000, 1));
frqmax = nch_group(hslider("[3] Max Notch1 Freq [unit:Hz] [style:knob] [scale:log]",
800, 20, 10000, 1)) : max(frqmin);
fratio = nch_group(hslider("[4] Notch Freq Ratio [style:knob]",
1.5, 1.1, 4, 0.001));
mdepth = select2(vibr,depth,2); // Improve "ease of use"
|
https://raw.githubusercontent.com/polyeffects/PolyLV2/a363599f74fd1bce0b3744221e1883fdbe89c557/poly_vibrato_ext/vibrato_ext.dsp
|
faust
|
tf2 = component("filters.lib").tf2;
second-order resonant digital allpass given pole radius and angle:
depth=0 => direct-signal only
depth=1 => phaser mode (equal sum of direct and allpass-chain)
depth=2 => vibrato mode (allpass-chain signal only)
inversion negates the allpass-chain signal
ccrma.stanford.edu/~jos/pasp/Flanging.html]", x);
In this mode you can hear any "Doppler"
Compile-time parameter: 4 is typical for analog phaser stomp-boxes
Improve "ease of use"
|
import("stdfaust.lib");
vibrato2_mono(sections,fb,width,frqmin,fratio,frqmax, lfo) =
(+ : seq(i,sections,ap2p(R,th(i)))) ~ *(fb)
with {
ap2p(R,th) = fi.tf2(a2,a1,1,a1,a2) with {
a2 = R^2;
a1 = -2*R*cos(th);
};
R = exp(-pi*width/ma.SR);
pi = 4*atan(1);
thmin = 2*pi*frqmin/ma.SR;
thmax = 2*pi*frqmax/ma.SR;
th1 = thmin + (thmax-thmin)*lfo;
th(i) = (fratio^(i+1))*th1;
};
phaser2_mono(Notches,width,frqmin,fratio,frqmax,depth,fb,invert, lfo) =
_ <: *(g1) + g2mi*vibrato2_mono(Notches, fb,width,frqmin,fratio,frqmax, lfo)
};
process = phaser2_demo;
phaser2_demo(lfo) = phaser2_mono(Notches, width,frqmin,fratio,frqmax, mdepth,fb,invert, lfo);
phaser2_group(x) = vgroup("PHASER2 [tooltip: Reference:
meter_group(x) = phaser2_group(hgroup("[0]", x));
ctl_group(x) = phaser2_group(hgroup("[1]", x));
nch_group(x) = phaser2_group(hgroup("[2]", x));
lvl_group(x) = phaser2_group(hgroup("[3]", x));
invert = meter_group(checkbox("[1] Invert Internal Phaser Sum"));
depth = ctl_group(hslider("[2] Notch Depth (Intensity) [style:knob]", 1, 0, 1, 0.001));
fb = ctl_group(hslider("[3] Feedback Gain [style:knob]", 0, -0.999, 0.999, 0.001));
width = nch_group(hslider("[1] Notch width [unit:Hz] [style:knob] [scale:log]",
1000, 10, 5000, 1));
frqmin = nch_group(hslider("[2] Min Notch1 Freq [unit:Hz] [style:knob] [scale:log]",
100, 20, 5000, 1));
frqmax = nch_group(hslider("[3] Max Notch1 Freq [unit:Hz] [style:knob] [scale:log]",
800, 20, 10000, 1)) : max(frqmin);
fratio = nch_group(hslider("[4] Notch Freq Ratio [style:knob]",
1.5, 1.1, 4, 0.001));
|
2221f6062cbdeda146590d6a4c89f9a01070af21fa7d2fe776dcea432b193709
|
polyeffects/PolyLV2
|
vibrato.dsp
|
import("stdfaust.lib");
vibrato2_mono(sections,phase01,fb,width,frqmin,fratio,frqmax,speed) =
(+ : seq(i,sections,ap2p(R,th(i)))) ~ *(fb)
with {
//tf2 = component("filters.lib").tf2;
// second-order resonant digital allpass given pole radius and angle:
ap2p(R,th) = fi.tf2(a2,a1,1,a1,a2) with {
a2 = R^2;
a1 = -2*R*cos(th);
};
R = exp(-pi*width/ma.SR);
cososc = os.oscrc; // oscillators.lib
sinosc = os.oscrs; // oscillators.lib
osc = cososc(speed) * phase01 + sinosc(speed) * (1-phase01);
lfo = (1-osc)/2; // in [0,1]
pi = 4*atan(1);
thmin = 2*pi*frqmin/ma.SR;
thmax = 2*pi*frqmax/ma.SR;
th1 = thmin + (thmax-thmin)*lfo;
th(i) = (fratio^(i+1))*th1;
};
phaser2_mono(Notches,phase01,width,frqmin,fratio,frqmax,speed,depth,fb,invert) =
_ <: *(g1) + g2mi*vibrato2_mono(Notches,phase01,fb,width,frqmin,fratio,frqmax,speed)
with { // depth=0 => direct-signal only
g1 = 1-depth/2; // depth=1 => phaser mode (equal sum of direct and allpass-chain)
g2 = depth/2; // depth=2 => vibrato mode (allpass-chain signal only)
g2mi = select2(invert,g2,-g2); // inversion negates the allpass-chain signal
};
process = phaser2_demo;
phaser2_demo = pf.phaser2_mono(Notches,phase01, width,frqmin,fratio,frqmax,rate,mdepth,fb,invert);
phaser2_group(x) = vgroup("PHASER2 [tooltip: Reference:
https://ccrma.stanford.edu/~jos/pasp/Flanging.html]", x);
meter_group(x) = phaser2_group(hgroup("[0]", x));
ctl_group(x) = phaser2_group(hgroup("[1]", x));
nch_group(x) = phaser2_group(hgroup("[2]", x));
lvl_group(x) = phaser2_group(hgroup("[3]", x));
invert = meter_group(checkbox("[1] Invert Internal Phaser Sum"));
vibr = meter_group(checkbox("[2] Vibrato Mode")); // In this mode you can hear any "Doppler"
Notches = 6; // Compile-time parameter: 4 is typical for analog phaser stomp-boxes
bpm = vslider("[1] BPM [midi:ctrl 2] [style:knob]", 30, 4, 300, 0.01);
rateT60 = 0.15661;
rate = bpm / 60 : si.smooth(ba.tau2pole(rateT60/6.91));
depth = ctl_group(hslider("[2] Notch Depth (Intensity) [style:knob]", 1, 0, 1, 0.001));
fb = ctl_group(hslider("[3] Feedback Gain [style:knob]", 0, -0.999, 0.999, 0.001));
phase01 = ctl_group(hslider("[5] Phase [style:knob]", 0, 0, 1, 0.001));
width = nch_group(hslider("[1] Notch width [unit:Hz] [style:knob] [scale:log]",
1000, 10, 5000, 1));
frqmin = nch_group(hslider("[2] Min Notch1 Freq [unit:Hz] [style:knob] [scale:log]",
100, 20, 5000, 1));
frqmax = nch_group(hslider("[3] Max Notch1 Freq [unit:Hz] [style:knob] [scale:log]",
800, 20, 10000, 1)) : max(frqmin);
fratio = nch_group(hslider("[4] Notch Freq Ratio [style:knob]",
1.5, 1.1, 4, 0.001));
mdepth = select2(vibr,depth,2); // Improve "ease of use"
|
https://raw.githubusercontent.com/polyeffects/PolyLV2/a363599f74fd1bce0b3744221e1883fdbe89c557/poly_vibrato/vibrato.dsp
|
faust
|
tf2 = component("filters.lib").tf2;
second-order resonant digital allpass given pole radius and angle:
oscillators.lib
oscillators.lib
in [0,1]
depth=0 => direct-signal only
depth=1 => phaser mode (equal sum of direct and allpass-chain)
depth=2 => vibrato mode (allpass-chain signal only)
inversion negates the allpass-chain signal
ccrma.stanford.edu/~jos/pasp/Flanging.html]", x);
In this mode you can hear any "Doppler"
Compile-time parameter: 4 is typical for analog phaser stomp-boxes
Improve "ease of use"
|
import("stdfaust.lib");
vibrato2_mono(sections,phase01,fb,width,frqmin,fratio,frqmax,speed) =
(+ : seq(i,sections,ap2p(R,th(i)))) ~ *(fb)
with {
ap2p(R,th) = fi.tf2(a2,a1,1,a1,a2) with {
a2 = R^2;
a1 = -2*R*cos(th);
};
R = exp(-pi*width/ma.SR);
osc = cososc(speed) * phase01 + sinosc(speed) * (1-phase01);
pi = 4*atan(1);
thmin = 2*pi*frqmin/ma.SR;
thmax = 2*pi*frqmax/ma.SR;
th1 = thmin + (thmax-thmin)*lfo;
th(i) = (fratio^(i+1))*th1;
};
phaser2_mono(Notches,phase01,width,frqmin,fratio,frqmax,speed,depth,fb,invert) =
_ <: *(g1) + g2mi*vibrato2_mono(Notches,phase01,fb,width,frqmin,fratio,frqmax,speed)
};
process = phaser2_demo;
phaser2_demo = pf.phaser2_mono(Notches,phase01, width,frqmin,fratio,frqmax,rate,mdepth,fb,invert);
phaser2_group(x) = vgroup("PHASER2 [tooltip: Reference:
meter_group(x) = phaser2_group(hgroup("[0]", x));
ctl_group(x) = phaser2_group(hgroup("[1]", x));
nch_group(x) = phaser2_group(hgroup("[2]", x));
lvl_group(x) = phaser2_group(hgroup("[3]", x));
invert = meter_group(checkbox("[1] Invert Internal Phaser Sum"));
bpm = vslider("[1] BPM [midi:ctrl 2] [style:knob]", 30, 4, 300, 0.01);
rateT60 = 0.15661;
rate = bpm / 60 : si.smooth(ba.tau2pole(rateT60/6.91));
depth = ctl_group(hslider("[2] Notch Depth (Intensity) [style:knob]", 1, 0, 1, 0.001));
fb = ctl_group(hslider("[3] Feedback Gain [style:knob]", 0, -0.999, 0.999, 0.001));
phase01 = ctl_group(hslider("[5] Phase [style:knob]", 0, 0, 1, 0.001));
width = nch_group(hslider("[1] Notch width [unit:Hz] [style:knob] [scale:log]",
1000, 10, 5000, 1));
frqmin = nch_group(hslider("[2] Min Notch1 Freq [unit:Hz] [style:knob] [scale:log]",
100, 20, 5000, 1));
frqmax = nch_group(hslider("[3] Max Notch1 Freq [unit:Hz] [style:knob] [scale:log]",
800, 20, 10000, 1)) : max(frqmin);
fratio = nch_group(hslider("[4] Notch Freq Ratio [style:knob]",
1.5, 1.1, 4, 0.001));
|
f38f1d88ba70c2017b55ff432e8f3cef51c779a4996c8762808e0d5a70b539fb
|
polyeffects/digit_carla
|
digit_delay.dsp
|
import("stdfaust.lib");
echo_group(x) = x;
knobs_group(x) = vgroup("[0] Knobs",x);
switches_group(x) = vgroup("[1] Switches",x);
dmax = 1048576; // 21 seconds
dmaxs = float(dmax)/48000.0;
Nnines = 1.8; // Increase until you get the desired maximum amount of smoothing when fbs==1
fastpow2 = ffunction(float fastpow2(float), "fast_pow2.h", "");
fbspr(fbs) = 1.0 - fastpow2(-3.33219*Nnines*fbs); // pole radius of feedback smoother
inputSelect(gi) = _,0 : select2(gi);
echo_mono(dmax,curdel,tapdel,fb,fbspr,gi) = inputSelect(gi) : (+:si.smooth(fbspr)
<: de.fdelay(dmax,curdel),
de.fdelay(dmax,tapdel))
~(*(fb),!) : !,_;
tau2pole(tau) = ba.if(tau>0, exp(-1.0/(tau*ma.SR)), 0.0);
t60smoother(dEchoT60) = si.smooth(tau2pole(dEchoT60/6.91));
bpmT60 = 0.15661;
dBPM = knobs_group(vslider("[0] BPM [midi:ctrl 63] [style:knob]", 120.0, 30.00, 300, 0.1));
dEchoT60 = knobs_group(vslider("[1] DelayT60 [midi:ctrl 60] [style:knob]", 0.5, 0, 100, 0.001));
dEchoBeats = knobs_group(vslider("[0] Delay [midi:ctrl 61] [style:knob]", 0.5, 0.001, 16.0, 0.001));
dEchoSamplesRaw = (60.0 / dBPM) * dEchoBeats * ma.SR; // beats to sample time
dEchoSamples = dEchoSamplesRaw : t60smoother(dEchoT60);
warpRaw = knobs_group(vslider("[0] Warp [midi:ctrl 62] [style:knob]", 0, -1.0, 1.0, 0.001));
scrubAmpRaw = 0;
scrubPhaseRaw = 0;
fb = knobs_group(vslider("[2] Feedback [midi:ctrl 2] [style:knob]", .3, 0.0, 1.0, 0.0001));
amp = knobs_group(vslider("[3] Amp [midi:ctrl 75] [style:knob]", .5, 0, 1, 0.001)) : si.smooth(ba.tau2pole(ampT60/6.91));
ampT60 = 0.15661;
fbs = knobs_group(vslider("[5] [midi:ctrl 76] FeedbackSm [style:knob]", 0, 0, 1, 0.00001));
gi = switches_group(1-vslider("[7] [midi:ctrl 105] EnableEcho[style:knob]",0,0,1,1)); // "ground input" switches input to zeros
// Warp and Scrubber stuff:
enableEcho = (scrubAmpRaw > 0.00001);
triggerScrubOn = (enableEcho - enableEcho') > 0; // enableEcho went 0 to 1
triggerScrubOff = (enableEcho - enableEcho') < 0; // enableEcho went 1 to 0
// Ramps up only during scrub "hold" time and is otherwise zero:
counter = (enableEcho * (triggerScrubOn : + ~ +(1) * enableEcho : -(2))) & (dmax-1);
// implementation that continues scrubbing where it left off:
scrubPhase = scrubPhaseRaw : t60smoother(dEchoT60*(1-triggerScrubOff));
scrubAmp = scrubAmpRaw : t60smoother(dEchoT60*(1-triggerScrubOff));
warp = warpRaw : t60smoother(dEchoT60);
dTapSamplesRaw = dEchoSamplesRaw * (1.0 + warp + scrubPhase * scrubAmp) + float(counter);
dTapSamples = dTapSamplesRaw : t60smoother(dEchoT60*(1-triggerScrubOff));
// process = _ <: _, amp * echo_mono(dmax,dEchoSamples,dTapSamples,fb,fbspr(fbs),gi) : +;
process = _ : amp * echo_mono(dmax,dEchoSamples,dTapSamples,fb,fbspr(fbs),gi);
|
https://raw.githubusercontent.com/polyeffects/digit_carla/75609d7dd365628fca044f64a7141686853e7945/LV2/digit_delay/digit_delay.dsp
|
faust
|
21 seconds
Increase until you get the desired maximum amount of smoothing when fbs==1
pole radius of feedback smoother
beats to sample time
"ground input" switches input to zeros
Warp and Scrubber stuff:
enableEcho went 0 to 1
enableEcho went 1 to 0
Ramps up only during scrub "hold" time and is otherwise zero:
implementation that continues scrubbing where it left off:
process = _ <: _, amp * echo_mono(dmax,dEchoSamples,dTapSamples,fb,fbspr(fbs),gi) : +;
|
import("stdfaust.lib");
echo_group(x) = x;
knobs_group(x) = vgroup("[0] Knobs",x);
switches_group(x) = vgroup("[1] Switches",x);
dmaxs = float(dmax)/48000.0;
fastpow2 = ffunction(float fastpow2(float), "fast_pow2.h", "");
inputSelect(gi) = _,0 : select2(gi);
echo_mono(dmax,curdel,tapdel,fb,fbspr,gi) = inputSelect(gi) : (+:si.smooth(fbspr)
<: de.fdelay(dmax,curdel),
de.fdelay(dmax,tapdel))
~(*(fb),!) : !,_;
tau2pole(tau) = ba.if(tau>0, exp(-1.0/(tau*ma.SR)), 0.0);
t60smoother(dEchoT60) = si.smooth(tau2pole(dEchoT60/6.91));
bpmT60 = 0.15661;
dBPM = knobs_group(vslider("[0] BPM [midi:ctrl 63] [style:knob]", 120.0, 30.00, 300, 0.1));
dEchoT60 = knobs_group(vslider("[1] DelayT60 [midi:ctrl 60] [style:knob]", 0.5, 0, 100, 0.001));
dEchoBeats = knobs_group(vslider("[0] Delay [midi:ctrl 61] [style:knob]", 0.5, 0.001, 16.0, 0.001));
dEchoSamples = dEchoSamplesRaw : t60smoother(dEchoT60);
warpRaw = knobs_group(vslider("[0] Warp [midi:ctrl 62] [style:knob]", 0, -1.0, 1.0, 0.001));
scrubAmpRaw = 0;
scrubPhaseRaw = 0;
fb = knobs_group(vslider("[2] Feedback [midi:ctrl 2] [style:knob]", .3, 0.0, 1.0, 0.0001));
amp = knobs_group(vslider("[3] Amp [midi:ctrl 75] [style:knob]", .5, 0, 1, 0.001)) : si.smooth(ba.tau2pole(ampT60/6.91));
ampT60 = 0.15661;
fbs = knobs_group(vslider("[5] [midi:ctrl 76] FeedbackSm [style:knob]", 0, 0, 1, 0.00001));
enableEcho = (scrubAmpRaw > 0.00001);
counter = (enableEcho * (triggerScrubOn : + ~ +(1) * enableEcho : -(2))) & (dmax-1);
scrubPhase = scrubPhaseRaw : t60smoother(dEchoT60*(1-triggerScrubOff));
scrubAmp = scrubAmpRaw : t60smoother(dEchoT60*(1-triggerScrubOff));
warp = warpRaw : t60smoother(dEchoT60);
dTapSamplesRaw = dEchoSamplesRaw * (1.0 + warp + scrubPhase * scrubAmp) + float(counter);
dTapSamples = dTapSamplesRaw : t60smoother(dEchoT60*(1-triggerScrubOff));
process = _ : amp * echo_mono(dmax,dEchoSamples,dTapSamples,fb,fbspr(fbs),gi);
|
3a377f95dca22d5166169f22898867ecc96ccc94ef8ea544ffb6f4be85b55243
|
polyeffects/digit_carla
|
echo.dsp
|
import("stdfaust.lib");
echo_group(x) = x;
knobs_group(x) = vgroup("[0] Knobs",x);
switches_group(x) = vgroup("[1] Switches",x);
dmax = 1048576; // 21 seconds
dmaxs = float(dmax)/48000.0;
Nnines = 1.8; // Increase until you get the desired maximum amount of smoothing when fbs==1
fastpow2 = ffunction(float fastpow2(float), "fast_pow2.h", "");
fbspr(fbs) = 1.0 - fastpow2(-3.33219*Nnines*fbs); // pole radius of feedback smoother
inputSelect(gi) = _,0 : select2(gi);
echo_mono(dmax,curdel,tapdel,fb,fbspr,gi) = inputSelect(gi) : (+:si.smooth(fbspr)
<: de.fdelay(dmax,curdel),
de.fdelay(dmax,tapdel))
~(*(fb),!) : !,_;
tau2pole(tau) = ba.if(tau>0, exp(-1.0/(tau*ma.SR)), 0.0);
t60smoother(dEchoT60) = si.smooth(tau2pole(dEchoT60/6.91));
bpmT60 = 0.15661;
dBPM = knobs_group(vslider("[0] BPM [midi:ctrl 63] [style:knob]", 120.0, 30.00, 300, 0.1));
dEchoT60 = knobs_group(vslider("[1] DelayT60 [midi:ctrl 60] [style:knob]", 0.5, 0, 100, 0.001));
dEchoBeats = knobs_group(vslider("[0] Delay [midi:ctrl 61] [style:knob]", 0.5, 0.001, 16.0, 0.001));
dEchoSamplesRaw = (60.0 / dBPM) * dEchoBeats * ma.SR; // beats to sample time
dEchoSamples = dEchoSamplesRaw : t60smoother(dEchoT60);
warpRaw = knobs_group(vslider("[0] Warp [midi:ctrl 62] [style:knob]", 0, -1.0, 1.0, 0.001));
scrubAmpRaw = 0;
scrubPhaseRaw = 0;
fb = knobs_group(vslider("[2] Feedback [midi:ctrl 2] [style:knob]", .3, 0.0, 1.0, 0.0001));
amp = knobs_group(vslider("[3] Amp [midi:ctrl 75] [style:knob]", .5, 0, 1, 0.001)) : si.smooth(ba.tau2pole(ampT60/6.91));
ampT60 = 0.15661;
fbs = knobs_group(vslider("[5] [midi:ctrl 76] FeedbackSm [style:knob]", 0, 0, 1, 0.00001));
gi = switches_group(1-vslider("[7] [midi:ctrl 105] EnableEcho[style:knob]",0,0,1,1)); // "ground input" switches input to zeros
// Warp and Scrubber stuff:
enableEcho = (scrubAmpRaw > 0.00001);
triggerScrubOn = (enableEcho - enableEcho') > 0; // enableEcho went 0 to 1
triggerScrubOff = (enableEcho - enableEcho') < 0; // enableEcho went 1 to 0
// Ramps up only during scrub "hold" time and is otherwise zero:
counter = (enableEcho * (triggerScrubOn : + ~ +(1) * enableEcho : -(2))) & (dmax-1);
// implementation that continues scrubbing where it left off:
scrubPhase = scrubPhaseRaw : t60smoother(dEchoT60*(1-triggerScrubOff));
scrubAmp = scrubAmpRaw : t60smoother(dEchoT60*(1-triggerScrubOff));
warp = warpRaw : t60smoother(dEchoT60);
dTapSamplesRaw = dEchoSamplesRaw * (1.0 + warp + scrubPhase * scrubAmp) + float(counter);
dTapSamples = dTapSamplesRaw : t60smoother(dEchoT60*(1-triggerScrubOff));
// process = _ <: _, amp * echo_mono(dmax,dEchoSamples,dTapSamples,fb,fbspr(fbs),gi) : +;
process = _ <: _, amp * echo_mono(dmax,dEchoSamples,dTapSamples,fb,fbspr(fbs),gi) : +;
|
https://raw.githubusercontent.com/polyeffects/digit_carla/75609d7dd365628fca044f64a7141686853e7945/LV2/digit_delay/echo.dsp
|
faust
|
21 seconds
Increase until you get the desired maximum amount of smoothing when fbs==1
pole radius of feedback smoother
beats to sample time
"ground input" switches input to zeros
Warp and Scrubber stuff:
enableEcho went 0 to 1
enableEcho went 1 to 0
Ramps up only during scrub "hold" time and is otherwise zero:
implementation that continues scrubbing where it left off:
process = _ <: _, amp * echo_mono(dmax,dEchoSamples,dTapSamples,fb,fbspr(fbs),gi) : +;
|
import("stdfaust.lib");
echo_group(x) = x;
knobs_group(x) = vgroup("[0] Knobs",x);
switches_group(x) = vgroup("[1] Switches",x);
dmaxs = float(dmax)/48000.0;
fastpow2 = ffunction(float fastpow2(float), "fast_pow2.h", "");
inputSelect(gi) = _,0 : select2(gi);
echo_mono(dmax,curdel,tapdel,fb,fbspr,gi) = inputSelect(gi) : (+:si.smooth(fbspr)
<: de.fdelay(dmax,curdel),
de.fdelay(dmax,tapdel))
~(*(fb),!) : !,_;
tau2pole(tau) = ba.if(tau>0, exp(-1.0/(tau*ma.SR)), 0.0);
t60smoother(dEchoT60) = si.smooth(tau2pole(dEchoT60/6.91));
bpmT60 = 0.15661;
dBPM = knobs_group(vslider("[0] BPM [midi:ctrl 63] [style:knob]", 120.0, 30.00, 300, 0.1));
dEchoT60 = knobs_group(vslider("[1] DelayT60 [midi:ctrl 60] [style:knob]", 0.5, 0, 100, 0.001));
dEchoBeats = knobs_group(vslider("[0] Delay [midi:ctrl 61] [style:knob]", 0.5, 0.001, 16.0, 0.001));
dEchoSamples = dEchoSamplesRaw : t60smoother(dEchoT60);
warpRaw = knobs_group(vslider("[0] Warp [midi:ctrl 62] [style:knob]", 0, -1.0, 1.0, 0.001));
scrubAmpRaw = 0;
scrubPhaseRaw = 0;
fb = knobs_group(vslider("[2] Feedback [midi:ctrl 2] [style:knob]", .3, 0.0, 1.0, 0.0001));
amp = knobs_group(vslider("[3] Amp [midi:ctrl 75] [style:knob]", .5, 0, 1, 0.001)) : si.smooth(ba.tau2pole(ampT60/6.91));
ampT60 = 0.15661;
fbs = knobs_group(vslider("[5] [midi:ctrl 76] FeedbackSm [style:knob]", 0, 0, 1, 0.00001));
enableEcho = (scrubAmpRaw > 0.00001);
counter = (enableEcho * (triggerScrubOn : + ~ +(1) * enableEcho : -(2))) & (dmax-1);
scrubPhase = scrubPhaseRaw : t60smoother(dEchoT60*(1-triggerScrubOff));
scrubAmp = scrubAmpRaw : t60smoother(dEchoT60*(1-triggerScrubOff));
warp = warpRaw : t60smoother(dEchoT60);
dTapSamplesRaw = dEchoSamplesRaw * (1.0 + warp + scrubPhase * scrubAmp) + float(counter);
dTapSamples = dTapSamplesRaw : t60smoother(dEchoT60*(1-triggerScrubOff));
process = _ <: _, amp * echo_mono(dmax,dEchoSamples,dTapSamples,fb,fbspr(fbs),gi) : +;
|
ddb74d90a44ae869d0598074521cda5d91d414d4193ed2d4643d973bf0b799ff
|
maximalexanian/guitarix-vst
|
highbooster.dsp
|
declare name "Treble boost";
declare category "Tone Control";
import("stdfaust.lib");
level = vslider("Level", 0, 0.5, 20, 0.5) ;
hfboost(level,fx,x) = x + (ba.db2linear(level)-1)*fi.highpass(1,fx,x);
process = hfboost(level, 1500);
|
https://raw.githubusercontent.com/maximalexanian/guitarix-vst/83fd0cbec9588fb2ef47d80f7c6cb0775bfb9f89/guitarix/src/LV2/faust/highbooster.dsp
|
faust
|
declare name "Treble boost";
declare category "Tone Control";
import("stdfaust.lib");
level = vslider("Level", 0, 0.5, 20, 0.5) ;
hfboost(level,fx,x) = x + (ba.db2linear(level)-1)*fi.highpass(1,fx,x);
process = hfboost(level, 1500);
|
|
2ffd10d988ce72dc41dfbc9d68ce6fbe3a122221b3553311205513b51a71406a
|
maximalexanian/guitarix-vst
|
gxtubedelay.dsp
|
declare name "Tube Delay";
declare category "Echo / Delay";
import("stdfaust.lib");
import("guitarix.lib");
import("redeye.lib");
LogPot(a, x) = ba.if(a, (exp(a * x) - 1) / (exp(a) - 1), x);
level = vslider("level[style:knob]", 0, 0, 1, 0.1):LogPot(1):smoothi(0.993);
feedback = vslider("feedback[style:knob]", 0, 0.0, 1, 0.01);
dtime = vslider("de.delay[unit:ms][style:knob]", 0, 0.1, 2500, 0.1)*ma.SR/1000.0;
interp = 100*ma.SR/1000.0;
// for a 2.5 sec de.delay
N = int( 2^17 ) ;
delayed = de.sdelay(N, interp, dtime) ;
// added a de.delay bypass output to get a real tape de.delay,
// and a low/fi.highpass filter section in the feedback loop
// to avoid self oscillation
process = input12au7:*(0.1):_<:((+:_<:_ ,( delayed:*(level)) :>_)~(*(feedback): fi.highpass(1,120):fi.lowpass(1,12000))):>_:output12au7;
|
https://raw.githubusercontent.com/maximalexanian/guitarix-vst/83fd0cbec9588fb2ef47d80f7c6cb0775bfb9f89/guitarix/src/LV2/faust/gxtubedelay.dsp
|
faust
|
for a 2.5 sec de.delay
added a de.delay bypass output to get a real tape de.delay,
and a low/fi.highpass filter section in the feedback loop
to avoid self oscillation
|
declare name "Tube Delay";
declare category "Echo / Delay";
import("stdfaust.lib");
import("guitarix.lib");
import("redeye.lib");
LogPot(a, x) = ba.if(a, (exp(a * x) - 1) / (exp(a) - 1), x);
level = vslider("level[style:knob]", 0, 0, 1, 0.1):LogPot(1):smoothi(0.993);
feedback = vslider("feedback[style:knob]", 0, 0.0, 1, 0.01);
dtime = vslider("de.delay[unit:ms][style:knob]", 0, 0.1, 2500, 0.1)*ma.SR/1000.0;
interp = 100*ma.SR/1000.0;
N = int( 2^17 ) ;
delayed = de.sdelay(N, interp, dtime) ;
process = input12au7:*(0.1):_<:((+:_<:_ ,( delayed:*(level)) :>_)~(*(feedback): fi.highpass(1,120):fi.lowpass(1,12000))):>_:output12au7;
|
1b2bb0e1589b44d7dfd1df3f857a626a8db929e4c57efed723b5a70692dd3120
|
maximalexanian/guitarix-vst
|
expander.dsp
|
/* Expander unit. */
/* This is pretty much the same as compressor.dsp, but here the given ratio is
applied to *attenuate* levels *below* the threshold. */
declare name "Expander";
declare category "Guitar Effects";
declare description "expander unit";
declare author "Albert Graef";
declare version "1.0";
import("stdfaust.lib");
import("reducemaps.lib");
/* Controls. */
ratio = nentry("ratio", 2, 1, 20, 0.1);
threshold = nentry("threshold", -40, -96, 10, 0.1);
knee = nentry("knee", 3, 0, 20, 0.1);
attack = hslider("attack", 0.001, 0, 1, 0.001) : max(1/ma.SR);
release = hslider("release", 0.1, 0, 10, 0.01) : max(1/ma.SR);
t = 0.1;
g = exp(-1/(ma.SR*t));
env = abs : *(1-g) : + ~ *(g);
rms = sqr : *(1-g) : + ~ *(g) : sqrt;
sqr(x) = x*x;
env2(x) = max(env(x));
expand(env) = level*(1-r)
with {
level = env : h ~ _ : ba.linear2db : (threshold+knee-_) : max(0)
with {
h(x,y) = f*x+(1-f)*y with { f = (x<y)*ga+(x>=y)*gr; };
ga = exp(-1/(ma.SR*attack));
gr = exp(-1/(ma.SR*release));
};
p = level/(knee+eps) : max(0) : min(1) with { eps = 0.001; };
r = 1-p+p*ratio;
};
vmeter1(x) = attach(x, envelop(x) : vbargraph("v1[nomidi:no]", -70, +5));
envelop = abs : max ~ (1.0/ma.SR) : mean(4096); // : max(ba.db2linear(-70)) : ba.linear2db;
process(x) = (g(x)*x)
with {
g = env2(x) : expand : vmeter1 : ba.db2linear;
};
|
https://raw.githubusercontent.com/maximalexanian/guitarix-vst/83fd0cbec9588fb2ef47d80f7c6cb0775bfb9f89/guitarix/src/faust/expander.dsp
|
faust
|
Expander unit.
This is pretty much the same as compressor.dsp, but here the given ratio is
applied to *attenuate* levels *below* the threshold.
Controls.
: max(ba.db2linear(-70)) : ba.linear2db;
|
declare name "Expander";
declare category "Guitar Effects";
declare description "expander unit";
declare author "Albert Graef";
declare version "1.0";
import("stdfaust.lib");
import("reducemaps.lib");
ratio = nentry("ratio", 2, 1, 20, 0.1);
threshold = nentry("threshold", -40, -96, 10, 0.1);
knee = nentry("knee", 3, 0, 20, 0.1);
attack = hslider("attack", 0.001, 0, 1, 0.001) : max(1/ma.SR);
release = hslider("release", 0.1, 0, 10, 0.01) : max(1/ma.SR);
t = 0.1;
g = exp(-1/(ma.SR*t));
env = abs : *(1-g) : + ~ *(g);
rms = sqr : *(1-g) : + ~ *(g) : sqrt;
sqr(x) = x*x;
env2(x) = max(env(x));
expand(env) = level*(1-r)
with {
level = env : h ~ _ : ba.linear2db : (threshold+knee-_) : max(0)
with {
h(x,y) = f*x+(1-f)*y with { f = (x<y)*ga+(x>=y)*gr; };
ga = exp(-1/(ma.SR*attack));
gr = exp(-1/(ma.SR*release));
};
p = level/(knee+eps) : max(0) : min(1) with { eps = 0.001; };
r = 1-p+p*ratio;
};
vmeter1(x) = attach(x, envelop(x) : vbargraph("v1[nomidi:no]", -70, +5));
process(x) = (g(x)*x)
with {
g = env2(x) : expand : vmeter1 : ba.db2linear;
};
|
186b63b8a8a9554c301adeef60306d75bee4279b5ce74d74f2037430aa1f867f
|
maximalexanian/guitarix-vst
|
graphiceq.dsp
|
declare id "graphiceq";
declare name "Graphic EQ";
declare category "Tone Control";
declare description "Graphic EQ";
import("stdfaust.lib");
import("reducemaps.lib");
//geq = fi.filterbank(3, (31.25, 62.5, 125., 250., 500., 1000., 2000., 4000., 8000., 16000.));
geq = fi.filterbank(3, (44., 88., 177., 354., 707., 1414., 2828., 5657., 11384., 18110.));
g1 = vslider("g1[tooltip:gain (dB) below 31.25 Hz]", 0, -60, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g2 = vslider("g2 [tooltip:gain (dB) at 62.5 Hz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g3 = vslider("g3 [tooltip:gain (dB) at 125 Hz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g4 = vslider("g4 [tooltip:gain (dB) at 250 Hz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g5 = vslider("g5 [tooltip:gain (dB) at 500 Hz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g6 = vslider("g6 [tooltip:gain (dB) at 1 kHz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g7 = vslider("g7 [tooltip:gain (dB) at 2 kHz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g8 = vslider("g8 [tooltip:gain (dB) at 4 kHz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g9 = vslider("g9 [tooltip:gain (dB) at 8 kHz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g10 = vslider("g10 [tooltip:gain (dB) at 16 kHz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g11 = vslider("g11 [tooltip:gain (dB) above 16 kHz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
v1(x) = attach(x, envelop(x) : vbargraph("v1[nomidi:no]", -70, +5));
v2(x) = attach(x, envelop(x) : vbargraph("v2[nomidi:no]", -70, +5));
v3(x) = attach(x, envelop(x) : vbargraph("v3[nomidi:no]", -70, +5));
v4(x) = attach(x, envelop(x) : vbargraph("v4[nomidi:no]", -70, +5));
v5(x) = attach(x, envelop(x) : vbargraph("v5[nomidi:no]", -70, +5));
v6(x) = attach(x, envelop(x) : vbargraph("v6[nomidi:no]", -70, +5));
v7(x) = attach(x, envelop(x) : vbargraph("v7[nomidi:no]", -70, +5));
v8(x) = attach(x, envelop(x) : vbargraph("v8[nomidi:no]", -70, +5));
v9(x) = attach(x, envelop(x) : vbargraph("v9[nomidi:no]", -70, +5));
v10(x) = attach(x, envelop(x) : vbargraph("v10[nomidi:no]", -70, +5));
v11(x) = attach(x, envelop(x) : vbargraph("v11[nomidi:no]", -70, +5));
envelop = abs : max ~ (1.0/ma.SR) : mean(4096) ;
process = geq :(*(g11):v11), (*(g10):v10),(*(g9):v9),(*(g8):v8),(*(g7):v7),(*(g6):v6),
(*(g5):v5),(*(g4):v4),(*(g3):v3),(*(g2):v2),(*(g1):v1) :>_;
|
https://raw.githubusercontent.com/maximalexanian/guitarix-vst/83fd0cbec9588fb2ef47d80f7c6cb0775bfb9f89/guitarix/src/LV2/faust/graphiceq.dsp
|
faust
|
geq = fi.filterbank(3, (31.25, 62.5, 125., 250., 500., 1000., 2000., 4000., 8000., 16000.));
|
declare id "graphiceq";
declare name "Graphic EQ";
declare category "Tone Control";
declare description "Graphic EQ";
import("stdfaust.lib");
import("reducemaps.lib");
geq = fi.filterbank(3, (44., 88., 177., 354., 707., 1414., 2828., 5657., 11384., 18110.));
g1 = vslider("g1[tooltip:gain (dB) below 31.25 Hz]", 0, -60, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g2 = vslider("g2 [tooltip:gain (dB) at 62.5 Hz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g3 = vslider("g3 [tooltip:gain (dB) at 125 Hz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g4 = vslider("g4 [tooltip:gain (dB) at 250 Hz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g5 = vslider("g5 [tooltip:gain (dB) at 500 Hz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g6 = vslider("g6 [tooltip:gain (dB) at 1 kHz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g7 = vslider("g7 [tooltip:gain (dB) at 2 kHz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g8 = vslider("g8 [tooltip:gain (dB) at 4 kHz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g9 = vslider("g9 [tooltip:gain (dB) at 8 kHz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g10 = vslider("g10 [tooltip:gain (dB) at 16 kHz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
g11 = vslider("g11 [tooltip:gain (dB) above 16 kHz]", 0, -30, 5.2, 0.1) : ba.db2linear : si.smooth(0.999);
v1(x) = attach(x, envelop(x) : vbargraph("v1[nomidi:no]", -70, +5));
v2(x) = attach(x, envelop(x) : vbargraph("v2[nomidi:no]", -70, +5));
v3(x) = attach(x, envelop(x) : vbargraph("v3[nomidi:no]", -70, +5));
v4(x) = attach(x, envelop(x) : vbargraph("v4[nomidi:no]", -70, +5));
v5(x) = attach(x, envelop(x) : vbargraph("v5[nomidi:no]", -70, +5));
v6(x) = attach(x, envelop(x) : vbargraph("v6[nomidi:no]", -70, +5));
v7(x) = attach(x, envelop(x) : vbargraph("v7[nomidi:no]", -70, +5));
v8(x) = attach(x, envelop(x) : vbargraph("v8[nomidi:no]", -70, +5));
v9(x) = attach(x, envelop(x) : vbargraph("v9[nomidi:no]", -70, +5));
v10(x) = attach(x, envelop(x) : vbargraph("v10[nomidi:no]", -70, +5));
v11(x) = attach(x, envelop(x) : vbargraph("v11[nomidi:no]", -70, +5));
envelop = abs : max ~ (1.0/ma.SR) : mean(4096) ;
process = geq :(*(g11):v11), (*(g10):v10),(*(g9):v9),(*(g8):v8),(*(g7):v7),(*(g6):v6),
(*(g5):v5),(*(g4):v4),(*(g3):v3),(*(g2):v2),(*(g1):v1) :>_;
|
52a9b4657b028af9b720bc4b4877e0228770f68455184e14ace3782be941c8d2
|
maximalexanian/guitarix-vst
|
graphiceq.dsp
|
declare id "graphiceq";
declare name "Graphic EQ";
declare category "Tone Control";
declare description "Graphic EQ";
import("stdfaust.lib");
import("reducemaps.lib");
//geq = fi.filterbank(3, (31.25, 62.5, 125., 250., 500., 1000., 2000., 4000., 8000., 16000.));
geq = fi.filterbank(3, (44., 88., 177., 354., 707., 1414., 2828., 5657., 11384., 18110.));
g1 = vslider("g1[tooltip:gain (dB) below 31.25 Hz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g2 = vslider("g2 [tooltip:gain (dB) at 62.5 Hz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g3 = vslider("g3 [tooltip:gain (dB) at 125 Hz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g4 = vslider("g4 [tooltip:gain (dB) at 250 Hz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g5 = vslider("g5 [tooltip:gain (dB) at 500 Hz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g6 = vslider("g6 [tooltip:gain (dB) at 1 kHz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g7 = vslider("g7 [tooltip:gain (dB) at 2 kHz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g8 = vslider("g8 [tooltip:gain (dB) at 4 kHz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g9 = vslider("g9 [tooltip:gain (dB) at 8 kHz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g10 = vslider("g10 [tooltip:gain (dB) at 16 kHz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g11 = vslider("g11 [tooltip:gain (dB) above 16 kHz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
v1(x) = attach(x, envelop(x) : vbargraph("v1[nomidi:no]", -70, +5));
v2(x) = attach(x, envelop(x) : vbargraph("v2[nomidi:no]", -70, +5));
v3(x) = attach(x, envelop(x) : vbargraph("v3[nomidi:no]", -70, +5));
v4(x) = attach(x, envelop(x) : vbargraph("v4[nomidi:no]", -70, +5));
v5(x) = attach(x, envelop(x) : vbargraph("v5[nomidi:no]", -70, +5));
v6(x) = attach(x, envelop(x) : vbargraph("v6[nomidi:no]", -70, +5));
v7(x) = attach(x, envelop(x) : vbargraph("v7[nomidi:no]", -70, +5));
v8(x) = attach(x, envelop(x) : vbargraph("v8[nomidi:no]", -70, +5));
v9(x) = attach(x, envelop(x) : vbargraph("v9[nomidi:no]", -70, +5));
v10(x) = attach(x, envelop(x) : vbargraph("v10[nomidi:no]", -70, +5));
v11(x) = attach(x, envelop(x) : vbargraph("v11[nomidi:no]", -70, +5));
envelop = abs : max ~ (1.0/ma.SR) : mean(4096) ;
process = geq :(*(g11):v11), (*(g10):v10),(*(g9):v9),(*(g8):v8),(*(g7):v7),(*(g6):v6),
(*(g5):v5),(*(g4):v4),(*(g3):v3),(*(g2):v2),(*(g1):v1) :>_;
|
https://raw.githubusercontent.com/maximalexanian/guitarix-vst/83fd0cbec9588fb2ef47d80f7c6cb0775bfb9f89/guitarix/src/faust/graphiceq.dsp
|
faust
|
geq = fi.filterbank(3, (31.25, 62.5, 125., 250., 500., 1000., 2000., 4000., 8000., 16000.));
|
declare id "graphiceq";
declare name "Graphic EQ";
declare category "Tone Control";
declare description "Graphic EQ";
import("stdfaust.lib");
import("reducemaps.lib");
geq = fi.filterbank(3, (44., 88., 177., 354., 707., 1414., 2828., 5657., 11384., 18110.));
g1 = vslider("g1[tooltip:gain (dB) below 31.25 Hz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g2 = vslider("g2 [tooltip:gain (dB) at 62.5 Hz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g3 = vslider("g3 [tooltip:gain (dB) at 125 Hz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g4 = vslider("g4 [tooltip:gain (dB) at 250 Hz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g5 = vslider("g5 [tooltip:gain (dB) at 500 Hz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g6 = vslider("g6 [tooltip:gain (dB) at 1 kHz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g7 = vslider("g7 [tooltip:gain (dB) at 2 kHz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g8 = vslider("g8 [tooltip:gain (dB) at 4 kHz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g9 = vslider("g9 [tooltip:gain (dB) at 8 kHz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g10 = vslider("g10 [tooltip:gain (dB) at 16 kHz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
g11 = vslider("g11 [tooltip:gain (dB) above 16 kHz]", 0, -30, 20, 0.1) : ba.db2linear : si.smooth(0.999);
v1(x) = attach(x, envelop(x) : vbargraph("v1[nomidi:no]", -70, +5));
v2(x) = attach(x, envelop(x) : vbargraph("v2[nomidi:no]", -70, +5));
v3(x) = attach(x, envelop(x) : vbargraph("v3[nomidi:no]", -70, +5));
v4(x) = attach(x, envelop(x) : vbargraph("v4[nomidi:no]", -70, +5));
v5(x) = attach(x, envelop(x) : vbargraph("v5[nomidi:no]", -70, +5));
v6(x) = attach(x, envelop(x) : vbargraph("v6[nomidi:no]", -70, +5));
v7(x) = attach(x, envelop(x) : vbargraph("v7[nomidi:no]", -70, +5));
v8(x) = attach(x, envelop(x) : vbargraph("v8[nomidi:no]", -70, +5));
v9(x) = attach(x, envelop(x) : vbargraph("v9[nomidi:no]", -70, +5));
v10(x) = attach(x, envelop(x) : vbargraph("v10[nomidi:no]", -70, +5));
v11(x) = attach(x, envelop(x) : vbargraph("v11[nomidi:no]", -70, +5));
envelop = abs : max ~ (1.0/ma.SR) : mean(4096) ;
process = geq :(*(g11):v11), (*(g10):v10),(*(g9):v9),(*(g8):v8),(*(g7):v7),(*(g6):v6),
(*(g5):v5),(*(g4):v4),(*(g3):v3),(*(g2):v2),(*(g1):v1) :>_;
|
b53066b9d7f470390e22a1fe5b763dbce8e832f75949fb30e064e5915480f7de
|
maximalexanian/guitarix-vst
|
compressor.dsp
|
declare name "Compressor";
declare category "Guitar Effects";
/* Compressor unit. */
//declare name "compressor -- compressor/limiter unit";
declare author "Albert Graef";
declare version "1.0";
import("stdfaust.lib");
import("guitarix.lib");
import("reducemaps.lib");
/* Controls. */
// partition the controls into these three groups
comp_group(x) = hgroup("1-compression", x);
env_group(x) = vgroup("2-envelop", x);
gain_group(x) = vgroup("3-gain", x);
// compressor controls: ratio, threshold and knee size
ratio = nentry("ratio[name:Ratio]", 2, 1, 20, 0.1);
threshold = nentry("threshold[name:Threshold]", -20, -96, 10, 0.1);
knee = nentry("knee[name:Knee]", 3, 0, 20, 0.1);
// attack and release controls; clamped to a minimum of 1 sample
attack = hslider("attack[name:Attack]", 0.002, 0, 1, 0.001) : max(1/ma.SR);
release = hslider("release[name:Release]", 0.5, 0, 10, 0.01) : max(1/ma.SR);
// gain controls: make-up gain, compression gain meter
makeup_gain = gain_group(hslider("makeup gain[name:Makeup]", 0, -96, 96, 0.1));
gain(x) = attach(x, x : gain_group(hbargraph("gain", -96, 0)));
t = 0.1;
g = exp(-1/(ma.SR*t));
env = abs : *(1-g) : + ~ *(g);
rms = sqr : *(1-g) : + ~ *(g) : sqrt;
sqr(x) = x*x;
/* Compute the envelop of a stereo signal. Replace env with rms ba.if you want to
use the RMS value instead. */
//env2(x,y) = max(env(x),env(y));
env2(x) = max(env(x));
/* Compute the compression factor for the current input level. The gain is
always 0 dB ba.if we're below the reduced threshold, threshold-knee. Beyond
the real threshold value the level is scaled by 1/ratio. Between these two
extremes we return a convex combination of those factors. This is also
known as "soft-knee" compression: the compression kicks in gradually at
threshold-knee and reaches its full value at threshold. For special
effects, you can also achieve old-school "hard-knee" compression by setting
the knee value to fi.zero. Also note that, before computing the gain, the
input level is first smoothed out using a 1 fi.pole IIR to prevent clicks when
the input level changes abruptly. The attack and release times of this
filter are configured with the corresponding envelop controls of the
compressor. */
compress(env) = level*(1-r)/r
with {
// the (filtered) input level above the threshold
level = env : h ~ _ : ba.linear2db : (_-threshold+knee) : max(0)
with {
h(x,y) = f*x+(1-f)*y with { f = (x<y)*ga+(x>=y)*gr; };
ga = exp(-1/(ma.SR*attack));
gr = exp(-1/(ma.SR*release));
};
// the knee factor, clamped to 0..1; we add a small perturbation in
// the denominator to prevent infinities and nan when knee<<1
p = level/(knee+eps) : max(0) : min(1) with { eps = 0.001; };
// the actual compression ratio
r = 1-p+p*ratio;
};
vmeter1(x) = attach(x, envelop(x) : vbargraph("v1[nomidi:no]", -70, +5));
envelop = abs : max ~ (1.0/ma.SR) : mean(4096); // : max(ba.db2linear(-70)) : ba.linear2db;
process(x) = g(x)*x
with {
//g = env2(x) : compress : gain : +(makeup_gain) : ba.db2linear ;
g = add_dc : env : compress : vmeter1 : ba.db2linear ;
};
|
https://raw.githubusercontent.com/maximalexanian/guitarix-vst/83fd0cbec9588fb2ef47d80f7c6cb0775bfb9f89/guitarix/src/faust/compressor.dsp
|
faust
|
Compressor unit.
declare name "compressor -- compressor/limiter unit";
Controls.
partition the controls into these three groups
compressor controls: ratio, threshold and knee size
attack and release controls; clamped to a minimum of 1 sample
gain controls: make-up gain, compression gain meter
Compute the envelop of a stereo signal. Replace env with rms ba.if you want to
use the RMS value instead.
env2(x,y) = max(env(x),env(y));
Compute the compression factor for the current input level. The gain is
always 0 dB ba.if we're below the reduced threshold, threshold-knee. Beyond
the real threshold value the level is scaled by 1/ratio. Between these two
extremes we return a convex combination of those factors. This is also
known as "soft-knee" compression: the compression kicks in gradually at
threshold-knee and reaches its full value at threshold. For special
effects, you can also achieve old-school "hard-knee" compression by setting
the knee value to fi.zero. Also note that, before computing the gain, the
input level is first smoothed out using a 1 fi.pole IIR to prevent clicks when
the input level changes abruptly. The attack and release times of this
filter are configured with the corresponding envelop controls of the
compressor.
the (filtered) input level above the threshold
the knee factor, clamped to 0..1; we add a small perturbation in
the denominator to prevent infinities and nan when knee<<1
the actual compression ratio
: max(ba.db2linear(-70)) : ba.linear2db;
g = env2(x) : compress : gain : +(makeup_gain) : ba.db2linear ;
|
declare name "Compressor";
declare category "Guitar Effects";
declare author "Albert Graef";
declare version "1.0";
import("stdfaust.lib");
import("guitarix.lib");
import("reducemaps.lib");
comp_group(x) = hgroup("1-compression", x);
env_group(x) = vgroup("2-envelop", x);
gain_group(x) = vgroup("3-gain", x);
ratio = nentry("ratio[name:Ratio]", 2, 1, 20, 0.1);
threshold = nentry("threshold[name:Threshold]", -20, -96, 10, 0.1);
knee = nentry("knee[name:Knee]", 3, 0, 20, 0.1);
attack = hslider("attack[name:Attack]", 0.002, 0, 1, 0.001) : max(1/ma.SR);
release = hslider("release[name:Release]", 0.5, 0, 10, 0.01) : max(1/ma.SR);
makeup_gain = gain_group(hslider("makeup gain[name:Makeup]", 0, -96, 96, 0.1));
gain(x) = attach(x, x : gain_group(hbargraph("gain", -96, 0)));
t = 0.1;
g = exp(-1/(ma.SR*t));
env = abs : *(1-g) : + ~ *(g);
rms = sqr : *(1-g) : + ~ *(g) : sqrt;
sqr(x) = x*x;
env2(x) = max(env(x));
compress(env) = level*(1-r)/r
with {
level = env : h ~ _ : ba.linear2db : (_-threshold+knee) : max(0)
with {
h(x,y) = f*x+(1-f)*y with { f = (x<y)*ga+(x>=y)*gr; };
ga = exp(-1/(ma.SR*attack));
gr = exp(-1/(ma.SR*release));
};
p = level/(knee+eps) : max(0) : min(1) with { eps = 0.001; };
r = 1-p+p*ratio;
};
vmeter1(x) = attach(x, envelop(x) : vbargraph("v1[nomidi:no]", -70, +5));
process(x) = g(x)*x
with {
g = add_dc : env : compress : vmeter1 : ba.db2linear ;
};
|
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