MyApp(){
lpf.type(LOW_PASS); // Set filter to low-pass response
lpf.res(4); // Set resonance amount to emphasize filter
env.attack(0.01); // Set short (10 ms) attack
env.decay(0.4); // Set longer (400 ms) decay
tmr.freq(120./60.*4.); // Set timer frequency to 120 BPM
tmr.phaseMax(); // Ensures timer triggers on first sample
modCutoff.period(30); // Set period of cutoff modulation
modCutoff.phase(0.5); // Start half-way through cycle
freq.lag(0.1); // Lag time of portamento effect
step=0;
}
void audioCB(AudioIOData& io){
while(io()){
float s = src();
// Input next sample for analysis
// When this returns true, then we have a new spectral frame
if(stft(s)){
float frac = scl::pow3( edge.triU() );
int N = stft.numBins();
for(int k=0; k<N; ++k){
int indKnee = frac * N;
stft.bin(k) *= k < indKnee ? 1:0;
}
}
// Get next resynthesized sample
s = stft() * 0.2;
io.out(0) = s;
io.out(1) = s;
}
}
void onAudio(AudioIOData& io){
while(io()){
if(tmr()){
// Our sequence of pitches
float pitches[] = {0,0,12,0,0,10,-5,0};
// Map pitch class to a frequency in Hz
float f = 55 * pow(2, pitches[step]/12.);
// Increment step counter
step = (step + 1) % 8;
// Set new target frequence of portamento
freq = f;
// Restart envelope using a soft reset (to avoid clicks)
env.resetSoft();
}
// Set saw frequency from portamento filter
saw.freq(freq());
// Get next envelope value
float e = env();
// Map envelope value to cutoff frequency
lpf.freq(e * (modCutoff.paraU()*6000 + 500) + 40);
// Generate next saw sample
float s = saw() * 0.3;
// Filter saw sample
s = lpf(s) * e;
// Send sample to DAC
io.out(0) = io.out(1) = s;
}
}
void audioCB(AudioIOData& io){
while(io()){
if(tmr()){
switch(flangeType){
case 0: printf("Low-pass feedforward\n");
flanger.feeds(0.7, 0); break;
case 1: printf("High-pass feedforward\n");
flanger.feeds(-0.7,0); break;
case 2: printf("Low-pass feedback\n");
flanger.feeds(0,0.7); break;
case 3: printf("High-pass feedback\n");
flanger.feeds(0,-0.7); break;
case 4: printf("Low-pass dual-feed\n");
flanger.feeds(0.7,0.7); break;
case 5: printf("High-pass dual-feed\n");
flanger.feeds(-0.7,-0.7); break;
case 6: printf("All-pass 1\n");
flanger.feeds(0.9,-0.9); break;
case 7: printf("All-pass 2\n");
flanger.feeds(-0.9,0.9); break;
}
(++flangeType) %= 8;
}
float s = src.up();
s = flanger(s)*0.1;
io.out(0) = io.out(1) = s;
}
}
void onAudio(AudioIOData& io){
while(io()){
if(tmr()){
switch(feedType){
case 0: printf("Low-pass feedforward\n");
comb.feeds( 1,0); break;
case 1: printf("High-pass feedforward\n");
comb.feeds(-1,0); break;
case 2: printf("Low-pass feedback\n");
comb.feeds(0,0.7); break;
case 3: printf("High-pass feedback\n");
comb.feeds(0,-0.7); break;
case 4: printf("Low-pass dual-feed\n");
comb.feeds(0.7,0.7); break;
case 5: printf("High-pass dual-feed\n");
comb.feeds(-0.7,-0.7); break;
case 6: printf("All-pass 1\n");
comb.feeds(0.9,-0.9); break;
case 7: printf("All-pass 2\n");
comb.feeds(-0.9,0.9); break;
}
(++feedType) %= 8;
}
float s = src()*0.1;
comb.ipolType(ipl::ROUND);
comb.delay(mod.triU() * 1./400 + 1./10000);
s = comb(s);
io.out(0) = io.out(1) = s;
}
}
MyApp(){
feedType=0;
tmr.phaseMax();
tmr.period(4);
mod.period(4);
src.freq(100);
comb.maxDelay(1./100);
}
void audioCB(AudioIOData& io){
using namespace gam::rnd;
while(io()){
if(tmr()){ if(prob()) rng++; }
float mx = mix.hann();
float s = (oscA.up() - oscB.up())*mx + (osc1.up() - osc2.up())*(1-mx);
fshift1.freq(modfs1.tri()*2);
fshift2.freq(modfs2.tri()*2);
s = ((fshift1(s) + fshift2(s))/2 + s)/1;
if(stft(s)){
rnd::push(rng);
float prb = rnd::uni(0.3, 0.1);
for(unsigned k=0; k<stft.numBins(); ++k){
//float frac = double(k)/stft.numBins();
float m = pick(pick(2,1, 0.1),0, prb);
stft.bins(k) *= m;
}
rnd::pop();
stft.zeroEnds();
}
s = stft()*0.5;
//float s0=s, s1=s;
float s0 = chrA3(chrA2(chrA1(s)));
float s1 = chrB3(chrB2(chrB1(s)));
io.out(0) = s0;
io.out(1) = s1;
}
}
void audioCB(AudioIOData& io){
while(io()){
float s = osc();
io.out(0) = io.out(1) = s * 0.2f;
osc.phaseAdd(s*0.01*mod.hann());
//osc.freq((s*0.5+0.5)*mod.hann()*800 + 400);
}
}
void onAudio(AudioIOData& io){
// Set the frequency, in Hz
buzz.freq(55);
mod.period(16);
while(io()){
int nh = mod.triU() * 64;
// Set number of harmonics
buzz.harmonics(nh);
float s = buzz() * 0.2;
io.out(0) = s;
io.out(1) = s;
}
}
void audioCB(AudioIOData& io){
while(io()){
oscM.freq(modFreq.hann() * 110 + 1); // change modulator frequency
float s = oscC() * (oscM() * 0.5 + 0.5) * 0.2;
io.out(0) = io.out(1) = s;
}
}
void audioCB(AudioIOData& io){
using namespace gam::rnd;
while(io()){
float s = osc.up()*0.1;
// The Hilbert transform returns a complex number
Complex<float> c = hil(s);
// Perform a frequency shift
shifter.freq(shiftMod.hann()*1000);
c *= shifter();
// Output the real and imaginary components
float s0 = c.r;
float s1 = c.i;
io.out(0) = s0;
io.out(1) = s1;
}
}
void audioCB(AudioIOData& io){
while(io()){
oscM.freq(modFreq.hann() * 110 + 1); // change modulator frequency
oscC.freq(ff + oscM()*100); // modulate frequency of carrier
float s = oscC() * 0.2;
io.out(0) = io.out(1) = s;
}
}
void audioCB(AudioIOData& io){
while(io()){
int nh = mod.triU() * 64;
buzz.harmonics(nh);
float s = buzz();
io.out(0) = io.out(1) = s*0.2;
}
}
void onAudio(AudioIOData& io){
while(io()){
if(syncMode()){
softSync^=true;
printf("%s sync\n", softSync?"soft":"hard");
}
// When the sync osc completes cycle, reset the phase of the formant osc
float w = sync.up();
if(sync.cycled()) formant.phase(0);
// Set the pitch of the formants
formant.freq(mod.triU()*2200+200);
// The formant oscillator determines the spectral envelope
float s = formant.tri();
// Drop amp to zero at sync points?
if(softSync){
w = 1.f - scl::pow8(w); // flattop window
s *= w; // apply window
}
io.out(0) = io.out(1) = s*0.2;
}
}
void audioCB(AudioIOData& io){
while(io()){
float cutoff = scl::pow3(mod.triU()) * 10000;
filt.freq(cutoff);
float s = filt(src());
io.out(0) = io.out(1) = s * 0.2f;
}
}
void audioCB(AudioIOData& io){
while(io()){
if(tmr()){
for(int i=0; i<filt.size(); ++i){
filt.set(i,
Vowel::freq(Vowel::WOMAN, (Vowel::Phoneme)ivowel(), i),
Vowel::amp(Vowel::WOMAN, (Vowel::Phoneme)ivowel(), i)
);
}
++ivowel;
}
osc.freq(330.5 + vib()*3);
osc.mod(0.2);
float s = osc.pulse();
s = filt(s);
io.out(0) = io.out(1) = s * 0.1f;
}
}
void audioCB(AudioIOData& io){
while(io()){
// Generate our mono signal
float s = src() * 0.2;
// Modulate pan position between left (-1) and right (1) channels
pan.pos(panMod.tri());
// The output is two floats (stereo)
float2 xy = pan(s);
io.out(0) = xy.x;
io.out(1) = xy.y;
}
}
void audioCB(AudioIOData& io){
while(io()){
float s = sineT1()
+ sineT2.nextL()
+ sineCS().i
+ sineC1.cos()
+ sineC2()
+ sineRs()
;
s = s/6 - sin(sineC3.nextPhase()); // pass only the artifacts
io.out(0) = io.out(1) = s * 0.2f;
}
}
MyApp()
: stft(4096, 4096/4, 0, HANN, COMPLEX),
chrA1(0.31, 0.002, 0.20111, -0.7, 0.9),
chrA2(0.22, 0.002, 0.10151, -0.7, 0.9),
chrA3(0.13, 0.002, 0.05131, -0.7, 0.9),
chrB1(0.31, 0.002, 0.20141, -0.7, 0.9),
chrB2(0.22, 0.002, 0.10171, -0.7, 0.9),
chrB3(0.13, 0.002, 0.05111, -0.7, 0.9)
{
tmr.period(10);
osc1.freq(40);
osc2.freq(40.003);
oscA.freq(62);
oscB.freq(62.003);
mix.period(60);
modfs1.period(101);
modfs2.period(102);
}
void audioCB(AudioIOData& io){
while(io()){
using namespace gam::rnd;
if(tmr()){
env0 = uni(0.4, 0.39);
if(prob(0.8)){
float r = uni(1.);
tmr.period(r * 4);
env0.period(r * 4);
}
int a = pick(8,6, 0.7);
if(prob(0.2)) osc0.freq(quanOct(a, 440.));
if(prob(0.1)) osc1.freq(quanOct(a, 220.));
if(prob(0.1)) osc2.freq(quanOct(a, 110.));
if(prob(0.1)) osc3.freq(quanOct(a, 55.));
if(prob(0.2)) frq0 = lin(8000, 400);
if(prob(0.2)) frq1 = lin(8000, 400);//printf("d");
}
float e = lag(env0());
del0.delay(e);
del1.delay(e * 0.9);
float s = (osc0.up() * mod0() + osc1.up() * mod1() + osc2.up() * mod2() + osc3.up() * mod3()) * 0.05;
res0.freq(frq0()); res1.freq(frq1());
s = res0(s) + res1(s);
float sl = ech0(del0(s), ap0(ech0()));
float sr = ech1(del1(s), ap1(ech1()));
io.out(0) = sl;
io.out(1) = sr;
}
}
void audioCB(AudioIOData& io){
while(io()){
if(tmr()){
switch(cnt){
case 0: filt.type(Filter::LP); printf("Low-pass\n"); break;
case 1: filt.type(Filter::HP); printf("High-pass\n"); break;
case 2: filt.type(Filter::BP); printf("Band-pass\n"); break;
case 3: filt.type(Filter::BR); printf("Band-reject\n"); break;
}
++cnt %= 4;
}
float cutoff = scl::pow3(mod.triU()) * 10000;
filt.res(4);
filt.freq(cutoff);
float s = filt(src());
io.out(0) = io.out(1) = s * 0.1f;
}
}
void onAudio(AudioIOData& io){
while(io()){
// Generate new seed?
if(tmr()){ if(rnd::prob()) seed++; }
// Modulated mix between pulse waves
float mx = mix.hann();
float s = (oscA.up() - oscB.up())*mx + (osc1.up() - osc2.up())*(1-mx);
// Add frequency shifted versions of signal to get barberpole combs
fshift1.freq(modfs1.tri()*2);
fshift2.freq(modfs2.tri()*2);
s += (fshift1(s) + fshift2(s))*0.5;
if(stft(s)){
// Apply spectral thin
rnd::push(seed);
float prb = rnd::uni(0.3, 0.1);
for(unsigned k=0; k<stft.numBins(); ++k){
//float frac = double(k)/stft.numBins();
float m = rnd::pick(rnd::pick(2,1, 0.1),0, prb);
stft.bin(k) *= m;
}
rnd::pop();
stft.zeroEnds();
}
s = stft()*0.5;
// "Spatialize" with modulated echoes
float s0 = chrA3(chrA2(chrA1(s)));
float s1 = chrB3(chrB2(chrB1(s)));
io.out(0) = s0;
io.out(1) = s1;
}
}
void onAudio(AudioIOData& io){
while(io()){
// Increment waveform type
if(tmr()) (++waveform)%=13;
// Modulate modifier parameter with raised cosine
osc.mod(mod.cosU());
float s = 0.f;
switch(waveform){
// non-modifiable generators ordered from dull to bright:
case 0: s = osc.cos(); break; // Cosine approximation: one harmonic
case 1: s = osc.even3(); break; // Even harmonic sine-like wave (3rd order)
case 2: s = osc.even5(); break; // Even harmonic sine-like wave (5th order)
case 3: s = osc.tri(); break; // Triangle wave: 1/f^2 odd harmonics
case 4: s = osc.para(); break; // Parabola train: 1/f^2 all harmonics
case 5: s = osc.sqr()/4; break; // Square wave: 1/f odd harmonics
case 6: s = osc.down()/4; break; // Downward saw wave: 1/f all harmonics
case 7: s = osc.up()/4; break; // Upward saw wave: 1/f all harmonics
case 8: s = osc.imp()/4; break; // Impulse train: flat spectrum all harmonics
// modifiable generators ordered from dull to bright:
case 9: s = osc.stair()/4; break; // Mix between a square and impulse
case 10: s = osc.pulse()/4; break; // Mix between up and down
case 11: s = osc.line2()/4; break; // Mix between a saw and a triangle
case 12: s = osc.up2()/4; break; // Mix between two saws
}
io.out(0) = io.out(1) = s * 0.2f;
}
}
MyApp(){
tmr.period(2);
mod.period(2);
osc.freq(220);
waveform=0;
}
void audioCB(AudioIOData& io){
while(io()){
if(tmr()){
if(cnt()){
modMode ^= true; // increment LFO type, switch mod mode when wraps
printf("\nMod mode: %s modulation\n", modMode? "Amp" : "Freq");
}
}
env.mod(mod.cosU()); // modulate modifier parameter with unipolar cosine wave
float s = 0.f; // initialize current sample to zero
switch(cnt.val){
// non-modifiable generators ordered from smooth to sharp:
case 0: s = env.cosU(); break; // unipolar cosine
case 1: s = env.hann(); break; // a computed hann window (inverted cosU)
case 2: s = env.triU(); break; // unipolar triangle
case 3: s = env.upU(); break; // unipolar upward ramp
case 4: s = env.downU(); break; // unipolar downward ramp
case 5: s = env.sqrU(); break; // unipolar square
// modifiable generator ordered from smooth to sharp:
case 6: s = env.pulseU(); break; // Mix between upward ramp and downward ramp
case 7: s = env.stairU(); break; // Mix between a square and impulse.
case 8: s = env.line2U(); break; // Mix between a ramp and a triangle
case 9: s = env.up2U(); break; // Mix between two ramps
}
if(modMode){ // amplitude modulate noise with envelope
s *= noise();
}
else{ // frequency modulate oscillator with envelope
osc.freq(s*400 + 200); // between 100 and 200 hz
s = osc.cos();
}
io.out(0) = io.out(1) = s*0.2;
}
}