void audioCB(AudioIOData& io){
while(io()){
if(tmr()){
//good way to get random numbers in gamma. Uniform distribution between two numbers
int tempHarmonic = rnd::uni(1,6);
//set the center frequency by calling freq(freqYouWant)
filter.freq(tempHarmonic*fundamentalFrequency);
float tempWidth = (tempHarmonic*fundamentalFrequency)/rnd::uni(2,100);
//set the filter's width (related to Q) by calling width(widthYouWant).
filter.width(tempWidth);
//print the filter's center frequency and width
cout<< "frequency: " << (tempHarmonic*fundamentalFrequency) << endl << "width: " << tempWidth << endl;
}
//this is how we filter our source.
float s = filter(src())*5.0;
io.out(0) = io.out(1) = s;
}
}
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;
}
}