void processAudio(AudioBuffer &buffer) {
FloatArray left = buffer.getSamples(LEFT_CHANNEL);
FloatArray right = buffer.getSamples(RIGHT_CHANNEL);
for(int i = 0; i<buffer.getSize(); i++){
if(abs(last-target) < 0.001){
last = target;
target = noise->getNextSample()*range;
}
left[i] = last;
last += getIncrement();
right[i] = hz.voltsToSample(quantize(hz.sampleToVolts(right[i])));
}
}
float getNextSample(){
float vca1 = sine->getNextSample();
vca1 += chirp->getNextSample();
vca1 *= env1->getNextSample();
float vca2 = 0.0f;
vca2 += impulse->getNextSample();
// vca2 += filter->process(noise->getNextSample());
// vca2 *= env2->getNextSample();
vca2 += noise->getNextSample();
vca2 = filter->process(vca2);
vca2 *= env2->getNextSample();
float sample = vca1*(1.0-balance) + vca2*balance;
return sample;
}
//This function shows a part of how the modules work internally, based on a sample-by-sample model.
void modularSynthInternals(void) {
//Here we create an Oscillator
Oscillator osc;
osc.frequency = 1; //We'll set the frequency to 1 Hz
osc.setGeneratorFunction(Oscillator::sine); //Set the waveform to a sine wave.
//We are going to manually tell the oscillator that the sample rate is 40 samples per second
ModuleControlData_t controlData;
controlData.sampleRate = 40;
osc.setData(controlData);
//If the frequency is 1 Hz (1 cycle per second) and there are 40 samples per second, if we take 40 samples,
//we should expect to see a whole sine wave (0 to 1 to 0 to -1 and back to 0). So, we call getNextSample()
//40 times to advance 40 samples through the process of generating the waveform and print the result.
for (int i = 0; i < 40; i++) {
cout << osc.getNextSample() << endl;
}
}
