paf upgrades

This commit is contained in:
chriskiefer 2025-10-15 17:48:26 +01:00
parent 3315d7512f
commit 9d41d1318b
3 changed files with 314 additions and 173 deletions

View file

@ -18,15 +18,15 @@ bool core1_disable_systick = true;
bool core1_separate_stack = true; bool core1_separate_stack = true;
uint32_t get_rosc_entropy_seed(int bits) { uint32_t get_rosc_entropy_seed(int bits) {
uint32_t seed = 0; uint32_t seed = 0;
for (int i = 0; i < bits; ++i) { for (int i = 0; i < bits; ++i) {
// Wait for a bit of time to allow jitter to accumulate // Wait for a bit of time to allow jitter to accumulate
busy_wait_us_32(5); busy_wait_us_32(5);
// Pull LSB from ROSC rand output // Pull LSB from ROSC rand output
seed <<= 1; seed <<= 1;
seed |= (rosc_hw->randombit & 1); seed |= (rosc_hw->randombit & 1);
} }
return seed; return seed;
} }
@ -52,7 +52,12 @@ constexpr size_t kN_InputParams = 3;
// Add these macros near other globals // Add these macros near other globals
#define MEMORY_BARRIER() __sync_synchronize() #define MEMORY_BARRIER() __sync_synchronize()
#define WRITE_VOLATILE(var, val) do { MEMORY_BARRIER(); (var) = (val); MEMORY_BARRIER(); } while (0) #define WRITE_VOLATILE(var, val) \
do { \
MEMORY_BARRIER(); \
(var) = (val); \
MEMORY_BARRIER(); \
} while (0)
#define READ_VOLATILE(var) ({ MEMORY_BARRIER(); typeof(var) __temp = (var); MEMORY_BARRIER(); __temp; }) #define READ_VOLATILE(var) ({ MEMORY_BARRIER(); typeof(var) __temp = (var); MEMORY_BARRIER(); __temp; })
@ -62,176 +67,178 @@ constexpr size_t kN_InputParams = 3;
// return true; // return true;
// } // }
void setup() void setup() {
{ set_sys_clock_khz(AudioDriver::GetSysClockSpeed(), true);
set_sys_clock_khz(AudioDriver::GetSysClockSpeed(), true);
bus_ctrl_hw->priority = BUSCTRL_BUS_PRIORITY_DMA_W_BITS | bus_ctrl_hw->priority = BUSCTRL_BUS_PRIORITY_DMA_W_BITS | BUSCTRL_BUS_PRIORITY_DMA_R_BITS | BUSCTRL_BUS_PRIORITY_PROC1_BITS;
BUSCTRL_BUS_PRIORITY_DMA_R_BITS | BUSCTRL_BUS_PRIORITY_PROC1_BITS;
uint32_t seed = get_rosc_entropy_seed(32); uint32_t seed = get_rosc_entropy_seed(32);
srand(seed); srand(seed);
Serial.begin(115200); Serial.begin(115200);
// while (!Serial) {} // while (!Serial) {}
Serial.println("Serial initialised."); Serial.println("Serial initialised.");
WRITE_VOLATILE(serial_ready, true); WRITE_VOLATILE(serial_ready, true);
// Setup board // Setup board
MEMLNaut::Initialize(); MEMLNaut::Initialize();
pinMode(33, OUTPUT); pinMode(33, OUTPUT);
{ {
auto temp_interface = std::make_shared<INTERFACE_TYPE>(); auto temp_interface = std::make_shared<INTERFACE_TYPE>();
temp_interface->setup(kN_InputParams, PAFSynthAudioApp<>::kN_Params); temp_interface->setup(kN_InputParams, PAFSynthAudioApp<>::kN_Params);
MEMORY_BARRIER(); MEMORY_BARRIER();
interface = temp_interface; interface = temp_interface;
MEMORY_BARRIER(); MEMORY_BARRIER();
} }
// Setup interface with memory barrier protection // Setup interface with memory barrier protection
WRITE_VOLATILE(interface_ready, true); WRITE_VOLATILE(interface_ready, true);
// Bind interface after ensuring it's fully initialized // Bind interface after ensuring it's fully initialized
interface->bindInterface(false); interface->bindInterface(false);
Serial.println("Bound interface to MEMLNaut."); Serial.println("Bound interface to MEMLNaut.");
midi_interf = std::make_shared<MIDIInOut>(); midi_interf = std::make_shared<MIDIInOut>();
midi_interf->Setup(0); midi_interf->Setup(0);
midi_interf->SetMIDISendChannel(1); midi_interf->SetMIDISendChannel(1);
Serial.println("MIDI setup complete."); Serial.println("MIDI setup complete.");
if (midi_interf) { if (midi_interf) {
midi_interf->SetNoteCallback([interface] (bool noteon, uint8_t note_number, uint8_t vel_value) { midi_interf->SetNoteCallback([interface](bool noteon, uint8_t note_number, uint8_t vel_value) {
if (noteon) { if (noteon) {
uint8_t midimsg[2] = {note_number, vel_value }; uint8_t midimsg[2] = { note_number, vel_value };
queue_try_add(&audio_app->qMIDINoteOn, &midimsg); queue_try_add(&audio_app->qMIDINoteOn, &midimsg);
} }else{
Serial.printf("MIDI Note %d: %d\n", note_number, vel_value); uint8_t midimsg[2] = { note_number, vel_value };
}); queue_try_add(&audio_app->qMIDINoteOff, &midimsg);
Serial.println("MIDI note callback set."); }
Serial.printf("MIDI Note %d: %d\n", note_number, vel_value);
});
Serial.println("MIDI note callback set.");
interface->bindMIDI(midi_interf); interface->bindMIDI(midi_interf);
} }
WRITE_VOLATILE(core_0_ready, true); WRITE_VOLATILE(core_0_ready, true);
while (!READ_VOLATILE(core_1_ready)) { while (!READ_VOLATILE(core_1_ready)) {
MEMORY_BARRIER(); MEMORY_BARRIER();
delay(1); delay(1);
} }
std::shared_ptr<MessageView> helpView = std::make_shared<MessageView>("Help"); std::shared_ptr<MessageView> helpView = std::make_shared<MessageView>("Help");
helpView->post("PAF synth CARL"); helpView->post("PAF synth CARL");
helpView->post("TA: Down: Forget replay memory"); helpView->post("TA: Down: Forget replay memory");
helpView->post("MA: Up: Randomise actor"); helpView->post("MA: Up: Randomise actor");
helpView->post("MA: Down: Randomise critic"); helpView->post("MA: Down: Randomise critic");
helpView->post("MB: Up: Positive reward"); helpView->post("MB: Up: Positive reward");
helpView->post("MB: Down: Negative reward"); helpView->post("MB: Down: Negative reward");
helpView->post("Y: Optimisation rate"); helpView->post("Y: Optimisation rate");
helpView->post("Z: OU noise"); helpView->post("Z: OU noise");
helpView->post("Joystick: Explore"); helpView->post("Joystick: Explore");
MEMLNaut::Instance()->disp->AddView(helpView); MEMLNaut::Instance()->disp->AddView(helpView);
MEMLNaut::Instance()->addSystemInfoView(); MEMLNaut::Instance()->addSystemInfoView();
Serial.println("Finished initialising core 0.");
Serial.println("Finished initialising core 0.");
} }
PERF_DECLARE(MLSTATS); PERF_DECLARE(MLSTATS);
void loop() void loop() {
{
PERIODIC_RUN_US( PERIODIC_RUN_US(
PERF_BEGIN(MLSTATS); PERF_BEGIN(MLSTATS);
MEMLNaut::Instance()->loop(); MEMLNaut::Instance()->loop();
PERF_END(MLSTATS); PERF_END(MLSTATS);
, 5000) , 5000)
static int AUDIO_MEM blip_counter = 0; PERIODIC_RUN_US(
if (blip_counter++ > 100) { static size_t blip_counter=0;
blip_counter = 0; if (blip_counter++ > 10) {
Serial.println("."); blip_counter = 0;
// Blink LED Serial.println(".");
digitalWrite(33, HIGH); // Blink LED
constexpr float audioHeadroomMul = 1.0/(1000000 * 48.0/kSampleRate); digitalWrite(33, HIGH);
Serial.printf("ml: %d, aud: %d, q: %f\n",PERF_GET_MEAN(MLSTATS), AUDIOLOOP_MEAN, AUDIOLOOP_MEAN * audioHeadroomMul); constexpr float audioHeadroomMul = 1.0 / (1000000 * 48.0 / kSampleRate);
Serial.printf("ml: %d, aud: %d, q: %f\n", PERF_GET_MEAN(MLSTATS), AUDIOLOOP_MEAN, AUDIOLOOP_MEAN * audioHeadroomMul);
} else { } else {
// Un-blink LED // Un-blink LED
digitalWrite(33, LOW); digitalWrite(33, LOW);
} }
, 100000)
PERIODIC_RUN_US(
midi_interf->Poll(); midi_interf->Poll();
// delay(10); // Add a small delay to avoid flooding the serial output , 10000)
} }
void AUDIO_FUNC(audio_block_callback)(float in[][kBufferSize], float out[][kBufferSize], size_t n_channels, size_t n_frames) void AUDIO_FUNC(audio_block_callback)(float in[][kBufferSize], float out[][kBufferSize], size_t n_channels, size_t n_frames) {
{ for (size_t i = 0; i < n_frames; ++i) {
for (size_t i = 0; i < n_frames; ++i) {
stereosample_t x { stereosample_t x{
in[0][i], in[0][i],
in[1][i] in[1][i]
}, y; },
y;
// Audio processing // Audio processing
if (audio_app) { if (audio_app) {
y = audio_app->Process(x); y = audio_app->Process(x);
}
out[0][i] = y.L;
out[1][i] = y.R;
} }
out[0][i] = y.L;
out[1][i] = y.R;
}
} }
void setup1() void setup1() {
{ while (!READ_VOLATILE(serial_ready)) {
while (!READ_VOLATILE(serial_ready)) { MEMORY_BARRIER();
MEMORY_BARRIER();
delay(1);
}
while (!READ_VOLATILE(interface_ready)) {
MEMORY_BARRIER();
delay(1);
}
// Create audio app with memory barrier protection
{
PAFSynthAudioApp<>* audio_raw = new (audio_app_mem) PAFSynthAudioApp<>();
audio_raw->Setup(AudioDriver::GetSampleRate(), interface);
// shared_ptr with custom deleter calling only the destructor (control block still allocates)
auto audio_deleter = [](PAFSynthAudioApp<>* p) { if (p) p->~PAFSynthAudioApp<>(); };
std::shared_ptr<PAFSynthAudioApp<>> temp_audio_app(audio_raw, audio_deleter);
MEMORY_BARRIER();
audio_app = temp_audio_app;
MEMORY_BARRIER();
}
AudioDriver::SetBlockCallback(audio_block_callback);
// Start audio driver
AudioDriver::Setup();
// AudioDriver::SetBlockCallback(audio_block_callback);
WRITE_VOLATILE(core_1_ready, true);
while (!READ_VOLATILE(core_0_ready)) {
MEMORY_BARRIER();
delay(1);
}
Serial.println("Finished initialising core 1.");
}
void loop1()
{
// Audio app parameter processing loop
audio_app->loop();
delay(1); delay(1);
}
while (!READ_VOLATILE(interface_ready)) {
MEMORY_BARRIER();
delay(1);
}
// Create audio app with memory barrier protection
{
PAFSynthAudioApp<>* audio_raw = new (audio_app_mem) PAFSynthAudioApp<>();
audio_raw->Setup(AudioDriver::GetSampleRate(), interface);
// shared_ptr with custom deleter calling only the destructor (control block still allocates)
auto audio_deleter = [](PAFSynthAudioApp<>* p) {
if (p) p->~PAFSynthAudioApp<>();
};
std::shared_ptr<PAFSynthAudioApp<>> temp_audio_app(audio_raw, audio_deleter);
MEMORY_BARRIER();
audio_app = temp_audio_app;
MEMORY_BARRIER();
}
AudioDriver::SetBlockCallback(audio_block_callback);
// Start audio driver
AudioDriver::Setup();
// AudioDriver::SetBlockCallback(audio_block_callback);
WRITE_VOLATILE(core_1_ready, true);
while (!READ_VOLATILE(core_0_ready)) {
MEMORY_BARRIER();
delay(1);
}
Serial.println("Finished initialising core 1.");
} }
void loop1() {
// Audio app parameter processing loop
audio_app->loop();
delay(1);
}

View file

@ -6,17 +6,98 @@
#include <cstddef> #include <cstddef>
#include <cstdint> #include <cstdint>
// #include <vector>
#include <memory> // Added for std::shared_ptr #include <memory> // Added for std::shared_ptr
#include "src/memllib/synth/maxiPAF.hpp" #include "src/memllib/synth/maxiPAF.hpp"
#include "src/memllib/interface/InterfaceBase.hpp" // Added missing include #include "src/memllib/interface/InterfaceBase.hpp" // Added missing include
#define ARPEGGIATOR // #define ARPEGGIATOR
class ADSRLite {
public:
enum envStage{WAITTOTRIG, ATTACK, DECAY, SUSTAIN, RELEASE};
template<size_t NPARAMS=21> void setup(float attackTimeMs, float decayTimeMs, float newSustainLevel, float releaseTimeMs) {
attackIncFull = 1.f/((attackTimeMs / 1000.f) * kSampleRate);
attackInc = attackIncFull;
decayInc = 1.f/((decayTimeMs / 1000.f) * kSampleRate);
sustainLevel = newSustainLevel;
decayInc *= (1.f - sustainLevel);
releaseMs = releaseTimeMs;
}
float play() {
switch(stage) {
case envStage::WAITTOTRIG:
{
envelopeValue = 0.f;
break;
}
case envStage::ATTACK:
{
envelopeValue += attackInc;
if (envelopeValue >= 1.f) {
stage = envStage::DECAY;
Serial.printf("decay %f\n", envelopeValue);
}
break;
}
case envStage::DECAY:
{
envelopeValue -= decayInc;
if (envelopeValue<=sustainLevel) {
stage = envStage::SUSTAIN;
Serial.printf("sus %f\n", envelopeValue);
}
break;
}
case envStage::SUSTAIN:
{
// envelopeValue = sustainLevel;
break;
}
case envStage::RELEASE:
{
envelopeValue -= relInc;
if (envelopeValue <= 0.f) {
stage = envStage::WAITTOTRIG;
Serial.println("wait");
envelopeValue=0.f;
}
break;
}
}
return envelopeValue * velocity;
}
void reset() {
stage = envStage::WAITTOTRIG;
envelopeValue=0;
}
void trigger(float vel) {
stage = envStage::ATTACK;
attackInc = attackIncFull * (1.f - envelopeValue);
velocity = vel;
}
void release() {
relInc = 1.f/((releaseMs / 1000.f) * kSampleRate);
relInc *= envelopeValue;
stage = envStage::RELEASE;
}
private:
envStage stage = envStage::WAITTOTRIG;
float attackInc=0, attackIncFull=0, decayInc=0, sustainLevel=0,relInc=0, releaseMs;
float envelopeValue=0;
float velocity = 1.f;
};
template<size_t NPARAMS=33>
class PAFSynthAudioApp : public AudioAppBase<NPARAMS> class PAFSynthAudioApp : public AudioAppBase<NPARAMS>
{ {
public: public:
@ -49,17 +130,38 @@ public:
// const float trig = pulse.square(1); // const float trig = pulse.square(1);
paf0.play(x1, 1, baseFreq, baseFreq + (paf0_cf * baseFreq), paf0_bw * baseFreq, paf0_vib, paf0_vfr, paf0_shift, 0); paf0.play(x1, 1, baseFreq, baseFreq + (paf0_cf * baseFreq), paf0_bw * baseFreq, paf0_vib, paf0_vfr, paf0_shift, 0);
float y = x1[0]; float p0 = *x1;
const float freq1 = baseFreq * detune; const float freq1 = baseFreq * detune;
paf1.play(x1, 1, freq1, freq1 + (paf1_cf * freq1), paf1_bw * freq1, paf1_vib, paf1_vfr, paf1_shift, 1); paf1.play(x1, 1, freq1, freq1 + (paf1_cf * freq1), paf1_bw * freq1, paf1_vib, paf1_vfr, paf1_shift, 1);
y += x1[0]; const float p1 = *x1;
const float freq2 = freq1 * detune; const float freq2 = freq1 * detune;
paf2.play(x1, 1, freq2, freq2 + (paf2_cf * freq2), paf2_bw * freq2, paf2_vib, paf2_vfr, paf2_shift, 1); paf2.play(x1, 1, freq2, freq2 + (paf2_cf * freq2), paf2_bw * freq2, paf2_vib, paf2_vfr, paf2_shift, 1);
y += x1[0]; const float p2 = *x1;
const float freq3 = freq2 * detune;
paf3.play(x1, 1, freq3, freq3 + (paf3_cf * freq3), paf3_bw * freq3, paf3_vib, paf3_vfr, paf3_shift, 1);
const float p3 = *x1;
auto shapedSine = [](float phasor, float gain, float asym) -> float {
// This function shapes the sine wave to create a foldback effect
float x = sinf(phasor * TWOPI);
x = sinf(((x * TWOPI) * gain) + asym);
return x;
};
float y = p0; //+ p1 + p2 + p3;
// float rm = p0 * p1 * p2 * p3;
// y = y + (rm * rmGain);
y = y + (shapedSine(y, sineShapeGain, sineShapeGain) * sineShapeMix);
#ifdef ARPEGGIATOR #ifdef ARPEGGIATOR
const float ph = phasorOsc.phasor(1); const float ph = phasorOsc.phasor(1);
@ -90,13 +192,15 @@ public:
} }
} }
#endif #endif
y = y * envamp* envamp; float envval = env.play();
y = y * envval;
// y = y * envamp* envamp;
#ifndef ARPEGGIATOR #ifndef ARPEGGIATOR
y *= noteVel; y *= noteVel;
#endif #endif
float d1 = (dl1.play(y, 3500, 0.8f) * dl1mix); float d1 = (dl1.play(y, 100, 0.8f) * dl1mix);
// float d2 = (dl2.play(y, 15000, 0.8f) * dl2mix); // float d2 = (dl2.play(y, 15000, 0.8f) * dl2mix);
y = y + d1;// + d2; y = y + d1;// + d2;
stereosample_t ret { y, y }; stereosample_t ret { y, y };
@ -132,27 +236,26 @@ public:
paf2.init(); paf2.init();
paf2.setsr(maxiSettings::getSampleRate(), 1); paf2.setsr(maxiSettings::getSampleRate(), 1);
// paf2.freq(190, 0);
// // paf2.amp(1,0);
// paf2.bw(500,0);
// paf2.cf(210,0);
// paf2.vfr(5,0);
// paf2.vib(0.1,0);
// paf2.shift(6,0);
env.setupAR(10,100); paf3.init();
paf3.setsr(maxiSettings::getSampleRate(), 1);
// env.setupAR(10,100);
arpFreq = frequencies[0]; arpFreq = frequencies[0];
// line.prepare(1.f,0.f,100.f,false); // line.prepare(1.f,0.f,100.f,false);
// line.triggerEnable(true); // line.triggerEnable(true);
envamp=1.f; envamp=1.f;
env.setup(500,500,0.8,1000);
queue_init(&qMIDINoteOn, sizeof(uint8_t)*2, 1); queue_init(&qMIDINoteOn, sizeof(uint8_t)*2, 1);
queue_init(&qMIDINoteOff, sizeof(uint8_t)*2, 1);
} }
inline float mtof(uint8_t note) { inline float mtof(uint8_t note) {
// Convert MIDI note to frequency // Convert MIDI note to frequency
return 440.0f * powf(2.0f, (note - 69) / 12.0f); return 440.0f * exp2f((note - 69) / 12.0f);
} }
void loop() override { void loop() override {
@ -163,6 +266,12 @@ public:
noteVel = midimsg[1] / 127.0f; // Normalize velocity to [0, 1] noteVel = midimsg[1] / 127.0f; // Normalize velocity to [0, 1]
noteVel = noteVel * noteVel; // Square the velocity for more pronounced effect noteVel = noteVel * noteVel; // Square the velocity for more pronounced effect
newNote = true; newNote = true;
env.trigger(noteVel);
}
if (firstParamsReceived && queue_try_remove(&qMIDINoteOff, &midimsg)) {
// Serial.printf("PAFSynthAudioApp::ProcessParams - Received MIDI Note On: %d, Velocity: %d\n", midimsg[0], midimsg[1]);
env.release();
Serial.println("release");
} }
AudioAppBase<NPARAMS>::loop(); AudioAppBase<NPARAMS>::loop();
} }
@ -179,28 +288,33 @@ public:
// paf0_cf = arpFreq + (params[2] * params[2] * arpFreq * 1.f); // paf0_cf = arpFreq + (params[2] * params[2] * arpFreq * 1.f);
// paf1_cf = arpFreq + (params[3] * params[3] * arpFreq * 1.f); // paf1_cf = arpFreq + (params[3] * params[3] * arpFreq * 1.f);
// paf2_cf = arpFreq + (params[4] * params[4] * arpFreq * 1.f); // paf2_cf = arpFreq + (params[4] * params[4] * arpFreq * 1.f);
paf0_cf = (params[2] * params[2] * 1.f); paf0_cf = (params[2] * params[2] * 0.1f);
paf1_cf = (params[3] * params[3] * 1.f); paf1_cf = (params[3] * params[3] * 1.f);
paf2_cf = (params[4] * params[4] * 1.f); paf2_cf = (params[4] * params[4] * 1.f);
paf3_cf = (params[21] * params[21] * 1.f);
// paf0_bw = 5.f + (params[5] * arpFreq * 0.5f); // paf0_bw = 5.f + (params[5] * arpFreq * 0.5f);
// paf1_bw = 5.f + (params[6] * arpFreq * 0.5f); // paf1_bw = 5.f + (params[6] * arpFreq * 0.5f);
// paf2_bw = 5.f + (params[7] * arpFreq * 0.5f); // paf2_bw = 5.f + (params[7] * arpFreq * 0.5f);
paf0_bw = 0.1f + (params[5] * 2.f); paf0_bw = 0.1f + (params[5] * 0.2f);
paf1_bw = 0.1f + (params[6] * 2.f); paf1_bw = 0.1f + (params[6] * 2.f);
paf2_bw = 0.1f + (params[7] * 2.f); paf2_bw = 0.1f + (params[7] * 2.f);
paf3_bw = 0.1f + (params[22] * 2.f);
paf0_vib = (params[8] * params[8] * 0.99f); paf0_vib = (params[8] * params[8] * 0.1f);
paf1_vib = (params[9] * params[9] * 0.99f); paf1_vib = (params[9] * params[9] * 0.99f);
paf2_vib = (params[10] * params[10] * 0.99f); paf2_vib = (params[10] * params[10] * 0.99f);
paf3_vib = (params[23] * params[23] * 0.99f);
paf0_vfr = (params[11] * params[11]* 10.f); paf0_vfr = (params[11] * params[11]* 0.1f);
paf1_vfr = (params[12] * params[12] * 10.f); paf1_vfr = (params[12] * params[12] * 10.f);
paf2_vfr = (params[13] * params[13] * 10.f); paf2_vfr = (params[13] * params[13] * 10.f);
paf3_vfr = (params[24] * params[24] * 10.f);
paf0_shift = (params[14] * 1000.f); paf0_shift = (params[14] * 10.f);
paf1_shift = (params[15] * 1000.f); paf1_shift = (params[15] * 1000.f);
paf2_shift = (params[16] * 1000.f); paf2_shift = (params[16] * 1000.f);
paf3_shift = (params[25] * 1000.f);
dl1mix = params[17] * params[17] * 0.4f; dl1mix = params[17] * params[17] * 0.4f;
// dl2mix = params[18] * params[18] * 0.4f; // dl2mix = params[18] * params[18] * 0.4f;
@ -208,9 +322,15 @@ public:
euclidN = static_cast<size_t>(2 + (params[19] * 5)); euclidN = static_cast<size_t>(2 + (params[19] * 5));
envdec=((params[20] * 3.f) + 0.1f)/9000.f; // Decay rate for the envelope // envdec=((params[20] * 1.f) + 0.01f)/9000.f; // Decay rate for the envelope
env.setup(params[30] * 200.f,params[20] * params[20] * 500.f, params[31] * 0.5f, params[32] * 500.f );
sineShapeGain = params[26] * params[26];
sineShapeASym = params[27] * params[27] * 0.1f;
sineShapeMix = params[28];
rmGain = params[29] * params[29];
// sineShapeMixInv = 1.f-sineShapeMix;
// Serial.printf("%f %f %f %f %f\n", paf0_cf, paf0_bw, paf0_vib, paf0_vfr, paf0_shift); // Serial.printf("%f %f %f %f %f\n", paf0_cf, paf0_bw, paf0_vib, paf0_vfr, paf0_shift);
} }
@ -221,43 +341,57 @@ protected:
maxiPAFOperator paf0; maxiPAFOperator paf0;
maxiPAFOperator paf1; maxiPAFOperator paf1;
maxiPAFOperator paf2; maxiPAFOperator paf2;
maxiPAFOperator paf3;
maxiDelayline<5000> dl1; maxiDelayline<5000> dl1;
maxiDelayline<15100> dl2; maxiDelayline<15100> dl2;
maxiOsc pulse; maxiOsc pulse;
maxiEnvGen env; // maxiEnvGen env;
ADSRLite env;
float frame=0; float frame=0;
float paf0_freq = 100; float paf0_freq = 100;
float paf1_freq = 100; float paf1_freq = 100;
float paf2_freq = 50; float paf2_freq = 50;
float paf3_freq = 50;
float paf0_cf = 200; float paf0_cf = 200;
float paf1_cf = 250; float paf1_cf = 250;
float paf2_cf = 250; float paf2_cf = 250;
float paf3_cf = 250;
float paf0_bw = 100; float paf0_bw = 100;
float paf1_bw = 5000; float paf1_bw = 5000;
float paf2_bw = 5000; float paf2_bw = 5000;
float paf3_bw = 5000;
float paf0_vib = 0; float paf0_vib = 0;
float paf1_vib = 1; float paf1_vib = 1;
float paf2_vib = 1; float paf2_vib = 1;
float paf3_vib = 1;
float paf0_vfr = 2; float paf0_vfr = 2;
float paf1_vfr = 2; float paf1_vfr = 2;
float paf2_vfr = 2; float paf2_vfr = 2;
float paf3_vfr = 2;
float paf0_shift = 0; float paf0_shift = 0;
float paf1_shift = 0; float paf1_shift = 0;
float paf2_shift = 0; float paf2_shift = 0;
float paf3_shift = 0;
float dl1mix = 0.0f; float dl1mix = 0.0f;
float dl2mix = 0.0f; float dl2mix = 0.0f;
float rmGain = 0.f;
float sineShapeGain=0.1;
float sineShapeASym = 0.f;
float sineShapeMix = 0.f;
float sineShapeMixInv = 1.f;
size_t counter=0; size_t counter=0;
size_t freqIndex = 0; size_t freqIndex = 0;
size_t freqOffset = 0; size_t freqOffset = 0;

@ -1 +1 @@
Subproject commit d9fe679e77acffc156d3a91b0c51b16df38f6d0d Subproject commit 66279fdfeaf3f454419d3f1f0ee022b065757bcd