xy view, graphs in rl stats

This commit is contained in:
chriskiefer 2025-10-20 14:18:21 +01:00
parent 6ad19d58c6
commit a833a5843c
3 changed files with 182 additions and 105 deletions

View file

@ -8,6 +8,8 @@
#include "hardware/structs/bus_ctrl.h"
#include "PAFSynthAudioApp.hpp"
#include "src/memllib/examples/InterfaceRL.hpp"
#include "src/memllib/hardware/memlnaut/display/XYPadView.hpp"
#include "src/memllib/hardware/memlnaut/display/MessageView.hpp"
#define INTERFACE_TYPE InterfaceRL
@ -126,6 +128,40 @@ void setup() {
delay(1);
}
std::shared_ptr<XYPadView> noteTrigView = std::make_shared<XYPadView>("Play", TFT_SILVER);
// Cache MIDI notes being echoed
static bool is_playing_note = false;
static uint8_t last_note_number = 0;
noteTrigView->SetOnTouchCallback([](float x, float y) {
Serial.printf("Note trigger at: %.2f, %.2f\n", x, y);
if (audio_app) {
// If a note is already playing, stop it
if (is_playing_note) {
midi_interf->sendNoteOff(last_note_number, 0);
is_playing_note = false;
}
int noteVel = static_cast<uint8_t>(powf(y * (1.f/127.f), 0.5f) * 127.f);
uint8_t midimsg[2] = {static_cast<uint8_t>(x * 127.f), noteVel};
queue_try_add(&audio_app->qMIDINoteOn, &midimsg);
midi_interf->sendNoteOn(midimsg[0], midimsg[1]);
last_note_number = midimsg[0];
is_playing_note = true; // Set flag to indicate a note is playing
}
});
noteTrigView->SetOnTouchReleaseCallback([](float x, float y) {
Serial.printf("Note release at: %.2f, %.2f\n", x, y);
if (audio_app) {
uint8_t midimsg[2] = {last_note_number,0};
queue_try_add(&audio_app->qMIDINoteOff, &midimsg);
midi_interf->sendNoteOff(last_note_number, 0);
is_playing_note = false; // Reset flag when note is released
}
});
MEMLNaut::Instance()->disp->AddView(noteTrigView);
std::shared_ptr<MessageView> helpView = std::make_shared<MessageView>("Help");
helpView->post("PAF synth CARL");
helpView->post("TA: Down: Forget replay memory");

View file

@ -11,6 +11,8 @@
#include "src/memllib/synth/maxiPAF.hpp"
#include "src/memllib/interface/InterfaceBase.hpp" // Added missing include
#include <span>
// #define ARPEGGIATOR
class ADSRLite {
@ -104,9 +106,115 @@ public:
static constexpr size_t kN_Params = NPARAMS;
static constexpr size_t nFREQs = 17;
static constexpr float frequencies[nFREQs] = {100, 200, 400,800, 400, 800, 100,1600,100,400,100,50,1600,200,100,800,400};
using VoiceSpaceFn = std::function<void(const std::array<float, NPARAMS>&)>;
struct VoiceSpace {
char name[16]="default";
VoiceSpaceFn mappingFunction = nullptr;
};
std::array<VoiceSpace, 2> voiceSpaces;
VoiceSpaceFn currentVoiceSpace;
PAFSynthAudioApp() : AudioAppBase<NPARAMS>() {
auto voiceSpace1 = [this](const std::array<float, NPARAMS>& params) {
p0Gain=1.f;
p1Gain=0.f;
p2Gain=0.f;
p3Gain=0.f;
paf0_cf = (params[2] * params[2] * 0.1f);
paf1_cf = (params[3] * params[3] * 1.f);
paf2_cf = (params[4] * params[4] * 1.f);
paf3_cf = (params[21] * params[21] * 1.f);
paf0_bw = 0.1f + (params[5] * 0.2f);
paf1_bw = 0.1f + (params[6] * 2.f);
paf2_bw = 0.1f + (params[7] * 2.f);
paf3_bw = 0.1f + (params[22] * 2.f);
paf0_vib = (params[8] * params[8] * 0.1f);
paf1_vib = (params[9] * params[9] * 0.99f);
paf2_vib = (params[10] * params[10] * 0.99f);
paf3_vib = (params[23] * params[23] * 0.99f);
paf0_vfr = (params[11] * params[11]* 0.1f);
paf1_vfr = (params[12] * params[12] * 10.f);
paf2_vfr = (params[13] * params[13] * 10.f);
paf3_vfr = (params[24] * params[24] * 10.f);
paf0_shift = (params[14] * 10.f);
paf1_shift = (params[15] * 1000.f);
paf2_shift = (params[16] * 1000.f);
paf3_shift = (params[25] * 1000.f);
dl1mix = params[17] * params[17] * 0.4f;
// dl2mix = params[18] * params[18] * 0.4f;
detune = 1.0f + (params[18] * 0.1);
// euclidN = static_cast<size_t>(2 + (params[19] * 5));
dlfb = params[19] * 0.98f;
// 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];
};
auto voiceSpace2 = [this](const std::array<float, NPARAMS>& params) {
paf0_cf = (params[2] * params[2] * 0.1f);
paf1_cf = (params[3] * params[3] * 1.f);
paf2_cf = (params[4] * params[4] * 1.f);
paf3_cf = (params[21] * params[21] * 1.f);
paf0_bw = 0.1f + (params[5] * 2.f);
paf1_bw = 0.1f + (params[6] * 2.f);
paf2_bw = 0.1f + (params[7] * 2.f);
paf3_bw = 0.1f + (params[22] * 2.f);
paf0_vib = (params[8] * params[8] * 10.f);
paf1_vib = (params[9] * params[9] * 0.99f);
paf2_vib = (params[10] * params[10] * 0.99f);
paf3_vib = (params[23] * params[23] * 0.99f);
paf0_vfr = (params[11] * params[11]* 1.0f);
paf1_vfr = (params[12] * params[12] * 10.f);
paf2_vfr = (params[13] * params[13] * 10.f);
paf3_vfr = (params[24] * params[24] * 10.f);
paf0_shift = (params[14] * 1000.f);
paf1_shift = (params[15] * 1000.f);
paf2_shift = (params[16] * 1000.f);
paf3_shift = (params[25] * 1000.f);
dl1mix = params[17] * params[17] * 0.4f;
// dl2mix = params[18] * params[18] * 0.4f;
detune = 1.0f + (params[18] * 0.1);
// euclidN = static_cast<size_t>(2 + (params[19] * 5));
dlfb = params[19] * 0.98f;
// 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];
};
voiceSpaces[0] = {"default", voiceSpace1};
voiceSpaces[1] = {"bright", voiceSpace2};
currentVoiceSpace = voiceSpaces[0].mappingFunction;
};
bool __force_inline euclidean(float phase, const size_t n, const size_t k, const size_t offset, const float pulseWidth)
@ -130,22 +238,22 @@ public:
// 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);
float p0 = *x1;
float p0 = *x1 * p0Gain;
const float freq1 = baseFreq * detune;
paf1.play(x1, 1, freq1, freq1 + (paf1_cf * freq1), paf1_bw * freq1, paf1_vib, paf1_vfr, paf1_shift, 1);
const float p1 = *x1;
const float p1 = *x1 * p1Gain;
const float freq2 = freq1 * detune;
paf2.play(x1, 1, freq2, freq2 + (paf2_cf * freq2), paf2_bw * freq2, paf2_vib, paf2_vfr, paf2_shift, 1);
const float p2 = *x1;
const float p2 = *x1 * p2Gain;
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;
const float p3 = *x1 * p3Gain;
auto shapedSine = [](float phasor, float gain, float asym) -> float {
// This function shapes the sine wave to create a foldback effect
@ -154,7 +262,7 @@ public:
return x;
};
float y = p0; //+ p1 + p2 + p3;
float y = p0 + p1 + p2 + p3;
// float rm = p0 * p1 * p2 * p3;
@ -164,33 +272,33 @@ public:
#ifdef ARPEGGIATOR
const float ph = phasorOsc.phasor(1);
const bool euclidNewNote = euclidean(ph, 12, euclidN, 0, 0.1f);
if(zxdetect.onZX(euclidNewNote)) {
envamp=0.8f;
freqIndex++;
if(freqIndex >= nFREQs) {
freqIndex = 0;
}
baseFreq = frequencies[freqIndex];
}else{
// constexpr float envdec = 0.2f/9000.f;
envamp -= envdec;
if (envamp < 0.f) {
envamp = 0.f;
}
}
// const float ph = phasorOsc.phasor(1);
// const bool euclidNewNote = euclidean(ph, 12, euclidN, 0, 0.1f);
// if(zxdetect.onZX(euclidNewNote)) {
// envamp=0.8f;
// freqIndex++;
// if(freqIndex >= nFREQs) {
// freqIndex = 0;
// }
// baseFreq = frequencies[freqIndex];
// }else{
// // constexpr float envdec = 0.2f/9000.f;
// envamp -= envdec;
// if (envamp < 0.f) {
// envamp = 0.f;
// }
// }
#else
if(newNote) {
newNote = false;
envamp=0.8f;
}else{
// constexpr float envdec = 0.2f/9000.f;
envamp -= envdec;
if (envamp < 0.f) {
envamp = 0.f;
}
}
// if(newNote) {
// newNote = false;
// envamp=0.8f;
// }else{
// // constexpr float envdec = 0.2f/9000.f;
// envamp -= envdec;
// if (envamp < 0.f) {
// envamp = 0.f;
// }
// }
#endif
float envval = env.play();
y = y * envval;
@ -200,8 +308,7 @@ public:
y *= noteVel;
#endif
float d1 = (dl1.play(y, 100, 0.8f) * dl1mix);
// float d2 = (dl2.play(y, 15000, 0.8f) * dl2mix);
float d1 = (dl1.play(y, 100, dlfb) * dl1mix);
y = y + d1;// + d2;
stereosample_t ret { y, y };
frame++;
@ -216,23 +323,9 @@ public:
paf0.init();
paf0.setsr(maxiSettings::getSampleRate(), 1);
// paf0.freq(100, 0);
// // paf0.amp(1,0);
// paf0.bw(200,0);
// paf0.cf(210,0);
// paf0.vfr(5,0);
// paf0.vib(0.1,0);
// paf0.shift(10,0);
paf1.init();
paf1.setsr(maxiSettings::getSampleRate(), 1);
// paf1.freq(150, 0);
// // paf1.amp(1,0);
// paf1.bw(200,0);
// paf1.cf(210,0);
// paf1.vfr(5,0);
// paf1.vib(0.1,0);
// paf1.shift(10,0);
paf2.init();
paf2.setsr(maxiSettings::getSampleRate(), 1);
@ -240,10 +333,7 @@ public:
paf3.init();
paf3.setsr(maxiSettings::getSampleRate(), 1);
// env.setupAR(10,100);
arpFreq = frequencies[0];
// line.prepare(1.f,0.f,100.f,false);
// line.triggerEnable(true);
envamp=1.f;
env.setup(500,500,0.8,1000);
@ -279,59 +369,7 @@ public:
void ProcessParams(const std::array<float, NPARAMS>& params)
{
firstParamsReceived = true;
// // Map parameters to the synth
// synth_.mapParameters(params);
// //Serial.print("Params processed.");
// paf0_freq = 50.f + (params[0] * params[0] * 1000.f);
// paf1_freq = 50.f + (params[1] * params[1] * 1000.f);
// paf0_cf = arpFreq + (params[2] * params[2] * arpFreq * 1.f);
// paf1_cf = arpFreq + (params[3] * params[3] * arpFreq * 1.f);
// paf2_cf = arpFreq + (params[4] * params[4] * arpFreq * 1.f);
paf0_cf = (params[2] * params[2] * 0.1f);
paf1_cf = (params[3] * params[3] * 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);
// paf1_bw = 5.f + (params[6] * arpFreq * 0.5f);
// paf2_bw = 5.f + (params[7] * arpFreq * 0.5f);
paf0_bw = 0.1f + (params[5] * 0.2f);
paf1_bw = 0.1f + (params[6] * 2.f);
paf2_bw = 0.1f + (params[7] * 2.f);
paf3_bw = 0.1f + (params[22] * 2.f);
paf0_vib = (params[8] * params[8] * 0.1f);
paf1_vib = (params[9] * params[9] * 0.99f);
paf2_vib = (params[10] * params[10] * 0.99f);
paf3_vib = (params[23] * params[23] * 0.99f);
paf0_vfr = (params[11] * params[11]* 0.1f);
paf1_vfr = (params[12] * params[12] * 10.f);
paf2_vfr = (params[13] * params[13] * 10.f);
paf3_vfr = (params[24] * params[24] * 10.f);
paf0_shift = (params[14] * 10.f);
paf1_shift = (params[15] * 1000.f);
paf2_shift = (params[16] * 1000.f);
paf3_shift = (params[25] * 1000.f);
dl1mix = params[17] * params[17] * 0.4f;
// dl2mix = params[18] * params[18] * 0.4f;
detune = 1.0f + (params[18] * 0.1);
euclidN = static_cast<size_t>(2 + (params[19] * 5));
// 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);
currentVoiceSpace(params);
}
queue_t qMIDINoteOn, qMIDINoteOff;
@ -347,12 +385,13 @@ protected:
maxiDelayline<15100> dl2;
maxiOsc pulse;
// maxiEnvGen env;
ADSRLite env;
float frame=0;
float p0Gain=1.f, p1Gain = 1.f, p2Gain=1.f, p3Gain=1.f;
float paf0_freq = 100;
float paf1_freq = 100;
float paf2_freq = 50;
@ -385,6 +424,7 @@ protected:
float dl1mix = 0.0f;
float dl2mix = 0.0f;
float dlfb = 0.5f;
float rmGain = 0.f;
@ -414,6 +454,7 @@ protected:
float envdec=0.2f/9000.f; // Decay rate for the envelope
};
#endif // __PAF_SYNTH_AUDIO_APP_HPP__

@ -1 +1 @@
Subproject commit 66279fdfeaf3f454419d3f1f0ee022b065757bcd
Subproject commit 8c562f882fa918c98c5596764d398a1c2a2be502