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ansible/src/ansible_arc.c

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#include <string.h> //memset
#include <stdlib.h> //abs
#include "print_funcs.h"
#include "flashc.h"
#include "gpio.h"
#include "dac.h"
#include "monome.h"
#include "i2c.h"
#include "music.h"
#include "ii.h"
#include "i2c.h"
#include "init_common.h"
#include "main.h"
#include "ansible_arc.h"
static uint8_t arc_preset_mode;
static uint8_t arc_preset;
static uint8_t arc_preset_select;
static int16_t enc_count[4];
void (*arc_refresh)(void);
void ii_arc(uint8_t* data, uint8_t len);
////////////////////////////////////////////////////////////////////////////////
// LEVELS
static void levels_pattern_next(void);
static void levels_play_next(void);
static void levels_dac_refresh(void);
static void levels_timer_volt0(void* o);
static void levels_timer_volt1(void* o);
static void levels_timer_volt2(void* o);
static void levels_timer_volt3(void* o);
static void levels_timer_note0(void* o);
static void levels_timer_note1(void* o);
static void levels_timer_note2(void* o);
static void levels_timer_note3(void* o);
levels_data_t l;
cycles_data_t c;
static uint8_t mode;
static uint8_t mode_config;
static uint8_t play;
static uint8_t pattern_pos;
static uint8_t pattern_pos_play;
static int8_t pattern_read;
static int8_t pattern_write;
static uint8_t levels_scales[4][29];
static bool tr_state[4];
static uint16_t tr_time[4];
static int16_t tr_time_pw[4];
#define LEVELS_CM_MODE 0
#define LEVELS_CM_RANGE 1
#define LEVELS_CM_OFFSET 2
#define LEVELS_CM_SLEW 3
////////////////////////////////////////////////////////////////////////////////
// CYCLES
void set_mode_arc(void) {
switch(ansible_mode) {
case mArcLevels:
// print_dbg("\r\n> mode arc levels");
app_event_handlers[kEventKey] = &handler_LevelsKey;
app_event_handlers[kEventTr] = &handler_LevelsTr;
app_event_handlers[kEventTrNormal] = &handler_LevelsTrNormal;
app_event_handlers[kEventMonomeRingEnc] = &handler_LevelsEnc;
app_event_handlers[kEventMonomeRefresh] = &handler_LevelsRefresh;
clock = &clock_null;
// clock = &clock_levels;
// clock_set(f.levels_state.clock_period);
if (!leader_mode) init_i2c_slave(II_LV_ADDR);
process_ii = &ii_levels;
resume_levels();
update_leds(1);
break;
case mArcCycles:
// print_dbg("\r\n> mode arc cycles");
app_event_handlers[kEventKey] = &handler_CyclesKey;
app_event_handlers[kEventTr] = &handler_CyclesTr;
app_event_handlers[kEventTrNormal] = &handler_CyclesTrNormal;
app_event_handlers[kEventMonomeRingEnc] = &handler_CyclesEnc;
app_event_handlers[kEventMonomeRefresh] = &handler_CyclesRefresh;
clock = &clock_cycles;
// 24
clock_set(DAC_RATE_CV << 3);
if (!leader_mode) init_i2c_slave(II_CY_ADDR);
process_ii = &ii_cycles;
resume_cycles();
update_leds(2);
break;
default:
break;
}
// if(connected == conARC) {
// app_event_handlers[kEventFrontShort] = &handler_ArcFrontShort;
// app_event_handlers[kEventFrontLong] = &handler_ArcFrontLong;
// }
flashc_memset32((void*)&(f.state.none_mode), ansible_mode, 4, true);
flashc_memset32((void*)&(f.state.arc_mode), ansible_mode, 4, true);
}
static inline void arc_leave_preset(void) {
arc_preset_mode = 0;
switch(ansible_mode) {
case mArcLevels:
mode = 0;
app_event_handlers[kEventMonomeRingEnc] = &handler_LevelsEnc;
app_event_handlers[kEventKey] = &handler_LevelsKey;
arc_refresh = &refresh_levels;
break;
case mArcCycles:
app_event_handlers[kEventMonomeRingEnc] = &handler_CyclesEnc;
app_event_handlers[kEventKey] = &handler_CyclesKey;
mode = 0;
arc_refresh = &refresh_cycles;
break;
default:
break;
}
}
void handler_ArcFrontShort(s32 data) {
// print_dbg("\r\n> PRESET ");
// print_dbg_ulong(arc_preset);
if(arc_preset_mode) {
arc_leave_preset();
}
else {
enc_count[0] = 0;
enc_count[1] = 0;
enc_count[2] = 0;
enc_count[3] = 0;
arc_preset_mode = 1;
arc_preset_select = arc_preset;
app_event_handlers[kEventKey] = &handler_ArcPresetKey;
app_event_handlers[kEventMonomeRingEnc] = &handler_ArcPresetEnc;
arc_refresh = &refresh_arc_preset;
}
monomeFrameDirty++;
}
void handler_ArcFrontLong(s32 data) {
if(ansible_mode == mArcLevels)
set_mode(mArcCycles);
else
set_mode(mArcLevels);
}
void ii_arc(uint8_t* d, uint8_t len) {
// print_dbg("\r\nii/arc (");
// print_dbg_ulong(len);
// print_dbg(") ");
// for(int i=0;i<len;i++) {
// print_dbg_ulong(d[i]);
// print_dbg(" ");
// }
if (len < 1) {
return;
}
switch (d[0]) {
case II_ARC_ENC:
if (len >= 2
&& d[0] < 4) {
event_t e;
uint8_t* data = (uint8_t*)(&(e.data));
data[0] = d[0];
data[1] = d[1];
e.type = kEventMonomeRingEnc;
event_post(&e);
}
break;
case II_ARC_LED + II_GET: {
uint8_t led = 0;
if ( len >= 2
&& d[0] < 4
&& d[1] < 64) {
led = monomeLedBuffer[d[0] * 64 + d[1]];
}
ii_tx_queue(led);
break;
}
default:
break;
}
}
static void key_long_levels(uint8_t key);
static void key_long_cycles(uint8_t key);
static void generate_scales(uint8_t n);
static void arc_draw_point(uint8_t n, uint16_t p);
static void arc_draw_point_dark(uint8_t n, uint16_t p);
static bool ext_clock;
static bool ext_reset;
uint8_t key_count_arc[2];
// https://en.wikipedia.org/wiki/Triangular_number
const uint8_t delta_acc[16] = {0, 1, 3, 6, 10, 15, 21, 28, 36, 45, 55, 66, 78, 91, 105, 120};
void arc_keytimer(void) {
if(key_count_arc[0]) {
if(key_count_arc[0] == 1) {
switch(ansible_mode) {
case mArcLevels:
key_long_levels(0);
break;
case mArcCycles:
key_long_cycles(0);
break;
default:
break;
}
}
key_count_arc[0]--;
}
if(key_count_arc[1]) {
if(key_count_arc[1] == 1) {
switch(ansible_mode) {
case mArcLevels:
key_long_levels(1);
break;
case mArcCycles:
key_long_cycles(1);
break;
default:
break;
}
}
key_count_arc[1]--;
}
}
void handler_ArcPresetEnc(s32 data) {
uint8_t n;
int8_t delta;
int16_t i;
monome_ring_enc_parse_event_data(data, &n, &delta);
enc_count[n] += delta;
i = enc_count[n] >> 4;
enc_count[n] -= i << 4;
if(i) {
arc_preset_select = (arc_preset_select + i) & 0x7;
monomeFrameDirty++;
}
}
void handler_ArcPresetKey(s32 data) {
switch(data) {
case 1:
arc_preset = arc_preset_select;
// print_dbg("\r\nread preset: ");
// print_dbg_ulong(arc_preset);
switch(ansible_mode) {
case mArcLevels:
flashc_memset8((void*)&(f.levels_state.preset), arc_preset, 1, true);
init_levels();
arc_leave_preset();
resume_levels();
break;
case mArcCycles:
flashc_memset8((void*)&(f.cycles_state.preset), arc_preset, 1, true);
init_cycles();
arc_leave_preset();
resume_cycles();
break;
default:
break;
}
break;
case 3:
arc_preset = arc_preset_select;
// print_dbg("\r\nwrite preset: ");
// print_dbg_ulong(arc_preset);
switch(ansible_mode) {
case mArcLevels:
flashc_memcpy((void *)&f.levels_state.l[arc_preset], &l, sizeof(l), true);
flashc_memset8((void*)&(f.levels_state.preset), arc_preset, 1, true);
arc_leave_preset();
resume_levels();
break;
case mArcCycles:
flashc_memcpy((void *)&f.cycles_state.c[arc_preset], &c, sizeof(c), true);
flashc_memset8((void*)&(f.cycles_state.preset), arc_preset, 1, true);
arc_leave_preset();
resume_cycles();
break;
default:
break;
}
break;
default:
break;
}
}
void refresh_arc_preset(void) {
uint16_t i1;
for(i1=0;i1<256;i1++) {
monomeLedBuffer[i1] = 0;
}
for(i1=0;i1<8;i1++) {
monomeLedBuffer[arc_preset * 8 + i1] = 7;
monomeLedBuffer[arc_preset_select * 8 + i1] = 15;
}
}
////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////////////
static inline uint16_t get_tr_time(uint8_t n) {
return ((0x3ff - l.pattern[n][play]) >> (2 - l.range[n])) + 40;
}
static inline int16_t get_tr_time_pw(uint8_t n) {
int i;
i = ((l.offset[n] >> 6) - 8);
if(i<0) i++;
return i * (tr_time[n] >> 3);
}
void default_levels() {
uint8_t i1,i2;
l.now = 0;
l.start = 0;
l.len = 3;
l.dir = 0;
for(i1=0;i1<4;i1++) {
l.mode[i1] = 0;
l.all[i1] = 0;
l.scale[i1] = 0;
l.octave[i1] = 0;
l.offset[i1] = 0;
l.range[i1] = 2;
l.slew[i1] = 20;
for(i2=0;i2<16;i2++) {
l.pattern[i1][i2] = 0;
l.note[i1][i2] = 0;
}
}
for(i1=0;i1<8;i1++)
flashc_memcpy((void *)&f.levels_state.l[i1], &l, sizeof(l), true);
flashc_memset8((void*)&(f.levels_state.preset), arc_preset, 1, true);
// flashc_memcpy_memset32((void*)&(f.levels_state.clock_period), 250, 4, true);
}
void init_levels() {
uint8_t i1, i2;
arc_preset = f.levels_state.preset;
l.now = f.levels_state.l[arc_preset].now;
l.start = f.levels_state.l[arc_preset].start;
l.len = f.levels_state.l[arc_preset].len;
l.dir = f.levels_state.l[arc_preset].dir;
for(i1=0;i1<4;i1++) {
for(i2=0;i2<16;i2++) {
l.pattern[i1][i2] = f.levels_state.l[arc_preset].pattern[i1][i2];
l.note[i1][i2] = f.levels_state.l[arc_preset].note[i1][i2];
}
l.mode[i1] = f.levels_state.l[arc_preset].mode[i1];
l.all[i1] = f.levels_state.l[arc_preset].all[i1];
l.scale[i1] = f.levels_state.l[arc_preset].scale[i1];
l.octave[i1] = f.levels_state.l[arc_preset].octave[i1];
l.offset[i1] = f.levels_state.l[arc_preset].offset[i1];
l.range[i1] = f.levels_state.l[arc_preset].range[i1];
l.slew[i1] = f.levels_state.l[arc_preset].slew[i1];
}
}
void resume_levels() {
uint8_t i1;
mode = 0;
mode_config = 0;
pattern_pos = l.now;
pattern_pos_play = l.now;
play = l.now;
arc_refresh = &refresh_levels;
arc_preset = f.levels_state.preset;
for(i1=0;i1<4;i1++) {
dac_set_slew(i1,l.slew[i1]);
generate_scales(i1);
tr_state[i1] = 0;
}
if(!l.mode[0])
timer_add(&auxTimer[0], 1, &levels_timer_volt0, NULL );
if(!l.mode[1])
timer_add(&auxTimer[1], 1, &levels_timer_volt1, NULL );
if(!l.mode[2])
timer_add(&auxTimer[2], 1, &levels_timer_volt2, NULL );
if(!l.mode[3])
timer_add(&auxTimer[3], 1, &levels_timer_volt3, NULL );
key_count_arc[0] = 0;
key_count_arc[1] = 0;
ext_clock = !gpio_get_pin_value(B10);
ext_reset = false;
// reset_dacs();
levels_dac_refresh();
monomeFrameDirty++;
// print_dbg("\r\nresume levels");
}
static void levels_timer_volt0(void* o) {
if(tr_state[0]) {
clr_tr(TR1);
timer_reset_set(&auxTimer[0], tr_time[0] - tr_time_pw[0]);
}
else {
set_tr(TR1);
tr_time[0] = get_tr_time(0);
tr_time_pw[0] = get_tr_time_pw(0);
timer_reset_set(&auxTimer[0], tr_time[0] + tr_time_pw[0]);
}
tr_state[0] ^= 1;
}
static void levels_timer_volt1(void* o) {
if(tr_state[1]) {
clr_tr(TR2);
timer_reset_set(&auxTimer[1], tr_time[1] - tr_time_pw[1]);
}
else {
tr_time[1] = get_tr_time(1);
tr_time_pw[1] = get_tr_time_pw(1);
set_tr(TR2);
timer_reset_set(&auxTimer[1], tr_time[1] + tr_time_pw[1]);
}
tr_state[1] ^= 1;
}
static void levels_timer_volt2(void* o) {
if(tr_state[2]) {
clr_tr(TR3);
timer_reset_set(&auxTimer[2], tr_time[2] - tr_time_pw[2]);
}
else {
tr_time[2] = get_tr_time(2);
tr_time_pw[2] = get_tr_time_pw(2);
set_tr(TR3);
timer_reset_set(&auxTimer[2], tr_time[2] + tr_time_pw[2]);
}
tr_state[2] ^= 1;
}
static void levels_timer_volt3(void* o) {
if(tr_state[3]) {
clr_tr(TR4);
timer_reset_set(&auxTimer[3], tr_time[3] - tr_time_pw[3]);
}
else {
tr_time[3] = get_tr_time(3);
tr_time_pw[3] = get_tr_time_pw(3);
set_tr(TR4);
timer_reset_set(&auxTimer[3], tr_time[3] + tr_time_pw[3]);
}
tr_state[3] ^= 1;
}
static void levels_timer_note0(void* o) {
timer_remove( &auxTimer[0]);
clr_tr(TR1);
tr_state[0] = 0;
}
static inline void tr_note0(void) {
if(tr_state[0] == 0) {
timer_add(&auxTimer[0], l.offset[0] + 10, &levels_timer_note0, NULL );
set_tr(TR1);
tr_state[0] = 1;
}
else
timer_reset_set(&auxTimer[0], l.offset[0] + 10);
}
static void levels_timer_note1(void* o) {
timer_remove( &auxTimer[1]);
clr_tr(TR2);
tr_state[1] = 0;
}
static inline void tr_note1(void) {
if(tr_state[1] == 0) {
timer_add(&auxTimer[1], l.offset[1] + 10, &levels_timer_note1, NULL );
set_tr(TR2);
tr_state[1] = 1;
}
else
timer_reset_set(&auxTimer[1], l.offset[1] + 10);
}
static void levels_timer_note2(void* o) {
timer_remove( &auxTimer[2]);
clr_tr(TR3);
tr_state[2] = 0;
}
static inline void tr_note2(void) {
if(tr_state[2] == 0) {
timer_add(&auxTimer[2], l.offset[2] + 10, &levels_timer_note2, NULL );
set_tr(TR3);
tr_state[2] = 1;
}
else
timer_reset_set(&auxTimer[2], l.offset[2] + 10);
}
static void levels_timer_note3(void* o) {
timer_remove( &auxTimer[3]);
clr_tr(TR4);
tr_state[3] = 0;
}
static inline void tr_note3(void) {
if(tr_state[3] == 0) {
timer_add(&auxTimer[3], l.offset[3] + 10, &levels_timer_note3, NULL );
set_tr(TR4);
tr_state[3] = 1;
}
else
timer_reset_set(&auxTimer[3], l.offset[3] + 10);
}
void clock_levels(uint8_t phase) {
;;
// if(phase)
// set_tr(TR1);
// else
// clr_tr(TR1);
}
void ii_levels(uint8_t *d, uint8_t len) {
if(len) {
switch(d[0]) {
case II_LV_PRESET:
if(d[1] > -1 && d[1] < 8) {
arc_preset = d[1];
flashc_memset8((void*)&(f.levels_state.preset), arc_preset, 1, true);
init_levels();
monomeFrameDirty++;
}
break;
case II_LV_PRESET + II_GET:
ii_tx_queue(arc_preset);
break;
case II_LV_POS:
if(d[1] > -1 && d[1] < 16) {
pattern_pos_play = d[1] % l.len;
if(l.dir)
play = (16 + l.start - pattern_pos_play) & 0xf;
else
play = (pattern_pos_play + l.start) & 0xf;
levels_dac_refresh();
if(l.mode[0])
tr_note0();
if(l.mode[1])
tr_note1();
if(l.mode[2])
tr_note2();
if(l.mode[3])
tr_note3();
monomeFrameDirty++;
}
break;
case II_LV_POS + II_GET:
ii_tx_queue(play);
break;
case II_LV_L_ST:
if(d[1] > -1 && d[1] < 16) {
l.start = d[1];
monomeFrameDirty++;
}
break;
case II_LV_L_ST + II_GET:
ii_tx_queue(l.start);
break;
case II_LV_L_LEN:
if(d[1] > 0 && d[1] < 17) {
l.len = d[1];
monomeFrameDirty++;
}
break;
case II_LV_L_LEN + II_GET:
ii_tx_queue(l.len);
break;
case II_LV_L_DIR:
if(d[1] > -1 && d[1] < 2) {
l.dir = d[1];
monomeFrameDirty++;
}
break;
case II_LV_L_DIR + II_GET:
ii_tx_queue(l.dir);
break;
case II_LV_RESET:
if(d[0] == 0)
ext_reset = true;
else {
play = l.start;
levels_dac_refresh();
if(l.mode[0])
tr_note0();
if(l.mode[1])
tr_note1();
if(l.mode[2])
tr_note2();
if(l.mode[3])
tr_note3();
monomeFrameDirty++;
}
break;
case II_LV_CV + II_GET:
if (d[1] > 3) {
ii_tx_queue(0);
ii_tx_queue(0);
break;
}
ii_tx_queue(dac_get_value(d[1]) >> 8);
ii_tx_queue(dac_get_value(d[1]) & 0xff);
break;
default:
ii_arc(d, len);
ii_ansible(d, len);
break;
}
}
}
void handler_LevelsEnc(s32 data) {
uint8_t n;
int8_t delta;
int16_t i;
monome_ring_enc_parse_event_data(data, &n, &delta);
// print_dbg("\r\n levels enc \tn: ");
// print_dbg_ulong(n);
// print_dbg("\t delta: ");
// print_dbg_hex(delta);
switch(mode) {
// NORMAL
case 0:
// NOTE
if(l.mode[n]) {
enc_count[n] += delta;
i = enc_count[n] >> 4;
enc_count[n] -= i << 4;
if(i) {
i += l.note[n][l.now];
if(i<0)
i=0;
else if(i>28 && l.scale[n])
i=28;
else if(i>48 && !l.scale[n])
i=48;
l.note[n][l.now] = i;
if(l.all[n])
memset(l.note[n], i, 16);
if(!ext_clock)
levels_dac_refresh();
}
}
// VOLT
else {
if(delta > 15) delta = 15;
if(delta < -15) delta = -15;
if(delta > 0)
i = l.pattern[n][l.now] + delta_acc[delta];
else
i = l.pattern[n][l.now] - delta_acc[-delta];
if(i < 0)
i = 0;
else if(i > 0x3ff)
i = 0x3ff;
l.pattern[n][l.now] = i;
if(l.all[n])
for(uint8_t i1=0;i1<16;i1++)
l.pattern[n][i1] = i;
// print_dbg("\r\n time: ");
// print_dbg_ulong(tr_time[n] + tr_time_pw[n]);
// print_dbg(" / ");
// print_dbg_ulong(tr_time[n] - tr_time_pw[n]);
// print_dbg(" ---- ");
// print_dbg_ulong(tr_time[n]);
// print_dbg("\r\ntr timer: ");
// print_dbg_ulong(((0x3ff - l.pattern[n][l.now]) >> (2 - l.range[n])) + 10);
if(!ext_clock)
levels_dac_refresh();
}
break;
// LEFT KEY
case 1:
i = (enc_count[n] + delta) & 0xff;
if(i >> 4 != enc_count[n] >> 4) {
switch(n) {
case 0:
pattern_read = i >> 4;
pattern_write = -1;
enc_count[1] = (l.now << 4) + 8;
break;
case 1:
pattern_write = i >> 4;
pattern_read = -1;
enc_count[0] = (l.now << 4) + 8;
break;
case 2:
l.start = i >> 4;
break;
case 3:
if((i>>4) == 0) {
if(l.dir && l.len == 2)
l.dir = 0;
else if(l.dir == 0 && l.len == 2)
l.dir = 1;
}
if(l.dir)
l.len = ((16 - (i>>4)) & 0xf) + 1;
else
l.len = (i>>4) + 1;
// print_dbg("\r\nlen: ");
// print_dbg_ulong(l.len);
// print_dbg("\t");
// print_dbg_ulong(l.dir);
// print_dbg("\t");
// print_dbg_ulong(i>>4);
break;
default:
break;
}
monomeFrameDirty++;
}
// print_dbg("\r\ni: ");
// print_dbg_ulong(i >> 4);
enc_count[n] = i;
break;
// RIGHT KEY
case 2:
switch(mode_config) {
// volt/note mode
case LEVELS_CM_MODE:
enc_count[n] += delta;
i = enc_count[n] >> 6;
enc_count[n] -= i << 6;
if(i) {
if(l.mode[n] == 0) {
if(i < 0) {
l.all[n] = 1;
}
else if(l.all[n]) {
l.all[n] = 0;
}
else {
l.mode[n] = 1;
}
}
else {
if(i > 0) {
l.all[n] = 1;
}
else if(l.all[n]) {
l.all[n] = 0;
}
else {
l.mode[n] = 0;
}
}
if(l.mode[n]) {
timer_remove( &auxTimer[n]);
clr_tr(TR1 + n);
tr_state[n] = 0;
}
else {
tr_state[n] = 0;
set_tr(TR1 + n);
switch(n) {
case 0:
timer_add(&auxTimer[0], tr_time[0] - tr_time_pw[0], &levels_timer_volt0, NULL );
break;
case 1:
timer_add(&auxTimer[1], tr_time[1] - tr_time_pw[1], &levels_timer_volt1, NULL );
break;
case 2:
timer_add(&auxTimer[2], tr_time[2] - tr_time_pw[2], &levels_timer_volt2, NULL );
break;
case 3:
timer_add(&auxTimer[3], tr_time[3] - tr_time_pw[3], &levels_timer_volt3, NULL );
break;
}
}
}
break;
// range / scale
case LEVELS_CM_RANGE:
enc_count[n] += delta;
i = enc_count[n] >> 4;
enc_count[n] -= i << 4;
if(l.mode[n] == 0) {
// range
if(i) {
i += l.range[n];
if(i < 0) i = 0;
else if(i > 2) i = 2;
l.range[n] = i;
}
}
else {
// scale
if(i) {
i += l.scale[n];
if(i < 0) i = 0;
else if(i > 7) i = 7;
l.scale[n] = i;
generate_scales(n);
}
}
if(!ext_clock)
levels_dac_refresh();
break;
// offset
case LEVELS_CM_OFFSET:
// volt offset
if(l.mode[n] == 0) {
if(delta > 15) delta = 15;
if(delta < -15) delta = -15;
if(delta > 0)
i = l.offset[n] + delta_acc[delta];
else
i = l.offset[n] - delta_acc[-delta];
if(i < 0)
i = 0;
else if(i > 0x3ff)
i = 0x3ff;
l.offset[n] = i;
}
// octave
else {
enc_count[2] += delta;
i = enc_count[2] >> 4;
enc_count[2] -= i << 4;
i += l.octave[n];
if(i < 0) i = 0;
else if(i > 5) i = 5;
l.octave[n] = i;
}
if(!ext_clock)
levels_dac_refresh();
break;
// slew
case LEVELS_CM_SLEW:
if(delta > 15) delta = 15;
if(delta < -15) delta = -15;
if(delta > 0)
i = delta_acc[delta];
else
i = -delta_acc[-delta];
i += l.slew[n];
if(i < 1) i = 1;
else if(i > 2047) i = 2047;
l.slew[n] = i;
dac_set_slew(n, i);
// print_dbg("\r\nslew: ");
// print_dbg_ulong(l.slew[n]);
break;
default:
break;
}
default:
break;
}
// print_dbg("\r\n accum: ");
// print_dbg_hex(i);
monomeFrameDirty++;
}
void handler_LevelsRefresh(s32 data) {
if(monomeFrameDirty) {
arc_refresh();
monome_set_quadrant_flag(0);
monome_set_quadrant_flag(1);
monome_set_quadrant_flag(2);
monome_set_quadrant_flag(3);
(*monome_refresh)();
}
}
void refresh_levels() {
uint16_t i1, i2;
memset(monomeLedBuffer,0,MONOME_MAX_LED_BYTES);
for(i1=0;i1<4;i1++) {
if(l.mode[i1]) {
// note map
if(l.scale[i1]) {
// show note map
for(i2=0;i2<29;i2++) {
monomeLedBuffer[i1*64 + ((32 + levels_scales[i1][i2]) & 0x3f)] = 3;
}
monomeLedBuffer[i1*64 + ((32 + 0) & 0x3f)] = 7;
monomeLedBuffer[i1*64 + ((32 + 12) & 0x3f)] = 7;
monomeLedBuffer[i1*64 + ((32 + 24) & 0x3f)] = 7;
monomeLedBuffer[i1*64 + ((32 + 36) & 0x3f)] = 7;
monomeLedBuffer[i1*64 + ((32 + 48) & 0x3f)] = 7;
// show note
monomeLedBuffer[i1*64 + ((32 + levels_scales[i1][l.note[i1][play]]) & 0x3f)] = 10;
monomeLedBuffer[i1*64 + ((32 + levels_scales[i1][l.note[i1][l.now]]) & 0x3f)] = 15;
}
// all semitones
else {
for(i2=0;i2<48;i2++)
monomeLedBuffer[i1*64 + ((32 + i2) & 0x3f)] = 3;
monomeLedBuffer[i1*64 + ((32 + 0) & 0x3f)] = 7;
monomeLedBuffer[i1*64 + ((32 + 12) & 0x3f)] = 7;
monomeLedBuffer[i1*64 + ((32 + 24) & 0x3f)] = 7;
monomeLedBuffer[i1*64 + ((32 + 36) & 0x3f)] = 7;
monomeLedBuffer[i1*64 + ((32 + 48) & 0x3f)] = 7;
// show note
monomeLedBuffer[i1*64 + ((32 + l.note[i1][play]) & 0x3f)] = 10;
monomeLedBuffer[i1*64 + ((32 + l.note[i1][l.now]) & 0x3f)] = 15;
}
}
else {
if(play == l.now) {
i2 = (l.pattern[i1][l.now] * 3) >> 2;
i2 = (i2 + 640) & 0x3ff;
arc_draw_point(i1, i2);
}
else {
i2 = (l.pattern[i1][play] * 3) >> 2;
i2 = (i2 + 640) & 0x3ff;
arc_draw_point_dark(i1, i2);
i2 = (l.pattern[i1][l.now] * 3) >> 2;
i2 = (i2 + 640) & 0x3ff;
arc_draw_point(i1, i2);
}
}
}
}
void refresh_levels_change() {
uint16_t i1;
memset(monomeLedBuffer,0,MONOME_MAX_LED_BYTES);
if(l.dir) {
for(i1=0;i1<l.len * 4;i1++) {
monomeLedBuffer[128 + ((((l.start - l.len + 1) * 4) + i1) & 63)] = 3;
monomeLedBuffer[192 + ((((l.start - l.len + 1) * 4) + i1) & 63)] = 5;
}
}
else {
for(i1=0;i1<l.len * 4;i1++) {
monomeLedBuffer[128 + (((l.start * 4) + i1) & 63)] = 3;
monomeLedBuffer[192 + (((l.start * 4) + i1) & 63)] = 5;
}
}
for(i1=0;i1<4;i1++) {
// READ
monomeLedBuffer[(l.now * 4) + i1] = 5;
if(pattern_read >= 0)
monomeLedBuffer[(pattern_read * 4) + i1] = 15;
// WRITE
monomeLedBuffer[64 + (l.now * 4) + i1] = 5;
if(pattern_write >= 0)
monomeLedBuffer[64 + (pattern_write * 4) + i1] = 15;
// PATTERN START
monomeLedBuffer[128 + (l.start * 4) + i1] = 15;
// PLAY
monomeLedBuffer[192 + (play * 4) + i1] = 11;
}
}
void refresh_levels_config() {
uint16_t i1, i2, i3;
memset(monomeLedBuffer,0,MONOME_MAX_LED_BYTES);
switch(mode_config) {
case LEVELS_CM_MODE:
for(i1=0;i1<4;i1++) {
for(i2=0;i2<14;i2++) {
if(l.mode[i1])
monomeLedBuffer[i1*64 + 32 - i2] = (i2 & 1) * 7;
else
monomeLedBuffer[i1*64 + 32 - i2] = i2;
}
if(l.all[i1]) {
monomeLedBuffer[i1*64 + 12] = 7;
monomeLedBuffer[i1*64 + 13] = 7;
}
}
break;
case LEVELS_CM_RANGE:
for(i1=0;i1<4;i1++) {
// note scale
if(l.mode[i1]) {
// show note map
if(l.scale[i1]) {
for(i2=0;i2<29;i2++)
monomeLedBuffer[i1*64 + ((32 + levels_scales[i1][i2]) & 0x3f)] = 3;
}
// all semis
else {
for(i2=0;i2<48;i2++)
monomeLedBuffer[i1*64 + ((32 + i2) & 0x3f)] = 3;
}
// note octave markers
monomeLedBuffer[i1*64 + ((32 + 0) & 0x3f)] = 7;
monomeLedBuffer[i1*64 + ((32 + 12) & 0x3f)] = 7;
monomeLedBuffer[i1*64 + ((32 + 24) & 0x3f)] = 7;
monomeLedBuffer[i1*64 + ((32 + 36) & 0x3f)] = 7;
monomeLedBuffer[i1*64 + ((32 + 48) & 0x3f)] = 7;
}
// volt range
else {
i2 = (48 >> (2-l.range[i1]));
for(i3=0;i3<i2;i3++)
monomeLedBuffer[i1*64 + ((40 + i3) & 0x3f)] = 3;
}
}
break;
case LEVELS_CM_OFFSET:
for(i1=0;i1<4;i1++) {
// note octave
if(l.mode[i1]) {
monomeLedBuffer[i1*64 + 41 + 0 * 3] = 3;
monomeLedBuffer[i1*64 + 41 + 1 * 3] = 3;
monomeLedBuffer[i1*64 + 41 + 2 * 3] = 3;
monomeLedBuffer[i1*64 + 41 + 3 * 3] = 3;
monomeLedBuffer[i1*64 + 41 + 4 * 3] = 3;
monomeLedBuffer[i1*64 + 41 + 5 * 3] = 3;
monomeLedBuffer[i1*64 + 40 + l.octave[i1] * 3 + 0] = 15;
monomeLedBuffer[i1*64 + 40 + l.octave[i1] * 3 + 1] = 15;
monomeLedBuffer[i1*64 + 40 + l.octave[i1] * 3 + 2] = 15;
}
// volt offset
else {
monomeLedBuffer[i1*64 + 40] = 3;
monomeLedBuffer[i1*64 + 0] = 3;
monomeLedBuffer[i1*64 + 24] = 3;
i2 = (l.offset[i1] * 3) >> 2;
i2 = (i2 + 640) & 0x3ff;
arc_draw_point(i1, i2);
}
}
break;
case LEVELS_CM_SLEW:
// slew
for(i1=0;i1<4;i1++) {
i2 = (l.slew[i1] * 3) >> 3;
i2 = (i2 + 640) & 0x3ff;
arc_draw_point_dark(i1, i2);
for(i2=0;i2<48;i2++)
monomeLedBuffer[i1*64 + ((40 + i2) & 0x3f)] += 3;
}
break;
}
}
void handler_LevelsKey(s32 data) {
// print_dbg("\r\n> levels key ");
// print_dbg_ulong(data);
switch(data) {
// key 1 UP
case 0:
if(key_count_arc[0]) {
key_count_arc[0] = 0;
// SHORT PRESS
if(mode == 2) {
mode_config = (mode_config + 1) & 3;
// print_dbg("\r\nmode: ");
// print_dbg_ulong(mode_config);
monomeFrameDirty++;
}
else {
levels_pattern_next();
if(!ext_clock) {
play = l.now;
levels_dac_refresh();
if(l.mode[0])
tr_note0();
if(l.mode[1])
tr_note1();
if(l.mode[2])
tr_note2();
if(l.mode[3])
tr_note3();
}
}
monomeFrameDirty++;
}
else if(mode == 1) {
if(pattern_read != -1) {
l.now = pattern_read;
if(!ext_clock) {
play = l.now;
levels_dac_refresh();
}
}
else if(pattern_write != -1) {
l.pattern[0][pattern_write] = l.pattern[0][l.now];
l.pattern[1][pattern_write] = l.pattern[1][l.now];
l.pattern[2][pattern_write] = l.pattern[2][l.now];
l.pattern[3][pattern_write] = l.pattern[3][l.now];
l.note[0][pattern_write] = l.note[0][l.now];
l.note[1][pattern_write] = l.note[1][l.now];
l.note[2][pattern_write] = l.note[2][l.now];
l.note[3][pattern_write] = l.note[3][l.now];
l.now = pattern_write;
}
mode = 0;
arc_refresh = &refresh_levels;
monomeFrameDirty++;
}
break;
// key 1 DOWN
case 1:
key_count_arc[0] = KEY_HOLD_TIME;
break;
// key 2 UP
case 2:
if(key_count_arc[1]) {
key_count_arc[1] = 0;
if(mode == 0) {
l.now = l.start;
if(!ext_clock) {
play = l.now;
levels_dac_refresh();
if(l.mode[0])
tr_note0();
if(l.mode[1])
tr_note1();
if(l.mode[2])
tr_note2();
if(l.mode[3])
tr_note3();
}
monomeFrameDirty++;
}
}
else if(mode == 2) {
mode = 0;
arc_refresh = &refresh_levels;
monomeFrameDirty++;
}
break;
// key 2 DOWN
case 3:
key_count_arc[1] = KEY_HOLD_TIME;
break;
default:
break;
}
}
static void key_long_levels(uint8_t key) {
// print_dbg("\r\nLONG PRESS >>>>>>> ");
// print_dbg_ulong(key);
if(key == 0) {
if(mode == 0) {
mode = 1;
pattern_read = -1;
pattern_write = -1;
arc_refresh = &refresh_levels_change;
enc_count[0] = (l.now << 4) + 8;
enc_count[1] = (l.now << 4) + 8;
enc_count[2] = (l.start << 4) + 8;
if(l.dir)
enc_count[3] = ((17 - l.len) << 4) + 8;
else
enc_count[3] = ((l.len - 1) << 4) + 8;
monomeFrameDirty++;
}
}
else if(key == 1) {
if(mode == 0) {
mode = 2;
enc_count[0] = 0;
enc_count[1] = 0;
enc_count[2] = 0;
enc_count[3] = 0;
arc_refresh = &refresh_levels_config;
monomeFrameDirty++;
}
}
}
void handler_LevelsTr(s32 data) {
// print_dbg("\r\n> levels tr ");
// print_dbg_ulong(data);
switch(data) {
case 1:
if(ext_reset) {
play = l.start;
ext_reset = false;
monomeFrameDirty++;
}
else
levels_play_next();
levels_dac_refresh();
break;
case 3:
ext_reset = true;
break;
default:
break;
}
}
void handler_LevelsTrNormal(s32 data) {
print_dbg("\r\n> levels tr normal ");
print_dbg_ulong(data);
if(data)
ext_clock = true;
else {
ext_clock = false;
play = l.now;
monomeFrameDirty++;
}
}
static void levels_pattern_next() {
pattern_pos = (pattern_pos + 1) % l.len;
if(l.dir)
l.now = (16 + l.start - pattern_pos) % 0xf;
else
l.now = (pattern_pos + l.start) & 0xf;
monomeFrameDirty++;
}
static void levels_play_next() {
pattern_pos_play = (pattern_pos_play + 1) % l.len;
if(l.dir)
play = (16 + l.start - pattern_pos_play) & 0xf;
else
play = (pattern_pos_play + l.start) & 0xf;
if(l.mode[0])
tr_note0();
if(l.mode[1])
tr_note1();
if(l.mode[2])
tr_note2();
if(l.mode[3])
tr_note3();
monomeFrameDirty++;
}
////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////////////
// const uint8_t friction_map[33] = { 0, 4, 8, 12, 16, 20, 23, 26, 29, 32, 34, 36, 38, 40, 42, 44,
// 46, 48, 50, 51, 52, 53, 54, 55, 56, 57, 58, 59, 60, 61, 62, 63, 64};
const uint8_t friction_map[25] = { 0, 12, 20, 26, 30, 34, 39, 42, 45,
48, 50, 51, 52, 53, 54, 55, 56, 57, 58, 59, 60, 61, 62, 63, 64};
const uint16_t div_map[4] = {0x2000,0x1000,0x0800,0x0400};
static uint16_t friction;
static int8_t add_force[4];
static bool cycle_dir[4];
void default_cycles() {
uint8_t i1;
c.mode = 0;
c.shape = 0;
c.friction = 0;
c.force = 1;
for(i1=0;i1<4;i1++) {
c.pos[i1] = 0;
c.speed[i1] = 0;
c.mult[i1] = 0;
c.range[i1] = 64;
c.div[i1] = 0;
}
for(i1=0;i1<8;i1++)
flashc_memcpy((void *)&f.cycles_state.c[i1], &c, sizeof(c), true);
flashc_memset32((void*)&(f.cycles_state.preset), 0, 4, true);
}
void init_cycles() {
uint8_t i1;
arc_preset = f.cycles_state.preset;
c.mode = f.cycles_state.c[arc_preset].mode;
c.shape = f.cycles_state.c[arc_preset].shape;
c.friction = f.cycles_state.c[arc_preset].friction;
c.force = f.cycles_state.c[arc_preset].force;
for(i1=0;i1<4;i1++) {
c.pos[i1] = f.cycles_state.c[arc_preset].pos[i1];
c.speed[i1] = f.cycles_state.c[arc_preset].speed[i1];
c.mult[i1] = f.cycles_state.c[arc_preset].mult[i1];
c.range[i1] = f.cycles_state.c[arc_preset].range[i1];
c.div[i1] = f.cycles_state.c[arc_preset].div[i1];
}
}
void resume_cycles() {
uint8_t i1;
mode = 0;
arc_refresh = &refresh_cycles;
arc_preset = f.cycles_state.preset;
for(i1=0;i1<4;i1++) {
dac_set_slew(i1,DAC_RATE_CV << 3);
tr_state[i1] = 0;
cycle_dir[i1] = 1;
add_force[i1] = 0;
}
key_count_arc[0] = 0;
key_count_arc[1] = 0;
friction = friction_map[24 - c.friction] + 192;
ext_clock = !gpio_get_pin_value(B10);
monomeFrameDirty++;
}
void clock_cycles(uint8_t phase) {
uint8_t i1;
if(c.mode) {
c.speed[0] += add_force[0];
if(c.mult[1] > -1)
c.speed[1] = c.speed[0] >> c.mult[1];
else
c.speed[1] = c.speed[0] << -c.mult[1];
if(c.mult[2] > -1)
c.speed[2] = c.speed[0] >> c.mult[2];
else
c.speed[2] = c.speed[0] << -c.mult[2];
if(c.mult[3] > -1)
c.speed[3] = c.speed[0] >> c.mult[3];
else
c.speed[3] = c.speed[0] << -c.mult[3];
}
for(i1=0;i1<4;i1++) {
if(c.mode == 0)
c.speed[i1] += add_force[i1];
c.pos[i1] = (c.pos[i1] + c.speed[i1]) & 0x3fff;
c.speed[i1] = (c.speed[i1] * (friction)) / 256;
// c.speed[i1] = (c.speed[i1] * (friction)) >> 8;
if(c.pos[i1] & div_map[c.div[i1]])
set_tr(TR1 + i1);
else
clr_tr(TR1 + i1);
if(c.shape)
dac_set_value(i1, (c.pos[i1] * c.range[i1]) >> 6);
// dac_set_value(i1, c.pos[i1] << 2);
else
dac_set_value(i1, (abs(0x2000 - c.pos[i1]) << 1) * c.range[i1] >> 6);
}
monomeFrameDirty++;
}
void ii_cycles(uint8_t *d, uint8_t len) {
if(len) {
switch(d[0]) {
case II_CY_PRESET:
if(d[1] > -1 && d[1] < 8) {
arc_preset = d[1];
flashc_memset8((void*)&(f.cycles_state.preset), arc_preset, 1, true);
init_cycles();
monomeFrameDirty++;
}
break;
case II_CY_PRESET + II_GET:
ii_tx_queue(arc_preset);
break;
case II_CY_RESET:
if(d[1] == 0) {
c.pos[0] = 0;
c.pos[1] = 0;
c.pos[2] = 0;
c.pos[3] = 0;
}
else if(d[1] < 5)
c.pos[d[1]-1] = 0;
break;
case II_CY_POS:
if(d[1] == 0) {
c.pos[0] = d[2] << 6;
c.pos[1] = d[2] << 6;
c.pos[2] = d[2] << 6;
c.pos[3] = d[2] << 6;
}
else if(d[1] < 5)
c.pos[d[1]-1] = d[2] << 6;
monomeFrameDirty++;
break;
case II_CY_POS + II_GET:
if(d[1] == 0)
ii_tx_queue(((c.pos[0] >> 6) + (c.pos[1] >> 6) + (c.pos[2] >> 6) + (c.pos[3] >> 6)) >> 2);
if(d[1] < 5)
ii_tx_queue(c.pos[d[1]-1] >> 6);
break;
case II_CY_REV:
if(d[1] == 0) {
c.speed[0] = -c.speed[0];
c.speed[1] = -c.speed[1];
c.speed[2] = -c.speed[2];
c.speed[3] = -c.speed[3];
}
else if(d[1] < 5)
c.speed[d[1]-1] = -c.speed[d[1]-1];
break;
case II_CY_CV + II_GET:
if (d[1] > 3) {
ii_tx_queue(0);
ii_tx_queue(0);
break;
}
ii_tx_queue(dac_get_value(d[1]) >> 8);
ii_tx_queue(dac_get_value(d[1]) & 0xff);
break;
default:
ii_arc(d, len);
ii_ansible(d, len);
break;
}
}
}
#define MAX_SPEED 2000
void handler_CyclesEnc(s32 data) {
uint8_t n;
int16_t i;
int8_t delta;
int32_t s;
monome_ring_enc_parse_event_data(data, &n, &delta);
switch(mode) {
case 0:
// sync
if(c.mode) {
if(n == 0) {
s = c.speed[0] + (delta << c.force);
if(s > MAX_SPEED)
s = MAX_SPEED;
if(s < -MAX_SPEED)
s = -MAX_SPEED;
c.speed[0] = s;
cycle_dir[0] = delta > 0;
cycle_dir[1] = delta > 0;
cycle_dir[2] = delta > 0;
cycle_dir[3] = delta > 0;
if(c.mult[1] > -1)
c.speed[1] = c.speed[0] >> c.mult[1];
else
c.speed[1] = c.speed[0] << -c.mult[1];
if(c.mult[2] > -1)
c.speed[2] = c.speed[0] >> c.mult[2];
else
c.speed[2] = c.speed[0] << -c.mult[2];
if(c.mult[3] > -1)
c.speed[3] = c.speed[0] >> c.mult[3];
else
c.speed[3] = c.speed[0] << -c.mult[3];
}
else {
enc_count[n] += delta;
i = enc_count[n] >> 4;
enc_count[n] -= i << 4;
if(i) {
i += c.mult[n];
if(i < -4)
i = -4;
else if(i > 1)
i = 1;
c.mult[n] = i;
if(i > -1)
c.speed[n] = c.speed[0] >> i;
else
c.speed[n] = c.speed[0] << -i;
}
}
}
// free
else {
s = c.speed[n] + (delta << c.force);
if(s > MAX_SPEED)
s = MAX_SPEED;
if(s < -MAX_SPEED)
s = -MAX_SPEED;
c.speed[n] = s;
cycle_dir[n] = delta > 0;
// print_dbg("\r\n");
// print_dbg_ulong(n);
// print_dbg(" ");
// print_dbg_ulong(s);
}
break;
case 1:
switch(n) {
// mode
case 0:
if(delta > 0)
c.mode = 1;
else
c.mode = 0;
break;
// shape
case 1:
if(delta > 0)
c.shape = 1;
else
c.shape = 0;
break;
// force
case 2:
enc_count[n] += delta;
i = enc_count[n] >> 4;
enc_count[n] -= i << 4;
i += c.force;
if(i < 1)
i = 1;
else if(i > 4)
i = 4;
c.force = i;
break;
// friction
case 3:
enc_count[n] += delta;
i = enc_count[n] >> 4;
enc_count[n] -= i << 4;
if(i) {
i += c.friction;
if(i < 0)
i = 0;
else if(i > 24)
i = 24;
c.friction = i;
friction = friction_map[24 - c.friction] + 192;
// print_dbg("\r\nfriction: ");
// print_dbg_ulong(friction);
}
break;
}
monomeFrameDirty++;
break;
case 2:
// range
enc_count[n] += delta;
i = enc_count[n] >> 4;
enc_count[n] -= i << 4;
if(i) {
i += c.range[n];
if(i < 1)
i = 1;
else if(i > 64)
i = 64;
c.range[n] = i;
}
break;
case 3:
// div
enc_count[n] += delta;
i = enc_count[n] >> 6;
enc_count[n] -= i << 6;
if(i) {
i += c.div[n];
if(i < 0)
i = 0;
else if(i > 3)
i = 3;
c.div[n] = i;
}
break;
default: break;
}
}
void handler_CyclesRefresh(s32 data) {
if(monomeFrameDirty) {
arc_refresh();
monome_set_quadrant_flag(0);
monome_set_quadrant_flag(1);
monome_set_quadrant_flag(2);
monome_set_quadrant_flag(3);
(*monome_refresh)();
}
}
void handler_CyclesKey(s32 data) {
// print_dbg("\r\n> cycles key ");
// print_dbg_ulong(data);
switch(data) {
// key 1 UP
case 0:
if(key_count_arc[0]) {
key_count_arc[0] = 0;
// SHORT PRESS
// add_force = c.force;
}
// LONG UP
else {
friction = friction_map[24 - c.friction] + 192;
}
break;
// key 1 DOWN
case 1:
if(mode == 1) {
mode = 2;
enc_count[0] = 0;
enc_count[1] = 0;
enc_count[2] = 0;
enc_count[3] = 0;
arc_refresh = &refresh_cycles_config_range;
monomeFrameDirty++;
}
else if(mode == 2) {
mode = 3;
enc_count[0] = 0;
enc_count[1] = 0;
enc_count[2] = 0;
enc_count[3] = 0;
arc_refresh = &refresh_cycles_config_div;
monomeFrameDirty++;
}
else if(mode == 3){
mode = 1;
enc_count[0] = 0;
enc_count[1] = 0;
enc_count[2] = 0;
enc_count[3] = 0;
arc_refresh = &refresh_cycles_config;
monomeFrameDirty++;
} else {
key_count_arc[0] = KEY_HOLD_TIME;
}
break;
// key 2 UP
case 2:
if(key_count_arc[1]) {
key_count_arc[1] = 0;
// SHORT PRESS
c.pos[0] = 0;
c.pos[1] = 0;
c.pos[2] = 0;
c.pos[3] = 0;
}
else {
// LONG RELEASE
mode = 0;
enc_count[0] = 0;
enc_count[1] = 0;
enc_count[2] = 0;
enc_count[3] = 0;
arc_refresh = &refresh_cycles;
monomeFrameDirty++;
}
break;
// key 2 DOWN
case 3:
key_count_arc[1] = KEY_HOLD_TIME;
break;
default:
break;
}
}
void handler_CyclesTr(s32 data) {
// print_dbg("\r\n> cycles tr ");
// print_dbg_ulong(data);
switch(data) {
case 0:
friction = friction_map[24 - c.friction] + 192;
break;
case 1:
friction = friction_map[(24 - c.friction) >> 1] + 192;
break;
case 2:
if(ext_clock) {
add_force[0] = 0;
add_force[1] = 0;
add_force[2] = 0;
add_force[3] = 0;
}
break;
case 3:
if(ext_clock) {
add_force[0] = (cycle_dir[0] * 2 - 1) * (1 << (c.force - 1));
add_force[1] = (cycle_dir[1] * 2 - 1) * (1 << (c.force - 1));
add_force[2] = (cycle_dir[2] * 2 - 1) * (1 << (c.force - 1));
add_force[3] = (cycle_dir[3] * 2 - 1) * (1 << (c.force - 1));
}
else {
c.pos[0] = 0;
c.pos[1] = 0;
c.pos[2] = 0;
c.pos[3] = 0;
}
break;
}
}
void handler_CyclesTrNormal(s32 data) {
// print_dbg("\r\n> cycles tr normal ");
// print_dbg_ulong(data);
ext_clock = data;
}
static void key_long_cycles(uint8_t key) {
// print_dbg("\r\nLONG PRESS >>>>>>> ");
// print_dbg_ulong(key);
if(key == 1) {
mode = 1;
enc_count[0] = 0;
enc_count[1] = 0;
enc_count[2] = 0;
enc_count[3] = 0;
arc_refresh = &refresh_cycles_config;
monomeFrameDirty++;
}
else {
friction = friction_map[(24 - c.friction) >> 1] + 192;
}
}
void refresh_cycles(void) {
uint8_t i1;
memset(monomeLedBuffer,0,MONOME_MAX_LED_BYTES);
if(c.mode) {
for(i1=1;i1<4;i1++) {
monomeLedBuffer[i1*64 + 30 + c.mult[i1]*4] = 3;
monomeLedBuffer[i1*64 + 31 + c.mult[i1]*4] = 3;
monomeLedBuffer[i1*64 + 32 + c.mult[i1]*4] = 3;
monomeLedBuffer[i1*64 + 33 + c.mult[i1]*4] = 3;
}
}
for(i1=0;i1<4;i1++)
arc_draw_point(i1,c.pos[i1] >> 4);
}
void refresh_cycles_config(void) {
uint8_t i1;
memset(monomeLedBuffer,0,MONOME_MAX_LED_BYTES);
if(c.mode) {
monomeLedBuffer[36] = 7;
monomeLedBuffer[39] = 7;
monomeLedBuffer[42] = 7;
monomeLedBuffer[45] = 7;
}
else {
monomeLedBuffer[35] = 7;
monomeLedBuffer[42] = 7;
monomeLedBuffer[44] = 7;
monomeLedBuffer[48] = 7;
}
if(c.shape) {
for(i1=0;i1<16;i1++) {
monomeLedBuffer[64 + i1*4 + 0] = i1;
monomeLedBuffer[64 + i1*4 + 1] = i1;
monomeLedBuffer[64 + i1*4 + 2] = i1;
monomeLedBuffer[64 + i1*4 + 3] = i1;
}
}
else {
for(i1=0;i1<16;i1++) {
monomeLedBuffer[64 + i1*2] = 15-i1;
monomeLedBuffer[64 + i1*2 + 1] = 15-i1;
monomeLedBuffer[64 + 32 + i1*2] = i1;
monomeLedBuffer[64 + 32 + i1*2 + 1] = i1;
}
}
for(i1=0;i1<8;i1++)
monomeLedBuffer[128 + 40 + i1] = 3;
monomeLedBuffer[128 + 38 + (c.force * 2)] = 15;
monomeLedBuffer[128 + 39 + (c.force * 2)] = 15;
monomeLedBuffer[192] = 3;
memset(monomeLedBuffer + 232, 3, 24);
monomeLedBuffer[192 + ((c.friction + 40) & 0x3f)] = 15;
// uint16_t i = (c.friction * 3);
// i = (i + 640) & 0x3ff;
// arc_draw_point(3, i);
}
void refresh_cycles_config_range(void) {
uint8_t i1, i2;
memset(monomeLedBuffer,0,MONOME_MAX_LED_BYTES);
for(i1=0;i1<4;i1++)
for(i2=0;i2<c.range[i1];i2++)
monomeLedBuffer[i1*64 + ((32 + i2) & 0x3f)] = 3;
}
void refresh_cycles_config_div(void) {
uint8_t i1, i2;
memset(monomeLedBuffer,0,MONOME_MAX_LED_BYTES);
for(i1=0;i1<4;i1++) {
for(i2=0; i2<(1<<c.div[i1]); i2++) {
memset(i1*64 + monomeLedBuffer + i2*(64 >> c.div[i1]), 5, (64 >> (c.div[i1]+1)));
}
}
}
////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////////////
static void arc_draw_point(uint8_t n, uint16_t p) {
int c;
// c = p / 16;
c = p >> 4;
monomeLedBuffer[(n * 64) + c] = 15;
monomeLedBuffer[(n * 64) + ((c + 1) % 64)] = p % 16;
monomeLedBuffer[(n * 64) + ((c + 63) % 64)] = 15 - (p % 16);
}
static void arc_draw_point_dark(uint8_t n, uint16_t p) {
int c;
c = p / 16;
monomeLedBuffer[(n * 64) + c] = 7;
monomeLedBuffer[(n * 64) + ((c + 1) % 64)] = (p % 16) >> 1;
monomeLedBuffer[(n * 64) + ((c + 63) % 64)] = (15 - (p % 16)) >> 1;
}
static void generate_scales(uint8_t n) {
levels_scales[n][0] = 0;
for(uint8_t i1=0;i1<28;i1++) {
levels_scales[n][i1+1] = levels_scales[n][i1] + SCALE_INT[l.scale[n]-1][i1 % 7];
}
}
static void levels_dac_refresh(void) {
for (uint8_t i = 0; i < 4; i++) {
if (l.mode[i]) {
if (l.scale[i]) {
dac_set_value(i, tuning_table[i][ levels_scales[i][ l.note[i][play] ] + l.octave[i]*12 ]);
} else {
dac_set_value(i, tuning_table[i][ l.note[i][play] + l.octave[i]*12 ]);
}
} else {
dac_set_value(i, (l.pattern[i][play] + l.offset[i]) << (2 + l.range[i]));
}
}
}