2020 November 28 Breaking Changes Update (#11053)
* Branch point for 2020 November 28 Breaking Change * Remove matrix_col_t to allow MATRIX_ROWS > 32 (#10183) * Add support for soft serial to ATmega32U2 (#10204) * Change MIDI velocity implementation to allow direct control of velocity value (#9940) * Add ability to build a subset of all keyboards based on platform. * Actually use eeprom_driver_init(). * Make bootloader_jump weak for ChibiOS. (#10417) * Joystick 16-bit support (#10439) * Per-encoder resolutions (#10259) * Share button state from mousekey to pointing_device (#10179) * Add hotfix for chibios keyboards not wake (#10088) * Add advanced/efficient RGB Matrix Indicators (#8564) * Naming change. * Support for STM32 GPIOF,G,H,I,J,K (#10206) * Add milc as a dependency and remove the installed milc (#10563) * ChibiOS upgrade: early init conversions (#10214) * ChibiOS upgrade: configuration file migrator (#9952) * Haptic and solenoid cleanup (#9700) * XD75 cleanup (#10524) * OLED display update interval support (#10388) * Add definition based on currently-selected serial driver. (#10716) * New feature: Retro Tapping per key (#10622) * Allow for modification of output RGB values when using rgblight/rgb_matrix. (#10638) * Add housekeeping task callbacks so that keyboards/keymaps are capable of executing code for each main loop iteration. (#10530) * Rescale both ChibiOS and AVR backlighting. * Reduce Helix keyboard build variation (#8669) * Minor change to behavior allowing display updates to continue between task ticks (#10750) * Some GPIO manipulations in matrix.c change to atomic. (#10491) * qmk cformat (#10767) * [Keyboard] Update the Speedo firmware for v3.0 (#10657) * Maartenwut/Maarten namechange to evyd13/Evy (#10274) * [quantum] combine repeated lines of code (#10837) * Add step sequencer feature (#9703) * aeboards/ext65 refactor (#10820) * Refactor xelus/dawn60 for Rev2 later (#10584) * add DEBUG_MATRIX_SCAN_RATE_ENABLE to common_features.mk (#10824) * [Core] Added `add_oneshot_mods` & `del_oneshot_mods` (#10549) * update chibios os usb for the otg driver (#8893) * Remove HD44780 References, Part 4 (#10735) * [Keyboard] Add Valor FRL TKL (+refactor) (#10512) * Fix cursor position bug in oled_write_raw functions (#10800) * Fixup version.h writing when using SKIP_VERSION=yes (#10972) * Allow for certain code in the codebase assuming length of string. (#10974) * Add AT90USB support for serial.c (#10706) * Auto shift: support repeats and early registration (#9826) * Rename ledmatrix.h to match .c file (#7949) * Split RGB_MATRIX_ENABLE into _ENABLE and _DRIVER (#10231) * Split LED_MATRIX_ENABLE into _ENABLE and _DRIVER (#10840) * Merge point for 2020 Nov 28 Breaking Change
This commit is contained in:
James Young
GitHub
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884 changed files with 8121 additions and 11685 deletions
275
quantum/sequencer/sequencer.c
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275
quantum/sequencer/sequencer.c
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/* Copyright 2020 Rodolphe Belouin
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*
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* This program is free software: you can redistribute it and/or modify
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* it under the terms of the GNU General Public License as published by
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* the Free Software Foundation, either version 2 of the License, or
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* (at your option) any later version.
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*
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* This program is distributed in the hope that it will be useful,
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* but WITHOUT ANY WARRANTY; without even the implied warranty of
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* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
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* GNU General Public License for more details.
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*
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* You should have received a copy of the GNU General Public License
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* along with this program. If not, see <http://www.gnu.org/licenses/>.
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*/
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#include "sequencer.h"
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#ifdef MIDI_ENABLE
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# include "process_midi.h"
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#endif
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#ifdef MIDI_MOCKED
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# include "tests/midi_mock.h"
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#endif
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sequencer_config_t sequencer_config = {
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false, // enabled
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{false}, // steps
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{0}, // track notes
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60, // tempo
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SQ_RES_4, // resolution
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};
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sequencer_state_t sequencer_internal_state = {0, 0, 0, 0, SEQUENCER_PHASE_ATTACK};
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bool is_sequencer_on(void) { return sequencer_config.enabled; }
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void sequencer_on(void) {
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dprintln("sequencer on");
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sequencer_config.enabled = true;
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sequencer_internal_state.current_track = 0;
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sequencer_internal_state.current_step = 0;
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sequencer_internal_state.timer = timer_read();
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sequencer_internal_state.phase = SEQUENCER_PHASE_ATTACK;
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}
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void sequencer_off(void) {
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dprintln("sequencer off");
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sequencer_config.enabled = false;
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sequencer_internal_state.current_step = 0;
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}
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void sequencer_toggle(void) {
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if (is_sequencer_on()) {
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sequencer_off();
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} else {
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sequencer_on();
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}
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}
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void sequencer_set_track_notes(const uint16_t track_notes[SEQUENCER_TRACKS]) {
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for (uint8_t i = 0; i < SEQUENCER_TRACKS; i++) {
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sequencer_config.track_notes[i] = track_notes[i];
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}
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}
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bool is_sequencer_track_active(uint8_t track) { return (sequencer_internal_state.active_tracks >> track) & true; }
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void sequencer_set_track_activation(uint8_t track, bool value) {
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if (value) {
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sequencer_internal_state.active_tracks |= (1 << track);
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} else {
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sequencer_internal_state.active_tracks &= ~(1 << track);
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}
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dprintf("sequencer: track %d is %s\n", track, value ? "active" : "inactive");
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}
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void sequencer_toggle_track_activation(uint8_t track) { sequencer_set_track_activation(track, !is_sequencer_track_active(track)); }
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void sequencer_toggle_single_active_track(uint8_t track) {
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if (is_sequencer_track_active(track)) {
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sequencer_internal_state.active_tracks = 0;
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} else {
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sequencer_internal_state.active_tracks = 1 << track;
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}
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}
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bool is_sequencer_step_on(uint8_t step) { return step < SEQUENCER_STEPS && (sequencer_config.steps[step] & sequencer_internal_state.active_tracks) > 0; }
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bool is_sequencer_step_on_for_track(uint8_t step, uint8_t track) { return step < SEQUENCER_STEPS && (sequencer_config.steps[step] >> track) & true; }
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void sequencer_set_step(uint8_t step, bool value) {
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if (step < SEQUENCER_STEPS) {
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if (value) {
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sequencer_config.steps[step] |= sequencer_internal_state.active_tracks;
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} else {
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sequencer_config.steps[step] &= ~sequencer_internal_state.active_tracks;
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}
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dprintf("sequencer: step %d is %s\n", step, value ? "on" : "off");
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} else {
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dprintf("sequencer: step %d is out of range\n", step);
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}
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}
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void sequencer_toggle_step(uint8_t step) {
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if (is_sequencer_step_on(step)) {
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sequencer_set_step_off(step);
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} else {
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sequencer_set_step_on(step);
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}
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}
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void sequencer_set_all_steps(bool value) {
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for (uint8_t step = 0; step < SEQUENCER_STEPS; step++) {
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if (value) {
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sequencer_config.steps[step] |= sequencer_internal_state.active_tracks;
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} else {
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sequencer_config.steps[step] &= ~sequencer_internal_state.active_tracks;
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}
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}
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dprintf("sequencer: all steps are %s\n", value ? "on" : "off");
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}
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uint8_t sequencer_get_tempo(void) { return sequencer_config.tempo; }
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void sequencer_set_tempo(uint8_t tempo) {
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if (tempo > 0) {
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sequencer_config.tempo = tempo;
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dprintf("sequencer: tempo set to %d bpm\n", tempo);
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} else {
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dprintln("sequencer: cannot set tempo to 0");
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}
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}
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void sequencer_increase_tempo(void) {
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// Handling potential uint8_t overflow
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if (sequencer_config.tempo < UINT8_MAX) {
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sequencer_set_tempo(sequencer_config.tempo + 1);
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} else {
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dprintf("sequencer: cannot set tempo above %d\n", UINT8_MAX);
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}
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}
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void sequencer_decrease_tempo(void) { sequencer_set_tempo(sequencer_config.tempo - 1); }
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sequencer_resolution_t sequencer_get_resolution(void) { return sequencer_config.resolution; }
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void sequencer_set_resolution(sequencer_resolution_t resolution) {
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if (resolution >= 0 && resolution < SEQUENCER_RESOLUTIONS) {
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sequencer_config.resolution = resolution;
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dprintf("sequencer: resolution set to %d\n", resolution);
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} else {
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dprintf("sequencer: resolution %d is out of range\n", resolution);
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}
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}
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void sequencer_increase_resolution(void) { sequencer_set_resolution(sequencer_config.resolution + 1); }
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void sequencer_decrease_resolution(void) { sequencer_set_resolution(sequencer_config.resolution - 1); }
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uint8_t sequencer_get_current_step(void) { return sequencer_internal_state.current_step; }
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void sequencer_phase_attack(void) {
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dprintf("sequencer: step %d\n", sequencer_internal_state.current_step);
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dprintf("sequencer: time %d\n", timer_read());
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if (sequencer_internal_state.current_track == 0) {
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sequencer_internal_state.timer = timer_read();
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}
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if (timer_elapsed(sequencer_internal_state.timer) < sequencer_internal_state.current_track * SEQUENCER_TRACK_THROTTLE) {
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return;
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}
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#if defined(MIDI_ENABLE) || defined(MIDI_MOCKED)
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if (is_sequencer_step_on_for_track(sequencer_internal_state.current_step, sequencer_internal_state.current_track)) {
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process_midi_basic_noteon(midi_compute_note(sequencer_config.track_notes[sequencer_internal_state.current_track]));
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}
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#endif
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if (sequencer_internal_state.current_track < SEQUENCER_TRACKS - 1) {
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sequencer_internal_state.current_track++;
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} else {
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sequencer_internal_state.phase = SEQUENCER_PHASE_RELEASE;
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}
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}
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void sequencer_phase_release(void) {
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if (timer_elapsed(sequencer_internal_state.timer) < SEQUENCER_PHASE_RELEASE_TIMEOUT + sequencer_internal_state.current_track * SEQUENCER_TRACK_THROTTLE) {
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return;
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}
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#if defined(MIDI_ENABLE) || defined(MIDI_MOCKED)
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if (is_sequencer_step_on_for_track(sequencer_internal_state.current_step, sequencer_internal_state.current_track)) {
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process_midi_basic_noteoff(midi_compute_note(sequencer_config.track_notes[sequencer_internal_state.current_track]));
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}
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#endif
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if (sequencer_internal_state.current_track > 0) {
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sequencer_internal_state.current_track--;
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} else {
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sequencer_internal_state.phase = SEQUENCER_PHASE_PAUSE;
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}
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}
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void sequencer_phase_pause(void) {
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if (timer_elapsed(sequencer_internal_state.timer) < sequencer_get_step_duration()) {
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return;
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}
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sequencer_internal_state.current_step = (sequencer_internal_state.current_step + 1) % SEQUENCER_STEPS;
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sequencer_internal_state.phase = SEQUENCER_PHASE_ATTACK;
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}
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void matrix_scan_sequencer(void) {
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if (!sequencer_config.enabled) {
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return;
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}
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if (sequencer_internal_state.phase == SEQUENCER_PHASE_PAUSE) {
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sequencer_phase_pause();
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}
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if (sequencer_internal_state.phase == SEQUENCER_PHASE_RELEASE) {
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sequencer_phase_release();
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}
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if (sequencer_internal_state.phase == SEQUENCER_PHASE_ATTACK) {
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sequencer_phase_attack();
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}
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}
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uint16_t sequencer_get_beat_duration(void) { return get_beat_duration(sequencer_config.tempo); }
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uint16_t sequencer_get_step_duration(void) { return get_step_duration(sequencer_config.tempo, sequencer_config.resolution); }
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uint16_t get_beat_duration(uint8_t tempo) {
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// Don’t crash in the unlikely case where the given tempo is 0
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if (tempo == 0) {
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return get_beat_duration(60);
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}
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/**
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* Given
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* t = tempo and d = duration, both strictly greater than 0
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* When
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* t beats / minute = 1 beat / d ms
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* Then
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* t beats / 60000ms = 1 beat / d ms
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* d ms = 60000ms / t
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*/
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return 60000 / tempo;
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}
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uint16_t get_step_duration(uint8_t tempo, sequencer_resolution_t resolution) {
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/**
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* Resolution cheatsheet:
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* 1/2 => 2 steps per 4 beats
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* 1/2T => 3 steps per 4 beats
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* 1/4 => 4 steps per 4 beats
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* 1/4T => 6 steps per 4 beats
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* 1/8 => 8 steps per 4 beats
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* 1/8T => 12 steps per 4 beats
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* 1/16 => 16 steps per 4 beats
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* 1/16T => 24 steps per 4 beats
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* 1/32 => 32 steps per 4 beats
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*
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* The number of steps for binary resolutions follows the powers of 2.
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* The ternary variants are simply 1.5x faster.
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*/
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bool is_binary = resolution % 2 == 0;
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uint8_t binary_steps = 2 << (resolution / 2);
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uint16_t binary_step_duration = get_beat_duration(tempo) * 4 / binary_steps;
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return is_binary ? binary_step_duration : 2 * binary_step_duration / 3;
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}
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