#include "caps_word.h" static bool caps_word_active = false; #if CAPS_WORD_IDLE_TIMEOUT > 0 # if CAPS_WORD_IDLE_TIMEOUT < 100 || CAPS_WORD_IDLE_TIMEOUT > 30000 // Constrain timeout to a sensible range. With the 16-bit timer, the longest // representable timeout is 32768 ms, rounded here to 30000 ms = half a minute. # error "caps_word: CAPS_WORD_IDLE_TIMEOUT must be between 100 and 30000 ms" # endif static uint16_t idle_timer = 0; void caps_word_task(void) { if (caps_word_active && timer_expired(timer_read(), idle_timer)) { caps_word_set(false); } } #endif // CAPS_WORD_IDLE_TIMEOUT > 0 bool process_caps_word(uint16_t keycode, keyrecord_t* record) { #ifndef NO_ACTION_ONESHOT const uint8_t mods = get_mods() | get_oneshot_mods(); #else const uint8_t mods = get_mods(); #endif // NO_ACTION_ONESHOT if (!caps_word_active) { // Pressing both shift keys at the same time enables caps word. if ((mods & MOD_MASK_SHIFT) == MOD_MASK_SHIFT) { caps_word_set(true); // Activate Caps Word. return false; } return true; } else { #if CAPS_WORD_IDLE_TIMEOUT > 0 idle_timer = record->event.time + CAPS_WORD_IDLE_TIMEOUT; #endif // CAPS_WORD_IDLE_TIMEOUT > 0 } if (!record->event.pressed) { return true; } if (!(mods & ~MOD_MASK_SHIFT)) { switch (keycode) { // Ignore MO, TO, TG, TT, and OSL layer switch keys. case QK_MOMENTARY ... QK_MOMENTARY_MAX: case QK_TO ... QK_TO_MAX: case QK_TOGGLE_LAYER ... QK_TOGGLE_LAYER_MAX: case QK_LAYER_TAP_TOGGLE ... QK_LAYER_TAP_TOGGLE_MAX: case QK_ONE_SHOT_LAYER ... QK_ONE_SHOT_LAYER_MAX: return true; #ifndef NO_ACTION_TAPPING case QK_MOD_TAP ... QK_MOD_TAP_MAX: if (record->tap.count == 0) { // Deactivate if a mod becomes active through holding a mod-tap key. caps_word_set(false); return true; } keycode &= 0xff; break; # ifndef NO_ACTION_LAYER case QK_LAYER_TAP ... QK_LAYER_TAP_MAX: # endif // NO_ACTION_LAYER if (record->tap.count == 0) { return true; } keycode &= 0xff; break; #endif // NO_ACTION_TAPPING #ifdef SWAP_HANDS_ENABLE case QK_SWAP_HANDS ... QK_SWAP_HANDS_MAX: if (keycode > 0x56F0 || record->tap.count == 0) { return true; } keycode &= 0xff; break; #endif // SWAP_HANDS_ENABLE } if (caps_word_press_user(keycode)) { return true; } } caps_word_set(false); // Deactivate Caps Word. return true; } void caps_word_set(bool active) { if (active != caps_word_active) { if (active) { clear_mods(); #ifndef NO_ACTION_ONESHOT clear_oneshot_mods(); #endif // NO_ACTION_ONESHOT #if CAPS_WORD_IDLE_TIMEOUT > 0 idle_timer = timer_read() + CAPS_WORD_IDLE_TIMEOUT; #endif // CAPS_WORD_IDLE_TIMEOUT > 0 } else if ((get_weak_mods() & MOD_BIT(KC_LSFT)) != 0) { // If the weak shift mod is still on, turn it off and send an update to // the host computer. del_weak_mods(MOD_BIT(KC_LSFT)); send_keyboard_report(); } caps_word_active = active; caps_word_set_user(active); } } bool caps_word_get(void) { return caps_word_active; } __attribute__((weak)) void caps_word_set_user(bool active) {} __attribute__((weak)) bool caps_word_press_user(uint16_t keycode) { switch (keycode) { // Keycodes that continue Caps Word, with shift applied. case KC_A ... KC_Z: add_weak_mods(MOD_BIT(KC_LSFT)); // Apply shift to the next key. return true; // Keycodes that continue Caps Word, without shifting. case KC_1 ... KC_0: case KC_BSPC: case KC_MINS: case KC_UNDS: return true; default: return false; // Deactivate Caps Word. } }