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Merge branch 'develop' -- breaking changes 2022-05-28.

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This commit is contained in:
Nick Brassel 2022-05-29 07:57:11 +10:00
commit b835171008
2859 changed files with 19613 additions and 9676 deletions
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2
.github/workflows/api.yml vendored
View file

@ -35,4 +35,4 @@ jobs:
AWS_ACCESS_KEY_ID: ${{ secrets.SPACES_ACCESS_KEY }}
AWS_SECRET_ACCESS_KEY: ${{ secrets.SPACES_SECRET_KEY }}
AWS_S3_ENDPOINT: https://nyc3.digitaloceanspaces.com
SOURCE_DIR: 'api_data'
SOURCE_DIR: '.build/api_data'

6
.github/workflows/develop_api.yml vendored
View file

@ -24,7 +24,9 @@ jobs:
persist-credentials: false
- name: Generate API Data
run: qmk generate-api
run: |
python3 -m pip install -r requirements-dev.txt
qmk generate-api
- name: Upload API Data
uses: jakejarvis/s3-sync-action@master
@ -35,4 +37,4 @@ jobs:
AWS_ACCESS_KEY_ID: ${{ secrets.SPACES_ACCESS_KEY }}
AWS_SECRET_ACCESS_KEY: ${{ secrets.SPACES_SECRET_KEY }}
AWS_S3_ENDPOINT: https://nyc3.digitaloceanspaces.com
SOURCE_DIR: 'api_data'
SOURCE_DIR: '.build/api_data'

2
.github/workflows/unit_test.yml vendored
View file

@ -26,5 +26,7 @@ jobs:
- uses: actions/checkout@v2
with:
submodules: recursive
- name: Install dependencies
run: pip3 install -r requirements-dev.txt
- name: Run tests
run: make test:all

1
api_data/_config.yml
View file

@ -1 +0,0 @@
theme: jekyll-theme-cayman

4
builddefs/bootloader.mk
View file

@ -208,6 +208,10 @@ ifeq ($(strip $(BOOTLOADER)), md-boot)
OPT_DEFS += -DBOOTLOADER_MD_BOOT
BOOTLOADER_TYPE = md_boot
endif
ifeq ($(strip $(BOOTLOADER)), wb32-dfu)
OPT_DEFS += -DBOOTLOADER_WB32_DFU
BOOTLOADER_TYPE = wb32_dfu
endif
ifeq ($(strip $(BOOTLOADER_TYPE)),)
$(call CATASTROPHIC_ERROR,Invalid BOOTLOADER,No bootloader specified. Please set an appropriate 'BOOTLOADER' in your keyboard's 'rules.mk' file.)

16
builddefs/build_keyboard.mk
View file

@ -172,13 +172,7 @@ generated-files: $(KEYMAP_OUTPUT)/src/config.h $(KEYMAP_OUTPUT)/src/keymap.c
endif
ifeq ($(strip $(CTPC)), yes)
CONVERT_TO_PROTON_C=yes
endif
ifeq ($(strip $(CONVERT_TO_PROTON_C)), yes)
include platforms/chibios/boards/QMK_PROTON_C/convert_to_proton_c.mk
endif
include $(BUILDDEFS_PATH)/converters.mk
include $(BUILDDEFS_PATH)/mcu_selection.mk
@ -328,12 +322,18 @@ ifneq ("$(wildcard $(KEYBOARD_PATH_5)/info.json)","")
endif
CONFIG_H += $(KEYBOARD_OUTPUT)/src/info_config.h $(KEYBOARD_OUTPUT)/src/layouts.h
KEYBOARD_SRC += $(KEYBOARD_OUTPUT)/src/default_keyboard.c
$(KEYBOARD_OUTPUT)/src/info_config.h: $(INFO_JSON_FILES)
@$(SILENT) || printf "$(MSG_GENERATING) $@" | $(AWK_CMD)
$(eval CMD=$(QMK_BIN) generate-config-h --quiet --keyboard $(KEYBOARD) --output $(KEYBOARD_OUTPUT)/src/info_config.h)
@$(BUILD_CMD)
$(KEYBOARD_OUTPUT)/src/default_keyboard.c: $(INFO_JSON_FILES)
@$(SILENT) || printf "$(MSG_GENERATING) $@" | $(AWK_CMD)
$(eval CMD=$(QMK_BIN) generate-keyboard-c --quiet --keyboard $(KEYBOARD) --output $(KEYBOARD_OUTPUT)/src/default_keyboard.c)
@$(BUILD_CMD)
$(KEYBOARD_OUTPUT)/src/default_keyboard.h: $(INFO_JSON_FILES)
@$(SILENT) || printf "$(MSG_GENERATING) $@" | $(AWK_CMD)
$(eval CMD=$(QMK_BIN) generate-keyboard-h --quiet --keyboard $(KEYBOARD) --output $(KEYBOARD_OUTPUT)/src/default_keyboard.h)
@ -344,7 +344,7 @@ $(KEYBOARD_OUTPUT)/src/layouts.h: $(INFO_JSON_FILES)
$(eval CMD=$(QMK_BIN) generate-layouts --quiet --keyboard $(KEYBOARD) --output $(KEYBOARD_OUTPUT)/src/layouts.h)
@$(BUILD_CMD)
generated-files: $(KEYBOARD_OUTPUT)/src/info_config.h $(KEYBOARD_OUTPUT)/src/default_keyboard.h $(KEYBOARD_OUTPUT)/src/layouts.h
generated-files: $(KEYBOARD_OUTPUT)/src/info_config.h $(KEYBOARD_OUTPUT)/src/default_keyboard.c $(KEYBOARD_OUTPUT)/src/default_keyboard.h $(KEYBOARD_OUTPUT)/src/layouts.h
.INTERMEDIATE : generated-files

2
builddefs/build_test.mk
View file

@ -4,6 +4,8 @@ endif
.DEFAULT_GOAL := all
OPT = g
include paths.mk
include $(BUILDDEFS_PATH)/message.mk

11
builddefs/common_features.mk
View file

@ -149,6 +149,11 @@ ifeq ($(strip $(POINTING_DEVICE_ENABLE)), yes)
endif
endif
QUANTUM_PAINTER_ENABLE ?= no
ifeq ($(strip $(QUANTUM_PAINTER_ENABLE)), yes)
include $(QUANTUM_DIR)/painter/rules.mk
endif
VALID_EEPROM_DRIVER_TYPES := vendor custom transient i2c spi
EEPROM_DRIVER ?= vendor
ifeq ($(filter $(EEPROM_DRIVER),$(VALID_EEPROM_DRIVER_TYPES)),)
@ -646,8 +651,9 @@ ifeq ($(strip $(HAPTIC_ENABLE)),yes)
endif
ifeq ($(strip $(HD44780_ENABLE)), yes)
SRC += platforms/avr/drivers/hd44780.c
OPT_DEFS += -DHD44780_ENABLE
COMMON_VPATH += $(DRIVER_PATH)/lcd
SRC += hd44780.c
endif
VALID_OLED_DRIVER_TYPES := SSD1306 custom
@ -695,7 +701,8 @@ endif
ifeq ($(strip $(UNICODE_COMMON)), yes)
OPT_DEFS += -DUNICODE_COMMON_ENABLE
SRC += $(QUANTUM_DIR)/process_keycode/process_unicode_common.c
SRC += $(QUANTUM_DIR)/process_keycode/process_unicode_common.c \
$(QUANTUM_DIR)/utf8.c
endif
MAGIC_ENABLE ?= yes

6
builddefs/common_rules.mk
View file

@ -82,8 +82,8 @@ endif
# -Wall...: warning level
# -Wa,...: tell GCC to pass this to the assembler.
ifeq ($(strip $(LTO_ENABLE)), yes)
ifeq ($(PLATFORM),CHIBIOS)
$(info Enabling LTO on ChibiOS-targeting boards is known to have a high likelihood of failure.)
ifeq ($(PLATFORM),ARM_ATSAM)
$(info Enabling LTO on arm_atsam-targeting boards is known to have a high likelihood of failure.)
$(info If unsure, set LTO_ENABLE = no.)
endif
CDEFS += -flto
@ -316,7 +316,7 @@ gccversion :
@$(BUILD_CMD)
%.uf2: %.hex
$(eval CMD=$(UF2CONV) $(BUILD_DIR)/$(TARGET).hex -o $(BUILD_DIR)/$(TARGET).uf2 -c -f $(UF2_FAMILY) >/dev/null 2>&1)
$(eval CMD=$(UF2CONV) $(BUILD_DIR)/$(TARGET).hex --output $(BUILD_DIR)/$(TARGET).uf2 --convert --family $(UF2_FAMILY) >/dev/null 2>&1)
#@$(SILENT) || printf "$(MSG_EXECUTING) '$(CMD)':\n"
@$(SILENT) || printf "$(MSG_UF2) $@" | $(AWK_CMD)
@$(BUILD_CMD)

37
builddefs/converters.mk Normal file
View file

@ -0,0 +1,37 @@
# Note for new boards -- CTPC and CONVERT_TO_PROTON_C are deprecated terms
# and should not be replicated for new boards. These will be removed from
# documentation as well as existing keymaps in due course.
ifeq ($(strip $(CTPC)), yes)
CONVERT_TO_PROTON_C=yes
endif
ifeq ($(strip $(CONVERT_TO_PROTON_C)), yes)
CONVERT_TO=proton_c
cpfirmware: ctpc_warning
.INTERMEDIATE: ctpc_warning
ctpc_warning: elf
$(info @@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@)
$(info The `CONVERT_TO_PROTON_C` and `CTPC` options are soon to be deprecated.)
$(info Boards should be changed to use `CONVERT_TO=proton_c` instead.)
$(info @@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@)
endif
# TODO: opt in rather than assume everything uses a pro micro
PIN_COMPATIBLE ?= promicro
ifneq ($(CONVERT_TO),)
# glob to search each platfrorm and/or check for valid converter
CONVERTER := $(wildcard $(PLATFORM_PATH)/*/converters/$(PIN_COMPATIBLE)_to_$(CONVERT_TO)/)
ifeq ($(CONVERTER),)
$(call CATASTROPHIC_ERROR,Converting from '$(PIN_COMPATIBLE)' to '$(CONVERT_TO)' not possible!)
endif
TARGET := $(TARGET)_$(CONVERT_TO)
# Configure any defaults
OPT_DEFS += -DCONVERT_TO_$(strip $(shell echo $(CONVERT_TO) | tr '[:lower:]' '[:upper:]'))
OPT_DEFS += -DCONVERTER_ENABLED
VPATH += $(CONVERTER)
# Finally run any converter specific logic
include $(CONVERTER)/converter.mk
endif

3
builddefs/generic_features.mk
View file

@ -17,6 +17,7 @@ SPACE_CADET_ENABLE ?= yes
GRAVE_ESC_ENABLE ?= yes
GENERIC_FEATURES = \
CAPS_WORD \
COMBO \
COMMAND \
DEFERRED_EXEC \
@ -25,12 +26,14 @@ GENERIC_FEATURES = \
DYNAMIC_KEYMAP \
DYNAMIC_MACRO \
ENCODER \
ENCODER_MAP \
GRAVE_ESC \
HAPTIC \
KEY_LOCK \
KEY_OVERRIDE \
LEADER \
PROGRAMMABLE_BUTTON \
SECURE \
SPACE_CADET \
SWAP_HANDS \
TAP_DANCE \

118
builddefs/mcu_selection.mk
View file

@ -9,7 +9,9 @@ ifneq ($(findstring MKL26Z64, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = KINETIS
MCU_SERIES = KL2x
@ -36,7 +38,9 @@ ifneq ($(findstring MK20DX128, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = KINETIS
MCU_SERIES = K20x
@ -63,7 +67,9 @@ ifneq ($(findstring MK20DX256, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = KINETIS
MCU_SERIES = K20x
@ -90,7 +96,9 @@ ifneq ($(findstring MK66FX1M0, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = KINETIS
MCU_SERIES = MK66F18
@ -117,7 +125,9 @@ ifneq ($(findstring STM32F042, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = STM32
MCU_SERIES = STM32F0xx
@ -157,7 +167,9 @@ ifneq ($(findstring STM32F072, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = STM32
MCU_SERIES = STM32F0xx
@ -192,7 +204,9 @@ ifneq ($(findstring STM32F103, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = STM32
MCU_SERIES = STM32F1xx
@ -224,7 +238,9 @@ ifneq ($(findstring STM32F303, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = STM32
MCU_SERIES = STM32F3xx
@ -259,7 +275,9 @@ ifneq ($(findstring STM32F401, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = STM32
MCU_SERIES = STM32F4xx
@ -299,7 +317,9 @@ ifneq ($(findstring STM32F405, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = STM32
MCU_SERIES = STM32F4xx
@ -334,7 +354,9 @@ ifneq ($(findstring STM32F407, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = STM32
MCU_SERIES = STM32F4xx
@ -369,7 +391,9 @@ ifneq ($(findstring STM32F411, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = STM32
MCU_SERIES = STM32F4xx
@ -409,7 +433,9 @@ ifneq ($(findstring STM32F446, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = STM32
MCU_SERIES = STM32F4xx
@ -441,7 +467,9 @@ ifneq ($(findstring STM32G431, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = STM32
MCU_SERIES = STM32G4xx
@ -476,7 +504,9 @@ ifneq ($(findstring STM32G474, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = STM32
MCU_SERIES = STM32G4xx
@ -511,7 +541,9 @@ ifneq (,$(filter $(MCU),STM32L432 STM32L442))
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = STM32
MCU_SERIES = STM32L4xx
@ -548,7 +580,9 @@ ifneq (,$(filter $(MCU),STM32L433 STM32L443))
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = STM32
MCU_SERIES = STM32L4xx
@ -585,7 +619,9 @@ ifneq (,$(filter $(MCU),STM32L412 STM32L422))
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = STM32
MCU_SERIES = STM32L4xx
@ -602,7 +638,7 @@ ifneq (,$(filter $(MCU),STM32L412 STM32L422))
# <keyboard_dir>/boards/, or drivers/boards/
BOARD ?= GENERIC_STM32_L412XB
PLATFORM_NAME ?= platform_l432
PLATFORM_NAME ?= platform_l412_l422
USE_FPU ?= yes
@ -622,7 +658,9 @@ ifneq ($(findstring WB32F3G71, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = WB32
MCU_SERIES = WB32F3G71xx
@ -642,7 +680,40 @@ ifneq ($(findstring WB32F3G71, $(MCU)),)
USE_FPU ?= no
# Bootloader address for WB32 DFU
STM32_BOOTLOADER_ADDRESS ?= 0x1FFFE000
WB32_BOOTLOADER_ADDRESS ?= 0x1FFFE000
endif
ifneq ($(findstring WB32FQ95, $(MCU)),)
# Cortex version
MCU = cortex-m3
# ARM version, CORTEX-M0/M1 are 6, CORTEX-M3/M4/M7 are 7
ARMV = 7
## chip/board settings
# - the next two should match the directories in
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_FAMILY = WB32
MCU_SERIES = WB32FQ95xx
# Linker script to use
# - it should exist either in <chibios>/os/common/ports/ARMCMx/compilers/GCC/ld/
# or <keyboard_dir>/ld/
MCU_LDSCRIPT ?= WB32FQ95xB
# Startup code to use
# - it should exist in <chibios>/os/common/startup/ARMCMx/compilers/GCC/mk/
MCU_STARTUP ?= wb32fq95xx
# Board: it should exist either in <chibios>/os/hal/boards/,
# <keyboard_dir>/boards/, or drivers/boards/
BOARD ?= GENERIC_WB32_FQ95XX
USE_FPU ?= no
# Bootloader address for WB32 DFU
WB32_BOOTLOADER_ADDRESS ?= 0x1FFFE000
endif
@ -657,7 +728,10 @@ ifneq ($(findstring GD32VF103, $(MCU)),)
## chip/board settings
# - the next two should match the directories in
# <chibios>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
# <chibios[-contrib]>/os/hal/ports/$(MCU_PORT_NAME)/$(MCU_SERIES)
# OR
# <chibios[-contrib]>/os/hal/ports/$(MCU_FAMILY)/$(MCU_SERIES)
MCU_PORT_NAME = GD
MCU_FAMILY = GD32V
MCU_SERIES = GD32VF103

5
builddefs/show_options.mk
View file

@ -57,6 +57,7 @@ OTHER_OPTION_NAMES = \
HELIX ZINC \
AUTOLOG_ENABLE \
DEBUG_ENABLE \
ENCODER_MAP_ENABLE \
ENCODER_ENABLE_CUSTOM \
GERMAN_ENABLE \
HAPTIC_ENABLE \
@ -79,7 +80,9 @@ OTHER_OPTION_NAMES = \
LED_MIRRORED \
RGBLIGHT_FULL_POWER \
LTO_ENABLE \
PROGRAMMABLE_BUTTON_ENABLE
PROGRAMMABLE_BUTTON_ENABLE \
SECURE_ENABLE \
CAPS_WORD_ENABLE
define NAME_ECHO
@printf " %-30s = %-16s # %s\\n" "$1" "$($1)" "$(origin $1)"

1
builddefs/testlist.mk
View file

@ -2,6 +2,7 @@ TEST_LIST = $(sort $(patsubst %/test.mk,%, $(shell find $(ROOT_DIR)tests -type f
FULL_TESTS := $(notdir $(TEST_LIST))
include $(QUANTUM_PATH)/debounce/tests/testlist.mk
include $(QUANTUM_PATH)/encoder/tests/testlist.mk
include $(QUANTUM_PATH)/sequencer/tests/testlist.mk
include $(PLATFORM_PATH)/test/testlist.mk

35
data/mappings/defaults.json Normal file
View file

@ -0,0 +1,35 @@
{
"development_board": {
"promicro": {
"processor": "atmega32u4",
"bootloader": "caterina",
"pin_compatible": "promicro"
},
"elite_c": {
"processor": "atmega32u4",
"bootloader": "atmel-dfu",
"pin_compatible": "promicro"
},
"proton_c": {
"processor": "STM32F303",
"bootloader": "stm32-dfu",
"board": "QMK_PROTON_C",
"pin_compatible": "promicro"
},
"bluepill": {
"processor": "STM32F103",
"bootloader": "stm32duino",
"board": "STM32_F103_STM32DUINO"
},
"blackpill_f401": {
"processor": "STM32F401",
"bootloader": "stm32-dfu",
"board": "BLACKPILL_STM32_F401"
},
"blackpill_f411": {
"processor": "STM32F411",
"bootloader": "stm32-dfu",
"board": "BLACKPILL_STM32_F411"
}
}
}

10
data/mappings/info_config.json
View file

@ -3,7 +3,7 @@
{
# Format:
# <config.h key>: {"info_key": <info.json key>, ["value_type": <value_type>], ["to_json": <true/false>], ["to_c": <true/false>]}
# value_type: one of "array", "array.int", "bool", "int", "hex", "list", "mapping"
# value_type: one of "array", "array.int", "bool", "int", "hex", "list", "mapping", "str", "raw"
# to_json: Default `true`. Set to `false` to exclude this mapping from info.json
# to_c: Default `true`. Set to `false` to exclude this mapping from config.h
# warn_duplicate: Default `true`. Set to `false` to turn off warning when a value exists in both places
@ -11,14 +11,17 @@
"BACKLIGHT_BREATHING": {"info_key": "backlight.breathing", "value_type": "bool"},
"BREATHING_PERIOD": {"info_key": "backlight.breathing_period", "value_type": "int"},
"BACKLIGHT_PIN": {"info_key": "backlight.pin"},
"BOTH_SHIFTS_TURNS_ON_CAPS_WORD": {"info_key": "caps_word.both_shifts_turns_on", "value_type": "bool"},
"CAPS_WORD_IDLE_TIMEOUT": {"info_key": "caps_word.idle_timeout", "value_type": "int"},
"COMBO_COUNT": {"info_key": "combo.count", "value_type": "int"},
"COMBO_TERM": {"info_key": "combo.term", "value_type": "int"},
"DEBOUNCE": {"info_key": "debounce", "value_type": "int"},
"DEVICE_VER": {"info_key": "usb.device_ver", "value_type": "hex"},
# TODO: Replace ^^^ with vvv
#"DEVICE_VER": {"info_key": "usb.device_version", "value_type": "bcd_version"},
"DESCRIPTION": {"info_key": "keyboard_folder", "to_json": false},
"DESCRIPTION": {"info_key": "keyboard_folder", "value_type": "str", "to_json": false},
"DIODE_DIRECTION": {"info_key": "diode_direction"},
"DOUBLE_TAP_SHIFT_TURNS_ON_CAPS_WORD": {"info_key": "caps_word.double_tap_shift_turns_on", "value_type": "bool"},
"FORCE_NKRO": {"info_key": "usb.force_nkro", "value_type": "bool"},
"DYNAMIC_KEYMAP_EEPROM_MAX_ADDR": {"info_key": "dynamic_keymap.eeprom_max_addr", "value_type": "int"},
"DYNAMIC_KEYMAP_LAYER_COUNT": {"info_key": "dynamic_keymap.layer_count", "value_type": "int"},
@ -78,6 +81,9 @@
"QMK_KEYS_PER_SCAN": {"info_key": "qmk.keys_per_scan", "value_type": "int"},
"QMK_LED": {"info_key": "qmk_lufa_bootloader.led"},
"QMK_SPEAKER": {"info_key": "qmk_lufa_bootloader.speaker"},
"SECURE_UNLOCK_SEQUENCE": {"info_key": "secure.unlock_sequence", "value_type": "array.array.int", "to_json": false},
"SECURE_UNLOCK_TIMEOUT": {"info_key": "secure.unlock_timeout", "value_type": "int"},
"SECURE_IDLE_TIMEOUT": {"info_key": "secure.idle_timeout", "value_type": "int"},
"SENDSTRING_BELL": {"info_key": "audio.macro_beep", "value_type": "bool"},
"SPLIT_MODS_ENABLE": {"info_key": "split.transport.sync_modifiers", "value_type": "bool"},
"SPLIT_TRANSPORT_MIRROR": {"info_key": "split.transport.sync_matrix_state", "value_type": "bool"},

7
data/mappings/info_rules.json
View file

@ -3,13 +3,14 @@
{
# Format:
# <rules.mk key>: {"info_key": <info.json key>, ["value_type": <value_type>], ["to_json": <true/false>], ["to_c": <true/false>]}
# value_type: one of "array", "array.int", "bool", "int", "list", "hex", "mapping"
# value_type: one of "array", "array.int", "bool", "int", "list", "hex", "mapping", "str", "raw"
# to_json: Default `true`. Set to `false` to exclude this mapping from info.json
# to_c: Default `true`. Set to `false` to exclude this mapping from rules.mk
# warn_duplicate: Default `true`. Set to `false` to turn off warning when a value exists in both places
"BOARD": {"info_key": "board"},
"BOOTLOADER": {"info_key": "bootloader", "warn_duplicate": false},
"BLUETOOTH": {"info_key": "bluetooth.driver"},
"CAPS_WORD_ENABLE": {"info_key": "caps_word.enabled", "value_type": "bool"},
"FIRMWARE_FORMAT": {"info_key": "build.firmware_format"},
"KEYBOARD_SHARED_EP": {"info_key": "usb.shared_endpoint.keyboard", "value_type": "bool"},
"MOUSE_SHARED_EP": {"info_key": "usb.shared_endpoint.mouse", "value_type": "bool"},
@ -19,7 +20,9 @@
"MCU": {"info_key": "processor", "warn_duplicate": false},
"MOUSEKEY_ENABLE": {"info_key": "mouse_key.enabled", "value_type": "bool"},
"NO_USB_STARTUP_CHECK": {"info_key": "usb.no_startup_check", "value_type": "bool"},
"PIN_COMPATIBLE": {"info_key": "pin_compatible"},
"SECURE_ENABLE": {"info_key": "secure.enabled", "value_type": "bool"},
"SPLIT_KEYBOARD": {"info_key": "split.enabled", "value_type": "bool"},
"SPLIT_TRANSPORT": {"info_key": "split.transport.protocol", "value_type": "str", "to_c": false},
"SPLIT_TRANSPORT": {"info_key": "split.transport.protocol", "to_c": false},
"WAIT_FOR_USB": {"info_key": "usb.wait_for", "value_type": "bool"}
}

86
data/mappings/keyboard_aliases.json
View file

@ -11,6 +11,9 @@
'2_milk': {
target: 'spaceman/2_milk'
},
'absinthe': {
target: 'keyhive/absinthe'
},
'aeboards/constellation': {
target: 'aeboards/constellation/rev1'
},
@ -26,6 +29,18 @@
alice: {
target: 'tgr/alice'
},
amj40: {
target: 'amjkeyboard/amj40'
},
amj60: {
target: 'amjkeyboard/amj60'
},
amj96: {
target: 'amjkeyboard/amj96'
},
amjpad: {
target: 'amjkeyboard/amjpad'
},
angel17: {
target: 'angel17/alpha'
},
@ -33,7 +48,10 @@
target: 'angel64/alpha'
},
at101_blackheart: {
target: 'at101_bh'
target: 'viktus/at101_bh'
},
at101_bh: {
target: 'viktus/at101_bh'
},
'atom47/rev2': {
target: 'maartenwut/atom47/rev2'
@ -158,6 +176,9 @@
ergoinu: {
target: 'dm9records/ergoinu'
},
ergosaurus: {
target: 'keyhive/ergosaurus'
},
'exclusive/e85': {
target: 'exclusive/e85/hotswap'
},
@ -165,7 +186,13 @@
target: 'gh60/revc'
},
'gmmk/pro': {
target: 'gmmk/pro/ansi'
target: 'gmmk/pro/rev1/ansi'
},
'gmmk/pro/ansi': {
target: 'gmmk/pro/rev1/ansi'
},
'gmmk/pro/iso': {
target: 'gmmk/pro/rev1/iso'
},
'handwired/ferris': {
target: 'ferris/0_1'
@ -212,6 +239,9 @@
'helix/rev2/under/oled': {
target: 'helix/rev2/under'
},
honeycomb: {
target: 'keyhive/honeycomb'
},
id80: {
target: 'id80/ansi'
},
@ -260,6 +290,9 @@
'kyria': {
target: 'splitkb/kyria'
},
lattice60: {
target: 'keyhive/lattice60'
},
'lazydesigners/the60': {
target: 'lazydesigners/the60/rev1'
},
@ -392,7 +425,13 @@
target: 'oddball/v1'
},
omnikey_blackheart: {
target: 'omnikey_bh'
target: 'viktus/omnikey_bh'
},
omnikey_bh: {
target: 'viktus/omnikey_bh'
},
opus: {
target: 'keyhive/opus'
},
'pabile/p20': {
target: 'pabile/p20/ver1'
@ -489,6 +528,12 @@
skog: {
target: 'percent/skog'
},
smallice: {
target: 'keyhive/smallice'
},
southpole: {
target: 'keyhive/southpole'
},
speedo: {
target: 'cozykeys/speedo/v2'
},
@ -577,7 +622,10 @@
target: 'ymd75/rev1'
},
z150_blackheart: {
target: 'z150_bh'
target: 'viktus/z150_bh'
},
z150_bh:{
target: 'viktus/z150_bh'
},
zeal60: {
target: 'wilba_tech/zeal60'
@ -904,6 +952,9 @@
meishi2: {
target: 'biacco42/meishi2'
},
melody96: {
target: 'ymdk/melody96'
},
minidox/rev1: {
target: 'maple_computing/minidox/rev1'
},
@ -919,6 +970,18 @@
montex: {
target: 'idobao/montex/v1'
},
mt40: {
target: 'mt/mt40'
},
mt64rgb: {
target: 'mt/mt64rgb'
},
mt84: {
target: 'mt/mt84'
},
mt980: {
target: 'mt/mt980'
},
nafuda: {
target: 'salicylic_acid3/nafuda'
},
@ -943,6 +1006,9 @@
namecard2x4: {
target: 'takashiski/namecard2x4'
},
navi10: {
target: 'keyhive/navi10'
},
nebula12: {
target: 'spaceholdings/nebula12'
},
@ -1144,6 +1210,12 @@
underscore33/rev2: {
target: 'tominabox1/underscore33/rev2'
},
uno: {
target: 'keyhive/uno'
},
ut472: {
target: 'keyhive/ut472'
},
vn66: {
target: 'hnahkb/vn66'
},
@ -1153,6 +1225,12 @@
wanten: {
target: 'qpockets/wanten'
},
'wheatfield/blocked65': {
target: 'mt/blocked65'
},
'wheatfield/split75': {
target: 'mt/split75'
},
whitefox: {
target: 'input_club/whitefox'
},

5
data/schemas/definitions.jsonschema
View file

@ -41,8 +41,6 @@
"LAYOUT_2x2uC",
"LAYOUT_2x3uC",
"LAYOUT_625uC",
"LAYOUT_ANSI_DEFAULT",
"LAYOUT_JP",
"LAYOUT_ortho_3x12_1x2uC",
"LAYOUT_ortho_4x12_1x2uC",
"LAYOUT_ortho_4x12_1x2uL",
@ -57,8 +55,7 @@
"LAYOUT_planck_1x2uR",
"LAYOUT_preonic_1x2uC",
"LAYOUT_preonic_1x2uL",
"LAYOUT_preonic_1x2uR",
"LAYOUT_reviung34_2uL"
"LAYOUT_preonic_1x2uR"
]
},
{

100
data/schemas/keyboard.jsonschema
View file

@ -12,9 +12,17 @@
"type": "string",
"format": "uri"
},
"development_board": {
"type": "string",
"enum": ["promicro", "elite_c", "proton_c", "bluepill", "blackpill_f401", "blackpill_f411"]
},
"pin_compatible": {
"type": "string",
"enum": ["promicro"]
},
"processor": {
"type": "string",
"enum": ["cortex-m0", "cortex-m0plus", "cortex-m3", "cortex-m4", "MKL26Z64", "MK20DX128", "MK20DX256", "MK66FX1M0", "STM32F042", "STM32F072", "STM32F103", "STM32F303", "STM32F401", "STM32F405", "STM32F407", "STM32F411", "STM32F446", "STM32G431", "STM32G474", "STM32L412", "STM32L422", "STM32L432", "STM32L433", "STM32L442", "STM32L443", "GD32VF103", "WB32F3G71", "atmega16u2", "atmega32u2", "atmega16u4", "atmega32u4", "at90usb162", "at90usb646", "at90usb647", "at90usb1286", "at90usb1287", "atmega32a", "atmega328p", "atmega328", "attiny85", "unknown"]
"enum": ["cortex-m0", "cortex-m0plus", "cortex-m3", "cortex-m4", "MKL26Z64", "MK20DX128", "MK20DX256", "MK66FX1M0", "STM32F042", "STM32F072", "STM32F103", "STM32F303", "STM32F401", "STM32F405", "STM32F407", "STM32F411", "STM32F446", "STM32G431", "STM32G474", "STM32L412", "STM32L422", "STM32L432", "STM32L433", "STM32L442", "STM32L443", "GD32VF103", "WB32F3G71", "WB32FQ95", "atmega16u2", "atmega32u2", "atmega16u4", "atmega32u4", "at90usb162", "at90usb646", "at90usb647", "at90usb1286", "at90usb1287", "atmega32a", "atmega328p", "atmega328", "attiny85", "unknown"]
},
"audio": {
"type": "object",
@ -84,6 +92,16 @@
"enum": ["COL2ROW", "ROW2COL"]
},
"debounce": {"$ref": "qmk.definitions.v1#/unsigned_int"},
"caps_word": {
"type": "object",
"additionalProperties": false,
"properties": {
"enabled": {"type": "boolean"},
"both_shifts_turns_on": {"type": "boolean"},
"double_tap_shift_turns_on": {"type": "boolean"},
"idle_timeout": {"$ref": "qmk.definitions.v1#/unsigned_int"},
},
},
"combo": {
"type": "object",
"properties": {
@ -194,6 +212,62 @@
"timeout": {"$ref": "qmk.definitions.v1#/unsigned_int"}
}
},
"led_matrix": {
"type": "object",
"properties": {
"driver": {"type": "string"},
"layout": {
"type": "array",
"items": {
"type": "object",
"additionalProperties": false,
"properties": {
"matrix": {
"type": "array",
"minItems": 2,
"maxItems": 2,
"items": {
"type": "number",
"min": 0,
"multipleOf": 1
}
},
"x": {"$ref": "qmk.definitions.v1#/key_unit"},
"y": {"$ref": "qmk.definitions.v1#/key_unit"},
"flags": {"$ref": "qmk.definitions.v1#/unsigned_decimal"}
}
}
}
}
},
"rgb_matrix": {
"type": "object",
"properties": {
"driver": {"type": "string"},
"layout": {
"type": "array",
"items": {
"type": "object",
"additionalProperties": false,
"properties": {
"matrix": {
"type": "array",
"minItems": 2,
"maxItems": 2,
"items": {
"type": "number",
"min": 0,
"multipleOf": 1
}
},
"x": {"$ref": "qmk.definitions.v1#/key_unit"},
"y": {"$ref": "qmk.definitions.v1#/key_unit"},
"flags": {"$ref": "qmk.definitions.v1#/unsigned_decimal"}
}
}
}
}
},
"rgblight": {
"type": "object",
"additionalProperties": false,
@ -236,6 +310,30 @@
}
}
},
"secure": {
"type": "object",
"additionalProperties": false,
"properties": {
"enabled": {"type": "boolean"},
"unlock_timeout": {"$ref": "qmk.definitions.v1#/unsigned_int"},
"idle_timeout": {"$ref": "qmk.definitions.v1#/unsigned_int"},
"unlock_sequence": {
"type": "array",
"minLength": 1,
"maxLength": 5,
"items": {
"type": "array",
"minItems": 2,
"maxItems": 2,
"items": {
"type": "number",
"min": 0,
"multipleOf": 1
}
}
}
}
},
"split": {
"type": "object",
"additionalProperties": false,

0
api_data/readme.md → data/templates/api/readme.md
View file

216
docs/ChangeLog/20220528.md Normal file
View file

@ -0,0 +1,216 @@
# QMK Breaking Changes - 2022 May 28 Changelog
## Notable Features :id=notable-features
### Caps Word ([#16588](https://github.com/qmk/qmk_firmware/pull/16588)) :id=caps-word
This is a new feature that allows for capslock-like functionality that turns itself off at the end of the word.
For instance, if you wish to type "QMK" without holding shift the entire time, you can either tap both left and right shift, or double-tap shift, to turn on _Caps Word_ -- then type `qmk` (lowercase) without holding shift. Once you hit any key other than `a`--`z`, `0`--`9`, `-`, `_`, delete, or backspace, this will go back to normal typing!
There are other activation mechanisms as well as configurable options like timeout and the like -- see the [Caps Word documentation](feature_caps_word.md) for more information.
### Quantum Painter ([#10174](https://github.com/qmk/qmk_firmware/pull/10174)) :id=quantum-painter
QMK has had support for small OLED displays for some time now, but hasn't really gained too much ability to draw to panels other than the SSD1306 or SH1106 panels.
Quantum Painter is a new drawing subsystem available to suitable ARM and RISC-V boards that is capable of drawing to large panel RGB LCDs and RGB OLEDs. It also allows for a lot more flexibility with a larger set of drawing APIs -- lines, rectangles, circles, ellipses, text, images, and even animations.
The QMK CLI has new commands added to be able to generate images and fonts for Quantum Painter to digest -- it's even capable of converting animated gifs for display on screen.
See the [Quantum Painter documentation](quantum_painter.md) for more information on how to set up the displays as well as how to convert images and fonts.
!> Quantum Painter is not supported on AVR due to complexity and size constraints. Boards based on AVR such as ProMicro or Elite-C builds will not be able to leverage Quantum Painter.
### Encoder Mapping ([#13286](https://github.com/qmk/qmk_firmware/pull/13286)) :id=encoder-mapping
One of the long-standing complaints with Encoders is that there has been no easy way to configure them in user keymaps. [#13286](https://github.com/qmk/qmk_firmware/pull/13286) added support for [Encoder Mapping](feature_encoders.md#encoder-map), which allows users to define encoder functionality in a similar way to their normal keymap.
!> This is not yet supported by QMK Configurator. It is also unlikely to ever be supported by VIA.
## Changes Requiring User Action :id=changes-requiring-user-action
### `RESET` => `QK_BOOT` ([#17037](https://github.com/qmk/qmk_firmware/pull/17037)) :id=reset-2-qk_boot
QMK is always in the process of picking up support for new hardware platforms. One of the side-effects for future integrations has shown that QMK's usage of `RESET` as a keycode is causing naming collisions. As a result, [#17037](https://github.com/qmk/qmk_firmware/pull/17037) changed usages of `RESET` to the new keycode `QK_BOOT` in the majority of default-like keymaps. At this stage the old keycode is still usable but will likely be removed in the next breaking changes cycle. Users with keymaps containing `RESET` should also move to `QK_BOOT`.
### Sendstring keycode overhaul ([#16941](https://github.com/qmk/qmk_firmware/pull/16941)) :id=sendstring-keycodes
Some keycodes used with `SEND_STRING` and its relatives have been deprecated and may have their old keycode usages removed at a later date. The list of [deprecated keycodes](https://github.com/qmk/qmk_firmware/blob/ebd402788346aa6e88bde1486b2a835684d40d39/quantum/send_string_keycodes.h#L456-L505) should be consulted to determine if you're using one of the older names (the first identifier after `#define`) -- you should swap to the newer variant (the second identifier on the same line).
### Pillow Installation ([#17133](https://github.com/qmk/qmk_firmware/pull/17133)) :id=pillow-install
The merge of Quantum Painter added some new dependencies in the QMK CLI, most notably _Pillow_, which requires some installation in order for the CLI to function. If you've got an existing installation, you'll need to run some commands in order to get things working:
On Windows, if using _QMK MSYS_ or _msys2_, you'll need to run the following command:
```sh
pacman --needed --noconfirm --disable-download-timeout -S mingw-w64-x86_64-python-pillow
python3 -m pip install --upgrade qmk
```
On macOS:
```sh
brew update
brew upgrade qmk/qmk/qmk
```
On Linux or WSL:
```sh
python3 -m pip install --user --upgrade qmk
```
### Updated Keyboard Codebases :id=updated-keyboard-codebases
The following keyboards have had their source moved within QMK:
| Old Keyboard Name | New Keyboard Name |
|----------------------|--------------------|
| absinthe | keyhive/absinthe |
| amj40 | amjkeyboard/amj40 |
| amj60 | amjkeyboard/amj60 |
| amj96 | amjkeyboard/amj96 |
| amjpad | amjkeyboard/amjpad |
| at101_bh | viktus/at101_bh |
| ergosaurus | keyhive/ergosaurus |
| gmmk/pro/ansi | gmmk/pro/rev1/ansi |
| gmmk/pro/iso | gmmk/pro/rev1/iso |
| honeycomb | keyhive/honeycomb |
| lattice60 | keyhive/lattice60 |
| melody96 | ymdk/melody96 |
| mt40 | mt/mt40 |
| mt64rgb | mt/mt64rgb |
| mt84 | mt/mt84 |
| mt980 | mt/mt980 |
| navi10 | keyhive/navi10 |
| omnikey_bh | viktus/omnikey_bh |
| opus | keyhive/opus |
| smallice | keyhive/smallice |
| southpole | keyhive/southpole |
| uno | keyhive/uno |
| ut472 | keyhive/ut472 |
| wheatfield/blocked65 | mt/blocked65 |
| wheatfield/split75 | mt/split75 |
| z150_bh | viktus/z150_bh |
---
## Full changelist :id=full-changelist
Core:
* Quantum Painter ([#10174](https://github.com/qmk/qmk_firmware/pull/10174))
* Add support for encoder mapping. ([#13286](https://github.com/qmk/qmk_firmware/pull/13286))
* Add support for multiple switchs/solenoids to Haptic Feedback engine ([#15657](https://github.com/qmk/qmk_firmware/pull/15657))
* Add compile/make macro to core ([#15959](https://github.com/qmk/qmk_firmware/pull/15959))
* Add Reboot keycode to core ([#15990](https://github.com/qmk/qmk_firmware/pull/15990))
* Add support for multiple sensors to pmw3360 ([#15996](https://github.com/qmk/qmk_firmware/pull/15996))
* Asymmetric encoders, encoder tests. ([#16068](https://github.com/qmk/qmk_firmware/pull/16068))
* Add hacky via support for RGB Matrix ([#16086](https://github.com/qmk/qmk_firmware/pull/16086))
* Allow usage of AVRs minimal printf library ([#16266](https://github.com/qmk/qmk_firmware/pull/16266))
* Squeeze AVR some more with `-mrelax` and `-mcall-prologues` ([#16269](https://github.com/qmk/qmk_firmware/pull/16269))
* Heatmap incorrect matrix effect workaround ([#16315](https://github.com/qmk/qmk_firmware/pull/16315))
* Add SN74x154 driver and convert AL1 custom matrix ([#16331](https://github.com/qmk/qmk_firmware/pull/16331))
* Add customizable snake and knight animation increments ([#16337](https://github.com/qmk/qmk_firmware/pull/16337))
* Chibios USB protocol: allow overriding RAW Capacity ([#16339](https://github.com/qmk/qmk_firmware/pull/16339))
* HD44780 driver rework ([#16370](https://github.com/qmk/qmk_firmware/pull/16370))
* Update wb32-dfu ([#16438](https://github.com/qmk/qmk_firmware/pull/16438))
* Remove `send_unicode_hex_string()` ([#16518](https://github.com/qmk/qmk_firmware/pull/16518))
* Add :flash target for UF2 bootloaders ([#16525](https://github.com/qmk/qmk_firmware/pull/16525))
* Move `has_mouse_report_changed` function to `report.c` ([#16543](https://github.com/qmk/qmk_firmware/pull/16543))
* Move Doxygen docs to subdirectory ([#16561](https://github.com/qmk/qmk_firmware/pull/16561))
* Add Caps Word feature to core ([#16588](https://github.com/qmk/qmk_firmware/pull/16588))
* Add non blackpill F4x1 config files ([#16600](https://github.com/qmk/qmk_firmware/pull/16600))
* Force platform pin defs to be included ([#16611](https://github.com/qmk/qmk_firmware/pull/16611))
* Refactor CTPC logic to allow future converters ([#16621](https://github.com/qmk/qmk_firmware/pull/16621))
* Use a mutex guard for split shared memory ([#16647](https://github.com/qmk/qmk_firmware/pull/16647))
* Rename TICK to TICK_EVENT ([#16649](https://github.com/qmk/qmk_firmware/pull/16649))
* Add GET_TAPPING_TERM macro to reduce duplicate code ([#16681](https://github.com/qmk/qmk_firmware/pull/16681))
* add the ability to change the pwm frequency for the IS31FL3737B ([#16718](https://github.com/qmk/qmk_firmware/pull/16718))
* Joystick feature updates ([#16732](https://github.com/qmk/qmk_firmware/pull/16732))
* Add emulated eeprom support for STM32F303xE ([#16737](https://github.com/qmk/qmk_firmware/pull/16737))
* Refactor writePin to work with statements ([#16738](https://github.com/qmk/qmk_firmware/pull/16738))
* Add mechanism to limit available converters ([#16783](https://github.com/qmk/qmk_firmware/pull/16783))
* Implement XAP 'secure' core requirements ([#16843](https://github.com/qmk/qmk_firmware/pull/16843))
* rgblight: Add functions to stop blinking one or all but one layer ([#16859](https://github.com/qmk/qmk_firmware/pull/16859))
* Expose API for hardware unique ID ([#16869](https://github.com/qmk/qmk_firmware/pull/16869))
* Added support for Wb32fq95 ([#16871](https://github.com/qmk/qmk_firmware/pull/16871))
* Provide better config defaults for bluepill boards ([#16909](https://github.com/qmk/qmk_firmware/pull/16909))
* Joystick: Simplify report descriptor and clean up error messages ([#16926](https://github.com/qmk/qmk_firmware/pull/16926))
* Rename keymap_extras headers for consistency ([#16939](https://github.com/qmk/qmk_firmware/pull/16939))
* Sendstring keycode overhaul ([#16941](https://github.com/qmk/qmk_firmware/pull/16941))
* Move disable_jtag to platforms ([#16960](https://github.com/qmk/qmk_firmware/pull/16960))
* Remove ARM pgm_read_word workaround in rgblight ([#16961](https://github.com/qmk/qmk_firmware/pull/16961))
* Warn about LTO with arm_atsam, not ChibiOS. ([#17106](https://github.com/qmk/qmk_firmware/pull/17106))
CLI:
* Rework generate-api CLI command to use .build directory ([#16441](https://github.com/qmk/qmk_firmware/pull/16441))
* Change data driven "str" type to represent a quoted string literal ([#16516](https://github.com/qmk/qmk_firmware/pull/16516))
* Bump the 'jsonschema' version ([#16635](https://github.com/qmk/qmk_firmware/pull/16635))
* Add frameworking for development board presets ([#16637](https://github.com/qmk/qmk_firmware/pull/16637))
* Extend 'qmk info' to handle keymap level overrides ([#16702](https://github.com/qmk/qmk_firmware/pull/16702))
* Data driven `g_led_config` ([#16728](https://github.com/qmk/qmk_firmware/pull/16728))
* Allow new-keyboard to use development_board presets ([#16785](https://github.com/qmk/qmk_firmware/pull/16785))
* Also format *.hpp files. ([#16997](https://github.com/qmk/qmk_firmware/pull/16997))
Submodule updates:
* ChibiOS 21.11.1 update. ([#16251](https://github.com/qmk/qmk_firmware/pull/16251))
* Update ChibiOS-Contrib ([#16915](https://github.com/qmk/qmk_firmware/pull/16915))
Keyboards:
* chore: Add personal GMMK Pro keymap ([#15320](https://github.com/qmk/qmk_firmware/pull/15320))
* move melody96 to ymdk vendor folder ([#15680](https://github.com/qmk/qmk_firmware/pull/15680))
* move amj keyboards into amjkeyboard vendor folder ([#15733](https://github.com/qmk/qmk_firmware/pull/15733))
* move z150_bh at101_bh omnikey_bh to viktus/ ([#16004](https://github.com/qmk/qmk_firmware/pull/16004))
* MS Sculpt Mobile refactor ([#16038](https://github.com/qmk/qmk_firmware/pull/16038))
* move keyhive exclusive boards into /keyhive ([#16084](https://github.com/qmk/qmk_firmware/pull/16084))
* move 麦田 boards into /mt ([#16095](https://github.com/qmk/qmk_firmware/pull/16095))
* Convert Wasdat Code custom matrix to SN74x138 driver ([#16257](https://github.com/qmk/qmk_firmware/pull/16257))
* Move GMMK Pro to allow for multiple revisions ([#16423](https://github.com/qmk/qmk_firmware/pull/16423))
* Updated pin mapping and readme. ([#16505](https://github.com/qmk/qmk_firmware/pull/16505))
* Map data driven `DESCRIPTION` as string literal ([#16523](https://github.com/qmk/qmk_firmware/pull/16523))
* remove unecessary layers ([#16559](https://github.com/qmk/qmk_firmware/pull/16559))
* Helix/rev2 move to split common ([#16723](https://github.com/qmk/qmk_firmware/pull/16723))
* Remove some layout exceptions ([#16957](https://github.com/qmk/qmk_firmware/pull/16957))
* Refactor legacy quantum keycodes in default-ish keymaps ([#17037](https://github.com/qmk/qmk_firmware/pull/17037))
* Refactor legacy quantum keycodes in default-ish keymaps ([#17150](https://github.com/qmk/qmk_firmware/pull/17150))
Keyboard fixes:
* gboards/gergoplex: move `COMBO_ENABLE` to keymap level ([#16667](https://github.com/qmk/qmk_firmware/pull/16667))
* usb-usb converter: community layout support ([#16773](https://github.com/qmk/qmk_firmware/pull/16773))
* Fix build of `keyhive/uno`. ([#16891](https://github.com/qmk/qmk_firmware/pull/16891))
* Fix uno ([#16892](https://github.com/qmk/qmk_firmware/pull/16892))
* converter/usb_usb: remove surplus commas ([#17024](https://github.com/qmk/qmk_firmware/pull/17024))
* Various fixes for g_led_config lint warnings ([#17104](https://github.com/qmk/qmk_firmware/pull/17104))
Others:
* Add warning for CTPC/CONVERT_TO_PROTON_C. ([#16782](https://github.com/qmk/qmk_firmware/pull/16782))
* Add bluepill/blackpill development board presets ([#16806](https://github.com/qmk/qmk_firmware/pull/16806))
* Recommend pillow as part of manual MSYS install ([#17133](https://github.com/qmk/qmk_firmware/pull/17133))
Bugs:
* Fix one-shot locked modifiers ([#16114](https://github.com/qmk/qmk_firmware/pull/16114))
* Fix missing definition for non-encoder case. ([#16593](https://github.com/qmk/qmk_firmware/pull/16593))
* Fixup builds. ([#16596](https://github.com/qmk/qmk_firmware/pull/16596))
* Missed some erroneous prints. ([#16597](https://github.com/qmk/qmk_firmware/pull/16597))
* Workaround for pin_def errors on KINETIS based builds ([#16614](https://github.com/qmk/qmk_firmware/pull/16614))
* Fix flipped logic bug with One Shot `OS_ON` / `OS_OFF` keys ([#16617](https://github.com/qmk/qmk_firmware/pull/16617))
* Redo workaround for pin_def errors on KINETIS ([#16620](https://github.com/qmk/qmk_firmware/pull/16620))
* Fix oneshot toggle logic ([#16630](https://github.com/qmk/qmk_firmware/pull/16630))
* Mousekeys fix ([#16640](https://github.com/qmk/qmk_firmware/pull/16640))
* Ignore transport defaults if SPLIT_KEYBOARD is unset ([#16706](https://github.com/qmk/qmk_firmware/pull/16706))
* Fixes #16705 : digital rain follows val ([#16716](https://github.com/qmk/qmk_firmware/pull/16716))
* Fix AVR backlight breathing: low brightness limit & exceeding breathing table max index ([#16770](https://github.com/qmk/qmk_firmware/pull/16770))
* Fixed usb read loops not reading until timeout ([#16827](https://github.com/qmk/qmk_firmware/pull/16827))
* [QP] Check BPP capabilities before loading the palette ([#16863](https://github.com/qmk/qmk_firmware/pull/16863))
* Fix #16859. ([#16865](https://github.com/qmk/qmk_firmware/pull/16865))
* Preinstall python dependencies before executing `qmk`. ([#16874](https://github.com/qmk/qmk_firmware/pull/16874))
* Fixup AVR builds. ([#16875](https://github.com/qmk/qmk_firmware/pull/16875))
* Fix kinetic mouse mode ([#16951](https://github.com/qmk/qmk_firmware/pull/16951))
* Enhancement and fixes of "Secure" feature ([#16958](https://github.com/qmk/qmk_firmware/pull/16958))
* Check for ongoing transfers on the OUT endpoint ([#16974](https://github.com/qmk/qmk_firmware/pull/16974))
* MSYS2 install: add some Python dependencies through Pacman ([#17025](https://github.com/qmk/qmk_firmware/pull/17025))
* Revert "Fix kinetic mouse mode (#16951)" ([#17095](https://github.com/qmk/qmk_firmware/pull/17095))
* Workaround for recent -Werror=array-bounds AVR issues ([#17136](https://github.com/qmk/qmk_firmware/pull/17136))
* Bug fix: Continue Caps Word when AltGr (right Alt) is held. ([#17156](https://github.com/qmk/qmk_firmware/pull/17156))

22
docs/_summary.md
View file

@ -75,6 +75,7 @@
* Software Features
* [Auto Shift](feature_auto_shift.md)
* [Caps Word](feature_caps_word.md)
* [Combos](feature_combo.md)
* [Debounce API](feature_debounce_type.md)
* [Key Lock](feature_key_lock.md)
@ -94,7 +95,8 @@
* Hardware Features
* Displays
* [HD44780 LCD Controller](feature_hd44780.md)
* [Quantum Painter](quantum_painter.md)
* [HD44780 LCD Driver](feature_hd44780.md)
* [ST7565 LCD Driver](feature_st7565.md)
* [OLED Driver](feature_oled_driver.md)
* Lighting
@ -131,7 +133,7 @@
* Breaking Changes
* [Overview](breaking_changes.md)
* [My Pull Request Was Flagged](breaking_changes_instructions.md)
* [Most Recent ChangeLog](ChangeLog/20220226.md "QMK v0.16.0 - 2022 Feb 26")
* [Most Recent ChangeLog](ChangeLog/20220528.md "QMK v0.17.0 - 2022 May 28")
* [Past Breaking Changes](breaking_changes_history.md)
* C Development
@ -147,7 +149,7 @@
* [EEPROM Driver](eeprom_driver.md)
* ['serial' Driver](serial_driver.md)
* [UART Driver](uart_driver.md)
* [GPIO Controls](internals_gpio_control.md)
* [GPIO Controls](gpio_control.md)
* [Keyboard Guidelines](hardware_keyboard_guidelines.md)
* Python Development
@ -183,10 +185,10 @@
* [Understanding QMK](understanding_qmk.md)
* QMK Internals (In Progress)
* [Defines](internals_defines.md)
* [Input Callback Reg](internals_input_callback_reg.md)
* [Midi Device](internals_midi_device.md)
* [Midi Device Setup Process](internals_midi_device_setup_process.md)
* [Midi Util](internals_midi_util.md)
* [Send Functions](internals_send_functions.md)
* [Sysex Tools](internals_sysex_tools.md)
* [Defines](internals/defines.md)
* [Input Callback Reg](internals/input_callback_reg.md)
* [Midi Device](internals/midi_device.md)
* [Midi Device Setup Process](internals/midi_device_setup_process.md)
* [Midi Util](internals/midi_util.md)
* [Send Functions](internals/send_functions.md)
* [Sysex Tools](internals/sysex_tools.md)

19
docs/breaking_changes.md
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@ -8,6 +8,7 @@ The breaking change period is when we will merge PR's that change QMK in dangero
## What has been included in past Breaking Changes?
* [2022 May 28](ChangeLog/20220528.md)
* [2022 Feb 26](ChangeLog/20220226.md)
* [2021 Nov 27](ChangeLog/20211127.md)
* [2021 Aug 28](ChangeLog/20210828.md)
@ -21,17 +22,17 @@ The breaking change period is when we will merge PR's that change QMK in dangero
## When is the next Breaking Change?
The next Breaking Change is scheduled for May 28, 2022.
The next Breaking Change is scheduled for August 27, 2022.
### Important Dates
* [x] 2022 Feb 26 - `develop` is tagged with a new release version. Each push to `master` is subsequently merged to `develop` by GitHub actions.
* [ ] 2022 Apr 31 - `develop` closed to new PR's.
* [ ] 2022 Apr 31 - Call for testers.
* [ ] 2022 May 14 - Last day for merges -- after this point `develop` is locked for testing and accepts only bugfixes
* [ ] 2022 May 26 - `master` is locked, no PR's merged.
* [ ] 2022 May 28 - Merge `develop` to `master`.
* [ ] 2022 May 28 - `master` is unlocked. PR's can be merged again.
* [x] 2022 May 28 - `develop` is tagged with a new release version. Each push to `master` is subsequently merged to `develop` by GitHub actions.
* [ ] 2022 Jul 31 - `develop` closed to new PR's.
* [ ] 2022 Jul 31 - Call for testers.
* [ ] 2022 Aug 13 - Last day for merges -- after this point `develop` is locked for testing and accepts only bugfixes
* [ ] 2022 Aug 25 - `master` is locked, no PR's merged.
* [ ] 2022 Aug 27 - Merge `develop` to `master`.
* [ ] 2022 Aug 27 - `master` is unlocked. PR's can be merged again.
## What changes will be included?
@ -42,7 +43,7 @@ If you want your breaking change to be included in this round you need to create
Criteria for acceptance:
* The PR is complete and ready to merge
* The PR has a ChangeLog file describing the changes under `<qmk_firmware>/docs/Changelog/20220226`.
* The PR has a ChangeLog file describing the changes under `<qmk_firmware>/docs/Changelog/20220827`.
* This should be in Markdown format, with a name in the format `PR12345.md`, substituting the digits for your PR's ID.
* One strong recommendation that the ChangeLog document matches the PR description on GitHub, so as to ensure traceability.

1
docs/breaking_changes_history.md
View file

@ -2,6 +2,7 @@
This page links to all previous changelogs from the QMK Breaking Changes process.
* [2022 May 28](ChangeLog/20220528.md) - version 0.17.0
* [2022 Feb 26](ChangeLog/20220226.md) - version 0.16.0
* [2021 Nov 27](ChangeLog/20211127.md) - version 0.15.0
* [2021 Aug 28](ChangeLog/20210828.md) - version 0.14.0

12
docs/cli_commands.md
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@ -515,3 +515,15 @@ Run single test:
qmk pytest -t qmk.tests.test_cli_commands.test_c2json
qmk pytest -t qmk.tests.test_qmk_path
## `qmk painter-convert-graphics`
This command converts images to a format usable by QMK, i.e. the QGF File Format. See the [Quantum Painter](quantum_painter.md?id=quantum-painter-cli) documentation for more information on this command.
## `qmk painter-make-font-image`
This command converts a TTF font to an intermediate format for editing, before converting to the QFF File Format. See the [Quantum Painter](quantum_painter.md?id=quantum-painter-cli) documentation for more information on this command.
## `qmk painter-convert-font-image`
This command converts an intermediate font image to the QFF File Format. See the [Quantum Painter](quantum_painter.md?id=quantum-painter-cli) documentation for more information on this command.

1
docs/compatible_microcontrollers.md
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@ -51,6 +51,7 @@ You can also use any ARM chip with USB that [ChibiOS](https://www.chibios.org) s
### WestBerryTech (WB32)
* [WB32F3G71xx](http://www.westberrytech.com)
* [WB32FQ95xx](http://www.westberrytech.com)
### NXP (Kinetis)

2
docs/config_options.md
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@ -131,6 +131,8 @@ If you define these options you will disable the associated feature, which can s
If you define these options you will enable the associated feature, which may increase your code size.
* `#define ENABLE_COMPILE_KEYCODE`
* Enables the `QK_MAKE` keycode
* `#define FORCE_NKRO`
* NKRO by default requires to be turned on, this forces it on during keyboard startup regardless of EEPROM setting. NKRO can still be turned off but will be turned on again if the keyboard reboots.
* `#define STRICT_LAYER_RELEASE`

5
docs/data_driven_config.md
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@ -44,7 +44,7 @@ In other cases you should group like options together in an `object`. This is pa
In most cases you can add a simple mapping. These are maintained as JSON files in `data/mappings/info_config.json` and `data/mappings/info_rules.json`, and control mapping for `config.h` and `rules.mk`, respectively. Each mapping is keyed by the `config.h` or `rules.mk` variable, and the value is a hash with the following keys:
* `info_key`: (required) The location within `info.json` for this value. See below.
* `value_type`: (optional) Default `str`. The format for this variable's value. See below.
* `value_type`: (optional) Default `raw`. The format for this variable's value. See below.
* `to_json`: (optional) Default `true`. Set to `false` to exclude this mapping from info.json
* `to_c`: (optional) Default `true`. Set to `false` to exclude this mapping from config.h
* `warn_duplicate`: (optional) Default `true`. Set to `false` to turn off warning when a value exists in both places
@ -57,7 +57,7 @@ Under the hood we use [Dotty Dict](https://dotty-dict.readthedocs.io/en/latest/)
#### Value Types
By default we treat all values as simple strings. If your value is more complex you can use one of these types to intelligently parse the data:
By default we treat all values as unquoted "raw" data. If your value is more complex you can use one of these types to intelligently parse the data:
* `array`: A comma separated array of strings
* `array.int`: A comma separated array of integers
@ -65,6 +65,7 @@ By default we treat all values as simple strings. If your value is more complex
* `hex`: A number formatted as hex
* `list`: A space separate array of strings
* `mapping`: A hash of key/value pairs
* `str`: A quoted string literal
### Add code to extract it

156
docs/feature_caps_word.md Normal file
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@ -0,0 +1,156 @@
# Caps Word
It is often useful to type a single word in all capitals, for instance
abbreviations like "QMK", or in code, identifiers like `KC_SPC`. "Caps Word" is
a modern alternative to Caps Lock:
* Letters are capitalized while active, and Caps Word automatically disables
itself at the end of the word. That is, it stops by default once a space or
any key other than `a`--`z`, `0`--`9`, `-`, `_`, delete, or backspace is
pressed. Caps Word also disables itself if the keyboard is idle for 5 seconds.
This is configurable, see below.
* To avoid requiring a dedicated key for Caps Word, there is an option
(`BOTH_SHIFTS_TURNS_ON_CAPS_WORD`) to activate Caps Word by simultaneously
pressing both shift keys. See below for other options.
* The implementation does not use the Caps Lock (`KC_CAPS`) keycode. Caps Word
works even if you're remapping Caps Lock at the OS level to Ctrl or something
else, as Emacs and Vim users often do.
## How do I enable Caps Word :id=how-do-i-enable-caps-word
In your `rules.mk`, add:
```make
CAPS_WORD_ENABLE = yes
```
Next, use one the following methods to activate Caps Word:
* **Activate by pressing a key**: Use the `CAPS_WORD` keycode (short
alias `CAPSWRD`) in your keymap.
* **Activate by pressing Left Shift + Right Shift**: Add `#define
BOTH_SHIFTS_TURNS_ON_CAPS_WORD` to config.h. You may also need to disable or
reconfigure Command, details below. Then, simultaneously pressing both left
and right shifts turns on Caps Word. This method works with the plain
`KC_LSFT` and `KC_RSFT` keycodes as well as one-shot shifts and Space Cadet
shifts. If your shift keys are mod-taps, hold both shift mod-tap keys until
the tapping term, then release them.
* **Activate by double tapping Left Shift**: Add `#define
DOUBLE_TAP_SHIFT_TURNS_ON_CAPS_WORD` config.h. Then, double tapping Left Shift
turns on Caps Word. This method works with `KC_LSFT` or one-shot Left Shift
`OSM(MOD_LSFT)`. To count as a double tap, the maximum time in milliseconds
between taps is `TAPPING_TERM`, or if using `TAPPING_TERM_PER_KEY`, the time
returned by `get_tapping_term()` for the shift keycode being tapped.
* **Custom activation**: You can activate Caps Word from code by calling
`caps_word_on()`. This may be used to activate Caps Word through [a
combo](feature_combo.md) or [tap dance](feature_tap_dance.md) or any means
you like.
### Troubleshooting: Command :id=troubleshooting-command
When using `BOTH_SHIFTS_TURNS_ON_CAPS_WORD`, you might see a compile message
**"BOTH_SHIFTS_TURNS_ON_CAPS_WORD and Command should not be enabled at the same
time, since both use the Left Shift + Right Shift key combination."**
Many keyboards enable the [Command feature](feature_command.md), which by
default is also activated using the Left Shift + Right Shift key combination. To
fix this conflict, please disable Command by adding in rules.mk:
```make
COMMAND_ENABLE = no
```
Or configure Command to use another key combination like Left Ctrl + Right Ctrl
by defining `IS_COMMAND()` in config.h:
```c
// Activate Command with Left Ctrl + Right Ctrl.
#define IS_COMMAND() (get_mods() == MOD_MASK_CTRL)
```
## Customizing Caps Word :id=customizing-caps-word
### Idle timeout :id=idle-timeout
Caps Word turns off automatically if no keys are pressed for
`CAPS_WORD_IDLE_TIMEOUT` milliseconds. The default is 5000 (5 seconds).
Configure the timeout duration in config.h, for instance
```c
#define CAPS_WORD_IDLE_TIMEOUT 3000 // 3 seconds.
```
Setting `CAPS_WORD_IDLE_TIMEOUT` to 0 configures Caps Word to never time out.
Caps Word then remains active indefinitely until a word breaking key is pressed.
### Functions :id=functions
Functions to manipulate Caps Word:
| Function | Description |
|-------------------------|------------------------------------------------|
| `caps_word_on()` | Turns Caps Word on. |
| `caps_word_off()` | Turns Caps Word off. |
| `caps_word_toggle()` | Toggles Caps Word. |
| `is_caps_word_on()` | Returns true if Caps Word is currently on. |
### Configure which keys are "word breaking" :id=configure-which-keys-are-word-breaking
You can define the `caps_word_press_user(uint16_t keycode)` callback to
configure which keys should be shifted and which keys are considered "word
breaking" and stop Caps Word.
The callback is called on every key press while Caps Word is active. When the
key should be shifted (that is, a letter key), the callback should call
`add_weak_mods(MOD_BIT(KC_LSFT))` to shift the key. Returning true continues the
current "word," while returning false is "word breaking" and deactivates Caps
Word. The default callback is
```c
bool caps_word_press_user(uint16_t keycode) {
switch (keycode) {
// Keycodes that continue Caps Word, with shift applied.
case KC_A ... KC_Z:
case KC_MINS:
add_weak_mods(MOD_BIT(KC_LSFT)); // Apply shift to next key.
return true;
// Keycodes that continue Caps Word, without shifting.
case KC_1 ... KC_0:
case KC_BSPC:
case KC_DEL:
case KC_UNDS:
return true;
default:
return false; // Deactivate Caps Word.
}
}
```
### Representing Caps Word state :id=representing-caps-word-state
Define `caps_word_set_user(bool active)` to get callbacks when Caps Word turns
on or off. This is useful to represent the current Caps Word state, e.g. by
setting an LED or playing a sound. In your keymap, define
```c
void caps_word_set_user(bool active) {
if (active) {
// Do something when Caps Word activates.
} else {
// Do something when Caps Word deactivates.
}
}
```

36
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@ -54,9 +54,43 @@ If you are using different pinouts for the encoders on each half of a split keyb
#define ENCODER_RESOLUTIONS_RIGHT { 2, 4 }
```
If the `_RIGHT` definitions aren't specified in your `config.h`, then the non-`_RIGHT` versions will be applied to both sides of the split.
Additionally, if one side does not have an encoder, you can specify `{}` for the pins/resolution -- for example, a split keyboard with only a right-side encoder:
```c
#define ENCODERS_PAD_A { }
#define ENCODERS_PAD_B { }
#define ENCODER_RESOLUTIONS { }
#define ENCODERS_PAD_A_RIGHT { B12 }
#define ENCODERS_PAD_B_RIGHT { B13 }
#define ENCODER_RESOLUTIONS_RIGHT { 4 }
```
## Encoder map :id=encoder-map
Encoder mapping may be added to your `keymap.c`, which replicates the normal keyswitch layer handling functionality, but with encoders. Add this to your `rules.mk`:
```make
ENCODER_MAP_ENABLE = yes
```
Your `keymap.c` will then need an encoder mapping defined (for four layers and two encoders):
```c
#if defined(ENCODER_MAP_ENABLE)
const uint16_t PROGMEM encoder_map[][NUM_ENCODERS][2] = {
[_BASE] = { ENCODER_CCW_CW(KC_MS_WH_UP, KC_MS_WH_DOWN), ENCODER_CCW_CW(KC_VOLD, KC_VOLU) },
[_LOWER] = { ENCODER_CCW_CW(RGB_HUD, RGB_HUI), ENCODER_CCW_CW(RGB_SAD, RGB_SAI) },
[_RAISE] = { ENCODER_CCW_CW(RGB_VAD, RGB_VAI), ENCODER_CCW_CW(RGB_SPD, RGB_SPI) },
[_ADJUST] = { ENCODER_CCW_CW(RGB_RMOD, RGB_MOD), ENCODER_CCW_CW(KC_RIGHT, KC_LEFT) },
};
#endif
```
## Callbacks
The callback functions can be inserted into your `<keyboard>.c`:
When not using `ENCODER_MAP_ENABLE = yes`, the callback functions can be inserted into your `<keyboard>.c`:
```c
bool encoder_update_kb(uint8_t index, bool clockwise) {

30
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@ -50,22 +50,28 @@ Not all keycodes below will work depending on which haptic mechanism you have ch
### Solenoids
First you will need a build a circuit to drive the solenoid through a mosfet as most MCU will not be able to provide the current needed to drive the coil in the solenoid.
The solenoid code supports relay switches, and similar hardware, as well as solenoids.
For a regular solenoid, you will need a build a circuit to drive the solenoid through a mosfet as most MCU will not be able to provide the current needed to drive the coil in the solenoid.
[Wiring diagram provided by Adafruit](https://cdn-shop.adafruit.com/product-files/412/solenoid_driver.pdf)
For relay switches, the hardware may already contain all of that ciruitry, and just require VCC, GND and a data pin.
| Settings | Default | Description |
|----------------------------|----------------------|-------------------------------------------------------|
|`SOLENOID_PIN` | *Not defined* |Configures the pin that the Solenoid is connected to. |
|`SOLENOID_PIN_ACTIVE_LOW` | *Not defined* |If defined then the solenoid trigger pin is active low.|
|`SOLENOID_DEFAULT_DWELL` | `12` ms |Configures the default dwell time for the solenoid. |
|`SOLENOID_MIN_DWELL` | `4` ms |Sets the lower limit for the dwell. |
|`SOLENOID_MAX_DWELL` | `100` ms |Sets the upper limit for the dwell. |
|`SOLENOID_DWELL_STEP_SIZE` | `1` ms |The step size to use when `HPT_DWL*` keycodes are sent |
|`SOLENOID_DEFAULT_BUZZ` | `0` (disabled) |On HPT_RST buzz is set "on" if this is "1" |
|`SOLENOID_BUZZ_ACTUATED` | `SOLENOID_MIN_DWELL` |Actuated-time when the solenoid is in buzz mode |
|`SOLENOID_BUZZ_NONACTUATED` | `SOLENOID_MIN_DWELL` |Non-Actuated-time when the solenoid is in buzz mode |
| Settings | Default | Description |
|----------------------------|----------------------|--------------------------------------------------------------|
|`SOLENOID_PIN` | *Not defined* |Configures the pin that the switch is connected to. |
|`SOLENOID_PIN_ACTIVE_LOW` | *Not defined* |If defined then the switch trigger pin is active low. |
|`SOLENOID_PINS` | *Not defined* |Configures an array of pins to be used for switch activation. |
|`SOLENOID_PINS_ACTIVE_LOW` | *Not defined* |Allows you to specify how each pin is pulled for activation. |
|`SOLENOID_RANDOM_FIRE` | *Not defined* |When there are multiple solenoids, will select a random one to fire.|
|`SOLENOID_DEFAULT_DWELL` | `12` ms |Configures the default dwell time for the switch. |
|`SOLENOID_MIN_DWELL` | `4` ms |Sets the lower limit for the dwell. |
|`SOLENOID_MAX_DWELL` | `100` ms |Sets the upper limit for the dwell. |
|`SOLENOID_DWELL_STEP_SIZE` | `1` ms |The step size to use when `HPT_DWL*` keycodes are sent. |
|`SOLENOID_DEFAULT_BUZZ` | `0` (disabled) |On HPT_RST buzz is set "on" if this is "1" |
|`SOLENOID_BUZZ_ACTUATED` | `SOLENOID_MIN_DWELL` |Actuated-time when the switch is in buzz mode. |
|`SOLENOID_BUZZ_NONACTUATED` | `SOLENOID_MIN_DWELL` |Non-Actuated-time when the switch is in buzz mode. |
* If solenoid buzz is off, then dwell time is how long the "plunger" stays activated. The dwell time changes how the solenoid sounds.
* If solenoid buzz is on, then dwell time sets the length of the buzz, while `SOLENOID_BUZZ_ACTUATED` and `SOLENOID_BUZZ_NONACTUATED` set the (non-)actuation times withing the buzz period.

337
docs/feature_hd44780.md
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@ -1,57 +1,298 @@
# HD44780 LCD Displays
# HD44780 LCD Driver
This is an integration of Peter Fleury's LCD library. This page will explain the basics. [For in depth documentation visit his page.](http://www.peterfleury.epizy.com/doxygen/avr-gcc-libraries/group__pfleury__lcd.html)
## Supported Hardware
You can enable support for HD44780 Displays by setting the `HD44780_ENABLE` flag in your keyboards `rules.mk` to yes.
LCD modules using [HD44780U](https://www.sparkfun.com/datasheets/LCD/HD44780.pdf) IC or equivalent, communicating in 4-bit mode.
## Configuration
|Module|Size |Notes |
|------|--------------|---------------------------------|
|1602A |16x2, 5x8 dots| |
|2004A |20x4, 5x8 dots|Untested, not currently supported|
You will need to configure the pins used by your display, and its number of lines and columns in your keyboard's `config.h`.
Uncomment the section labled HD44780 and change the parameters as needed.
````
/*
* HD44780 LCD Display Configuration
*/
#define LCD_LINES 2 //< number of visible lines of the display
#define LCD_DISP_LENGTH 16 //< visibles characters per line of the display
#define LCD_IO_MODE 1 //< 0: memory mapped mode, 1: IO port mode
#if LCD_IO_MODE
#define LCD_PORT PORTB //< port for the LCD lines
#define LCD_DATA0_PORT LCD_PORT //< port for 4bit data bit 0
#define LCD_DATA1_PORT LCD_PORT //< port for 4bit data bit 1
#define LCD_DATA2_PORT LCD_PORT //< port for 4bit data bit 2
#define LCD_DATA3_PORT LCD_PORT //< port for 4bit data bit 3
#define LCD_DATA0_PIN 4 //< pin for 4bit data bit 0
#define LCD_DATA1_PIN 5 //< pin for 4bit data bit 1
#define LCD_DATA2_PIN 6 //< pin for 4bit data bit 2
#define LCD_DATA3_PIN 7 //< pin for 4bit data bit 3
#define LCD_RS_PORT LCD_PORT //< port for RS line
#define LCD_RS_PIN 3 //< pin for RS line
#define LCD_RW_PORT LCD_PORT //< port for RW line
#define LCD_RW_PIN 2 //< pin for RW line
#define LCD_E_PORT LCD_PORT //< port for Enable line
#define LCD_E_PIN 1 //< pin for Enable line
#endif
````
Should you need to configure other properties you can copy them from `quantum/hd44780.h` and set them in your `config.h`
To run these modules at 3.3V, an additional MAX660 voltage converter IC must be soldered on, along with two 10µF capacitors. See [this page](https://www.codrey.com/electronic-circuits/hack-your-16x2-lcd/) for more details.
## Usage
To initialize your display, call `lcd_init()` with one of these parameters:
````
LCD_DISP_OFF : display off
LCD_DISP_ON : display on, cursor off
LCD_DISP_ON_CURSOR : display on, cursor on
LCD_DISP_ON_CURSOR_BLINK : display on, cursor on flashing
````
This is best done in your keyboards `matrix_init_kb` or your keymaps `matrix_init_user`.
It is advised to clear the display before use.
To do so call `lcd_clrscr()`.
Add the following to your `rules.mk`:
To now print something to your Display you first call `lcd_gotoxy(column, line)`. To go to the start of the first line you would call `lcd_gotoxy(0, 0)` and then print a string with `lcd_puts("example string")`.
```make
HD44780_ENABLE = yes
```
There are more methods available to control the display. [For in depth documentation please visit the linked page.](http://www.peterfleury.epizy.com/doxygen/avr-gcc-libraries/group__pfleury__lcd.html)
## Basic Configuration
Add the following to your `config.h`:
|Define |Default |Description |
|-----------------------|--------------|-----------------------------------------------------------------------------------------------------|
|`HD44780_DATA_PINS` |*Not defined* |(Required) An array of four GPIO pins connected to the display's D4-D7 pins, eg. `{ B1, B3, B2, B6 }`|
|`HD44780_RS_PIN` |*Not defined* |(Required) The GPIO connected to the display's RS pin |
|`HD44780_RW_PIN` |*Not defined* |(Required) The GPIO connected to the display's RW pin |
|`HD44780_E_PIN` |*Not defined* |(Required) The GPIO connected to the display's E pin |
|`HD44780_DISPLAY_COLS` |`16` |The number of visible characters on a single line of the display |
|`HD44780_DISPLAY_LINES`|`2` |The number of visible lines on the display |
|`HD44780_WRAP_LINES` |*Not defined* |If defined, input characters will wrap to the next line |
## Examples
### Hello World
Add the following to your `keymap.c`:
```c
void keyboard_post_init_user(void) {
hd44780_init(true, true); // Show blinking cursor
hd44780_puts_P(PSTR("Hello, world!\n"));
}
```
### Custom Character Definition
Up to eight custom characters can be defined. This data is stored in the Character Generator RAM (CGRAM), and is not persistent across power cycles.
This example defines the QMK Psi as the first custom character. The first 16 positions in the character set are reserved for the eight custom characters duplicated.
```
Byte | 16 8 4 2 1
1 | x x x ■ □ ■ □ ■
2 | x x x ■ □ ■ □ ■
3 | x x x ■ □ ■ □ ■
4 | x x x □ ■ ■ ■ □
5 | x x x □ □ ■ □ □
6 | x x x □ □ ■ □ □
7 | x x x □ □ ■ □ □
8 | x x x □ □ □ □ □
```
```c
const uint8_t PROGMEM psi[8] = { 0x15, 0x15, 0x15, 0x0E, 0x04, 0x04, 0x04, 0x00 };
void keyboard_post_init_user(void) {
hd44780_init(false, false);
hd44780_define_char_P(0, psi);
// Cursor is incremented while defining characters so must be reset
hd44780_home();
// 0x08 to avoid null terminator
hd44780_puts_P(PSTR("\x08 QMK Firmware"));
}
```
## API
### `void hd44780_init(bool cursor, bool blink)`
Initialize the display.
This function should be called only once, before any of the other functions can be called.
#### Arguments
- `bool cursor`
Whether to show the cursor.
- `bool blink`
Whether to blink the cursor, if shown.
---
### `void hd44780_clear(void)`
Clear the display.
This function is called on init.
---
### `void hd44780_home(void)`
Move the cursor to the home position.
This function is called on init.
---
### `void hd44780_on(bool cursor, bool blink)`
Turn the display on, and/or set the cursor properties.
This function is called on init.
#### Arguments
- `bool cursor`
Whether to show the cursor.
- `bool blink`
Whether to blink the cursor, if shown.
---
### `void hd44780_off(void)`
Turn the display off.
---
### `void hd44780_set_cursor(uint8_t col, uint8_t line)`
Move the cursor to the specified position on the display.
#### Arguments
- `uint8_t col`
The column number to move to, from 0 to 15 on 16x2 displays.
- `bool line`
The line number to move to, either 0 or 1 on 16x2 displays.
---
### `void hd44780_putc(char c)`
Print a character to the display. The newline character `\n` will move the cursor to the start of the next line.
The exact character shown may depend on the ROM code of your particular display - refer to the datasheet for the full character set.
#### Arguments
- `char c`
The character to print.
---
### `void hd44780_puts(const char *s)`
Print a string of characters to the display.
#### Arguments
- `const char *s`
The string to print.
---
### `void hd44780_puts_P(const char *s)`
Print a string of characters from PROGMEM to the display.
On ARM devices, this function is simply an alias of `hd44780_puts()`.
#### Arguments
- `const char *s`
The PROGMEM string to print (ie. `PSTR("Hello")`).
---
### `void hd44780_define_char(uint8_t index, uint8_t *data)`
Define a custom character.
#### Arguments
- `uint8_t index`
The index of the custom character to define, from 0 to 7.
- `uint8_t *data`
An array of 8 bytes containing the 5-bit row data of the character, where the first byte is the topmost row, and the least significant bit of each byte is the rightmost column.
---
### `void hd44780_define_char_P(uint8_t index, const uint8_t *data)`
Define a custom character from PROGMEM.
On ARM devices, this function is simply an alias of `hd44780_define_char()`.
#### Arguments
- `uint8_t index`
The index of the custom character to define, from 0 to 7.
- `const uint8_t *data`
A PROGMEM array of 8 bytes containing the 5-bit row data of the character, where the first byte is the topmost row, and the least significant bit of each byte is the rightmost column.
---
### `bool hd44780_busy(void)`
Indicates whether the display is currently processing, and cannot accept instructions.
#### Return Value
`true` if the display is busy.
---
### `void hd44780_write(uint8_t data, bool isData)`
Write a byte to the display.
#### Arguments
- `uint8_t data`
The byte to send to the display.
- `bool isData`
Whether the byte is an instruction or character data.
---
### `uint8_t hd44780_read(bool isData)`
Read a byte from the display.
#### Arguments
- `bool isData`
Whether to read the current cursor position, or the character at the cursor.
#### Return Value
If `isData` is `true`, the returned byte will be the character at the current DDRAM address. Otherwise, it will be the current DDRAM address and the busy flag.
---
### `void hd44780_command(uint8_t command)`
Send a command to the display. Refer to the datasheet and `hd44780.h` for the valid commands and defines.
This function waits for the display to clear the busy flag before sending the command.
#### Arguments
- `uint8_t command`
The command to send.
---
### `void hd44780_data(uint8_t data)`
Send a byte of data to the display.
This function waits for the display to clear the busy flag before sending the data.
#### Arguments
- `uint8_t data`
The byte of data to send.
---
### `void hd44780_set_cgram_address(uint8_t address)`
Set the CGRAM address.
This function is used when defining custom characters.
#### Arguments
- `uint8_t address`
The CGRAM address to move to, from `0x00` to `0x3F`.
---
### `void hd44780_set_ddram_address(uint8_t address)`
Set the DDRAM address.
This function is used when printing characters to the display, and setting the cursor.
#### Arguments
- `uint8_t address`
The DDRAM address to move to, from `0x00` to `0x7F`.

2
docs/feature_joystick.md
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@ -150,3 +150,5 @@ Note that the supported AVR MCUs have a 10-bit ADC, and 12-bit for most STM32 MC
Joystick buttons are normal Quantum keycodes, defined as `JS_BUTTON0` to `JS_BUTTON31`, depending on the number of buttons you have configured.
To trigger a joystick button, just add the corresponding keycode to your keymap.
You can also trigger joystick buttons in code with `register_joystick_button(button)` and `unregister_joystick_button(button)`, where `button` is the 0-based button index (0 = button 1).

6
docs/feature_midi.md
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@ -254,7 +254,7 @@ For the above, the `MI_C` keycode will produce a C3 (note number 48), and so on.
<!--
#### QMK Internals (Autogenerated)
* [Internals/MIDI Device Setup Process](internals_midi_device_setup_process.md)
* [Internals/MIDI Device](internals_midi_device.md)
* [Internals/MIDI Util](internals_midi_util.md)
* [Internals/MIDI Device Setup Process](internals/midi_device_setup_process.md)
* [Internals/MIDI Device](internals/midi_device.md)
* [Internals/MIDI Util](internals/midi_util.md)
-->

32
docs/feature_pointing_device.md
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@ -134,6 +134,7 @@ The Pimoroni Trackball module is a I2C based breakout board with an RGB enable t
### PMW 3360 Sensor
This drivers supports multiple sensors _per_ controller, so 2 can be attached at the same side for split keyboards (or unsplit keyboards).
To use the PMW 3360 sensor, add this to your `rules.mk`
```make
@ -145,6 +146,7 @@ The PMW 3360 is an SPI driven optical sensor, that uses a built in IR LED for su
| Setting | Description | Default |
|-----------------------------|--------------------------------------------------------------------------------------------|---------------|
|`PMW3360_CS_PIN` | (Required) Sets the Cable Select pin connected to the sensor. | _not defined_ |
|`PMW3360_CS_PINS` | (Alternative) Sets the Cable Select pins connected to multiple sensors. | _not defined_ |
|`PMW3360_CLOCK_SPEED` | (Optional) Sets the clock speed that the sensor runs at. | `2000000` |
|`PMW3360_SPI_LSBFIRST` | (Optional) Sets the Least/Most Significant Byte First setting for SPI. | `false` |
|`PMW3360_SPI_MODE` | (Optional) Sets the SPI Mode for the sensor. | `3` |
@ -155,6 +157,36 @@ The PMW 3360 is an SPI driven optical sensor, that uses a built in IR LED for su
The CPI range is 100-12000, in increments of 100. Defaults to 1600 CPI.
To use multiple sensors, instead of setting `PMW3360_CS_PIN` you need to set `PMW3360_CS_PINS` and also handle and merge the read from this sensor in user code.
Note that different (per sensor) values of CPI, speed liftoff, rotational angle or flipping of X/Y is not currently supported.
```c
// in config.h:
#define PMW3360_CS_PINS { B5, B6 }
// in keyboard.c:
#ifdef POINTING_DEVICE_ENABLE
void pointing_device_init_kb(void) {
pmw3360_init(1); // index 1 is the second device.
pointing_device_set_cpi(800); // applies to both sensors
pointing_device_init_user();
}
// Contains report from sensor #0 already, need to merge in from sensor #1
report_mouse_t pointing_device_task_kb(report_mouse_t mouse_report) {
report_pmw3360_t data = pmw3360_read_burst(1);
if (data.isOnSurface && data.isMotion) {
// From quantum/pointing_device_drivers.c
#define constrain_hid(amt) ((amt) < -127 ? -127 : ((amt) > 127 ? 127 : (amt)))
mouse_report.x = constrain_hid(mouse_report.x + data.dx);
mouse_report.y = constrain_hid(mouse_report.y + data.dy);
}
return pointing_device_task_user(mouse_report);
}
#endif
```
### PMW 3389 Sensor
To use the PMW 3389 sensor, add this to your `rules.mk`

14
docs/feature_rgb_matrix.md
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@ -171,6 +171,7 @@ Configure the hardware via your `config.h`:
|----------|-------------|---------|
| `ISSI_TIMEOUT` | (Optional) How long to wait for i2c messages, in milliseconds | 100 |
| `ISSI_PERSISTENCE` | (Optional) Retry failed messages this many times | 0 |
| `ISSI_PWM_FREQUENCY` | (Optional) PWM Frequency Setting - IS31FL3737B only | 0 |
| `ISSI_SWPULLUP` | (Optional) Set the value of the SWx lines on-chip de-ghosting resistors | PUR_0R (Disabled) |
| `ISSI_CSPULLUP` | (Optional) Set the value of the CSx lines on-chip de-ghosting resistors | PUR_0R (Disabled) |
| `DRIVER_COUNT` | (Required) How many RGB driver IC's are present | |
@ -656,18 +657,19 @@ You can enable a single effect by defining `ENABLE_[EFFECT_NAME]` in your `confi
### RGB Matrix Effect Typing Heatmap :id=rgb-matrix-effect-typing-heatmap
This effect will color the RGB matrix according to a heatmap of recently pressed
keys. Whenever a key is pressed its "temperature" increases as well as that of
its neighboring keys. The temperature of each key is then decreased
automatically every 25 milliseconds by default.
This effect will color the RGB matrix according to a heatmap of recently pressed keys. Whenever a key is pressed its "temperature" increases as well as that of its neighboring keys. The temperature of each key is then decreased automatically every 25 milliseconds by default.
In order to change the delay of temperature decrease define
`RGB_MATRIX_TYPING_HEATMAP_DECREASE_DELAY_MS`:
In order to change the delay of temperature decrease define `RGB_MATRIX_TYPING_HEATMAP_DECREASE_DELAY_MS`:
```c
#define RGB_MATRIX_TYPING_HEATMAP_DECREASE_DELAY_MS 50
```
Heatmap effect may not light up the correct adjacent LEDs for certain key matrix layout such as split keyboards. The following define will limit the effect to pressed keys only:
```c
#define RGB_MATRIX_TYPING_HEATMAP_SLIM
```
## Custom RGB Matrix Effects :id=custom-rgb-matrix-effects
By setting `RGB_MATRIX_CUSTOM_USER = yes` in `rules.mk`, new effects can be defined directly from your keymap or userspace, without having to edit any QMK core files. To declare new effects, create a `rgb_matrix_user.inc` file in the user keymap directory or userspace folder.

13
docs/feature_rgblight.md
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@ -326,6 +326,19 @@ void post_process_record_user(uint16_t keycode, keyrecord_t *record) {
```
would turn the layer 0 (or 1) on and off again three times when `DEBUG` is pressed.
Blinking accumulates layers so if multiple layers are set blinking at the same time they will all blink for the duration and repeat times of the last layer to be blinked.
To stop these other layers from blinking use `rgblight_unblink_layer` or `rgblight_unblink_all_but_layer`:
```c
rgblight_blink_layer(1, 500);
rgblight_unblink_all_but_layer(1);
```
```c
rgblight_unblink_layer(3);
rgblight_blink_layer(2, 500);
```
!> Lighting layers on split keyboards will require layer state synced to the slave half (e.g. `#define SPLIT_LAYER_STATE_ENABLE`). See [data sync options](feature_split_keyboard.md#data-sync-options) for more details.
### Overriding RGB Lighting on/off status

13
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@ -31,3 +31,16 @@ Note that the array indices are reversed same as the matrix and the values are o
|`SH_OS` |One shot swap hands: toggles while pressed or until next key press. |
`SH_TT` swap-hands tap-toggle key is similar to [layer tap-toggle](feature_layers.md?id=switching-and-toggling-layers). Tapping repeatedly (5 taps by default) will toggle swap-hands on or off, like `SH_TG`. Tap-toggle count can be changed by defining a value for `TAPPING_TOGGLE`.
## Encoder Mapping
When using an encoder mapping, it's also able to handle swapping encoders between sides, too.
Encoder indexes are defined as left-to-right, and the extent of the array needs to match the number of encoders on the keyboard.
As an example, if a split keyboard has a single encoder per side, you can swap the order by using the following code in your keymap:
```c
#if defined(SWAP_HANDS_ENABLE) && defined(ENCODER_MAP_ENABLE)
const uint8_t PROGMEM encoder_hand_swap_config[NUM_ENCODERS] = { 1, 0 };
#endif
```

11
docs/feature_unicode.md
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@ -230,17 +230,6 @@ send_unicode_string("(ノಠ痊ಠ)ノ彡┻━┻");
Example uses include sending Unicode strings when a key is pressed, as described in [Macros](feature_macros.md).
### `send_unicode_hex_string()` (Deprecated)
Similar to `send_unicode_string()`, but the characters are represented by their Unicode code points, written in hexadecimal and separated by spaces. For example, the table flip above would be achieved with:
```c
send_unicode_hex_string("0028 30CE 0CA0 75CA 0CA0 0029 30CE 5F61 253B 2501 253B");
```
An easy way to convert your Unicode string to this format is to use [this site](https://r12a.github.io/app-conversion/) and take the result in the "Hex/UTF-32" section.
## Additional Language Support
In `quantum/keymap_extras`, you'll see various language files — these work the same way as the ones for alternative layouts such as Colemak or BÉPO. When you include one of these language headers, you gain access to keycodes specific to that language / national layout. Such keycodes are defined by a 2-letter country/language code, followed by an underscore and a 4-letter abbreviation of the character to which the key corresponds. For example, including `keymap_french.h` and using `FR_UGRV` in your keymap will output `ù` when typed on a system with a native French AZERTY layout.

11
docs/flashing.md
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@ -347,3 +347,14 @@ Flashing sequence:
2. Wait for the OS to detect the device
3. Copy the .uf2 file to the new USB disk
4. Wait for the keyboard to become available
or
CLI Flashing sequence:
1. Enter the bootloader using any of the following methods:
* Tap the `RESET` keycode
* Double-tap the `nRST` button on the PCB.
2. Wait for the OS to detect the device
3. Flash via QMK CLI eg. `qmk flash --keyboard handwired/onekey/blackpill_f411_tinyuf2 --keymap default`
4. Wait for the keyboard to become available

0
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0
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0
docs/internals_input_callback_reg.md → docs/internals/input_callback_reg.md
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0
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0
docs/internals_midi_device_setup_process.md → docs/internals/midi_device_setup_process.md
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0
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0
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0
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16
docs/ja/_summary.md
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@ -137,7 +137,7 @@
* [EEPROM ドライバ](ja/eeprom_driver.md)
* [シリアル ドライバ](ja/serial_driver.md)
* [UART ドライバ](ja/uart_driver.md)
* [GPIO 制御](ja/internals_gpio_control.md)
* [GPIO 制御](ja/gpio_control.md)
* [キーボード ガイドライン](ja/hardware_keyboard_guidelines.md)
* Python 開発
@ -173,10 +173,10 @@
* [QMK を理解する](ja/understanding_qmk.md)
* QMK の内部詳細(作成中)
* [定義](ja/internals_defines.md)
* [入力コールバック登録](ja/internals_input_callback_reg.md)
* [Midi デバイス](ja/internals_midi_device.md)
* [Midi デバイスのセットアップ手順](ja/internals_midi_device_setup_process.md)
* [Midi ユーティリティ](ja/internals_midi_util.md)
* [Midi 送信関数](ja/internals_send_functions.md)
* [Sysex Tools](ja/internals_sysex_tools.md)
* [定義](ja/internals/defines.md)
* [入力コールバック登録](ja/internals/input_callback_reg.md)
* [Midi デバイス](ja/internals/midi_device.md)
* [Midi デバイスのセットアップ手順](ja/internals/midi_device_setup_process.md)
* [Midi ユーティリティ](ja/internals/midi_util.md)
* [Midi 送信関数](ja/internals/send_functions.md)
* [Sysex Tools](ja/internals/sysex_tools.md)

11
docs/ja/feature_unicode.md
View file

@ -233,17 +233,6 @@ send_unicode_string("(ノಠ痊ಠ)ノ彡┻━┻");
使用例には、[Macros](ja/feature_macros.md) で説明されているように、キーが押された時に Unicode 文字列を送信することが含まれます。
### `send_unicode_hex_string()`
`send_unicode_string()` に似ていますが、文字は Unicode コードポイントで表され、16進数で記述され、空白で区切られています。例えば、上記のちゃぶ台返しは以下で表されます:
```c
send_unicode_hex_string("0028 30CE 0CA0 75CA 0CA0 0029 30CE 5F61 253B 2501 253B");
```
[このサイト](https://r12a.github.io/app-conversion/)で結果を "Hex/UTF-32" で受け取ることで、Unicode 文字列をこの形式に簡単に変換できます。
## 追加の言語サポート
`quantum/keymap_extras` には、様々な言語ファイルがあります — これらは Colemak または BÉPO のような代替レイアウトのファイルと同じように動作します。これらの言語ヘッダのいずれかを `#include` すると、その言語/国のレイアウトに固有のキーコードにアクセスできます。このようなキーコードは、2文字の国/言語コードの後に、アンダースコアとキーが対応する4文字の略語が続くことで定義されます。例えば、キーマップに `keymap_french.h` を含め、`FR_UGRV` を使うと、ネイティブのフランス語 AZERTY レイアウトを使うシステムで入力すると、`ù` が出力されます。

4
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View file

@ -1,8 +1,8 @@
# GPIO 制御 :id=gpio-control
<!---
original document: 0.13.15:docs/internals_gpio_control.md
git diff 0.13.15 HEAD -- docs/internals_gpio_control.md | cat
original document: 0.13.15:docs/gpio_control.md
git diff 0.13.15 HEAD -- docs/gpio_control.md | cat
-->
QMK には、マイクロコントローラに依存しない GPIO 制御抽象レイヤーがあります。これは異なるプラットフォーム間でピン制御に簡単にアクセスできるようにするためのものです。

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@ -1,78 +0,0 @@
# `defines` グループ {#group__defines}
## 概要
メンバー | 説明
--------------------------------|---------------------------------------------
`define `[`SYSEX_BEGIN`](#group__defines_1ga1a3c39bb790dda8a368c4247caabcf79) |
`define `[`SYSEX_END`](#group__defines_1ga753706d1d28e6f96d7caf1973e80feed) |
`define `[`MIDI_STATUSMASK`](#group__defines_1gab78a1c818a5f5dab7a8946543f126c69) |
`define `[`MIDI_CHANMASK`](#group__defines_1ga239edc0a6f8405d3a8f2804f1590b909) |
`define `[`MIDI_CC`](#group__defines_1ga45f116a1daab76b3c930c2cecfaef215) |
`define `[`MIDI_NOTEON`](#group__defines_1gafd416f27bf3590868c0c1f55c30be4c7) |
`define `[`MIDI_NOTEOFF`](#group__defines_1gabed24bea2d989fd655e2ef2ad0765adc) |
`define `[`MIDI_AFTERTOUCH`](#group__defines_1ga3a322d8cfd53576a2e167c1840551b0f) |
`define `[`MIDI_PITCHBEND`](#group__defines_1gabcc799504e8064679bca03f232223af4) |
`define `[`MIDI_PROGCHANGE`](#group__defines_1gaefb3f1595ffbb9db66b46c2c919a3d42) |
`define `[`MIDI_CHANPRESSURE`](#group__defines_1gaeb3281cc7fcd0daade8ed3d2dfc33dbe) |
`define `[`MIDI_CLOCK`](#group__defines_1gafa5e4e295aafd15ab7893344599b3b89) |
`define `[`MIDI_TICK`](#group__defines_1ga3b99408ff864613765d4c3c2ceb52aa7) |
`define `[`MIDI_START`](#group__defines_1ga8233631c85823aa546f932ad8975caa4) |
`define `[`MIDI_CONTINUE`](#group__defines_1gab24430f0081e27215b0da84dd0ee745c) |
`define `[`MIDI_STOP`](#group__defines_1ga3af9271d4b1f0d22904a0b055f48cf62) |
`define `[`MIDI_ACTIVESENSE`](#group__defines_1gacd88ed42dba52bb4b2052c5656362677) |
`define `[`MIDI_RESET`](#group__defines_1ga02947f30ca62dc332fdeb10c5868323b) |
`define `[`MIDI_TC_QUARTERFRAME`](#group__defines_1gaaa072f33590e236d1bfd8f28e833ae31) |
`define `[`MIDI_SONGPOSITION`](#group__defines_1ga412f6ed33a2150051374bee334ee1705) |
`define `[`MIDI_SONGSELECT`](#group__defines_1gafcab254838b028365ae0259729e72c4e) |
`define `[`MIDI_TUNEREQUEST`](#group__defines_1ga8100b907b8c0a84e58b1c53dcd9bd795) |
`define `[`SYSEX_EDUMANUFID`](#group__defines_1ga5ef855ed955b00a2239ca16afbeb164f) |
## メンバー
#### `define `[`SYSEX_BEGIN`](#group__defines_1ga1a3c39bb790dda8a368c4247caabcf79) {#group__defines_1ga1a3c39bb790dda8a368c4247caabcf79}
#### `define `[`SYSEX_END`](#group__defines_1ga753706d1d28e6f96d7caf1973e80feed) {#group__defines_1ga753706d1d28e6f96d7caf1973e80feed}
#### `define `[`MIDI_STATUSMASK`](#group__defines_1gab78a1c818a5f5dab7a8946543f126c69) {#group__defines_1gab78a1c818a5f5dab7a8946543f126c69}
#### `define `[`MIDI_CHANMASK`](#group__defines_1ga239edc0a6f8405d3a8f2804f1590b909) {#group__defines_1ga239edc0a6f8405d3a8f2804f1590b909}
#### `define `[`MIDI_CC`](#group__defines_1ga45f116a1daab76b3c930c2cecfaef215) {#group__defines_1ga45f116a1daab76b3c930c2cecfaef215}
#### `define `[`MIDI_NOTEON`](#group__defines_1gafd416f27bf3590868c0c1f55c30be4c7) {#group__defines_1gafd416f27bf3590868c0c1f55c30be4c7}
#### `define `[`MIDI_NOTEOFF`](#group__defines_1gabed24bea2d989fd655e2ef2ad0765adc) {#group__defines_1gabed24bea2d989fd655e2ef2ad0765adc}
#### `define `[`MIDI_AFTERTOUCH`](#group__defines_1ga3a322d8cfd53576a2e167c1840551b0f) {#group__defines_1ga3a322d8cfd53576a2e167c1840551b0f}
#### `define `[`MIDI_PITCHBEND`](#group__defines_1gabcc799504e8064679bca03f232223af4) {#group__defines_1gabcc799504e8064679bca03f232223af4}
#### `define `[`MIDI_PROGCHANGE`](#group__defines_1gaefb3f1595ffbb9db66b46c2c919a3d42) {#group__defines_1gaefb3f1595ffbb9db66b46c2c919a3d42}
#### `define `[`MIDI_CHANPRESSURE`](#group__defines_1gaeb3281cc7fcd0daade8ed3d2dfc33dbe) {#group__defines_1gaeb3281cc7fcd0daade8ed3d2dfc33dbe}
#### `define `[`MIDI_CLOCK`](#group__defines_1gafa5e4e295aafd15ab7893344599b3b89) {#group__defines_1gafa5e4e295aafd15ab7893344599b3b89}
#### `define `[`MIDI_TICK`](#group__defines_1ga3b99408ff864613765d4c3c2ceb52aa7) {#group__defines_1ga3b99408ff864613765d4c3c2ceb52aa7}
#### `define `[`MIDI_START`](#group__defines_1ga8233631c85823aa546f932ad8975caa4) {#group__defines_1ga8233631c85823aa546f932ad8975caa4}
#### `define `[`MIDI_CONTINUE`](#group__defines_1gab24430f0081e27215b0da84dd0ee745c) {#group__defines_1gab24430f0081e27215b0da84dd0ee745c}
#### `define `[`MIDI_STOP`](#group__defines_1ga3af9271d4b1f0d22904a0b055f48cf62) {#group__defines_1ga3af9271d4b1f0d22904a0b055f48cf62}
#### `define `[`MIDI_ACTIVESENSE`](#group__defines_1gacd88ed42dba52bb4b2052c5656362677) {#group__defines_1gacd88ed42dba52bb4b2052c5656362677}
#### `define `[`MIDI_RESET`](#group__defines_1ga02947f30ca62dc332fdeb10c5868323b) {#group__defines_1ga02947f30ca62dc332fdeb10c5868323b}
#### `define `[`MIDI_TC_QUARTERFRAME`](#group__defines_1gaaa072f33590e236d1bfd8f28e833ae31) {#group__defines_1gaaa072f33590e236d1bfd8f28e833ae31}
#### `define `[`MIDI_SONGPOSITION`](#group__defines_1ga412f6ed33a2150051374bee334ee1705) {#group__defines_1ga412f6ed33a2150051374bee334ee1705}
#### `define `[`MIDI_SONGSELECT`](#group__defines_1gafcab254838b028365ae0259729e72c4e) {#group__defines_1gafcab254838b028365ae0259729e72c4e}
#### `define `[`MIDI_TUNEREQUEST`](#group__defines_1ga8100b907b8c0a84e58b1c53dcd9bd795) {#group__defines_1ga8100b907b8c0a84e58b1c53dcd9bd795}
#### `define `[`SYSEX_EDUMANUFID`](#group__defines_1ga5ef855ed955b00a2239ca16afbeb164f) {#group__defines_1ga5ef855ed955b00a2239ca16afbeb164f}

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@ -1,173 +0,0 @@
# group `input_callback_reg` {#group__input__callback__reg}
<!---
original document: 0.9.34:docs/internals_input_callback_reg.md
git diff 0.9.34 HEAD -- docs/internals_input_callback_reg.md | cat
-->
これらは受信コールバックを登録するために使用する関数です。
関数は、適切な midi メッセージが関連するデバイスの入力と一致した場合に呼び出されます。
## 概要
| メンバー | 説明 |
--------------------------------|---------------------------------------------
| `public void `[`midi_register_cc_callback`](#group__input__callback__reg_1ga64ab672abbbe393c9c4a83110c8df718)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_three_byte_func_t func)` | コントロールチェンジメッセージ受信コールバックを登録する。 |
| `public void `[`midi_register_noteon_callback`](#group__input__callback__reg_1ga3962f276c17618923f1152779552103e)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_three_byte_func_t func)` | ノートオン受信コールバックを登録する。 |
| `public void `[`midi_register_noteoff_callback`](#group__input__callback__reg_1gac847b66051bd6d53b762958be0ec4c6d)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_three_byte_func_t func)` | ノートオフ受信コールバックを登録する。 |
| `public void `[`midi_register_aftertouch_callback`](#group__input__callback__reg_1gaa95bc901bd9edff956a667c9a69dd01f)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_three_byte_func_t func)` | アフタータッチ受信コールバックを登録する。 |
| `public void `[`midi_register_pitchbend_callback`](#group__input__callback__reg_1ga071a28f02ba14f53de219be70ebd9a48)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_three_byte_func_t func)` | ピッチベンド受信コールバックを登録する。 |
| `public void `[`midi_register_songposition_callback`](#group__input__callback__reg_1gaf2adfd79637f3553d8f26deb1ca22ed6)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_three_byte_func_t func)` | ソングポジション受信コールバックを登録する。 |
| `public void `[`midi_register_progchange_callback`](#group__input__callback__reg_1gae6ba1a35a4cde9bd15dd42f87401d127)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_two_byte_func_t func)` | プログラムチェンジ受信コールバックを登録する。 |
| `public void `[`midi_register_chanpressure_callback`](#group__input__callback__reg_1ga39b31f1f4fb93917ce039b958f21b4f5)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_two_byte_func_t func)` | チャンネルプレッシャー受信コールバックを登録する。 |
| `public void `[`midi_register_songselect_callback`](#group__input__callback__reg_1gaf9aafc76a2dc4b9fdbb4106cbda6ce72)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_two_byte_func_t func)` | ソングセレクト受信コールバックを登録する。 |
| `public void `[`midi_register_tc_quarterframe_callback`](#group__input__callback__reg_1ga0a119fada2becc628cb15d753b257e6e)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_two_byte_func_t func)` | タイムコードクォータフレーム受信コールバックを登録する。 |
| `public void `[`midi_register_realtime_callback`](#group__input__callback__reg_1ga764f440e857b89084b1a07f9da2ff93a)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_one_byte_func_t func)` | リアルタイム受信コールバックを登録する。 |
| `public void `[`midi_register_tunerequest_callback`](#group__input__callback__reg_1gae40ff3ce20bda79fef87da24b8321cb1)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_one_byte_func_t func)` | チューンリクエスト受信コールバックを登録する。 |
| `public void `[`midi_register_sysex_callback`](#group__input__callback__reg_1ga63ce9631b025785c1848d0122d4c4c48)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_sysex_func_t func)` | システムエクスクルーシブ受信コールバックを登録する。 |
| `public void `[`midi_register_fallthrough_callback`](#group__input__callback__reg_1ga7ed189164aa9682862b3181153afbd94)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_var_byte_func_t func)` | フォールスルー受信コールバックを登録する。 |
| `public void `[`midi_register_catchall_callback`](#group__input__callback__reg_1ga9dbfed568d047a6cd05708f11fe39e99)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_var_byte_func_t func)` | キャッチオール受信コールバックを登録する。 |
## メンバー
#### `public void `[`midi_register_cc_callback`](#group__input__callback__reg_1ga64ab672abbbe393c9c4a83110c8df718)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_three_byte_func_t func)` {#group__input__callback__reg_1ga64ab672abbbe393c9c4a83110c8df718}
コントロールチェンジメッセージ受信コールバックを登録する。
#### パラメータ
* `device` 関連するデバイス
* `func` 登録するコールバック関数
#### `public void `[`midi_register_noteon_callback`](#group__input__callback__reg_1ga3962f276c17618923f1152779552103e)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_three_byte_func_t func)` {#group__input__callback__reg_1ga3962f276c17618923f1152779552103e}
ノートオン受信コールバックを登録する。
#### パラメータ
* `device` 関連するデバイス
* `func` 登録するコールバック関数
#### `public void `[`midi_register_noteoff_callback`](#group__input__callback__reg_1gac847b66051bd6d53b762958be0ec4c6d)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_three_byte_func_t func)` {#group__input__callback__reg_1gac847b66051bd6d53b762958be0ec4c6d}
ノートオフ受信コールバックを登録する。
#### パラメータ
* `device` 関連するデバイス
* `func` 登録するコールバック関数
#### `public void `[`midi_register_aftertouch_callback`](#group__input__callback__reg_1gaa95bc901bd9edff956a667c9a69dd01f)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_three_byte_func_t func)` {#group__input__callback__reg_1gaa95bc901bd9edff956a667c9a69dd01f}
アフタータッチ受信コールバックを登録する。
#### パラメータ
* `device` 関連するデバイス
* `func` 登録するコールバック関数
#### `public void `[`midi_register_pitchbend_callback`](#group__input__callback__reg_1ga071a28f02ba14f53de219be70ebd9a48)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_three_byte_func_t func)` {#group__input__callback__reg_1ga071a28f02ba14f53de219be70ebd9a48}
ピッチベンド受信コールバックを登録する。
#### パラメータ
* `device` 関連するデバイス
* `func` 登録するコールバック関数
#### `public void `[`midi_register_songposition_callback`](#group__input__callback__reg_1gaf2adfd79637f3553d8f26deb1ca22ed6)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_three_byte_func_t func)` {#group__input__callback__reg_1gaf2adfd79637f3553d8f26deb1ca22ed6}
ソングポジション受信コールバックを登録する。
#### パラメータ
* `device` 関連するデバイス
* `func` 登録するコールバック関数
#### `public void `[`midi_register_progchange_callback`](#group__input__callback__reg_1gae6ba1a35a4cde9bd15dd42f87401d127)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_two_byte_func_t func)` {#group__input__callback__reg_1gae6ba1a35a4cde9bd15dd42f87401d127}
プログラムチェンジ受信コールバックを登録する。
#### パラメータ
* `device` 関連するデバイス
* `func` 登録するコールバック関数
#### `public void `[`midi_register_chanpressure_callback`](#group__input__callback__reg_1ga39b31f1f4fb93917ce039b958f21b4f5)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_two_byte_func_t func)` {#group__input__callback__reg_1ga39b31f1f4fb93917ce039b958f21b4f5}
チャンネルプレッシャー受信コールバックを登録する。
#### パラメータ
* `device` 関連するデバイス
* `func` 登録するコールバック関数
#### `public void `[`midi_register_songselect_callback`](#group__input__callback__reg_1gaf9aafc76a2dc4b9fdbb4106cbda6ce72)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_two_byte_func_t func)` {#group__input__callback__reg_1gaf9aafc76a2dc4b9fdbb4106cbda6ce72}
ソングセレクト受信コールバックを登録する。
#### パラメータ
* `device` 関連するデバイス
* `func` 登録するコールバック関数
#### `public void `[`midi_register_tc_quarterframe_callback`](#group__input__callback__reg_1ga0a119fada2becc628cb15d753b257e6e)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_two_byte_func_t func)` {#group__input__callback__reg_1ga0a119fada2becc628cb15d753b257e6e}
タイムコードクォータフレーム受信コールバックを登録する。
#### パラメータ
* `device` 関連するデバイス
* `func` 登録するコールバック関数
#### `public void `[`midi_register_realtime_callback`](#group__input__callback__reg_1ga764f440e857b89084b1a07f9da2ff93a)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_one_byte_func_t func)` {#group__input__callback__reg_1ga764f440e857b89084b1a07f9da2ff93a}
リアルタイム受信コールバックを登録する。
全てのリアルタイムメッセージ型に対してコールバックが呼ばれます。
#### パラメータ
* `device` 関連するデバイス
* `func` 登録するコールバック関数
#### `public void `[`midi_register_tunerequest_callback`](#group__input__callback__reg_1gae40ff3ce20bda79fef87da24b8321cb1)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_one_byte_func_t func)` {#group__input__callback__reg_1gae40ff3ce20bda79fef87da24b8321cb1}
チューンリクエスト受信コールバックを登録する。
#### パラメータ
* `device` 関連するデバイス
* `func` 登録するコールバック関数
#### `public void `[`midi_register_sysex_callback`](#group__input__callback__reg_1ga63ce9631b025785c1848d0122d4c4c48)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_sysex_func_t func)` {#group__input__callback__reg_1ga63ce9631b025785c1848d0122d4c4c48}
システムエクスクルーシブ受信コールバックを登録する。
#### パラメータ
* `device` 関連するデバイス
* `func` 登録するコールバック関数
#### `public void `[`midi_register_fallthrough_callback`](#group__input__callback__reg_1ga7ed189164aa9682862b3181153afbd94)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_var_byte_func_t func)` {#group__input__callback__reg_1ga7ed189164aa9682862b3181153afbd94}
フォールスルー受信コールバックを登録する。
より具体的なコールバックが見つからない場合にのみ呼ばれます。例えば、ノートオン受信コールバックを登録していないがノートオンメッセージを受け取った場合、フォールスルー受信コールバックが登録されている場合はそれが呼ばれます。
#### パラメータ
* `device` 関連するデバイス
* `func` 登録するコールバック関数
#### `public void `[`midi_register_catchall_callback`](#group__input__callback__reg_1ga9dbfed568d047a6cd05708f11fe39e99)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_var_byte_func_t func)` {#group__input__callback__reg_1ga9dbfed568d047a6cd05708f11fe39e99}
キャッチオール受信コールバックを登録する。
登録されている場合は、より具体的なコールバックあるいはフォールスルー受信コールバックが登録されている場合でも、一致する全てのメッセージに対してキャッチオール受信コールバックが呼ばれます。
#### パラメータ
* `device` 関連するデバイス
* `func` 登録するコールバック関数

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# `midi_device` グループ {#group__midi__device}
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独自の MIDI デバイスを実装する時に、関数を使います。
実際にデバイスを介してバイトを送信するために、送信関数を設定します。このメソッドは、このデバイスで例えば midi_send_cc のような送信関数を呼ぶ時に呼ばれます。
midi_device_input を使ってデバイスからの入力データを処理し、それをデバイスに関連付けられたコールバックで渡します。
デバイスのプロセス関数の最初に呼び出される関数が必要な場合、midi_device_set_pre_input_process_func を使います。通常、入力をポーリングして midi_device_input に渡します。
## 概要
メンバー | 説明
--------------------------------|---------------------------------------------
`define `[`MIDI_INPUT_QUEUE_LENGTH`](#group__midi__device_1ga4aaa419caebdca2bbdfc1331e79781a8) |
`enum `[`input_state_t`](#group__midi__device_1gac203e877d3df4275ceb8e7180a61f621) |
`public void `[`midi_device_input`](#group__midi__device_1gad8d3db8eb35d9cfa51ef036a0a9d70db)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t cnt,uint8_t * input)` | 入力バイトを処理します。この関数はバイトを解析し、指定されたデバイスに関連する適切なコールバックを呼びます。この関数は、カスタムデバイスを作成していて、MIDI 入力が必要な場合に使います。
`public void `[`midi_device_set_send_func`](#group__midi__device_1ga59f5a46bdd4452f186cc73d9e96d4673)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_var_byte_func_t send_func)` | 出力データバイトの送信に使われるコールバック関数を設定します。これは、カスタムデバイスを作成している場合のみ使われます。ロックを気にすることなく様々な MIDI 送信関数を呼び出すことができるように、コールバック関数で割り込みを無効にすることができます。
`public void `[`midi_device_set_pre_input_process_func`](#group__midi__device_1ga4de0841b87c04fc23cb56b6451f33b69)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_no_byte_func_t pre_process_func)` | midi_device_process 呼び出しの最初に呼ばれるコールバックを設定します。これは入力データをポーリングし、midi_device_input 関数を介してデータを送信できます。カスタムデバイスを作成している場合のみ、これを使う可能性があります。
`struct `[`_midi_device`](docs/api_midi_device.md#struct__midi__device) | この構造体は、MIDI デバイスの入出力関数と処理データを表します。
## メンバー
#### `define `[`MIDI_INPUT_QUEUE_LENGTH`](#group__midi__device_1ga4aaa419caebdca2bbdfc1331e79781a8) {#group__midi__device_1ga4aaa419caebdca2bbdfc1331e79781a8}
#### `enum `[`input_state_t`](#group__midi__device_1gac203e877d3df4275ceb8e7180a61f621) {#group__midi__device_1gac203e877d3df4275ceb8e7180a61f621}
値 | 説明
--------------------------------|---------------------------------------------
IDLE |
ONE_BYTE_MESSAGE |
TWO_BYTE_MESSAGE |
THREE_BYTE_MESSAGE |
SYSEX_MESSAGE |
#### `public void `[`midi_device_input`](#group__midi__device_1gad8d3db8eb35d9cfa51ef036a0a9d70db)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t cnt,uint8_t * input)` {#group__midi__device_1gad8d3db8eb35d9cfa51ef036a0a9d70db}
入力バイトを処理します。この関数はバイトを解析し、指定されたデバイスに関連する適切なコールバックを呼びます。この関数は、カスタムデバイスを作成していて、MIDI 入力が必要な場合に使います。
#### パラメータ
* `device` 入力を関連付ける MIDI デバイス
* `cnt` 処理中のバイト数
* `input` 処理するバイトデータ
#### `public void `[`midi_device_set_send_func`](#group__midi__device_1ga59f5a46bdd4452f186cc73d9e96d4673)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_var_byte_func_t send_func)` {#group__midi__device_1ga59f5a46bdd4452f186cc73d9e96d4673}
出力データバイトの送信に使われるコールバック関数を設定します。これは、カスタムデバイスを作成している場合のみ使われます。ロックを気にすることなく様々な MIDI 送信関数を呼び出すことができるように、コールバック関数で割り込みを無効にすることができます。
#### パラメータ
* `device` このコールバックを関連付ける MIDI デバイス
* `send_func` 送信を行うコールバック関数
#### `public void `[`midi_device_set_pre_input_process_func`](#group__midi__device_1ga4de0841b87c04fc23cb56b6451f33b69)`(`[`MidiDevice`](#struct__midi__device)` * device,midi_no_byte_func_t pre_process_func)` {#group__midi__device_1ga4de0841b87c04fc23cb56b6451f33b69}
midi_device_process 呼び出しの最初に呼ばれるコールバックを設定します。これは入力データをポーリングし、midi_device_input 関数を介してデータを送信できます。カスタムデバイスを作成している場合のみ、これを使う可能性があります。
#### パラメータ
* `device` このコールバックを関連付ける MIDI デバイス
* `midi_no_byte_func_t` 実際のコールバック関数
# `_midi_device` 構造体 {#struct__midi__device}
この構造体は、MIDI デバイスの入出力関数と処理データを表します。
デバイスは、実際の物理デバイス [シリアルポート、USB ポート]、または仮想デバイスを表すことができます。この構造体を直接変更する必要はありません。
## 概要
| メンバー | 説明
--------------------------------|---------------------------------------------
`public midi_var_byte_func_t `[`send_func`](docs/api_midi_device.md#struct__midi__device_1a25d4c94b4bbccd5b98f1032b469f3ff9) |
`public midi_three_byte_func_t `[`input_cc_callback`](docs/api_midi_device.md#struct__midi__device_1a6da5236c1bc73877728df92d213a78d1) |
`public midi_three_byte_func_t `[`input_noteon_callback`](docs/api_midi_device.md#struct__midi__device_1aa10b15cf1a7fb825a5df0d2abbe34a1c) |
`public midi_three_byte_func_t `[`input_noteoff_callback`](docs/api_midi_device.md#struct__midi__device_1aaf290043078534d3a5a0ea4c840eba84) |
`public midi_three_byte_func_t `[`input_aftertouch_callback`](docs/api_midi_device.md#struct__midi__device_1acb0b4901c545cec4b28b126f2d8c315f) |
`public midi_three_byte_func_t `[`input_pitchbend_callback`](docs/api_midi_device.md#struct__midi__device_1a305fea672caeb996f2233bf8cd2bef18) |
`public midi_three_byte_func_t `[`input_songposition_callback`](docs/api_midi_device.md#struct__midi__device_1a5f3f13638b3fef3fc561ed1bf301d586) |
`public midi_two_byte_func_t `[`input_progchange_callback`](docs/api_midi_device.md#struct__midi__device_1adaf1da617c9a10a9dcad00ab1959d3da) |
`public midi_two_byte_func_t `[`input_chanpressure_callback`](docs/api_midi_device.md#struct__midi__device_1ab7ca2925c539915d43974eff604d85f7) |
`public midi_two_byte_func_t `[`input_songselect_callback`](docs/api_midi_device.md#struct__midi__device_1a89bed8a5a55376120cfc0a62b42f057f) |
`public midi_two_byte_func_t `[`input_tc_quarterframe_callback`](docs/api_midi_device.md#struct__midi__device_1ad9813e75d22e284f9f65a907d20600f0) |
`public midi_one_byte_func_t `[`input_realtime_callback`](docs/api_midi_device.md#struct__midi__device_1a9448eba4afb7e43650434748db3777be) |
`public midi_one_byte_func_t `[`input_tunerequest_callback`](docs/api_midi_device.md#struct__midi__device_1a0cb8fd53e00cf1d4202d4fa04d038e8d) |
`public midi_sysex_func_t `[`input_sysex_callback`](docs/api_midi_device.md#struct__midi__device_1afff9a0ce641762aaef24c1e6953ec9a2) |
`public midi_var_byte_func_t `[`input_fallthrough_callback`](docs/api_midi_device.md#struct__midi__device_1abb974ec6d734001b4a0e370f292be503) |
`public midi_var_byte_func_t `[`input_catchall_callback`](docs/api_midi_device.md#struct__midi__device_1aae0d535129d4fd650edc98eb3f7584f8) |
`public midi_no_byte_func_t `[`pre_input_process_callback`](docs/api_midi_device.md#struct__midi__device_1aeb0bb8923d66c23d874e177dc4265754) |
`public uint8_t `[`input_buffer`](docs/api_midi_device.md#struct__midi__device_1a7c5684857d6af4ebc4dc12da27bd6b2a) |
`public input_state_t `[`input_state`](docs/api_midi_device.md#struct__midi__device_1a69a687d2d1c449ec15a11c07a5722e39) |
`public uint16_t `[`input_count`](docs/api_midi_device.md#struct__midi__device_1a68dea8e7b6151e89c85c95caa612ee5d) |
`public uint8_t `[`input_queue_data`](docs/api_midi_device.md#struct__midi__device_1ada41de021135dc423abedcbb30f366ff) |
`public `[`byteQueue_t`](#structbyte_queue__t)` `[`input_queue`](#struct__midi__device_1a49c8538a8a02193c58e28a56eb695d8f) |
## メンバー
#### `public midi_var_byte_func_t `[`send_func`](docs/api_midi_device.md#struct__midi__device_1a25d4c94b4bbccd5b98f1032b469f3ff9) {#struct__midi__device_1a25d4c94b4bbccd5b98f1032b469f3ff9}
#### `public midi_three_byte_func_t `[`input_cc_callback`](docs/api_midi_device.md#struct__midi__device_1a6da5236c1bc73877728df92d213a78d1) {#struct__midi__device_1a6da5236c1bc73877728df92d213a78d1}
#### `public midi_three_byte_func_t `[`input_noteon_callback`](docs/api_midi_device.md#struct__midi__device_1aa10b15cf1a7fb825a5df0d2abbe34a1c) {#struct__midi__device_1aa10b15cf1a7fb825a5df0d2abbe34a1c}
#### `public midi_three_byte_func_t `[`input_noteoff_callback`](docs/api_midi_device.md#struct__midi__device_1aaf290043078534d3a5a0ea4c840eba84) {#struct__midi__device_1aaf290043078534d3a5a0ea4c840eba84}
#### `public midi_three_byte_func_t `[`input_aftertouch_callback`](docs/api_midi_device.md#struct__midi__device_1acb0b4901c545cec4b28b126f2d8c315f) {#struct__midi__device_1acb0b4901c545cec4b28b126f2d8c315f}
#### `public midi_three_byte_func_t `[`input_pitchbend_callback`](docs/api_midi_device.md#struct__midi__device_1a305fea672caeb996f2233bf8cd2bef18) {#struct__midi__device_1a305fea672caeb996f2233bf8cd2bef18}
#### `public midi_three_byte_func_t `[`input_songposition_callback`](docs/api_midi_device.md#struct__midi__device_1a5f3f13638b3fef3fc561ed1bf301d586) {#struct__midi__device_1a5f3f13638b3fef3fc561ed1bf301d586}
#### `public midi_two_byte_func_t `[`input_progchange_callback`](docs/api_midi_device.md#struct__midi__device_1adaf1da617c9a10a9dcad00ab1959d3da) {#struct__midi__device_1adaf1da617c9a10a9dcad00ab1959d3da}
#### `public midi_two_byte_func_t `[`input_chanpressure_callback`](docs/api_midi_device.md#struct__midi__device_1ab7ca2925c539915d43974eff604d85f7) {#struct__midi__device_1ab7ca2925c539915d43974eff604d85f7}
#### `public midi_two_byte_func_t `[`input_songselect_callback`](docs/api_midi_device.md#struct__midi__device_1a89bed8a5a55376120cfc0a62b42f057f) {#struct__midi__device_1a89bed8a5a55376120cfc0a62b42f057f}
#### `public midi_two_byte_func_t `[`input_tc_quarterframe_callback`](docs/api_midi_device.md#struct__midi__device_1ad9813e75d22e284f9f65a907d20600f0) {#struct__midi__device_1ad9813e75d22e284f9f65a907d20600f0}
#### `public midi_one_byte_func_t `[`input_realtime_callback`](docs/api_midi_device.md#struct__midi__device_1a9448eba4afb7e43650434748db3777be) {#struct__midi__device_1a9448eba4afb7e43650434748db3777be}
#### `public midi_one_byte_func_t `[`input_tunerequest_callback`](docs/api_midi_device.md#struct__midi__device_1a0cb8fd53e00cf1d4202d4fa04d038e8d) {#struct__midi__device_1a0cb8fd53e00cf1d4202d4fa04d038e8d}
#### `public midi_sysex_func_t `[`input_sysex_callback`](docs/api_midi_device.md#struct__midi__device_1afff9a0ce641762aaef24c1e6953ec9a2) {#struct__midi__device_1afff9a0ce641762aaef24c1e6953ec9a2}
#### `public midi_var_byte_func_t `[`input_fallthrough_callback`](docs/api_midi_device.md#struct__midi__device_1abb974ec6d734001b4a0e370f292be503) {#struct__midi__device_1abb974ec6d734001b4a0e370f292be503}
#### `public midi_var_byte_func_t `[`input_catchall_callback`](docs/api_midi_device.md#struct__midi__device_1aae0d535129d4fd650edc98eb3f7584f8) {#struct__midi__device_1aae0d535129d4fd650edc98eb3f7584f8}
#### `public midi_no_byte_func_t `[`pre_input_process_callback`](docs/api_midi_device.md#struct__midi__device_1aeb0bb8923d66c23d874e177dc4265754) {#struct__midi__device_1aeb0bb8923d66c23d874e177dc4265754}
#### `public uint8_t `[`input_buffer`](docs/api_midi_device.md#struct__midi__device_1a7c5684857d6af4ebc4dc12da27bd6b2a) {#struct__midi__device_1a7c5684857d6af4ebc4dc12da27bd6b2a}
#### `public input_state_t `[`input_state`](docs/api_midi_device.md#struct__midi__device_1a69a687d2d1c449ec15a11c07a5722e39) {#struct__midi__device_1a69a687d2d1c449ec15a11c07a5722e39}
#### `public uint16_t `[`input_count`](docs/api_midi_device.md#struct__midi__device_1a68dea8e7b6151e89c85c95caa612ee5d) {#struct__midi__device_1a68dea8e7b6151e89c85c95caa612ee5d}
#### `public uint8_t `[`input_queue_data`](docs/api_midi_device.md#struct__midi__device_1ada41de021135dc423abedcbb30f366ff) {#struct__midi__device_1ada41de021135dc423abedcbb30f366ff}
#### `public `[`byteQueue_t`](#structbyte_queue__t)` `[`input_queue`](#struct__midi__device_1a49c8538a8a02193c58e28a56eb695d8f) {#struct__midi__device_1a49c8538a8a02193c58e28a56eb695d8f}

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# `midi_device_setup_process` グループ {#group__midi__device__setup__process}
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これらは、デバイスを初期化して実行するために使う必要があるメソッドです。
## 概要
メンバー | 説明
--------------------------------|---------------------------------------------
`public void `[`midi_device_init`](#group__midi__device__setup__process_1gaf29deddc94ea98a59daa0bde1aefd9d9)`(`[`MidiDevice`](#struct__midi__device)` * device)` | デバイスを初期化します。
`public void `[`midi_device_process`](#group__midi__device__setup__process_1gaa3d5993d0e998a1b59bbf5ab9c7b492b)`(`[`MidiDevice`](#struct__midi__device)` * device)` | 入力データを処理します。
## メンバー
#### `public void `[`midi_device_init`](#group__midi__device__setup__process_1gaf29deddc94ea98a59daa0bde1aefd9d9)`(`[`MidiDevice`](#struct__midi__device)` * device)` {#group__midi__device__setup__process_1gaf29deddc94ea98a59daa0bde1aefd9d9}
デバイスを初期化します。
問題のデバイスを使う前にこれを呼び出す必要があります。
#### パラメータ
* `device` 初期化するデバイス
#### `public void `[`midi_device_process`](#group__midi__device__setup__process_1gaa3d5993d0e998a1b59bbf5ab9c7b492b)`(`[`MidiDevice`](#struct__midi__device)` * device)` {#group__midi__device__setup__process_1gaa3d5993d0e998a1b59bbf5ab9c7b492b}
入力データを処理します。
このメソッドは入力処理を駆動します。入力コールバックが呼び出されることが予想される場合は、このメソッドを頻繁に呼び出す必要があります。
#### パラメータ
* `device` 処理するデバイス

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# `midi_util` グループ {#group__midi__util}
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## 概要
| メンバー | 説明
--------------------------------|---------------------------------------------
| `enum `[`midi_packet_length_t`](#group__midi__util_1gae29ff56aee2b430ffe53933b97e5e79e) | 可能なパケット長の値の列挙型。
| `public bool `[`midi_is_statusbyte`](#group__midi__util_1ga12e3b42ff9cbb4b4f2bc455fc8743ee5)`(uint8_t theByte)` | 指定されたバイトがステータスバイトであるかどうかを検査します。
| `public bool `[`midi_is_realtime`](#group__midi__util_1gad2f52c363e34a8000d80c983c324e2d7)`(uint8_t theByte)` | 指定されたバイトがリアルタイムメッセージであるかどうかを検査します。
| `public `[`midi_packet_length_t`](#group__midi__util_1gae29ff56aee2b430ffe53933b97e5e79e)` `[`midi_packet_length`](#group__midi__util_1gaa168b43af6ae9de0debce1625e4b8175)`(uint8_t status)` | 指定されたステータスバイトに関連付けられたパケットの長さを調べます。
## メンバー
#### `enum `[`midi_packet_length_t`](#group__midi__util_1gae29ff56aee2b430ffe53933b97e5e79e) {#group__midi__util_1gae29ff56aee2b430ffe53933b97e5e79e}
| 値 | 説明
--------------------------------|---------------------------------------------
UNDEFINED |
ONE |
TWO |
THREE |
可能なパケット長の値の列挙型。
#### `public bool `[`midi_is_statusbyte`](#group__midi__util_1ga12e3b42ff9cbb4b4f2bc455fc8743ee5)`(uint8_t theByte)` {#group__midi__util_1ga12e3b42ff9cbb4b4f2bc455fc8743ee5}
指定されたバイトがステータスバイトであるかどうかを検査します。
#### パラメータ
* `theByte` 検査するバイト
#### 返り値
指定されたバイトが MIDI ステータスバイトの場合は true
#### `public bool `[`midi_is_realtime`](#group__midi__util_1gad2f52c363e34a8000d80c983c324e2d7)`(uint8_t theByte)` {#group__midi__util_1gad2f52c363e34a8000d80c983c324e2d7}
指定されたバイトがリアルタイムメッセージであるかどうかを検査します。
#### パラメータ
* `theByte` 検査するバイト
#### 返り値
リアルタイムメッセージの場合は true、それ以外の場合は false
#### `public `[`midi_packet_length_t`](#group__midi__util_1gae29ff56aee2b430ffe53933b97e5e79e)` `[`midi_packet_length`](#group__midi__util_1gaa168b43af6ae9de0debce1625e4b8175)`(uint8_t status)` {#group__midi__util_1gaa168b43af6ae9de0debce1625e4b8175}
指定されたステータスバイトに関連付けられたパケットの長さを調べます。
#### パラメータ
* `status` ステータスバイト
#### 返り値
パケットの長さ。バイトがステータスバイトではない場合、あるいは sysex ステータスバイトの場合は、UNDEFINED を返します。

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# `send_functions` グループ {#group__send__functions}
<!---
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git diff 0.10.9 HEAD -- docs/internals_send_functions.md | cat
-->
これらは、デバイスを介して MIDI データを送信するために使う関数です。
## 概要
メンバー | 説明
--------------------------------|---------------------------------------------
`public void `[`midi_send_cc`](#group__send__functions_1gaaf884811c92df405ca8fe1a00082f960)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t chan,uint8_t num,uint8_t val)` | 指定されたデバイスを介して、コントロールチェンジメッセージを送信します。
`public void `[`midi_send_noteon`](#group__send__functions_1ga467bcf46dbf03ec269ce565b46bc2775)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t chan,uint8_t num,uint8_t vel)` | 指定されたデバイスを介してノートオンメッセージを送信します。
`public void `[`midi_send_noteoff`](#group__send__functions_1gaedb7d8805425eef5d47d57ddcb4c7a49)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t chan,uint8_t num,uint8_t vel)` | 指定されたデバイスを介してノートオフメッセージを送信します。
`public void `[`midi_send_aftertouch`](#group__send__functions_1ga0014847571317a0e34b2ef46a6bc584f)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t chan,uint8_t note_num,uint8_t amt)` | 指定されたデバイスを介してアフタータッチメッセージを送信します。
`public void `[`midi_send_pitchbend`](#group__send__functions_1gae5a4a1e71611e7534be80af9ce3d3491)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t chan,int16_t amt)` | 指定されたデバイスを介してピッチベンドメッセージを送信します。
`public void `[`midi_send_programchange`](#group__send__functions_1ga7b15588ef25e5e1ff09c2afc3151ce86)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t chan,uint8_t num)` | 指定されたデバイスを介してプログラムチェンジメッセージを送信します。
`public void `[`midi_send_channelpressure`](#group__send__functions_1gaf23e69fdf812e89c0036f51f88ab2e1b)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t chan,uint8_t amt)` | 指定されたデバイスを介してチャンネルプレッシャーメッセージを送信します。
`public void `[`midi_send_clock`](#group__send__functions_1ga4e1b11a7cdb0875f6e03ce7c79c581aa)`(`[`MidiDevice`](#struct__midi__device)` * device)` | 指定されたデバイスを介してクロックメッセージを送信します。
`public void `[`midi_send_tick`](#group__send__functions_1ga2b43c7d433d940c5b907595aac947972)`(`[`MidiDevice`](#struct__midi__device)` * device)` | 指定されたデバイスを介してティックメッセージを送信します。
`public void `[`midi_send_start`](#group__send__functions_1ga1569749a8d58ccc56789289d7c7245cc)`(`[`MidiDevice`](#struct__midi__device)` * device)` | 指定されたデバイスを介してスタートメッセージを送信します。
`public void `[`midi_send_continue`](#group__send__functions_1gaed5dc29d754a27372e89ab8bc20ee120)`(`[`MidiDevice`](#struct__midi__device)` * device)` | 指定されたデバイスを介してコンティニューメッセージを送信します。
`public void `[`midi_send_stop`](#group__send__functions_1ga026e1a620276cb653ac501aa0d12a988)`(`[`MidiDevice`](#struct__midi__device)` * device)` | 指定されたデバイスを介してストップメッセージを送信します。
`public void `[`midi_send_activesense`](#group__send__functions_1ga9b6e4c6ce4719d2604187b325620db37)`(`[`MidiDevice`](#struct__midi__device)` * device)` | 指定されたデバイスを介してアクティブセンスメッセージを送信します。
`public void `[`midi_send_reset`](#group__send__functions_1ga3671e39a6d93ca9568fc493001af1b1b)`(`[`MidiDevice`](#struct__midi__device)` * device)` | 指定されたデバイスを介してリセットメッセージを送信します。
`public void `[`midi_send_tcquarterframe`](#group__send__functions_1ga5b85639910eec280bb744c934d0fd45a)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t time)` | 指定されたデバイスを介してタイムコードクォータフレームメッセージを送信します。
`public void `[`midi_send_songposition`](#group__send__functions_1gab1c9eeef3b57a8cd2e6128d18e85eb7f)`(`[`MidiDevice`](#struct__midi__device)` * device,uint16_t pos)` | 指定されたデバイスを介してソングポジションメッセージを送信します。
`public void `[`midi_send_songselect`](#group__send__functions_1ga42de7838ba70d949af9a50f9facc3c50)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t song)` | 指定されたデバイスを介してソングセレクトメッセージを送信します。
`public void `[`midi_send_tunerequest`](#group__send__functions_1ga8db6c7e04d48e4d2266dd59118ca0656)`(`[`MidiDevice`](#struct__midi__device)` * device)` | 指定されたデバイスを介してチューンリクエストメッセージを送信します。
`public void `[`midi_send_byte`](#group__send__functions_1ga857e85eb90b288385642d4d991e09881)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t b)` | 指定されたデバイスを介してバイトを送信します。
`public void `[`midi_send_data`](#group__send__functions_1ga36e2f2e45369d911b76969361679054b)`(`[`MidiDevice`](#struct__midi__device)` * device,uint16_t count,uint8_t byte0,uint8_t byte1,uint8_t byte2)` | 最大3バイトのデータを送信します。
`public void `[`midi_send_array`](#group__send__functions_1ga245243cb1da18d2cea18d4b18d846ead)`(`[`MidiDevice`](#struct__midi__device)` * device,uint16_t count,uint8_t * array)` | フォーマットされた MIDI データの配列を送信します。
## メンバー
#### `public void `[`midi_send_cc`](#group__send__functions_1gaaf884811c92df405ca8fe1a00082f960)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t chan,uint8_t num,uint8_t val)` {#group__send__functions_1gaaf884811c92df405ca8fe1a00082f960}
指定されたデバイスを介して、コントロールチェンジメッセージ(cc)を送信します。
#### パラメータ
* `device` 送信に使うデバイス
* `chan` 送信するチャンネル、0-15
* `num` コントロールチェンジナンバー
* `val` コントロールチェンジナンバーの値
#### `public void `[`midi_send_noteon`](#group__send__functions_1ga467bcf46dbf03ec269ce565b46bc2775)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t chan,uint8_t num,uint8_t vel)` {#group__send__functions_1ga467bcf46dbf03ec269ce565b46bc2775}
指定されたデバイスを介してノートオンメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
* `chan` 送信するチャンネル、0-15
* `num` ノート番号
* `vel` ノートベロシティ
#### `public void `[`midi_send_noteoff`](#group__send__functions_1gaedb7d8805425eef5d47d57ddcb4c7a49)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t chan,uint8_t num,uint8_t vel)` {#group__send__functions_1gaedb7d8805425eef5d47d57ddcb4c7a49}
指定されたデバイスを介してノートオフメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
* `chan` 送信するチャンネル、0-15
* `num` ノート番号
* `vel` ノートベロシティ
#### `public void `[`midi_send_aftertouch`](#group__send__functions_1ga0014847571317a0e34b2ef46a6bc584f)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t chan,uint8_t note_num,uint8_t amt)` {#group__send__functions_1ga0014847571317a0e34b2ef46a6bc584f}
指定されたデバイスを介してアフタータッチメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
* `chan` 送信するチャンネル、0-15
* `note_num` ノート番号
* `amt` アフタータッチ量
#### `public void `[`midi_send_pitchbend`](#group__send__functions_1gae5a4a1e71611e7534be80af9ce3d3491)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t chan,int16_t amt)` {#group__send__functions_1gae5a4a1e71611e7534be80af9ce3d3491}
指定されたデバイスを介してピッチベンドメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
* `chan` 送信するチャンネル、0-15
* `amt` ベンド量の範囲: -8192..8191、0 はベンドしないことを意味します
#### `public void `[`midi_send_programchange`](#group__send__functions_1ga7b15588ef25e5e1ff09c2afc3151ce86)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t chan,uint8_t num)` {#group__send__functions_1ga7b15588ef25e5e1ff09c2afc3151ce86}
指定されたデバイスを介してプログラムチェンジメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
* `chan` 送信するチャンネル、0-15
* `num` 変更先のプログラム
#### `public void `[`midi_send_channelpressure`](#group__send__functions_1gaf23e69fdf812e89c0036f51f88ab2e1b)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t chan,uint8_t amt)` {#group__send__functions_1gaf23e69fdf812e89c0036f51f88ab2e1b}
指定されたデバイスを介してチャンネルプレッシャーメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
* `chan` 送信するチャンネル、0-15
* `amt` チャンネルプレッシャーの量
#### `public void `[`midi_send_clock`](#group__send__functions_1ga4e1b11a7cdb0875f6e03ce7c79c581aa)`(`[`MidiDevice`](#struct__midi__device)` * device)` {#group__send__functions_1ga4e1b11a7cdb0875f6e03ce7c79c581aa}
指定されたデバイスを介してクロックメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
#### `public void `[`midi_send_tick`](#group__send__functions_1ga2b43c7d433d940c5b907595aac947972)`(`[`MidiDevice`](#struct__midi__device)` * device)` {#group__send__functions_1ga2b43c7d433d940c5b907595aac947972}
指定されたデバイスを介してティックメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
#### `public void `[`midi_send_start`](#group__send__functions_1ga1569749a8d58ccc56789289d7c7245cc)`(`[`MidiDevice`](#struct__midi__device)` * device)` {#group__send__functions_1ga1569749a8d58ccc56789289d7c7245cc}
指定されたデバイスを介してスタートメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
#### `public void `[`midi_send_continue`](#group__send__functions_1gaed5dc29d754a27372e89ab8bc20ee120)`(`[`MidiDevice`](#struct__midi__device)` * device)` {#group__send__functions_1gaed5dc29d754a27372e89ab8bc20ee120}
指定されたデバイスを介してコンティニューメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
#### `public void `[`midi_send_stop`](#group__send__functions_1ga026e1a620276cb653ac501aa0d12a988)`(`[`MidiDevice`](#struct__midi__device)` * device)` {#group__send__functions_1ga026e1a620276cb653ac501aa0d12a988}
指定されたデバイスを介してストップメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
#### `public void `[`midi_send_activesense`](#group__send__functions_1ga9b6e4c6ce4719d2604187b325620db37)`(`[`MidiDevice`](#struct__midi__device)` * device)` {#group__send__functions_1ga9b6e4c6ce4719d2604187b325620db37}
指定されたデバイスを介してアクティブセンスメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
#### `public void `[`midi_send_reset`](#group__send__functions_1ga3671e39a6d93ca9568fc493001af1b1b)`(`[`MidiDevice`](#struct__midi__device)` * device)` {#group__send__functions_1ga3671e39a6d93ca9568fc493001af1b1b}
指定されたデバイスを介してリセットメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
#### `public void `[`midi_send_tcquarterframe`](#group__send__functions_1ga5b85639910eec280bb744c934d0fd45a)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t time)` {#group__send__functions_1ga5b85639910eec280bb744c934d0fd45a}
指定されたデバイスを介してタイムコードクォータフレームメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
* `time` このクォータフレームの時間。範囲は、0..16383
#### `public void `[`midi_send_songposition`](#group__send__functions_1gab1c9eeef3b57a8cd2e6128d18e85eb7f)`(`[`MidiDevice`](#struct__midi__device)` * device,uint16_t pos)` {#group__send__functions_1gab1c9eeef3b57a8cd2e6128d18e85eb7f}
指定されたデバイスを介してソングポジションメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
* `pos` ソングポジション
#### `public void `[`midi_send_songselect`](#group__send__functions_1ga42de7838ba70d949af9a50f9facc3c50)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t song)` {#group__send__functions_1ga42de7838ba70d949af9a50f9facc3c50}
指定されたデバイスを介してソングセレクトメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
* `song` 選択するソング
#### `public void `[`midi_send_tunerequest`](#group__send__functions_1ga8db6c7e04d48e4d2266dd59118ca0656)`(`[`MidiDevice`](#struct__midi__device)` * device)` {#group__send__functions_1ga8db6c7e04d48e4d2266dd59118ca0656}
指定されたデバイスを介してチューンリクエストメッセージを送信します。
#### パラメータ
* `device` 送信に使うデバイス
#### `public void `[`midi_send_byte`](#group__send__functions_1ga857e85eb90b288385642d4d991e09881)`(`[`MidiDevice`](#struct__midi__device)` * device,uint8_t b)` {#group__send__functions_1ga857e85eb90b288385642d4d991e09881}
指定されたデバイスを介してバイトを送信します。
これは、指定された MIDI デバイスを介してデータを送信する一般的なメソッドです。これは、この API に実装されていない sysex データまたはメッセージがある場合、それらを送信するのに役立ちます。そのようなものを見つけた場合は、私たちがそれらを追加できるように、作者に連絡してください。
#### パラメータ
* `device` 送信に使うデバイス
* `b` 送信するバイト
#### `public void `[`midi_send_data`](#group__send__functions_1ga36e2f2e45369d911b76969361679054b)`(`[`MidiDevice`](#struct__midi__device)` * device,uint16_t count,uint8_t byte0,uint8_t byte1,uint8_t byte2)` {#group__send__functions_1ga36e2f2e45369d911b76969361679054b}
最大3バイトのデータを送信します。
これを使って sysex を通過できるように count に4の剰余が適用されます。
#### パラメータ
* `device` 送信に使うデバイス
* `count` 送信するバイト数、4の剰余が適用されます
* `byte0` 最初のバイト
* `byte1` 2番目のバイト。cnt % 4 != 2 の場合は無視されます
* `byte2` 3番目のバイト。cnt % 4 != 3 の場合は無視されます
#### `public void `[`midi_send_array`](#group__send__functions_1ga245243cb1da18d2cea18d4b18d846ead)`(`[`MidiDevice`](#struct__midi__device)` * device,uint16_t count,uint8_t * array)` {#group__send__functions_1ga245243cb1da18d2cea18d4b18d846ead}
フォーマットされた MIDI データの配列を送信します。
sysex に使うことができます。
#### パラメータ
* `device` 送信に使うデバイス
* `count` 送信するバイト数
* `array` バイトの配列

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# `sysex_tools` グループ {#group__sysex__tools}
<!---
original document: 0.10.9:docs/internals_sysex_tools.md
git diff 0.10.9 HEAD -- docs/internals_sysex_tools.md | cat
-->
## 概要
| メンバー | 説明
--------------------------------|---------------------------------------------
| `public uint16_t `[`sysex_encoded_length`](#group__sysex__tools_1ga061e5607030412d6e62e2390d8013f0a)`(uint16_t decoded_length)` | エンコード後のメッセージの長さを計算します。
| `public uint16_t `[`sysex_decoded_length`](#group__sysex__tools_1ga121fc227d3acc1c0ea08c9a5c26fa3b0)`(uint16_t encoded_length)` | デコード後のメッセージの長さを計算します。
| `public uint16_t `[`sysex_encode`](#group__sysex__tools_1ga54d77f8d32f92a6f329daefa2b314742)`(uint8_t * encoded,const uint8_t * source,uint16_t length)` | sysex メッセージで安全に送信できるようにデータをエンコードします。
| `public uint16_t `[`sysex_decode`](#group__sysex__tools_1gaaad1d9ba2d5eca709a0ab4ba40662229)`(uint8_t * decoded,const uint8_t * source,uint16_t length)` | エンコードされたデータをデコードします。
## メンバー
#### `public uint16_t `[`sysex_encoded_length`](#group__sysex__tools_1ga061e5607030412d6e62e2390d8013f0a)`(uint16_t decoded_length)` {#group__sysex__tools_1ga061e5607030412d6e62e2390d8013f0a}
エンコード後のメッセージの長さを計算します。
#### パラメータ
* `decoded_length` エンコードするメッセージの長さのバイト数。
#### 返り値
エンコード後のメッセージの長さのバイト数。
#### `public uint16_t `[`sysex_decoded_length`](#group__sysex__tools_1ga121fc227d3acc1c0ea08c9a5c26fa3b0)`(uint16_t encoded_length)` {#group__sysex__tools_1ga121fc227d3acc1c0ea08c9a5c26fa3b0}
デコード後のメッセージの長さを計算します。
#### パラメータ
* `encoded_length` エンコードされたメッセージの長さのバイト数。
#### 返り値
デコードされた後のメッセージの長さのバイト数。
#### `public uint16_t `[`sysex_encode`](#group__sysex__tools_1ga54d77f8d32f92a6f329daefa2b314742)`(uint8_t * encoded,const uint8_t * source,uint16_t length)` {#group__sysex__tools_1ga54d77f8d32f92a6f329daefa2b314742}
sysex メッセージで安全に送信できるようにデータをエンコードします。
#### パラメータ
* `encoded` 出力データバッファは、少なくとも sysex_encoded_length(length) バイトの長さが必要です。
* `source` エンコードされるデータの入力バッファ。
* `length` 入力バッファからエンコードするバイト数。
#### 返り値
エンコードされたバイト数。
#### `public uint16_t `[`sysex_decode`](#group__sysex__tools_1gaaad1d9ba2d5eca709a0ab4ba40662229)`(uint8_t * decoded,const uint8_t * source,uint16_t length)` {#group__sysex__tools_1gaaad1d9ba2d5eca709a0ab4ba40662229}
エンコードされたデータをデコードします。
#### パラメータ
* `decoded` 出力データバッファは、少なくとも sysex_decoded_length(length) バイトの長さが必要です。
* `source` デコードされるデータの入力バッファ。
* `length` 入力バッファからデコードするバイト数。
#### 返り値
デコードされたバイト数。

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#endif
```
`PORTB/DDRB` などが定義されていないというエラーが発生した場合は、ARM と AVR の両方で機能する [GPIO 制御](ja/internals_gpio_control.md) を使用するようにキーボードのコードを変換する必要があります。これは AVR ビルドにまったく影響を与えません。
`PORTB/DDRB` などが定義されていないというエラーが発生した場合は、ARM と AVR の両方で機能する [GPIO 制御](ja/gpio_control.md) を使用するようにキーボードのコードを変換する必要があります。これは AVR ビルドにまったく影響を与えません。
Proton C には1つのオンボード LED(C13)しかなく、デフォルトでは TXLED(D5) がそれにマップされています。代わりに RXLED(B0) をそれにマッピングしたい場合は、`config.h` に次のように追加してください。

20
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@ -219,11 +219,13 @@ See also: [Basic Keycodes](keycodes_basic.md)
See also: [Quantum Keycodes](quantum_keycodes.md#qmk-keycodes)
|Key |Aliases |Description |
|-----------------|---------|-------------------------------------------------------|
|`QK_BOOTLOADER` |`QK_BOOT`|Put the keyboard into bootloader mode for flashing |
|`QK_DEBUG_TOGGLE`|`DB_TOGG`|Toggle debug mode |
|`QK_CLEAR_EEPROM`|`EE_CLR` |Reinitializes the keyboard's EEPROM (persistent memory)|
|Key |Aliases |Description |
|-----------------|---------|---------------------------------------------------------------------------------|
|`QK_BOOTLOADER` |`QK_BOOT`|Put the keyboard into bootloader mode for flashing |
|`QK_DEBUG_TOGGLE`|`DB_TOGG`|Toggle debug mode |
|`QK_CLEAR_EEPROM`|`EE_CLR` |Reinitializes the keyboard's EEPROM (persistent memory) |
|`QK_MAKE` | |Sends `qmk compile -kb (keyboard) -km (keymap)`, or `qmk flash` if shift is held |
|`QK_REBOOT` |`QK_RBT` |Resets the keyboard. Does not load the bootloader |
## Audio Keys :id=audio-keys
@ -267,6 +269,14 @@ See also: [Bluetooth](feature_bluetooth.md)
|`OUT_USB` |USB only |
|`OUT_BT` |Bluetooth only |
## Caps Word :id=caps-word
See also: [Caps Word](feature_caps_word.md)
|Key |Aliases |Description |
|-----------|---------|------------------------------|
|`CAPS_WORD`|`CAPSWRD`|Toggles Caps Word |
## Dynamic Macros :id=dynamic-macros
See also: [Dynamic Macros](feature_dynamic_macros.md)

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@ -44,7 +44,7 @@ Once MSYS2 is installed, close any open MSYS terminals and open a new MinGW 64-b
Then run the following command:
pacman --needed --noconfirm --disable-download-timeout -S git mingw-w64-x86_64-toolchain mingw-w64-x86_64-python3-pip
pacman --needed --noconfirm --disable-download-timeout -S git mingw-w64-x86_64-toolchain mingw-w64-x86_64-python3-pip mingw-w64-x86_64-python-pillow
#### Installation

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@ -20,7 +20,7 @@ This exposes the `CONVERT_TO_PROTON_C` flag that you can use in your code with `
#endif
```
If you get errors about `PORTB/DDRB`, etc not being defined, so you'll need to convert the keyboard's code to use the [GPIO Controls](internals_gpio_control.md) that will work for both ARM and AVR. This shouldn't affect the AVR builds at all.
If you get errors about `PORTB/DDRB`, etc not being defined, so you'll need to convert the keyboard's code to use the [GPIO Controls](gpio_control.md) that will work for both ARM and AVR. This shouldn't affect the AVR builds at all.
The Proton C only has one on-board LED (C13), and by default, the TXLED (D5) is mapped to it. If you want the RXLED (B0) mapped to it instead, add this like to your `config.h`:

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@ -8,8 +8,10 @@ On this page we have documented keycodes between `0x00FF` and `0xFFFF` which are
## QMK Keycodes :id=qmk-keycodes
|Key |Aliases |Description |
|-----------------|---------|-------------------------------------------------------|
|`QK_BOOTLOADER` |`QK_BOOT`|Put the keyboard into bootloader mode for flashing |
|`QK_DEBUG_TOGGLE`|`DB_TOGG`|Toggle debug mode |
|`QK_CLEAR_EEPROM`|`EE_CLR` |Reinitializes the keyboard's EEPROM (persistent memory)|
|Key |Aliases |Description |
|-----------------|---------|---------------------------------------------------------------------------------|
|`QK_BOOTLOADER` |`QK_BOOT`|Put the keyboard into bootloader mode for flashing |
|`QK_DEBUG_TOGGLE`|`DB_TOGG`|Toggle debug mode |
|`QK_CLEAR_EEPROM`|`EE_CLR` |Reinitializes the keyboard's EEPROM (persistent memory) |
|`QK_MAKE` | |Sends `qmk compile -kb (keyboard) -km (keymap)`, or `qmk flash` if shift is held |
|`QK_REBOOT` |`QK_RBT` |Resets the keyboard. Does not load the bootloader |

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@ -0,0 +1,705 @@
# Quantum Painter :id=quantum-painter
Quantum Painter is the standardised API for graphical displays. It currently includes support for basic drawing primitives, as well as custom images, animations, and fonts.
Due to the complexity, there is no support for Quantum Painter on AVR-based boards.
To enable overall Quantum Painter to be built into your firmware, add the following to `rules.mk`:
```make
QUANTUM_PAINTER_ENABLE = yes
QUANTUM_PAINTER_DRIVERS = ......
```
You will also likely need to select an appropriate driver in `rules.mk`, which is listed below.
!> Quantum Painter is not currently integrated with system-level operations such as disabling displays after a configurable timeout, or when the keyboard goes into suspend. Users will need to handle this manually at the current time.
The QMK CLI can be used to convert from normal images such as PNG files or animated GIFs, as well as fonts from TTF files.
Hardware supported:
| Display Panel | Panel Type | Size | Comms Transport | Driver |
|---------------|--------------------|------------------|-----------------|-----------------------------------------|
| GC9A01 | RGB LCD (circular) | 240x240 | SPI + D/C + RST | `QUANTUM_PAINTER_DRIVERS = gc9a01_spi` |
| ILI9163 | RGB LCD | 128x128 | SPI + D/C + RST | `QUANTUM_PAINTER_DRIVERS = ili9163_spi` |
| ILI9341 | RGB LCD | 240x320 | SPI + D/C + RST | `QUANTUM_PAINTER_DRIVERS = ili9341_spi` |
| SSD1351 | RGB OLED | 128x128 | SPI + D/C + RST | `QUANTUM_PAINTER_DRIVERS = ssd1351_spi` |
| ST7789 | RGB LCD | 240x320, 240x240 | SPI + D/C + RST | `QUANTUM_PAINTER_DRIVERS = st7789_spi` |
## Quantum Painter Configuration :id=quantum-painter-config
| Option | Default | Purpose |
|-----------------------------------------|---------|---------------------------------------------------------------------------------------------------------------------------------------------|
| `QUANTUM_PAINTER_NUM_IMAGES` | `8` | The maximum number of images/animations that can be loaded at any one time. |
| `QUANTUM_PAINTER_NUM_FONTS` | `4` | The maximum number of fonts that can be loaded at any one time. |
| `QUANTUM_PAINTER_CONCURRENT_ANIMATIONS` | `4` | The maximum number of animations that can be executed at the same time. |
| `QUANTUM_PAINTER_LOAD_FONTS_TO_RAM` | `FALSE` | Whether or not fonts should be loaded to RAM. Relevant for fonts stored in off-chip persistent storage, such as external flash. |
| `QUANTUM_PAINTER_PIXDATA_BUFFER_SIZE` | `32` | The limit of the amount of pixel data that can be transmitted in one transaction to the display. Higher values require more RAM on the MCU. |
| `QUANTUM_PAINTER_SUPPORTS_256_PALETTE` | `FALSE` | If 256-color palettes are supported. Requires significantly more RAM on the MCU. |
| `QUANTUM_PAINTER_DEBUG` | _unset_ | Prints out significant amounts of debugging information to CONSOLE output. Significant performance degradation, use only for debugging. |
Drivers have their own set of configurable options, and are described in their respective sections.
## Quantum Painter CLI Commands :id=quantum-painter-cli
### `qmk painter-convert-graphics`
This command converts images to a format usable by QMK, i.e. the QGF File Format.
**Usage**:
```
usage: qmk painter-convert-graphics [-h] [-d] [-r] -f FORMAT [-o OUTPUT] -i INPUT [-v]
optional arguments:
-h, --help show this help message and exit
-d, --no-deltas Disables the use of delta frames when encoding animations.
-r, --no-rle Disables the use of RLE when encoding images.
-f FORMAT, --format FORMAT
Output format, valid types: pal256, pal16, pal4, pal2, mono256, mono16, mono4, mono2
-o OUTPUT, --output OUTPUT
Specify output directory. Defaults to same directory as input.
-i INPUT, --input INPUT
Specify input graphic file.
-v, --verbose Turns on verbose output.
```
The `INPUT` argument can be any image file loadable by Python's Pillow module. Common formats include PNG, or Animated GIF.
The `OUTPUT` argument needs to be a directory, and will default to the same directory as the input argument.
The `FORMAT` argument can be any of the following:
| Format | Meaning |
|-----------|-----------------------------------------------------------------------|
| `pal256` | 256-color palette (requires `QUANTUM_PAINTER_SUPPORTS_256_PALETTE`) |
| `pal16` | 16-color palette |
| `pal4` | 4-color palette |
| `pal2` | 2-color palette |
| `mono256` | 256-shade grayscale (requires `QUANTUM_PAINTER_SUPPORTS_256_PALETTE`) |
| `mono16` | 16-shade grayscale |
| `mono4` | 4-shade grayscale |
| `mono2` | 2-shade grayscale |
**Examples**:
```
$ cd /home/qmk/qmk_firmware/keyboards/my_keeb
$ qmk painter-convert-graphics -f mono16 -i my_image.gif -o ./generated/
Writing /home/qmk/qmk_firmware/keyboards/my_keeb/generated/my_image.qgf.h...
Writing /home/qmk/qmk_firmware/keyboards/my_keeb/generated/my_image.qgf.c...
```
### `qmk painter-make-font-image`
This command converts a TTF font to an intermediate format for editing, before converting to the QFF File Format.
**Usage**:
```
usage: qmk painter-make-font-image [-h] [-a] [-u UNICODE_GLYPHS] [-n] [-s SIZE] -o OUTPUT -f FONT
optional arguments:
-h, --help show this help message and exit
-a, --no-aa Disable anti-aliasing on fonts.
-u UNICODE_GLYPHS, --unicode-glyphs UNICODE_GLYPHS
Also generate the specified unicode glyphs.
-n, --no-ascii Disables output of the full ASCII character set (0x20..0x7E), exporting only the glyphs specified.
-s SIZE, --size SIZE Specify font size. Default 12.
-o OUTPUT, --output OUTPUT
Specify output image path.
-f FONT, --font FONT Specify input font file.
```
The `FONT` argument is generally a TrueType Font file (TTF).
The `OUTPUT` argument is the output image to generate, generally something like `my_font.png`.
The `UNICODE_GLYPHS` argument allows for specifying extra unicode glyphs to generate, and accepts a string.
**Examples**:
```
$ qmk painter-make-font-image --font NotoSans-ExtraCondensedBold.ttf --size 11 -o noto11.png --unicode-glyphs "ĄȽɂɻɣɈʣ"
```
### `qmk painter-convert-font-image`
This command converts an intermediate font image to the QFF File Format.
This command expects an image that conforms to the following format:
* Top-left pixel (at `0,0`) is the "delimiter" color:
* Each glyph in the font starts when a pixel of this color is found on the first row
* The first row is discarded when converting to the QFF format
* The number of delimited glyphs must match the supplied arguments to the command:
* The full ASCII set `0x20..0x7E` (if `--no-ascii` was not specified)
* The corresponding number of unicode glyphs if any were specified with `--unicode-glyphs`
* The order of the glyphs matches the ASCII set, if any, followed by the Unicode glyph set, if any.
**Usage**:
```
usage: qmk painter-convert-font-image [-h] [-r] -f FORMAT [-u UNICODE_GLYPHS] [-n] [-o OUTPUT] [-i INPUT]
optional arguments:
-h, --help show this help message and exit
-r, --no-rle Disable the use of RLE to minimise converted image size.
-f FORMAT, --format FORMAT
Output format, valid types: pal256, pal16, pal4, pal2, mono256, mono16, mono4, mono2
-u UNICODE_GLYPHS, --unicode-glyphs UNICODE_GLYPHS
Also generate the specified unicode glyphs.
-n, --no-ascii Disables output of the full ASCII character set (0x20..0x7E), exporting only the glyphs specified.
-o OUTPUT, --output OUTPUT
Specify output directory. Defaults to same directory as input.
-i INPUT, --input INPUT
Specify input graphic file.
```
The same arguments for `--no-ascii` and `--unicode-glyphs` need to be specified, as per `qmk painter-make-font-image`.
**Examples**:
```
$ cd /home/qmk/qmk_firmware/keyboards/my_keeb
$ qmk painter-convert-font-image --input noto11.png -f mono4 --unicode-glyphs "ĄȽɂɻɣɈʣ"
Writing /home/qmk/qmk_firmware/keyboards/my_keeb/generated/noto11.qff.h...
Writing /home/qmk/qmk_firmware/keyboards/my_keeb/generated/noto11.qff.c...
```
## Quantum Painter Drawing API :id=quantum-painter-api
All APIs require a `painter_device_t` object as their first parameter -- this object comes from the specific device initialisation, and instructions on creating it can be found in each driver's respective section.
To use any of the APIs, you need to include `qp.h`:
```c
#include <qp.h>
```
### General Notes :id=quantum-painter-api-general
The coordinate system used in Quantum Painter generally accepts `left`, `top`, `right`, and `bottom` instead of x/y/width/height, and each coordinate is inclusive of where pixels should be drawn. This is required as some datatypes used by display panels have a maximum value of `255` -- for any value or geometry extent that matches `256`, this would be represented as a `0`, instead.
?> Drawing a horizontal line 8 pixels long, starting from 4 pixels inside the left side of the display, will need `left=4`, `right=11`.
All color data matches the standard QMK HSV triplet definitions:
* Hue is of the range `0...255` and is internally mapped to 0...360 degrees.
* Saturation is of the range `0...255` and is internally mapped to 0...100% saturation.
* Value is of the range `0...255` and is internally mapped to 0...100% brightness.
?> Colors used in Quantum Painter are not subject to the RGB lighting CIE curve, if it is enabled.
### Device Control :id=quantum-painter-api-device-control
#### Display Initialisation :id=quantum-painter-api-init
```c
bool qp_init(painter_device_t device, painter_rotation_t rotation);
```
The `qp_init` function is used to initialise a display device after it has been created. This accepts a rotation parameter (`QP_ROTATION_0`, `QP_ROTATION_90`, `QP_ROTATION_180`, `QP_ROTATION_270`), which makes sure that the orientation of what's drawn on the display is correct.
```c
static painter_device_t display;
void keyboard_post_init_kb(void) {
display = qp_make_.......; // Create the display
qp_init(display, QP_ROTATION_0); // Initialise the display
}
```
#### Display Power :id=quantum-painter-api-power
```c
bool qp_power(painter_device_t device, bool power_on);
```
The `qp_power` function instructs the display whether or not the display panel should be on or off.
!> If there is a separate backlight controlled through the normal QMK backlight API, this is not controlled by the `qp_power` function and needs to be manually handled elsewhere.
```c
static uint8_t last_backlight = 255;
void suspend_power_down_user(void) {
if (last_backlight == 255) {
last_backlight = get_backlight_level();
}
backlight_set(0);
rgb_matrix_set_suspend_state(true);
qp_power(display, false);
}
void suspend_wakeup_init_user(void) {
qp_power(display, true);
rgb_matrix_set_suspend_state(false);
if (last_backlight != 255) {
backlight_set(last_backlight);
}
last_backlight = 255;
}
```
#### Display Clear :id=quantum-painter-api-clear
```c
bool qp_clear(painter_device_t device);
```
The `qp_clear` function clears the display's screen.
#### Display Flush :id=quantum-painter-api-flush
```c
bool qp_flush(painter_device_t device);
```
The `qp_flush` function ensures that all drawing operations are "pushed" to the display. This should be done as the last operation whenever a sequence of draws occur, and guarantees that any changes are applied.
!> Some display panels may seem to work even without a call to `qp_flush` -- this may be because the driver cannot queue drawing operations and needs to display them immediately when invoked. In general, calling `qp_flush` at the end is still considered "best practice".
```c
void housekeeping_task_user(void) {
static uint32_t last_draw = 0;
if (timer_elapsed32(last_draw) > 33) { // Throttle to 30fps
last_draw = timer_read32();
// Draw a rect based off the current RGB color
qp_rect(display, 0, 7, 0, 239, rgb_matrix_get_hue(), 255, 255);
qp_flush(display);
}
}
```
### Drawing Primitives :id=quantum-painter-api-primitives
#### Set Pixel :id=quantum-painter-api-setpixel
```c
bool qp_setpixel(painter_device_t device, uint16_t x, uint16_t y, uint8_t hue, uint8_t sat, uint8_t val);
```
The `qp_setpixel` can be used to set a specific pixel on the screen to the supplied color.
?> Using `qp_setpixel` for large amounts of drawing operations is inefficient and should be avoided unless they cannot be achieved with other drawing APIs.
```c
void housekeeping_task_user(void) {
static uint32_t last_draw = 0;
if (timer_elapsed32(last_draw) > 33) { // Throttle to 30fps
last_draw = timer_read32();
// Draw a 240px high vertical rainbow line on X=0:
for (int i = 0; i < 239; ++i) {
qp_setpixel(display, 0, i, i, 255, 255);
}
qp_flush(display);
}
}
```
#### Draw Line :id=quantum-painter-api-line
```c
bool qp_line(painter_device_t device, uint16_t x0, uint16_t y0, uint16_t x1, uint16_t y1, uint8_t hue, uint8_t sat, uint8_t val);
```
The `qp_line` can be used to draw lines on the screen with the supplied color.
```c
void housekeeping_task_user(void) {
static uint32_t last_draw = 0;
if (timer_elapsed32(last_draw) > 33) { // Throttle to 30fps
last_draw = timer_read32();
// Draw 8px-wide rainbow down the left side of the display
for (int i = 0; i < 239; ++i) {
qp_line(display, 0, i, 7, i, i, 255, 255);
}
qp_flush(display);
}
}
```
#### Draw Rect :id=quantum-painter-api-rect
```c
bool qp_rect(painter_device_t device, uint16_t left, uint16_t top, uint16_t right, uint16_t bottom, uint8_t hue, uint8_t sat, uint8_t val, bool filled);
```
The `qp_rect` can be used to draw rectangles on the screen with the supplied color, with or without a background fill. If not filled, any pixels inside the rectangle will be left as-is.
```c
void housekeeping_task_user(void) {
static uint32_t last_draw = 0;
if (timer_elapsed32(last_draw) > 33) { // Throttle to 30fps
last_draw = timer_read32();
// Draw 8px-wide rainbow filled rectangles down the left side of the display
for (int i = 0; i < 239; i+=8) {
qp_rect(display, 0, i, 7, i+7, i, 255, 255, true);
}
qp_flush(display);
}
}
```
#### Draw Circle :id=quantum-painter-api-circle
```c
bool qp_circle(painter_device_t device, uint16_t x, uint16_t y, uint16_t radius, uint8_t hue, uint8_t sat, uint8_t val, bool filled);
```
The `qp_circle` can be used to draw circles on the screen with the supplied color, with or without a background fill. If not filled, any pixels inside the circle will be left as-is.
```c
void housekeeping_task_user(void) {
static uint32_t last_draw = 0;
if (timer_elapsed32(last_draw) > 33) { // Throttle to 30fps
last_draw = timer_read32();
// Draw r=4 filled circles down the left side of the display
for (int i = 0; i < 239; i+=8) {
qp_circle(display, 4, 4+i, 4, i, 255, 255, true);
}
qp_flush(display);
}
}
```
#### Draw Ellipse :id=quantum-painter-api-ellipse
```c
bool qp_ellipse(painter_device_t device, uint16_t x, uint16_t y, uint16_t sizex, uint16_t sizey, uint8_t hue, uint8_t sat, uint8_t val, bool filled);
```
The `qp_ellipse` can be used to draw ellipses on the screen with the supplied color, with or without a background fill. If not filled, any pixels inside the ellipses will be left as-is.
```c
void housekeeping_task_user(void) {
static uint32_t last_draw = 0;
if (timer_elapsed32(last_draw) > 33) { // Throttle to 30fps
last_draw = timer_read32();
// Draw 16x8 filled ellipses down the left side of the display
for (int i = 0; i < 239; i+=8) {
qp_ellipse(display, 8, 4+i, 16, 8, i, 255, 255, true);
}
qp_flush(display);
}
}
```
### Image Functions :id=quantum-painter-api-images
#### Load Image :id=quantum-painter-api-load-image
```c
painter_image_handle_t qp_load_image_mem(const void *buffer);
```
The `qp_load_image_mem` function loads a QGF image from memory or flash.
`qp_load_image_mem` returns a handle to the loaded image, which can then be used to draw to the screen using `qp_drawimage`, `qp_drawimage_recolor`, `qp_animate`, or `qp_animate_recolor`. If an image is no longer required, it can be unloaded by calling `qp_close_image` below.
See the [CLI Commands](quantum_painter.md?id=quantum-painter-cli) for instructions on how to convert images to [QGF](quantum_painter_qgf.md).
?> The total number of images available to load at any one time is controlled by the configurable option `QUANTUM_PAINTER_NUM_IMAGES` in the table above. If more images are required, the number should be increased in `config.h`.
Image information is available through accessing the handle:
| Property | Accessor |
|-------------|----------------------|
| Width | `image->width` |
| Height | `image->height` |
| Frame Count | `image->frame_count` |
#### Unload Image :id=quantum-painter-api-close-image
```c
bool qp_close_image(painter_image_handle_t image);
```
The `qp_close_image` function releases resources related to the loading of the supplied image.
#### Draw image :id=quantum-painter-api-draw-image
```c
bool qp_drawimage(painter_device_t device, uint16_t x, uint16_t y, painter_image_handle_t image);
bool qp_drawimage_recolor(painter_device_t device, uint16_t x, uint16_t y, painter_image_handle_t image, uint8_t hue_fg, uint8_t sat_fg, uint8_t val_fg, uint8_t hue_bg, uint8_t sat_bg, uint8_t val_bg);
```
The `qp_drawimage` and `qp_drawimage_recolor` functions draw the supplied image to the screen at the supplied location, with the latter function allowing for monochrome-based images to be recolored.
```c
// Draw an image on the bottom-right of the 240x320 display on initialisation
static painter_image_handle_t my_image;
void keyboard_post_init_kb(void) {
my_image = qp_load_image_mem(gfx_my_image);
if (my_image != NULL) {
qp_drawimage(display, (239 - my_image->width), (319 - my_image->height), my_image);
}
}
```
#### Animate Image :id=quantum-painter-api-animate-image
```c
deferred_token qp_animate(painter_device_t device, uint16_t x, uint16_t y, painter_image_handle_t image);
deferred_token qp_animate_recolor(painter_device_t device, uint16_t x, uint16_t y, painter_image_handle_t image, uint8_t hue_fg, uint8_t sat_fg, uint8_t val_fg, uint8_t hue_bg, uint8_t sat_bg, uint8_t val_bg);
```
The `qp_animate` and `qp_animate_recolor` functions draw the supplied image to the screen at the supplied location, with the latter function allowing for monochrome-based animations to be recolored. They also set up internal timing such that each frame is rendered at the correct time as per the animated image.
Once an image has been set to animate, it will loop indefinitely until stopped, with no user intervention required.
Both functions return a `deferred_token`, which can then be used to stop the animation, using `qp_stop_animation` below.
```c
// Animate an image on the bottom-right of the 240x320 display on initialisation
static painter_image_handle_t my_image;
static deferred_token my_anim;
void keyboard_post_init_kb(void) {
my_image = qp_load_image_mem(gfx_my_image);
if (my_image != NULL) {
my_anim = qp_animate(display, (239 - my_image->width), (319 - my_image->height), my_image);
}
}
```
#### Stop Animation :id=quantum-painter-api-stop-animation
```c
void qp_stop_animation(deferred_token anim_token);
```
The `qp_stop_animation` function stops the previously-started animation.
```c
void housekeeping_task_user(void) {
if (some_random_stop_reason) {
qp_stop_animation(my_anim);
}
}
```
### Font Functions :id=quantum-painter-api-fonts
#### Load Font :id=quantum-painter-api-load-font
```c
painter_font_handle_t qp_load_font_mem(const void *buffer);
```
The `qp_load_font_mem` function loads a QFF font from memory or flash.
`qp_load_font_mem` returns a handle to the loaded font, which can then be measured using `qp_textwidth`, or drawn to the screen using `qp_drawtext`, or `qp_drawtext_recolor`. If a font is no longer required, it can be unloaded by calling `qp_close_font` below.
See the [CLI Commands](quantum_painter.md?id=quantum-painter-cli) for instructions on how to convert TTF fonts to [QFF](quantum_painter_qff.md).
?> The total number of fonts available to load at any one time is controlled by the configurable option `QUANTUM_PAINTER_NUM_FONTS` in the table above. If more fonts are required, the number should be increased in `config.h`.
Font information is available through accessing the handle:
| Property | Accessor |
|-------------|----------------------|
| Line Height | `image->line_height` |
#### Unload Font :id=quantum-painter-api-close-font
```c
bool qp_close_font(painter_font_handle_t font);
```
The `qp_close_font` function releases resources related to the loading of the supplied font.
#### Measure Text :id=quantum-painter-api-textwidth
```c
int16_t qp_textwidth(painter_font_handle_t font, const char *str);
```
The `qp_textwidth` function allows measurement of how many pixels wide the supplied string would result in, for the given font.
#### Draw Text :id=quantum-painter-api-drawtext
```c
int16_t qp_drawtext(painter_device_t device, uint16_t x, uint16_t y, painter_font_handle_t font, const char *str);
int16_t qp_drawtext_recolor(painter_device_t device, uint16_t x, uint16_t y, painter_font_handle_t font, const char *str, uint8_t hue_fg, uint8_t sat_fg, uint8_t val_fg, uint8_t hue_bg, uint8_t sat_bg, uint8_t val_bg);
```
The `qp_drawtext` and `qp_drawtext_recolor` functions draw the supplied string to the screen at the given location using the font supplied, with the latter function allowing for monochrome-based fonts to be recolored.
```c
// Draw a text message on the bottom-right of the 240x320 display on initialisation
static painter_font_handle_t my_font;
void keyboard_post_init_kb(void) {
my_font = qp_load_font_mem(font_opensans);
if (my_font != NULL) {
static const char *text = "Hello from QMK!";
int16_t width = qp_textwidth(my_font, text);
qp_drawtext(display, (239 - width), (319 - my_font->line_height), my_font, text);
}
}
```
### Advanced Functions :id=quantum-painter-api-advanced
#### Get Geometry :id=quantum-painter-api-get-geometry
```c
void qp_get_geometry(painter_device_t device, uint16_t *width, uint16_t *height, painter_rotation_t *rotation, uint16_t *offset_x, uint16_t *offset_y);
```
The `qp_get_geometry` function allows external code to retrieve the current width, height, rotation, and drawing offsets.
#### Set Viewport Offsets :id=quantum-painter-api-set-viewport
```c
void qp_set_viewport_offsets(painter_device_t device, uint16_t offset_x, uint16_t offset_y);
```
The `qp_set_viewport_offsets` function can be used to offset all subsequent drawing operations. For example, if a display controller is internally 240x320, but the display panel is 240x240 and has a Y offset of 80 pixels, you could invoke `qp_set_viewport_offsets(display, 0, 80);` and the drawing positioning would be corrected.
#### Set Viewport :id=quantum-painter-api-viewport
```c
bool qp_viewport(painter_device_t device, uint16_t left, uint16_t top, uint16_t right, uint16_t bottom);
```
The `qp_viewport` function controls where raw pixel data is written to.
#### Stream Pixel Data :id=quantum-painter-api-pixdata
```c
bool qp_pixdata(painter_device_t device, const void *pixel_data, uint32_t native_pixel_count);
```
The `qp_pixdata` function allows raw pixel data to be streamed to the display. It requires a native pixel count rather than the number of bytes to transfer, to ensure display panel data alignment is respected. E.g. for display panels using RGB565 internal format, sending 10 pixels will result in 20 bytes of transfer.
!> Under normal circumstances, users will not need to manually call either `qp_viewport` or `qp_pixdata`. These allow for writing of raw pixel information, in the display panel's native format, to the area defined by the viewport.
## Quantum Painter Display Drivers :id=quantum-painter-drivers
### Common: Standard TFT (SPI + D/C + RST)
Most TFT display panels use a 5-pin interface -- SPI SCK, SPI MOSI, SPI CS, D/C, and RST pins.
For these displays, QMK's `spi_master` must already be correctly configured for the platform you're building for.
The pin assignments for SPI CS, D/C, and RST are specified during device construction.
### GC9A01 :id=qp-driver-gc9a01
Enabling support for the GC9A01 in Quantum Painter is done by adding the following to `rules.mk`:
```make
QUANTUM_PAINTER_ENABLE = yes
QUANTUM_PAINTER_DRIVERS = gc9a01_spi
```
Creating a GC9A01 device in firmware can then be done with the following API:
```c
painter_device_t qp_gc9a01_make_spi_device(uint16_t panel_width, uint16_t panel_height, pin_t chip_select_pin, pin_t dc_pin, pin_t reset_pin, uint16_t spi_divisor, int spi_mode);
```
The device handle returned from the `qp_gc9a01_make_spi_device` function can be used to perform all other drawing operations.
The maximum number of displays can be configured by changing the following in your `config.h` (default is 1):
```c
// 3 displays:
#define GC9A01_NUM_DEVICES 3
```
### ILI9163 :id=qp-driver-ili9163
Enabling support for the ILI9163 in Quantum Painter is done by adding the following to `rules.mk`:
```make
QUANTUM_PAINTER_ENABLE = yes
QUANTUM_PAINTER_DRIVERS = ili9163_spi
```
Creating a ILI9163 device in firmware can then be done with the following API:
```c
painter_device_t qp_ili9163_make_spi_device(uint16_t panel_width, uint16_t panel_height, pin_t chip_select_pin, pin_t dc_pin, pin_t reset_pin, uint16_t spi_divisor, int spi_mode);
```
The device handle returned from the `qp_ili9163_make_spi_device` function can be used to perform all other drawing operations.
The maximum number of displays can be configured by changing the following in your `config.h` (default is 1):
```c
// 3 displays:
#define ILI9163_NUM_DEVICES 3
```
### ILI9341 :id=qp-driver-ili9341
Enabling support for the ILI9341 in Quantum Painter is done by adding the following to `rules.mk`:
```make
QUANTUM_PAINTER_ENABLE = yes
QUANTUM_PAINTER_DRIVERS = ili9341_spi
```
Creating a ILI9341 device in firmware can then be done with the following API:
```c
painter_device_t qp_ili9341_make_spi_device(uint16_t panel_width, uint16_t panel_height, pin_t chip_select_pin, pin_t dc_pin, pin_t reset_pin, uint16_t spi_divisor, int spi_mode);
```
The device handle returned from the `qp_ili9341_make_spi_device` function can be used to perform all other drawing operations.
The maximum number of displays can be configured by changing the following in your `config.h` (default is 1):
```c
// 3 displays:
#define ILI9341_NUM_DEVICES 3
```
### SSD1351 :id=qp-driver-ssd1351
Enabling support for the SSD1351 in Quantum Painter is done by adding the following to `rules.mk`:
```make
QUANTUM_PAINTER_ENABLE = yes
QUANTUM_PAINTER_DRIVERS = ssd1351_spi
```
Creating a SSD1351 device in firmware can then be done with the following API:
```c
painter_device_t qp_ssd1351_make_spi_device(uint16_t panel_width, uint16_t panel_height, pin_t chip_select_pin, pin_t dc_pin, pin_t reset_pin, uint16_t spi_divisor, int spi_mode);
```
The device handle returned from the `qp_ssd1351_make_spi_device` function can be used to perform all other drawing operations.
The maximum number of displays can be configured by changing the following in your `config.h` (default is 1):
```c
// 3 displays:
#define SSD1351_NUM_DEVICES 3
```
### ST7789 :id=qp-driver-st7789
Enabling support for the ST7789 in Quantum Painter is done by adding the following to `rules.mk`:
```make
QUANTUM_PAINTER_ENABLE = yes
QUANTUM_PAINTER_DRIVERS = st7789_spi
```
Creating a ST7789 device in firmware can then be done with the following API:
```c
painter_device_t qp_st7789_make_spi_device(uint16_t panel_width, uint16_t panel_height, pin_t chip_select_pin, pin_t dc_pin, pin_t reset_pin, uint16_t spi_divisor, int spi_mode);
```
The device handle returned from the `qp_st7789_make_spi_device` function can be used to perform all other drawing operations.
The maximum number of displays can be configured by changing the following in your `config.h` (default is 1):
```c
// 3 displays:
#define ST7789_NUM_DEVICES 3
```
!> Some ST7789 devices are known to have different drawing offsets -- despite being a 240x320 pixel display controller internally, some display panels are only 240x240, or smaller. These may require an offset to be applied; see `qp_set_viewport_offsets` above for information on how to override the offsets if they aren't correctly rendered.

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# QMK Font Format :id=qmk-font-format
QMK uses a font format _("Quantum Font Format" - QFF)_ specifically for resource-constrained systems.
This format is capable of encoding 1-, 2-, 4-, and 8-bit-per-pixel greyscale- and palette-based images into a font. It also includes RLE for pixel data for some basic compression.
All integer values are in little-endian format.
The QFF is defined in terms of _blocks_ -- each _block_ contains a _header_ and an optional _blob_ of data. The _header_ contains the block's _typeid_, and the length of the _blob_ that follows. Each block type is denoted by a different _typeid_ has its own block definition below. All blocks are defined as packed structs, containing zero padding between fields.
The general structure of the file is:
* _Font descriptor block_
* _ASCII glyph block_ (optional, only if ASCII glyphs are included)
* _Unicode glyph block_ (optional, only if Unicode glyphs are included)
* _Font palette block_ (optional, depending on frame format)
* _Font data block_
## Block Header :id=qff-block-header
The block header is identical to [QGF's block header](quantum_painter_qgf.md#qgf-block-header), and is present for all blocks, including the font descriptor.
## Font descriptor block :id=qff-font-descriptor
* _typeid_ = 0x00
* _length_ = 20
This block must be located at the start of the file contents, and can exist a maximum of once in an entire QGF file. It is always followed by either the _ASCII glyph table_ or the _Unicode glyph table_, depending on which glyphs are included in the font.
_Block_ format:
```c
typedef struct __attribute__((packed)) qff_font_descriptor_v1_t {
qgf_block_header_v1_t header; // = { .type_id = 0x00, .neg_type_id = (~0x00), .length = 20 }
uint24_t magic; // constant, equal to 0x464651 ("QFF")
uint8_t qff_version; // constant, equal to 0x01
uint32_t total_file_size; // total size of the entire file, starting at offset zero
uint32_t neg_total_file_size; // negated value of total_file_size, used for detecting parsing errors
uint8_t line_height; // glyph height in pixels
bool has_ascii_table; // whether the font has an ascii table of glyphs (0x20...0x7E)
uint16_t num_unicode_glyphs; // the number of glyphs in the unicode table -- no table specified if zero
uint8_t format; // frame format, see below.
uint8_t flags; // frame flags, see below.
uint8_t compression_scheme; // compression scheme, see below.
uint8_t transparency_index; // palette index used for transparent pixels (not yet implemented)
} qff_font_descriptor_v1_t;
// _Static_assert(sizeof(qff_font_descriptor_v1_t) == (sizeof(qgf_block_header_v1_t) + 20), "qff_font_descriptor_v1_t must be 25 bytes in v1 of QFF");
```
The values for `format`, `flags`, `compression_scheme`, and `transparency_index` match [QGF's frame descriptor block](quantum_painter_qgf.md#qgf-frame-descriptor), with the exception that the `delta` flag is ignored by QFF.
## ASCII glyph table :id=qff-ascii-table
* _typeid_ = 0x01
* _length_ = 290
If the font contains ascii characters, the _ASCII glyph block_ must be located directly after the _font descriptor block_.
```c
#define QFF_GLYPH_WIDTH_BITS 6
#define QFF_GLYPH_WIDTH_MASK ((1<<QFF_GLYPH_WIDTH_BITS)-1)
#define QFF_GLYPH_OFFSET_BITS 18
#define QFF_GLYPH_OFFSET_MASK (((1<<QFF_GLYPH_OFFSET_BITS)-1) << QFF_GLYPH_WIDTH_BITS)
typedef struct __attribute__((packed)) qff_ascii_glyph_table_v1_t {
qgf_block_header_v1_t header; // = { .type_id = 0x01, .neg_type_id = (~0x01), .length = 285 }
uint24_t glyph[95]; // 95 glyphs, 0x20..0x7E, see bits/masks above for values
} qff_ascii_glyph_table_v1_t;
// _Static_assert(sizeof(qff_ascii_glyph_table_v1_t) == (sizeof(qgf_block_header_v1_t) + 285), "qff_ascii_glyph_table_v1_t must be 290 bytes in v1 of QFF");
```
## Unicode glyph table :id=qff-unicode-table
* _typeid_ = 0x02
* _length_ = variable
If this font contains unicode characters, the _unicode glyph block_ must be located directly after the _ASCII glyph table block_, or the _font descriptor block_ if the font does not contain ASCII characters.
```c
typedef struct __attribute__((packed)) qff_unicode_glyph_table_v1_t {
qgf_block_header_v1_t header; // = { .type_id = 0x02, .neg_type_id = (~0x02), .length = (N * 6) }
struct __attribute__((packed)) { // container for a single unicode glyph
uint24_t code_point; // the unicode code point
uint24_t glyph; // the glyph information, as per ASCII glyphs above
} glyph[N]; // N glyphs worth of data
} qff_unicode_glyph_table_v1_t;
```
## Font palette block :id=qff-palette-descriptor
* _typeid_ = 0x03
* _length_ = variable
The _font palette block_ is identical to [QGF's frame palette block](quantum_painter_qgf.md#qgf-frame-palette-descriptor), retaining the same _typeid_ of 0x03.
It is only specified in the QFF if the font is palette-based, and follows the _unicode glyph block_ if the font contains any Unicode glyphs, or the _ASCII glyph block_ if the font contains only ASCII glyphs.
## Font data block :id=qff-data-descriptor
* _typeid_ = 0x04
* _length_ = variable
The _font data block_ is the last block in the file and is identical to [QGF's frame data block](quantum_painter_qgf.md#qgf-frame-data-descriptor), however has a different _typeid_ of 0x04 in QFF.

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# QMK Graphics Format :id=qmk-graphics-format
QMK uses a graphics format _("Quantum Graphics Format" - QGF)_ specifically for resource-constrained systems.
This format is capable of encoding 1-, 2-, 4-, and 8-bit-per-pixel greyscale- and palette-based images. It also includes RLE for pixel data for some basic compression.
All integer values are in little-endian format.
The QGF is defined in terms of _blocks_ -- each _block_ contains a _header_ and an optional _blob_ of data. The _header_ contains the block's _typeid_, and the length of the _blob_ that follows. Each block type is denoted by a different _typeid_ has its own block definition below. All blocks are defined as packed structs, containing zero padding between fields.
The general structure of the file is:
* _Graphics descriptor block_
* _Frame offset block_
* Repeating list of frames:
* _Frame descriptor block_
* _Frame palette block_ (optional, depending on frame format)
* _Frame delta block_ (optional, depending on delta flag)
* _Frame data block_
Different frames within the file should be considered "isolated" and may have their own image format and/or palette.
## Block Header :id=qgf-block-header
This block header is present for all blocks, including the graphics descriptor.
_Block header_ format:
```c
typedef struct __attribute__((packed)) qgf_block_header_v1_t {
uint8_t type_id; // See each respective block type
uint8_t neg_type_id; // Negated type ID, used for detecting parsing errors
uint24_t length; // 24-bit blob length, allowing for block sizes of a maximum of 16MB
} qgf_block_header_v1_t;
// _Static_assert(sizeof(qgf_block_header_v1_t) == 5, "qgf_block_header_v1_t must be 5 bytes in v1 of QGF");
```
The _length_ describes the number of octets in the data following the block header -- a block header may specify a _length_ of `0` if no blob is specified.
## Graphics descriptor block :id=qgf-graphics-descriptor
* _typeid_ = 0x00
* _length_ = 18
This block must be located at the start of the file contents, and can exist a maximum of once in an entire QGF file. It is always followed by the _frame offset block_.
_Block_ format:
```c
typedef struct __attribute__((packed)) qgf_graphics_descriptor_v1_t {
qgf_block_header_v1_t header; // = { .type_id = 0x00, .neg_type_id = (~0x00), .length = 18 }
uint24_t magic; // constant, equal to 0x464751 ("QGF")
uint8_t qgf_version; // constant, equal to 0x01
uint32_t total_file_size; // total size of the entire file, starting at offset zero
uint32_t neg_total_file_size; // negated value of total_file_size, used for detecting parsing errors
uint16_t image_width; // in pixels
uint16_t image_height; // in pixels
uint16_t frame_count; // minimum of 1
} qgf_graphics_descriptor_v1_t;
// _Static_assert(sizeof(qgf_graphics_descriptor_v1_t) == (sizeof(qgf_block_header_v1_t) + 18), "qgf_graphics_descriptor_v1_t must be 23 bytes in v1 of QGF");
```
## Frame offset block :id=qgf-frame-offset-descriptor
* _typeid_ = 0x01
* _length_ = variable
This block denotes the offsets within the file to each frame's _frame descriptor block_, relative to the start of the file. The _frame offset block_ always immediately follows the _graphics descriptor block_. The contents of this block are an array of U32's, with one entry for each frame.
Duplicate frame offsets in this block are allowed, if a certain frame is to be shown multiple times during animation.
_Block_ format:
```c
typedef struct __attribute__((packed)) qgf_frame_offsets_v1_t {
qgf_block_header_v1_t header; // = { .type_id = 0x01, .neg_type_id = (~0x01), .length = (N * sizeof(uint32_t)) }
uint32_t offset[N]; // where 'N' is the number of frames in the file
} qgf_frame_offsets_v1_t;
```
## Frame descriptor block :id=qgf-frame-descriptor
* _typeid_ = 0x02
* _length_ = 5
This block denotes the start of a frame.
_Block_ format:
```c
typedef struct __attribute__((packed)) qgf_frame_v1_t {
qgf_block_header_v1_t header; // = { .type_id = 0x02, .neg_type_id = (~0x02), .length = 5 }
uint8_t format; // Frame format, see below.
uint8_t flags; // Frame flags, see below.
uint8_t compression_scheme; // Compression scheme, see below.
uint8_t transparency_index; // palette index used for transparent pixels (not yet implemented)
uint16_t delay; // frame delay time for animations (in units of milliseconds)
} qgf_frame_v1_t;
// _Static_assert(sizeof(qgf_frame_v1_t) == (sizeof(qgf_block_header_v1_t) + 6), "qgf_frame_v1_t must be 11 bytes in v1 of QGF");
```
If this frame is grayscale, the _frame descriptor block_ (or _frame delta block_ if flags denote a delta frame) is immediately followed by this frame's corresponding _frame data block_.
If the frame uses an indexed palette, the _frame descriptor block_ (or _frame delta block_ if flags denote a delta frame) is immediately followed by this frame's corresponding _frame palette block_.
Frame format possible values:
* `0x00`: 1bpp grayscale, no palette, `0` = black, `1` = white, LSb first pixel
* `0x01`: 2bpp grayscale, no palette, `0` = black, `3` = white, linear interpolation of brightness, LSb first pixel
* `0x02`: 4bpp grayscale, no palette, `0` = black, `15` = white, linear interpolation of brightness, LSb first pixel
* `0x03`: 8bpp grayscale, no palette, `0` = black, `255` = white, linear interpolation of brightness, LSb first pixel
* `0x04`: 1bpp indexed palette, 2 colors, LSb first pixel
* `0x05`: 2bpp indexed palette, 4 colors, LSb first pixel
* `0x06`: 4bpp indexed palette, 16 colors, LSb first pixel
* `0x07`: 8bpp indexed palette, 256 colors, LSb first pixel
Frame flags is a bitmask with the following format:
| `bit 7` | `bit 6` | `bit 5` | `bit 4` | `bit 3` | `bit 2` | `bit 1` | `bit 0` |
|---------|---------|---------|---------|---------|---------|---------|--------------|
| - | - | - | - | - | - | Delta | Transparency |
* `[1]` -- Delta: Signifies that the current frame is a delta frame, which specifies only a sub-image. The _frame delta block_ follows the _frame palette block_ if the image format specifies a palette, otherwise it directly follows the _frame descriptor block_.
* `[0]` -- Transparency: The transparent palette index in the _blob_ is considered valid and should be used when considering which pixels should be transparent during rendering this frame, if possible.
Compression scheme possible values:
* `0x00`: No compression
* `0x01`: [QMK RLE](quantum_painter_rle.md)
## Frame palette block :id=qgf-frame-palette-descriptor
* _typeid_ = 0x03
* _length_ = variable
This block describes the palette used for the frame. The _blob_ contains an array of palette entries -- one palette entry is present for each color used -- each palette entry is in QMK HSV888 format:
```c
typedef struct __attribute__((packed)) qgf_palette_v1_t {
qgf_block_header_v1_t header; // = { .type_id = 0x03, .neg_type_id = (~0x03), .length = (N * 3 * sizeof(uint8_t)) }
struct { // container for a single HSV palette entry
uint8_t h; // hue component: `[0,360)` degrees is mapped to `[0,255]` uint8_t.
uint8_t s; // saturation component: `[0,1]` is mapped to `[0,255]` uint8_t.
uint8_t v; // value component: `[0,1]` is mapped to `[0,255]` uint8_t.
} hsv[N]; // N * hsv, where N is the number of palette entries depending on the frame format in the descriptor
} qgf_palette_v1_t;
```
## Frame delta block :id=qgf-frame-delta-descriptor
* _typeid_ = 0x04
* _length_ = 8
This block describes where the delta frame should be drawn, with respect to the top left location of the image.
```c
typedef struct __attribute__((packed)) qgf_delta_v1_t {
qgf_block_header_v1_t header; // = { .type_id = 0x04, .neg_type_id = (~0x04), .length = 8 }
uint16_t left; // The left pixel location to draw the delta image
uint16_t top; // The top pixel location to draw the delta image
uint16_t right; // The right pixel location to to draw the delta image
uint16_t bottom; // The bottom pixel location to to draw the delta image
} qgf_delta_v1_t;
// _Static_assert(sizeof(qgf_delta_v1_t) == 13, "qgf_delta_v1_t must be 13 bytes in v1 of QGF");
```
## Frame data block :id=qgf-frame-data-descriptor
* _typeid_ = 0x05
* _length_ = variable
This block describes the data associated with the frame. The _blob_ contains an array of bytes containing the data corresponding to the frame's image format:
```c
typedef struct __attribute__((packed)) qgf_data_v1_t {
qgf_block_header_v1_t header; // = { .type_id = 0x05, .neg_type_id = (~0x05), .length = N }
uint8_t data[N]; // N data octets
} qgf_data_v1_t;
```

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# QMK QGF/QFF RLE data schema :id=qmk-qp-rle-schema
There are two "modes" to the RLE algorithm used in both [QGF](quantum_painter_qgf.md)/[QFF](quantum_painter_qff.md):
* Non-repeating sections of octets, with associated length of up to `128` octets
* `length` = `marker - 128`
* A corresponding `length` number of octets follow directly after the marker octet
* Repeated octet with associated length, with associated length of up to `128`
* `length` = `marker`
* A single octet follows the marker that should be repeated `length` times.
Decoder pseudocode:
```
while !EOF
marker = READ_OCTET()
if marker >= 128
length = marker - 128
for i = 0 ... length-1
c = READ_OCTET()
WRITE_OCTET(c)
else
length = marker
c = READ_OCTET()
for i = 0 ... length-1
WRITE_OCTET(c)
```

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@ -36,20 +36,20 @@ These headers are located in [`quantum/keymap_extras/`](https://github.com/qmk/q
|French (AFNOR) |`keymap_french_afnor.h` |`sendstring_french_afnor.h` |
|French (BÉPO) |`keymap_bepo.h` |`sendstring_bepo.h` |
|French (Belgium) |`keymap_belgian.h` |`sendstring_belgian.h` |
|French (Switzerland) |`keymap_fr_ch.h` |`sendstring_fr_ch.h` |
|French (macOS, ISO) |`keymap_french_osx.h` |`sendstring_french_osx.h` |
|French (Switzerland) |`keymap_swiss_fr.h` |`sendstring_swiss_fr.h` |
|French (macOS, ISO) |`keymap_french_mac_iso.h` |`sendstring_french_mac_iso.h` |
|German |`keymap_german.h` |`sendstring_german.h` |
|German (Switzerland) |`keymap_german_ch.h` |`sendstring_german_ch.h` |
|German (macOS) |`keymap_german_osx.h` |`sendstring_german_osx.h` |
|German (Switzerland) |`keymap_swiss_de.h` |`sendstring_swiss_de.h` |
|German (macOS) |`keymap_german_mac_iso.h` |`sendstring_german_mac_iso.h` |
|German (Neo2) |`keymap_neo2.h` | |
|Greek |`keymap_greek.h` | |
|Hebrew |`keymap_hebrew.h` | |
|Hungarian |`keymap_hungarian.h` |`sendstring_hungarian.h` |
|Icelandic |`keymap_icelandic.h` |`sendstring_icelandic.h` |
|Italian |`keymap_italian.h` |`sendstring_italian.h` |
|Italian (macOS, ANSI) |`keymap_italian_osx_ansi.h` |`sendstring_italian_osx_ansi.h` |
|Italian (macOS, ISO) |`keymap_italian_osx_iso.h` |`sendstring_italian_osx_iso.h` |
|Japanese |`keymap_jp.h` |`sendstring_jis.h` |
|Italian (macOS, ANSI) |`keymap_italian_mac_ansi.h` |`sendstring_italian_mac_ansi.h` |
|Italian (macOS, ISO) |`keymap_italian_mac_iso.h` |`sendstring_italian_mac_iso.h` |
|Japanese |`keymap_japanese.h` |`sendstring_japanese.h` |
|Korean |`keymap_korean.h` | |
|Latvian |`keymap_latvian.h` |`sendstring_latvian.h` |
|Lithuanian (ĄŽERTY) |`keymap_lithuanian_azerty.h` |`sendstring_lithuanian_azerty.h` |
@ -57,8 +57,8 @@ These headers are located in [`quantum/keymap_extras/`](https://github.com/qmk/q
|Norwegian |`keymap_norwegian.h` |`sendstring_norwegian.h` |
|Polish |`keymap_polish.h` | |
|Portuguese |`keymap_portuguese.h` |`sendstring_portuguese.h` |
|Portuguese (macOS, ISO) |`keymap_portuguese_osx_iso.h` |`sendstring_portuguese_osx_iso.h` |
|Portuguese (Brazil) |`keymap_br_abnt2.h` |`sendstring_br_abnt2.h` |
|Portuguese (macOS, ISO) |`keymap_portuguese_mac_iso.h` |`sendstring_portuguese_mac_iso.h` |
|Portuguese (Brazil) |`keymap_brazilian_abnt2.h` |`sendstring_brazilian_abnt2.h` |
|Romanian |`keymap_romanian.h` |`sendstring_romanian.h` |
|Russian |`keymap_russian.h` | |
|Serbian |`keymap_serbian.h` | |
@ -68,25 +68,25 @@ These headers are located in [`quantum/keymap_extras/`](https://github.com/qmk/q
|Spanish |`keymap_spanish.h` |`sendstring_spanish.h` |
|Spanish (Dvorak) |`keymap_spanish_dvorak.h` |`sendstring_spanish_dvorak.h` |
|Swedish |`keymap_swedish.h` |`sendstring_swedish.h` |
|Swedish (macOS, ANSI) |`keymap_swedish_osx_ansi.h` | |
|Swedish (macOS, ISO) |`keymap_swedish_osx_iso.h` | |
|Swedish Pro (macOS, ANSI) |`keymap_swedish_pro_osx_ansi.h` | |
|Swedish Pro (macOS, ISO) |`keymap_swedish_pro_osx_iso.h` | |
|Swedish (macOS, ANSI) |`keymap_swedish_mac_ansi.h` | |
|Swedish (macOS, ISO) |`keymap_swedish_mac_iso.h` | |
|Swedish Pro (macOS, ANSI) |`keymap_swedish_pro_mac_ansi.h` | |
|Swedish Pro (macOS, ISO) |`keymap_swedish_pro_mac_iso.h` | |
|Turkish (F) |`keymap_turkish_f.h` |`sendstring_turkish_f.h` |
|Turkish (Q) |`keymap_turkish_q.h` |`sendstring_turkish_q.h` |
|Ukrainian |`keymap_ukrainian.h` | |
There are also a few which are not quite language-specific, but useful if you are not using a QWERTY layout:
|Layout |Keycodes Header |Sendstring LUT Header |
|-------------------|------------------------|----------------------------|
|Colemak |`keymap_colemak.h` |`sendstring_colemak.h` |
|Dvorak |`keymap_dvorak.h` |`sendstring_dvorak.h` |
|Dvorak (French) |`keymap_dvorak_fr.h` |`sendstring_dvorak_fr.h` |
|Dvorak (Programmer)|`keymap_dvp.h` |`sendstring_dvp.h` |
|Norman |`keymap_norman.h` |`sendstring_norman.h` |
|Plover |`keymap_plover.h` | |
|Plover (Dvorak) |`keymap_plover_dvorak.h`| |
|Steno |`keymap_steno.h` | |
|Workman |`keymap_workman.h` |`sendstring_workman.h` |
|Workman (ZXCVM) |`keymap_workman_zxcvm.h`|`sendstring_workman_zxcvm.h`|
|Layout |Keycodes Header |Sendstring LUT Header |
|-------------------|----------------------------|--------------------------------|
|Colemak |`keymap_colemak.h` |`sendstring_colemak.h` |
|Dvorak |`keymap_dvorak.h` |`sendstring_dvorak.h` |
|Dvorak (French) |`keymap_dvorak_fr.h` |`sendstring_dvorak_fr.h` |
|Dvorak (Programmer)|`keymap_dvorak_programmer.h`|`sendstring_dvorak_programmer.h`|
|Norman |`keymap_norman.h` |`sendstring_norman.h` |
|Plover |`keymap_plover.h` | |
|Plover (Dvorak) |`keymap_plover_dvorak.h` | |
|Steno |`keymap_steno.h` | |
|Workman |`keymap_workman.h` |`sendstring_workman.h` |
|Workman (ZXCVM) |`keymap_workman_zxcvm.h` |`sendstring_workman_zxcvm.h` |

13
docs/squeezing_avr.md
View file

@ -30,6 +30,19 @@ MAGIC_ENABLE = no
These features are enabled by default, but may not be needed. Double check to make sure, though.
Largest in size is "magic" -- the QMK magic keycodes -- which control things like NKRO toggling, GUI and ALT/CTRL swapping, etc. Disabling it will disable those functions.
If you use `sprintf` or `snprintf` functions you can save around ~400 Bytes by enabling this option.
```make
AVR_USE_MINIMAL_PRINTF = yes
```
This will include smaller implementations from AVRs libc into your Firmware. They are [not fully featured](https://www.nongnu.org/avr-libc/user-manual/group__avr__stdio.html#gaa3b98c0d17b35642c0f3e4649092b9f1), for instance zero padding and field width specifiers are not supported. So if you use `sprintf` or `snprintf` like this:
```c
sprintf(wpm_str, "%03d", get_current_wpm());
snprintf(keylog_str, sizeof(keylog_str), "%dx%d, k%2d : %c");
```
you will still need the standard implementation.
## `config.h` Settings
If you've done all of that, and you don't want to disable features like RGB, Audio, OLEDs, etc, there are some additional options that you can add to your config.h that can help.

2
docs/tap_hold.md
View file

@ -112,7 +112,7 @@ uint16_t get_tapping_term(uint16_t keycode, keyrecord_t *record) {
}
```
The reason being that `TAPPING_TERM` is a macro that expands to a constant integer and thus cannot be changed at runtime whereas `g_tapping_term` is a variable whose value can be changed at runtime. If you want, you can temporarily enable `DYNAMIC_TAPPING_TERM_ENABLE` to find a suitable tapping term value and then disable that feature and revert back to using the classic syntax for per-key tapping term settings.
The reason being that `TAPPING_TERM` is a macro that expands to a constant integer and thus cannot be changed at runtime whereas `g_tapping_term` is a variable whose value can be changed at runtime. If you want, you can temporarily enable `DYNAMIC_TAPPING_TERM_ENABLE` to find a suitable tapping term value and then disable that feature and revert back to using the classic syntax for per-key tapping term settings. In case you need to access the tapping term from elsewhere in your code, you can use the `GET_TAPPING_TERM(keycode, record)` macro. This macro will expand to whatever is the appropriate access pattern given the current configuration.
## Tap-Or-Hold Decision Modes

16
docs/zh-cn/_summary.md
View file

@ -146,7 +146,7 @@
* [EEPROM驱动](zh-cn/eeprom_driver.md)
* [串口驱动](zh-cn/serial_driver.md)
* [UART驱动](zh-cn/uart_driver.md)
* [操控GPIO](zh-cn/internals_gpio_control.md)
* [操控GPIO](zh-cn/gpio_control.md)
* [键盘开发指引](zh-cn/hardware_keyboard_guidelines.md)
* Python开发
@ -182,12 +182,12 @@
* [了解QMK](zh-cn/understanding_qmk.md)
* QMK内部细节 (编辑中)
* [定义](zh-cn/internals_defines.md)
* [输入回调的注册](zh-cn/internals_input_callback_reg.md)
* [Midi设备](zh-cn/internals_midi_device.md)
* [Midi设备驱动流程](zh-cn/internals_midi_device_setup_process.md)
* [Midi辅助功能](zh-cn/internals_midi_util.md)
* [发送函数](zh-cn/internals_send_functions.md)
* [Sysex工具](zh-cn/internals_sysex_tools.md)
* [定义](zh-cn/internals/defines.md)
* [输入回调的注册](zh-cn/internals/input_callback_reg.md)
* [Midi设备](zh-cn/internals/midi_device.md)
* [Midi设备驱动流程](zh-cn/internals/midi_device_setup_process.md)
* [Midi辅助功能](zh-cn/internals/midi_util.md)
* [发送函数](zh-cn/internals/send_functions.md)
* [Sysex工具](zh-cn/internals/sysex_tools.md)
<!--fromen:20211014-12:00(GMT+8) commit 04cf161aa01fd433b5dae69d9fd31569ed5dca59-->

58
drivers/gpio/sn74x154.c Normal file
View file

@ -0,0 +1,58 @@
/* Copyright 2022
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 2 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include "sn74x154.h"
#include "gpio.h"
#define ADDRESS_PIN_COUNT 4
#ifndef SN74X154_ADDRESS_PINS
# error sn74x154: no address pins defined!
#endif
static const pin_t address_pins[ADDRESS_PIN_COUNT] = SN74X154_ADDRESS_PINS;
void sn74x154_init(void) {
for (int i = 0; i < ADDRESS_PIN_COUNT; i++) {
setPinOutput(address_pins[i]);
writePinLow(address_pins[i]);
}
#if defined(SN74X154_E0_PIN)
setPinOutput(SN74X154_E0_PIN);
writePinHigh(SN74X154_E0_PIN);
#endif
#if defined(SN74X154_E1_PIN)
setPinOutput(SN74X154_E1_PIN);
writePinHigh(SN74X154_E1_PIN);
#endif
}
void sn74x154_set_enabled(bool enabled) {
#if defined(SN74X154_E0_PIN)
writePin(SN74X154_E0_PIN, !enabled);
#endif
#if defined(SN74X154_E1_PIN)
writePin(SN74X154_E1_PIN, !enabled);
#endif
}
void sn74x154_set_addr(uint8_t address) {
for (int i = 0; i < ADDRESS_PIN_COUNT; i++) {
writePin(address_pins[i], address & (1 << i));
}
}

48
drivers/gpio/sn74x154.h Normal file
View file

@ -0,0 +1,48 @@
/* Copyright 2022
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 2 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#pragma once
#include <stdint.h>
#include <stdbool.h>
/**
* Driver for 74x154 4-to-16 decoder/demultiplexer with inverting outputs
* https://assets.nexperia.com/documents/data-sheet/74HC_HCT154.pdf
*/
/**
* Initialize the address and output enable pins.
*/
void sn74x154_init(void);
/**
* Set the enabled state.
*
* When enabled is true, pulls the E0 and E1 pins low.
*
* \param enabled The enable state to set.
*/
void sn74x154_set_enabled(bool enabled);
/**
* Set the output pin address.
*
* The selected output pin will be pulled low, while the remaining output pins will be high.
*
* \param address The address to set, from 0 to 15.
*/
void sn74x154_set_addr(uint8_t address);

159
drivers/haptic/solenoid.c
View file

@ -20,11 +20,22 @@
#include "haptic.h"
#include "gpio.h"
#include "usb_device_state.h"
#include <stdlib.h>
bool solenoid_on = false;
bool solenoid_buzzing = false;
uint16_t solenoid_start = 0;
uint8_t solenoid_dwell = SOLENOID_DEFAULT_DWELL;
uint8_t solenoid_dwell = SOLENOID_DEFAULT_DWELL;
static pin_t solenoid_pads[] = SOLENOID_PINS;
#define NUMBER_OF_SOLENOIDS (sizeof(solenoid_pads) / sizeof(pin_t))
bool solenoid_on[NUMBER_OF_SOLENOIDS] = {false};
bool solenoid_buzzing[NUMBER_OF_SOLENOIDS] = {false};
uint16_t solenoid_start[NUMBER_OF_SOLENOIDS] = {0};
#ifdef SOLENOID_PIN_ACTIVE_LOW
# define low true
# define high false
#else
# define low false
# define high true
#endif
static bool solenoid_active_state[NUMBER_OF_SOLENOIDS];
extern haptic_config_t haptic_config;
@ -36,7 +47,7 @@ void solenoid_buzz_off(void) {
haptic_set_buzz(0);
}
void solenoid_set_buzz(int buzz) {
void solenoid_set_buzz(uint8_t buzz) {
haptic_set_buzz(buzz);
}
@ -44,59 +55,121 @@ void solenoid_set_dwell(uint8_t dwell) {
solenoid_dwell = dwell;
}
void solenoid_stop(void) {
SOLENOID_PIN_WRITE_INACTIVE();
solenoid_on = false;
solenoid_buzzing = false;
/**
* @brief Stops a specific solenoid
*
* @param index select which solenoid to check/stop
*/
void solenoid_stop(uint8_t index) {
writePin(solenoid_pads[index], !solenoid_active_state[index]);
solenoid_on[index] = false;
solenoid_buzzing[index] = false;
}
void solenoid_fire(void) {
if (!haptic_config.buzz && solenoid_on) return;
if (haptic_config.buzz && solenoid_buzzing) return;
/**
* @brief Fires off a specific solenoid
*
* @param index Selects which solenoid to fire
*/
void solenoid_fire(uint8_t index) {
if (!haptic_config.buzz && solenoid_on[index]) return;
if (haptic_config.buzz && solenoid_buzzing[index]) return;
solenoid_on = true;
solenoid_buzzing = true;
solenoid_start = timer_read();
SOLENOID_PIN_WRITE_ACTIVE();
solenoid_on[index] = true;
solenoid_buzzing[index] = true;
solenoid_start[index] = timer_read();
writePin(solenoid_pads[index], solenoid_active_state[index]);
}
void solenoid_check(void) {
uint16_t elapsed = 0;
if (!solenoid_on) return;
elapsed = timer_elapsed(solenoid_start);
// Check if it's time to finish this solenoid click cycle
if (elapsed > solenoid_dwell) {
solenoid_stop();
return;
/**
* @brief Handles selecting a non-active solenoid, and firing it.
*
*/
void solenoid_fire_handler(void) {
#ifndef SOLENOID_RANDOM_FIRE
if (NUMBER_OF_SOLENOIDS > 1) {
uint8_t i = rand() % NUMBER_OF_SOLENOIDS;
if (!solenoid_on[i]) {
solenoid_fire(i);
}
} else {
solenoid_fire(0);
}
#else
for (uint8_t i = 0; i < NUMBER_OF_SOLENOIDS; i++) {
if (!solenoid_on[i]) {
solenoid_fire(i);
break;
}
}
#endif
}
// Check whether to buzz the solenoid on and off
if (haptic_config.buzz) {
if ((elapsed % (SOLENOID_BUZZ_ACTUATED + SOLENOID_BUZZ_NONACTUATED)) < SOLENOID_BUZZ_ACTUATED) {
if (!solenoid_buzzing) {
solenoid_buzzing = true;
SOLENOID_PIN_WRITE_ACTIVE();
}
} else {
if (solenoid_buzzing) {
solenoid_buzzing = false;
SOLENOID_PIN_WRITE_INACTIVE();
/**
* @brief Checks active solenoid to stop them, and to handle buzz mode
*
*/
void solenoid_check(void) {
uint16_t elapsed[NUMBER_OF_SOLENOIDS] = {0};
for (uint8_t i = 0; i < NUMBER_OF_SOLENOIDS; i++) {
if (!solenoid_on[i]) continue;
elapsed[i] = timer_elapsed(solenoid_start[i]);
// Check if it's time to finish this solenoid click cycle
if (elapsed[i] > solenoid_dwell) {
solenoid_stop(i);
continue;
}
// Check whether to buzz the solenoid on and off
if (haptic_config.buzz) {
if ((elapsed[i] % (SOLENOID_BUZZ_ACTUATED + SOLENOID_BUZZ_NONACTUATED)) < SOLENOID_BUZZ_ACTUATED) {
if (!solenoid_buzzing[i]) {
solenoid_buzzing[i] = true;
writePin(solenoid_pads[i], solenoid_active_state[i]);
}
} else {
if (solenoid_buzzing[i]) {
solenoid_buzzing[i] = false;
writePin(solenoid_pads[i], !solenoid_active_state[i]);
}
}
}
}
}
/**
* @brief Initial configuration for solenoids
*
*/
void solenoid_setup(void) {
SOLENOID_PIN_WRITE_INACTIVE();
setPinOutput(SOLENOID_PIN);
if ((!HAPTIC_OFF_IN_LOW_POWER) || (usb_device_state == USB_DEVICE_STATE_CONFIGURED)) {
solenoid_fire();
#ifdef SOLENOID_PINS_ACTIVE_STATE
bool state_temp[] = SOLENOID_PINS_ACTIVE_STATE;
uint8_t bound_check = (sizeof(state_temp) / sizeof(bool));
#endif
for (uint8_t i = 0; i < NUMBER_OF_SOLENOIDS; i++) {
#ifdef SOLENOID_PINS_ACTIVE_STATE
solenoid_active_state[i] = (bound_check - i) ? state_temp[i] : high;
#else
solenoid_active_state[i] = high;
#endif
writePin(solenoid_pads[i], !solenoid_active_state[i]);
setPinOutput(solenoid_pads[i]);
if ((!HAPTIC_OFF_IN_LOW_POWER) || (usb_device_state == USB_DEVICE_STATE_CONFIGURED)) {
solenoid_fire(i);
}
}
}
/**
* @brief stops solenoids prior to device reboot, to prevent them from being locked on
*
*/
void solenoid_shutdown(void) {
SOLENOID_PIN_WRITE_INACTIVE();
for (uint8_t i = 0; i < NUMBER_OF_SOLENOIDS; i++) {
writePin(solenoid_pads[i], !solenoid_active_state[i]);
}
}

26
drivers/haptic/solenoid.h
View file

@ -45,26 +45,24 @@
# define SOLENOID_BUZZ_NONACTUATED SOLENOID_MIN_DWELL
#endif
#ifndef SOLENOID_PIN
# error SOLENOID_PIN not defined
#ifndef SOLENOID_PINS
# ifdef SOLENOID_PIN
# define SOLENOID_PINS \
{ SOLENOID_PIN }
# else
# error SOLENOID_PINS array not defined
# endif
#endif
#ifdef SOLENOID_PIN_ACTIVE_LOW
# define SOLENOID_PIN_WRITE_ACTIVE() writePinLow(SOLENOID_PIN)
# define SOLENOID_PIN_WRITE_INACTIVE() writePinHigh(SOLENOID_PIN)
#else
# define SOLENOID_PIN_WRITE_ACTIVE() writePinHigh(SOLENOID_PIN)
# define SOLENOID_PIN_WRITE_INACTIVE() writePinLow(SOLENOID_PIN)
#endif
void solenoid_buzz_on(void);
void solenoidbuzz_on(void);
void solenoid_buzz_off(void);
void solenoid_set_buzz(int buzz);
void solenoid_set_buzz(uint8_t buzz);
void solenoid_set_dwell(uint8_t dwell);
void solenoid_stop(void);
void solenoid_fire(void);
void solenoid_stop(uint8_t index);
void solenoid_fire(uint8_t index);
void solenoid_fire_handler(void);
void solenoid_check(void);

284
drivers/lcd/hd44780.c Normal file
View file

@ -0,0 +1,284 @@
/*
Copyright 2022
This program is free software: you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation, either version 2 of the License, or
(at your option) any later version.
This program is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include "hd44780.h"
#include "gpio.h"
#include "progmem.h"
#include "wait.h"
#ifndef HD44780_DATA_PINS
# error hd44780: no data pins defined!
#endif
#ifndef HD44780_RS_PIN
# error hd44780: no RS pin defined!
#endif
#ifndef HD44780_RW_PIN
# error hd44780: no R/W pin defined!
#endif
#ifndef HD44780_E_PIN
# error hd44780: no E pin defined!
#endif
static const pin_t data_pins[4] = HD44780_DATA_PINS;
#ifndef HD44780_DISPLAY_COLS
# define HD44780_DISPLAY_COLS 16
#endif
#ifndef HD44780_DISPLAY_LINES
# define HD44780_DISPLAY_LINES 2
#endif
#ifndef HD44780_DDRAM_LINE0_ADDR
# define HD44780_DDRAM_LINE0_ADDR 0x00
#endif
#ifndef HD44780_DDRAM_LINE1_ADDR
# define HD44780_DDRAM_LINE1_ADDR 0x40
#endif
#define HD44780_INIT_DELAY_MS 16
#define HD44780_ENABLE_DELAY_US 1
static void hd44780_latch(void) {
writePinHigh(HD44780_E_PIN);
wait_us(HD44780_ENABLE_DELAY_US);
writePinLow(HD44780_E_PIN);
}
void hd44780_write(uint8_t data, bool isData) {
writePin(HD44780_RS_PIN, isData);
writePinLow(HD44780_RW_PIN);
for (int i = 0; i < 4; i++) {
setPinOutput(data_pins[i]);
}
// Write high nibble
for (int i = 0; i < 4; i++) {
writePin(data_pins[i], (data >> 4) & (1 << i));
}
hd44780_latch();
// Write low nibble
for (int i = 0; i < 4; i++) {
writePin(data_pins[i], data & (1 << i));
}
hd44780_latch();
for (int i = 0; i < 4; i++) {
writePinHigh(data_pins[i]);
}
}
uint8_t hd44780_read(bool isData) {
uint8_t data = 0;
writePin(HD44780_RS_PIN, isData);
writePinHigh(HD44780_RW_PIN);
for (int i = 0; i < 4; i++) {
setPinInput(data_pins[i]);
}
writePinHigh(HD44780_E_PIN);
wait_us(HD44780_ENABLE_DELAY_US);
// Read high nibble
for (int i = 0; i < 4; i++) {
data |= (readPin(data_pins[i]) << i);
}
data <<= 4;
writePinLow(HD44780_E_PIN);
wait_us(HD44780_ENABLE_DELAY_US);
writePinHigh(HD44780_E_PIN);
wait_us(HD44780_ENABLE_DELAY_US);
// Read low nibble
for (int i = 0; i < 4; i++) {
data |= (readPin(data_pins[i]) << i);
}
writePinLow(HD44780_E_PIN);
return data;
}
bool hd44780_busy(void) {
return hd44780_read(false) & HD44780_BUSY_FLAG;
}
void hd44780_command(uint8_t command) {
while (hd44780_busy())
;
hd44780_write(command, false);
}
void hd44780_data(uint8_t data) {
while (hd44780_busy())
;
hd44780_write(data, true);
}
void hd44780_clear(void) {
hd44780_command(HD44780_CMD_CLEAR_DISPLAY);
}
void hd44780_home(void) {
hd44780_command(HD44780_CMD_RETURN_HOME);
}
void hd44780_on(bool cursor, bool blink) {
if (cursor) {
if (blink) {
hd44780_command(HD44780_CMD_DISPLAY | HD44780_DISPLAY_ON | HD44780_DISPLAY_CURSOR | HD44780_DISPLAY_BLINK);
} else {
hd44780_command(HD44780_CMD_DISPLAY | HD44780_DISPLAY_ON | HD44780_DISPLAY_CURSOR);
}
} else {
hd44780_command(HD44780_CMD_DISPLAY | HD44780_DISPLAY_ON);
}
}
void hd44780_off() {
hd44780_command(HD44780_CMD_DISPLAY);
}
void hd44780_set_cgram_address(uint8_t address) {
hd44780_command(HD44780_CMD_SET_CGRAM_ADDRESS + (address & 0x3F));
}
void hd44780_set_ddram_address(uint8_t address) {
hd44780_command(HD44780_CMD_SET_DDRAM_ADDRESS + (address & 0x7F));
}
void hd44780_init(bool cursor, bool blink) {
setPinOutput(HD44780_RS_PIN);
setPinOutput(HD44780_RW_PIN);
setPinOutput(HD44780_E_PIN);
for (int i = 0; i < 4; i++) {
setPinOutput(data_pins[i]);
}
wait_ms(HD44780_INIT_DELAY_MS);
// Manually configure for 4-bit mode - can't use hd44780_command() yet
// HD44780U datasheet, Fig. 24 (p46)
writePinHigh(data_pins[0]); // Function set
writePinHigh(data_pins[1]); // DL = 1
hd44780_latch();
wait_ms(5);
// Send again
hd44780_latch();
wait_us(64);
// And again (?)
hd44780_latch();
wait_us(64);
writePinLow(data_pins[0]); // DL = 0
hd44780_latch();
wait_us(64);
#if HD44780_DISPLAY_LINES == 1
hd44780_command(HD44780_CMD_FUNCTION); // 4 bit, 1 line, 5x8 dots
#else
hd44780_command(HD44780_CMD_FUNCTION | HD44780_FUNCTION_2_LINES); // 4 bit, 2 lines, 5x8 dots
#endif
hd44780_on(cursor, blink);
hd44780_clear();
hd44780_home();
hd44780_command(HD44780_CMD_ENTRY_MODE | HD44780_ENTRY_MODE_INC);
}
void hd44780_set_cursor(uint8_t col, uint8_t line) {
register uint8_t address = col;
#if HD44780_DISPLAY_LINES == 1
address += HD44780_DDRAM_LINE0_ADDR;
#elif HD44780_DISPLAY_LINES == 2
if (line == 0) {
address += HD44780_DDRAM_LINE0_ADDR;
} else {
address += HD44780_DDRAM_LINE1_ADDR;
}
#endif
hd44780_set_ddram_address(address);
}
void hd44780_define_char(uint8_t index, uint8_t *data) {
hd44780_set_cgram_address((index & 0x7) << 3);
for (uint8_t i = 0; i < 8; i++) {
hd44780_data(data[i]);
}
}
void hd44780_putc(char c) {
while (hd44780_busy())
;
uint8_t current_position = hd44780_read(false);
if (c == '\n') {
hd44780_set_cursor(0, current_position < HD44780_DDRAM_LINE1_ADDR ? 1 : 0);
} else {
#if defined(HD44780_WRAP_LINES)
# if HD44780_DISPLAY_LINES == 1
if (current_position == HD44780_DDRAM_LINE0_ADDR + HD44780_DISPLAY_COLS) {
// Go to start of line
hd44780_set_cursor(0, 0);
}
# elif HD44780_DISPLAY_LINES == 2
if (current_position == HD44780_DDRAM_LINE0_ADDR + HD44780_DISPLAY_COLS) {
// Go to start of second line
hd44780_set_cursor(0, 1);
} else if (current_position == HD44780_DDRAM_LINE1_ADDR + HD44780_DISPLAY_COLS) {
// Go to start of first line
hd44780_set_cursor(0, 0);
}
# endif
#endif
hd44780_data(c);
}
}
void hd44780_puts(const char *s) {
register char c;
while ((c = *s++)) {
hd44780_putc(c);
}
}
#if defined(__AVR__)
void hd44780_define_char_P(uint8_t index, const uint8_t *data) {
hd44780_set_cgram_address(index << 3);
for (uint8_t i = 0; i < 8; i++) {
hd44780_data(pgm_read_byte(data++));
}
}
void hd44780_puts_P(const char *s) {
register char c;
while ((c = pgm_read_byte(s++))) {
hd44780_putc(c);
}
}
#endif

220
drivers/lcd/hd44780.h Normal file
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@ -0,0 +1,220 @@
/*
Copyright 2022
This program is free software: you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation, either version 2 of the License, or
(at your option) any later version.
This program is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#pragma once
#include <stdint.h>
#include <stdbool.h>
/**
* \defgroup hd44780
*
* HD44780 Character LCD Driver
* \{
*/
/*
* HD44780 instructions
* https://www.sparkfun.com/datasheets/LCD/HD44780.pdf
* Table 6 (p24)
*/
// Clear display
#define HD44780_CMD_CLEAR_DISPLAY 0x01
// Return home
#define HD44780_CMD_RETURN_HOME 0x02
// Entry mode set
#define HD44780_CMD_ENTRY_MODE 0x04
#define HD44780_ENTRY_MODE_INC 0x02 // I/D
#define HD44780_ENTRY_MODE_SHIFT 0x01 // S
// Display on/off control
#define HD44780_CMD_DISPLAY 0x08
#define HD44780_DISPLAY_ON 0x04 // D
#define HD44780_DISPLAY_CURSOR 0x02 // C
#define HD44780_DISPLAY_BLINK 0x01 // B
// Cursor or display shift
#define HD44780_CMD_MOVE 0x10
#define HD44780_MOVE_DISPLAY 0x08 // S/C
#define HD44780_MOVE_RIGHT 0x04 // R/L
// Function set
#define HD44780_CMD_FUNCTION 0x20
#define HD44780_FUNCTION_8_BIT 0x10 // DL
#define HD44780_FUNCTION_2_LINES 0x08 // N
#define HD44780_FUNCTION_5X10_DOTS 0x04 // F
// Set CGRAM address
#define HD44780_CMD_SET_CGRAM_ADDRESS 0x40
// Set DDRAM address
#define HD44780_CMD_SET_DDRAM_ADDRESS 0x80
// Bitmask for busy flag when reading
#define HD44780_BUSY_FLAG 0x80
/**
* \brief Write a byte to the display.
*
* \param data The byte to send to the display.
* \param isData Whether the byte is an instruction or character data.
*/
void hd44780_write(uint8_t data, bool isData);
/**
* \brief Read a byte from the display.
*
* \param isData Whether to read the current cursor position, or the character at the cursor.
*
* \return If `isData` is `true`, the returned byte will be the character at the current DDRAM address. Otherwise, it will be the current DDRAM address and the busy flag.
*/
uint8_t hd44780_read(bool isData);
/**
* \brief Indicates whether the display is currently processing, and cannot accept instructions.
*
* \return `true` if the display is busy.
*/
bool hd44780_busy(void);
/**
* \brief Send a command to the display. Refer to the datasheet for the valid commands.
*
* This function waits for the display to clear the busy flag before sending the command.
*
* \param command The command to send.
*/
void hd44780_command(uint8_t command);
/**
* \brief Send a byte of data to the display.
*
* This function waits for the display to clear the busy flag before sending the data.
*
* \param data The byte of data to send.
*/
void hd44780_data(uint8_t data);
/**
* \brief Clear the display.
*
* This function is called on init.
*/
void hd44780_clear(void);
/**
* \brief Move the cursor to the home position.
*
* This function is called on init.
*/
void hd44780_home(void);
/**
* \brief Turn the display on, and/or set the cursor position.
*
* This function is called on init.
*
* \param cursor Whether to show the cursor.
* \param blink Whether to blink the cursor, if shown.
*/
void hd44780_on(bool cursor, bool blink);
/**
* \brief Turn the display off.
*/
void hd44780_off(void);
/**
* \brief Set the CGRAM address.
*
* This function is used when defining custom characters.
*
* \param address The CGRAM address to move to, from `0x00` to `0x3F`.
*/
void hd44780_set_cgram_address(uint8_t address);
/**
* \brief Set the DDRAM address.
*
* This function is used when printing characters to the display, and setting the cursor.
*
* \param address The DDRAM address to move to, from `0x00` to `0x7F`.
*/
void hd44780_set_ddram_address(uint8_t address);
/**
* \brief Initialize the display.
*
* This function should be called only once, before any of the other functions can be called.
*
* \param cursor Whether to show the cursor.
* \param blink Whether to blink the cursor, if shown.
*/
void hd44780_init(bool cursor, bool blink);
/**
* \brief Move the cursor to the specified position on the display.
*
* \param col The column number to move to, from 0 to 15 on 16x2 displays.
* \param line The line number to move to, either 0 or 1 on 16x2 displays.
*/
void hd44780_set_cursor(uint8_t col, uint8_t line);
/**
* \brief Define a custom character.
*
* \param index The index of the custom character to define, from 0 to 7.
* \param data An array of 8 bytes containing the 5-bit row data of the character, where the first byte is the topmost row, and the least significant bit of each byte is the rightmost column.
*/
void hd44780_define_char(uint8_t index, uint8_t *data);
/**
* \brief Print a character to the display. The newline character will move the cursor to the start of the next line.
*
* The exact character shown may depend on the ROM code of your particular display - refer to the datasheet for the full character set.
*
* \param c The character to print.
*/
void hd44780_putc(char c);
/**
* \brief Print a string of characters to the display.
*
* \param s The string to print.
*/
void hd44780_puts(const char *s);
#if defined(__AVR__) || defined(__DOXYGEN__)
/**
* \brief Define a custom character from PROGMEM.
*
* On ARM devices, this function is simply an alias of hd44780_define_char().
*
* \param index The index of the custom character to define, from 0 to 7.
* \param data A PROGMEM array of 8 bytes containing the 5-bit row data of the character, where the first byte is the topmost row, and the least significant bit of each byte is the rightmost column.
*/
void hd44780_define_char_P(uint8_t index, const uint8_t *data);
/**
* \brief Print a string of characters from PROGMEM to the display.
*
* On ARM devices, this function is simply an alias of hd44780_puts().
*
* \param s The PROGMEM string to print.
*/
void hd44780_puts_P(const char *s);
#else
# define hd44780_define_char_P(index, data) hd44780_define_char(index, data)
# define hd44780_puts_P(s) hd44780_puts(s)
#endif
/** \} */

6
drivers/led/issi/is31fl3737.c
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@ -57,6 +57,10 @@
# define ISSI_PERSISTENCE 0
#endif
#ifndef ISSI_PWM_FREQUENCY
# define ISSI_PWM_FREQUENCY 0b000 // PFS - IS31FL3737B only
#endif
#ifndef ISSI_SWPULLUP
# define ISSI_SWPULLUP PUR_0R
#endif
@ -159,7 +163,7 @@ void IS31FL3737_init(uint8_t addr) {
// Set global current to maximum.
IS31FL3737_write_register(addr, ISSI_REG_GLOBALCURRENT, 0xFF);
// Disable software shutdown.
IS31FL3737_write_register(addr, ISSI_REG_CONFIGURATION, 0x01);
IS31FL3737_write_register(addr, ISSI_REG_CONFIGURATION, ((ISSI_PWM_FREQUENCY & 0b111) << 3) | 0x01);
// Wait 10ms to ensure the device has woken up.
wait_ms(10);

137
drivers/painter/comms/qp_comms_spi.c Normal file
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// Copyright 2021 Nick Brassel (@tzarc)
// SPDX-License-Identifier: GPL-2.0-or-later
#ifdef QUANTUM_PAINTER_SPI_ENABLE
# include "spi_master.h"
# include "qp_comms_spi.h"
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Base SPI support
bool qp_comms_spi_init(painter_device_t device) {
struct painter_driver_t * driver = (struct painter_driver_t *)device;
struct qp_comms_spi_config_t *comms_config = (struct qp_comms_spi_config_t *)driver->comms_config;
// Initialize the SPI peripheral
spi_init();
// Set up CS as output high
setPinOutput(comms_config->chip_select_pin);
writePinHigh(comms_config->chip_select_pin);
return true;
}
bool qp_comms_spi_start(painter_device_t device) {
struct painter_driver_t * driver = (struct painter_driver_t *)device;
struct qp_comms_spi_config_t *comms_config = (struct qp_comms_spi_config_t *)driver->comms_config;
return spi_start(comms_config->chip_select_pin, comms_config->lsb_first, comms_config->mode, comms_config->divisor);
}
uint32_t qp_comms_spi_send_data(painter_device_t device, const void *data, uint32_t byte_count) {
uint32_t bytes_remaining = byte_count;
const uint8_t *p = (const uint8_t *)data;
while (bytes_remaining > 0) {
uint32_t bytes_this_loop = bytes_remaining < 1024 ? bytes_remaining : 1024;
spi_transmit(p, bytes_this_loop);
p += bytes_this_loop;
bytes_remaining -= bytes_this_loop;
}
return byte_count - bytes_remaining;
}
void qp_comms_spi_stop(painter_device_t device) {
struct painter_driver_t * driver = (struct painter_driver_t *)device;
struct qp_comms_spi_config_t *comms_config = (struct qp_comms_spi_config_t *)driver->comms_config;
spi_stop();
writePinHigh(comms_config->chip_select_pin);
}
const struct painter_comms_vtable_t spi_comms_vtable = {
.comms_init = qp_comms_spi_init,
.comms_start = qp_comms_spi_start,
.comms_send = qp_comms_spi_send_data,
.comms_stop = qp_comms_spi_stop,
};
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// SPI with D/C and RST pins
# ifdef QUANTUM_PAINTER_SPI_DC_RESET_ENABLE
bool qp_comms_spi_dc_reset_init(painter_device_t device) {
if (!qp_comms_spi_init(device)) {
return false;
}
struct painter_driver_t * driver = (struct painter_driver_t *)device;
struct qp_comms_spi_dc_reset_config_t *comms_config = (struct qp_comms_spi_dc_reset_config_t *)driver->comms_config;
// Set up D/C as output low, if specified
if (comms_config->dc_pin != NO_PIN) {
setPinOutput(comms_config->dc_pin);
writePinLow(comms_config->dc_pin);
}
// Set up RST as output, if specified, performing a reset in the process
if (comms_config->reset_pin != NO_PIN) {
setPinOutput(comms_config->reset_pin);
writePinLow(comms_config->reset_pin);
wait_ms(20);
writePinHigh(comms_config->reset_pin);
wait_ms(20);
}
return true;
}
uint32_t qp_comms_spi_dc_reset_send_data(painter_device_t device, const void *data, uint32_t byte_count) {
struct painter_driver_t * driver = (struct painter_driver_t *)device;
struct qp_comms_spi_dc_reset_config_t *comms_config = (struct qp_comms_spi_dc_reset_config_t *)driver->comms_config;
writePinHigh(comms_config->dc_pin);
return qp_comms_spi_send_data(device, data, byte_count);
}
void qp_comms_spi_dc_reset_send_command(painter_device_t device, uint8_t cmd) {
struct painter_driver_t * driver = (struct painter_driver_t *)device;
struct qp_comms_spi_dc_reset_config_t *comms_config = (struct qp_comms_spi_dc_reset_config_t *)driver->comms_config;
writePinLow(comms_config->dc_pin);
spi_write(cmd);
}
void qp_comms_spi_dc_reset_bulk_command_sequence(painter_device_t device, const uint8_t *sequence, size_t sequence_len) {
for (size_t i = 0; i < sequence_len;) {
uint8_t command = sequence[i];
uint8_t delay = sequence[i + 1];
uint8_t num_bytes = sequence[i + 2];
qp_comms_spi_dc_reset_send_command(device, command);
if (num_bytes > 0) {
qp_comms_spi_dc_reset_send_data(device, &sequence[i + 3], num_bytes);
}
if (delay > 0) {
wait_ms(delay);
}
i += (3 + num_bytes);
}
}
const struct painter_comms_with_command_vtable_t spi_comms_with_dc_vtable = {
.base =
{
.comms_init = qp_comms_spi_dc_reset_init,
.comms_start = qp_comms_spi_start,
.comms_send = qp_comms_spi_dc_reset_send_data,
.comms_stop = qp_comms_spi_stop,
},
.send_command = qp_comms_spi_dc_reset_send_command,
.bulk_command_sequence = qp_comms_spi_dc_reset_bulk_command_sequence,
};
# endif // QUANTUM_PAINTER_SPI_DC_RESET_ENABLE
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
#endif // QUANTUM_PAINTER_SPI_ENABLE

51
drivers/painter/comms/qp_comms_spi.h Normal file
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@ -0,0 +1,51 @@
// Copyright 2021 Nick Brassel (@tzarc)
// SPDX-License-Identifier: GPL-2.0-or-later
#pragma once
#ifdef QUANTUM_PAINTER_SPI_ENABLE
# include <stdint.h>
# include "gpio.h"
# include "qp_internal.h"
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Base SPI support
struct qp_comms_spi_config_t {
pin_t chip_select_pin;
uint16_t divisor;
bool lsb_first;
int8_t mode;
};
bool qp_comms_spi_init(painter_device_t device);
bool qp_comms_spi_start(painter_device_t device);
uint32_t qp_comms_spi_send_data(painter_device_t device, const void* data, uint32_t byte_count);
void qp_comms_spi_stop(painter_device_t device);
extern const struct painter_comms_vtable_t spi_comms_vtable;
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// SPI with D/C and RST pins
# ifdef QUANTUM_PAINTER_SPI_DC_RESET_ENABLE
struct qp_comms_spi_dc_reset_config_t {
struct qp_comms_spi_config_t spi_config;
pin_t dc_pin;
pin_t reset_pin;
};
void qp_comms_spi_dc_reset_send_command(painter_device_t device, uint8_t cmd);
uint32_t qp_comms_spi_dc_reset_send_data(painter_device_t device, const void* data, uint32_t byte_count);
void qp_comms_spi_dc_reset_bulk_command_sequence(painter_device_t device, const uint8_t* sequence, size_t sequence_len);
extern const struct painter_comms_with_command_vtable_t spi_comms_with_dc_vtable;
# endif // QUANTUM_PAINTER_SPI_DC_RESET_ENABLE
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
#endif // QUANTUM_PAINTER_SPI_ENABLE

150
drivers/painter/gc9a01/qp_gc9a01.c Normal file
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@ -0,0 +1,150 @@
// Copyright 2021 Paul Cotter (@gr1mr3aver)
// SPDX-License-Identifier: GPL-2.0-or-later
#include <wait.h>
#include "qp_internal.h"
#include "qp_comms.h"
#include "qp_gc9a01.h"
#include "qp_gc9a01_opcodes.h"
#include "qp_tft_panel.h"
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Driver storage
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
tft_panel_dc_reset_painter_device_t gc9a01_drivers[GC9A01_NUM_DEVICES] = {0};
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Initialization
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
bool qp_gc9a01_init(painter_device_t device, painter_rotation_t rotation) {
// A lot of these "unknown" opcodes are sourced from other OSS projects and are seemingly required for this display to function.
// clang-format off
const uint8_t gc9a01_init_sequence[] = {
// Command, Delay, N, Data[N]
GC9A01_SET_INTER_REG_ENABLE2, 0, 0,
0xEB, 0, 1, 0x14,
GC9A01_SET_INTER_REG_ENABLE1, 0, 0,
GC9A01_SET_INTER_REG_ENABLE2, 0, 0,
0xEB, 0, 1, 0x14,
0x84, 0, 1, 0x40,
0x85, 0, 1, 0xFF,
0x86, 0, 1, 0xFF,
0x87, 0, 1, 0xFF,
0x88, 0, 1, 0x0A,
0x89, 0, 1, 0x21,
0x8a, 0, 1, 0x00,
0x8b, 0, 1, 0x80,
0x8c, 0, 1, 0x01,
0x8d, 0, 1, 0x01,
0x8e, 0, 1, 0xFF,
0x8f, 0, 1, 0xFF,
GC9A01_SET_FUNCTION_CTL, 0, 2, 0x00, 0x20,
GC9A01_SET_PIX_FMT, 0, 1, 0x55,
0x90, 0, 4, 0x08, 0x08, 0x08, 0x08,
0xBD, 0, 1, 0x06,
0xBC, 0, 1, 0x00,
0xFF, 0, 3, 0x60, 0x01, 0x04,
GC9A01_SET_POWER_CTL_2, 0, 1, 0x13,
GC9A01_SET_POWER_CTL_3, 0, 1, 0x13,
GC9A01_SET_POWER_CTL_4, 0, 1, 0x22,
0xBE, 0, 1, 0x11,
0xE1, 0, 2, 0x10, 0x0E,
0xDF, 0, 3, 0x21, 0x0C, 0x02,
GC9A01_SET_GAMMA1, 0, 6, 0x45, 0x09, 0x08, 0x08, 0x26, 0x2A,
GC9A01_SET_GAMMA2, 0, 6, 0x43, 0x70, 0x72, 0x36, 0x37, 0x6F,
GC9A01_SET_GAMMA3, 0, 6, 0x45, 0x09, 0x08, 0x08, 0x26, 0x2A,
GC9A01_SET_GAMMA4, 0, 6, 0x43, 0x70, 0x72, 0x36, 0x37, 0x6F,
0xED, 0, 2, 0x1B, 0x0B,
0xAE, 0, 1, 0x77,
0xCD, 0, 1, 0x63,
0x70, 0, 9, 0x07, 0x07, 0x04, 0x0E, 0x0F, 0x09, 0x07, 0x08, 0x03,
GC9A01_SET_FRAME_RATE, 0, 1, 0x34,
0x62, 0, 12, 0x18, 0x0D, 0x71, 0xED, 0x70, 0x70, 0x18, 0x0F, 0x71, 0xEF, 0x70, 0x70,
0x63, 0, 12, 0x18, 0x11, 0x71, 0xF1, 0x70, 0x70, 0x18, 0x13, 0x71, 0xF3, 0x70, 0x70,
0x64, 0, 7, 0x28, 0x29, 0xF1, 0x01, 0xF1, 0x00, 0x07,
0x66, 0, 10, 0x3C, 0x00, 0xCD, 0x67, 0x45, 0x45, 0x10, 0x00, 0x00, 0x00,
0x67, 0, 10, 0x00, 0x3C, 0x00, 0x00, 0x00, 0x01, 0x54, 0x10, 0x32, 0x98,
0x74, 0, 7, 0x10, 0x85, 0x80, 0x00, 0x00, 0x4E, 0x00,
0x98, 0, 2, 0x3E, 0x07,
GC9A01_CMD_TEARING_OFF, 0, 0,
GC9A01_CMD_INVERT_OFF, 0, 0,
GC9A01_CMD_SLEEP_OFF, 120, 0,
GC9A01_CMD_DISPLAY_ON, 20, 0
};
// clang-format on
// clang-format on
qp_comms_bulk_command_sequence(device, gc9a01_init_sequence, sizeof(gc9a01_init_sequence));
// Configure the rotation (i.e. the ordering and direction of memory writes in GRAM)
const uint8_t madctl[] = {
[QP_ROTATION_0] = GC9A01_MADCTL_BGR,
[QP_ROTATION_90] = GC9A01_MADCTL_BGR | GC9A01_MADCTL_MX | GC9A01_MADCTL_MV,
[QP_ROTATION_180] = GC9A01_MADCTL_BGR | GC9A01_MADCTL_MX | GC9A01_MADCTL_MY,
[QP_ROTATION_270] = GC9A01_MADCTL_BGR | GC9A01_MADCTL_MV | GC9A01_MADCTL_MY,
};
qp_comms_command_databyte(device, GC9A01_SET_MEM_ACS_CTL, madctl[rotation]);
return true;
}
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Driver vtable
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
const struct tft_panel_dc_reset_painter_driver_vtable_t gc9a01_driver_vtable = {
.base =
{
.init = qp_gc9a01_init,
.power = qp_tft_panel_power,
.clear = qp_tft_panel_clear,
.flush = qp_tft_panel_flush,
.pixdata = qp_tft_panel_pixdata,
.viewport = qp_tft_panel_viewport,
.palette_convert = qp_tft_panel_palette_convert,
.append_pixels = qp_tft_panel_append_pixels,
},
.rgb888_to_native16bit = qp_rgb888_to_rgb565_swapped,
.num_window_bytes = 2,
.swap_window_coords = false,
.opcodes =
{
.display_on = GC9A01_CMD_DISPLAY_ON,
.display_off = GC9A01_CMD_DISPLAY_OFF,
.set_column_address = GC9A01_SET_COL_ADDR,
.set_row_address = GC9A01_SET_PAGE_ADDR,
.enable_writes = GC9A01_SET_MEM,
},
};
#ifdef QUANTUM_PAINTER_GC9A01_SPI_ENABLE
// Factory function for creating a handle to the ILI9341 device
painter_device_t qp_gc9a01_make_spi_device(uint16_t panel_width, uint16_t panel_height, pin_t chip_select_pin, pin_t dc_pin, pin_t reset_pin, uint16_t spi_divisor, int spi_mode) {
for (uint32_t i = 0; i < GC9A01_NUM_DEVICES; ++i) {
tft_panel_dc_reset_painter_device_t *driver = &gc9a01_drivers[i];
if (!driver->base.driver_vtable) {
driver->base.driver_vtable = (const struct painter_driver_vtable_t *)&gc9a01_driver_vtable;
driver->base.comms_vtable = (const struct painter_comms_vtable_t *)&spi_comms_with_dc_vtable;
driver->base.native_bits_per_pixel = 16; // RGB565
driver->base.panel_width = panel_width;
driver->base.panel_height = panel_height;
driver->base.rotation = QP_ROTATION_0;
driver->base.offset_x = 0;
driver->base.offset_y = 0;
// SPI and other pin configuration
driver->base.comms_config = &driver->spi_dc_reset_config;
driver->spi_dc_reset_config.spi_config.chip_select_pin = chip_select_pin;
driver->spi_dc_reset_config.spi_config.divisor = spi_divisor;
driver->spi_dc_reset_config.spi_config.lsb_first = false;
driver->spi_dc_reset_config.spi_config.mode = spi_mode;
driver->spi_dc_reset_config.dc_pin = dc_pin;
driver->spi_dc_reset_config.reset_pin = reset_pin;
return (painter_device_t)driver;
}
}
return NULL;
}
#endif // QUANTUM_PAINTER_GC9A01_SPI_ENABLE

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// Copyright 2021 Paul Cotter (@gr1mr3aver)
// SPDX-License-Identifier: GPL-2.0-or-later
#pragma once
#include "gpio.h"
#include "qp_internal.h"
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter GC9A01 configurables (add to your keyboard's config.h)
#ifndef GC9A01_NUM_DEVICES
/**
* @def This controls the maximum number of GC9A01 devices that Quantum Painter can communicate with at any one time.
* Increasing this number allows for multiple displays to be used.
*/
# define GC9A01_NUM_DEVICES 1
#endif
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter GC9A01 device factories
#ifdef QUANTUM_PAINTER_GC9A01_SPI_ENABLE
/**
* Factory method for an GC9A01 SPI LCD device.
*
* @param panel_width[in] the width of the display panel
* @param panel_height[in] the height of the display panel
* @param chip_select_pin[in] the GPIO pin used for SPI chip select
* @param dc_pin[in] the GPIO pin used for D/C control
* @param reset_pin[in] the GPIO pin used for RST
* @param spi_divisor[in] the SPI divisor to use when communicating with the display
* @param spi_mode[in] the SPI mode to use when communicating with the display
* @return the device handle used with all drawing routines in Quantum Painter
*/
painter_device_t qp_gc9a01_make_spi_device(uint16_t panel_width, uint16_t panel_height, pin_t chip_select_pin, pin_t dc_pin, pin_t reset_pin, uint16_t spi_divisor, int spi_mode);
#endif // QUANTUM_PAINTER_GC9A01_SPI_ENABLE

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// Copyright 2021 Paul Cotter (@gr1mr3aver)
// SPDX-License-Identifier: GPL-2.0-or-later
#pragma once
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter GC9A01 command opcodes
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Level 1 command opcodes
#define GC9A01_GET_ID_INFO 0x04 // Get ID information
#define GC9A01_GET_STATUS 0x09 // Get status
#define GC9A01_CMD_SLEEP_ON 0x10 // Enter sleep mode
#define GC9A01_CMD_SLEEP_OFF 0x11 // Exit sleep mode
#define GC9A01_CMD_PARTIAL_ON 0x12 // Enter partial mode
#define GC9A01_CMD_PARTIAL_OFF 0x13 // Exit partial mode
#define GC9A01_CMD_INVERT_ON 0x20 // Enter inverted mode
#define GC9A01_CMD_INVERT_OFF 0x21 // Exit inverted mode
#define GC9A01_CMD_DISPLAY_OFF 0x28 // Disable display
#define GC9A01_CMD_DISPLAY_ON 0x29 // Enable display
#define GC9A01_SET_COL_ADDR 0x2A // Set column address
#define GC9A01_SET_PAGE_ADDR 0x2B // Set page address
#define GC9A01_SET_MEM 0x2C // Set memory
#define GC9A01_SET_PARTIAL_AREA 0x30 // Set partial area
#define GC9A01_SET_VSCROLL 0x33 // Set vertical scroll def
#define GC9A01_CMD_TEARING_ON 0x34 // Tearing line enabled
#define GC9A01_CMD_TEARING_OFF 0x35 // Tearing line disabled
#define GC9A01_SET_MEM_ACS_CTL 0x36 // Set mem access ctl
#define GC9A01_SET_VSCROLL_ADDR 0x37 // Set vscroll start addr
#define GC9A01_CMD_IDLE_OFF 0x38 // Exit idle mode
#define GC9A01_CMD_IDLE_ON 0x39 // Enter idle mode
#define GC9A01_SET_PIX_FMT 0x3A // Set pixel format
#define GC9A01_SET_MEM_CONT 0x3C // Set memory continue
#define GC9A01_SET_TEAR_SCANLINE 0x44 // Set tearing scanline
#define GC9A01_GET_TEAR_SCANLINE 0x45 // Get tearing scanline
#define GC9A01_SET_BRIGHTNESS 0x51 // Set brightness
#define GC9A01_SET_DISPLAY_CTL 0x53 // Set display ctl
#define GC9A01_GET_ID1 0xDA // Get ID1
#define GC9A01_GET_ID2 0xDB // Get ID2
#define GC9A01_GET_ID3 0xDC // Get ID3
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Level 2 command opcodes
#define GC9A01_SET_RGB_IF_SIG_CTL 0xB0 // RGB IF signal ctl
#define GC9A01_SET_BLANKING_PORCH_CTL 0xB5 // Set blanking porch ctl
#define GC9A01_SET_FUNCTION_CTL 0xB6 // Set function ctl
#define GC9A01_SET_TEARING_EFFECT 0xBA // Set backlight ctl 3
#define GC9A01_SET_IF_CTL 0xF6 // Set interface control
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Level 3 command opcodes
#define GC9A01_SET_FRAME_RATE 0xE8 // Set frame rate
#define GC9A01_SET_SPI_2DATA 0xE9 // Set frame rate
#define GC9A01_SET_POWER_CTL_1 0xC1 // Set power ctl 1
#define GC9A01_SET_POWER_CTL_2 0xC3 // Set power ctl 2
#define GC9A01_SET_POWER_CTL_3 0xC4 // Set power ctl 3
#define GC9A01_SET_POWER_CTL_4 0xC9 // Set power ctl 4
#define GC9A01_SET_POWER_CTL_7 0xA7 // Set power ctl 7
#define GC9A01_SET_INTER_REG_ENABLE1 0xFE // Enable Inter Register 1
#define GC9A01_SET_INTER_REG_ENABLE2 0xEF // Enable Inter Register 2
#define GC9A01_SET_GAMMA1 0xF0 //
#define GC9A01_SET_GAMMA2 0xF1
#define GC9A01_SET_GAMMA3 0xF2
#define GC9A01_SET_GAMMA4 0xF3
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// MADCTL Flags
#define GC9A01_MADCTL_MY 0b10000000
#define GC9A01_MADCTL_MX 0b01000000
#define GC9A01_MADCTL_MV 0b00100000
#define GC9A01_MADCTL_ML 0b00010000
#define GC9A01_MADCTL_RGB 0b00000000
#define GC9A01_MADCTL_BGR 0b00001000
#define GC9A01_MADCTL_MH 0b00000100

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// Copyright 2021 Nick Brassel (@tzarc)
// SPDX-License-Identifier: GPL-2.0-or-later
#include "qp_internal.h"
#include "qp_comms.h"
#include "qp_ili9163.h"
#include "qp_ili9xxx_opcodes.h"
#include "qp_tft_panel.h"
#ifdef QUANTUM_PAINTER_ILI9163_SPI_ENABLE
# include "qp_comms_spi.h"
#endif // QUANTUM_PAINTER_ILI9163_SPI_ENABLE
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Common
// Driver storage
tft_panel_dc_reset_painter_device_t ili9163_drivers[ILI9163_NUM_DEVICES] = {0};
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Initialization
bool qp_ili9163_init(painter_device_t device, painter_rotation_t rotation) {
// clang-format off
const uint8_t ili9163_init_sequence[] = {
// Command, Delay, N, Data[N]
ILI9XXX_CMD_RESET, 120, 0,
ILI9XXX_CMD_SLEEP_OFF, 5, 0,
ILI9XXX_SET_PIX_FMT, 0, 1, 0x55,
ILI9XXX_SET_GAMMA, 0, 1, 0x04,
ILI9XXX_ENABLE_3_GAMMA, 0, 1, 0x01,
ILI9XXX_SET_FUNCTION_CTL, 0, 2, 0xFF, 0x06,
ILI9XXX_SET_PGAMMA, 0, 15, 0x36, 0x29, 0x12, 0x22, 0x1C, 0x15, 0x42, 0xB7, 0x2F, 0x13, 0x12, 0x0A, 0x11, 0x0B, 0x06,
ILI9XXX_SET_NGAMMA, 0, 15, 0x09, 0x16, 0x2D, 0x0D, 0x13, 0x15, 0x40, 0x48, 0x53, 0x0C, 0x1D, 0x25, 0x2E, 0x34, 0x39,
ILI9XXX_SET_FRAME_CTL_NORMAL, 0, 2, 0x08, 0x02,
ILI9XXX_SET_POWER_CTL_1, 0, 2, 0x0A, 0x02,
ILI9XXX_SET_POWER_CTL_2, 0, 1, 0x02,
ILI9XXX_SET_VCOM_CTL_1, 0, 2, 0x50, 0x63,
ILI9XXX_SET_VCOM_CTL_2, 0, 1, 0x00,
ILI9XXX_CMD_PARTIAL_OFF, 0, 0,
ILI9XXX_CMD_DISPLAY_ON, 20, 0
};
// clang-format on
qp_comms_bulk_command_sequence(device, ili9163_init_sequence, sizeof(ili9163_init_sequence));
// Configure the rotation (i.e. the ordering and direction of memory writes in GRAM)
const uint8_t madctl[] = {
[QP_ROTATION_0] = ILI9XXX_MADCTL_BGR,
[QP_ROTATION_90] = ILI9XXX_MADCTL_BGR | ILI9XXX_MADCTL_MX | ILI9XXX_MADCTL_MV,
[QP_ROTATION_180] = ILI9XXX_MADCTL_BGR | ILI9XXX_MADCTL_MX | ILI9XXX_MADCTL_MY,
[QP_ROTATION_270] = ILI9XXX_MADCTL_BGR | ILI9XXX_MADCTL_MV | ILI9XXX_MADCTL_MY,
};
qp_comms_command_databyte(device, ILI9XXX_SET_MEM_ACS_CTL, madctl[rotation]);
return true;
}
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Driver vtable
const struct tft_panel_dc_reset_painter_driver_vtable_t ili9163_driver_vtable = {
.base =
{
.init = qp_ili9163_init,
.power = qp_tft_panel_power,
.clear = qp_tft_panel_clear,
.flush = qp_tft_panel_flush,
.pixdata = qp_tft_panel_pixdata,
.viewport = qp_tft_panel_viewport,
.palette_convert = qp_tft_panel_palette_convert,
.append_pixels = qp_tft_panel_append_pixels,
},
.rgb888_to_native16bit = qp_rgb888_to_rgb565_swapped,
.num_window_bytes = 2,
.swap_window_coords = false,
.opcodes =
{
.display_on = ILI9XXX_CMD_DISPLAY_ON,
.display_off = ILI9XXX_CMD_DISPLAY_OFF,
.set_column_address = ILI9XXX_SET_COL_ADDR,
.set_row_address = ILI9XXX_SET_PAGE_ADDR,
.enable_writes = ILI9XXX_SET_MEM,
},
};
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// SPI
#ifdef QUANTUM_PAINTER_ILI9163_SPI_ENABLE
// Factory function for creating a handle to the ILI9163 device
painter_device_t qp_ili9163_make_spi_device(uint16_t panel_width, uint16_t panel_height, pin_t chip_select_pin, pin_t dc_pin, pin_t reset_pin, uint16_t spi_divisor, int spi_mode) {
for (uint32_t i = 0; i < ILI9163_NUM_DEVICES; ++i) {
tft_panel_dc_reset_painter_device_t *driver = &ili9163_drivers[i];
if (!driver->base.driver_vtable) {
driver->base.driver_vtable = (const struct painter_driver_vtable_t *)&ili9163_driver_vtable;
driver->base.comms_vtable = (const struct painter_comms_vtable_t *)&spi_comms_with_dc_vtable;
driver->base.panel_width = panel_width;
driver->base.panel_height = panel_height;
driver->base.rotation = QP_ROTATION_0;
driver->base.offset_x = 0;
driver->base.offset_y = 0;
driver->base.native_bits_per_pixel = 16; // RGB565
// SPI and other pin configuration
driver->base.comms_config = &driver->spi_dc_reset_config;
driver->spi_dc_reset_config.spi_config.chip_select_pin = chip_select_pin;
driver->spi_dc_reset_config.spi_config.divisor = spi_divisor;
driver->spi_dc_reset_config.spi_config.lsb_first = false;
driver->spi_dc_reset_config.spi_config.mode = spi_mode;
driver->spi_dc_reset_config.dc_pin = dc_pin;
driver->spi_dc_reset_config.reset_pin = reset_pin;
return (painter_device_t)driver;
}
}
return NULL;
}
#endif // QUANTUM_PAINTER_ILI9163_SPI_ENABLE
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////

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// Copyright 2021 Nick Brassel (@tzarc)
// SPDX-License-Identifier: GPL-2.0-or-later
#pragma once
#include "gpio.h"
#include "qp_internal.h"
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter ILI9163 configurables (add to your keyboard's config.h)
#ifndef ILI9163_NUM_DEVICES
/**
* @def This controls the maximum number of ILI9163 devices that Quantum Painter can communicate with at any one time.
* Increasing this number allows for multiple displays to be used.
*/
# define ILI9163_NUM_DEVICES 1
#endif
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter ILI9163 device factories
#ifdef QUANTUM_PAINTER_ILI9163_SPI_ENABLE
/**
* Factory method for an ILI9163 SPI LCD device.
*
* @param panel_width[in] the width of the display panel
* @param panel_height[in] the height of the display panel
* @param chip_select_pin[in] the GPIO pin used for SPI chip select
* @param dc_pin[in] the GPIO pin used for D/C control
* @param reset_pin[in] the GPIO pin used for RST
* @param spi_divisor[in] the SPI divisor to use when communicating with the display
* @param spi_mode[in] the SPI mode to use when communicating with the display
* @return the device handle used with all drawing routines in Quantum Painter
*/
painter_device_t qp_ili9163_make_spi_device(uint16_t panel_width, uint16_t panel_height, pin_t chip_select_pin, pin_t dc_pin, pin_t reset_pin, uint16_t spi_divisor, int spi_mode);
#endif // QUANTUM_PAINTER_ILI9163_SPI_ENABLE

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// Copyright 2021 Nick Brassel (@tzarc)
// SPDX-License-Identifier: GPL-2.0-or-later
#include "qp_internal.h"
#include "qp_comms.h"
#include "qp_ili9341.h"
#include "qp_ili9xxx_opcodes.h"
#include "qp_tft_panel.h"
#ifdef QUANTUM_PAINTER_ILI9341_SPI_ENABLE
# include <qp_comms_spi.h>
#endif // QUANTUM_PAINTER_ILI9341_SPI_ENABLE
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Common
// Driver storage
tft_panel_dc_reset_painter_device_t ili9341_drivers[ILI9341_NUM_DEVICES] = {0};
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Initialization
bool qp_ili9341_init(painter_device_t device, painter_rotation_t rotation) {
// clang-format off
const uint8_t ili9341_init_sequence[] = {
// Command, Delay, N, Data[N]
ILI9XXX_CMD_RESET, 120, 0,
ILI9XXX_CMD_SLEEP_OFF, 5, 0,
ILI9XXX_POWER_CTL_A, 0, 5, 0x39, 0x2C, 0x00, 0x34, 0x02,
ILI9XXX_POWER_CTL_B, 0, 3, 0x00, 0xD9, 0x30,
ILI9XXX_POWER_ON_SEQ_CTL, 0, 4, 0x64, 0x03, 0x12, 0x81,
ILI9XXX_SET_PUMP_RATIO_CTL, 0, 1, 0x20,
ILI9XXX_SET_POWER_CTL_1, 0, 1, 0x26,
ILI9XXX_SET_POWER_CTL_2, 0, 1, 0x11,
ILI9XXX_SET_VCOM_CTL_1, 0, 2, 0x35, 0x3E,
ILI9XXX_SET_VCOM_CTL_2, 0, 1, 0xBE,
ILI9XXX_DRV_TIMING_CTL_A, 0, 3, 0x85, 0x10, 0x7A,
ILI9XXX_DRV_TIMING_CTL_B, 0, 2, 0x00, 0x00,
ILI9XXX_SET_BRIGHTNESS, 0, 1, 0xFF,
ILI9XXX_ENABLE_3_GAMMA, 0, 1, 0x00,
ILI9XXX_SET_GAMMA, 0, 1, 0x01,
ILI9XXX_SET_PGAMMA, 0, 15, 0x0F, 0x29, 0x24, 0x0C, 0x0E, 0x09, 0x4E, 0x78, 0x3C, 0x09, 0x13, 0x05, 0x17, 0x11, 0x00,
ILI9XXX_SET_NGAMMA, 0, 15, 0x00, 0x16, 0x1B, 0x04, 0x11, 0x07, 0x31, 0x33, 0x42, 0x05, 0x0C, 0x0A, 0x28, 0x2F, 0x0F,
ILI9XXX_SET_PIX_FMT, 0, 1, 0x05,
ILI9XXX_SET_FRAME_CTL_NORMAL, 0, 2, 0x00, 0x1B,
ILI9XXX_SET_FUNCTION_CTL, 0, 2, 0x0A, 0xA2,
ILI9XXX_CMD_PARTIAL_OFF, 0, 0,
ILI9XXX_CMD_DISPLAY_ON, 20, 0
};
// clang-format on
qp_comms_bulk_command_sequence(device, ili9341_init_sequence, sizeof(ili9341_init_sequence));
// Configure the rotation (i.e. the ordering and direction of memory writes in GRAM)
const uint8_t madctl[] = {
[QP_ROTATION_0] = ILI9XXX_MADCTL_BGR,
[QP_ROTATION_90] = ILI9XXX_MADCTL_BGR | ILI9XXX_MADCTL_MX | ILI9XXX_MADCTL_MV,
[QP_ROTATION_180] = ILI9XXX_MADCTL_BGR | ILI9XXX_MADCTL_MX | ILI9XXX_MADCTL_MY,
[QP_ROTATION_270] = ILI9XXX_MADCTL_BGR | ILI9XXX_MADCTL_MV | ILI9XXX_MADCTL_MY,
};
qp_comms_command_databyte(device, ILI9XXX_SET_MEM_ACS_CTL, madctl[rotation]);
return true;
}
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Driver vtable
const struct tft_panel_dc_reset_painter_driver_vtable_t ili9341_driver_vtable = {
.base =
{
.init = qp_ili9341_init,
.power = qp_tft_panel_power,
.clear = qp_tft_panel_clear,
.flush = qp_tft_panel_flush,
.pixdata = qp_tft_panel_pixdata,
.viewport = qp_tft_panel_viewport,
.palette_convert = qp_tft_panel_palette_convert,
.append_pixels = qp_tft_panel_append_pixels,
},
.rgb888_to_native16bit = qp_rgb888_to_rgb565_swapped,
.num_window_bytes = 2,
.swap_window_coords = false,
.opcodes =
{
.display_on = ILI9XXX_CMD_DISPLAY_ON,
.display_off = ILI9XXX_CMD_DISPLAY_OFF,
.set_column_address = ILI9XXX_SET_COL_ADDR,
.set_row_address = ILI9XXX_SET_PAGE_ADDR,
.enable_writes = ILI9XXX_SET_MEM,
},
};
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// SPI
#ifdef QUANTUM_PAINTER_ILI9341_SPI_ENABLE
// Factory function for creating a handle to the ILI9341 device
painter_device_t qp_ili9341_make_spi_device(uint16_t panel_width, uint16_t panel_height, pin_t chip_select_pin, pin_t dc_pin, pin_t reset_pin, uint16_t spi_divisor, int spi_mode) {
for (uint32_t i = 0; i < ILI9341_NUM_DEVICES; ++i) {
tft_panel_dc_reset_painter_device_t *driver = &ili9341_drivers[i];
if (!driver->base.driver_vtable) {
driver->base.driver_vtable = (const struct painter_driver_vtable_t *)&ili9341_driver_vtable;
driver->base.comms_vtable = (const struct painter_comms_vtable_t *)&spi_comms_with_dc_vtable;
driver->base.native_bits_per_pixel = 16; // RGB565
driver->base.panel_width = panel_width;
driver->base.panel_height = panel_height;
driver->base.rotation = QP_ROTATION_0;
driver->base.offset_x = 0;
driver->base.offset_y = 0;
// SPI and other pin configuration
driver->base.comms_config = &driver->spi_dc_reset_config;
driver->spi_dc_reset_config.spi_config.chip_select_pin = chip_select_pin;
driver->spi_dc_reset_config.spi_config.divisor = spi_divisor;
driver->spi_dc_reset_config.spi_config.lsb_first = false;
driver->spi_dc_reset_config.spi_config.mode = spi_mode;
driver->spi_dc_reset_config.dc_pin = dc_pin;
driver->spi_dc_reset_config.reset_pin = reset_pin;
return (painter_device_t)driver;
}
}
return NULL;
}
#endif // QUANTUM_PAINTER_ILI9341_SPI_ENABLE
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////

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// Copyright 2021 Nick Brassel (@tzarc)
// SPDX-License-Identifier: GPL-2.0-or-later
#pragma once
#include "gpio.h"
#include "qp_internal.h"
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter ILI9341 configurables (add to your keyboard's config.h)
#ifndef ILI9341_NUM_DEVICES
/**
* @def This controls the maximum number of ILI9341 devices that Quantum Painter can communicate with at any one time.
* Increasing this number allows for multiple displays to be used.
*/
# define ILI9341_NUM_DEVICES 1
#endif
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter ILI9341 device factories
#ifdef QUANTUM_PAINTER_ILI9341_SPI_ENABLE
/**
* Factory method for an ILI9341 SPI LCD device.
*
* @param panel_width[in] the width of the display panel
* @param panel_height[in] the height of the display panel
* @param chip_select_pin[in] the GPIO pin used for SPI chip select
* @param dc_pin[in] the GPIO pin used for D/C control
* @param reset_pin[in] the GPIO pin used for RST
* @param spi_divisor[in] the SPI divisor to use when communicating with the display
* @param spi_mode[in] the SPI mode to use when communicating with the display
* @return the device handle used with all drawing routines in Quantum Painter
*/
painter_device_t qp_ili9341_make_spi_device(uint16_t panel_width, uint16_t panel_height, pin_t chip_select_pin, pin_t dc_pin, pin_t reset_pin, uint16_t spi_divisor, int spi_mode);
#endif // QUANTUM_PAINTER_ILI9341_SPI_ENABLE

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// Copyright 2021 Nick Brassel (@tzarc)
// SPDX-License-Identifier: GPL-2.0-or-later
#pragma once
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter ILI9xxx command opcodes
#define ILI9XXX_CMD_NOP 0x00 // No operation
#define ILI9XXX_CMD_RESET 0x01 // Software reset
#define ILI9XXX_GET_ID_INFO 0x04 // Get ID information
#define ILI9XXX_GET_STATUS 0x09 // Get status
#define ILI9XXX_GET_PWR_MODE 0x0A // Get power mode
#define ILI9XXX_GET_MADCTL 0x0B // Get MADCTL
#define ILI9XXX_GET_PIX_FMT 0x0C // Get pixel format
#define ILI9XXX_GET_IMG_FMT 0x0D // Get image format
#define ILI9XXX_GET_SIG_MODE 0x0E // Get signal mode
#define ILI9XXX_GET_SELF_DIAG 0x0F // Get self-diagnostics
#define ILI9XXX_CMD_SLEEP_ON 0x10 // Enter sleep mode
#define ILI9XXX_CMD_SLEEP_OFF 0x11 // Exist sleep mode
#define ILI9XXX_CMD_PARTIAL_ON 0x12 // Enter partial mode
#define ILI9XXX_CMD_PARTIAL_OFF 0x13 // Exit partial mode
#define ILI9XXX_CMD_INVERT_ON 0x20 // Enter inverted mode
#define ILI9XXX_CMD_INVERT_OFF 0x21 // Exit inverted mode
#define ILI9XXX_SET_GAMMA 0x26 // Set gamma params
#define ILI9XXX_CMD_DISPLAY_OFF 0x28 // Disable display
#define ILI9XXX_CMD_DISPLAY_ON 0x29 // Enable display
#define ILI9XXX_SET_COL_ADDR 0x2A // Set column address
#define ILI9XXX_SET_PAGE_ADDR 0x2B // Set page address
#define ILI9XXX_SET_MEM 0x2C // Set memory
#define ILI9XXX_SET_COLOR 0x2D // Set color
#define ILI9XXX_GET_MEM 0x2E // Get memory
#define ILI9XXX_SET_PARTIAL_AREA 0x30 // Set partial area
#define ILI9XXX_SET_VSCROLL 0x33 // Set vertical scroll def
#define ILI9XXX_CMD_TEARING_ON 0x34 // Tearing line enabled
#define ILI9XXX_CMD_TEARING_OFF 0x35 // Tearing line disabled
#define ILI9XXX_SET_MEM_ACS_CTL 0x36 // Set mem access ctl
#define ILI9XXX_SET_VSCROLL_ADDR 0x37 // Set vscroll start addr
#define ILI9XXX_CMD_IDLE_OFF 0x38 // Exit idle mode
#define ILI9XXX_CMD_IDLE_ON 0x39 // Enter idle mode
#define ILI9XXX_SET_PIX_FMT 0x3A // Set pixel format
#define ILI9XXX_SET_MEM_CONT 0x3C // Set memory continue
#define ILI9XXX_GET_MEM_CONT 0x3E // Get memory continue
#define ILI9XXX_SET_TEAR_SCANLINE 0x44 // Set tearing scanline
#define ILI9XXX_GET_TEAR_SCANLINE 0x45 // Get tearing scanline
#define ILI9XXX_SET_BRIGHTNESS 0x51 // Set brightness
#define ILI9XXX_GET_BRIGHTNESS 0x52 // Get brightness
#define ILI9XXX_SET_DISPLAY_CTL 0x53 // Set display ctl
#define ILI9XXX_GET_DISPLAY_CTL 0x54 // Get display ctl
#define ILI9XXX_SET_CABC 0x55 // Set CABC
#define ILI9XXX_GET_CABC 0x56 // Get CABC
#define ILI9XXX_SET_CABC_MIN 0x5E // Set CABC min
#define ILI9XXX_GET_CABC_MIN 0x5F // Set CABC max
#define ILI9XXX_GET_ID1 0xDA // Get ID1
#define ILI9XXX_GET_ID2 0xDB // Get ID2
#define ILI9XXX_GET_ID3 0xDC // Get ID3
#define ILI9XXX_SET_RGB_IF_SIG_CTL 0xB0 // RGB IF signal ctl
#define ILI9XXX_SET_FRAME_CTL_NORMAL 0xB1 // Set frame ctl (normal)
#define ILI9XXX_SET_FRAME_CTL_IDLE 0xB2 // Set frame ctl (idle)
#define ILI9XXX_SET_FRAME_CTL_PARTIAL 0xB3 // Set frame ctl (partial)
#define ILI9XXX_SET_INVERSION_CTL 0xB4 // Set inversion ctl
#define ILI9XXX_SET_BLANKING_PORCH_CTL 0xB5 // Set blanking porch ctl
#define ILI9XXX_SET_FUNCTION_CTL 0xB6 // Set function ctl
#define ILI9XXX_SET_ENTRY_MODE 0xB7 // Set entry mode
#define ILI9XXX_SET_LIGHT_CTL_1 0xB8 // Set backlight ctl 1
#define ILI9XXX_SET_LIGHT_CTL_2 0xB9 // Set backlight ctl 2
#define ILI9XXX_SET_LIGHT_CTL_3 0xBA // Set backlight ctl 3
#define ILI9XXX_SET_LIGHT_CTL_4 0xBB // Set backlight ctl 4
#define ILI9XXX_SET_LIGHT_CTL_5 0xBC // Set backlight ctl 5
#define ILI9XXX_SET_LIGHT_CTL_7 0xBE // Set backlight ctl 7
#define ILI9XXX_SET_LIGHT_CTL_8 0xBF // Set backlight ctl 8
#define ILI9XXX_SET_POWER_CTL_1 0xC0 // Set power ctl 1
#define ILI9XXX_SET_POWER_CTL_2 0xC1 // Set power ctl 2
#define ILI9XXX_SET_VCOM_CTL_1 0xC5 // Set VCOM ctl 1
#define ILI9XXX_SET_VCOM_CTL_2 0xC7 // Set VCOM ctl 2
#define ILI9XXX_POWER_CTL_A 0xCB // Set power control A
#define ILI9XXX_POWER_CTL_B 0xCF // Set power control B
#define ILI9XXX_DRV_TIMING_CTL_A 0xE8 // Set driver timing control A
#define ILI9XXX_DRV_TIMING_CTL_B 0xEA // Set driver timing control B
#define ILI9XXX_POWER_ON_SEQ_CTL 0xED // Set Power on sequence control
#define ILI9XXX_SET_NVMEM 0xD0 // Set NVMEM data
#define ILI9XXX_GET_NVMEM_KEY 0xD1 // Get NVMEM protect key
#define ILI9XXX_GET_NVMEM_STATUS 0xD2 // Get NVMEM status
#define ILI9XXX_GET_ID4 0xD3 // Get ID4
#define ILI9XXX_SET_PGAMMA 0xE0 // Set positive gamma
#define ILI9XXX_SET_NGAMMA 0xE1 // Set negative gamma
#define ILI9XXX_SET_DGAMMA_CTL_1 0xE2 // Set digital gamma ctl 1
#define ILI9XXX_SET_DGAMMA_CTL_2 0xE3 // Set digital gamma ctl 2
#define ILI9XXX_ENABLE_3_GAMMA 0xF2 // Enable 3 gamma
#define ILI9XXX_SET_IF_CTL 0xF6 // Set interface control
#define ILI9XXX_SET_PUMP_RATIO_CTL 0xF7 // Set pump ratio control
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// MADCTL Flags
#define ILI9XXX_MADCTL_MY 0b10000000
#define ILI9XXX_MADCTL_MX 0b01000000
#define ILI9XXX_MADCTL_MV 0b00100000
#define ILI9XXX_MADCTL_ML 0b00010000
#define ILI9XXX_MADCTL_RGB 0b00000000
#define ILI9XXX_MADCTL_BGR 0b00001000
#define ILI9XXX_MADCTL_MH 0b00000100

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// Copyright 2021 Nick Brassel (@tzarc)
// SPDX-License-Identifier: GPL-2.0-or-later
#include "qp_internal.h"
#include "qp_comms.h"
#include "qp_ssd1351.h"
#include "qp_ssd1351_opcodes.h"
#include "qp_tft_panel.h"
#ifdef QUANTUM_PAINTER_SSD1351_SPI_ENABLE
# include "qp_comms_spi.h"
#endif // QUANTUM_PAINTER_SSD1351_SPI_ENABLE
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Common
// Driver storage
tft_panel_dc_reset_painter_device_t ssd1351_drivers[SSD1351_NUM_DEVICES] = {0};
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Initialization
bool qp_ssd1351_init(painter_device_t device, painter_rotation_t rotation) {
tft_panel_dc_reset_painter_device_t *driver = (tft_panel_dc_reset_painter_device_t *)device;
// clang-format off
const uint8_t ssd1351_init_sequence[] = {
// Command, Delay, N, Data[N]
SSD1351_COMMANDLOCK, 5, 1, 0x12,
SSD1351_COMMANDLOCK, 5, 1, 0xB1,
SSD1351_DISPLAYOFF, 5, 0,
SSD1351_CLOCKDIV, 5, 1, 0xF1,
SSD1351_MUXRATIO, 5, 1, 0x7F,
SSD1351_DISPLAYOFFSET, 5, 1, 0x00,
SSD1351_SETGPIO, 5, 1, 0x00,
SSD1351_FUNCTIONSELECT, 5, 1, 0x01,
SSD1351_PRECHARGE, 5, 1, 0x32,
SSD1351_VCOMH, 5, 1, 0x05,
SSD1351_NORMALDISPLAY, 5, 0,
SSD1351_CONTRASTABC, 5, 3, 0xC8, 0x80, 0xC8,
SSD1351_CONTRASTMASTER, 5, 1, 0x0F,
SSD1351_SETVSL, 5, 3, 0xA0, 0xB5, 0x55,
SSD1351_PRECHARGE2, 5, 1, 0x01,
SSD1351_DISPLAYON, 5, 0,
};
// clang-format on
qp_comms_bulk_command_sequence(device, ssd1351_init_sequence, sizeof(ssd1351_init_sequence));
// Configure the rotation (i.e. the ordering and direction of memory writes in GRAM)
const uint8_t madctl[] = {
[QP_ROTATION_0] = SSD1351_MADCTL_BGR | SSD1351_MADCTL_MY,
[QP_ROTATION_90] = SSD1351_MADCTL_BGR | SSD1351_MADCTL_MX | SSD1351_MADCTL_MY | SSD1351_MADCTL_MV,
[QP_ROTATION_180] = SSD1351_MADCTL_BGR | SSD1351_MADCTL_MX,
[QP_ROTATION_270] = SSD1351_MADCTL_BGR | SSD1351_MADCTL_MV,
};
qp_comms_command_databyte(device, SSD1351_SETREMAP, madctl[rotation]);
qp_comms_command_databyte(device, SSD1351_STARTLINE, (rotation == QP_ROTATION_0 || rotation == QP_ROTATION_90) ? driver->base.panel_height : 0);
return true;
}
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Driver vtable
const struct tft_panel_dc_reset_painter_driver_vtable_t ssd1351_driver_vtable = {
.base =
{
.init = qp_ssd1351_init,
.power = qp_tft_panel_power,
.clear = qp_tft_panel_clear,
.flush = qp_tft_panel_flush,
.pixdata = qp_tft_panel_pixdata,
.viewport = qp_tft_panel_viewport,
.palette_convert = qp_tft_panel_palette_convert,
.append_pixels = qp_tft_panel_append_pixels,
},
.rgb888_to_native16bit = qp_rgb888_to_rgb565_swapped,
.num_window_bytes = 1,
.swap_window_coords = true,
.opcodes =
{
.display_on = SSD1351_DISPLAYON,
.display_off = SSD1351_DISPLAYOFF,
.set_column_address = SSD1351_SETCOLUMN,
.set_row_address = SSD1351_SETROW,
.enable_writes = SSD1351_WRITERAM,
},
};
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// SPI
#ifdef QUANTUM_PAINTER_SSD1351_SPI_ENABLE
// Factory function for creating a handle to the SSD1351 device
painter_device_t qp_ssd1351_make_spi_device(uint16_t panel_width, uint16_t panel_height, pin_t chip_select_pin, pin_t dc_pin, pin_t reset_pin, uint16_t spi_divisor, int spi_mode) {
for (uint32_t i = 0; i < SSD1351_NUM_DEVICES; ++i) {
tft_panel_dc_reset_painter_device_t *driver = &ssd1351_drivers[i];
if (!driver->base.driver_vtable) {
driver->base.driver_vtable = (const struct painter_driver_vtable_t *)&ssd1351_driver_vtable;
driver->base.comms_vtable = (const struct painter_comms_vtable_t *)&spi_comms_with_dc_vtable;
driver->base.panel_width = panel_width;
driver->base.panel_height = panel_height;
driver->base.rotation = QP_ROTATION_0;
driver->base.offset_x = 0;
driver->base.offset_y = 0;
driver->base.native_bits_per_pixel = 16; // RGB565
// SPI and other pin configuration
driver->base.comms_config = &driver->spi_dc_reset_config;
driver->spi_dc_reset_config.spi_config.chip_select_pin = chip_select_pin;
driver->spi_dc_reset_config.spi_config.divisor = spi_divisor;
driver->spi_dc_reset_config.spi_config.lsb_first = false;
driver->spi_dc_reset_config.spi_config.mode = spi_mode;
driver->spi_dc_reset_config.dc_pin = dc_pin;
driver->spi_dc_reset_config.reset_pin = reset_pin;
return (painter_device_t)driver;
}
}
return NULL;
}
#endif // QUANTUM_PAINTER_SSD1351_SPI_ENABLE
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////

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// Copyright 2021 Nick Brassel (@tzarc)
// SPDX-License-Identifier: GPL-2.0-or-later
#pragma once
#include "gpio.h"
#include "qp_internal.h"
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter SSD1351 configurables (add to your keyboard's config.h)
#ifndef SSD1351_NUM_DEVICES
/**
* @def This controls the maximum number of SSD1351 devices that Quantum Painter can communicate with at any one time.
* Increasing this number allows for multiple displays to be used.
*/
# define SSD1351_NUM_DEVICES 1
#endif
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter SSD1351 device factories
#ifdef QUANTUM_PAINTER_SSD1351_SPI_ENABLE
/**
* Factory method for an SSD1351 SPI OLED device.
*
* @param panel_width[in] the width of the display panel
* @param panel_height[in] the height of the display panel
* @param chip_select_pin[in] the GPIO pin used for SPI chip select
* @param dc_pin[in] the GPIO pin used for D/C control
* @param reset_pin[in] the GPIO pin used for RST
* @param spi_divisor[in] the SPI divisor to use when communicating with the display
* @param spi_mode[in] the SPI mode to use when communicating with the display
* @return the device handle used with all drawing routines in Quantum Painter
*/
painter_device_t qp_ssd1351_make_spi_device(uint16_t panel_width, uint16_t panel_height, pin_t chip_select_pin, pin_t dc_pin, pin_t reset_pin, uint16_t spi_divisor, int spi_mode);
#endif // QUANTUM_PAINTER_SSD1351_SPI_ENABLE

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// Copyright 2021 Nick Brassel (@tzarc)
// SPDX-License-Identifier: GPL-2.0-or-later
#pragma once
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter SSD1351 command opcodes
// System function commands
#define SSD1351_SETCOLUMN 0x15
#define SSD1351_SETROW 0x75
#define SSD1351_WRITERAM 0x5C
#define SSD1351_READRAM 0x5D
#define SSD1351_SETREMAP 0xA0
#define SSD1351_STARTLINE 0xA1
#define SSD1351_DISPLAYOFFSET 0xA2
#define SSD1351_DISPLAYALLOFF 0xA4
#define SSD1351_DISPLAYALLON 0xA5
#define SSD1351_NORMALDISPLAY 0xA6
#define SSD1351_INVERTDISPLAY 0xA7
#define SSD1351_FUNCTIONSELECT 0xAB
#define SSD1351_DISPLAYOFF 0xAE
#define SSD1351_DISPLAYON 0xAF
#define SSD1351_PRECHARGE 0xB1
#define SSD1351_DISPLAYENHANCE 0xB2
#define SSD1351_CLOCKDIV 0xB3
#define SSD1351_SETVSL 0xB4
#define SSD1351_SETGPIO 0xB5
#define SSD1351_PRECHARGE2 0xB6
#define SSD1351_SETGRAY 0xB8
#define SSD1351_USELUT 0xB9
#define SSD1351_PRECHARGELEVEL 0xBB
#define SSD1351_VCOMH 0xBE
#define SSD1351_CONTRASTABC 0xC1
#define SSD1351_CONTRASTMASTER 0xC7
#define SSD1351_MUXRATIO 0xCA
#define SSD1351_COMMANDLOCK 0xFD
#define SSD1351_HORIZSCROLL 0x96
#define SSD1351_STOPSCROLL 0x9E
#define SSD1351_STARTSCROLL 0x9F
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// SETREMAP (MADCTL) Flags
#define SSD1351_MADCTL_MY 0b00010000
#define SSD1351_MADCTL_MX 0b00000010
#define SSD1351_MADCTL_MV 0b00000001
#define SSD1351_MADCTL_RGB 0b01100000
#define SSD1351_MADCTL_BGR 0b01100100

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// Copyright 2021 Paul Cotter (@gr1mr3aver)
// Copyright 2021 Nick Brassel (@tzarc)
// SPDX-License-Identifier: GPL-2.0-or-later
#include "qp_internal.h"
#include "qp_comms.h"
#include "qp_st7789.h"
#include "qp_st77xx_opcodes.h"
#include "qp_st7789_opcodes.h"
#include "qp_tft_panel.h"
#ifdef QUANTUM_PAINTER_ST7789_SPI_ENABLE
# include "qp_comms_spi.h"
#endif // QUANTUM_PAINTER_ST7789_SPI_ENABLE
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Common
// Driver storage
tft_panel_dc_reset_painter_device_t st7789_drivers[ST7789_NUM_DEVICES] = {0};
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Automatic viewport offsets
#ifndef ST7789_NO_AUTOMATIC_OFFSETS
static inline void st7789_automatic_viewport_offsets(painter_device_t device, painter_rotation_t rotation) {
struct painter_driver_t *driver = (struct painter_driver_t *)device;
// clang-format off
const struct {
uint16_t offset_x;
uint16_t offset_y;
} rotation_offsets_240x240[] = {
[QP_ROTATION_0] = { .offset_x = 0, .offset_y = 0 },
[QP_ROTATION_90] = { .offset_x = 0, .offset_y = 0 },
[QP_ROTATION_180] = { .offset_x = 0, .offset_y = 80 },
[QP_ROTATION_270] = { .offset_x = 80, .offset_y = 0 },
};
// clang-format on
if (driver->panel_width == 240 && driver->panel_height == 240) {
driver->offset_x = rotation_offsets_240x240[rotation].offset_x;
driver->offset_y = rotation_offsets_240x240[rotation].offset_y;
}
}
#endif // ST7789_NO_AUTOMATIC_OFFSETS
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Initialization
bool qp_st7789_init(painter_device_t device, painter_rotation_t rotation) {
// clang-format off
const uint8_t st7789_init_sequence[] = {
// Command, Delay, N, Data[N]
ST77XX_CMD_RESET, 120, 0,
ST77XX_CMD_SLEEP_OFF, 5, 0,
ST77XX_SET_PIX_FMT, 0, 1, 0x55,
ST77XX_CMD_INVERT_ON, 0, 0,
ST77XX_CMD_NORMAL_ON, 0, 0,
ST77XX_CMD_DISPLAY_ON, 20, 0
};
// clang-format on
qp_comms_bulk_command_sequence(device, st7789_init_sequence, sizeof(st7789_init_sequence));
// Configure the rotation (i.e. the ordering and direction of memory writes in GRAM)
const uint8_t madctl[] = {
[QP_ROTATION_0] = ST77XX_MADCTL_RGB,
[QP_ROTATION_90] = ST77XX_MADCTL_RGB | ST77XX_MADCTL_MX | ST77XX_MADCTL_MV,
[QP_ROTATION_180] = ST77XX_MADCTL_RGB | ST77XX_MADCTL_MX | ST77XX_MADCTL_MY,
[QP_ROTATION_270] = ST77XX_MADCTL_RGB | ST77XX_MADCTL_MV | ST77XX_MADCTL_MY,
};
qp_comms_command_databyte(device, ST77XX_SET_MADCTL, madctl[rotation]);
#ifndef ST7789_NO_AUTOMATIC_VIEWPORT_OFFSETS
st7789_automatic_viewport_offsets(device, rotation);
#endif // ST7789_NO_AUTOMATIC_VIEWPORT_OFFSETS
return true;
}
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Driver vtable
const struct tft_panel_dc_reset_painter_driver_vtable_t st7789_driver_vtable = {
.base =
{
.init = qp_st7789_init,
.power = qp_tft_panel_power,
.clear = qp_tft_panel_clear,
.flush = qp_tft_panel_flush,
.pixdata = qp_tft_panel_pixdata,
.viewport = qp_tft_panel_viewport,
.palette_convert = qp_tft_panel_palette_convert,
.append_pixels = qp_tft_panel_append_pixels,
},
.rgb888_to_native16bit = qp_rgb888_to_rgb565_swapped,
.num_window_bytes = 2,
.swap_window_coords = false,
.opcodes =
{
.display_on = ST77XX_CMD_DISPLAY_ON,
.display_off = ST77XX_CMD_DISPLAY_OFF,
.set_column_address = ST77XX_SET_COL_ADDR,
.set_row_address = ST77XX_SET_ROW_ADDR,
.enable_writes = ST77XX_SET_MEM,
},
};
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// SPI
#ifdef QUANTUM_PAINTER_ST7789_SPI_ENABLE
// Factory function for creating a handle to the ST7789 device
painter_device_t qp_st7789_make_spi_device(uint16_t panel_width, uint16_t panel_height, pin_t chip_select_pin, pin_t dc_pin, pin_t reset_pin, uint16_t spi_divisor, int spi_mode) {
for (uint32_t i = 0; i < ST7789_NUM_DEVICES; ++i) {
tft_panel_dc_reset_painter_device_t *driver = &st7789_drivers[i];
if (!driver->base.driver_vtable) {
driver->base.driver_vtable = (const struct painter_driver_vtable_t *)&st7789_driver_vtable;
driver->base.comms_vtable = (const struct painter_comms_vtable_t *)&spi_comms_with_dc_vtable;
driver->base.panel_width = panel_width;
driver->base.panel_height = panel_height;
driver->base.rotation = QP_ROTATION_0;
driver->base.offset_x = 0;
driver->base.offset_y = 0;
driver->base.native_bits_per_pixel = 16; // RGB565
// SPI and other pin configuration
driver->base.comms_config = &driver->spi_dc_reset_config;
driver->spi_dc_reset_config.spi_config.chip_select_pin = chip_select_pin;
driver->spi_dc_reset_config.spi_config.divisor = spi_divisor;
driver->spi_dc_reset_config.spi_config.lsb_first = false;
driver->spi_dc_reset_config.spi_config.mode = spi_mode;
driver->spi_dc_reset_config.dc_pin = dc_pin;
driver->spi_dc_reset_config.reset_pin = reset_pin;
return (painter_device_t)driver;
}
}
return NULL;
}
#endif // QUANTUM_PAINTER_ST7789_SPI_ENABLE
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////

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// Copyright 2021 Paul Cotter (@gr1mr3aver)
// Copyright 2021 Nick Brassel (@tzarc)
// SPDX-License-Identifier: GPL-2.0-or-later
#pragma once
#include "gpio.h"
#include "qp_internal.h"
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter ST7789 configurables (add to your keyboard's config.h)
#ifndef ST7789_NUM_DEVICES
/**
* @def This controls the maximum number of ST7789 devices that Quantum Painter can communicate with at any one time.
* Increasing this number allows for multiple displays to be used.
*/
# define ST7789_NUM_DEVICES 1
#endif
// Additional configuration options to be copied to your keyboard's config.h (don't change here):
// If you know exactly which offsets should be used on your panel with respect to selected rotation, then this config
// option allows you to save some flash space -- you'll need to invoke qp_set_viewport_offsets() instead from your keyboard.
// #define ST7789_NO_AUTOMATIC_VIEWPORT_OFFSETS
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter ST7789 device factories
#ifdef QUANTUM_PAINTER_ST7789_SPI_ENABLE
/**
* Factory method for an ST7789 SPI LCD device.
*
* @param panel_width[in] the width of the display panel
* @param panel_height[in] the height of the display panel
* @param chip_select_pin[in] the GPIO pin used for SPI chip select
* @param dc_pin[in] the GPIO pin used for D/C control
* @param reset_pin[in] the GPIO pin used for RST
* @param spi_divisor[in] the SPI divisor to use when communicating with the display
* @param spi_mode[in] the SPI mode to use when communicating with the display
* @return the device handle used with all drawing routines in Quantum Painter
*/
painter_device_t qp_st7789_make_spi_device(uint16_t panel_width, uint16_t panel_height, pin_t chip_select_pin, pin_t dc_pin, pin_t reset_pin, uint16_t spi_divisor, int spi_mode);
#endif // QUANTUM_PAINTER_ST7789_SPI_ENABLE

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// Copyright 2021 Paul Cotter (@gr1mr3aver)
// SPDX-License-Identifier: GPL-2.0-or-later
#pragma once
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter ST7789 additional command opcodes
// System function commands
#define ST7789_GET_SELF_DIAG 0x0F // Get self-diagnostic result
#define ST7789_SET_VERT_SCRL 0x33 // Set vertical scroll definition
#define ST7789_SET_VERT_SCRL_ADDR 0x37 // SEt Vertical scroll start address
#define ST7789_SET_MEM_CONT 0x3C // Memory Write continue
#define ST7789_GET_MEM_CONT 0x3E // Memory Read continue
#define ST7789_SET_TEAR_LINE 0x44 // Set tear scanline
#define ST7789_GET_TEAR_LINE 0x45 // Get tear scanline
#define ST7789_SET_BRIGHTNESS 0x51 // Set display brightness
#define ST7789_GET_BRIGHTNESS 0x52 // Get display brightness
#define ST7789_SET_CTRL 0x53 // Set CTRL display
#define ST7789_GET_CTRL 0x54 // Get CTRL display value
#define ST7789_SET_CAB_COLOR 0x55 // Set content adaptive brightness control and color enhancement
#define ST7789_GET_CAB_COLOR 0x56 // Get content adaptive brightness control and color enhancement
#define ST7789_SET_CAB_BRIGHTNESS 0x5E // Set content adaptive minimum brightness
#define ST7789_GET_CAB_BRIGHTNESS 0x5F // Get content adaptive minimum brightness
#define ST7789_GET_ABC_SELF_DIAG 0x68 // Get Auto brightness control self diagnostics
// Panel Function Commands
#define ST7789_SET_RAM_CTL 0xB0 // Set RAM control
#define ST7789_SET_RGB_CTL 0xB1 // Set RGB control
#define ST7789_SET_PORCH_CTL 0xB2 // Set Porch control
#define ST7789_SET_FRAME_RATE_CTL_1 0xB3 // Set frame rate control 1
#define ST7789_SET_PARTIAL_CTL 0xB5 // Set Partial control
#define ST7789_SET_GATE_CTL 0xB7 // Set gate control
#define ST7789_SET_GATE_ON_TIMING 0xB8 // Set gate on timing adjustment
#define ST7789_SET_DIGITAL_GAMMA_ON 0xBA // Enable digital gamma
#define ST7789_SET_VCOM 0xBB // Set VCOM
#define ST7789_SET_POWER_SAVE 0xBC // Set power saving mode
#define ST7789_SET_DISP_OFF_POWER 0xBD // Set display off power saving
#define ST7789_SET_LCM_CTL 0xC0 // Set LCM control
#define ST7789_SET_IDS 0xC1 // Set IDs
#define ST7789_SET_VDV_VRH_ON 0xC2 // Set VDV and VRH command enable
#define ST7789_SET_VRH 0xC3 // Set VRH
#define ST7789_SET_VDV 0xC4 // Set VDV
#define ST7789_SET_VCOM_OFFSET 0xC5 // Set VCOM offset ctl
#define ST7789_SET_FRAME_RATE_CTL_2 0xC6 // Set frame rate control 2
#define ST7789_SET_CABC_CTL 0xC7 // Set CABC Control
#define ST7789_GET_REG_1 0xC8 // Get register value selection1
#define ST7789_GET_REG_2 0xCA // Get register value selection2
#define ST7789_SET_PWM_FREQ 0xCC // Set PWM frequency
#define ST7789_SET_POWER_CTL_1 0xD0 // Set power ctl 1
#define ST7789_SET_VAP_VAN_ON 0xD2 // Enable VAP/VAN signal output
#define ST7789_SET_CMD2_ENABLE 0xDF // Enable command 2
#define ST7789_SET_PGAMMA 0xE0 // Set positive gamma
#define ST7789_SET_NGAMMA 0xE1 // Set negative gamma
#define ST7789_SET_DIGITAL_GAMMA_RED 0xE2 // Set digital gamma lookup table for red
#define ST7789_SET_DIGITAL_GAMMA_BLUE 0xE3 // Get digital gamma lookup table for blue
#define ST7789_SET_GATE_CTL_2 0xE4 // Set gate control 2
#define ST7789_SET_SPI2_ENABLE 0xE7 // Enable SPI2
#define ST7789_SET_POWER_CTL_2 0xE8 // Set power ctl 2
#define ST7789_SET_EQ_TIME_CTL 0xE9 // Set equalize time control
#define ST7789_SET_PROG_CTL 0xEC // Set program control
#define ST7789_SET_PROG_MODE_ENABLE 0xFA // Set program mode enable
#define ST7789_SET_NVMEM 0xFC // Set NVMEM data
#define ST7789_SET_PROG_ACTION 0xFE // Set program action

51
drivers/painter/st77xx/qp_st77xx_opcodes.h Normal file
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@ -0,0 +1,51 @@
// Copyright 2021 Paul Cotter (@gr1mr3aver)
// SPDX-License-Identifier: GPL-2.0-or-later
#pragma once
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter ST77XX command opcodes
// System function commands
#define ST77XX_CMD_NOP 0x00 // No operation
#define ST77XX_CMD_RESET 0x01 // Software reset
#define ST77XX_GET_ID_INFO 0x04 // Get ID information
#define ST77XX_GET_STATUS 0x09 // Get status
#define ST77XX_GET_PWR_MODE 0x0A // Get power mode
#define ST77XX_GET_MADCTL 0x0B // Get mem access ctl
#define ST77XX_GET_PIX_FMT 0x0C // Get pixel format
#define ST77XX_GET_IMG_FMT 0x0D // Get image format
#define ST77XX_GET_SIG_MODE 0x0E // Get signal mode
#define ST77XX_CMD_SLEEP_ON 0x10 // Enter sleep mode
#define ST77XX_CMD_SLEEP_OFF 0x11 // Exist sleep mode
#define ST77XX_CMD_PARTIAL_ON 0x12 // Enter partial mode
#define ST77XX_CMD_NORMAL_ON 0x13 // Exit partial mode
#define ST77XX_CMD_INVERT_OFF 0x20 // Exit inverted mode
#define ST77XX_CMD_INVERT_ON 0x21 // Enter inverted mode
#define ST77XX_SET_GAMMA 0x26 // Set gamma params
#define ST77XX_CMD_DISPLAY_OFF 0x28 // Disable display
#define ST77XX_CMD_DISPLAY_ON 0x29 // Enable display
#define ST77XX_SET_COL_ADDR 0x2A // Set column address
#define ST77XX_SET_ROW_ADDR 0x2B // Set page (row) address
#define ST77XX_SET_MEM 0x2C // Set memory
#define ST77XX_GET_MEM 0x2E // Get memory
#define ST77XX_SET_PARTIAL_AREA 0x30 // Set partial area
#define ST77XX_CMD_TEARING_OFF 0x34 // Tearing line disabled
#define ST77XX_CMD_TEARING_ON 0x35 // Tearing line enabled
#define ST77XX_SET_MADCTL 0x36 // Set mem access ctl
#define ST77XX_CMD_IDLE_OFF 0x38 // Exit idle mode
#define ST77XX_CMD_IDLE_ON 0x39 // Enter idle mode
#define ST77XX_SET_PIX_FMT 0x3A // Set pixel format
#define ST77XX_GET_ID1 0xDA // Get ID1
#define ST77XX_GET_ID2 0xDB // Get ID2
#define ST77XX_GET_ID3 0xDC // Get ID3
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// MADCTL Flags
#define ST77XX_MADCTL_MY 0b10000000
#define ST77XX_MADCTL_MX 0b01000000
#define ST77XX_MADCTL_MV 0b00100000
#define ST77XX_MADCTL_ML 0b00010000
#define ST77XX_MADCTL_RGB 0b00000000
#define ST77XX_MADCTL_BGR 0b00001000
#define ST77XX_MADCTL_MH 0b00000100

130
drivers/painter/tft_panel/qp_tft_panel.c Normal file
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@ -0,0 +1,130 @@
// Copyright 2021 Nick Brassel (@tzarc)
// SPDX-License-Identifier: GPL-2.0-or-later
#include "color.h"
#include "qp_internal.h"
#include "qp_comms.h"
#include "qp_draw.h"
#include "qp_tft_panel.h"
#define BYTE_SWAP(x) (((((uint16_t)(x)) >> 8) & 0x00FF) | ((((uint16_t)(x)) << 8) & 0xFF00))
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Native pixel format conversion
uint16_t qp_rgb888_to_rgb565(uint8_t r, uint8_t g, uint8_t b) {
uint16_t rgb565 = (((uint16_t)r) >> 3) << 11 | (((uint16_t)g) >> 2) << 5 | (((uint16_t)b) >> 3);
return rgb565;
}
uint16_t qp_rgb888_to_rgb565_swapped(uint8_t r, uint8_t g, uint8_t b) {
uint16_t rgb565 = (((uint16_t)r) >> 3) << 11 | (((uint16_t)g) >> 2) << 5 | (((uint16_t)b) >> 3);
return BYTE_SWAP(rgb565);
}
uint16_t qp_rgb888_to_bgr565(uint8_t r, uint8_t g, uint8_t b) {
uint16_t bgr565 = (((uint16_t)b) >> 3) << 11 | (((uint16_t)g) >> 2) << 5 | (((uint16_t)r) >> 3);
return bgr565;
}
uint16_t qp_rgb888_to_bgr565_swapped(uint8_t r, uint8_t g, uint8_t b) {
uint16_t bgr565 = (((uint16_t)b) >> 3) << 11 | (((uint16_t)g) >> 2) << 5 | (((uint16_t)r) >> 3);
return BYTE_SWAP(bgr565);
}
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Quantum Painter API implementations
// Power control
bool qp_tft_panel_power(painter_device_t device, bool power_on) {
struct painter_driver_t * driver = (struct painter_driver_t *)device;
struct tft_panel_dc_reset_painter_driver_vtable_t *vtable = (struct tft_panel_dc_reset_painter_driver_vtable_t *)driver->driver_vtable;
qp_comms_command(device, power_on ? vtable->opcodes.display_on : vtable->opcodes.display_off);
return true;
}
// Screen clear
bool qp_tft_panel_clear(painter_device_t device) {
struct painter_driver_t *driver = (struct painter_driver_t *)device;
driver->driver_vtable->init(device, driver->rotation); // Re-init the LCD
return true;
}
// Screen flush
bool qp_tft_panel_flush(painter_device_t device) {
// No-op, as there's no framebuffer in RAM for this device.
return true;
}
// Viewport to draw to
bool qp_tft_panel_viewport(painter_device_t device, uint16_t left, uint16_t top, uint16_t right, uint16_t bottom) {
struct painter_driver_t * driver = (struct painter_driver_t *)device;
struct tft_panel_dc_reset_painter_driver_vtable_t *vtable = (struct tft_panel_dc_reset_painter_driver_vtable_t *)driver->driver_vtable;
// Fix up the drawing location if required
left += driver->offset_x;
right += driver->offset_x;
top += driver->offset_y;
bottom += driver->offset_y;
// Check if we need to manually swap the window coordinates based on whether or not we're in a sideways rotation
if (vtable->swap_window_coords && (driver->rotation == QP_ROTATION_90 || driver->rotation == QP_ROTATION_270)) {
uint16_t temp;
temp = left;
left = top;
top = temp;
temp = right;
right = bottom;
bottom = temp;
}
if (vtable->num_window_bytes == 1) {
// Set up the x-window
uint8_t xbuf[2] = {left & 0xFF, right & 0xFF};
qp_comms_command_databuf(device, vtable->opcodes.set_column_address, xbuf, sizeof(xbuf));
// Set up the y-window
uint8_t ybuf[2] = {top & 0xFF, bottom & 0xFF};
qp_comms_command_databuf(device, vtable->opcodes.set_row_address, ybuf, sizeof(ybuf));
} else if (vtable->num_window_bytes == 2) {
// Set up the x-window
uint8_t xbuf[4] = {left >> 8, left & 0xFF, right >> 8, right & 0xFF};
qp_comms_command_databuf(device, vtable->opcodes.set_column_address, xbuf, sizeof(xbuf));
// Set up the y-window
uint8_t ybuf[4] = {top >> 8, top & 0xFF, bottom >> 8, bottom & 0xFF};
qp_comms_command_databuf(device, vtable->opcodes.set_row_address, ybuf, sizeof(ybuf));
}
// Lock in the window
qp_comms_command(device, vtable->opcodes.enable_writes);
return true;
}
// Stream pixel data to the current write position in GRAM
bool qp_tft_panel_pixdata(painter_device_t device, const void *pixel_data, uint32_t native_pixel_count) {
qp_comms_send(device, pixel_data, native_pixel_count * sizeof(uint16_t));
return true;
}
// Convert supplied palette entries into their native equivalents
bool qp_tft_panel_palette_convert(painter_device_t device, int16_t palette_size, qp_pixel_t *palette) {
struct painter_driver_t * driver = (struct painter_driver_t *)device;
struct tft_panel_dc_reset_painter_driver_vtable_t *vtable = (struct tft_panel_dc_reset_painter_driver_vtable_t *)driver->driver_vtable;
for (int16_t i = 0; i < palette_size; ++i) {
RGB rgb = hsv_to_rgb_nocie((HSV){palette[i].hsv888.h, palette[i].hsv888.s, palette[i].hsv888.v});
palette[i].rgb565 = vtable->rgb888_to_native16bit(rgb.r, rgb.g, rgb.b);
}
return true;
}
// Append pixels to the target location, keyed by the pixel index
bool qp_tft_panel_append_pixels(painter_device_t device, uint8_t *target_buffer, qp_pixel_t *palette, uint32_t pixel_offset, uint32_t pixel_count, uint8_t *palette_indices) {
uint16_t *buf = (uint16_t *)target_buffer;
for (uint32_t i = 0; i < pixel_count; ++i) {
buf[pixel_offset + i] = palette[palette_indices[i]].rgb565;
}
return true;
}

67
drivers/painter/tft_panel/qp_tft_panel.h Normal file
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@ -0,0 +1,67 @@
// Copyright 2021 Nick Brassel (@tzarc)
// SPDX-License-Identifier: GPL-2.0-or-later
#include "color.h"
#include "qp_internal.h"
#ifdef QUANTUM_PAINTER_SPI_ENABLE
# include "qp_comms_spi.h"
#endif // QUANTUM_PAINTER_SPI_ENABLE
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Common TFT panel implementation using D/C, and RST pins.
typedef uint16_t (*rgb888_to_native_uint16_t)(uint8_t r, uint8_t g, uint8_t b);
// Driver vtable with extras
struct tft_panel_dc_reset_painter_driver_vtable_t {
struct painter_driver_vtable_t base; // must be first, so it can be cast to/from the painter_driver_vtable_t* type
// Conversion function for palette entries
rgb888_to_native_uint16_t rgb888_to_native16bit;
// Number of bytes for transmitting x/y coordinates
uint8_t num_window_bytes;
// Whether or not the x/y coords should be swapped on 90/270 rotation
bool swap_window_coords;
// Opcodes for normal display operation
struct {
uint8_t display_on;
uint8_t display_off;
uint8_t set_column_address;
uint8_t set_row_address;
uint8_t enable_writes;
} opcodes;
};
// Device definition
typedef struct tft_panel_dc_reset_painter_device_t {
struct painter_driver_t base; // must be first, so it can be cast to/from the painter_device_t* type
union {
#ifdef QUANTUM_PAINTER_SPI_ENABLE
// SPI-based configurables
struct qp_comms_spi_dc_reset_config_t spi_dc_reset_config;
#endif // QUANTUM_PAINTER_SPI_ENABLE
// TODO: I2C/parallel etc.
};
} tft_panel_dc_reset_painter_device_t;
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Forward declarations for injecting into concrete driver vtables
bool qp_tft_panel_power(painter_device_t device, bool power_on);
bool qp_tft_panel_clear(painter_device_t device);
bool qp_tft_panel_flush(painter_device_t device);
bool qp_tft_panel_viewport(painter_device_t device, uint16_t left, uint16_t top, uint16_t right, uint16_t bottom);
bool qp_tft_panel_pixdata(painter_device_t device, const void *pixel_data, uint32_t native_pixel_count);
bool qp_tft_panel_palette_convert(painter_device_t device, int16_t palette_size, qp_pixel_t *palette);
bool qp_tft_panel_append_pixels(painter_device_t device, uint8_t *target_buffer, qp_pixel_t *palette, uint32_t pixel_offset, uint32_t pixel_count, uint8_t *palette_indices);
uint16_t qp_rgb888_to_rgb565(uint8_t r, uint8_t g, uint8_t b);
uint16_t qp_rgb888_to_rgb565_swapped(uint8_t r, uint8_t g, uint8_t b);
uint16_t qp_rgb888_to_bgr565(uint8_t r, uint8_t g, uint8_t b);
uint16_t qp_rgb888_to_bgr565_swapped(uint8_t r, uint8_t g, uint8_t b);

181
drivers/sensors/pmw3360.c
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@ -1,6 +1,7 @@
/* Copyright 2020 Christopher Courtney, aka Drashna Jael're (@drashna) <drashna@live.com>
* Copyright 2019 Sunjun Kim
* Copyright 2020 Ploopy Corporation
* Copyright 2022 Ulrich Spörlein
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
@ -83,7 +84,11 @@
# define MAX_CPI 0x77
#endif
bool _inBurst = false;
static const pin_t pins[] = PMW3360_CS_PINS;
#define NUMBER_OF_SENSORS (sizeof(pins) / sizeof(pin_t))
// per-sensor driver state
static bool _inBurst[NUMBER_OF_SENSORS] = {0};
#ifdef CONSOLE_ENABLE
void print_byte(uint8_t byte) {
@ -92,18 +97,18 @@ void print_byte(uint8_t byte) {
#endif
#define constrain(amt, low, high) ((amt) < (low) ? (low) : ((amt) > (high) ? (high) : (amt)))
bool pmw3360_spi_start(void) {
bool status = spi_start(PMW3360_CS_PIN, PMW3360_SPI_LSBFIRST, PMW3360_SPI_MODE, PMW3360_SPI_DIVISOR);
bool pmw3360_spi_start(int8_t index) {
bool status = spi_start(pins[index], PMW3360_SPI_LSBFIRST, PMW3360_SPI_MODE, PMW3360_SPI_DIVISOR);
// tNCS-SCLK, 120ns
wait_us(1);
return status;
}
spi_status_t pmw3360_write(uint8_t reg_addr, uint8_t data) {
pmw3360_spi_start();
spi_status_t pmw3360_write(int8_t index, uint8_t reg_addr, uint8_t data) {
pmw3360_spi_start(index);
if (reg_addr != REG_Motion_Burst) {
_inBurst = false;
_inBurst[index] = false;
}
// send address of the register, with MSBit = 1 to indicate it's a write
@ -114,13 +119,13 @@ spi_status_t pmw3360_write(uint8_t reg_addr, uint8_t data) {
wait_us(35);
spi_stop();
// tSWW/tSWR (=180us) minus tSCLK-NCS. Could be shortened, but is looks like a safe lower bound
// tSWW/tSWR (=180us) minus tSCLK-NCS. Could be shortened, but it looks like a safe lower bound
wait_us(145);
return status;
}
uint8_t pmw3360_read(uint8_t reg_addr) {
pmw3360_spi_start();
uint8_t pmw3360_read(int8_t index, uint8_t reg_addr) {
pmw3360_spi_start(index);
// send adress of the register, with MSBit = 0 to indicate it's a read
spi_write(reg_addr & 0x7f);
// tSRAD (=160us)
@ -136,75 +141,24 @@ uint8_t pmw3360_read(uint8_t reg_addr) {
return data;
}
bool pmw3360_init(void) {
setPinOutput(PMW3360_CS_PIN);
spi_init();
_inBurst = false;
spi_stop();
pmw3360_spi_start();
spi_stop();
pmw3360_write(REG_Shutdown, 0xb6); // Shutdown first
wait_ms(300);
pmw3360_spi_start();
wait_us(40);
spi_stop();
wait_us(40);
// power up, need to first drive NCS high then low, see above.
pmw3360_write(REG_Power_Up_Reset, 0x5a);
wait_ms(50);
// read registers and discard
pmw3360_read(REG_Motion);
pmw3360_read(REG_Delta_X_L);
pmw3360_read(REG_Delta_X_H);
pmw3360_read(REG_Delta_Y_L);
pmw3360_read(REG_Delta_Y_H);
pmw3360_upload_firmware();
spi_stop();
wait_ms(10);
pmw3360_set_cpi(PMW3360_CPI);
wait_ms(1);
pmw3360_write(REG_Config2, 0x00);
pmw3360_write(REG_Angle_Tune, constrain(ROTATIONAL_TRANSFORM_ANGLE, -127, 127));
pmw3360_write(REG_Lift_Config, PMW3360_LIFTOFF_DISTANCE);
bool init_success = pmw3360_check_signature();
#ifdef CONSOLE_ENABLE
if (init_success) {
dprintf("pmw3360 signature verified");
} else {
dprintf("pmw3360 signature verification failed!");
}
#endif
writePinLow(PMW3360_CS_PIN);
return init_success;
bool pmw3360_check_signature(int8_t index) {
uint8_t pid = pmw3360_read(index, REG_Product_ID);
uint8_t iv_pid = pmw3360_read(index, REG_Inverse_Product_ID);
uint8_t SROM_ver = pmw3360_read(index, REG_SROM_ID);
return (pid == firmware_signature[0] && iv_pid == firmware_signature[1] && SROM_ver == firmware_signature[2]); // signature for SROM 0x04
}
void pmw3360_upload_firmware(void) {
void pmw3360_upload_firmware(int8_t index) {
// Datasheet claims we need to disable REST mode first, but during startup
// it's already disabled and we're not turning it on ...
// pmw3360_write(REG_Config2, 0x00); // disable REST mode
pmw3360_write(REG_SROM_Enable, 0x1d);
// pmw3360_write(index, REG_Config2, 0x00); // disable REST mode
pmw3360_write(index, REG_SROM_Enable, 0x1d);
wait_ms(10);
pmw3360_write(REG_SROM_Enable, 0x18);
pmw3360_write(index, REG_SROM_Enable, 0x18);
pmw3360_spi_start();
pmw3360_spi_start(index);
spi_write(REG_SROM_Load_Burst | 0x80);
wait_us(15);
@ -216,39 +170,88 @@ void pmw3360_upload_firmware(void) {
}
wait_us(200);
pmw3360_read(REG_SROM_ID);
pmw3360_write(REG_Config2, 0x00);
pmw3360_read(index, REG_SROM_ID);
pmw3360_write(index, REG_Config2, 0x00);
}
bool pmw3360_check_signature(void) {
uint8_t pid = pmw3360_read(REG_Product_ID);
uint8_t iv_pid = pmw3360_read(REG_Inverse_Product_ID);
uint8_t SROM_ver = pmw3360_read(REG_SROM_ID);
return (pid == firmware_signature[0] && iv_pid == firmware_signature[1] && SROM_ver == firmware_signature[2]); // signature for SROM 0x04
bool pmw3360_init(int8_t index) {
if (index >= NUMBER_OF_SENSORS) {
return false;
}
spi_init();
// power up, need to first drive NCS high then low.
// the datasheet does not say for how long, 40us works well in practice.
pmw3360_spi_start(index);
wait_us(40);
spi_stop();
wait_us(40);
pmw3360_write(index, REG_Power_Up_Reset, 0x5a);
wait_ms(50);
// read registers and discard
pmw3360_read(index, REG_Motion);
pmw3360_read(index, REG_Delta_X_L);
pmw3360_read(index, REG_Delta_X_H);
pmw3360_read(index, REG_Delta_Y_L);
pmw3360_read(index, REG_Delta_Y_H);
pmw3360_upload_firmware(index);
spi_stop();
wait_ms(10);
pmw3360_set_cpi(PMW3360_CPI);
wait_ms(1);
pmw3360_write(index, REG_Config2, 0x00);
pmw3360_write(index, REG_Angle_Tune, constrain(ROTATIONAL_TRANSFORM_ANGLE, -127, 127));
pmw3360_write(index, REG_Lift_Config, PMW3360_LIFTOFF_DISTANCE);
bool init_success = pmw3360_check_signature(index);
#ifdef CONSOLE_ENABLE
if (init_success) {
dprintf("pmw3360 signature verified");
} else {
dprintf("pmw3360 signature verification failed!");
}
#endif
return init_success;
}
// Only support reading the value from sensor #0, no one is using this anyway.
uint16_t pmw3360_get_cpi(void) {
uint8_t cpival = pmw3360_read(REG_Config1);
uint8_t cpival = pmw3360_read(0, REG_Config1);
return (uint16_t)((cpival + 1) & 0xFF) * CPI_STEP;
}
// Write same CPI to all sensors.
void pmw3360_set_cpi(uint16_t cpi) {
uint8_t cpival = constrain((cpi / CPI_STEP) - 1, 0, MAX_CPI);
pmw3360_write(REG_Config1, cpival);
for (size_t i = 0; i < NUMBER_OF_SENSORS; i++) {
pmw3360_write(i, REG_Config1, cpival);
}
}
report_pmw3360_t pmw3360_read_burst(void) {
report_pmw3360_t pmw3360_read_burst(int8_t index) {
report_pmw3360_t report = {0};
if (!_inBurst) {
#ifdef CONSOLE_ENABLE
dprintf("burst on");
#endif
pmw3360_write(REG_Motion_Burst, 0x00);
_inBurst = true;
if (index >= NUMBER_OF_SENSORS) {
return report;
}
pmw3360_spi_start();
if (!_inBurst[index]) {
#ifdef CONSOLE_ENABLE
dprintf("burst on for index %d", index);
#endif
pmw3360_write(index, REG_Motion_Burst, 0x00);
_inBurst[index] = true;
}
pmw3360_spi_start(index);
spi_write(REG_Motion_Burst);
wait_us(35); // waits for tSRAD_MOTBR
@ -261,7 +264,7 @@ report_pmw3360_t pmw3360_read_burst(void) {
report.mdy = spi_read();
if (report.motion & 0b111) { // panic recovery, sometimes burst mode works weird.
_inBurst = false;
_inBurst[index] = false;
}
spi_stop();

16
drivers/sensors/pmw3360.h
View file

@ -52,8 +52,14 @@
# define ROTATIONAL_TRANSFORM_ANGLE 0x00
#endif
#ifndef PMW3360_CS_PIN
# error "No chip select pin defined -- missing PMW3360_CS_PIN"
// Support single and plural spellings
#ifndef PMW3360_CS_PINS
# ifndef PMW3360_CS_PIN
# error "No chip select pin defined -- missing PMW3360_CS_PIN or PMW3360_CS_PINS"
# else
# define PMW3360_CS_PINS \
{ PMW3360_CS_PIN }
# endif
#endif
typedef struct {
@ -66,10 +72,8 @@ typedef struct {
int8_t mdy;
} report_pmw3360_t;
bool pmw3360_init(void);
void pmw3360_upload_firmware(void);
bool pmw3360_check_signature(void);
bool pmw3360_init(int8_t index);
uint16_t pmw3360_get_cpi(void);
void pmw3360_set_cpi(uint16_t cpi);
/* Reads and clears the current delta values on the sensor */
report_pmw3360_t pmw3360_read_burst(void);
report_pmw3360_t pmw3360_read_burst(int8_t index);

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