Merge remote-tracking branch 'qmk 0.17.0' into firmware21

This commit is contained in:
Drashna Jael're
2022-05-29 15:38:33 -07:00
337 changed files with 14741 additions and 2516 deletions

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@@ -1,5 +1,9 @@
"""Functions for working with config.h files.
"""
from pygments.lexers.c_cpp import CLexer
from pygments.token import Token
from pygments import lex
from itertools import islice
from pathlib import Path
import re
@@ -10,6 +14,14 @@ from qmk.comment_remover import comment_remover
default_key_entry = {'x': -1, 'y': 0, 'w': 1}
single_comment_regex = re.compile(r'\s+/[/*].*$')
multi_comment_regex = re.compile(r'/\*(.|\n)*?\*/', re.MULTILINE)
layout_macro_define_regex = re.compile(r'^#\s*define')
def _get_chunks(it, size):
"""Break down a collection into smaller parts
"""
it = iter(it)
return iter(lambda: tuple(islice(it, size)), ())
def strip_line_comment(string):
@@ -51,7 +63,7 @@ def find_layouts(file):
file_contents = file_contents.replace('\\\n', '')
for line in file_contents.split('\n'):
if line.startswith('#define') and '(' in line and 'LAYOUT' in line:
if layout_macro_define_regex.match(line.lstrip()) and '(' in line and 'LAYOUT' in line:
# We've found a LAYOUT macro
macro_name, layout, matrix = _parse_layout_macro(line.strip())
@@ -169,3 +181,110 @@ def _parse_matrix_locations(matrix, file, macro_name):
matrix_locations[identifier] = [row_num, col_num]
return matrix_locations
def _coerce_led_token(_type, value):
""" Convert token to valid info.json content
"""
value_map = {
'NO_LED': None,
'LED_FLAG_ALL': 0xFF,
'LED_FLAG_NONE': 0x00,
'LED_FLAG_MODIFIER': 0x01,
'LED_FLAG_UNDERGLOW': 0x02,
'LED_FLAG_KEYLIGHT': 0x04,
'LED_FLAG_INDICATOR': 0x08,
}
if _type is Token.Literal.Number.Integer:
return int(value)
if _type is Token.Literal.Number.Float:
return float(value)
if _type is Token.Literal.Number.Hex:
return int(value, 0)
if _type is Token.Name and value in value_map.keys():
return value_map[value]
def _parse_led_config(file, matrix_cols, matrix_rows):
"""Return any 'raw' led/rgb matrix config
"""
file_contents = file.read_text(encoding='utf-8')
file_contents = comment_remover(file_contents)
file_contents = file_contents.replace('\\\n', '')
matrix_raw = []
position_raw = []
flags = []
found_led_config = False
bracket_count = 0
section = 0
for _type, value in lex(file_contents, CLexer()):
# Assume g_led_config..stuff..;
if value == 'g_led_config':
found_led_config = True
elif value == ';':
found_led_config = False
elif found_led_config:
# Assume bracket count hints to section of config we are within
if value == '{':
bracket_count += 1
if bracket_count == 2:
section += 1
elif value == '}':
bracket_count -= 1
else:
# Assume any non whitespace value here is important enough to stash
if _type in [Token.Literal.Number.Integer, Token.Literal.Number.Float, Token.Literal.Number.Hex, Token.Name]:
if section == 1 and bracket_count == 3:
matrix_raw.append(_coerce_led_token(_type, value))
if section == 2 and bracket_count == 3:
position_raw.append(_coerce_led_token(_type, value))
if section == 3 and bracket_count == 2:
flags.append(_coerce_led_token(_type, value))
# Slightly better intrim format
matrix = list(_get_chunks(matrix_raw, matrix_cols))
position = list(_get_chunks(position_raw, 2))
matrix_indexes = list(filter(lambda x: x is not None, matrix_raw))
# If we have not found anything - bail
if not section:
return None
# TODO: Improve crude parsing/validation
if len(matrix) != matrix_rows and len(matrix) != (matrix_rows / 2):
raise ValueError("Unable to parse g_led_config matrix data")
if len(position) != len(flags):
raise ValueError("Unable to parse g_led_config position data")
if len(matrix_indexes) and (max(matrix_indexes) >= len(flags)):
raise ValueError("OOB within g_led_config matrix data")
return (matrix, position, flags)
def find_led_config(file, matrix_cols, matrix_rows):
"""Search file for led/rgb matrix config
"""
found = _parse_led_config(file, matrix_cols, matrix_rows)
if not found:
return None
# Expand collected content
(matrix, position, flags) = found
# Align to output format
led_config = []
for index, item in enumerate(position, start=0):
led_config.append({
'x': item[0],
'y': item[1],
'flags': flags[index],
})
for r in range(len(matrix)):
for c in range(len(matrix[r])):
index = matrix[r][c]
if index is not None:
led_config[index]['matrix'] = [r, c]
return led_config

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@@ -16,7 +16,8 @@ import_names = {
# A mapping of package name to importable name
'pep8-naming': 'pep8ext_naming',
'pyusb': 'usb.core',
'qmk-dotty-dict': 'dotty_dict'
'qmk-dotty-dict': 'dotty_dict',
'pillow': 'PIL'
}
safe_commands = [
@@ -51,6 +52,7 @@ subcommands = [
'qmk.cli.generate.dfu_header',
'qmk.cli.generate.docs',
'qmk.cli.generate.info_json',
'qmk.cli.generate.keyboard_c',
'qmk.cli.generate.keyboard_h',
'qmk.cli.generate.layouts',
'qmk.cli.generate.rgb_breathe_table',
@@ -67,6 +69,7 @@ subcommands = [
'qmk.cli.multibuild',
'qmk.cli.new.keyboard',
'qmk.cli.new.keymap',
'qmk.cli.painter',
'qmk.cli.pyformat',
'qmk.cli.pytest',
'qmk.cli.via2json',

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@@ -9,7 +9,7 @@ from milc import cli
from qmk.path import normpath
from qmk.c_parse import c_source_files
c_file_suffixes = ('c', 'h', 'cpp')
c_file_suffixes = ('c', 'h', 'cpp', 'hpp')
core_dirs = ('drivers', 'quantum', 'tests', 'tmk_core', 'platforms')
ignored = ('tmk_core/protocol/usb_hid', 'platforms/chibios/boards')

View File

@@ -1,7 +1,7 @@
"""This script automates the generation of the QMK API data.
"""
from pathlib import Path
from shutil import copyfile
import shutil
import json
from milc import cli
@@ -12,28 +12,42 @@ from qmk.json_encoders import InfoJSONEncoder
from qmk.json_schema import json_load
from qmk.keyboard import find_readme, list_keyboards
TEMPLATE_PATH = Path('data/templates/api/')
BUILD_API_PATH = Path('.build/api_data/')
@cli.argument('-n', '--dry-run', arg_only=True, action='store_true', help="Don't write the data to disk.")
@cli.argument('-f', '--filter', arg_only=True, action='append', default=[], help="Filter the list of keyboards based on partial name matches the supplied value. May be passed multiple times.")
@cli.subcommand('Creates a new keymap for the keyboard of your choosing', hidden=False if cli.config.user.developer else True)
def generate_api(cli):
"""Generates the QMK API data.
"""
api_data_dir = Path('api_data')
v1_dir = api_data_dir / 'v1'
if BUILD_API_PATH.exists():
shutil.rmtree(BUILD_API_PATH)
shutil.copytree(TEMPLATE_PATH, BUILD_API_PATH)
v1_dir = BUILD_API_PATH / 'v1'
keyboard_all_file = v1_dir / 'keyboards.json' # A massive JSON containing everything
keyboard_list_file = v1_dir / 'keyboard_list.json' # A simple list of keyboard targets
keyboard_aliases_file = v1_dir / 'keyboard_aliases.json' # A list of historical keyboard names and their new name
keyboard_metadata_file = v1_dir / 'keyboard_metadata.json' # All the data configurator/via needs for initialization
usb_file = v1_dir / 'usb.json' # A mapping of USB VID/PID -> keyboard target
if not api_data_dir.exists():
api_data_dir.mkdir()
# Filter down when required
keyboard_list = list_keyboards()
if cli.args.filter:
kb_list = []
for keyboard_name in keyboard_list:
if any(i in keyboard_name for i in cli.args.filter):
kb_list.append(keyboard_name)
keyboard_list = kb_list
kb_all = {}
usb_list = {}
# Generate and write keyboard specific JSON files
for keyboard_name in list_keyboards():
for keyboard_name in keyboard_list:
kb_all[keyboard_name] = info_json(keyboard_name)
keyboard_dir = v1_dir / 'keyboards' / keyboard_name
keyboard_info = keyboard_dir / 'info.json'
@@ -47,7 +61,7 @@ def generate_api(cli):
cli.log.debug('Wrote file %s', keyboard_info)
if keyboard_readme_src:
copyfile(keyboard_readme_src, keyboard_readme)
shutil.copyfile(keyboard_readme_src, keyboard_readme)
cli.log.debug('Copied %s -> %s', keyboard_readme_src, keyboard_readme)
if 'usb' in kb_all[keyboard_name]:

View File

@@ -5,10 +5,9 @@ from pathlib import Path
from dotty_dict import dotty
from milc import cli
from qmk.info import info_json
from qmk.json_schema import json_load, validate
from qmk.info import info_json, keymap_json_config
from qmk.json_schema import json_load
from qmk.keyboard import keyboard_completer, keyboard_folder
from qmk.keymap import locate_keymap
from qmk.commands import dump_lines
from qmk.path import normpath
from qmk.constants import GPL2_HEADER_C_LIKE, GENERATED_HEADER_C_LIKE
@@ -84,7 +83,7 @@ def generate_config_items(kb_info_json, config_h_lines):
for config_key, info_dict in info_config_map.items():
info_key = info_dict['info_key']
key_type = info_dict.get('value_type', 'str')
key_type = info_dict.get('value_type', 'raw')
to_config = info_dict.get('to_config', True)
if not to_config:
@@ -95,7 +94,12 @@ def generate_config_items(kb_info_json, config_h_lines):
except KeyError:
continue
if key_type.startswith('array'):
if key_type.startswith('array.array'):
config_h_lines.append('')
config_h_lines.append(f'#ifndef {config_key}')
config_h_lines.append(f'# define {config_key} {{ {", ".join(["{" + ",".join(list(map(str, x))) + "}" for x in config_value])} }}')
config_h_lines.append(f'#endif // {config_key}')
elif key_type.startswith('array'):
config_h_lines.append('')
config_h_lines.append(f'#ifndef {config_key}')
config_h_lines.append(f'# define {config_key} {{ {", ".join(map(str, config_value))} }}')
@@ -112,6 +116,11 @@ def generate_config_items(kb_info_json, config_h_lines):
config_h_lines.append(f'#ifndef {key}')
config_h_lines.append(f'# define {key} {value}')
config_h_lines.append(f'#endif // {key}')
elif key_type == 'str':
config_h_lines.append('')
config_h_lines.append(f'#ifndef {config_key}')
config_h_lines.append(f'# define {config_key} "{config_value}"')
config_h_lines.append(f'#endif // {config_key}')
elif key_type == 'bcd_version':
(major, minor, revision) = config_value.split('.')
config_h_lines.append('')
@@ -175,10 +184,7 @@ def generate_config_h(cli):
"""
# Determine our keyboard/keymap
if cli.args.keymap:
km = locate_keymap(cli.args.keyboard, cli.args.keymap)
km_json = json_load(km)
validate(km_json, 'qmk.keymap.v1')
kb_info_json = dotty(km_json.get('config', {}))
kb_info_json = dotty(keymap_json_config(cli.args.keyboard, cli.args.keymap))
else:
kb_info_json = dotty(info_json(cli.args.keyboard))

View File

@@ -10,6 +10,7 @@ DOCS_PATH = Path('docs/')
BUILD_PATH = Path('.build/')
BUILD_DOCS_PATH = BUILD_PATH / 'docs'
DOXYGEN_PATH = BUILD_PATH / 'doxygen'
MOXYGEN_PATH = BUILD_DOCS_PATH / 'internals'
@cli.subcommand('Build QMK documentation.', hidden=False if cli.config.user.developer else True)
@@ -34,10 +35,10 @@ def generate_docs(cli):
'stdin': DEVNULL,
}
cli.log.info('Generating internal docs...')
cli.log.info('Generating docs...')
# Generate internal docs
cli.run(['doxygen', 'Doxyfile'], **args)
cli.run(['moxygen', '-q', '-g', '-o', BUILD_DOCS_PATH / 'internals_%s.md', DOXYGEN_PATH / 'xml'], **args)
cli.run(['moxygen', '-q', '-g', '-o', MOXYGEN_PATH / '%s.md', DOXYGEN_PATH / 'xml'], **args)
cli.log.info('Successfully generated internal docs to %s.', BUILD_DOCS_PATH)
cli.log.info('Successfully generated docs to %s.', BUILD_DOCS_PATH)

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@@ -0,0 +1,75 @@
"""Used by the make system to generate keyboard.c from info.json.
"""
from milc import cli
from qmk.info import info_json
from qmk.commands import dump_lines
from qmk.keyboard import keyboard_completer, keyboard_folder
from qmk.path import normpath
from qmk.constants import GPL2_HEADER_C_LIKE, GENERATED_HEADER_C_LIKE
def _gen_led_config(info_data):
"""Convert info.json content to g_led_config
"""
cols = info_data['matrix_size']['cols']
rows = info_data['matrix_size']['rows']
config_type = None
if 'layout' in info_data.get('rgb_matrix', {}):
config_type = 'rgb_matrix'
elif 'layout' in info_data.get('led_matrix', {}):
config_type = 'led_matrix'
lines = []
if not config_type:
return lines
matrix = [['NO_LED'] * cols for i in range(rows)]
pos = []
flags = []
led_config = info_data[config_type]['layout']
for index, item in enumerate(led_config, start=0):
if 'matrix' in item:
(x, y) = item['matrix']
matrix[x][y] = str(index)
pos.append(f'{{ {item.get("x", 0)},{item.get("y", 0)} }}')
flags.append(str(item.get('flags', 0)))
if config_type == 'rgb_matrix':
lines.append('#ifdef RGB_MATRIX_ENABLE')
lines.append('#include "rgb_matrix.h"')
elif config_type == 'led_matrix':
lines.append('#ifdef LED_MATRIX_ENABLE')
lines.append('#include "led_matrix.h"')
lines.append('__attribute__ ((weak)) led_config_t g_led_config = {')
lines.append(' {')
for line in matrix:
lines.append(f' {{ {",".join(line)} }},')
lines.append(' },')
lines.append(f' {{ {",".join(pos)} }},')
lines.append(f' {{ {",".join(flags)} }},')
lines.append('};')
lines.append('#endif')
return lines
@cli.argument('-o', '--output', arg_only=True, type=normpath, help='File to write to')
@cli.argument('-q', '--quiet', arg_only=True, action='store_true', help="Quiet mode, only output error messages")
@cli.argument('-kb', '--keyboard', arg_only=True, type=keyboard_folder, completer=keyboard_completer, required=True, help='Keyboard to generate keyboard.c for.')
@cli.subcommand('Used by the make system to generate keyboard.c from info.json', hidden=True)
def generate_keyboard_c(cli):
"""Generates the keyboard.h file.
"""
kb_info_json = info_json(cli.args.keyboard)
# Build the layouts.h file.
keyboard_h_lines = [GPL2_HEADER_C_LIKE, GENERATED_HEADER_C_LIKE, '#include QMK_KEYBOARD_H', '']
keyboard_h_lines.extend(_gen_led_config(kb_info_json))
# Show the results
dump_lines(cli.args.output, keyboard_h_lines, cli.args.quiet)

View File

@@ -34,7 +34,7 @@ def generate_rgb_breathe_table(cli):
"""
breathe_values = [0] * 256
for pos in range(0, 256):
breathe_values[pos] = (int)((math.exp(math.sin((pos/255) * math.pi)) - cli.args.center / math.e) * (cli.args.max / (math.e - 1 / math.e))) # noqa: yapf insists there be no whitespace around /
breathe_values[pos] = (int)((math.exp(math.sin((pos / 255) * math.pi)) - cli.args.center / math.e) * (cli.args.max / (math.e - 1 / math.e)))
values_template = ''
for s in range(0, 3):
@@ -46,7 +46,7 @@ def generate_rgb_breathe_table(cli):
values_template += ' ' if pos % 8 == 0 else ''
values_template += '0x{:02X}'.format(breathe_values[pos])
values_template += ',' if (pos + step) < 256 else ''
values_template += '\n' if (pos+step) % 8 == 0 else ' ' # noqa: yapf insists there be no whitespace around +
values_template += '\n' if (pos + step) % 8 == 0 else ' '
values_template += '#endif'
values_template += '\n\n' if s < 2 else ''

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@@ -5,10 +5,9 @@ from pathlib import Path
from dotty_dict import dotty
from milc import cli
from qmk.info import info_json
from qmk.json_schema import json_load, validate
from qmk.info import info_json, keymap_json_config
from qmk.json_schema import json_load
from qmk.keyboard import keyboard_completer, keyboard_folder
from qmk.keymap import locate_keymap
from qmk.commands import dump_lines
from qmk.path import normpath
from qmk.constants import GPL2_HEADER_SH_LIKE, GENERATED_HEADER_SH_LIKE
@@ -21,7 +20,7 @@ def process_mapping_rule(kb_info_json, rules_key, info_dict):
return None
info_key = info_dict['info_key']
key_type = info_dict.get('value_type', 'str')
key_type = info_dict.get('value_type', 'raw')
try:
rules_value = kb_info_json[info_key]
@@ -34,6 +33,8 @@ def process_mapping_rule(kb_info_json, rules_key, info_dict):
return f'{rules_key} ?= {"yes" if rules_value else "no"}'
elif key_type == 'mapping':
return '\n'.join([f'{key} ?= {value}' for key, value in rules_value.items()])
elif key_type == 'str':
return f'{rules_key} ?= "{rules_value}"'
return f'{rules_key} ?= {rules_value}'
@@ -49,10 +50,7 @@ def generate_rules_mk(cli):
"""
# Determine our keyboard/keymap
if cli.args.keymap:
km = locate_keymap(cli.args.keyboard, cli.args.keymap)
km_json = json_load(km)
validate(km_json, 'qmk.keymap.v1')
kb_info_json = dotty(km_json.get('config', {}))
kb_info_json = dotty(keymap_json_config(cli.args.keyboard, cli.args.keymap))
else:
kb_info_json = dotty(info_json(cli.args.keyboard))

View File

@@ -11,8 +11,8 @@ from qmk.json_encoders import InfoJSONEncoder
from qmk.constants import COL_LETTERS, ROW_LETTERS
from qmk.decorators import automagic_keyboard, automagic_keymap
from qmk.keyboard import keyboard_completer, keyboard_folder, render_layouts, render_layout, rules_mk
from qmk.info import info_json, keymap_json
from qmk.keymap import locate_keymap
from qmk.info import info_json
from qmk.path import is_keyboard
UNICODE_SUPPORT = sys.stdout.encoding.lower().startswith('utf')
@@ -135,7 +135,7 @@ def print_parsed_rules_mk(keyboard_name):
@cli.argument('-kb', '--keyboard', type=keyboard_folder, completer=keyboard_completer, help='Keyboard to show info for.')
@cli.argument('-km', '--keymap', help='Show the layers for a JSON keymap too.')
@cli.argument('-km', '--keymap', help='Keymap to show info for (Optional).')
@cli.argument('-l', '--layouts', action='store_true', help='Render the layouts.')
@cli.argument('-m', '--matrix', action='store_true', help='Render the layouts with matrix information.')
@cli.argument('-f', '--format', default='friendly', arg_only=True, help='Format to display the data in (friendly, text, json) (Default: friendly).')
@@ -161,8 +161,15 @@ def info(cli):
print_parsed_rules_mk(cli.config.info.keyboard)
return False
# default keymap stored in config file should be ignored
if cli.config_source.info.keymap == 'config_file':
cli.config_source.info.keymap = None
# Build the info.json file
kb_info_json = info_json(cli.config.info.keyboard)
if cli.config.info.keymap:
kb_info_json = keymap_json(cli.config.info.keyboard, cli.config.info.keymap)
else:
kb_info_json = info_json(cli.config.info.keyboard)
# Output in the requested format
if cli.args.format == 'json':
@@ -178,11 +185,12 @@ def info(cli):
cli.log.error('Unknown format: %s', cli.args.format)
return False
# Output requested extras
if cli.config.info.layouts:
show_layouts(kb_info_json, title_caps)
if cli.config.info.matrix:
show_matrix(kb_info_json, title_caps)
if cli.config_source.info.keymap and cli.config_source.info.keymap != 'config_file':
if cli.config.info.keymap:
show_keymap(kb_info_json, title_caps)

View File

@@ -116,6 +116,13 @@ def lint(cli):
if not keymap_check(kb, cli.config.lint.keymap):
ok = False
# Check if all non-data driven macros exist in <keyboard.h>
for layout, data in keyboard_info['layouts'].items():
# Matrix data should be a list with exactly two integers: [0, 1]
if not data['c_macro'] and not all('matrix' in key_data.keys() or len(key_data) == 2 or all(isinstance(n, int) for n in key_data) for key_data in data['layout']):
cli.log.error(f'{kb}: "{layout}" has no "matrix" definition in either "info.json" or "<keyboard>.h"!')
ok = False
# Report status
if not ok:
failed.append(kb)

View File

@@ -14,7 +14,7 @@ from qmk.git import git_get_username
from qmk.json_schema import load_jsonschema
from qmk.path import keyboard
from qmk.json_encoders import InfoJSONEncoder
from qmk.json_schema import deep_update
from qmk.json_schema import deep_update, json_load
from qmk.constants import MCU2BOOTLOADER
COMMUNITY = Path('layouts/community/')
@@ -23,13 +23,14 @@ TEMPLATE = Path('data/templates/keyboard/')
# defaults
schema = dotty(load_jsonschema('keyboard'))
mcu_types = sorted(schema["properties.processor.enum"], key=str.casefold)
dev_boards = sorted(schema["properties.development_board.enum"], key=str.casefold)
available_layouts = sorted([x.name for x in COMMUNITY.iterdir() if x.is_dir()])
def mcu_type(mcu):
"""Callable for argparse validation.
"""
if mcu not in mcu_types:
if mcu not in (dev_boards + mcu_types):
raise ValueError
return mcu
@@ -176,14 +177,14 @@ https://docs.qmk.fm/#/compatible_microcontrollers
MCU? """
# remove any options strictly used for compatibility
filtered_mcu = [x for x in mcu_types if not any(xs in x for xs in ['cortex', 'unknown'])]
filtered_mcu = [x for x in (dev_boards + mcu_types) if not any(xs in x for xs in ['cortex', 'unknown'])]
return choice(prompt, filtered_mcu, default=filtered_mcu.index("atmega32u4"))
@cli.argument('-kb', '--keyboard', help='Specify the name for the new keyboard directory', arg_only=True, type=keyboard_name)
@cli.argument('-l', '--layout', help='Community layout to bootstrap with', arg_only=True, type=layout_type)
@cli.argument('-t', '--type', help='Specify the keyboard MCU type', arg_only=True, type=mcu_type)
@cli.argument('-t', '--type', help='Specify the keyboard MCU type (or "development_board" preset)', arg_only=True, type=mcu_type)
@cli.argument('-u', '--username', help='Specify your username (default from Git config)', dest='name')
@cli.argument('-n', '--realname', help='Specify your real name if you want to use that. Defaults to username', arg_only=True)
@cli.subcommand('Creates a new keyboard directory')
@@ -198,7 +199,6 @@ def new_keyboard(cli):
real_name = cli.args.realname or cli.config.new_keyboard.name if cli.args.realname or cli.config.new_keyboard.name else prompt_name(user_name)
default_layout = cli.args.layout if cli.args.layout else prompt_layout()
mcu = cli.args.type if cli.args.type else prompt_mcu()
bootloader = select_default_bootloader(mcu)
if not validate_keyboard_name(kb_name):
cli.log.error('Keyboard names must contain only {fg_cyan}lowercase a-z{fg_reset}, {fg_cyan}0-9{fg_reset}, and {fg_cyan}_{fg_reset}! Please choose a different name.')
@@ -208,6 +208,16 @@ def new_keyboard(cli):
cli.log.error(f'Keyboard {{fg_cyan}}{kb_name}{{fg_reset}} already exists! Please choose a different name.')
return 1
# Preprocess any development_board presets
if mcu in dev_boards:
defaults_map = json_load(Path('data/mappings/defaults.json'))
board = defaults_map['development_board'][mcu]
mcu = board['processor']
bootloader = board['bootloader']
else:
bootloader = select_default_bootloader(mcu)
tokens = { # Comment here is to force multiline formatting
'YEAR': str(date.today().year),
'KEYBOARD': kb_name,

View File

@@ -0,0 +1,2 @@
from . import convert_graphics
from . import make_font

View File

@@ -0,0 +1,86 @@
"""This script tests QGF functionality.
"""
import re
import datetime
from io import BytesIO
from qmk.path import normpath
from qmk.painter import render_header, render_source, render_license, render_bytes, valid_formats
from milc import cli
from PIL import Image
@cli.argument('-v', '--verbose', arg_only=True, action='store_true', help='Turns on verbose output.')
@cli.argument('-i', '--input', required=True, help='Specify input graphic file.')
@cli.argument('-o', '--output', default='', help='Specify output directory. Defaults to same directory as input.')
@cli.argument('-f', '--format', required=True, help='Output format, valid types: %s' % (', '.join(valid_formats.keys())))
@cli.argument('-r', '--no-rle', arg_only=True, action='store_true', help='Disables the use of RLE when encoding images.')
@cli.argument('-d', '--no-deltas', arg_only=True, action='store_true', help='Disables the use of delta frames when encoding animations.')
@cli.subcommand('Converts an input image to something QMK understands')
def painter_convert_graphics(cli):
"""Converts an image file to a format that Quantum Painter understands.
This command uses the `qmk.painter` module to generate a Quantum Painter image defintion from an image. The generated definitions are written to a files next to the input -- `INPUT.c` and `INPUT.h`.
"""
# Work out the input file
if cli.args.input != '-':
cli.args.input = normpath(cli.args.input)
# Error checking
if not cli.args.input.exists():
cli.log.error('Input image file does not exist!')
cli.print_usage()
return False
# Work out the output directory
if len(cli.args.output) == 0:
cli.args.output = cli.args.input.parent
cli.args.output = normpath(cli.args.output)
# Ensure we have a valid format
if cli.args.format not in valid_formats.keys():
cli.log.error('Output format %s is invalid. Allowed values: %s' % (cli.args.format, ', '.join(valid_formats.keys())))
cli.print_usage()
return False
# Work out the encoding parameters
format = valid_formats[cli.args.format]
# Load the input image
input_img = Image.open(cli.args.input)
# Convert the image to QGF using PIL
out_data = BytesIO()
input_img.save(out_data, "QGF", use_deltas=(not cli.args.no_deltas), use_rle=(not cli.args.no_rle), qmk_format=format, verbose=cli.args.verbose)
out_bytes = out_data.getvalue()
# Work out the text substitutions for rendering the output data
subs = {
'generated_type': 'image',
'var_prefix': 'gfx',
'generator_command': f'qmk painter-convert-graphics -i {cli.args.input.name} -f {cli.args.format}',
'year': datetime.date.today().strftime("%Y"),
'input_file': cli.args.input.name,
'sane_name': re.sub(r"[^a-zA-Z0-9]", "_", cli.args.input.stem),
'byte_count': len(out_bytes),
'bytes_lines': render_bytes(out_bytes),
'format': cli.args.format,
}
# Render the license
subs.update({'license': render_license(subs)})
# Render and write the header file
header_text = render_header(subs)
header_file = cli.args.output / (cli.args.input.stem + ".qgf.h")
with open(header_file, 'w') as header:
print(f"Writing {header_file}...")
header.write(header_text)
header.close()
# Render and write the source file
source_text = render_source(subs)
source_file = cli.args.output / (cli.args.input.stem + ".qgf.c")
with open(source_file, 'w') as source:
print(f"Writing {source_file}...")
source.write(source_text)
source.close()

View File

@@ -0,0 +1,87 @@
"""This script automates the conversion of font files into a format QMK firmware understands.
"""
import re
import datetime
from io import BytesIO
from qmk.path import normpath
from qmk.painter_qff import QFFFont
from qmk.painter import render_header, render_source, render_license, render_bytes, valid_formats
from milc import cli
@cli.argument('-f', '--font', required=True, help='Specify input font file.')
@cli.argument('-o', '--output', required=True, help='Specify output image path.')
@cli.argument('-s', '--size', default=12, help='Specify font size. Default 12.')
@cli.argument('-n', '--no-ascii', arg_only=True, action='store_true', help='Disables output of the full ASCII character set (0x20..0x7E), exporting only the glyphs specified.')
@cli.argument('-u', '--unicode-glyphs', default='', help='Also generate the specified unicode glyphs.')
@cli.argument('-a', '--no-aa', arg_only=True, action='store_true', help='Disable anti-aliasing on fonts.')
@cli.subcommand('Converts an input font to something QMK understands')
def painter_make_font_image(cli):
# Create the font object
font = QFFFont(cli)
# Read from the input file
cli.args.font = normpath(cli.args.font)
font.generate_image(cli.args.font, cli.args.size, include_ascii_glyphs=(not cli.args.no_ascii), unicode_glyphs=cli.args.unicode_glyphs, use_aa=(False if cli.args.no_aa else True))
# Render out the data
font.save_to_image(normpath(cli.args.output))
@cli.argument('-i', '--input', help='Specify input graphic file.')
@cli.argument('-o', '--output', default='', help='Specify output directory. Defaults to same directory as input.')
@cli.argument('-n', '--no-ascii', arg_only=True, action='store_true', help='Disables output of the full ASCII character set (0x20..0x7E), exporting only the glyphs specified.')
@cli.argument('-u', '--unicode-glyphs', default='', help='Also generate the specified unicode glyphs.')
@cli.argument('-f', '--format', required=True, help='Output format, valid types: %s' % (', '.join(valid_formats.keys())))
@cli.argument('-r', '--no-rle', arg_only=True, action='store_true', help='Disable the use of RLE to minimise converted image size.')
@cli.subcommand('Converts an input font image to something QMK firmware understands')
def painter_convert_font_image(cli):
# Work out the format
format = valid_formats[cli.args.format]
# Create the font object
font = QFFFont(cli.log)
# Read from the input file
cli.args.input = normpath(cli.args.input)
font.read_from_image(cli.args.input, include_ascii_glyphs=(not cli.args.no_ascii), unicode_glyphs=cli.args.unicode_glyphs)
# Work out the output directory
if len(cli.args.output) == 0:
cli.args.output = cli.args.input.parent
cli.args.output = normpath(cli.args.output)
# Render out the data
out_data = BytesIO()
font.save_to_qff(format, (False if cli.args.no_rle else True), out_data)
# Work out the text substitutions for rendering the output data
subs = {
'generated_type': 'font',
'var_prefix': 'font',
'generator_command': f'qmk painter-convert-font-image -i {cli.args.input.name} -f {cli.args.format}',
'year': datetime.date.today().strftime("%Y"),
'input_file': cli.args.input.name,
'sane_name': re.sub(r"[^a-zA-Z0-9]", "_", cli.args.input.stem),
'byte_count': out_data.getbuffer().nbytes,
'bytes_lines': render_bytes(out_data.getbuffer().tobytes()),
'format': cli.args.format,
}
# Render the license
subs.update({'license': render_license(subs)})
# Render and write the header file
header_text = render_header(subs)
header_file = cli.args.output / (cli.args.input.stem + ".qff.h")
with open(header_file, 'w') as header:
print(f"Writing {header_file}...")
header.write(header_text)
header.close()
# Render and write the source file
source_text = render_source(subs)
source_file = cli.args.output / (cli.args.input.stem + ".qff.c")
with open(source_file, 'w') as source:
print(f"Writing {source_file}...")
source.write(source_text)
source.close()

View File

@@ -12,8 +12,7 @@ from milc import cli
def pytest(cli):
"""Run several linting/testing commands.
"""
nose2 = cli.run(['nose2', '-v', '-t'
'lib/python', *cli.args.test], capture_output=False, stdin=DEVNULL)
nose2 = cli.run(['nose2', '-v', '-t', 'lib/python', *cli.args.test], capture_output=False, stdin=DEVNULL)
flake8 = cli.run(['flake8', 'lib/python'], capture_output=False, stdin=DEVNULL)
return flake8.returncode | nose2.returncode

View File

@@ -228,7 +228,7 @@ def dump_lines(output_file, lines, quiet=True):
output_file.parent.mkdir(parents=True, exist_ok=True)
if output_file.exists():
output_file.replace(output_file.parent / (output_file.name + '.bak'))
output_file.write_text(generated)
output_file.write_text(generated, encoding='utf-8')
if not quiet:
cli.log.info(f'Wrote {output_file.name} to {output_file}.')

View File

@@ -14,7 +14,7 @@ QMK_FIRMWARE_UPSTREAM = 'qmk/qmk_firmware'
MAX_KEYBOARD_SUBFOLDERS = 5
# Supported processor types
CHIBIOS_PROCESSORS = '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'
CHIBIOS_PROCESSORS = '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'
LUFA_PROCESSORS = 'at90usb162', 'atmega16u2', 'atmega32u2', 'atmega16u4', 'atmega32u4', 'at90usb646', 'at90usb647', 'at90usb1286', 'at90usb1287', None
VUSB_PROCESSORS = 'atmega32a', 'atmega328p', 'atmega328', 'attiny85'
@@ -43,6 +43,7 @@ MCU2BOOTLOADER = {
"STM32L443": "stm32-dfu",
"GD32VF103": "gd32v-dfu",
"WB32F3G71": "wb32-dfu",
"WB32FQ95": "wb32-dfu",
"atmega16u2": "atmel-dfu",
"atmega32u2": "atmel-dfu",
"atmega16u4": "atmel-dfu",

View File

@@ -8,10 +8,11 @@ from dotty_dict import dotty
from milc import cli
from qmk.constants import CHIBIOS_PROCESSORS, LUFA_PROCESSORS, VUSB_PROCESSORS
from qmk.c_parse import find_layouts
from qmk.c_parse import find_layouts, parse_config_h_file, find_led_config
from qmk.json_schema import deep_update, json_load, validate
from qmk.keyboard import config_h, rules_mk
from qmk.keymap import list_keymaps
from qmk.keymap import list_keymaps, locate_keymap
from qmk.commands import parse_configurator_json
from qmk.makefile import parse_rules_mk_file
from qmk.math import compute
@@ -68,12 +69,16 @@ def info_json(keyboard):
# Merge in the data from info.json, config.h, and rules.mk
info_data = merge_info_jsons(keyboard, info_data)
info_data = _extract_rules_mk(info_data)
info_data = _extract_config_h(info_data)
info_data = _process_defaults(info_data)
info_data = _extract_rules_mk(info_data, rules_mk(str(keyboard)))
info_data = _extract_config_h(info_data, config_h(str(keyboard)))
# Ensure that we have matrix row and column counts
info_data = _matrix_size(info_data)
# Merge in data from <keyboard.c>
info_data = _extract_led_config(info_data, str(keyboard))
# Validate against the jsonschema
try:
validate(info_data, 'qmk.api.keyboard.v1')
@@ -166,28 +171,46 @@ def _extract_pins(pins):
return [_pin_name(pin) for pin in pins.split(',')]
def _extract_direct_matrix(direct_pins):
def _extract_2d_array(raw):
"""Return a 2d array of strings
"""
"""
direct_pin_array = []
out_array = []
while direct_pins[-1] != '}':
direct_pins = direct_pins[:-1]
while raw[-1] != '}':
raw = raw[:-1]
for row in direct_pins.split('},{'):
for row in raw.split('},{'):
if row.startswith('{'):
row = row[1:]
if row.endswith('}'):
row = row[:-1]
direct_pin_array.append([])
out_array.append([])
for pin in row.split(','):
if pin == 'NO_PIN':
pin = None
for val in row.split(','):
out_array[-1].append(val)
direct_pin_array[-1].append(pin)
return out_array
def _extract_2d_int_array(raw):
"""Return a 2d array of ints
"""
ret = _extract_2d_array(raw)
return [list(map(int, x)) for x in ret]
def _extract_direct_matrix(direct_pins):
"""extract direct_matrix
"""
direct_pin_array = _extract_2d_array(direct_pins)
for i in range(len(direct_pin_array)):
for j in range(len(direct_pin_array[i])):
if direct_pin_array[i][j] == 'NO_PIN':
direct_pin_array[i][j] = None
return direct_pin_array
@@ -205,6 +228,21 @@ def _extract_audio(info_data, config_c):
info_data['audio'] = {'pins': audio_pins}
def _extract_secure_unlock(info_data, config_c):
"""Populate data about the secure unlock sequence
"""
unlock = config_c.get('SECURE_UNLOCK_SEQUENCE', '').replace(' ', '')[1:-1]
if unlock:
unlock_array = _extract_2d_int_array(unlock)
if 'secure' not in info_data:
info_data['secure'] = {}
if 'unlock_sequence' in info_data['secure']:
_log_warning(info_data, 'Secure unlock sequence is specified in both config.h (SECURE_UNLOCK_SEQUENCE) and info.json (secure.unlock_sequence) (Value: %s), the config.h value wins.' % info_data['secure']['unlock_sequence'])
info_data['secure']['unlock_sequence'] = unlock_array
def _extract_split_main(info_data, config_c):
"""Populate data about the split configuration
"""
@@ -270,14 +308,16 @@ def _extract_split_transport(info_data, config_c):
info_data['split']['transport']['protocol'] = 'i2c'
elif 'protocol' not in info_data.get('split', {}).get('transport', {}):
# Ignore transport defaults if "SPLIT_KEYBOARD" is unset
elif 'enabled' in info_data.get('split', {}):
if 'split' not in info_data:
info_data['split'] = {}
if 'transport' not in info_data['split']:
info_data['split']['transport'] = {}
info_data['split']['transport']['protocol'] = 'serial'
if 'protocol' not in info_data['split']['transport']:
info_data['split']['transport']['protocol'] = 'serial'
def _extract_split_right_pins(info_data, config_c):
@@ -400,18 +440,16 @@ def _extract_device_version(info_data):
info_data['usb']['device_version'] = f'{major}.{minor}.{revision}'
def _extract_config_h(info_data):
def _extract_config_h(info_data, config_c):
"""Pull some keyboard information from existing config.h files
"""
config_c = config_h(info_data['keyboard_folder'])
# Pull in data from the json map
dotty_info = dotty(info_data)
info_config_map = json_load(Path('data/mappings/info_config.json'))
for config_key, info_dict in info_config_map.items():
info_key = info_dict['info_key']
key_type = info_dict.get('value_type', 'str')
key_type = info_dict.get('value_type', 'raw')
try:
if config_key in config_c and info_dict.get('to_json', True):
@@ -443,6 +481,9 @@ def _extract_config_h(info_data):
elif key_type == 'int':
dotty_info[info_key] = int(config_c[config_key])
elif key_type == 'str':
dotty_info[info_key] = config_c[config_key].strip('"')
elif key_type == 'bcd_version':
major = int(config_c[config_key][2:4])
minor = int(config_c[config_key][4])
@@ -461,6 +502,7 @@ def _extract_config_h(info_data):
# Pull data that easily can't be mapped in json
_extract_matrix_info(info_data, config_c)
_extract_audio(info_data, config_c)
_extract_secure_unlock(info_data, config_c)
_extract_split_main(info_data, config_c)
_extract_split_transport(info_data, config_c)
_extract_split_right_pins(info_data, config_c)
@@ -469,10 +511,21 @@ def _extract_config_h(info_data):
return info_data
def _extract_rules_mk(info_data):
def _process_defaults(info_data):
"""Process any additional defaults based on currently discovered information
"""
defaults_map = json_load(Path('data/mappings/defaults.json'))
for default_type in defaults_map.keys():
thing_map = defaults_map[default_type]
if default_type in info_data:
for key, value in thing_map.get(info_data[default_type], {}).items():
info_data[key] = value
return info_data
def _extract_rules_mk(info_data, rules):
"""Pull some keyboard information from existing rules.mk files
"""
rules = rules_mk(info_data['keyboard_folder'])
info_data['processor'] = rules.get('MCU', info_data.get('processor', 'atmega32u4'))
if info_data['processor'] in CHIBIOS_PROCESSORS:
@@ -491,7 +544,7 @@ def _extract_rules_mk(info_data):
for rules_key, info_dict in info_rules_map.items():
info_key = info_dict['info_key']
key_type = info_dict.get('value_type', 'str')
key_type = info_dict.get('value_type', 'raw')
try:
if rules_key in rules and info_dict.get('to_json', True):
@@ -523,6 +576,9 @@ def _extract_rules_mk(info_data):
elif key_type == 'int':
dotty_info[info_key] = int(rules[rules_key])
elif key_type == 'str':
dotty_info[info_key] = rules[rules_key].strip('"')
else:
dotty_info[info_key] = rules[rules_key]
@@ -537,6 +593,46 @@ def _extract_rules_mk(info_data):
return info_data
def find_keyboard_c(keyboard):
"""Find all <keyboard>.c files
"""
keyboard = Path(keyboard)
current_path = Path('keyboards/')
files = []
for directory in keyboard.parts:
current_path = current_path / directory
keyboard_c_path = current_path / f'{directory}.c'
if keyboard_c_path.exists():
files.append(keyboard_c_path)
return files
def _extract_led_config(info_data, keyboard):
"""Scan all <keyboard>.c files for led config
"""
cols = info_data['matrix_size']['cols']
rows = info_data['matrix_size']['rows']
# Assume what feature owns g_led_config
feature = "rgb_matrix"
if info_data.get("features", {}).get("led_matrix", False):
feature = "led_matrix"
# Process
for file in find_keyboard_c(keyboard):
try:
ret = find_led_config(file, cols, rows)
if ret:
info_data[feature] = info_data.get(feature, {})
info_data[feature]["layout"] = ret
except Exception as e:
_log_warning(info_data, f'led_config: {file.name}: {e}')
return info_data
def _matrix_size(info_data):
"""Add info_data['matrix_size'] if it doesn't exist.
"""
@@ -753,10 +849,43 @@ def find_info_json(keyboard):
# Add in parent folders for least specific
for _ in range(5):
info_jsons.append(keyboard_parent / 'info.json')
if keyboard_parent.parent == base_path:
if keyboard_parent == base_path:
break
info_jsons.append(keyboard_parent / 'info.json')
keyboard_parent = keyboard_parent.parent
# Return a list of the info.json files that actually exist
return [info_json for info_json in info_jsons if info_json.exists()]
def keymap_json_config(keyboard, keymap):
"""Extract keymap level config
"""
keymap_folder = locate_keymap(keyboard, keymap).parent
km_info_json = parse_configurator_json(keymap_folder / 'keymap.json')
return km_info_json.get('config', {})
def keymap_json(keyboard, keymap):
"""Generate the info.json data for a specific keymap.
"""
keymap_folder = locate_keymap(keyboard, keymap).parent
# Files to scan
keymap_config = keymap_folder / 'config.h'
keymap_rules = keymap_folder / 'rules.mk'
keymap_file = keymap_folder / 'keymap.json'
# Build the info.json file
kb_info_json = info_json(keyboard)
# Merge in the data from keymap.json
km_info_json = keymap_json_config(keyboard, keymap) if keymap_file.exists() else {}
deep_update(kb_info_json, km_info_json)
# Merge in the data from config.h, and rules.mk
_extract_rules_mk(kb_info_json, parse_rules_mk_file(keymap_rules))
_extract_config_h(kb_info_json, parse_config_h_file(keymap_config))
return kb_info_json

View File

@@ -75,8 +75,8 @@ class InfoJSONEncoder(QMKJSONEncoder):
"""Encode info.json dictionaries.
"""
if obj:
if self.indentation_level == 4:
# These are part of a layout, put them on a single line.
if set(("x", "y")).issubset(obj.keys()):
# These are part of a layout/led_config, put them on a single line.
return "{ " + ", ".join(f"{self.encode(key)}: {self.encode(element)}" for key, element in sorted(obj.items())) + " }"
else:

View File

@@ -68,7 +68,11 @@ def create_validator(schema):
schema_store = compile_schema_store()
resolver = jsonschema.RefResolver.from_schema(schema_store[schema], store=schema_store)
return jsonschema.Draft7Validator(schema_store[schema], resolver=resolver).validate
# TODO: Remove this after the jsonschema>=4 requirement had time to reach users
try:
return jsonschema.Draft202012Validator(schema_store[schema], resolver=resolver).validate
except AttributeError:
return jsonschema.Draft7Validator(schema_store[schema], resolver=resolver).validate
def validate(data, schema):

View File

@@ -218,7 +218,7 @@ def render_key_rect(textpad, x, y, w, h, label, style):
label_blank = ' ' * label_len
label_border = box_chars['h'] * label_len
label_middle = label + ' '*label_leftover # noqa: yapf insists there be no whitespace around *
label_middle = label + ' ' * label_leftover
top_line = array('u', box_chars['tl'] + label_border + box_chars['tr'])
lab_line = array('u', box_chars['v'] + label_middle + box_chars['v'])
@@ -245,10 +245,10 @@ def render_key_isoenter(textpad, x, y, w, h, label, style):
if len(label) > label_len:
label = label[:label_len]
label_blank = ' ' * (label_len-1) # noqa: yapf insists there be no whitespace around - and *
label_blank = ' ' * (label_len - 1)
label_border_top = box_chars['h'] * label_len
label_border_bottom = box_chars['h'] * (label_len-1) # noqa
label_middle = label + ' '*label_leftover # noqa
label_border_bottom = box_chars['h'] * (label_len - 1)
label_middle = label + ' ' * label_leftover
top_line = array('u', box_chars['tl'] + label_border_top + box_chars['tr'])
lab_line = array('u', box_chars['v'] + label_middle + box_chars['v'])
@@ -277,10 +277,10 @@ def render_key_baenter(textpad, x, y, w, h, label, style):
if len(label) > label_len:
label = label[:label_len]
label_blank = ' ' * (label_len-3) # noqa: yapf insists there be no whitespace around - and *
label_border_top = box_chars['h'] * (label_len-3) # noqa
label_blank = ' ' * (label_len - 3)
label_border_top = box_chars['h'] * (label_len - 3)
label_border_bottom = box_chars['h'] * label_len
label_middle = label + ' '*label_leftover # noqa
label_middle = label + ' ' * label_leftover
top_line = array('u', box_chars['tl'] + label_border_top + box_chars['tr'])
mid_line = array('u', box_chars['v'] + label_blank + box_chars['v'])

268
lib/python/qmk/painter.py Normal file
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"""Functions that help us work with Quantum Painter's file formats.
"""
import math
import re
from string import Template
from PIL import Image, ImageOps
# The list of valid formats Quantum Painter supports
valid_formats = {
'pal256': {
'image_format': 'IMAGE_FORMAT_PALETTE',
'bpp': 8,
'has_palette': True,
'num_colors': 256,
'image_format_byte': 0x07, # see qp_internal_formats.h
},
'pal16': {
'image_format': 'IMAGE_FORMAT_PALETTE',
'bpp': 4,
'has_palette': True,
'num_colors': 16,
'image_format_byte': 0x06, # see qp_internal_formats.h
},
'pal4': {
'image_format': 'IMAGE_FORMAT_PALETTE',
'bpp': 2,
'has_palette': True,
'num_colors': 4,
'image_format_byte': 0x05, # see qp_internal_formats.h
},
'pal2': {
'image_format': 'IMAGE_FORMAT_PALETTE',
'bpp': 1,
'has_palette': True,
'num_colors': 2,
'image_format_byte': 0x04, # see qp_internal_formats.h
},
'mono256': {
'image_format': 'IMAGE_FORMAT_GRAYSCALE',
'bpp': 8,
'has_palette': False,
'num_colors': 256,
'image_format_byte': 0x03, # see qp_internal_formats.h
},
'mono16': {
'image_format': 'IMAGE_FORMAT_GRAYSCALE',
'bpp': 4,
'has_palette': False,
'num_colors': 16,
'image_format_byte': 0x02, # see qp_internal_formats.h
},
'mono4': {
'image_format': 'IMAGE_FORMAT_GRAYSCALE',
'bpp': 2,
'has_palette': False,
'num_colors': 4,
'image_format_byte': 0x01, # see qp_internal_formats.h
},
'mono2': {
'image_format': 'IMAGE_FORMAT_GRAYSCALE',
'bpp': 1,
'has_palette': False,
'num_colors': 2,
'image_format_byte': 0x00, # see qp_internal_formats.h
}
}
license_template = """\
// Copyright ${year} QMK -- generated source code only, ${generated_type} retains original copyright
// SPDX-License-Identifier: GPL-2.0-or-later
// This file was auto-generated by `${generator_command}`
"""
def render_license(subs):
license_txt = Template(license_template)
return license_txt.substitute(subs)
header_file_template = """\
${license}
#pragma once
#include <qp.h>
extern const uint32_t ${var_prefix}_${sane_name}_length;
extern const uint8_t ${var_prefix}_${sane_name}[${byte_count}];
"""
def render_header(subs):
header_txt = Template(header_file_template)
return header_txt.substitute(subs)
source_file_template = """\
${license}
#include <qp.h>
const uint32_t ${var_prefix}_${sane_name}_length = ${byte_count};
// clang-format off
const uint8_t ${var_prefix}_${sane_name}[${byte_count}] = {
${bytes_lines}
};
// clang-format on
"""
def render_source(subs):
source_txt = Template(source_file_template)
return source_txt.substitute(subs)
def render_bytes(bytes, newline_after=16):
lines = ''
for n in range(len(bytes)):
if n % newline_after == 0 and n > 0 and n != len(bytes):
lines = lines + "\n "
elif n == 0:
lines = lines + " "
lines = lines + " 0x{0:02X},".format(bytes[n])
return lines.rstrip()
def clean_output(str):
str = re.sub(r'\r', '', str)
str = re.sub(r'[\n]{3,}', r'\n\n', str)
return str
def rescale_byte(val, maxval):
"""Rescales a byte value to the supplied range, i.e. [0,255] -> [0,maxval].
"""
return int(round(val * maxval / 255.0))
def convert_requested_format(im, format):
"""Convert an image to the requested format.
"""
# Work out the requested format
ncolors = format["num_colors"]
image_format = format["image_format"]
# Ensure we have a valid number of colors for the palette
if ncolors <= 0 or ncolors > 256 or (ncolors & (ncolors - 1) != 0):
raise ValueError("Number of colors must be 2, 4, 16, or 256.")
# Work out where we're getting the bytes from
if image_format == 'IMAGE_FORMAT_GRAYSCALE':
# If mono, convert input to grayscale, then to RGB, then grab the raw bytes corresponding to the intensity of the red channel
im = ImageOps.grayscale(im)
im = im.convert("RGB")
elif image_format == 'IMAGE_FORMAT_PALETTE':
# If color, convert input to RGB, palettize based on the supplied number of colors, then get the raw palette bytes
im = im.convert("RGB")
im = im.convert("P", palette=Image.ADAPTIVE, colors=ncolors)
return im
def convert_image_bytes(im, format):
"""Convert the supplied image to the equivalent bytes required by the QMK firmware.
"""
# Work out the requested format
ncolors = format["num_colors"]
image_format = format["image_format"]
shifter = int(math.log2(ncolors))
pixels_per_byte = int(8 / math.log2(ncolors))
(width, height) = im.size
expected_byte_count = ((width * height) + (pixels_per_byte - 1)) // pixels_per_byte
if image_format == 'IMAGE_FORMAT_GRAYSCALE':
# Take the red channel
image_bytes = im.tobytes("raw", "R")
image_bytes_len = len(image_bytes)
# No palette
palette = None
bytearray = []
for x in range(expected_byte_count):
byte = 0
for n in range(pixels_per_byte):
byte_offset = x * pixels_per_byte + n
if byte_offset < image_bytes_len:
# If mono, each input byte is a grayscale [0,255] pixel -- rescale to the range we want then pack together
byte = byte | (rescale_byte(image_bytes[byte_offset], ncolors - 1) << int(n * shifter))
bytearray.append(byte)
elif image_format == 'IMAGE_FORMAT_PALETTE':
# Convert each pixel to the palette bytes
image_bytes = im.tobytes("raw", "P")
image_bytes_len = len(image_bytes)
# Export the palette
palette = []
pal = im.getpalette()
for n in range(0, ncolors * 3, 3):
palette.append((pal[n + 0], pal[n + 1], pal[n + 2]))
bytearray = []
for x in range(expected_byte_count):
byte = 0
for n in range(pixels_per_byte):
byte_offset = x * pixels_per_byte + n
if byte_offset < image_bytes_len:
# If color, each input byte is the index into the color palette -- pack them together
byte = byte | ((image_bytes[byte_offset] & (ncolors - 1)) << int(n * shifter))
bytearray.append(byte)
if len(bytearray) != expected_byte_count:
raise Exception(f"Wrong byte count, was {len(bytearray)}, expected {expected_byte_count}")
return (palette, bytearray)
def compress_bytes_qmk_rle(bytearray):
debug_dump = False
output = []
temp = []
repeat = False
def append_byte(c):
if debug_dump:
print('Appending byte:', '0x{0:02X}'.format(int(c)), '=', c)
output.append(c)
def append_range(r):
append_byte(127 + len(r))
if debug_dump:
print('Appending {0} byte(s):'.format(len(r)), '[', ', '.join(['{0:02X}'.format(e) for e in r]), ']')
output.extend(r)
for n in range(0, len(bytearray) + 1):
end = True if n == len(bytearray) else False
if not end:
c = bytearray[n]
temp.append(c)
if len(temp) <= 1:
continue
if debug_dump:
print('Temp buffer state {0:3d} bytes:'.format(len(temp)), '[', ', '.join(['{0:02X}'.format(e) for e in temp]), ']')
if repeat:
if temp[-1] != temp[-2]:
repeat = False
if not repeat or len(temp) == 128 or end:
append_byte(len(temp) if end else len(temp) - 1)
append_byte(temp[0])
temp = [temp[-1]]
repeat = False
else:
if len(temp) >= 2 and temp[-1] == temp[-2]:
repeat = True
if len(temp) > 2:
append_range(temp[0:(len(temp) - 2)])
temp = [temp[-1], temp[-1]]
continue
if len(temp) == 128 or end:
append_range(temp)
temp = []
repeat = False
return output

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# Copyright 2021 Nick Brassel (@tzarc)
# SPDX-License-Identifier: GPL-2.0-or-later
# Quantum Font File "QFF" Font File Format.
# See https://docs.qmk.fm/#/quantum_painter_qff for more information.
from pathlib import Path
from typing import Dict, Any
from colorsys import rgb_to_hsv
from PIL import Image, ImageDraw, ImageFont, ImageChops
from PIL._binary import o8, o16le as o16, o32le as o32
from qmk.painter_qgf import QGFBlockHeader, QGFFramePaletteDescriptorV1
from milc.attrdict import AttrDict
import qmk.painter
def o24(i):
return o16(i & 0xFFFF) + o8((i & 0xFF0000) >> 16)
########################################################################################################################
class QFFGlyphInfo(AttrDict):
def __init__(self, *args, **kwargs):
super().__init__()
for n, value in enumerate(args):
self[f'arg:{n}'] = value
for key, value in kwargs.items():
self[key] = value
def write(self, fp, include_code_point):
if include_code_point is True:
fp.write(o24(ord(self.code_point)))
value = ((self.data_offset << 6) & 0xFFFFC0) | (self.w & 0x3F)
fp.write(o24(value))
########################################################################################################################
class QFFFontDescriptor:
type_id = 0x00
length = 20
magic = 0x464651
def __init__(self):
self.header = QGFBlockHeader()
self.header.type_id = QFFFontDescriptor.type_id
self.header.length = QFFFontDescriptor.length
self.version = 1
self.total_file_size = 0
self.line_height = 0
self.has_ascii_table = False
self.unicode_glyph_count = 0
self.format = 0xFF
self.flags = 0
self.compression = 0xFF
self.transparency_index = 0xFF # TODO: Work out how to retrieve the transparent palette entry from the PIL gif loader
def write(self, fp):
self.header.write(fp)
fp.write(
b'' # start off with empty bytes...
+ o24(QFFFontDescriptor.magic) # magic
+ o8(self.version) # version
+ o32(self.total_file_size) # file size
+ o32((~self.total_file_size) & 0xFFFFFFFF) # negated file size
+ o8(self.line_height) # line height
+ o8(1 if self.has_ascii_table is True else 0) # whether or not we have an ascii table present
+ o16(self.unicode_glyph_count & 0xFFFF) # number of unicode glyphs present
+ o8(self.format) # format
+ o8(self.flags) # flags
+ o8(self.compression) # compression
+ o8(self.transparency_index) # transparency index
)
@property
def is_transparent(self):
return (self.flags & 0x01) == 0x01
@is_transparent.setter
def is_transparent(self, val):
if val:
self.flags |= 0x01
else:
self.flags &= ~0x01
########################################################################################################################
class QFFAsciiGlyphTableV1:
type_id = 0x01
length = 95 * 3 # We have 95 glyphs: [0x20...0x7E]
def __init__(self):
self.header = QGFBlockHeader()
self.header.type_id = QFFAsciiGlyphTableV1.type_id
self.header.length = QFFAsciiGlyphTableV1.length
# Each glyph is key=code_point, value=QFFGlyphInfo
self.glyphs = {}
def add_glyph(self, glyph: QFFGlyphInfo):
self.glyphs[ord(glyph.code_point)] = glyph
def write(self, fp):
self.header.write(fp)
for n in range(0x20, 0x7F):
self.glyphs[n].write(fp, False)
########################################################################################################################
class QFFUnicodeGlyphTableV1:
type_id = 0x02
def __init__(self):
self.header = QGFBlockHeader()
self.header.type_id = QFFUnicodeGlyphTableV1.type_id
self.header.length = 0
# Each glyph is key=code_point, value=QFFGlyphInfo
self.glyphs = {}
def add_glyph(self, glyph: QFFGlyphInfo):
self.glyphs[ord(glyph.code_point)] = glyph
def write(self, fp):
self.header.length = len(self.glyphs.keys()) * 6
self.header.write(fp)
for n in sorted(self.glyphs.keys()):
self.glyphs[n].write(fp, True)
########################################################################################################################
class QFFFontDataDescriptorV1:
type_id = 0x04
def __init__(self):
self.header = QGFBlockHeader()
self.header.type_id = QFFFontDataDescriptorV1.type_id
self.data = []
def write(self, fp):
self.header.length = len(self.data)
self.header.write(fp)
fp.write(bytes(self.data))
########################################################################################################################
def _generate_font_glyphs_list(use_ascii, unicode_glyphs):
# The set of glyphs that we want to generate images for
glyphs = {}
# Add ascii charset if requested
if use_ascii is True:
for c in range(0x20, 0x7F): # does not include 0x7F!
glyphs[chr(c)] = True
# Append any extra unicode glyphs
unicode_glyphs = list(unicode_glyphs)
for c in unicode_glyphs:
glyphs[c] = True
return sorted(glyphs.keys())
class QFFFont:
def __init__(self, logger):
self.logger = logger
self.image = None
self.glyph_data = {}
self.glyph_height = 0
return
def _extract_glyphs(self, format):
total_data_size = 0
total_rle_data_size = 0
converted_img = qmk.painter.convert_requested_format(self.image, format)
(self.palette, _) = qmk.painter.convert_image_bytes(converted_img, format)
# Work out how many bytes used for RLE vs. non-RLE
for _, glyph_entry in self.glyph_data.items():
glyph_img = converted_img.crop((glyph_entry.x, 1, glyph_entry.x + glyph_entry.w, 1 + self.glyph_height))
(_, this_glyph_image_bytes) = qmk.painter.convert_image_bytes(glyph_img, format)
this_glyph_rle_bytes = qmk.painter.compress_bytes_qmk_rle(this_glyph_image_bytes)
total_data_size += len(this_glyph_image_bytes)
total_rle_data_size += len(this_glyph_rle_bytes)
glyph_entry['image_uncompressed_bytes'] = this_glyph_image_bytes
glyph_entry['image_compressed_bytes'] = this_glyph_rle_bytes
return (total_data_size, total_rle_data_size)
def _parse_image(self, img, include_ascii_glyphs: bool = True, unicode_glyphs: str = ''):
# Clear out any existing font metadata
self.image = None
# Each glyph is key=code_point, value={ x: ?, w: ? }
self.glyph_data = {}
self.glyph_height = 0
# Work out the list of glyphs required
glyphs = _generate_font_glyphs_list(include_ascii_glyphs, unicode_glyphs)
# Work out the geometry
(width, height) = img.size
# Work out the glyph offsets/widths
glyph_pixel_offsets = []
glyph_pixel_widths = []
pixels = img.load()
# Run through the markers and work out where each glyph starts/stops
glyph_split_color = pixels[0, 0] # top left pixel is the marker color we're going to use to split each glyph
glyph_pixel_offsets.append(0)
last_offset = 0
for x in range(1, width):
if pixels[x, 0] == glyph_split_color:
glyph_pixel_offsets.append(x)
glyph_pixel_widths.append(x - last_offset)
last_offset = x
glyph_pixel_widths.append(width - last_offset)
# Make sure the number of glyphs we're attempting to generate matches the input image
if len(glyph_pixel_offsets) != len(glyphs):
self.logger.error('The number of glyphs to generate doesn\'t match the number of detected glyphs in the input image.')
return
# Set up the required metadata for each glyph
for n in range(0, len(glyph_pixel_offsets)):
self.glyph_data[glyphs[n]] = QFFGlyphInfo(code_point=glyphs[n], x=glyph_pixel_offsets[n], w=glyph_pixel_widths[n])
# Parsing was successful, keep the image in this instance
self.image = img
self.glyph_height = height - 1 # subtract the line with the markers
def generate_image(self, ttf_file: Path, font_size: int, include_ascii_glyphs: bool = True, unicode_glyphs: str = '', include_before_left: bool = False, use_aa: bool = True):
# Load the font
font = ImageFont.truetype(str(ttf_file), int(font_size))
# Work out the max font size
max_font_size = font.font.ascent + abs(font.font.descent)
# Work out the list of glyphs required
glyphs = _generate_font_glyphs_list(include_ascii_glyphs, unicode_glyphs)
baseline_offset = 9999999
total_glyph_width = 0
max_glyph_height = -1
# Measure each glyph to determine the overall baseline offset required
for glyph in glyphs:
(ls_l, ls_t, ls_r, ls_b) = font.getbbox(glyph, anchor='ls')
glyph_width = (ls_r - ls_l) if include_before_left else (ls_r)
glyph_height = font.getbbox(glyph, anchor='la')[3]
if max_glyph_height < glyph_height:
max_glyph_height = glyph_height
total_glyph_width += glyph_width
if baseline_offset > ls_t:
baseline_offset = ls_t
# Create the output image
img = Image.new("RGB", (total_glyph_width + 1, max_font_size * 2 + 1), (0, 0, 0, 255))
cur_x_pos = 0
# Loop through each glyph...
for glyph in glyphs:
# Work out this glyph's bounding box
(ls_l, ls_t, ls_r, ls_b) = font.getbbox(glyph, anchor='ls')
glyph_width = (ls_r - ls_l) if include_before_left else (ls_r)
glyph_height = ls_b - ls_t
x_offset = -ls_l
y_offset = ls_t - baseline_offset
# Draw each glyph to its own image so we don't get anti-aliasing applied to the final image when straddling edges
glyph_img = Image.new("RGB", (glyph_width, max_font_size), (0, 0, 0, 255))
glyph_draw = ImageDraw.Draw(glyph_img)
if not use_aa:
glyph_draw.fontmode = "1"
glyph_draw.text((x_offset, y_offset), glyph, font=font, anchor='lt')
# Place the glyph-specific image in the correct location overall
img.paste(glyph_img, (cur_x_pos, 1))
# Set up the marker for start of each glyph
pixels = img.load()
pixels[cur_x_pos, 0] = (255, 0, 255)
# Increment for the next glyph's position
cur_x_pos += glyph_width
# Add the ending marker so that the difference/crop works
pixels = img.load()
pixels[cur_x_pos, 0] = (255, 0, 255)
# Determine the usable font area
dummy_img = Image.new("RGB", (total_glyph_width + 1, max_font_size + 1), (0, 0, 0, 255))
bbox = ImageChops.difference(img, dummy_img).getbbox()
bbox = (bbox[0], bbox[1], bbox[2] - 1, bbox[3]) # remove the unused end-marker
# Crop and re-parse the resulting image to ensure we're generating the correct format
self._parse_image(img.crop(bbox), include_ascii_glyphs, unicode_glyphs)
def save_to_image(self, img_file: Path):
# Drop out if there's no image loaded
if self.image is None:
self.logger.error('No image is loaded.')
return
# Save the image to the supplied file
self.image.save(str(img_file))
def read_from_image(self, img_file: Path, include_ascii_glyphs: bool = True, unicode_glyphs: str = ''):
# Load and parse the supplied image file
self._parse_image(Image.open(str(img_file)), include_ascii_glyphs, unicode_glyphs)
return
def save_to_qff(self, format: Dict[str, Any], use_rle: bool, fp):
# Drop out if there's no image loaded
if self.image is None:
self.logger.error('No image is loaded.')
return
# Work out if we want to use RLE at all, skipping it if it's not any smaller (it's applied per-glyph)
(total_data_size, total_rle_data_size) = self._extract_glyphs(format)
if use_rle:
use_rle = (total_rle_data_size < total_data_size)
# For each glyph, work out which image data we want to use and append it to the image buffer, recording the byte-wise offset
img_buffer = bytes()
for _, glyph_entry in self.glyph_data.items():
glyph_entry['data_offset'] = len(img_buffer)
glyph_img_bytes = glyph_entry.image_compressed_bytes if use_rle else glyph_entry.image_uncompressed_bytes
img_buffer += bytes(glyph_img_bytes)
font_descriptor = QFFFontDescriptor()
ascii_table = QFFAsciiGlyphTableV1()
unicode_table = QFFUnicodeGlyphTableV1()
data_descriptor = QFFFontDataDescriptorV1()
data_descriptor.data = img_buffer
# Check if we have all the ASCII glyphs present
include_ascii_glyphs = all([chr(n) in self.glyph_data for n in range(0x20, 0x7F)])
# Helper for populating the blocks
for code_point, glyph_entry in self.glyph_data.items():
if ord(code_point) >= 0x20 and ord(code_point) <= 0x7E and include_ascii_glyphs:
ascii_table.add_glyph(glyph_entry)
else:
unicode_table.add_glyph(glyph_entry)
# Configure the font descriptor
font_descriptor.line_height = self.glyph_height
font_descriptor.has_ascii_table = include_ascii_glyphs
font_descriptor.unicode_glyph_count = len(unicode_table.glyphs.keys())
font_descriptor.is_transparent = False
font_descriptor.format = format['image_format_byte']
font_descriptor.compression = 0x01 if use_rle else 0x00
# Write a dummy font descriptor -- we'll have to come back and write it properly once we've rendered out everything else
font_descriptor_location = fp.tell()
font_descriptor.write(fp)
# Write out the ASCII table if required
if font_descriptor.has_ascii_table:
ascii_table.write(fp)
# Write out the unicode table if required
if font_descriptor.unicode_glyph_count > 0:
unicode_table.write(fp)
# Write out the palette if required
if format['has_palette']:
palette_descriptor = QGFFramePaletteDescriptorV1()
# Helper to convert from RGB888 to the QMK "dialect" of HSV888
def rgb888_to_qmk_hsv888(e):
hsv = rgb_to_hsv(e[0] / 255.0, e[1] / 255.0, e[2] / 255.0)
return (int(hsv[0] * 255.0), int(hsv[1] * 255.0), int(hsv[2] * 255.0))
# Convert all palette entries to HSV888 and write to the output
palette_descriptor.palette_entries = list(map(rgb888_to_qmk_hsv888, self.palette))
palette_descriptor.write(fp)
# Write out the image data
data_descriptor.write(fp)
# Now fix up the overall font descriptor, then write it in the correct location
font_descriptor.total_file_size = fp.tell()
fp.seek(font_descriptor_location, 0)
font_descriptor.write(fp)

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# Copyright 2021 Nick Brassel (@tzarc)
# SPDX-License-Identifier: GPL-2.0-or-later
# Quantum Graphics File "QGF" Image File Format.
# See https://docs.qmk.fm/#/quantum_painter_qgf for more information.
from colorsys import rgb_to_hsv
from types import FunctionType
from PIL import Image, ImageFile, ImageChops
from PIL._binary import o8, o16le as o16, o32le as o32
import qmk.painter
def o24(i):
return o16(i & 0xFFFF) + o8((i & 0xFF0000) >> 16)
########################################################################################################################
class QGFBlockHeader:
block_size = 5
def write(self, fp):
fp.write(b'' # start off with empty bytes...
+ o8(self.type_id) # block type id
+ o8((~self.type_id) & 0xFF) # negated block type id
+ o24(self.length) # blob length
)
########################################################################################################################
class QGFGraphicsDescriptor:
type_id = 0x00
length = 18
magic = 0x464751
def __init__(self):
self.header = QGFBlockHeader()
self.header.type_id = QGFGraphicsDescriptor.type_id
self.header.length = QGFGraphicsDescriptor.length
self.version = 1
self.total_file_size = 0
self.image_width = 0
self.image_height = 0
self.frame_count = 0
def write(self, fp):
self.header.write(fp)
fp.write(
b'' # start off with empty bytes...
+ o24(QGFGraphicsDescriptor.magic) # magic
+ o8(self.version) # version
+ o32(self.total_file_size) # file size
+ o32((~self.total_file_size) & 0xFFFFFFFF) # negated file size
+ o16(self.image_width) # width
+ o16(self.image_height) # height
+ o16(self.frame_count) # frame count
)
########################################################################################################################
class QGFFrameOffsetDescriptorV1:
type_id = 0x01
def __init__(self, frame_count):
self.header = QGFBlockHeader()
self.header.type_id = QGFFrameOffsetDescriptorV1.type_id
self.frame_offsets = [0xFFFFFFFF] * frame_count
self.frame_count = frame_count
def write(self, fp):
self.header.length = len(self.frame_offsets) * 4
self.header.write(fp)
for offset in self.frame_offsets:
fp.write(b'' # start off with empty bytes...
+ o32(offset) # offset
)
########################################################################################################################
class QGFFrameDescriptorV1:
type_id = 0x02
length = 6
def __init__(self):
self.header = QGFBlockHeader()
self.header.type_id = QGFFrameDescriptorV1.type_id
self.header.length = QGFFrameDescriptorV1.length
self.format = 0xFF
self.flags = 0
self.compression = 0xFF
self.transparency_index = 0xFF # TODO: Work out how to retrieve the transparent palette entry from the PIL gif loader
self.delay = 1000 # Placeholder until it gets read from the animation
def write(self, fp):
self.header.write(fp)
fp.write(b'' # start off with empty bytes...
+ o8(self.format) # format
+ o8(self.flags) # flags
+ o8(self.compression) # compression
+ o8(self.transparency_index) # transparency index
+ o16(self.delay) # delay
)
@property
def is_transparent(self):
return (self.flags & 0x01) == 0x01
@is_transparent.setter
def is_transparent(self, val):
if val:
self.flags |= 0x01
else:
self.flags &= ~0x01
@property
def is_delta(self):
return (self.flags & 0x02) == 0x02
@is_delta.setter
def is_delta(self, val):
if val:
self.flags |= 0x02
else:
self.flags &= ~0x02
########################################################################################################################
class QGFFramePaletteDescriptorV1:
type_id = 0x03
def __init__(self):
self.header = QGFBlockHeader()
self.header.type_id = QGFFramePaletteDescriptorV1.type_id
self.header.length = 0
self.palette_entries = [(0xFF, 0xFF, 0xFF)] * 4
def write(self, fp):
self.header.length = len(self.palette_entries) * 3
self.header.write(fp)
for entry in self.palette_entries:
fp.write(b'' # start off with empty bytes...
+ o8(entry[0]) # h
+ o8(entry[1]) # s
+ o8(entry[2]) # v
)
########################################################################################################################
class QGFFrameDeltaDescriptorV1:
type_id = 0x04
length = 8
def __init__(self):
self.header = QGFBlockHeader()
self.header.type_id = QGFFrameDeltaDescriptorV1.type_id
self.header.length = QGFFrameDeltaDescriptorV1.length
self.left = 0
self.top = 0
self.right = 0
self.bottom = 0
def write(self, fp):
self.header.write(fp)
fp.write(b'' # start off with empty bytes...
+ o16(self.left) # left
+ o16(self.top) # top
+ o16(self.right) # right
+ o16(self.bottom) # bottom
)
########################################################################################################################
class QGFFrameDataDescriptorV1:
type_id = 0x05
def __init__(self):
self.header = QGFBlockHeader()
self.header.type_id = QGFFrameDataDescriptorV1.type_id
self.data = []
def write(self, fp):
self.header.length = len(self.data)
self.header.write(fp)
fp.write(bytes(self.data))
########################################################################################################################
class QGFImageFile(ImageFile.ImageFile):
format = "QGF"
format_description = "Quantum Graphics File Format"
def _open(self):
raise NotImplementedError("Reading QGF files is not supported")
########################################################################################################################
def _accept(prefix):
"""Helper method used by PIL to work out if it can parse an input file.
Currently unimplemented.
"""
return False
def _save(im, fp, filename):
"""Helper method used by PIL to write to an output file.
"""
# Work out from the parameters if we need to do anything special
encoderinfo = im.encoderinfo.copy()
append_images = list(encoderinfo.get("append_images", []))
verbose = encoderinfo.get("verbose", False)
use_deltas = encoderinfo.get("use_deltas", True)
use_rle = encoderinfo.get("use_rle", True)
# Helper for inline verbose prints
def vprint(s):
if verbose:
print(s)
# Helper to iterate through all frames in the input image
def _for_all_frames(x: FunctionType):
frame_num = 0
last_frame = None
for frame in [im] + append_images:
# Get number of of frames in this image
nfr = getattr(frame, "n_frames", 1)
for idx in range(nfr):
frame.seek(idx)
frame.load()
copy = frame.copy().convert("RGB")
x(frame_num, copy, last_frame)
last_frame = copy
frame_num += 1
# Collect all the frame sizes
frame_sizes = []
_for_all_frames(lambda idx, frame, last_frame: frame_sizes.append(frame.size))
# Make sure all frames are the same size
if len(list(set(frame_sizes))) != 1:
raise ValueError("Mismatching sizes on frames")
# Write out the initial graphics descriptor (and write a dummy value), so that we can come back and fill in the
# correct values once we've written all the frames to the output
graphics_descriptor_location = fp.tell()
graphics_descriptor = QGFGraphicsDescriptor()
graphics_descriptor.frame_count = len(frame_sizes)
graphics_descriptor.image_width = frame_sizes[0][0]
graphics_descriptor.image_height = frame_sizes[0][1]
vprint(f'{"Graphics descriptor block":26s} {fp.tell():5d}d / {fp.tell():04X}h')
graphics_descriptor.write(fp)
# Work out the frame offset descriptor location (and write a dummy value), so that we can come back and fill in the
# correct offsets once we've written all the frames to the output
frame_offset_location = fp.tell()
frame_offsets = QGFFrameOffsetDescriptorV1(graphics_descriptor.frame_count)
vprint(f'{"Frame offsets block":26s} {fp.tell():5d}d / {fp.tell():04X}h')
frame_offsets.write(fp)
# Helper function to save each frame to the output file
def _write_frame(idx, frame, last_frame):
# If we replace the frame we're going to output with a delta, we can override it here
this_frame = frame
location = (0, 0)
size = frame.size
# Work out the format we're going to use
format = encoderinfo["qmk_format"]
# Convert the original frame so we can do comparisons
converted = qmk.painter.convert_requested_format(this_frame, format)
graphic_data = qmk.painter.convert_image_bytes(converted, format)
# Convert the raw data to RLE-encoded if requested
raw_data = graphic_data[1]
if use_rle:
rle_data = qmk.painter.compress_bytes_qmk_rle(graphic_data[1])
use_raw_this_frame = not use_rle or len(raw_data) <= len(rle_data)
image_data = raw_data if use_raw_this_frame else rle_data
# Work out if a delta frame is smaller than injecting it directly
use_delta_this_frame = False
if use_deltas and last_frame is not None:
# If we want to use deltas, then find the difference
diff = ImageChops.difference(frame, last_frame)
# Get the bounding box of those differences
bbox = diff.getbbox()
# If we have a valid bounding box...
if bbox:
# ...create the delta frame by cropping the original.
delta_frame = frame.crop(bbox)
delta_location = (bbox[0], bbox[1])
delta_size = (bbox[2] - bbox[0], bbox[3] - bbox[1])
# Convert the delta frame to the requested format
delta_converted = qmk.painter.convert_requested_format(delta_frame, format)
delta_graphic_data = qmk.painter.convert_image_bytes(delta_converted, format)
# Work out how large the delta frame is going to be with compression etc.
delta_raw_data = delta_graphic_data[1]
if use_rle:
delta_rle_data = qmk.painter.compress_bytes_qmk_rle(delta_graphic_data[1])
delta_use_raw_this_frame = not use_rle or len(delta_raw_data) <= len(delta_rle_data)
delta_image_data = delta_raw_data if delta_use_raw_this_frame else delta_rle_data
# If the size of the delta frame (plus delta descriptor) is smaller than the original, use that instead
# This ensures that if a non-delta is overall smaller in size, we use that in preference due to flash
# sizing constraints.
if (len(delta_image_data) + QGFFrameDeltaDescriptorV1.length) < len(image_data):
# Copy across all the delta equivalents so that the rest of the processing acts on those
this_frame = delta_frame
location = delta_location
size = delta_size
converted = delta_converted
graphic_data = delta_graphic_data
raw_data = delta_raw_data
rle_data = delta_rle_data
use_raw_this_frame = delta_use_raw_this_frame
image_data = delta_image_data
use_delta_this_frame = True
# Write out the frame descriptor
frame_offsets.frame_offsets[idx] = fp.tell()
vprint(f'{f"Frame {idx:3d} base":26s} {fp.tell():5d}d / {fp.tell():04X}h')
frame_descriptor = QGFFrameDescriptorV1()
frame_descriptor.is_delta = use_delta_this_frame
frame_descriptor.is_transparent = False
frame_descriptor.format = format['image_format_byte']
frame_descriptor.compression = 0x00 if use_raw_this_frame else 0x01 # See qp.h, painter_compression_t
frame_descriptor.delay = frame.info['duration'] if 'duration' in frame.info else 1000 # If we're not an animation, just pretend we're delaying for 1000ms
frame_descriptor.write(fp)
# Write out the palette if required
if format['has_palette']:
palette = graphic_data[0]
palette_descriptor = QGFFramePaletteDescriptorV1()
# Helper to convert from RGB888 to the QMK "dialect" of HSV888
def rgb888_to_qmk_hsv888(e):
hsv = rgb_to_hsv(e[0] / 255.0, e[1] / 255.0, e[2] / 255.0)
return (int(hsv[0] * 255.0), int(hsv[1] * 255.0), int(hsv[2] * 255.0))
# Convert all palette entries to HSV888 and write to the output
palette_descriptor.palette_entries = list(map(rgb888_to_qmk_hsv888, palette))
vprint(f'{f"Frame {idx:3d} palette":26s} {fp.tell():5d}d / {fp.tell():04X}h')
palette_descriptor.write(fp)
# Write out the delta info if required
if use_delta_this_frame:
# Set up the rendering location of where the delta frame should be situated
delta_descriptor = QGFFrameDeltaDescriptorV1()
delta_descriptor.left = location[0]
delta_descriptor.top = location[1]
delta_descriptor.right = location[0] + size[0]
delta_descriptor.bottom = location[1] + size[1]
# Write the delta frame to the output
vprint(f'{f"Frame {idx:3d} delta":26s} {fp.tell():5d}d / {fp.tell():04X}h')
delta_descriptor.write(fp)
# Write out the data for this frame to the output
data_descriptor = QGFFrameDataDescriptorV1()
data_descriptor.data = image_data
vprint(f'{f"Frame {idx:3d} data":26s} {fp.tell():5d}d / {fp.tell():04X}h')
data_descriptor.write(fp)
# Iterate over each if the input frames, writing it to the output in the process
_for_all_frames(_write_frame)
# Go back and update the graphics descriptor now that we can determine the final file size
graphics_descriptor.total_file_size = fp.tell()
fp.seek(graphics_descriptor_location, 0)
graphics_descriptor.write(fp)
# Go back and update the frame offsets now that they're written to the file
fp.seek(frame_offset_location, 0)
frame_offsets.write(fp)
########################################################################################################################
# Register with PIL so that it knows about the QGF format
Image.register_open(QGFImageFile.format, QGFImageFile, _accept)
Image.register_save(QGFImageFile.format, _save)
Image.register_save_all(QGFImageFile.format, _save)
Image.register_extension(QGFImageFile.format, f".{QGFImageFile.format.lower()}")
Image.register_mime(QGFImageFile.format, f"image/{QGFImageFile.format.lower()}")

View File

@@ -248,7 +248,7 @@ def test_clean():
def test_generate_api():
result = check_subcommand('generate-api', '--dry-run')
result = check_subcommand('generate-api', '--dry-run', '--filter', 'handwired/pytest')
check_returncode(result)
@@ -263,7 +263,7 @@ def test_generate_config_h():
result = check_subcommand('generate-config-h', '-kb', 'handwired/pytest/basic')
check_returncode(result)
assert '# define DEVICE_VER 0x0001' in result.stdout
assert '# define DESCRIPTION handwired/pytest/basic' in result.stdout
assert '# define DESCRIPTION "handwired/pytest/basic"' in result.stdout
assert '# define DIODE_DIRECTION COL2ROW' in result.stdout
assert '# define MANUFACTURER none' in result.stdout
assert '# define PRODUCT pytest' in result.stdout