initial pass

This commit is contained in:
Harrison Lambeth 2025-01-15 22:34:35 -07:00
parent 3961720ef0
commit 01025e9157
16 changed files with 1222 additions and 1 deletions

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from parser import ExtractedSymbols, ExtractedEnum, ExtractedStruct, ExtractedFunction
from typing import Any, Callable, DefaultDict, Literal, NotRequired, Optional, TypedDict
from pathlib import Path
from dataclasses import dataclass
SymbolType = Literal['enum', 'struct', 'function']
class BaseGenerator:
def __init__(self, extracted_symbols: ExtractedSymbols):
self.extracted_symbols = extracted_symbols
self.output_content: dict[str, list[str]] = dict()
def generate(self) -> None:
pass
def has_symbol(self, symbol: str) -> bool:
return (
symbol in self.extracted_symbols.enums or
symbol in self.extracted_symbols.structs or
symbol in self.extracted_symbols.functions
)
def get_symbol_type(self, symbol: str) -> SymbolType:
if symbol in self.extracted_symbols.enums:
return 'enum'
elif symbol in self.extracted_symbols.structs:
return 'struct'
elif symbol in self.extracted_symbols.functions:
return 'function'
raise ValueError(f'Unknown symbol: {symbol}')
def _write(self, file_name: str, content: str) -> None:
if file_name not in self.output_content:
self.output_content[file_name] = []
self.output_content[file_name].append(content)
def write_outputs(self, output_dir: Path) -> None:
for file_name, content in self.output_content.items():
with open(output_dir / file_name, 'w') as f:
f.write("\n".join(content))
def get_outputs(self) -> dict[str, str]:
return {file_name: "\n".join(content) for file_name, content in self.output_content.items()}

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package clay
import "core:c"
import "core:strings"
when ODIN_OS == .Windows {
foreign import Clay "windows/clay.lib"
} else when ODIN_OS == .Linux {
foreign import Clay "linux/clay.a"
} else when ODIN_OS == .Darwin {
when ODIN_ARCH == .arm64 {
foreign import Clay "macos-arm64/clay.a"
} else {
foreign import Clay "macos/clay.a"
}
} else when ODIN_ARCH == .wasm32 || ODIN_ARCH == .wasm64p32 {
foreign import Clay "wasm/clay.o"
}
when ODIN_OS == .Windows {
EnumBackingType :: u32
} else {
EnumBackingType :: u8
}
{{enums}}
Context :: struct {
}
ClayArray :: struct($type: typeid) {
capacity: i32,
length: i32,
internalArray: [^]type,
}
SizingConstraints :: struct #raw_union {
sizeMinMax: SizingConstraintsMinMax,
sizePercent: c.float,
}
{{structs}}
@(link_prefix = "Clay_", default_calling_convention = "c")
foreign Clay {
{{public_functions}}
}
@(link_prefix = "Clay_", default_calling_convention = "c", private)
foreign Clay {
{{private_functions}}
}
@(require_results, deferred_none = _CloseElement)
UI :: proc(configs: ..TypedConfig) -> bool {
_OpenElement()
for config in configs {
#partial switch (config.type) {
case ElementConfigType.Id:
_AttachId(config.id)
case ElementConfigType.Layout:
_AttachLayoutConfig(cast(^LayoutConfig)config.config)
case:
_AttachElementConfig(config.config, config.type)
}
}
_ElementPostConfiguration()
return true
}
Layout :: proc(config: LayoutConfig) -> TypedConfig {
return {type = ElementConfigType.Layout, config = _StoreLayoutConfig(config) }
}
PaddingAll :: proc (padding: u16) -> Padding {
return { padding, padding, padding, padding }
}
Rectangle :: proc(config: RectangleElementConfig) -> TypedConfig {
return {type = ElementConfigType.Rectangle, config = _StoreRectangleElementConfig(config)}
}
Text :: proc(text: string, config: ^TextElementConfig) {
_OpenTextElement(MakeString(text), config)
}
TextConfig :: proc(config: TextElementConfig) -> ^TextElementConfig {
return _StoreTextElementConfig(config)
}
Image :: proc(config: ImageElementConfig) -> TypedConfig {
return {type = ElementConfigType.Image, config = _StoreImageElementConfig(config)}
}
Floating :: proc(config: FloatingElementConfig) -> TypedConfig {
return {type = ElementConfigType.Floating, config = _StoreFloatingElementConfig(config)}
}
Custom :: proc(config: CustomElementConfig) -> TypedConfig {
return {type = ElementConfigType.Custom, config = _StoreCustomElementConfig(config)}
}
Scroll :: proc(config: ScrollElementConfig) -> TypedConfig {
return {type = ElementConfigType.Scroll, config = _StoreScrollElementConfig(config)}
}
Border :: proc(config: BorderElementConfig) -> TypedConfig {
return {type = ElementConfigType.Border, config = _StoreBorderElementConfig(config)}
}
BorderOutside :: proc(outsideBorders: BorderData) -> TypedConfig {
return { type = ElementConfigType.Border, config = _StoreBorderElementConfig((BorderElementConfig){left = outsideBorders, right = outsideBorders, top = outsideBorders, bottom = outsideBorders}) }
}
BorderOutsideRadius :: proc(outsideBorders: BorderData, radius: f32) -> TypedConfig {
return { type = ElementConfigType.Border, config = _StoreBorderElementConfig(
(BorderElementConfig){left = outsideBorders, right = outsideBorders, top = outsideBorders, bottom = outsideBorders, cornerRadius = {radius, radius, radius, radius}},
) }
}
BorderAll :: proc(allBorders: BorderData) -> TypedConfig {
return { type = ElementConfigType.Border, config = _StoreBorderElementConfig((BorderElementConfig){left = allBorders, right = allBorders, top = allBorders, bottom = allBorders, betweenChildren = allBorders}) }
}
BorderAllRadius :: proc(allBorders: BorderData, radius: f32) -> TypedConfig {
return { type = ElementConfigType.Border, config = _StoreBorderElementConfig(
(BorderElementConfig){left = allBorders, right = allBorders, top = allBorders, bottom = allBorders, cornerRadius = {radius, radius, radius, radius}},
) }
}
CornerRadiusAll :: proc(radius: f32) -> CornerRadius {
return CornerRadius{radius, radius, radius, radius}
}
SizingFit :: proc(sizeMinMax: SizingConstraintsMinMax) -> SizingAxis {
return SizingAxis{type = SizingType.FIT, constraints = {sizeMinMax = sizeMinMax}}
}
SizingGrow :: proc(sizeMinMax: SizingConstraintsMinMax) -> SizingAxis {
return SizingAxis{type = SizingType.GROW, constraints = {sizeMinMax = sizeMinMax}}
}
SizingFixed :: proc(size: c.float) -> SizingAxis {
return SizingAxis{type = SizingType.FIXED, constraints = {sizeMinMax = {size, size}}}
}
SizingPercent :: proc(sizePercent: c.float) -> SizingAxis {
return SizingAxis{type = SizingType.PERCENT, constraints = {sizePercent = sizePercent}}
}
MakeString :: proc(label: string) -> String {
return String{chars = raw_data(label), length = cast(c.int)len(label)}
}
ID :: proc(label: string, index: u32 = 0) -> TypedConfig {
return { type = ElementConfigType.Id, id = _HashString(MakeString(label), index, 0) }
}

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from pathlib import Path
import logging
from generators.base_generator import BaseGenerator
logger = logging.getLogger(__name__)
def get_common_prefix(keys: list[str]) -> str:
# find a prefix that's shared between all keys
prefix = ""
for i in range(min(map(len, keys))):
if len(set(key[i] for key in keys)) > 1:
break
prefix += keys[0][i]
return prefix
def snake_case_to_pascal_case(snake_case: str) -> str:
return ''.join(word.lower().capitalize() for word in snake_case.split('_'))
SYMBOL_NAME_OVERRIDES = {
'Clay_TextElementConfigWrapMode': 'TextWrapMode',
'Clay_Border': 'BorderData',
'Clay_SizingMinMax': 'SizingConstraintsMinMax',
}
SYMBOL_COMPLETE_OVERRIDES = {
'Clay_RenderCommandArray': 'ClayArray(RenderCommand)',
'Clay_Context': 'Context',
'Clay_ElementConfig': None,
# 'Clay_SetQueryScrollOffsetFunction': None,
}
# These enums should have output binding members that are PascalCase instead of UPPER_SNAKE_CASE.
ENUM_MEMBER_PASCAL = {
'Clay_RenderCommandType',
'Clay_TextElementConfigWrapMode',
'Clay__ElementConfigType',
}
ENUM_MEMBER_OVERRIDES = {
'Clay__ElementConfigType': {
'CLAY__ELEMENT_CONFIG_TYPE_BORDER_CONTAINER': 'Border',
'CLAY__ELEMENT_CONFIG_TYPE_FLOATING_CONTAINER': 'Floating',
'CLAY__ELEMENT_CONFIG_TYPE_SCROLL_CONTAINER': 'Scroll',
}
}
ENUM_ADDITIONAL_MEMBERS = {
'Clay__ElementConfigType': {
'Id': 65,
'Layout': 66,
}
}
TYPE_MAPPING = {
'*char': '[^]c.char',
'const *char': '[^]c.char',
'*void': 'rawptr',
'bool': 'bool',
'float': 'c.float',
'uint16_t': 'u16',
'uint32_t': 'u32',
'int32_t': 'c.int32_t',
'uintptr_t': 'rawptr',
'void': 'void',
'*Clay_RectangleElementConfig': '^RectangleElementConfig',
'*Clay_TextElementConfig': '^TextElementConfig',
'*Clay_ImageElementConfig': '^ImageElementConfig',
'*Clay_FloatingElementConfig': '^FloatingElementConfig',
'*Clay_CustomElementConfig': '^CustomElementConfig',
'*Clay_ScrollElementConfig': '^ScrollElementConfig',
'*Clay_BorderElementConfig': '^BorderElementConfig',
}
STRUCT_TYPE_OVERRIDES = {
'Clay_Arena': {
'nextAllocation': 'uintptr',
'capacity': 'uintptr',
},
'Clay_ErrorHandler': {
'errorHandlerFunction': 'proc "c" (errorData: ErrorData)',
},
'Clay_SizingAxis': {
'size': 'SizingConstraints',
},
}
STRUCT_MEMBER_OVERRIDES = {
'Clay_ErrorHandler': {
'errorHandlerFunction': 'handler',
},
'Clay_SizingAxis': {
'size': 'constraints',
},
}
STRUCT_OVERRIDE_AS_FIXED_ARRAY = {
'Clay_Color',
'Clay_Vector2',
}
FUNCTION_PARAM_OVERRIDES = {
'Clay_SetCurrentContext': {
'context': 'ctx',
},
}
FUNCTION_TYPE_OVERRIDES = {
'Clay_CreateArenaWithCapacityAndMemory': {
'offset': '[^]u8',
},
'Clay_SetMeasureTextFunction': {
'measureTextFunction': 'proc "c" (text: ^String, config: ^TextElementConfig) -> Dimensions',
},
}
class OdinGenerator(BaseGenerator):
def generate(self) -> None:
self.generate_structs()
self.generate_enums()
self.generate_functions()
odin_template_path = Path(__file__).parent / 'odin' / 'clay.template.odin'
with open(odin_template_path, 'r') as f:
template = f.read()
self.output_content['clay.odin'] = (
template
.replace('{{structs}}', '\n'.join(self.output_content['struct']))
.replace('{{enums}}', '\n'.join(self.output_content['enum']))
.replace('{{public_functions}}', '\n'.join(self.output_content['public_function']))
.replace('{{private_functions}}', '\n'.join(self.output_content['private_function']))
.splitlines()
)
del self.output_content['struct']
del self.output_content['enum']
del self.output_content['private_function']
del self.output_content['public_function']
def get_symbol_name(self, symbol: str) -> str:
if symbol in SYMBOL_NAME_OVERRIDES:
return SYMBOL_NAME_OVERRIDES[symbol]
symbol_type = self.get_symbol_type(symbol)
base_name = symbol.removeprefix('Clay_')
if symbol_type == 'enum':
return base_name.removeprefix('_') # Clay_ and Clay__ are exported as public types.
elif symbol_type == 'struct':
return base_name
elif symbol_type == 'function':
return base_name
raise ValueError(f'Unknown symbol: {symbol}')
def resolve_binding_type(self, symbol: str, member: str | None, member_type: str | None, type_overrides: dict[str, dict[str, str]]) -> str | None:
if member_type in SYMBOL_COMPLETE_OVERRIDES:
return SYMBOL_COMPLETE_OVERRIDES[member_type]
if symbol in type_overrides and member in type_overrides[symbol]:
return type_overrides[symbol][member]
if member_type in TYPE_MAPPING:
return TYPE_MAPPING[member_type]
if member_type and self.has_symbol(member_type):
return self.get_symbol_name(member_type)
if member_type and member_type.startswith('*'):
result = self.resolve_binding_type(symbol, member, member_type[1:], type_overrides)
if result:
return f"^{result}"
return None
def generate_structs(self) -> None:
for struct, members in sorted(self.extracted_symbols.structs.items(), key=lambda x: x[0]):
if not struct.startswith('Clay_'):
continue
if struct in SYMBOL_COMPLETE_OVERRIDES:
continue
binding_name = self.get_symbol_name(struct)
if binding_name.startswith('_'):
continue
if struct in STRUCT_OVERRIDE_AS_FIXED_ARRAY:
array_size = len(members)
array_type = list(members.values())[0]['type']
if array_type in TYPE_MAPPING:
array_binding_type = TYPE_MAPPING[array_type]
elif array_type and self.has_symbol(array_type):
array_binding_type = self.get_symbol_name(array_type)
else:
self._write('struct', f"// {struct} ({array_type}) - has no mapping")
continue
self._write('struct', f"// {struct} (overridden as fixed array)")
self._write('struct', f"{binding_name} :: [{array_size}]{array_binding_type}")
self._write('struct', "")
continue
self._write('struct', f"// {struct}")
self._write('struct', f"{binding_name} :: struct {{")
for member, member_info in members.items():
if struct in STRUCT_TYPE_OVERRIDES and member in STRUCT_TYPE_OVERRIDES[struct]:
member_type = 'unknown'
elif not 'type' in member_info:
self._write('struct', f" // {member} (unknown type)")
continue
else:
member_type = member_info['type']
binding_member_name = member
if struct in STRUCT_MEMBER_OVERRIDES and member in STRUCT_MEMBER_OVERRIDES[struct]:
binding_member_name = STRUCT_MEMBER_OVERRIDES[struct][member]
member_binding_type = self.resolve_binding_type(struct, member, member_type, STRUCT_TYPE_OVERRIDES)
if member_binding_type is None:
self._write('struct', f" // {binding_member_name} ({member_type}) - has no mapping")
continue
self._write('struct', f" {binding_member_name}: {member_binding_type}, // {member} ({member_type})")
self._write('struct', "}")
self._write('struct', '')
def generate_enums(self) -> None:
for enum, members in sorted(self.extracted_symbols.enums.items(), key=lambda x: x[0]):
if not enum.startswith('Clay_'):
continue
if enum in SYMBOL_COMPLETE_OVERRIDES:
continue
binding_name = self.get_symbol_name(enum)
common_member_prefix = get_common_prefix(list(members.keys()))
self._write('enum', f"// {enum}")
self._write('enum', f"{binding_name} :: enum EnumBackingType {{")
for member in members:
if enum in ENUM_MEMBER_OVERRIDES and member in ENUM_MEMBER_OVERRIDES[enum]:
binding_member_name = ENUM_MEMBER_OVERRIDES[enum][member]
else:
binding_member_name = member.removeprefix(common_member_prefix)
if enum in ENUM_MEMBER_PASCAL:
binding_member_name = snake_case_to_pascal_case(binding_member_name)
if members[member] is not None:
self._write('enum', f" {binding_member_name} = {members[member]}, // {member}")
else:
self._write('enum', f" {binding_member_name}, // {member}")
if enum in ENUM_ADDITIONAL_MEMBERS:
self._write('enum', ' // Odin specific enum types')
for member, value in ENUM_ADDITIONAL_MEMBERS[enum].items():
self._write('enum', f" {member} = {value},")
self._write('enum', "}")
self._write('enum', '')
def generate_functions(self) -> None:
for function, function_info in sorted(self.extracted_symbols.functions.items(), key=lambda x: x[0]):
if not function.startswith('Clay_'):
continue
if function in SYMBOL_COMPLETE_OVERRIDES:
continue
is_private = function.startswith('Clay__')
write_to = 'private_function' if is_private else 'public_function'
binding_name = self.get_symbol_name(function)
return_type = function_info['return_type']
binding_return_type = self.resolve_binding_type(function, None, return_type, {})
if binding_return_type is None:
self._write(write_to, f" // {function} ({return_type}) - has no mapping")
continue
skip = False
binding_params = []
for param_name, param_type in function_info['params']:
binding_param_name = param_name
if function in FUNCTION_PARAM_OVERRIDES and param_name in FUNCTION_PARAM_OVERRIDES[function]:
binding_param_name = FUNCTION_PARAM_OVERRIDES[function][param_name]
binding_param_type = self.resolve_binding_type(function, param_name, param_type, FUNCTION_TYPE_OVERRIDES)
if binding_param_type is None:
skip = True
binding_params.append(f"{binding_param_name}: {binding_param_type}")
if skip:
self._write(write_to, f" // {function} - has no mapping")
continue
binding_params_str = ', '.join(binding_params)
self._write(write_to, f" {binding_name} :: proc({binding_params_str}) -> {binding_return_type} --- // {function}")