hikari.colours
Alias for the hikari.colors
module.
View Source
# -*- coding: utf-8 -*- # cython: language_level=3 # Copyright (c) 2020 Nekokatt # Copyright (c) 2021-present davfsa # # Permission is hereby granted, free of charge, to any person obtaining a copy # of this software and associated documentation files (the "Software"), to deal # in the Software without restriction, including without limitation the rights # to use, copy, modify, merge, publish, distribute, sublicense, and/or sell # copies of the Software, and to permit persons to whom the Software is # furnished to do so, subject to the following conditions: # # The above copyright notice and this permission notice shall be included in all # copies or substantial portions of the Software. # # THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR # IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, # FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE # AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER # LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, # OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE # SOFTWARE. """Alias for the `hikari.colors` module.""" from __future__ import annotations __all__: typing.Sequence[str] = ("Colour", "Colourish") import typing from hikari import colors Colour = colors.Color """An alias for `hikari.colors.Color`.""" Colourish = colors.Colorish """An alias for `hikari.colors.Colorish`."""
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class Color(int): """Representation of a color. This value is immutable. This is a specialization of `int` which provides alternative overrides for common methods and color system conversions. This currently supports: * RGB * RGB (float) * 3-digit hex codes (e.g. 0xF1A -- web safe) * 6-digit hex codes (e.g. 0xFF11AA) * 3-digit RGB strings (e.g. #1A2 -- web safe) * 6-digit RGB hash strings (e.g. #1A2B3C) Examples -------- Examples of conversions to given formats include: ```py >>> c = Color(0xFF051A) Color(r=0xff, g=0x5, b=0x1a) >>> hex(c) 0xff051a >>> c.hex_code #FF051A >>> str(c) #FF051A >>> int(c) 16712986 >>> c.rgb (255, 5, 26) >>> c.rgb_float (1.0, 0.0196078431372549, 0.10196078431372549) ``` Alternatively, if you have an arbitrary input in one of the above formats that you wish to become a color, you can use `Color.of` on the class itself to automatically attempt to resolve the color: ```py >>> Color.of(0xFF051A) Color(r=0xff, g=0x5, b=0x1a) >>> Color.of(16712986) Color(r=0xff, g=0x5, b=0x1a) >>> c = Color.of((255, 5, 26)) Color(r=0xff, g=0x5, b=1xa) >>> c = Color.of(255, 5, 26) Color(r=0xff, g=0x5, b=1xa) >>> c = Color.of([0xFF, 0x5, 0x1a]) Color(r=0xff, g=0x5, b=1xa) >>> c = Color.of("#1a2b3c") Color(r=0x1a, g=0x2b, b=0x3c) >>> c = Color.of("#1AB") Color(r=0x11, g=0xaa, b=0xbb) >>> c = Color.of((1.0, 0.0196078431372549, 0.10196078431372549)) Color(r=0xff, g=0x5, b=0x1a) >>> c = Color.of([1.0, 0.0196078431372549, 0.10196078431372549]) Color(r=0xff, g=0x5, b=0x1a) ``` Examples of initialization of Color objects from given formats include: ```py >>> c = Color(16712986) Color(r=0xff, g=0x5, b=0x1a) >>> c = Color.from_rgb(255, 5, 26) Color(r=0xff, g=0x5, b=1xa) >>> c = Color.from_hex_code("#1a2b3c") Color(r=0x1a, g=0x2b, b=0x3c) >>> c = Color.from_hex_code("#1AB") Color(r=0x11, g=0xaa, b=0xbb) >>> c = Color.from_rgb_float(1.0, 0.0196078431372549, 0.10196078431372549) Color(r=0xff, g=0x5, b=0x1a) ``` """ __slots__: typing.Sequence[str] = () def __init__(self, raw_rgb: typing.SupportsInt) -> None: if not (0 <= int(raw_rgb) <= 0xFFFFFF): raise ValueError(f"raw_rgb must be in the exclusive range of 0 and {0xFF_FF_FF}") # The __new__ for `int` initializes the value for us, this super-call does nothing other # than keeping the linter happy. super().__init__() def __repr__(self) -> str: r, g, b = self.rgb return f"Color(r={hex(r)}, g={hex(g)}, b={hex(b)})" def __str__(self) -> str: return self.hex_code @property def rgb(self) -> typing.Tuple[int, int, int]: """The RGB representation of this Color. Represented as a tuple of R, G, B. Each value is in the range [0, 0xFF]. Example ------- `(123, 234, 47)` """ # noqa: D401 - Imperative mood return (self >> 16) & 0xFF, (self >> 8) & 0xFF, self & 0xFF @property def rgb_float(self) -> typing.Tuple[float, float, float]: """Return the floating-point RGB representation of this Color. Represented as a tuple of R, G, B. Each value is in the range [0, 1]. Example ------- `(0.1, 0.2, 0.76)` """ r, g, b = self.rgb return r / 0xFF, g / 0xFF, b / 0xFF @property def hex_code(self) -> str: """Six-digit hexadecimal color code for this Color. This is prepended with a `#` symbol, and will be in upper case. Example ------- `#1A2B3C` """ return "#" + self.raw_hex_code @property def raw_hex_code(self) -> str: """Raw hex code. Example ------- `1A2B3C` """ components = self.rgb return "".join(hex(c)[2:].zfill(2) for c in components).upper() @property def is_web_safe(self) -> bool: """Whether this color is web safe.""" return not (((self & 0xFF0000) % 0x110000) or ((self & 0xFF00) % 0x1100) or ((self & 0xFF) % 0x11)) @classmethod def from_rgb(cls, red: int, green: int, blue: int, /) -> Color: """Convert the given RGB to a `Color` object. Each channel must be within the range [0, 255] (0x0, 0xFF). Parameters ---------- red : int Red channel. green : int Green channel. blue : int Blue channel. Returns ------- Color A Color object. Raises ------ ValueError If red, green, or blue are outside the range [0x0, 0xFF]. """ if not 0 <= red <= 0xFF: raise ValueError("Expected red channel to be in the inclusive range of 0 and 255") if not 0 <= green <= 0xFF: raise ValueError("Expected green channel to be in the inclusive range of 0 and 255") if not 0 <= blue <= 0xFF: raise ValueError("Expected blue channel to be in the inclusive range of 0 and 255") return cls((red << 16) | (green << 8) | blue) @classmethod def from_rgb_float(cls, red: float, green: float, blue: float, /) -> Color: """Convert the given RGB to a `Color` object. The color-space represented values have to be within the range [0, 1]. Parameters ---------- red : float Red channel. green : float Green channel. blue : float Blue channel. Returns ------- Color A Color object. Raises ------ ValueError If red, green or blue are outside the range [0, 1]. """ if not 0 <= red <= 1: raise ValueError("Expected red channel to be in the inclusive range of 0.0 and 1.0") if not 0 <= green <= 1: raise ValueError("Expected green channel to be in the inclusive range of 0.0 and 1.0") if not 0 <= blue <= 1: raise ValueError("Expected blue channel to be in the inclusive range of 0.0 and 1.0") return cls.from_rgb(int(red * 0xFF), int(green * 0xFF), int(blue * 0xFF)) @classmethod def from_hex_code(cls, hex_code: str, /) -> Color: """Convert the given hexadecimal color code to a `Color`. The inputs may be of the following format (case insensitive): `1a2`, `#1a2`, `0x1a2` (for web-safe colors), or `1a2b3c`, `#1a2b3c`, `0x1a2b3c` (for regular 3-byte color-codes). Parameters ---------- hex_code : str A hexadecimal color code to parse. This may optionally start with a case insensitive `0x` or `#`. Returns ------- Color A corresponding Color object. Raises ------ ValueError If `hex_code` is not a hexadecimal or is a invalid length. """ if hex_code.startswith("#"): hex_code = hex_code[1:] elif hex_code.startswith(("0x", "0X")): hex_code = hex_code[2:] if not all(c in string.hexdigits for c in hex_code): raise ValueError("Color code must be hexadecimal") if len(hex_code) == 3: # Web-safe r, g, b = (c << 4 | c for c in (int(c, 16) for c in hex_code)) return cls.from_rgb(r, g, b) if len(hex_code) == 6: return cls.from_rgb(int(hex_code[:2], 16), int(hex_code[2:4], 16), int(hex_code[4:6], 16)) raise ValueError("Color code is invalid length. Must be 3 or 6 digits") @classmethod def from_int(cls, integer: typing.SupportsInt, /) -> Color: """Convert the given `typing.SupportsInt` to a `Color`. Parameters ---------- integer : typing.SupportsInt The raw color integer. Returns ------- Color The Color object. """ return cls(integer) @classmethod def from_tuple_string(cls, tuple_str: str, /) -> Color: """Convert a string in a tuple-like format to a `Color`. This allows formats that are optionally enclosed by `()`, `{}`, or `[]`, and contain three floats or ints, either space separated or comma separated. If comma separated, trailing and leading whitespace around each member is truncated. This is provided to allow command frontends to directly pass user input for representing a given colour into this class safely. Examples -------- ```py # Floats "1.0 1.0 1.0" "(1.0 1.0 1.0)" "[1.0 1.0 1.0]" "{1.0 1.0 1.0}" "1.0, 1.0, 1.0" "(1.0, 1.0, 1.0)" "[1.0, 1.0, 1.0]" "{1.0, 1.0, 1.0}" # Ints "252 252 252" "(252 252 252)" "[252 252 252]" "{252 252 252}" "252, 252, 252" "(252, 252, 252)" "[252, 252, 252]" "{252, 252, 252}" ``` Parameters ---------- tuple_str : str The string to parse. Returns ------- Color The parsed colour object. Raises ------ ValueError If an invalid format is given, or if any values exceed 1.0 for floats or 255 for ints. """ if tuple_str[:: len(tuple_str) - 1] in ("()", "{}", "<>", "[]"): tuple_str = tuple_str[1:-1].strip() try: if "," in tuple_str: r, g, b = (bit.strip() for bit in tuple_str.split(",")) else: r, g, b = tuple_str.split() except ValueError: raise ValueError("Expected three comma/space separated values") from None if any("." in s for s in (r, g, b)): return cls.from_rgb_float(_to_rgb_float(r, "red"), _to_rgb_float(g, "green"), _to_rgb_float(b, "blue")) else: return cls.from_rgb(_to_rgb_int(r, "red"), _to_rgb_int(g, "green"), _to_rgb_int(b, "blue")) # Partially chose to override these as the docstrings contain typos according to Sphinx. @classmethod def from_bytes( cls, bytes_: typing.Union[typing.Iterable[typing.SupportsIndex], typing.SupportsBytes], byteorder: typing.Literal["little", "big"], *, signed: bool = True, ) -> Color: """Convert the bytes to a `Color`. Parameters ---------- bytes_ : typing.Iterable[int] A iterable of int byte values. byteorder : str The endianness of the value represented by the bytes. Can be `"big"` endian or `"little"` endian. signed : bool Whether the value is signed or unsigned. Returns ------- Color The Color object. """ return Color(int.from_bytes(bytes_, byteorder, signed=signed)) @classmethod def of(cls, value: Colorish, /) -> Color: """Convert the value to a `Color`. This attempts to determine the correct data format based on the information provided. Parameters ---------- value : Colorish A color compatible values. Examples -------- ```py >>> Color.of(0xFF051A) Color(r=0xff, g=0x5, b=0x1a) >>> Color.of(16712986) Color(r=0xff, g=0x5, b=0x1a) >>> c = Color.of((255, 5, 26)) Color(r=0xff, g=0x5, b=1xa) >>> c = Color.of([0xFF, 0x5, 0x1a]) Color(r=0xff, g=0x5, b=1xa) >>> c = Color.of("#1a2b3c") Color(r=0x1a, g=0x2b, b=0x3c) >>> c = Color.of("#1AB") Color(r=0x11, g=0xaa, b=0xbb) >>> c = Color.of((1.0, 0.0196078431372549, 0.10196078431372549)) Color(r=0xff, g=0x5, b=0x1a) >>> c = Color.of([1.0, 0.0196078431372549, 0.10196078431372549]) Color(r=0xff, g=0x5, b=0x1a) # Commas and brackets are optional, whitespace is ignored, and these # are compatible with all-ints between 0-255 or all-floats between # 0.0 and 1.0 only. >>> c = Color.of("5, 22, 33") Color(r=0x5, g=0x16, b=0x21) >>> c = Color.of("(5, 22, 33)") Color(r=0x5, g=0x16, b=0x21) >>> c = Color.of("[5, 22, 33]") Color(r=0x5, g=0x16, b=0x21) >>> c = Color.of("{5, 22, 33}") Color(r=0x5, g=0x16, b=0x21) ``` Returns ------- Color The Color object. """ if isinstance(value, cls): return value if isinstance(value, int): return cls.from_int(value) if isinstance(value, (list, tuple)): if len(value) != 3: raise ValueError(f"Color must be an RGB triplet if set to a {type(value).__name__} type") if any(isinstance(c, float) for c in value): r, g, b = value return cls.from_rgb_float(r, g, b) if all(isinstance(c, int) for c in value): r, g, b = value return cls.from_rgb(r, g, b) if isinstance(value, str): if any(c in value for c in "({[<,. "): return cls.from_tuple_string(value) is_start_hash_or_hex_literal = value.casefold().startswith(("#", "0x")) is_hex_digits = all(c in string.hexdigits for c in value) and len(value) in (3, 6) if is_start_hash_or_hex_literal or is_hex_digits: return cls.from_hex_code(value) raise ValueError(f"Could not transform {value!r} into a {cls.__qualname__} object") def to_bytes( self, length: typing.SupportsIndex, byteorder: typing.Literal["little", "big"], *, signed: bool = True, ) -> bytes: """Convert the color code to bytes. Parameters ---------- length : int The number of bytes to produce. Should be around `3`, but not less. byteorder : str The endianness of the value represented by the bytes. Can be `"big"` endian or `"little"` endian. signed : bool Whether the value is signed or unsigned. Returns ------- bytes The bytes representation of the Color. """ return int(self).to_bytes(length, byteorder, signed=signed)
An alias for hikari.colors.Color
.
Variables and properties
the denominator of a rational number in lowest terms
Six-digit hexadecimal color code for this Color.
This is prepended with a #
symbol, and will be in upper case.
Example
#1A2B3C
the imaginary part of a complex number
Whether this color is web safe.
the numerator of a rational number in lowest terms
Raw hex code.
Example
1A2B3C
the real part of a complex number
The RGB representation of this Color.
Represented as a tuple of R, G, B. Each value is in the range [0, 0xFF].
Example
(123, 234, 47)
Return the floating-point RGB representation of this Color.
Represented as a tuple of R, G, B. Each value is in the range [0, 1].
Example
(0.1, 0.2, 0.76)
Methods
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def __init__(self, raw_rgb: typing.SupportsInt) -> None: if not (0 <= int(raw_rgb) <= 0xFFFFFF): raise ValueError(f"raw_rgb must be in the exclusive range of 0 and {0xFF_FF_FF}") # The __new__ for `int` initializes the value for us, this super-call does nothing other # than keeping the linter happy. super().__init__()
Return integer ratio.
Return a pair of integers, whose ratio is exactly equal to the original int and with a positive denominator.
>>> (10).as_integer_ratio()
(10, 1)
>>> (-10).as_integer_ratio()
(-10, 1)
>>> (0).as_integer_ratio()
(0, 1)
Number of bits necessary to represent self in binary.
>>> bin(37)
'0b100101'
>>> (37).bit_length()
6
Returns self, the complex conjugate of any int.
cls,
bytes_: Union[Iterable[SupportsIndex], SupportsBytes],
byteorder: Literal['little', 'big'],
*,
signed: bool = True
) -> hikari.colors.Color:
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@classmethod def from_bytes( cls, bytes_: typing.Union[typing.Iterable[typing.SupportsIndex], typing.SupportsBytes], byteorder: typing.Literal["little", "big"], *, signed: bool = True, ) -> Color: """Convert the bytes to a `Color`. Parameters ---------- bytes_ : typing.Iterable[int] A iterable of int byte values. byteorder : str The endianness of the value represented by the bytes. Can be `"big"` endian or `"little"` endian. signed : bool Whether the value is signed or unsigned. Returns ------- Color The Color object. """ return Color(int.from_bytes(bytes_, byteorder, signed=signed))
Convert the bytes to a Color
.
Parameters
- bytes_ (typing.Iterable[int]): A iterable of int byte values.
- byteorder (str): The endianness of the value represented by the bytes. Can be
"big"
endian or"little"
endian. - signed (bool): Whether the value is signed or unsigned.
Returns
- Color: The Color object.
View Source
@classmethod def from_hex_code(cls, hex_code: str, /) -> Color: """Convert the given hexadecimal color code to a `Color`. The inputs may be of the following format (case insensitive): `1a2`, `#1a2`, `0x1a2` (for web-safe colors), or `1a2b3c`, `#1a2b3c`, `0x1a2b3c` (for regular 3-byte color-codes). Parameters ---------- hex_code : str A hexadecimal color code to parse. This may optionally start with a case insensitive `0x` or `#`. Returns ------- Color A corresponding Color object. Raises ------ ValueError If `hex_code` is not a hexadecimal or is a invalid length. """ if hex_code.startswith("#"): hex_code = hex_code[1:] elif hex_code.startswith(("0x", "0X")): hex_code = hex_code[2:] if not all(c in string.hexdigits for c in hex_code): raise ValueError("Color code must be hexadecimal") if len(hex_code) == 3: # Web-safe r, g, b = (c << 4 | c for c in (int(c, 16) for c in hex_code)) return cls.from_rgb(r, g, b) if len(hex_code) == 6: return cls.from_rgb(int(hex_code[:2], 16), int(hex_code[2:4], 16), int(hex_code[4:6], 16)) raise ValueError("Color code is invalid length. Must be 3 or 6 digits")
Convert the given hexadecimal color code to a Color
.
The inputs may be of the following format (case insensitive): 1a2
, #1a2
, 0x1a2
(for web-safe colors), or 1a2b3c
, #1a2b3c
, 0x1a2b3c
(for regular 3-byte color-codes).
Parameters
- hex_code (str): A hexadecimal color code to parse. This may optionally start with a case insensitive
0x
or#
.
Returns
- Color: A corresponding Color object.
Raises
- ValueError: If
hex_code
is not a hexadecimal or is a invalid length.
View Source
@classmethod def from_int(cls, integer: typing.SupportsInt, /) -> Color: """Convert the given `typing.SupportsInt` to a `Color`. Parameters ---------- integer : typing.SupportsInt The raw color integer. Returns ------- Color The Color object. """ return cls(integer)
Convert the given typing.SupportsInt
to a Color
.
Parameters
- integer (typing.SupportsInt): The raw color integer.
Returns
- Color: The Color object.
View Source
@classmethod def from_rgb(cls, red: int, green: int, blue: int, /) -> Color: """Convert the given RGB to a `Color` object. Each channel must be within the range [0, 255] (0x0, 0xFF). Parameters ---------- red : int Red channel. green : int Green channel. blue : int Blue channel. Returns ------- Color A Color object. Raises ------ ValueError If red, green, or blue are outside the range [0x0, 0xFF]. """ if not 0 <= red <= 0xFF: raise ValueError("Expected red channel to be in the inclusive range of 0 and 255") if not 0 <= green <= 0xFF: raise ValueError("Expected green channel to be in the inclusive range of 0 and 255") if not 0 <= blue <= 0xFF: raise ValueError("Expected blue channel to be in the inclusive range of 0 and 255") return cls((red << 16) | (green << 8) | blue)
Convert the given RGB to a Color
object.
Each channel must be within the range [0, 255] (0x0, 0xFF).
Parameters
- red (int): Red channel.
- green (int): Green channel.
- blue (int): Blue channel.
Returns
- Color: A Color object.
Raises
- ValueError: If red, green, or blue are outside the range [0x0, 0xFF].
View Source
@classmethod def from_rgb_float(cls, red: float, green: float, blue: float, /) -> Color: """Convert the given RGB to a `Color` object. The color-space represented values have to be within the range [0, 1]. Parameters ---------- red : float Red channel. green : float Green channel. blue : float Blue channel. Returns ------- Color A Color object. Raises ------ ValueError If red, green or blue are outside the range [0, 1]. """ if not 0 <= red <= 1: raise ValueError("Expected red channel to be in the inclusive range of 0.0 and 1.0") if not 0 <= green <= 1: raise ValueError("Expected green channel to be in the inclusive range of 0.0 and 1.0") if not 0 <= blue <= 1: raise ValueError("Expected blue channel to be in the inclusive range of 0.0 and 1.0") return cls.from_rgb(int(red * 0xFF), int(green * 0xFF), int(blue * 0xFF))
Convert the given RGB to a Color
object.
The color-space represented values have to be within the range [0, 1].
Parameters
- red (float): Red channel.
- green (float): Green channel.
- blue (float): Blue channel.
Returns
- Color: A Color object.
Raises
- ValueError: If red, green or blue are outside the range [0, 1].
View Source
@classmethod def from_tuple_string(cls, tuple_str: str, /) -> Color: """Convert a string in a tuple-like format to a `Color`. This allows formats that are optionally enclosed by `()`, `{}`, or `[]`, and contain three floats or ints, either space separated or comma separated. If comma separated, trailing and leading whitespace around each member is truncated. This is provided to allow command frontends to directly pass user input for representing a given colour into this class safely. Examples -------- ```py # Floats "1.0 1.0 1.0" "(1.0 1.0 1.0)" "[1.0 1.0 1.0]" "{1.0 1.0 1.0}" "1.0, 1.0, 1.0" "(1.0, 1.0, 1.0)" "[1.0, 1.0, 1.0]" "{1.0, 1.0, 1.0}" # Ints "252 252 252" "(252 252 252)" "[252 252 252]" "{252 252 252}" "252, 252, 252" "(252, 252, 252)" "[252, 252, 252]" "{252, 252, 252}" ``` Parameters ---------- tuple_str : str The string to parse. Returns ------- Color The parsed colour object. Raises ------ ValueError If an invalid format is given, or if any values exceed 1.0 for floats or 255 for ints. """ if tuple_str[:: len(tuple_str) - 1] in ("()", "{}", "<>", "[]"): tuple_str = tuple_str[1:-1].strip() try: if "," in tuple_str: r, g, b = (bit.strip() for bit in tuple_str.split(",")) else: r, g, b = tuple_str.split() except ValueError: raise ValueError("Expected three comma/space separated values") from None if any("." in s for s in (r, g, b)): return cls.from_rgb_float(_to_rgb_float(r, "red"), _to_rgb_float(g, "green"), _to_rgb_float(b, "blue")) else: return cls.from_rgb(_to_rgb_int(r, "red"), _to_rgb_int(g, "green"), _to_rgb_int(b, "blue"))
Convert a string in a tuple-like format to a Color
.
This allows formats that are optionally enclosed by ()
, {}
, or []
, and contain three floats or ints, either space separated or comma separated.
If comma separated, trailing and leading whitespace around each member is truncated.
This is provided to allow command frontends to directly pass user input for representing a given colour into this class safely.
Examples
# Floats
"1.0 1.0 1.0"
"(1.0 1.0 1.0)"
"[1.0 1.0 1.0]"
"{1.0 1.0 1.0}"
"1.0, 1.0, 1.0"
"(1.0, 1.0, 1.0)"
"[1.0, 1.0, 1.0]"
"{1.0, 1.0, 1.0}"
# Ints
"252 252 252"
"(252 252 252)"
"[252 252 252]"
"{252 252 252}"
"252, 252, 252"
"(252, 252, 252)"
"[252, 252, 252]"
"{252, 252, 252}"
Parameters
- tuple_str (str): The string to parse.
Returns
- Color: The parsed colour object.
Raises
- ValueError: If an invalid format is given, or if any values exceed 1.0 for floats or 255 for ints.
cls,
value: Union[hikari.colors.Color, SupportsInt, Tuple[SupportsInt, SupportsInt, SupportsInt], Tuple[SupportsFloat, SupportsFloat, SupportsFloat], Sequence[SupportsInt], Sequence[SupportsFloat], str],
/
) -> hikari.colors.Color:
View Source
@classmethod def of(cls, value: Colorish, /) -> Color: """Convert the value to a `Color`. This attempts to determine the correct data format based on the information provided. Parameters ---------- value : Colorish A color compatible values. Examples -------- ```py >>> Color.of(0xFF051A) Color(r=0xff, g=0x5, b=0x1a) >>> Color.of(16712986) Color(r=0xff, g=0x5, b=0x1a) >>> c = Color.of((255, 5, 26)) Color(r=0xff, g=0x5, b=1xa) >>> c = Color.of([0xFF, 0x5, 0x1a]) Color(r=0xff, g=0x5, b=1xa) >>> c = Color.of("#1a2b3c") Color(r=0x1a, g=0x2b, b=0x3c) >>> c = Color.of("#1AB") Color(r=0x11, g=0xaa, b=0xbb) >>> c = Color.of((1.0, 0.0196078431372549, 0.10196078431372549)) Color(r=0xff, g=0x5, b=0x1a) >>> c = Color.of([1.0, 0.0196078431372549, 0.10196078431372549]) Color(r=0xff, g=0x5, b=0x1a) # Commas and brackets are optional, whitespace is ignored, and these # are compatible with all-ints between 0-255 or all-floats between # 0.0 and 1.0 only. >>> c = Color.of("5, 22, 33") Color(r=0x5, g=0x16, b=0x21) >>> c = Color.of("(5, 22, 33)") Color(r=0x5, g=0x16, b=0x21) >>> c = Color.of("[5, 22, 33]") Color(r=0x5, g=0x16, b=0x21) >>> c = Color.of("{5, 22, 33}") Color(r=0x5, g=0x16, b=0x21) ``` Returns ------- Color The Color object. """ if isinstance(value, cls): return value if isinstance(value, int): return cls.from_int(value) if isinstance(value, (list, tuple)): if len(value) != 3: raise ValueError(f"Color must be an RGB triplet if set to a {type(value).__name__} type") if any(isinstance(c, float) for c in value): r, g, b = value return cls.from_rgb_float(r, g, b) if all(isinstance(c, int) for c in value): r, g, b = value return cls.from_rgb(r, g, b) if isinstance(value, str): if any(c in value for c in "({[<,. "): return cls.from_tuple_string(value) is_start_hash_or_hex_literal = value.casefold().startswith(("#", "0x")) is_hex_digits = all(c in string.hexdigits for c in value) and len(value) in (3, 6) if is_start_hash_or_hex_literal or is_hex_digits: return cls.from_hex_code(value) raise ValueError(f"Could not transform {value!r} into a {cls.__qualname__} object")
Convert the value to a Color
.
This attempts to determine the correct data format based on the information provided.
Parameters
- value (Colorish): A color compatible values.
Examples
>>> Color.of(0xFF051A)
Color(r=0xff, g=0x5, b=0x1a)
>>> Color.of(16712986)
Color(r=0xff, g=0x5, b=0x1a)
>>> c = Color.of((255, 5, 26))
Color(r=0xff, g=0x5, b=1xa)
>>> c = Color.of([0xFF, 0x5, 0x1a])
Color(r=0xff, g=0x5, b=1xa)
>>> c = Color.of("#1a2b3c")
Color(r=0x1a, g=0x2b, b=0x3c)
>>> c = Color.of("#1AB")
Color(r=0x11, g=0xaa, b=0xbb)
>>> c = Color.of((1.0, 0.0196078431372549, 0.10196078431372549))
Color(r=0xff, g=0x5, b=0x1a)
>>> c = Color.of([1.0, 0.0196078431372549, 0.10196078431372549])
Color(r=0xff, g=0x5, b=0x1a)
# Commas and brackets are optional, whitespace is ignored, and these
# are compatible with all-ints between 0-255 or all-floats between
# 0.0 and 1.0 only.
>>> c = Color.of("5, 22, 33")
Color(r=0x5, g=0x16, b=0x21)
>>> c = Color.of("(5, 22, 33)")
Color(r=0x5, g=0x16, b=0x21)
>>> c = Color.of("[5, 22, 33]")
Color(r=0x5, g=0x16, b=0x21)
>>> c = Color.of("{5, 22, 33}")
Color(r=0x5, g=0x16, b=0x21)
Returns
- Color: The Color object.
self,
length: <class 'SupportsIndex'>,
byteorder: Literal['little', 'big'],
*,
signed: bool = True
) -> bytes:
View Source
def to_bytes( self, length: typing.SupportsIndex, byteorder: typing.Literal["little", "big"], *, signed: bool = True, ) -> bytes: """Convert the color code to bytes. Parameters ---------- length : int The number of bytes to produce. Should be around `3`, but not less. byteorder : str The endianness of the value represented by the bytes. Can be `"big"` endian or `"little"` endian. signed : bool Whether the value is signed or unsigned. Returns ------- bytes The bytes representation of the Color. """ return int(self).to_bytes(length, byteorder, signed=signed)
Convert the color code to bytes.
Parameters
- length (int): The number of bytes to produce. Should be around
3
, but not less. - byteorder (str): The endianness of the value represented by the bytes. Can be
"big"
endian or"little"
endian. - signed (bool): Whether the value is signed or unsigned.
Returns
- bytes: The bytes representation of the Color.
An alias for hikari.colors.Colorish
.