colour.models.log_decoding_VLog#
- colour.models.log_decoding_VLog(V_out: Annotated[_Buffer | _SupportsArray[dtype[Any]] | _NestedSequence[_SupportsArray[dtype[Any]]] | complex | bytes | str | _NestedSequence[complex | bytes | str], 1], bit_depth: int = 10, in_normalised_code_value: bool = True, out_reflection: bool = True, constants: Structure | None = None) Annotated[ndarray[tuple[Any, ...], dtype[float16 | float32 | float64]], 1][source]#
Apply the Panasonic V-Log log decoding inverse opto-electronic transfer
function (OETF).
- Parameters:
V_out (Annotated[_Buffer | _SupportsArray[dtype[Any]] | _NestedSequence[_SupportsArray[dtype[Any]]] | complex | bytes | str | _NestedSequence[complex | bytes | str], 1]) – Panasonic V-Log mon-linear encoded data \(V_{out}\).
bit_depth (int) – Bit-depth used for conversion.
in_normalised_code_value (bool) – Whether the Panasonic V-Log non-linear data \(V_{out}\) is encoded as normalised code values.
out_reflection (bool) – Whether the light level \(L_{in}\) to a camera is reflection.
constants (Structure | None) – Panasonic V-Log constants.
- Returns:
Linear reflection data \(L_{in}\).
- Return type:
Notes
Domain
Scale - Reference
Scale - 1
V_out1
1
Range
Scale - Reference
Scale - 1
L_in1
1
References
Examples
>>> log_decoding_VLog(0.423311448760136) 0.1799999...