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scale

Clamped_Doubler

Bases: Doubler

Source code in vodesfunc/scale.py 
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class Clamped_Doubler(Doubler):
    sharp_doubler: Doubler
    sharpen_smooth: bool | vs.VideoNode | Callable[[vs.VideoNode], vs.VideoNode] | None = None

    def __init__(
        self,
        sharpen_smooth: bool | vs.VideoNode | Callable[[vs.VideoNode], vs.VideoNode],
        sharp_doubler: Doubler | str,
        ratio: int = 100,
        **kwargs,
    ) -> None:
        """
        Simple utility class for doubling a clip using fsrcnnx / any shader clamped to nnedi.
        Using sharpen will be basically the same as the zastin profile in varde's fsrcnnx upscale.
        Not sharpening will on the other hand be the same as the slow profile.

        :param sharpen_smooth:  Sharpened "smooth upscale" clip or a sharpener function. Will use z4usm if True.
                                Uses the other mode if False or None.
        :param sharp_doubler:   The doubler used for the sharp upscale. Defaults to Shader_Doubler (which defaults to fsrcnnx)
        :param ratio:           Does a weighted average of the clamped and nnedi clips.
                                The higher, the more of the clamped clip will be used.
        :param kwargs:          You can pass all kinds of stuff here, ranging from the default sharpener params to nnedi args.
                                z4usm params: radius (default 2), strength (default 35)
                                nnedi params: see `NNEDI_Doubler`
                                overshoot, undershoot for non-sharpen mode (defaults to ratio / 100)
        """
        self.sharp_doubler = Shader_Doubler(sharp_doubler) if isinstance(sharp_doubler, str) else sharp_doubler
        self.sharpen_smooth = sharpen_smooth

        if ratio > 100 or ratio < 1:
            raise ValueError("Clamped_Doubler: ratio should be a value between 1 and 100")
        self.ratio = ratio
        self.kwargs = kwargs

    def double(self, clip: vs.VideoNode) -> vs.VideoNode:
        y = depth(get_y(clip), 16)

        overshoot = self.kwargs.pop("overshoot", self.ratio / 100)
        undershoot = self.kwargs.pop("undershoot", overshoot)
        radius = self.kwargs.pop("radius", 2)
        strength = self.kwargs.pop("strength", 35)

        smooth = NNEDI_Doubler(**self.kwargs).double(y)
        shader = self.sharp_doubler.double(y)

        if self.sharpen_smooth != None and self.sharpen_smooth != False:
            if isinstance(self.sharpen_smooth, vs.VideoNode):
                sharpened_smooth = self.sharpen_smooth
            elif isinstance(self.sharpen_smooth, Callable):
                sharpened_smooth = self.sharpen_smooth(smooth)
            elif self.sharpen_smooth == True:
                sharpened_smooth = unsharp_masked(smooth, radius, strength)

            clamped = core.std.Expr([smooth, shader, sharpened_smooth], "x y z min max y z max min")
            if self.ratio != 100:
                clamped = core.std.Expr([clamped, smooth], f"{self.ratio / 100} x * {1 - (self.ratio / 100)} y * +")
        else:
            upscaled = core.std.Expr([shader, smooth], "x {ratio} * y 1 {ratio} - * +".format(ratio=self.ratio / 100))
            dark_limit = core.std.Minimum(smooth)
            bright_limit = core.std.Maximum(smooth)
            overshoot *= 2**8
            undershoot *= 2**8
            clamped = core.std.Expr(
                [upscaled, bright_limit, dark_limit],
                f"x y {overshoot} + > y {overshoot} + x ? z {undershoot} - < z {undershoot} - x y {overshoot} + > y {overshoot} + x ? ?",
            )
        return depth(clamped, get_depth(clip))

__init__(sharpen_smooth, sharp_doubler, ratio=100, **kwargs)

Simple utility class for doubling a clip using fsrcnnx / any shader clamped to nnedi. Using sharpen will be basically the same as the zastin profile in varde's fsrcnnx upscale. Not sharpening will on the other hand be the same as the slow profile.

Parameters:

Name Type Description Default
sharpen_smooth bool | VideoNode | Callable[[VideoNode], VideoNode]

Sharpened "smooth upscale" clip or a sharpener function. Will use z4usm if True. Uses the other mode if False or None.

 required
sharp_doubler Doubler | str

The doubler used for the sharp upscale. Defaults to Shader_Doubler (which defaults to fsrcnnx)

 required
ratio int

Does a weighted average of the clamped and nnedi clips. The higher, the more of the clamped clip will be used.

 100
kwargs

You can pass all kinds of stuff here, ranging from the default sharpener params to nnedi args. z4usm params: radius (default 2), strength (default 35) nnedi params: see NNEDI_Doubler overshoot, undershoot for non-sharpen mode (defaults to ratio / 100)

 {}
Source code in vodesfunc/scale.py 
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def __init__(
    self,
    sharpen_smooth: bool | vs.VideoNode | Callable[[vs.VideoNode], vs.VideoNode],
    sharp_doubler: Doubler | str,
    ratio: int = 100,
    **kwargs,
) -> None:
    """
    Simple utility class for doubling a clip using fsrcnnx / any shader clamped to nnedi.
    Using sharpen will be basically the same as the zastin profile in varde's fsrcnnx upscale.
    Not sharpening will on the other hand be the same as the slow profile.

    :param sharpen_smooth:  Sharpened "smooth upscale" clip or a sharpener function. Will use z4usm if True.
                            Uses the other mode if False or None.
    :param sharp_doubler:   The doubler used for the sharp upscale. Defaults to Shader_Doubler (which defaults to fsrcnnx)
    :param ratio:           Does a weighted average of the clamped and nnedi clips.
                            The higher, the more of the clamped clip will be used.
    :param kwargs:          You can pass all kinds of stuff here, ranging from the default sharpener params to nnedi args.
                            z4usm params: radius (default 2), strength (default 35)
                            nnedi params: see `NNEDI_Doubler`
                            overshoot, undershoot for non-sharpen mode (defaults to ratio / 100)
    """
    self.sharp_doubler = Shader_Doubler(sharp_doubler) if isinstance(sharp_doubler, str) else sharp_doubler
    self.sharpen_smooth = sharpen_smooth

    if ratio > 100 or ratio < 1:
        raise ValueError("Clamped_Doubler: ratio should be a value between 1 and 100")
    self.ratio = ratio
    self.kwargs = kwargs

Doubler

Bases: ABC

Source code in vodesfunc/scale.py 
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class Doubler(ABC):
    kwargs: dict[str, Any]
    """Arguments passed to the internal scale function"""

    def __init__(self, **kwargs: Any) -> None:
        self.kwargs = kwargs

    @abstractmethod
    def double(self, clip: vs.VideoNode) -> vs.VideoNode:
        """
        Returns doubled clip
        """
        pass

kwargs: dict[str, Any] = kwargs instance-attribute

Arguments passed to the internal scale function

double(clip) abstractmethod

Returns doubled clip

Source code in vodesfunc/scale.py 
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@abstractmethod
def double(self, clip: vs.VideoNode) -> vs.VideoNode:
    """
    Returns doubled clip
    """
    pass

Lanczos_PreSS

Bases: Lanczos

Convenience class to pass to a dehalo function. This serves the same purpose as NNEDI to double and reverse using point. Except it is a quite a bit faster and (if using opencl) takes a lot of load off the GPU.

Source code in vodesfunc/scale.py 
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class Lanczos_PreSS(Lanczos):
    """
    Convenience class to pass to a dehalo function.
    This serves the same purpose as NNEDI to double and reverse using point.
    Except it is a quite a bit faster and (if using opencl) takes a lot of load off the GPU.
    """

    @inject_self.init_kwargs.clean
    def scale(self, clip: vs.VideoNode, width: int, height: int, shift: tuple[float, float] = (0, 0), **kwargs) -> vs.VideoNode:
        if width != clip.width * 2 or height != clip.height * 2:
            raise ValueError("Lanczos_PreSS: You're probably not using this correctly.")
        return Lanczos.scale(clip, width, height, (-0.25, -0.25))

NNEDI_Doubler

Bases: Doubler

Source code in vodesfunc/scale.py 
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class NNEDI_Doubler(Doubler):
    ediargs: dict[str, Any]
    opencl: bool

    def __init__(self, opencl: bool = True, nns: int = 4, nsize: int = 4, qual: int = 2, pscrn: int = 1, **kwargs) -> None:
        """
        Simple utility class for doubling a clip using znedi or nnedi3cl (also fixes the shift)

        :param opencl:          Will use nnedi3cl if True and znedi3 if False
        """
        self.ediargs = {"qual": qual, "nsize": nsize, "nns": nns, "pscrn": pscrn}
        self.ediargs.update(**kwargs)
        self.opencl = opencl

    def double(self, clip: vs.VideoNode, correct_shift: bool = True) -> vs.VideoNode:
        y = get_y(clip)
        # nnedi3cl needs padding, to avoid issues on edges (https://slow.pics/c/QcJef38u)
        if self.opencl:
            (left, right, top, bottom) = mod_padding(y, 2, 2)
            width = clip.width + left + right
            height = clip.height + top + bottom
            pad = y.resize.Point(width, height, src_left=-left, src_top=-top, src_width=width, src_height=height).std.Transpose()
            doubled_y = pad.nnedi3cl.NNEDI3CL(dh=True, dw=True, field=0, **self.ediargs).std.Transpose()
            doubled_y = doubled_y.std.Crop(left * 2, right * 2, top * 2, bottom * 2)
        else:
            doubled_y = (
                depth(y, 16)
                .znedi3.nnedi3(dh=True, field=0, **self.ediargs)
                .std.Transpose()
                .znedi3.nnedi3(dh=True, field=0, **self.ediargs)
                .std.Transpose()
            )
            doubled_y = depth(doubled_y, get_depth(clip))

        if correct_shift:
            doubled_y = doubled_y.resize.Bicubic(src_top=0.5, src_left=0.5)

        return doubled_y.std.CopyFrameProps(y)

__init__(opencl=True, nns=4, nsize=4, qual=2, pscrn=1, **kwargs)

Simple utility class for doubling a clip using znedi or nnedi3cl (also fixes the shift)

Parameters:

Name Type Description Default
opencl bool

Will use nnedi3cl if True and znedi3 if False

 True
Source code in vodesfunc/scale.py 
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def __init__(self, opencl: bool = True, nns: int = 4, nsize: int = 4, qual: int = 2, pscrn: int = 1, **kwargs) -> None:
    """
    Simple utility class for doubling a clip using znedi or nnedi3cl (also fixes the shift)

    :param opencl:          Will use nnedi3cl if True and znedi3 if False
    """
    self.ediargs = {"qual": qual, "nsize": nsize, "nns": nns, "pscrn": pscrn}
    self.ediargs.update(**kwargs)
    self.opencl = opencl

Shader_Doubler

Bases: Doubler

Source code in vodesfunc/scale.py 
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class Shader_Doubler(Doubler):
    shaderfile: str

    def __init__(self, shaderfile: PathLike = r"C:\FSRCNNX_x2_56-16-4-1.glsl") -> None:
        """
        Simple utility class for doubling a clip using a glsl shader

        :param shaderfile:      The glsl shader used to double the resolution
        """
        self.shaderfile = str(ensure_path_exists(shaderfile, self))

    def double(self, clip: vs.VideoNode) -> vs.VideoNode:
        y = depth(get_y(clip), 16)
        filler_chroma = core.std.BlankClip(y, format=vs.YUV444P16)
        doubled = core.std.ShufflePlanes([y, filler_chroma], [0, 1, 2], vs.YUV).placebo.Shader(
            self.shaderfile, filter="box", width=y.width * 2, height=y.height * 2
        )
        doubled_y = get_y(doubled)
        return depth(doubled_y, get_depth(clip))

__init__(shaderfile='C:\\FSRCNNX_x2_56-16-4-1.glsl')

Simple utility class for doubling a clip using a glsl shader

Parameters:

Name Type Description Default
shaderfile PathLike

The glsl shader used to double the resolution

 'C:\\FSRCNNX_x2_56-16-4-1.glsl'
Source code in vodesfunc/scale.py 
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def __init__(self, shaderfile: PathLike = r"C:\FSRCNNX_x2_56-16-4-1.glsl") -> None:
    """
    Simple utility class for doubling a clip using a glsl shader

    :param shaderfile:      The glsl shader used to double the resolution
    """
    self.shaderfile = str(ensure_path_exists(shaderfile, self))

Waifu2x_Doubler

Bases: Doubler

Source code in vodesfunc/scale.py 
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class Waifu2x_Doubler(Doubler):
    backend: Any
    kwargs: KwargsT
    w2xargs: KwargsT = {}

    def __init__(
        self,
        cuda: bool | str | None = None,
        fp16: bool = True,
        num_streams: int = 1,
        tiles: int | tuple[int, int] | None = None,
        model: int = 6,
        **kwargs,
    ) -> None:
        """
        Simple utility class for doubling a clip using Waifu2x

        :param cuda:            ORT-Cuda if True, NCNN-VK or CPU (depending on what you have installed) if False, TRT if some string
                                Automatically chosen and tuned when None
        :param fp16:            Uses 16 bit floating point internally if True.
        :param num_streams:     Amount of streams to use for Waifu2x; Sacrifices a lot of vram for a speedup.
        :param tiles:           Splits up the upscaling process into multiple tiles.
                                You will likely have to use atleast `2` if you have less than 16 GB of VRAM.
        :param model:           Model to use from vsmlrt.
        :param kwargs:          Args that get passed to both the Backend and actual scaling function.
        """
        from vsmlrt import Backend, backendT

        self.kwargs = {"num_streams": num_streams, "fp16": fp16}

        if "backend" in kwargs.keys():
            cuda = False

        # Partially stolen from setsu but removed useless stuff that is default in mlrt already and added version checks
        if cuda is None:
            nv = get_nvidia_version()
            cuda = nv is not None
            try:
                if nv is not None and not hasattr(core, "trt") and hasattr(core, "ort"):
                    self.kwargs.update({"use_cuda_graph": True})
                else:
                    props: KwargsT = core.trt.DeviceProperties(kwargs.get("device_id", 0))  # type: ignore
                    version_props: KwargsT = core.trt.Version()  # type: ignore

                    vram = props.get("total_global_memory", 0)
                    trt_version = float(version_props.get("tensorrt_version", 0))

                    cuda = "trt"

                    presumedArgs = KwargsT(
                        workspace=vram / (1 << 22) if vram else None,
                        use_cuda_graph=True,
                        use_cublas=True,
                        use_cudnn=trt_version < 8400,
                        heuristic=trt_version >= 8500,
                        output_format=int(fp16),
                    )

                    # Swinunet doesn't like forced 16. Further testing for the other models needed.
                    if model <= 6:
                        presumedArgs.update({"tf32": not fp16, "force_fp16": fp16})

                    self.kwargs.update(presumedArgs)
            except:
                cuda = nv is not None

        self.w2xargs = KwargsT(
            model=model,
            tiles=tiles,
            preprocess=kwargs.pop("preprocess", True),
            scale=kwargs.pop("scale", 2),
            tilesize=kwargs.pop("tilesize", None),
            overlap=kwargs.pop("overlap", None),
        )

        self.kwargs.update(kwargs)

        if cuda is False:
            backend = kwargs.pop("backend", None)
            if backend and isinstance(backend, backendT):
                self.backend = backend
            else:
                if hasattr(core, "ncnn"):
                    self.backend = Backend.NCNN_VK(**self.kwargs)
                else:
                    self.kwargs.pop("device_id")
                    self.backend = Backend.ORT_CPU(**self.kwargs) if hasattr(core, "ort") else Backend.OV_CPU(**self.kwargs)
        elif cuda is True:
            self.backend = Backend.ORT_CUDA(**self.kwargs) if hasattr(core, "ort") else Backend.OV_GPU(**self.kwargs)
        else:
            self.backend = Backend.TRT(**self.kwargs)
        self.kwargs = kwargs
        self.model = model

    def double(self, clip: vs.VideoNode) -> vs.VideoNode:
        from vsmlrt import Waifu2x

        pre = depth(clip, 32).std.Limiter()

        (left, right, top, bottom) = mod_padding(pre)
        width = pre.width + left + right
        height = pre.height + top + bottom
        pad = pre.resize.Point(width, height, src_left=-left, src_top=-top, src_width=width, src_height=height)

        # Model 0 wants a gray input
        needs_gray = self.w2xargs.get("model", 6) == 0
        was_444 = pre.format.color_family == vs.YUV and pre.format.subsampling_w == 0 and pre.format.subsampling_h == 0 and not needs_gray  # type: ignore

        if was_444:
            pad = Catrom().resample(pad, format=vs.RGBS, matrix=Matrix.RGB, matrix_in=Matrix.from_video(pre))
        elif needs_gray is True:
            pad = get_y(pad)
        else:
            pad = get_y(pad).std.ShufflePlanes(0, vs.RGB)

        up = Waifu2x(pad, noise=-1, backend=self.backend, **self.w2xargs)

        if was_444:
            up = Catrom().resample(up, format=vs.YUV444PS, matrix=Matrix.from_video(pre), matrix_in=Matrix.RGB)
        elif needs_gray is False:
            up = up.std.ShufflePlanes(0, vs.GRAY)

        up = up.std.Crop(left * 2, right * 2, top * 2, bottom * 2)

        # Only Model 6 has the tint
        if self.w2xargs.get("model", 6) == 6:
            up = up.std.Expr("x 0.5 255 / +")

        return depth(up, get_depth(clip)).std.CopyFrameProps(pre)

__init__(cuda=None, fp16=True, num_streams=1, tiles=None, model=6, **kwargs)

Simple utility class for doubling a clip using Waifu2x

Parameters:

Name Type Description Default
cuda bool | str | None

ORT-Cuda if True, NCNN-VK or CPU (depending on what you have installed) if False, TRT if some string Automatically chosen and tuned when None

 None
fp16 bool

Uses 16 bit floating point internally if True.

 True
num_streams int

Amount of streams to use for Waifu2x; Sacrifices a lot of vram for a speedup.

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tiles int | tuple[int, int] | None

Splits up the upscaling process into multiple tiles. You will likely have to use atleast 2 if you have less than 16 GB of VRAM.

 None
model int

Model to use from vsmlrt.

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kwargs

Args that get passed to both the Backend and actual scaling function.

 {}
Source code in vodesfunc/scale.py 
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def __init__(
    self,
    cuda: bool | str | None = None,
    fp16: bool = True,
    num_streams: int = 1,
    tiles: int | tuple[int, int] | None = None,
    model: int = 6,
    **kwargs,
) -> None:
    """
    Simple utility class for doubling a clip using Waifu2x

    :param cuda:            ORT-Cuda if True, NCNN-VK or CPU (depending on what you have installed) if False, TRT if some string
                            Automatically chosen and tuned when None
    :param fp16:            Uses 16 bit floating point internally if True.
    :param num_streams:     Amount of streams to use for Waifu2x; Sacrifices a lot of vram for a speedup.
    :param tiles:           Splits up the upscaling process into multiple tiles.
                            You will likely have to use atleast `2` if you have less than 16 GB of VRAM.
    :param model:           Model to use from vsmlrt.
    :param kwargs:          Args that get passed to both the Backend and actual scaling function.
    """
    from vsmlrt import Backend, backendT

    self.kwargs = {"num_streams": num_streams, "fp16": fp16}

    if "backend" in kwargs.keys():
        cuda = False

    # Partially stolen from setsu but removed useless stuff that is default in mlrt already and added version checks
    if cuda is None:
        nv = get_nvidia_version()
        cuda = nv is not None
        try:
            if nv is not None and not hasattr(core, "trt") and hasattr(core, "ort"):
                self.kwargs.update({"use_cuda_graph": True})
            else:
                props: KwargsT = core.trt.DeviceProperties(kwargs.get("device_id", 0))  # type: ignore
                version_props: KwargsT = core.trt.Version()  # type: ignore

                vram = props.get("total_global_memory", 0)
                trt_version = float(version_props.get("tensorrt_version", 0))

                cuda = "trt"

                presumedArgs = KwargsT(
                    workspace=vram / (1 << 22) if vram else None,
                    use_cuda_graph=True,
                    use_cublas=True,
                    use_cudnn=trt_version < 8400,
                    heuristic=trt_version >= 8500,
                    output_format=int(fp16),
                )

                # Swinunet doesn't like forced 16. Further testing for the other models needed.
                if model <= 6:
                    presumedArgs.update({"tf32": not fp16, "force_fp16": fp16})

                self.kwargs.update(presumedArgs)
        except:
            cuda = nv is not None

    self.w2xargs = KwargsT(
        model=model,
        tiles=tiles,
        preprocess=kwargs.pop("preprocess", True),
        scale=kwargs.pop("scale", 2),
        tilesize=kwargs.pop("tilesize", None),
        overlap=kwargs.pop("overlap", None),
    )

    self.kwargs.update(kwargs)

    if cuda is False:
        backend = kwargs.pop("backend", None)
        if backend and isinstance(backend, backendT):
            self.backend = backend
        else:
            if hasattr(core, "ncnn"):
                self.backend = Backend.NCNN_VK(**self.kwargs)
            else:
                self.kwargs.pop("device_id")
                self.backend = Backend.ORT_CPU(**self.kwargs) if hasattr(core, "ort") else Backend.OV_CPU(**self.kwargs)
    elif cuda is True:
        self.backend = Backend.ORT_CUDA(**self.kwargs) if hasattr(core, "ort") else Backend.OV_GPU(**self.kwargs)
    else:
        self.backend = Backend.TRT(**self.kwargs)
    self.kwargs = kwargs
    self.model = model