Abstract: A video coding device may be configured to perform transform data coding according to one or more of the techniques described herein.

Abstract: An electronic device of decoding a current video block in a video picture is provided. The electronic device determines whether a partitioning scheme of the current video block is a single tree partitioning or a dual tree partitioning. The electronic device selects, based on the partitioning scheme, one derivation from candidate derivations to compute a first predictive quantization parameter (QP) for the current video block. A first derivation comprises computing the first predictive QP based at least in part on another QP and an additional value when the partitioning scheme is the single tree partitioning. A second derivation comprises computing the first predictive QP by using a previously-derived QP when the partitioning scheme is the dual tree partitioning. The electronic device computes a second QP based at least in part on the first predictive QP and an offset value, and use the second QP to decode the current video block.

Abstract: A device may be configured to parse a syntax element specifying the number of available languages within a presentation associated with an audio stream. A device may be configured to parse one or more syntax elements identifying each of the available languages and parse an accessibility syntax element for each language within the presentation.

Abstract: A device may be configured to general constraint information according to one or more of the techniques described herein.

Abstract: This disclosure relates to video coding and more particularly to techniques for signaling picture output resolution for coded video. According to an aspect of an invention, a first flag syntax element indicating whether conformance cropping window offset parameters are present in a sequence parameter set is parsed, wherein the conformance cropping window offset parameters specify a cropping window that is applied to pictures with a width equal to a maximum width and a height equal to a maximum height.

Abstract: A device may be configured to signal range extension profile information for coded video according to one or more of the techniques described herein.

Abstract: This disclosure relates to video coding and more particularly to techniques for performing motion vector prediction. According to an aspect of an invention, a motion vector and a corresponding reference picture identifier for the motion vector are received; a reference picture corresponding to a second motion vector is determined based on the reference picture corresponding to the received motion vector and a current picture; a scaling value is determined based on the determined reference picture, the reference picture corresponding to the received motion vector, and the current picture; and the second motion vector is generated from the received motion vector by scaling with the scaling value.

Abstract: A device may be configured to signal scaling window information according to one or more of the techniques described herein.

Abstract: This disclosure relates to video coding and more particularly to techniques for deriving quantization parameters.

Abstract: This invention relates to a method of coding video data. The method comprising: determining a largest coding unit size for a picture; determining whether a largest coding unit within a picture is an intra type largest coding unit; and applying a partitioning to the largest coding unit based on whether the largest coding unit is an intra type largest coding unit.

Abstract: Method, device, apparatus, and computer-readable storage medium to determine whether video block is a fractional boundary video block (See paragraph [0032] and FIG. 7.) and to partition the fractional boundary video block into inferred partitions using a subset of available partition modes (See paragraph [0033] and FIG. 8.) are disclosed.

Abstract: A method of generating a prediction for an area of video data, comprises Receiving a rectangular video block including sample values, and for each sample included in the video block, generating a predictive simple value by averaging a horizontal interpolation and a vertical interpolation corresponding to the location of the sample within the video block.

Abstract: A method of filtering reconstructed video data is disclosed. The method comprising: inputting a reconstructed luma picture sample array; setting a luma location corresponding to a current chroma sample to a location defined by a horizontal location in the chroma sample multiplied by a sub-width value and a vertical location in the chroma sample multiplied by a sub-height value; deriving luma sample locations inside the reconstructed luma picture sample array by using the luma location; and deriving a variable by using cross-component filter coefficients and the reconstructed luma picture sample array defined by at least one of the luma sample locations, wherein the variable is modified by using a current chroma block of samples.

Abstract: This disclosure relates to video coding and more particularly to techniques for performing motion vector prediction. According to an aspect of an invention, a motion vector and a corresponding reference picture identifier for the motion vector are received; a reference picture corresponding to a second motion vector is determined based on the reference picture corresponding to the received motion vector and a current picture; a scaling value is determined based on the determined reference picture, the reference picture corresponding to the received motion vector, and the current picture; and the second motion vector is generated from the received motion vector by scaling with the scaling value.

Abstract: Method, device, apparatus, and computer-readable storage medium to determine whether video block is a fractional boundary video block (See paragraph [0032] and FIG. 7.) and to partition the fractional boundary video block into inferred partitions using a subset of available partition modes (See paragraph [0033] and FIG. 8.) are disclosed.

Abstract: A method of decoding video data, that method includes: receiving a picture parameter set; parsing a first syntax element specifying whether in-loop filtering operations may be performed for pictures in the picture parameter set, in a case that a number of tiles in a picture is greater than 1, and parsing a second syntax element specifying whether a raster-san slice mode or a rectangular slice mode is in use and whether slice information is signaled in the picture parameter set, in the case that the number of tiles in the picture is greater than 1.

Abstract: A method of encoding data includes: receiving an input data set having an arbitrary size about a height dimension and a width dimension; padding the input data set according to a padding function selected from a set of padding functions, such that a data set having a desired size about the height dimension and the width dimension is obtained; generating an output data set by performing a discrete convolution on the obtained data set; and generating a signal providing information corresponding to the output data set and the selected padding function.

Abstract: This invention relates to a method of coding video data. The method comprising: determining a largest coding unit size for a picture; determining whether a largest coding unit within a picture is an intra type largest coding unit; and applying a partitioning to the largest coding unit based on whether the largest coding unit is an intra type largest coding unit.

Abstract: A method of performing motion vector prediction for coding video data is disclosed. A full precision motion vector mv is determined for generating a prediction for video block in a first picture. A rounded motion vector nm having a less precision than the full precision motion vector mv is stored. A motion vector predictor candidate is generated for a video block in a second picture from the stored motion vector.

Abstract: A method of generating a prediction for an area of video data, comprises Receiving a rectangular video block including sample values, and for each sample included in the video block, generating a predictive sample value by averaging a horizontal interpolation and a vertical interpolation corresponding to the location of the sample within the video block.