Abstract: Embodiments of the present disclosure provide a method, apparatus, electronic device, and storage medium for dynamic comment controlling. The method comprises: playing a target video with an interactable interface element, wherein the interactable interface element contains a first input control and a second input control; and during the playing of the target video, controlling a first dynamic comment to display based on first display information and a second dynamic comment to display based on second display information in a dynamic comment display region, wherein the first dynamic comment is generated by triggering the first input control, and the second dynamic comment is generated by triggering the second input control, and wherein the first display information is different from the second display information.

Abstract: Embodiments of the present disclosure provide a method, apparatus, electronic device, and storage medium for dynamic comment controlling. The method comprises: playing a target video with an interactable interface element, wherein the interactable interface element contains a first input control and a second input control; and during the playing of the target video, controlling a first dynamic comment to display based on first display information and a second dynamic comment to display based on second display information in a dynamic comment display region, wherein the first dynamic comment is generated by triggering the first input control, and the second dynamic comment is generated by triggering the second input control, and wherein the first display information is different from the second display information.

Abstract: Provided in the present disclosure are an interaction method and apparatus based on a multimedia content, and a device and a storage medium. The method includes: when a preset interaction operation, which is triggered by a first user for a first multimedia content, is received, firstly, acquiring feedback information corresponding to the first multimedia content, and then, displaying the feedback information, wherein the feedback information can indicate that the creator of the first multimedia content obtains a virtual object on the basis of the preset interaction operation.

Abstract: Disclosed is a method for nanomorphological modification of polyether ether ketone (PEEK) surface by hot pressing, relating to the technical field of biomaterials. The method includes the following steps: S1, preparing SiO2 nanospheres; S2, uniformly laying the SiO2 nanospheres prepared in the S1 on a surface of a PEEK material; S3, heating the surface of the PEEK material to a temperature higher than a glass phase transition temperature, then carrying out hot pressing to embed the SiO2 nanospheres into the surface of the PEEK material, and naturally cooling at room temperature after the hot pressing; S4, after cooling, using NaOH solution to corrode and remove the SiO2 nanospheres on the surface of the PEEK material after hot pressing in S3 to form a structure with nanoconcaves, then obtaining a hot-pressed modified PEEK material.

Abstract: An interaction method includes receiving a first trigger operation acting on a target control corresponding to a target work; and in response to the first trigger operation, displaying a target visual element at a preset display position corresponding to the target work and controlling the target visual element to move from the preset display position to a first target display position of a target identifier, where the target identifier is an identifier of a target publisher of the target work.

Abstract: A processor and an instruction scheduling method for X-channel interleaved multi-threading, where X is an integer greater than one. The processor includes a decoding unit and a processing unit. The decoding unit is configured to obtain one instruction from each of Z predefined threads in each cyclic period, decode the Z obtained instructions to obtain Z decoding results, and send the Z decoding results to the processing unit, where each cyclic period includes X sending periods, one decoding result is sent to the processing unit in each sending period, a decoding result of the Z decoding results may be repeatedly sent by the decoding unit in a plurality of sending periods, wherein 1?Z<X or Z=X, and wherein Z is an integer. The processing unit (32) is configured to execute the instruction based on the decoding result.

Abstract: A processor and an instruction scheduling method for X-channel interleaved multi-threading, where X is an integer greater than one. The processor includes a decoding unit and a processing unit. The decoding unit is configured to obtain one instruction from each of Z predefined threads in each cyclic period, decode the Z obtained instructions to obtain Z decoding results, and send the Z decoding results to the processing unit, where each cyclic period includes X sending periods, one decoding result is sent to the processing unit in each sending period, a decoding result of the Z decoding results may be repeatedly sent by the decoding unit in a plurality of sending periods, wherein 1?Z?X or Z=X, and wherein Z is an integer. The processing unit (32) is configured to execute the instruction based on the decoding result.

Abstract: An image process system tiles an image data array, processing the tiles in a predefined order. Each tile of image data is processed by applying a predefined family of transform layers to the tile of image data so as to generate successive sets of transform coefficients. Distinct groups of bit planes of the transform coefficients are stored in distinct bitstreams or distinct portions of a file.

Abstract: An image process system tiles an image data array, processing the tiles in a predefined order. Each tile of image data is processed by applying a predefined family of transform layers to the tile of image data so as to generate successive sets of transform coefficients. Distinct groups of bit planes of the transform coefficients are stored in distinct bitstreams or distinct portions of a file.

Abstract: An image process system tiles an image data array, processing the tiles in a predefined order. Each tile of image data is processed by applying a predefined family of transform layers to the tile of image data so as to generate successive sets of transform coefficients. Each set of transform coefficients include edge coefficients positioned at outside boundaries of the set of transform coefficients and non-edge coefficients positioned at interior locations of the set of transform coefficients. The sets of transform coefficients include a last set of transform coefficients, produced by the last transform layer, and one or more earlier sets of transform coefficients.

Abstract: An image process system tiles an image data array, processing the tiles in a predefined order. Each tile of image data is processed by applying a predefined family of transform layers to the tile of image data so as to generate successive sets of transform coefficients. Each set of transform coefficients include edge coefficients positioned at outside boundaries of the set of transform coefficients and non-edge coefficients positioned at interior locations of the set of transform coefficients. The sets of transform coefficients include a last set of transform coefficients, produced by the last transform layer, and one or more earlier sets of transform coefficients.

Abstract: An image is divided into nonoverlapping tiles, and the tiles are processed in a predefined order. Each tile is processed by applying a predefined family of transform layers to the tile so as to generate successive sets of transform coefficients. The sets of transform coefficients correspond to spatial frequency subbands of the image. The subbands are grouped in accordance with the transform layer that generated them. For one or more respective groups of subbands one or more parameters are generated whose value is indicative of the density of image features in the tile. The tile is classified in accordance with the values of the one or more parameters. Based on the classification, a set of quantization factors for the tile are selected, and then the transform coefficients of the tile are scaled by the selected set of quantization factors to as to generate a set of quantized transform coefficients.

Abstract: An image process system tiles an image data array, processing the tiles in a predefined order. Each tile of image data is processed by applying a predefined family of transform layers to the tile of image data so as to generate successive sets of transform coefficients. Each set of transform coefficients include edge coefficients positioned at outside boundaries of the set of transform coefficients and non-edge coefficients positioned at interior locations of the set of transform coefficients. The sets of transform coefficients include a last set of transform coefficients, produced by the last transform layer, and one or more earlier sets of transform coefficients.

Abstract: An image processing system tiles an image data array. Each tile of image data is processed by applying a family of transform layers to the tile of image data so as to generate successive sets of transform coefficients. Each set of transform coefficients include edge coefficients positioned at outside boundaries of the set of transform coefficients and non-edge coefficients positioned at interior locations of the set of transform coefficients. The transform filters include a short edge transform filter that is applied to image data at boundaries of the tile and to coefficients positioned at and near boundaries of each of the earlier sets of transform coefficients so as to generate the edge coefficients, and a long interior filter that is applied to image data at interior locations of the tile and to coefficients at interior locations of the earlier sets of transform coefficients so as to generate the non-edge coefficients.