The present disclosure provides a media resource playing and text rendering method, apparatus and device and a storage medium. The method comprises: determining, on the basis of a first data box type or a first group type, a region of interest of an omnidirectional video and at least one media resource associated with the region of interest; and playing at least one media resource associated with the region of interest.

A dividing section of a server divides, along a common boundary, a plurality of images that are formed by an image forming section and correspond to respective frames of a moving image, to form image blocks. A first coding section compression-codes one of the plurality of images in units of the image block. A second coding section compression-codes another one of the plurality of images in units of the image block, using data compression-coded by the first coding section. A communication section transmits data of the compression-coded image blocks to an image processing apparatus.

Aspects of the disclosure provide methods and apparatuses for audio processing. In some examples, an apparatus for media processing includes processing circuitry. The processing circuitry receives first 3 degrees of freedom (3 DoF) information associated with a first media content for a scene in a media application. The first 3 DoF information includes a first revolution orientation for describing the first media content on a first sphere centered at a user of the media application. The processing circuitry determines that a rendering platform for rendering the first media content is a six degrees of freedom (6 DoF) platform, and calculates, first spatial location information of the first media content based on the first revolution orientation and first parameters of the first sphere. The first spatial location information is used in first 6 DoF information associated with the first media content for rendering the first media content on the 6 DoF platform.

Systems, apparatuses and methods may provide for encoder technology that selects, in response to a request from a client device, a first video stream from a first plurality of video streams dedicated to a first tile in video content and selects, in response to the request, a second video stream from a second plurality of video streams dedicated to a second tile in the video content. The encoder technology may also send the selected first and second video streams to a client device. Additionally, decoder technology may allocate a first decoder device to the first video stream and allocate a second decoder device to the second video stream. In one example, the first video stream and the second video stream include one or more different codec parameter values.

A video distribution system includes a video distribution device and a terminal device. The video distribution device includes: a distributor that distributes free viewpoint video data; a first acquisition unit that acquires teaching data from the terminal device; and a teaching file generator that generates a teaching file for automatic playback on the basis of the teaching data. The terminal device includes: a second acquisition unit that acquires free viewpoint video data from the video distribution device; a video generator that generates video on the basis of the free viewpoint video data; a display that displays the video; and an editing unit that edits the free viewpoint video data and transmits the teaching data.

A moving image distribution method and a moving image distribution apparatus for reducing an increase in server load due to a change in a user's line of sight includes storing a video stream for each viewpoint of a plurality of viewpoints defined on a sphere with a camera as a point of observation, the video stream covering the sphere, and distributing the video stream to a user terminal. The distributing including distributing the video stream for the viewpoint other than a nearest viewpoint, corresponding to a line of sight determined by the user terminal, on the sphere.

Methods, systems, and apparatus for processing of three-dimensional visual content are described. One example method of processing three-dimensional content includes parsing a level of detail (LoD) information of a bitstream containing three-dimensional (3D) content that is represented as one geometry sub-bitstream and one or more attribute sub-bitstreams; and generating, based on the LoD information, decoded information by decoding at least a portion of the geometry sub-bitstream and the one or more attribute sub-bitstreams corresponding to a desired level of detail; and reconstructing, using the decoded information, a three-dimensional scene corresponding at least to the desired level of detail. The bitstream conforms to a format organized according to multiple levels of details of the 3D content.

A viewpoint control unit 204 detects a user operation on a display surface for displaying a virtual-viewpoint video (S801) and controls at least one of the position and the orientation of a virtual viewpoint concerning generation of the virtual-viewpoint video in accordance with the user operation (S805, S808, S812, S814).

A digital media system is configured to support any one or more of multiple features with respect to virtual-reality content. Examples of such features include directional picture-in-picture (PIP) windows based on viewing direction, directional audio based on viewing direction, user recommendations based on anomalous viewing times of certain visual features in video content, dynamic adjustment of time-to-live (TTL) durations prior to requesting deletion of video files uploaded to a content distribution network, dynamic adjustment of durations of video files to upload based on network capacity, dynamic adjustment of quantities of video files per set to upload based on network capacity, dynamic resizing of top-depicting or bottom-depicting regions within the picture areas of sets of video files, dynamic resizing of the picture areas themselves within sets of video files, or any suitable combination thereof.

The disclosure relates to a 5G or 6G communication system for supporting a higher data transmission rate. According to embodiment, the method includes receiving, from a server, an SD based on URL information obtained from an AR/MR application, processing the SD, configuring at least one media buffer pipeline for a media object of a scene, based on the processed SD, and establishing transport sessions for components of the media object.