An image processing apparatus includes an input unit inputs a first divided image, an acquisition unit acquires an image of a peripheral region of a first edge of the first divided image from a second image processing apparatus for performing image processing on a second divided image, and also acquires an image of a peripheral region of a second edge of the first divided image from a third image processing apparatus for performing image processing on a third divided image, an image processing unit executes image processing on the first divided image, using the images of the peripheral regions acquired from the second and third image processing apparatuses by the acquisition unit, wherein the image of the peripheral region acquired from the third image processing apparatus includes an image of at least a part of a fourth divided image adjacent to the third divided image.

A method of luminance compensation includes; generating luminance compensation data based on test image data, each of the test image data corresponding to one gray level, and each of the luminance compensation data including compensation values corresponding to the one gray level, generating intra-plane data based on the luminance compensation data, one of the intra-plane data being generated based on one of the luminance compensation data, generating inter-plane stream data based on the intra-plane data, one of the inter-plane stream data being generated based on data blocks included in the intra-plane data and disposed at a same location within the intra-plane data, and sequentially storing the inter-plane stream data in a memory.

The present disclosure relates to a communication method and system for converging a 5th-Generation (5G) communication system for supporting higher data rates beyond a 4th-Generation (4G) system with a technology for Internet of Things (IoT). According to the present disclosure, a method performed by a first electronic device displaying AR content comprises obtaining measurement time information about a time when a user's pose is measured and measurement pose information about the measured pose, generating a first report including the measurement time information and the measurement pose information, transmitting the first report to a second electronic device, receiving a predicted image for a target point generated by the second electronic device, and displaying an AR image at the target point based on the predicted image.

A control apparatus causes, to execute image processing of single-color image data, a processing apparatus configured to accept an image processing command including a plurality of fields, each capable of storing a respective one of a plurality of color components in a dot sequential format, and execute image processing by using pixel values included in the command. The control apparatus extracts, from single-color image data, a plurality of partial images by a number corresponding to the number of color components. The control apparatus acquires single-color pixel values from the respective partial images, and stores the single-color pixel values in the respective fields of the image processing command. A generated image processing command is input to the processing apparatus, and the processing apparatus executes image processing using the pixel values included in the command.

A tile-based graphics processing pipeline includes rendering circuitry for rendering graphics fragments to generate rendered fragment data. Each graphics fragment has associated with it a set of sampling positions to be rendered. The pipeline also includes a tile buffer configured to store rendered fragment data for sampling positions prior to the rendered fragment data being written out to memory, write out circuitry configured to write a compressed representation of the rendered fragment data for a tile in the tile buffer to memory, and processing circuitry. The processing circuitry identities, based on the writing of rendered fragment data to the tile buffer, any blocks comprising sampling positions within a tile having the same data value associated with each sampling position in the block, and to, when such a block of sampling positions is identified, trigger the write out circuitry to write a compressed representation of the block to the memory.

There is disclosed a method of downloading image tiles onto a client device. A server stores a plurality of image tiles organized in a hierarchical structure, each level of the structure storing a sub-set of the image tiles being associated with a particular resolution level. The method comprises when downloading image tiles of a particular resolution level to generate a second set of image tiles having a second resolution level lower than the first resolution level; each image tile of the second set of image tiles having four child image tiles in the image tiles of the first resolution level as prescribed by the hierarchical structure and to preload the second set of image tiles to the client device to use for generating a transition view that is displayed while the actual image tiles required for a newly requested image view are downloaded from the server to the client device.

An image display device includes: a display unit that includes a plurality of display lines; a detection unit that detects presence of an input of a predetermined position information signal; a signal output control unit that instructs whether or not to output a position information signal in accordance with a detection result by the detection unit; a signal output unit that outputs the position information signal in a case of being instructed; a display direction switching control unit that instructs switching of a vertical display direction to the display unit in accordance with the detection result; an image data input unit that receives image data including data for each display line; and an image data transmission switching unit that switches a transmission order of the data for each display line in accordance with the detection result, and transmits to the display unit the image data.

A tile-based graphics processing pipeline comprising a rasteriser 3, a renderer 6, a tile buffer 10 configured to store rendered fragment data locally to the graphics processing pipeline prior to that data being written out to an external memory, a write out stage 13 configured to write data stored in the tile buffer to an external memory, and a programmable processing stage 14. The programmable processing stage 14 is operable under the control of graphics program instructions to read fragment data stored in the tile buffer 10 on a random access basis, perform a processing operation using the read fragment data, and write the result of the processing operation into the tile buffer 10 or to an external memory.

An apparatus and method are described for allocating local memories to virtual machines. For example, one embodiment of an apparatus comprises: a command streamer to queue commands from a plurality of virtual machines (VMs) or applications, the commands to be distributed from the command streamer and executed by graphics processing resources of a graphics processing unit (GPU); a tile cache to store graphics data associated with the plurality of VMs or applications as the commands are executed by the graphics processing resources; and tile cache allocation hardware logic to allocate a first portion of the tile cache to a first VM or application and a second portion of the tile cache to a second VM or application; the tile cache allocation hardware logic to further allocate a first region in system memory to store spill-over data when the first portion of the tile cache and/or the second portion of the file cache becomes full.

With respect to a space including an object 40 of a display target, images of the space viewed from reference points 42a to 42c of view are created as reference images 46a, 46b, and 46c in advance and they are synthesized according to a position of an actual point of view to render a display image. In the certain reference image 46b, data other than a part 48 represented only in it is deleted. At the time of rendering of the deleted part, the other reference images 46a and 46c are used.