Abstract: Virtual Reality (VR) processing devices and methods are provided for transmitting user feedback information comprising at least one of user position information and user orientation information, receiving encoded audio-video (AN) data, which is generated based on the transmitted user feedback information, separating the A/V data into video data and audio data corresponding to a portion of a next frame of a sequence of frames of the video data to be displayed, decoding the portion of a next frame of the video data and the corresponding audio data, providing the audio data for aural presentation and controlling the portion of the next frame of the video data to be displayed in synchronization with the corresponding audio data.

Abstract: Virtual Reality (VR) processing devices and methods are provided for transmitting user feedback information comprising at least one of user position information and user orientation information, receiving encoded audio-video (A/V) data, which is generated based on the transmitted user feedback information, separating the A/V data into video data and audio data corresponding to a portion of a next frame of a sequence of frames of the video data to be displayed, decoding the portion of a next frame of the video data and the corresponding audio data, providing the audio data for aural presentation and controlling the portion of the next frame of the video data to be displayed in synchronization with the corresponding audio data.

Abstract: A method and system for directing image rendering, implemented in a computer system including a plurality of processors includes determining one or more processors in the system on which to execute one or more commands. A graphics processing unit (GPU) control application program interface (API) determines one or more processors in the system on which to execute one or more commands. A signal is transmitted to each of the one or more processors indicating which of the one or more commands are to be executed by that processor. The one or more processors execute their respective command. A request is transmitted to each of the one or more processors to transfer information to one another once processing is complete, and an image is rendered based upon the processed information by at least one processor and the received transferred information from at least another processor.

Abstract: A method and system for directing image rendering, implemented in a computer system including a plurality of processors includes determining one or more processors in the system on which to execute one or more commands. A graphics processing unit (GPU) control application program interface (API) determines one or more processors in the system on which to execute one or more commands. A signal is transmitted to each of the one or more processors indicating which of the one or more commands are to be executed by that processor. The one or more processors execute their respective command. A request is transmitted to each of the one or more processors to transfer information to one another once processing is complete, and an image is rendered based upon the processed information by at least one processor and the received transferred information from at least another processor.

Abstract: Virtual Reality (VR) processing devices and methods are provided for transmitting user feedback information comprising at least one of user position information and user orientation information, receiving encoded audio-video (A/V) data, which is generated based on the transmitted user feedback information, separating the A/V data into video data and audio data corresponding to a portion of a next frame of a sequence of frames of the video data to be displayed, decoding the portion of a next frame of the video data and the corresponding audio data, providing the audio data for aural presentation and controlling the portion of the next frame of the video data to be displayed in synchronization with the corresponding audio data.

Abstract: Virtual Reality (VR) processing devices and methods are provided for transmitting user feedback information comprising at least one of user position information and user orientation information, receiving encoded audio-video (A/V) data, which is generated based on the transmitted user feedback information, separating the A/V data into video data and audio data corresponding to a portion of a next frame of a sequence of frames of the video data to be displayed, decoding the portion of a next frame of the video data and the corresponding audio data, providing the audio data for aural presentation and controlling the portion of the next frame of the video data to be displayed in synchronization with the corresponding audio data.

Abstract: Techniques involve rendering computing graphics from decoupled inputs. Content updates (e.g., geometry, textures, lighting, audio, etc.) for 3D objects and/or a 3D scene can provided to a compositor at different rates. The compositor buffers the inputs, interpolates between buffered values, binds data for each of the content updates, and triggers drawing the data to render a frame. If buffered data fails to satisfy some criteria, previous buffered values can be used instead of the buffered data, or a different function can be performed (e.g., extrapolation instead of interpolation). User inputs from one or more I/O components (e.g., a gamepad, keyboard, mouse, etc.) can be fed directly into the compositor, which can generate and use a 3D camera from the inputs to draw frames faster than the content updates occur. As such, the present compositor improves power efficiency, and reduces latency and increases smoothness of the input response.

Abstract: Described is a method and system to efficiently compress and stream texture-space rendered content that enables low latency wireless virtual reality applications. In particular, camera motion, object motion/deformation, and shading information are decoupled and each type of information is then compressed as needed and streamed separately, while taking into account its tolerance to delays.

Abstract: A logic-executing ring buffer (LERB) is a ring buffer with integrated logic. A LERB includes a series of logical ring stages and corresponding ring entries mapped to each other using an indirection table. A LERB can include control logic and stage functions that execute in association with each ring stage. The LERB advances by updating the indirection table (e.g., to map an associated ring entry with a subsequent ring stage, optionally based on pinning logic) and/or by passing data from one ring stage to the next. As such, ring stages can store transient data that gets passed between ring stages, ring entries store persistent data that does not move, and mappings are updated by LERB control logic and/or stage functions. As such, a LERB is a flexible data structure that provides expanded functionality and improved memory management for many applications.

Abstract: Techniques involve rendering computing graphics from decoupled inputs. Content updates (e.g., geometry, textures, lighting, audio, etc.) for 3D objects and/or a 3D scene can provided to a compositor at different rates. The compositor buffers the inputs, interpolates between buffered values, binds data for each of the content updates, and triggers drawing the data to render a frame. If buffered data fails to satisfy some criteria, previous buffered values can be used instead of the buffered data, or a different function can be performed (e.g., extrapolation instead of interpolation). User inputs from one or more I/O components (e.g., a gamepad, keyboard, mouse, etc.) can be fed directly into the compositor, which can generate and use a 3D camera from the inputs to draw frames faster than the content updates occur. As such, the present compositor improves power efficiency, and reduces latency and increases smoothness of the input response.

Abstract: A logic-executing ring buffer (LERB) is a ring buffer with integrated logic. A LERB includes a series of logical ring stages and corresponding ring entries mapped to each other using an indirection table. A LERB can include control logic and stage functions that execute in association with each ring stage. The LERB advances by updating the indirection table (e.g., to map an associated ring entry with a subsequent ring stage, optionally based on pinning logic) and/or by passing data from one ring stage to the next. As such, ring stages can store transient data that gets passed between ring stages, ring entries store persistent data that does not move, and mappings are updated by LERB control logic and/or stage functions. As such, a LERB is a flexible data structure that provides expanded functionality and improved memory management for many applications.

Abstract: Virtual Reality (VR) processing devices and methods are provided for transmitting user feedback information comprising at least one of user position information and user orientation information, receiving encoded audio-video (A/V) data, which is generated based on the transmitted user feedback information, separating the A/V data into video data and audio data corresponding to a portion of a next frame of a sequence of frames of the video data to be displayed, decoding the portion of a next frame of the video data and the corresponding audio data, providing the audio data for aural presentation and controlling the portion of the next frame of the video data to be displayed in synchronization with the corresponding audio data.

Abstract: Virtual Reality (VR) systems, apparatuses and methods of processing data are provided which include predicting, at a server, a user viewpoint of a next frame of video data based on received user feedback information sensed at a client, rendering a portion of the next frame using the prediction, encoding the portion, formatting the encoded portion into packets and transmitting the video data. At a client, the encoded and packetized A/V data is received and depacketized. The portion of video data and corresponding audio data is decoded and controlled to be displayed and aurally provided in synchronization. Latency may be minimized by utilizing handshaking between hardware components and/or software components such as a 3D server engine, one or more client processors, one or more client processors, a video encoder, a server NIC, a video decoder, a client NIC; and a 3D client engine.

Abstract: Described is a method and system to efficiently compress and stream texture-space rendered content that enables low latency wireless virtual reality applications. In particular, camera motion, object motion/deformation, and shading information are decoupled and each type of information is then compressed as needed and streamed separately, while taking into account its tolerance to delays.

Abstract: Systems, methods and apparatuses of processing data of a VR system are disclosed that comprise receiving tracking information which includes at least one of user position information and eye gaze point information. One or more processors may be used to predict, based on the user tracking information, a user viewpoint of a next frame of a sequence of frames of video data to be displayed. Using the prediction, a portion of the next frame of video data to be displayed is rendered at an estimated location in the next frame. A corresponding matching portion in a previously encoded frame is determined based on the estimated location of the portion in the next frame and the portion of the next frame of video data is encoded.

Abstract: Described is a method and system to efficiently compress and stream texture-space rendered content that enables low latency wireless virtual reality applications. In particular, camera motion, object motion/deformation, and shading information are decoupled and each type of information is then compressed as needed and streamed separately, while taking into account its tolerance to delays.

Abstract: Virtual Reality (VR) systems, apparatuses and methods of processing data are provided which include predicting, at a server, a user viewpoint of a next frame of video data based on received user feedback information sensed at a client, rendering a portion of the next frame using the prediction, encoding the portion, formatting the encoded portion into packets and transmitting the video data. At a client, the encoded and packetized A/V data is received and depacketized. The portion of video data and corresponding audio data is decoded and controlled to be displayed and aurally provided in synchronization. Latency may be minimized by utilizing handshaking between hardware components and/or software components such as a 3D server engine, one or more client processors, one or more client processors, a video encoder, a server NIC, a video decoder, a client NIC; and a 3D client engine.

Abstract: Systems, methods and apparatuses of processing data of a VR system are disclosed that comprise receiving tracking information which includes at least one of user position information and eye gaze point information. One or more processors may be used to predict, based on the user tracking information, a user viewpoint of a next frame of a sequence of frames of video data to be displayed. Using the prediction, a portion of the next frame of video data to be displayed is rendered at an estimated location in the next frame. A corresponding matching portion in a previously encoded frame is determined based on the estimated location of the portion in the next frame and the portion of the next frame of video data is encoded.

Abstract: Described is a method and system to efficiently compress and stream texture-space rendered content that enables low latency wireless virtual reality applications. In particular, camera motion, object motion/deformation, and shading information are decoupled and each type of information is then compressed as needed and streamed separately, while taking into account its tolerance to delays.

Abstract: A method, a non-transitory computer readable medium, and a processor for performing display shading for computer graphics are presented. Frame data is received by a display shader, the frame data including at least a portion of a rendered frame. Parameters for modifying the frame data are received by the display shader. The parameters are applied to the frame data by the display shader to create a modified frame. The modified frame is displayed on a display device.