Abstract: An epoxy-based glue includes an epoxy material, and a solids component including diamond powder and silicon-carbide particles. The adhesive material may be used to form reaction-bonded silicon-carbide bonding reaction-bonded silicon-carbide parts together. The present disclosure also relates to a method of assembling a product from preforms, including locating an adhesive layer, containing diamond powder, between opposed preform surfaces, carbonizing the layer, and infiltrating molten silicon into the preforms and the carbonized layer to convert the preforms into corresponding reaction-bonded silicon-carbide parts, and to convert the carbonized layer into a reaction-bonded silicon-carbide bonding region with a reduced amount of residual silicon. An assembled product, including at least two reaction-bonded silicon-carbide parts bonded together by processing a diamond-containing adhesive, is also disclosed.

Abstract: The described technology addresses one or more of the foregoing problems by receiving one or more workloads from an application. Each of the one or more graphics workloads are associated with completion deadline information and execution metadata representing execution guidance for the workload. The described technology further generates a processor performance adjustment for each of the one or more workloads using a performance model providing the processor performance adjustment based on the completion deadline information and the execution metadata for each of the one or more workloads. The described technology further communicates each of the one or more received workloads and its corresponding generated processor performance adjustment to a processor subsystem. Each of the processor performance adjustments instructs the processor subsystem on a processor adjustment to be implemented when executing the associated workload.

Abstract: The described technology addresses one or more of the foregoing problems by receiving one or more workloads from an application. Each of the one or more graphics workloads are associated with completion deadline information and execution metadata representing execution guidance for the workload. The described technology further generates a processor performance adjustment for each of the one or more workloads using a performance model providing the processor performance adjustment based on the completion deadline information and the execution metadata for each of the one or more workloads. The described technology further communicates each of the one or more received workloads and its corresponding generated processor performance adjustment to a processor subsystem. Each of the processor performance adjustments instructs the processor subsystem on a processor adjustment to be implemented when executing the associated workload.

Abstract: In a video processing system including a video decoder, to handle frequent changes in the bit rate of an encoded bitstream, a video decoder can be configured to process a change in bit rates without reinitializing. The video decoder can be configured to reduce memory utilization. The video decoder can be configured both to process a change in bit rate without reinitializing while reducing memory utilization. In one implementation, the video processing system can include an interface between an application running on a host processor and the video decoder which allows the video decoder to communicate with the host application about the configuration of the video decoder.

Abstract: In some implementations, a method for distributing content feed of a live event via satellite includes: obtaining media signals for the live event from signal sources, where the media signals comprise audio and visual feed of the live event; converting the media signals into a mixed digital media signal; wirelessly transmitting, using a network protocol, the mixed digital media signal to a satellite uplink device; wirelessly transmitting, using the satellite uplink device, the mixed digital media signal to a satellite; identifying content delivery networks in electronic communication with client devices configured to receive the mixed digital media signal; obtaining the mixed digital media signal from the satellite, using a satellite downlink device; and delivering the mixed digital media signal to the one or more identified content delivery networks, through the satellite downlink device, where the identified content delivery networks further deliver the mixed digital media signal to the client devices.

Abstract: In a video processing system including a video decoder, to handle frequent changes in the bit rate of an encoded bitstream, a video decoder can be configured to process a change in bit rates without reinitializing. The video decoder can be configured to reduce memory utilization. The video decoder can be configured both to process a change in bit rate without reinitializing while reducing memory utilization. In one implementation, the video processing system can include an interface between an application running on a host processor and the video decoder which allows the video decoder to communicate with the host application about the configuration of the video decoder.

Abstract: A computer-implemented method is provided in which a satellite uplink device is positioned to distribute an event. Data is collected from one or more automatic sensor device associated with the satellite uplink device. An optimal position of the satellite uplink device is calculated based on at least the data collected from the one or more sensor devices. The location of one or more satellites in orbit is determined and one or more satellites are selected as a preferred satellite. The satellite uplink device is automatically positioned in the calculated optimal position to connect with the preferred satellite without user intervention. However, a user at a remote location may communicate instructions to change the position the satellite uplink device. User instructions are converted into one or more actuator commands and are wirelessly transmitted to the satellite uplink device for changing its position.

Abstract: Systems and methods for distributing an audio/visual feed of events include mixing audio signals, from microphones monitoring the event, with sound board feed from the event public address system, thereby forming a mixed audio signal. A video input signal is received at each video input in one or more video inputs at a video board from one or more corresponding cameras recording the event. A video input signal is selected as the video board output and is combined with the mixed audio signal thereby producing an audio/visual signal. This signal is encoded using a video codec, at each of several bitrates, and an audio codec, thereby forming bitrate streams each comprising the video portion of the audio/visual signal at a unique bitrate. The streams are received by a satellite router and transmitted to a satellite which sends them to one or more downlink servers for Internet distribution.

Abstract: A battery operated device, having a display with two or more available refresh rates, has its refresh rate selected so as to match the video frame rate of video data played back on the display. This selection is made by coordinating the resources in the device that are used to process the video from its reception through to its display.

Abstract: In a video processing system including a video decoder, to handle frequent changes in the bit rate of an encoded bitstream, a video decoder can be configured to process a change in bit rates without reinitializing. The video decoder can be configured to reduce memory utilization. The video decoder can be configured both to process a change in bit rate without reinitializing while reducing memory utilization. In one implementation, the video processing system can include an interface between an application running on a host processor and the video decoder which allows the video decoder to communicate with the host application about the configuration of the video decoder.

Abstract: In a video processing system including a video decoder, to handle frequent changes in the bit rate of an encoded bitstream, a video decoder can be configured to process a change in bit rates without reinitializing. The video decoder can be configured to reduce memory utilization. The video decoder can be configured both to process a change in bit rate without reinitializing while reducing memory utilization. In one implementation, the video processing system can include an interface between an application running on a host processor and the video decoder which allows the video decoder to communicate with the host application about the configuration of the video decoder.

Abstract: Systems and methods for distributing an audio/visual feed of events include mixing audio signals, from microphones monitoring the event, with sound board feed from the event public address system, thereby forming a mixed audio signal. A video input signal is received at each video input in one or more video inputs at a video board from one or more corresponding cameras recording the event. A video input signal is selected as the video board output and is combined with the mixed audio signal thereby producing an audio/visual signal. This signal is encoded using a video codec, at each of several bitrates, and an audio codec, thereby forming bitrate streams each comprising the video portion of the audio/visual signal at a unique bitrate. The streams are received by a satellite router and transmitted to a satellite which sends them to one or more downlink servers for Internet distribution.

Abstract: Systems and methods for distributing an audio/visual feed of a live event include mixing ambient audio signals, from ambient microphones monitoring the live event, with sound board feed from the event public address system, thereby forming a mixed audio signal. A video input signal is received at each video input in a plurality of video inputs at a video board from corresponding cameras recording the event. One such video input signal is selected as the video board output and is combined with the mixed audio signal thereby producing an audio/visual signal. This signal is encoded using a video codec, at each of several bitrates, and an audio codec, thereby forming bitrate streams each comprising the video portion of the audio/visual signal at a unique bitrate. The streams are received by a satellite router and transmitted to a satellite which sends them to one or more downlink servers for Internet distribution.

Abstract: A computer-implemented method is provided in which a satellite uplink device is positioned to distribute an event. Data is collected from one or more automatic sensor device associated with the satellite uplink device. An optimal position of the satellite uplink device is calculated based on at least the data collected from the one or more sensor devices. The location of one or more satellites in orbit is determined and one or more satellites are selected as a preferred satellite. The satellite uplink device is automatically positioned in the calculated optimal position to connect with the preferred satellite without user intervention. However, a user at a remote location may communicate instructions to change the position the satellite uplink device. User instructions are converted into one or more actuator commands and are wirelessly transmitted to the satellite uplink device for changing its position.

Abstract: Provided is a computer-implemented method in which cameras at a live event can be remotely controlled by a user device having one or more processors and memory storing one or more programs for execution by the one or more processor. The user device obtains a wireless transmission of a camera view of a live event from each of a plurality of video cameras at the live event. At least a subset of views from the plurality of cameras is displayed on the user device. The user device obtains instructions from the user directing movement of a first video camera of the plurality of video cameras. The user instructions are converted into one or more actuator commands and are wirelessly transmitted to the first video camera for changing the camera view of the live event of the first video camera.

Abstract: In some implementations, a method for distributing content feed of a live event via satellite includes: obtaining media signals for the live event from signal sources, where the media signals comprise audio and visual feed of the live event; converting the media signals into a mixed digital media signal; wirelessly transmitting, using a network protocol, the mixed digital media signal to a satellite uplink device; wirelessly transmitting, using the satellite uplink device, the mixed digital media signal to a satellite; identifying content delivery networks in electronic communication with client devices configured to receive the mixed digital media signal; obtaining the mixed digital media signal from the satellite, using a satellite downlink device; and delivering the mixed digital media signal to the one or more identified content delivery networks, through the satellite downlink device, where the identified content delivery networks further deliver the mixed digital media signal to the client devices.

Abstract: Systems and methods for distributing an audio/visual feed of a live event include mixing ambient audio signals, from ambient microphones monitoring the live event, with sound board feed from the event public address system, thereby forming a mixed audio signal. A video input signal is received at each video input in a plurality of video inputs at a video board from corresponding cameras recording the event. One such video input signal is selected as the video board output and is combined with the mixed audio signal thereby producing an audio/visual signal. This signal is encoded using a video codec, at each of several bitrates, and an audio codec, thereby forming bitrate streams each comprising the video portion of the audio/visual signal at a unique bitrate. The streams are received by a satellite router and transmitted to a satellite which sends them to one or more downlink servers for Internet distribution.

Abstract: A battery operated device, having a display with two or more available refresh rates, has its refresh rate selected so as to match the video frame rate of video data played back on the display. This selection is made by coordinating the resources in the device that are used to process the video from its reception through to its display.

Abstract: Methods, systems and architectures for processing renderable digital content are described. The various embodiments can protect against unauthorized access or duplication of unprotected content (i.e. decrypted content) once the content has reached a rendering device such as a user's computer. A flexible framework includes an architecture that allows for general media sources to provide virtually any type of multimedia content to any suitably configured rendering device. Content can be protected and rendered locally and/or across networks such as the Internet. The various embodiments can provide a standard platform that can that can be leveraged to protect content across a wide variety of rendering environments, content types, and DRM techniques.

Abstract: Techniques and tools for representing pixel data in a video processing or capture system are described. Described techniques and tools provide efficient color representation for video processing and capture, and provide flexibility for representing colors using different bit precisions and memory layouts. Described techniques and tools include video formats that can be used, for example, in hardware or software for capture, processing, and display purposes. In one aspect, chroma and luma information for a pixel in a video image is represented in a 16-bit fixed-point block of data having an integer and fractional components. Data can be easily converted from one representation to another (e.g., between 16-bit and 10-bit representations). In other aspects, formats for representing 8-, 10- and 16-bit video image data (e.g., packed and hybrid planar formats), and codes for indicating the formats, are described.