Abstract: A semiconductor device structure includes a first dielectric wall, a plurality of first semiconductor layers vertically stacked and extending outwardly from a first side of the first dielectric wall, each first semiconductor layer has a first width, a plurality of second semiconductor layers vertically stacked and extending outwardly from a second side of the first dielectric wall, each second semiconductor layer has a second width, a plurality of third semiconductor layers disposed adjacent the second side of the first dielectric wall, each third semiconductor layer has a third width greater than the second width, a first gate electrode layer surrounding at least three surfaces of each of the first semiconductor layers, the first gate electrode layer having a first conductivity type, and a second gate electrode layer surrounding at least three surfaces of each of the second semiconductor layers, the second gate electrode layer having a second conductivity type opposite the first conductivity type.

Abstract: A computing device for providing distributed playback of 360-degree video in a plurality of viewing windows receives a 360-degree video bitstream. The computing device receives a field of view angle for a main viewing window from a user. A user interface comprising the main viewing window and the plurality of peripheral viewing windows is generated, where the plurality of peripheral viewing windows each have a corresponding field of view angle. The computing device executes distributed playback of the 360-degree video in the main viewing window and the plurality of peripheral viewing windows based on the field of view angles of the main viewing window and the plurality of peripheral viewing windows.

Abstract: A computing device for providing distributed playback of 360-degree video in a plurality of viewing windows receives a 360-degree video bitstream. The computing device receives a field of view angle for a main viewing window from a user. A user interface comprising the main viewing window and the plurality of peripheral viewing windows is generated, where the plurality of peripheral viewing windows each have a corresponding field of view angle. The computing device executes distributed playback of the 360-degree video in the main viewing window and the plurality of peripheral viewing windows based on the field of view angles of the main viewing window and the plurality of peripheral viewing windows.

Abstract: A cloud computing device facilitates distribution of digital content by receiving multimedia content and a corresponding effect uploaded from a source device and storing the multimedia content with the corresponding effect, receiving an access request from a requesting device for the multimedia content, and determining whether the requesting device is a registered device. In response to the requesting device not being a registered device, the requesting device is registered and a registered device capabilities list is updated. A determination is made based on the registered device capabilities list on whether the requesting device is compatible with the multimedia content and effect. Based on a compatibility determination, data is transmitted to the requesting device to facilitate playback of the multimedia content and effect.

Abstract: A hybrid output driver includes a voltage mode main driver and a current mode emphasis driver that provides an adjustable differential output voltage swing. The current mode emphasis driver provides: push-pull swing control currents in response to a cursor data value, push-pull precursor currents in response to a precursor data value, and push-pull postcursor currents in response to a postcursor data value. In a normal operating mode, the swing control currents oppose voltages imposed by the voltage mode main driver on the differential output terminals. In a turbo operating mode, the swing control currents enhance voltages imposed by the voltage mode main driver on the differential output terminals.

Abstract: A cloud computing device facilitates distribution of digital content by receiving multimedia content and a corresponding effect uploaded from a source device and storing the multimedia content with the corresponding effect, receiving an access request from a requesting device for the multimedia content, and determining whether the requesting device is a registered device. In response to the requesting device not being a registered device, the requesting device is registered and a registered device capabilities list is updated. A determination is made based on the registered device capabilities list on whether the requesting device is compatible with the multimedia content and effect. Based on a compatibility determination, data is transmitted to the requesting device to facilitate playback of the multimedia content and effect.

Abstract: Various embodiments for sharing multimedia editing projects are described. One embodiment is a method performed at a server for sharing video editing techniques by a user. The method comprises receiving a project description file at the server, wherein the project description file is generated during editing of multimedia content by a first editing system, the project description file comprising information relating to special effect objects applied to the edited multimedia content by the first editing system. The method further comprises providing all or a portion of a timeline-based template according to the project description file, wherein the timeline-based template comprises a timeline and object type designators corresponding to the special effect objects specified by the first editing system, wherein representations of the object type designators are displayed along the timeline. The method further comprises transmitting the timeline-based template from the server to a second editing system.

Abstract: A hybrid output driver includes a voltage mode main driver and a current mode emphasis driver that provides an adjustable differential output voltage swing. The current mode emphasis driver provides: push-pull swing control currents in response to a cursor data value, push-pull precursor currents in response to a precursor data value, and push-pull postcursor currents in response to a postcursor data value. In a normal operating mode, the swing control currents oppose voltages imposed by the voltage mode main driver on the differential output terminals. In a turbo operating mode, the swing control currents enhance voltages imposed by the voltage mode main driver on the differential output terminals.

Abstract: Music information is displayed during playback of multimedia content performed by a multimedia playback device. The multimedia content comprises audio and video. To obtain the music information, audio of the multimedia content is retrieved, environmental noise is filtered out of the audio to generate filtered audio, a rhythm of the filtered audio is obtained, and the music information is generated based on the rhythm of the filtered audio. The music information is displayed simultaneously during playback of the multimedia content.

Abstract: Various embodiments for sharing multimedia editing projects are described. One embodiment is a method performed at a server for sharing video editing techniques by a user. The method comprises receiving a project description file at the server, wherein the project description file is generated during editing of multimedia content by a first editing system, the project description file comprising information relating to special effect objects applied to the edited multimedia content by the first editing system. The method further comprises providing all or a portion of a timeline-based template according to the project description file, wherein the timeline-based template comprises a timeline and object type designators corresponding to the special effect objects specified by the first editing system, wherein representations of the object type designators are displayed along the timeline. The method further comprises transmitting the timeline-based template from the server to a second editing system.

Abstract: Music information is displayed during playback of multimedia content performed by a multimedia playback device. The multimedia content comprises audio and video. To obtain the music information, audio of the multimedia content is retrieved, environmental noise is filtered out of the audio to generate filtered audio, a rhythm of the filtered audio is obtained, and the music information is generated based on the rhythm of the filtered audio. The music information is displayed simultaneously during playback of the multimedia content.

Abstract: A data latch system includes a data input for providing a first data bit having a first duration and a second data bit having a second duration, and a data output for providing the first data bit for the first and second durations. First sampling circuitry is connected to the data input and the data output for the first duration to provide the first data bit to the data output. Second sampling circuitry is connected to the data input and the data output for the second duration to provide the second data bit inverted to the data output. Holding circuitry connected to the data output for the second duration holds the first data bit and the second sampling circuitry connects the second data bit inverted to the data output to enhance the held first data bit when the first and second data bits have different states.

Abstract: A data latch system includes a data input for providing a first data bit having a first duration and a second data bit having a second duration, and a data output for providing the first data bit for the first and second durations. First sampling circuitry is connected to the data input and the data output for the first duration to provide the first data bit to the data output. Second sampling circuitry is connected to the data input and the data output for the second duration to provide the second data bit inverted to the data output. Holding circuitry connected to the data output for the second duration holds the first data bit and the second sampling circuitry connects the second data bit inverted to the data output to enhance the held first data bit when the first and second data bits have different states.

Abstract: A low distortion track-and-hold circuit in which a simple, four-transistor amplifier makes the circuit characteristics independent of the source impedance, and compensates for unequal voltage drops caused by mismatched diodes. An additional pair of bipolar transistors is used to eliminate errors caused by switching transients coupled through the diodes. In the track mode, the differential output voltage between two sampling capacitors tracks the differential input voltage of the circuit. At the end of the track time, this differential output voltage is equal to the differential input voltage. During the hold period, the sampling capacitors are isolated from the differential input voltage. The voltages controlling the switching diodes reverse symmetrically during the transition from track to hold, resulting in a cancellation of any feedthrough of the switching transients to the sampling capacitor. Beta and temperature compensation circuits are also included in the differential track-and-hold circuit.