Abstract: The disclosed computer-implemented method may include (i) sending, to a cloud gaming server, cloud gaming input information with an input creation timestamp that marks when the cloud gaming input information was created, (ii) receiving, in response to sending the cloud gaming input information, a frame creation timestamp that marks when a frame was drawn for a virtual display at the cloud gaming server, (iii) storing the frame creation timestamp in memory, (iv) creating a frame render timestamp that marks a timing of an intercepted client-side video frame render event of translating the frame to draw a corresponding frame for a display at a cloud gaming client device, and (v) automatically providing feedback to improve a cloud gaming experience. Various other methods, systems, and computer-readable media are also disclosed.

Abstract: The disclosed computer-implemented method may include a process for monitoring and improving end-to-end video quality based on scaled and/or interpolated perceptual quality scores across various video views. The method may also include a process for improving search experience for user expectations. Additionally, the method may include a process for providing hardware virtualization and simulation for server hosting. Furthermore, the method may include a process for filtering network traffic in a hosting environment. The method may additionally include a process for testing applications in a hosting environment. The method may further include a process for supporting multi-touch applications. The method may also include a process for optimized graphics rendering. Various other related methods and systems are also disclosed.

Abstract: The disclosed computer-implemented method may include executing, by a server-side hosted environment, a first application non-native to the server-side hosted environment, the executing comprising virtualizing hardware for the server-side hosted environment that supports the execution of the first application in the server-side hosted environment, receiving, by the server-side hosted environment by way of a network, an input data stream from a second application executing on a computing device, processing, by the server-side hosted environment and by the first application while executing in the virtualized hardware, the input data stream, the processing generating an output data stream, and outputting, by the server-side hosted environment and to the computing device by way of the network, the output data stream for use by the second application. Various other methods, systems, and computer-readable media are also disclosed.

Abstract: A receiver, transmitter, and method for a dynamic forward error correction (FEC) are provided. In one embodiment, the method includes: 1) transmitting frames of data during a streaming session according to a FEC repair rate, each frame being contained in a plurality of source packets and having at least one repair packet; and 2) changing the FEC repair rate at least once during the streaming session based on at least one of a number of unrecovered source packets and a number of unused repair packets.

Abstract: Systems and methods for multiplexing audio/video data and generating transport streams for WiFi network with reduced latency for real time playback at a remote device. A virtual presentation clock reference (PCR) representing a scheduled transmission time of a transport stream packet at a transport stream multiplexer is calculated based on the network transmission rate and generation of the data packets. The virtual PCR is compared with the corresponding system PCR to derive a time difference. Based on the time difference, the transport stream multiplexer is configured to adaptively drop packets or throttle packet generation so as to synchronize the playback of audio/video data on a sink device with the generation of interleaved audio/video packets.

Abstract: A receiver, transmitter, and method for a dynamic forward error correction (FEC) are provided. In one embodiment, the method includes: 1) transmitting frames of data during a streaming session according to a FEC repair rate, each frame being contained in a plurality of source packets and having at least one repair packet; and 2) changing the FEC repair rate at least once during the streaming session based on at least one of a number of unrecovered source packets and a number of unused repair packets.

Abstract: Systems and methods for multiplexing audio/video data and generating transport streams for WiFi network with reduced latency for real time playback at a remote device. A virtual presentation clock reference (PCR) representing a scheduled transmission time of a transport stream packet at a transport stream multiplexer is calculated based on the network transmission rate and generation of the data packets. The virtual PCR is compared with the corresponding system PCR to derive a time difference. Based on the time difference, the transport stream multiplexer is configured to adaptively drop packets or throttle packet generation so as to synchronize the playback of audio/video data on a sink device with the generation of interleaved audio/video packets.

Abstract: A graphics server and method for managing streaming parameters. One embodiment of the graphics server includes: (1) a real-time bandwidth estimator (RBE) configured to generate a bandwidth estimate for a network over which a rendered scene is transmittable, (2) a quality-of-service (QoS) manager configured to generate streaming parameters based on the bandwidth estimate, and (3) a graphics processing unit (GPU) configured to employ the streaming parameters to at least partially prepare the rendered scene for transmission.