A system and method are described below for encoding interactive low-latency video using interframe coding. For example, one embodiment of a computer-implemented method for performing video compression comprises: logically subdividing each of a sequence of images into a plurality of tiles, each of the tiles having a defined position within each of the sequence of images, the defined position remaining the same between successive images; detecting motion within the sequence of images occurring at each of the positions of each of the tiles; and encoding each tile within each image of the sequence of images using a first compression format or a second compression format, wherein the frequency at which a particular tile is encoded according to the first compression format across the sequence of images is based on the detected amount of motion at the position of that tile across the sequence of images.

Systems, methods, and computer-readable media for porting locally processed media data with low latency to a remote client device via various wireless links are provided. In one example embodiment, a transceiver module may include a local network interface and a controller that may receive a client control signal from a client device over a wireless local area network via the local network interface, transmit a media control signal based on the client control signal to a media device, receive media data based on the media control signal from the media device, and transmit to the client device over the wireless local area network via the local network interface client data based on the media data and a low-latency compression technique. The receipt of the media data and transmission of the client data may be accomplished with substantially no detectable latency. Additional embodiments are also provided.

A system and method are described below for encoding interactive low-latency video using interframe coding. For example, one embodiment of a computer-implemented method for performing video compression comprises: detecting a maximum data rate of a communication channel between a server and a client; transmitting a video stream comprising a series of sequential frames from the server to the client; detecting that the maximum data rate will be exceeded if a particular frame of the sequence of frames is transmitted from the server to the client over the communication channel; and in lieu of transmitting the frame which could cause the maximum data rate to be exceeded, causing the client to re-render the previous frame of the sequence of frames, thereby effectively reducing the frame rate of the video stream rendered on the client.

Game client, game server, Web application server, and database server including database with data representative of a virtual world. Game client or server, or both, includes motifs, motif manager, character manager, scenes-a-faire manager, and display manager coupled to display, all in communication with game manager, and pseudorandomizer, which can instigate changing of a motif. Motifs are representative of a game character or environment. A user interface has mass sensor, accelerometer, haptic device, first device for visual input, output, or both, second device for audio input, output, or both, and tactile sensor, effector or both. Included may be automatic translator, or TTS/STT module. The online game can be virtual world representative of at least two of a northern continent, a western continent, a southern continent, a central continent, and an eastern continent. Methods provide game client, game server, and a database that manipulate character or environment motifs and scenes-a-faire.

An embodiment of the present disclosure includes, for example, a method for receiving from a first device a request to initiate a video game with a second device, determining a location of the first device, detecting a difference between first computing resources of the first device and second computing resources of the second device, instructing the first device, the second device, or both to adjust a resource configuration to mitigate an aspect of the difference between the first computing resources and the second computing resources, and coordinating an exchange of first control information provided by the first device and second control information provided by the second device to enable a multiplayer session of the video game between the first device and the second device. Other embodiments are disclosed.

A method for using a distributed game engine includes receiving a request from a user account via a computer network to play a game, identifying processing power assignment for the user account, and determining node assembly for the user account to utilize two or more processing nodes for the play of the game based on the processing power assignment. The method further includes initializing the two or more processing nodes for execution of the game for the user account. The operation of initializing is performed to set up a transfer of processing code for the game from one processing nods to another processing node. The method includes defining an internal communication channel between the two or more processing nodes for exchange of state information of the game. The exchange of state information is performed to enable shared processing of the game by the two or more nodes.

Systems, methods, and computer-readable media for porting locally processed media data with low latency to a remote client device via various wireless links are provided. In one example embodiment, a transceiver module may include a local network interface and a controller that may receive a client control signal from a client device over a wireless local area network via the local network interface, transmit a media control signal based on the client control signal to a media device, receive media data based on the media control signal from the media device, and transmit to the client device over the wireless local area network via the local network interface client data based on the media data and a low-latency compression technique. The receipt of the media data and transmission of the client data may be accomplished with substantially no detectable latency. Additional embodiments are also provided.

A computer-implemented system and method are described for managing audio chat for an online video game or application. For example, a system according to one embodiment comprises: an online video game or application execution engine to execute an online video game or application in response to input from one or more users of the video game or application and to responsively generate audio and video of the video game or application; and a chat subsystem to establish audio chat sessions with the one or more users and one or more spectators to the video game or application, the chat subsystem establishing a plurality of audio chat channels including a spectator channel over which the spectators participate in audio chat and a user channel over which the users participate in audio chat.

A system and method are described for storing program code and data within an application hosting center. For example, one embodiment of a computer-implemented method comprises: subdividing program code and/or data used to execute an online application into a first type and a second type; storing program code and data of the first type in a first type of memory, the first type of memory providing relatively low latency memory access; storing program code and data of the second type in a second type of memory, the second type of memory providing relatively higher latency memory access compared to the first type of memory; retrieving program code and data from the first memory and the second memory in response to a client request to execute an online application; and transmitting a streaming interactive video stream representing images generated by the application to the client.

Technologies are generally provided for a hybrid architecture of an enhanced networked environment implementing a centralized management of peer-to-peer (P2P) code exchange for secure real-time content distribution. In some examples, central game servers in a massively multiplayer online game (MMOG) service may prepare both P2P admission and eviction planning and P2P element integration packages, instructing a game client whom to send data to while also removing exploitable data from the P2P channel. Thus, large amounts of data may be offloaded from a datacenter hosting an MMOG or similar service involving high numbers of users to P2P connections.