Abstract: A computer-implemented method for building a software application is disclosed. The method includes: generating a plurality of application resources; creating a plurality of tags; applying one of the tags on each of the plurality of application resources; grouping the application resources by their tags to form at least two asset packs, each identifiable by at least one tag shared by all application resources in the asset pack; and creating an asset pack manifest comprising a location of each of the asset packs and an order in which the asset packs are to be downloaded.

Abstract: A computer-implemented method for building a software application is disclosed. The method includes: generating a plurality of application resources; creating a plurality of tags; applying one of the tags on each of the plurality of application resources; grouping the application resources by their tags to form at least two asset packs, each identifiable by at least one tag shared by all application resources in the asset pack; and creating an asset pack manifest comprising a location of each of the asset packs and an order in which the asset packs are to be downloaded.

Abstract: A computer-implemented method for building a software application is disclosed. The method includes: generating a plurality of application resources; creating a plurality of tags; applying one of the tags on each of the plurality of application resources; grouping the application resources by their tags to form at least two asset packs, each identifiable by at least one tag shared by all application resources in the asset pack; and creating an asset pack manifest comprising a location of each of the asset packs and an order in which the asset packs are to be downloaded.

Abstract: A computer-implemented method for building a software application is disclosed. The method includes: generating a plurality of application resources; creating a plurality of tags; applying one of the tags on each of the plurality of application resources; grouping the application resources by their tags to form at least two asset packs, each identifiable by at least one tag shared by all application resources in the asset pack; and creating an asset pack manifest comprising a location of each of the asset packs and an order in which the asset packs are to be downloaded.

Abstract: A computer-implemented method for building a software application is disclosed. The method includes: generating a plurality of application resources; creating a plurality of tags; applying one of the tags on each of the plurality of application resources; grouping the application resources by their tags to form at least two asset packs, each identifiable by at least one tag shared by all application resources in the asset pack; and creating an asset pack manifest comprising a location of each of the asset packs and an order in which the asset packs are to be downloaded.

Abstract: A networked media player includes, in one embodiment, a universal search application that searches for content provided by a plurality of content providers through a corresponding plurality of content provider apps that execute on the networked media players. The search application transmits a search query to one or more servers that search through one or more data structures (e.g. set of indices) containing content from the content providers. The search results are then provided back to the media player and can include at least one canonicalized result and also can include one or more PLAY icons validated through a search using subscription information associated with a cloud subscriber identifier.

Abstract: A computer-implemented method for building a software application is disclosed. The method includes: generating a plurality of application resources; creating a plurality of tags; applying one of the tags on each of the plurality of application resources; grouping the application resources by their tags to form at least two asset packs, each identifiable by at least one tag shared by all application resources in the asset pack; and creating an asset pack manifest comprising a location of each of the asset packs and an order in which the asset packs are to be downloaded.

Abstract: A computer-implemented method for building a software application is disclosed. The method includes: generating a plurality of application resources; creating a plurality of tags; applying one of the tags on each of the plurality of application resources; grouping the application resources by their tags to form at least two asset packs, each identifiable by at least one tag shared by all application resources in the asset pack; and creating an asset pack manifest comprising a location of each of the asset packs and an order in which the asset packs are to be downloaded.

Abstract: A game system utilizes a codecs abstraction laver (CAL) to allow the game system to accommodate new and/or modified codecs without requiring the game application code to be modified. The CAL, functioning as an application programming interface (API), operates between media sources and the game application. The game application interacts with the CAL and not the codec. Differences between codecs are transparent to the game application. New codecs can be introduced and used by existing applications without modifying the existing application code. The CAL processes media from a variety of sources such as memory, files, http sources, queues, custom sources, external drives, or game media sources (e.g., XMedia). The CAL determines the source of the media, the type of media being received (e.g., audio, video, image, animation, or game), and the codec used to compress the media. The CAL provides the decoded media to the game application.

Abstract: A user of a game system can replace background music from a game with the user's selected background music, while still hearing any other audio streams (e.g. sound effects related to gameplay). A music engine and system audio mixer allow the playback of the user's requested replacement music. The game tags background music streams with an identifier indicating that they are background music, and such streams are muted at the music engine and system audio mixer (if the game is using the provided music engine in order to play the game's audio streams) or by the game if the game is using a game music engine and has received information indicating that a mute request has been issued.

Abstract: A game system utilizes a codecs abstraction laver (CAL) to allow the game system to accommodate new and/or modified codecs without requiring the game application code to be modified. The CAL, functioning as an application programming interface (API), operates between media sources and the game application. The game application interacts with the CAL and not the codec. Differences between codecs are transparent to the game application. New codecs can be introduced and used by existing applications without modifying the existing application code. The CAL processes media from a variety of sources such as memory, files, http sources, queues, custom sources, external drives, or game media sources (e.g., XMedia). The CAL determines the source of the media, the type of media being received (e.g., audio, video, image, animation, or game), and the codec used to compress the media. The CAL provides the decoded media to the game application.