Abstract: In various embodiments, methods and systems for game development based on an integrated game development cloud computing platform are provided. Development components that facilitate game development using an integrated game-cloud component are initiated. An input is received to perform a game development task. The game development task is associated with one or more games. The game development task is executed using the integrated game-cloud component. The integrated game-cloud component comprises a game-development-platform development component and a cloud-computing-platform development component combined into an integrated development component supported on the integrated game development cloud computing platform. The game development task can be associated with a first game-platform and a second game-platform of a selected game. The game-platform functions with a cross-platform support component having an integrated core module and an integrated game-platform module.

Abstract: Embodiments of the present invention monitor and dynamically allocate computing resources to a game service. A game service provides a remote gaming environments to which users connect over a wide area network, such as the internet. A game session runs a single instance of a game title. The game session runs the video game code responsible for creating the playing experience for the users. In another embodiment, the number of active game sessions is monitored and computing resources are allocated dynamically as the number of sessions increases or decreases.

Abstract: Embodiments of the present invention monitor and dynamically allocate computing resources to game sessions running within a game service. A game service provides a remote gaming environments to which users connect over a wide area network, such as the internet. A game session runs a single instance of a game title. The game session runs the video game code responsible for creating the playing experience for the users. Various characteristics of the game session may be monitored and used to allocate computing resources. Usage of computing resources, such as central processing unit (“CPU”) may be monitored directly. In another embodiment, the number of players connected to the game session is monitored and computing resources are allocated dynamically as the number of players increases or decreases.

Abstract: Embodiments of the present invention monitor and dynamically manage game instances within a game service. A game service provides a remote gaming environment to which users connect over a wide area network, such as the Internet. For example, embodiments of the invention may forecast demand for a specific game title. The demand forecast is used to determine how many standby game instances are needed to meet demand as players join and leave game sessions. Games with higher demand may have more standby game instances ready for players to drop in. Games with less demand may have fewer active game instances running waiting for players to drop in.

Abstract: In various embodiments, methods and systems for game development based on an integrated game development cloud computing platform are provided. Development components that facilitate game development using an integrated game-cloud component are initiated. An input is received to perform a game development task. The game development task is associated with one or more games. The game development task is executed using the integrated game-cloud component. The integrated game-cloud component comprises a game-development-platform development component and a cloud-computing-platform development component combined into an integrated development component supported on the integrated game development cloud computing platform. The game development task can be associated with a first game-platform and a second game-platform of a selected game. The game-platform functions with a cross-platform support component having an integrated core module and an integrated game-platform module.

Abstract: A method and a system are provided for implementing a global application program interface and providing routing to a number of services. A global traffic manager may receive an application program interface call from an originating processing device via an open public network. The global traffic manager may return an address of a closest edge server, with respect to the originating processing device, from among a number of edge servers, in an edge network. The edge server may obtain a location having data corresponding to the application program interface call and may make a data specific application program interface call to a data center corresponding to the obtained location. The edge server may receive data from the data center and may ensure that the data is in a proper format. The edge server may send the data to the originating processing device via the open public network.

Abstract: Embodiments of the present invention monitor and dynamically manage game instances within a game service. A game service provides a remote gaming environment to which users connect over a wide area network, such as the Internet. For example, embodiments of the invention may forecast demand for a specific game title. The demand forecast is used to determine how many standby game instances are needed to meet demand as players join and leave game sessions. Games with higher demand may have more standby game instances ready for players to drop in. Games with less demand may have fewer active game instances running waiting for players to drop in.

Abstract: Embodiments of the present invention monitor and dynamically allocate computing resources to a game service. A game service provides a remote gaming environments to which users connect over a wide area network, such as the internet. A game session runs a single instance of a game title. The game session runs the video game code responsible for creating the playing experience for the users. In another embodiment, the number of active game sessions is monitored and computing resources are allocated dynamically as the number of sessions increases or decreases.

Abstract: Embodiments of the present invention monitor and dynamically allocate computing resources to game sessions running within a game service. A game service provides a remote gaming environments to which users connect over a wide area network, such as the internet. A game session runs a single instance of a game title. The game session runs the video game code responsible for creating the playing experience for the users. Various characteristics of the game session may be monitored and used to allocate computing resources. Usage of computing resources, such as central processing unit (“CPU”) may be monitored directly. In another embodiment, the number of players connected to the game session is monitored and computing resources are allocated dynamically as the number of players increases or decreases.

Abstract: A method and a system are provided for implementing a global application program interface and providing routing to a number of services. A global traffic manager may receive an application program interface call from an originating processing device via an open public network. The global traffic manager may return an address of a closest edge server, with respect to the originating processing device, from among a number of edge servers, in an edge network. The edge server may obtain a location having data corresponding to the application program interface call and may make a data specific application program interface call to a data center corresponding to the obtained location. The edge server may receive data from the data center and may ensure that the data is in a proper format. The edge server may send the data to the originating processing device via the open public network.

Abstract: A method and a system are provided for implementing a global application program interface and providing routing to a number of services. A global traffic manager may receive an application program interface call from an originating processing device via an open public network. The global traffic manager may return an address of a closest edge server, with respect to the originating processing device, from among a number of edge servers, in an edge network. The edge server may obtain a location having data corresponding to the application program interface call and may make a data specific application program interface call to a data center corresponding to the obtained location. The edge server may receive data from the data center and may ensure that the data is in a proper format. The edge server may send the data to the originating processing device via the open public network.

Abstract: A method and a system are provided for implementing a global application program interface and providing routing to a number of services. A global traffic manager may receive an application program interface call from an originating processing device via an open public network. The global traffic manager may return an address of a closest edge server, with respect to the originating processing device, from among a number of edge servers, in an edge network. The edge server may obtain a location having data corresponding to the application program interface call and may make a data specific application program interface call to a data center corresponding to the obtained location. The edge server may receive data from the data center and may ensure that the data is in a proper format. The edge server may send the data to the originating processing device via the open public network.