Abstract: Techniques for facilitating operations in hybrid cloud computing systems are disclosed herein. In one embodiment, a method can include receiving, at a public cloud, a plurality of applications deployable in a private cloud and informing an access service of the public cloud computing system regarding the received applications deployable in the private cloud. The method also includes receiving, from a connection service of the private cloud, a request for a list of the received applications available at the public cloud and deployable in the private cloud. The method further includes in response to the received request, selectively identifying to the private cloud the list of applications based on a service subscription associated with the connection service.

Abstract: Techniques for facilitating operations in hybrid cloud computing systems are disclosed herein. In one embodiment, a method can include receiving, at a public cloud, a plurality of applications deployable in a private cloud and informing an access service of the public cloud computing system regarding the received applications deployable in the private cloud. The method also includes receiving, from a connection service of the private cloud, a request for a list of the received applications available at the public cloud and deployable in the private cloud. The method further includes in response to the received request, selectively identifying to the private cloud the list of applications based on a service subscription associated with the connection service.

Abstract: Techniques for facilitating operations in hybrid cloud computing systems are disclosed herein. In one embodiment, a method can include receiving, at a public cloud, a plurality of applications deployable in a private cloud and informing an access service of the public cloud computing system regarding the received applications deployable in the private cloud. The method also includes receiving, from a connection service of the private cloud, a request for a list of the received applications available at the public cloud and deployable in the private cloud. The method further includes in response to the received request, selectively identifying to the private cloud the list of applications based on a service subscription associated with the connection service.

Abstract: User interface integration across multiple clouds is achieved by hosting UI extensions for different services in the same browser window. The UI extensions are initialized by a shell with any necessary security context for the corresponding cloud. The shell provides versioning so that the newest version of the UI is presented to users for all versions of a service. A connector in a local cloud provides translation between APIs across different clouds.

Abstract: User interface integration across multiple clouds is achieved by hosting UI extensions for different services in the same browser window. The UI extensions are initialized by a shell with any necessary security context for the corresponding cloud. The shell provides versioning so that the newest version of the UI is presented to users for all versions of a service. A connector in a local cloud provides translation between APIs across different clouds.

Abstract: Techniques for facilitating operations in hybrid cloud computing systems are disclosed herein. In one embodiment, a method can include receiving, at a public cloud, a plurality of applications deployable in a private cloud and informing an access service of the public cloud computing system regarding the received applications deployable in the private cloud. The method also includes receiving, from a connection service of the private cloud, a request for a list of the received applications available at the public cloud and deployable in the private cloud. The method further includes in response to the received request, selectively identifying to the private cloud the list of applications based on a service subscription associated with the connection service.

Abstract: User interface integration across multiple clouds is achieved by hosting UI extensions for different services in the same browser window. The UI extensions are initialized by a shell with any necessary security context for the corresponding cloud. The shell provides versioning so that the newest version of the UI is presented to users for all versions of a service. A connector in a local cloud provides translation between APIs across different clouds.

Abstract: Techniques for facilitating operations in hybrid cloud computing systems are disclosed herein. In one embodiment, a method can include receiving, at a public cloud, a plurality of applications deployable in a private cloud and informing an access service of the public cloud computing system regarding the received applications deployable in the private cloud. The method also includes receiving, from a connection service of the private cloud, a request for a list of the received applications available at the public cloud and deployable in the private cloud. The method further includes in response to the received request, selectively identifying to the private cloud the list of applications based on a service subscription associated with the connection service.

Abstract: User interface integration across multiple clouds is achieved by hosting UI extensions for different services in the same browser window. The UI extensions are initialized by a shell with any necessary security context for the corresponding cloud. The shell provides versioning so that the newest version of the UI is presented to users for all versions of a service. A connector in a local cloud provides translation between APIs across different clouds.

Abstract: User interface integration across multiple clouds is achieved by hosting UI extensions for different services in the same browser window. The UI extensions are initialized by a shell with any necessary security context for the corresponding cloud. The shell provides versioning so that the newest version of the UI is presented to users for all versions of a service. A connector in a local cloud provides translation between APIs across different clouds.

Abstract: Techniques for facilitating operations in hybrid cloud computing systems are disclosed herein. In one embodiment, a method can include receiving, at a public cloud, a plurality of applications deployable in a private cloud and informing an access service of the public cloud computing system regarding the received applications deployable in the private cloud. The method also includes receiving, from a connection service of the private cloud, a request for a list of the received applications available at the public cloud and deployable in the private cloud. The method further includes in response to the received request, selectively identifying to the private cloud the list of applications based on a service subscription associated with the connection service.

Abstract: User interface integration across multiple clouds is achieved by hosting UI extensions for different services in the same browser window. The UI extensions are initialized by a shell with any necessary security context for the corresponding cloud. The shell provides versioning so that the newest version of the UI is presented to users for all versions of a service. A connector in a local cloud provides translation between APIs across different clouds.

Abstract: The subject invention pertains to systems and methods to provide rich and intelligent programmatic assistance across language and compilation boundaries. In essence, the systems and methods can monitor a plurality of compilation units in a software project to determine the language(s) employed therewith and provide intelligent code assistance to the compilation units for the detected language(s). The rich and intelligent assistance can correspond to providing code suggestions, among other things, based on the programming language being utilized and the context of its use. In brief, the herein disclosed techniques provide a seamless design environment to facilitate coding in multiple programming languages amongst a plurality of compilation units in project.

Abstract: A software-development system or versioning system has a collection of modules for performing individual development functions such as document editing, keyword processing, and private-copy management. Each module has an interface compatible with that of the others, so that modules can be added to or substituted for the original modules, if the new modules conform to the interface. The architecture of this system supports the performance of development actions such as document merging and keyword expansion at any location within the system. The system operates upon documents and files as objects in an object space, rather than in name spaces.

Abstract: Some large software development projects need more than one versioning system to accommodate not only a diversity of document formats and data types, but also the geographic diversity of its programmers. However, having more than one versioning systems is generally very expensive. A major factor in this expense is the requirement for a separate application program interface (API) for each separate versioning system. Accordingly, the inventors devised an exemplary API architecture which can be extended with “plug-in” protocol providers to include virtually any number of separate version stores or versioning systems. The exemplary architecture includes a generic command parser and a command dispatcher. The command dispatcher operatively couples to one or more protocol providers, each coupled to at least one version store.