Abstract: Implementations discussed herein provide a way for an application to host a graphical element from another application in its own window, such as in its graphical user interface (GUI). A host application that hosts a component graphical element of a component application can control the lifetime and visual appearance of the component graphical element, while the component application provides content for display within the component graphical element.

Abstract: An isolation execution environment provides an application with limited resources to execute an application. The application may require access to secured resources associated with a particular trust level that are outside of the isolation execution environment. A trust activation engine determines the trust level associated with a request for a resource and operates differently based on the trust level. A broker process may be used to execute components providing access to resources having a partial trust level in an execution environment that is separate from the isolation execution environment.

Abstract: The claimed subject matter provides for systems and/or methods for debugging a computer-executable file. The computer-executable file may be executing in a first runtime environment and located in a first process. The file may further comprise on object having a proxy in that first runtime environment. One method embodiment comprises the steps of debugging said computer-executable file; detecting a proxy for an object called by said file; decoding said proxy to obtain physical information regarding said object; returning said physical object information; and transforming said physical object information into logical object information.

Abstract: An isolation execution environment provides an application with limited resources to execute an application. The application may require access to secured resources associated with a particular trust level that are outside of the isolation execution environment. A trust activation engine determines the trust level associated with a request for a resource and operates differently based on the trust level. A broker process may be used to execute components providing access to resources having a partial trust level in an execution environment that is separate from the isolation execution environment.

Abstract: An isolation execution environment provides an application with limited resources to execute an application. The application may require access to secured resources associated with a particular trust level that are outside of the isolation execution environment. A trust activation engine determines the trust level associated with a request for a resource and operates differently based on the trust level. A broker process may be used to execute components providing access to resources having a partial trust level in an execution environment that is separate from the isolation execution environment.

Abstract: The claimed subject matter provides for systems and/or methods for debugging a computer-executable file. The computer-executable file may be executing in a first runtime environment and located in a first process. The file may further comprise on object having a proxy in that first runtime environment. One method embodiment comprises the steps of debugging said computer-executable file; detecting a proxy for an object called by said file; decoding said proxy to obtain physical information regarding said object; returning said physical object information; and transforming said physical object information into logical object information.

Abstract: An isolation execution environment provides an application with limited resources to execute an application. The application may require access to secured resources associated with a particular trust level that are outside of the isolation execution environment. A trust activation engine determines the trust level associated with a request for a resource and operates differently based on the trust level. A broker process may be used to execute components providing access to resources having a partial trust level in an execution environment that is separate from the isolation execution environment.

Abstract: Example embodiments of the present invention provide a mechanism for allowing developers to define new interfaces and insert custom translational code that implements these new interfaces for legacy components that otherwise cannot communicate in a web service environment. These new interfaces are then exposed to the web service client in such a way that abstracts the web service client from the legacy components interfaces. The objects that implement the new interfaces are referred to herein as “service surrogates” and the new interfaces will be commonly referred to as a, “surrogate interfaces.” These surrogate interfaces may be initialized along with an instance of the service surrogate upon startup of an application that offers the services. In addition, a dynamic web service can simultaneously run along with the service surrogate for those services that may not need the features offered by the service surrogates.

Abstract: The present invention provides a mechanism that allows an administrative event to trigger or cause the generation of a dynamic web service during initialization of legacy application components. Similar to other types of static tooling approaches, the dynamic approach—as supported herein—uses available metadata describing an interface for communicating with legacy components. Rather than generating and manifesting the web service via tooling on a one time or occasional bases, however, example embodiments provide for the generation of the web service by the supporting infrastructure as a standard part of application initialization. Upon stopping the application, a termination sequence is provided that stops the corresponding dynamic web service and deletes the web service description used to generate the dynamic web service. Accordingly, every time the application is started the available metadata will need to be consulted and a consistent service will be built on-the-fly.

Abstract: Example embodiments of the present invention provide a mechanism for allowing developers to define new interfaces and insert custom translational code that implements these new interfaces for legacy components that otherwise cannot communicate in a web service environment. These new interfaces are then exposed to the web service client in such a way that abstracts the web service client from the legacy components interfaces. The objects that implement the new interfaces are referred to herein as “service surrogates” and the new interfaces will be commonly referred to as a, “surrogate interfaces.” These surrogate interfaces may be initialized along with an instance of the service surrogate upon startup of an application that offers the services. In addition, a dynamic web service can simultaneously run along with the service surrogate for those services that may not need the features offered by the service surrogates.

Abstract: The present invention provides a mechanism that allows an administrative event to trigger or cause the generation of a dynamic web service during initialization of legacy application components. Similar to other types of static tooling approaches, the dynamic approach-as supported herein-uses available metadata describing an interface for communicating with legacy components. Rather then generating and manifesting the web service via tooling on a one time or occasional bases, however, example embodiments provide for the generation of the web service by the supporting infrastructure as a standard part of application initialization. Upon stopping the application, a termnination, sequence is provided that stops the corresponding dynamic web service and deletes the web service description used to generate the dynamic web service. Accordingly, every time the application is started the available metadata will need to be consulted and a consistent service will be built on-the-fly.