Abstract: An outer event stream can be modeled to represent duration for an event with an inner event stream. The inner event stream can be generated to represent duration of at least one event from the outer event stream. By modeling the outer event stream to include duration, coincidence between two or more events can be determined. More specifically, the modeling of the outer event stream enables use of operators to identify coincidence between events from event streams.

Abstract: An outer event stream can be modeled to represent duration for an event with an inner event stream. The inner event stream can be generated to represent duration of at least one event from the outer event stream. By modeling the outer event stream to include duration, coincidence between two or more events can be determined. More specifically, the modeling of the outer event stream enables use of operators to identify coincidence between events from event streams.

Abstract: An outer event stream can be modeled to represent duration for an event with an inner event stream. The inner event stream can be generated to represent duration of at least one event from the outer event stream. By modeling the outer event stream to include duration, coincidence between two or more events can be determined. More specifically, the modeling of the outer event stream enables use of operators to identify coincidence between events from event streams.

Abstract: Differing implementations associated with components of dissimilar execution environments are mediated to facilitate component integration. A host is provided to facilitate native interaction with foreign components by translating between native and foreign communications. Policies can be specified by either or both of a native and foreign component that control interaction.

Abstract: An exemplary method includes providing an application that includes client-side code and server-side code, instrumenting the client-side code and the server-side code to generate timestamps, distributing the instrumented client-side code and the instrumented server-side code and monitoring timestamps generated during execution of the application. In such a method, where timestamps generated by the client-side code and timestamps generated by the server-side code occur along a common timeline, a developer can monitor performance of the distributed application. Other exemplary methods, systems, etc., are also disclosed.

Abstract: A workflow is designated for execution across a plurality of autonomous computational entities automatically. Among other things, the cost of computation is balanced with the cost of communication among computational entities to reduce total execution time of a workflow. In other words, a balance is struck between grouping tasks for execution on a single computational entity and segmenting tasks for execution across multiple computational entities.

Abstract: A processing system for distributed multi-tier applications is provided. The system includes a server component that executes a replica of a client-side application, where a client component executes the client-side application. The client component captures events from the client-side application and transmits the events to the replica to validate the computational integrity security of the application.

Abstract: Differing implementations associated with components of dissimilar execution environments are mediated to facilitate component integration. A host is provided to facilitate native interaction with foreign components by translating between native and foreign communications. Policies can be specified by either or both of a native and foreign component that control interaction.

Abstract: Differing implementations associated with components of dissimilar execution environments are mediated to facilitate component integration. A host is provided to facilitate native interaction with foreign components by translating between native and foreign communications. Policies can be specified by either or both of a native and foreign component that control interaction.

Abstract: A workflow is designated for execution across a plurality of autonomous computational entities automatically. Among other things, the cost of computation is balanced with the cost of communication among computational entities to reduce total execution time of a workflow. In other words, a balance is struck between grouping tasks for execution on a single computational entity and segmenting tasks for execution across multiple computational entities.

Abstract: Differing implementations associated with components of dissimilar execution environments are mediated to facilitate component integration. A host is provided to facilitate native interaction with foreign components by translating between native and foreign communications. Policies can be specified by either or both of a native and foreign component that control interaction.

Abstract: An outer event stream can be modeled to represent duration for an event with an inner event stream. The inner event stream can be generated to represent duration of at least one event from the outer event stream. By modeling the outer event stream to include duration, coincidence between two or more events can be determined. More specifically, the modeling of the outer event stream enables use of operators to identify coincidence between events from event streams.

Abstract: A workflow is designated for execution across a plurality of autonomous computational entities automatically. Among other things, the cost of computation is balanced with the cost of communication among computational entities to reduce total execution time of a workflow. In other words, a balance is struck between grouping tasks for execution on a single computational entity and segmenting tasks for execution across multiple computational entities.

Abstract: An outer event stream can be modeled to represent duration for an event with an inner event stream. The inner event stream can be generated to represent duration of at least one event from the outer event stream. By modeling the outer event stream to include duration, coincidence between two or more events can be determined. More specifically, the modeling of the outer event stream enables use of operators to identify coincidence between events from event streams.

Abstract: Differing implementations associated with components of dissimilar execution environments are mediated to facilitate component integration. A host is provided to facilitate native interaction with foreign components by translating between native and foreign communications. Policies can be specified by either or both of a native and foreign component that control interaction.

Abstract: Provided are methods and systems for expanding semantic information generated for source code to include information about embedded programming languages contained within source code. The methods and systems utilize a semantic model containing information that allows a user to navigate between the EDSL constructs and the constructs in the general purpose language that surround the invocation of the EDSL. These constructs and the relations between them are modeled as a semantics graph comprised of nodes and edges, where the nodes represent a specific kind of source construct and the edges model relations between the nodes. The methods and systems assist users in determining where code from a general purpose language interacts with an embedded language, provide the user with an understanding of how the boundary between these languages is crossed, and make it so that the user can more easily comprehend the code that he or she is looking at.

Abstract: A queue can store streams of data acquired from servers asynchronously based upon received data requests and subsequent subscription with respect to one or more data sources/servers. The queue can be managed for subsequent synchronous or asynchronous release of received streams of data, for example.

Abstract: A system and method for modeling code segments that do not have a location is disclosed. Source code may be indexed and modeled in a data graph with nodes representing code elements and edges representing relationships between nodes. However, some code elements may be hidden or implicit and therefore may lack location information. In these cases, code figments are created and represented as nodes in the graph. Figment nodes may be specially designated so that the figment nodes may be easily distinguished from real source code nodes. The graph is then updated to include location information for the code figments in the nodes that interact with the hidden or implicit code. The data graph may then be provided to a user or as a service to be used by coding tools.