Abstract: Determination and indication of operational performance of deployments in an expert integrated system that has multiple deployments, with each deployment having multiple patterns. The determination is based upon pipe analytics, with the pipe analytics being performed over a common subnet that includes both the analytics platform and the management nodes of each deployment of the multiple deployments.

Abstract: A process for automatic tuning a set of collectors and/or sensors includes: collecting first machine data by a first sensor in a collection framework, processing the first machine data by a first collector in the collection framework to yield first collected machine data, performing analytics on the first collected machine data to generate analytics output, and tuning, based, at least in part, on the analytics output, at least one of the following: the first sensor and the first collector.

Abstract: A process for automatic tuning a set of collectors and/or sensors includes: collecting first machine data by a first sensor in a collection framework, processing the first machine data by a first collector in the collection framework to yield first collected machine data, performing analytics on the first collected machine data to generate analytics output, and tuning, based, at least in part, on the analytics output, at least one of the following: the first sensor and the first collector.

Abstract: A hypertext transfer protocol (HTTP) request that includes embedded scripted code that specifies requested data search, search result data manipulation, and manipulated search result data visualization processing is received at a server. The received embedded scripted code that specifies the requested data search, search result data manipulation, and manipulated search result data visualization processing is executed. Visualized manipulated search results are generated as output of the execution of the received embedded scripted code. The visualized manipulated search results are returned in response to receiving the HTTP request that includes the embedded scripted code.

Abstract: A hypertext transfer protocol (HTTP) request that includes embedded scripted code that specifies requested data search, search result data manipulation, and manipulated search result data visualization processing is received at a server. The received embedded scripted code that specifies the requested data search, search result data manipulation, and manipulated search result data visualization processing is executed. Visualized manipulated search results are generated as output of the execution of the received embedded scripted code. The visualized manipulated search results are returned in response to receiving the HTTP request that includes the embedded scripted code.

Abstract: A method for dynamically deploying an application in a client-server environment includes evaluating at least one constraint of at least one of the application or the client-server environment and partitioning the placement and execution of components of the application in the client-server environment dynamically at runtime according to the at least one constraint.

Abstract: The present invention is directed to an improved mapping system and code generation system. Embodiments of the present invention separate the mapping of data elements into two metalevels. The first metalevel maps between types of elements (e.g., string, int, float, varchar, etc.). This first metalevel mapping is associated with an object that contains a method (i.e., a function) which performs the conversion between the type of the element from a first data structure to the type of element in a second data structure. The second metalevel describes the actual mapping between the data elements at issue. Accordingly, the second metalevel results in an instance of the first metalevel object. Source code or scripts generated in accordance with this separation provide numerous advantages including improved flexibility, reduced storage space usage and others. The two metalevel modeling of the invention can be embodied in source code (or script) generators to generate more efficient source code (or scripts).

Abstract: An apparatus, system, and method are disclosed for supporting service components written in non-native runtime code in a Service Component Architecture (“SCA”). A read module is included to read an implementation type definition having metadata identifying executable code that executes a new implementation type. A receive module is included to detect a dynamic service call to a service component having the new implementation type. The dynamic service call is defined in an SCA message from a calling SCA component. A passing module is included to pass the dynamic service call to a predefined SCA implementation handler associated with the new implementation type. The SCA implementation handler includes native runtime code and implementation logic for executing the dynamic service call by executing non-native runtime code that returns a result to the SCA implementation handler. A packaging module packages the result in an SCA return message to the calling SCA component.

Abstract: An apparatus and system are disclosed for implementing service qualifiers that define on-demand management requirements for a loosely coupled software service in a service component architecture (SCA) for an integration server by associating a service qualifier with one or more of an SCA service reference, an SCA wire, an SCA interface, or an SCA implementation based on an SCA component definition, requiring the integration server to augment an implementation execution for the SCA service to honor the service qualifier; and accepting user modification and definition of declarative service qualifiers. By allowing the association of service qualifiers with SCA service references, SCA wires, SCA interfaces, and SCA implementations, additional quality of service with which components are executed can be maintained.

Abstract: Provided are a method, system, and article of manufacture, wherein a client component including at least one client interface is provided. Also provided is a target component including at least one service interface, wherein the at least one client interface is capable of matching the at least one service interface. A service interface implementation corresponding to the at least one service interface is provided, wherein the service interface implementation is a dynamic service interface implementation. The dynamic service interface implementation is executed to allow access to the client component to a service provided by the target component.

Abstract: An apparatus, system, and method are disclosed for accessing enterprise information system (EIS) resources in a service component architecture (SCA) for an integration server by selectively binding a service import to a low-level EIS resource adapter (RA) resource of an EIS service provider in response to a declarative binding definition, selectively binding a service import to an EIS service of the EIS service provider in response to a declarative binding definition, and selectively binding a service import to one or more EIS resources through an EIS service mapping configured to transform a service request from the service component client to satisfy an interface pattern of the EIS service provider. By allowing access to resources at different levels and allowing mappings of resources, the requirements of service clients can be met.

Abstract: Provided are a method, system, and program for generating asynchronous interfaces and methods from synchronous interfaces and methods receiving a synchronous interface to a target component having a synchronous method used by a client component to synchronously invoke the target component. An asynchronous interface is generated for the synchronous interface of the target component. An asynchronous method is generated for the generated asynchronous interface having arguments to invoke the target component, wherein the client calls the generated asynchronous method to cause an asynchronous execution of the synchronous method.

Abstract: A method for dynamically deploying an application in a client-server environment includes evaluating at least one constraint of at least one of the application or the client-server environment and partitioning the placement and execution of components of the application in the client-server environment dynamically at runtime according to the at least one constraint.

Abstract: Embodiments of the present invention provide a connector adapted to convey data between a first application and a second application (or application components). The applications may be hosted by different computer systems interconnected by a communications link or network. The connector in addition to being interposed between the first and second application is adapted to communicate with one or more protocol handlers (wherein a protocol handler provides the formatting of data to conform with a specific protocol—e.g., HTTP, SOAP, etc.). The protocol handlers configure the connector thus allowing data received by the connector from the first application to be serviced (e.g., formatted) to conform to the protocol provided by the protocol handler which has been “plugged” into the connector.

Abstract: Provided are a method, system, and program for matching client interfaces with service interfaces. A client component includes at least one client interface and a target component includes at least one service interface. A data structure for the client component associates at least one client interface in the client component with one target component. For each client interface indicated in the data structure, a determination is made as whether there is one service interface in the target component associated with the client interface that is compatible with the client interface.

Abstract: Embodiments of the present invention provide a connector adapted to convey data between a first application and a second application (or application components). The applications may be hosted by different computer systems interconnected by a communications link or network. The connector in addition to being interposed between the first and second application is adapted to communicate with one or more protocol handlers (wherein a protocol handler provides the formatting of data to conform with a specific protocol—e.g., HTTP, SOAP, etc.). The protocol handlers configure the connector thus allowing data received by the connector from the first application to be serviced (e.g., formatted) to conform to the protocol provided by the protocol handler which has been “plugged” into the connector.

Abstract: In one aspect of the present invention a framework is presented for the generation and execution of code performing conversion to and from an arbitrary native or “wire” data format. The code facilitates a business application using a service provided by a service implementation in accordance with a native language of the implementation which may be different from the language of the business application. The main components of the framework include a model of the information necessary for the formatting of data which may be represented through the extensions to WSDL; a tool time support environment providing structured support for the generation of format handlers; and runtime support for the generated format handlers. In an alternative to this static invocation model, a dynamic usage scenario provides for invocation of format handlers dynamically obtained from a format handler factory. In both cases, the runtime uses a lazy approach to the conversion to and from the native format for improved performance.

Abstract: Presented herein is a method and computer program product for generating, in an Integrated Development Environment (IDE), a software application that is designed to exploit services of multiple Enterprise Information Systems (EISs). In one embodiment, the method associates each of multiple Resource and Tooling Adapters (RTAs) with a selected one of multiple Enterprise Information Services (EISs). A software application, which uses multiple EISs and is developed through development facilities of an Integrated Development Environment (IDE), is identified. Source code that is used to access the services of the multiple EISs is generated by plugging multiple corresponding RTAs into the IDE. Using plugged-in multiple corresponding RTAs in the IDE, data is provided, to the IDE, that describes services available from the multiple EISs to the software application.

Abstract: An apparatus, system, and method are disclosed for accessing enterprise information system (EIS) resources in a service component architecture (SCA) for an integration server by selectively binding a service import to a low-level EIS resource adapter (RA) resource of an EIS service provider in response to a declarative binding definition, selectively binding a service import to an EIS service of the EIS service provider in response to a declarative binding definition, and selectively binding a service import to one or more EIS resources through an EIS service mapping configured to transform a service request from the service component client to satisfy an interface pattern of the EIS service provider. By allowing access to resources at different levels and allowing mappings of resources, the requirements of service clients can be met.

Abstract: An apparatus, system, and method are disclosed for supporting service components written in non-native runtime code in a Service Component Architecture (“SCA”). A read module is included to read an implementation type definition having metadata identifying executable code that executes a new implementation type. A receive module is included to detect a dynamic service call to a service component having the new implementation type. The dynamic service call is defined in an SCA message from a calling SCA component. A passing module is included to pass the dynamic service call to a predefined SCA implementation handler associated with the new implementation type. The SCA implementation handler includes native runtime code and implementation logic for executing the dynamic service call by executing non-native runtime code that returns a result to the SCA implementation handler. A packaging module packages the result in an SCA return message to the calling SCA component.