摘要:
A method of coupling asynchronous process interaction between computer systems integrated within an overall system of interconnected systems includes receiving a set of information describing an invocation call for execution of a first process on a first system integrated within the overall system; correlating a first callback argument received upon completion of the first process that includes a first unique identifier for the first process generated by the first system with the set of information according to the first unique identifier for the first process; and sending a notification message to a callback endpoint in a second process implemented to receive notification upon completion of the first process by the first system indicating completion of the first process. The second process executing on a second system integrated within the overall system makes the invocation call. The set of information specifies the first unique identifier and the callback endpoint.
摘要:
A method of coupling asynchronous process interaction between computer systems integrated within an overall system of interconnected systems includes receiving a set of information describing an invocation call for execution of a first process on a first system integrated within the overall system; correlating a first callback argument received upon completion of the first process that includes a first unique identifier for the first process generated by the first system with the set of information according to the first unique identifier for the first process; and sending a notification message to a callback endpoint in a second process implemented to receive notification upon completion of the first process by the first system indicating completion of the first process. The second process executing on a second system integrated within the overall system makes the invocation call. The set of information specifies the first unique identifier and the callback endpoint.
摘要:
The inventive offering creation and validation (OCAV) component identifies all available resource types contained in a resource catalog, invokes a “get timetable” resource management action for each of those resource types, and finally receives a timetable containing all resource types with their assigned resources and their assigned free, reserved, and used time slots. By using that timetable, the OCAV component generates a new timetable including all resource types with their assigned resources having a common free time slots. Then, the OCAV component invokes a “get cost” resource management action for each resource type in that new timetable and assigns the calculated costs to the respective resource types, resulting in a final timetable. In further step, the OCAV component maps the free resource included in that final timetable to predefined service environments described in the resource catalog, and if the mapping has been successful, creates a list including all predefined service environments including their free time slots and costs. Finally, the OCAV component generates an offering for each of those SEs, assigns a price to each offering which is preferably calculated by certain business rules, and publishes it, preferably in a registry.
摘要:
The present invention relates to distributed networking, and in particularly to a message-based networking environment. More particularly, it relates to business applications (110, 112, 114), which access the network via some middleware (270) within a predetermined load schedule.In order to alleviate the disadvantages of prior art it is proposed to perform, a method with the following sequence of steps: a) monitoring, metering the current workload, b) storing metered workload data in a first appropriate data store (282), c) store state information data about the plurality of currently used instances in a second appropriate data store (242, 244, 246), c) analysing both, said stored, metered workload data and said state information for compliance with a predetermined quality-of-service policy, d) adapting the number of instances (222, 224, 226) usable for satisfying the workload to the workload needs as required by said predetermined quality-of-service policy, e) wherein meta data of newly created instances are managed in a plurality of message stores (242, 244, 246), the data contents of which are frequently synchronized in order to decouple the plurality of client applications (110, 112, 114) from bindings fixed during their operation to particular service instances (222, 224, 226).
摘要:
The present invention relates to distributed networking, and in particularly to a message-based networking environment. More particularly, it relates to business applications, which access the network via some middleware within a predetermined load schedule. In order to alleviate the disadvantages of prior art it is proposed to perform, a method with the following sequence of steps: monitoring, metering the current workload, storing metered workload data in a first appropriate data store, store state information data about the plurality of currently used instances in a second appropriate data store, analyzing both, said stored, metered workload data and said state information for compliance with a predetermined quality-of-service policy, adapting the number of instances usable for satisfying the workload to the workload needs as required by said predetermined quality-of-service policy, wherein meta data of newly created instances are managed in a plurality of message stores, the data contents of which are frequently synchronized in order to decouple the plurality of client applications from bindings fixed during their operation to particular service instances.
摘要:
The invention is based on Orders specifically developed for and processed by an Order Processing Environment for creation or modification of resource topologies. The Order Processing Environment is partly replaced by a combination of an Order Transformation Environment and standard Workflow Engines in order to execute the Order by standard Workflow Engines. The Order Transformation Environment needs to get two inputs. The first input is the resource topology which is retrieved by using the Relationship Registry of the Order Processing Environment. The second input is the Order. Orders are resource topology independent and include resource specific tasks without arranging those in a sequence. Tasks provide actions for creating and/or modifying resource topologies. The transformation is based on above two inputs resulting in a static standard based workflow. The static, standards-based workflow (e.g. BPEL-based) can then be executed by standards-based process/workflow engines. This enables users to exploit the flexibility of orders while still being able to leverage the broad set of tooling and runtime products available across the IT industry.
摘要:
The inventive offering creation and validation (OCAV) component identifies all available resource types contained in a resource catalog, invokes a “get timetable” resource management action for each of those resource types, and finally receives a timetable containing all resource types with their assigned resources and their assigned free, reserved, and used time slots. By using that timetable, the OCAV component generates a new timetable including all resource types with their assigned resources having a common free time slots. Then, the OCAV component invokes a “get cost” resource management action for each resource type in that new timetable and assigns the calculated costs to the respective resource types, resulting in a final timetable. In further step, the OCAV component maps the free resource included in that final timetable to predefined service environments described in the resource catalog, and if the mapping has been successful, creates a list including all predefined service environments including their free time slots and costs. Finally, the OCAV component generates an offering for each of those SEs, assigns a price to each offering which is preferably calculated by certain business rules, and publishes it, preferably in a registry.
摘要:
The invention is based on Orders specifically developed for and processed by an Order Processing Environment for creation or modification of resource topologies. The Order Processing Environment is partly replaced by a combination of an Order Transformation Environment and standard Workflow Engines in order to execute the Order by standard Workflow Engines. The Order Transformation Environment needs to get two inputs. The first input is the resource topology which is retrieved by using the Relationship Registry of the Order Processing Environment. The second input is the Order. Orders are resource topology independent and include resource specific tasks without arranging those in a sequence. Tasks provide actions for creating and/or modifying resource topologies. The transformation is based on above two inputs resulting in a static standard based workflow. The static, standards-based workflow (e.g. BPEL-based) can then be executed by standards-based process/workflow engines. This enables users to exploit the flexibility of orders while still being able to leverage the broad set of tooling and runtime products available across the IT industry.