Abstract: The present invention provides a system and method to dynamically identify, assemble, or otherwise simulate the availability of resources for an orchestrated service or application, thereby allowing for strategic changes in scheduling, purchasing, hiring, and the like to ensure that the resources needed to deliver the desired outcome during a particular time period are present. In particular, the system includes an orchestration module storing a plurality of resource parameters, correlating a predetermined criterion for one or more resources with an event, and simulating the event, where the simulation includes comparing the stored plurality of parameters with the predetermined criterion. The system further determines whether the stored plurality of parameters satisfy the predetermined criterion, and may store the determination for subsequent evaluation.

Abstract: The present invention provides a system and method to dynamically identify, assemble, or otherwise simulate the availability of resources for an orchestrated service or application, thereby allowing for strategic changes in scheduling, purchasing, hiring, and the like to ensure that the resources needed to deliver the desired outcome during a particular time period are present. In particular, the system includes an orchestration module storing a plurality of resource parameters, correlating a predetermined criterion for one or more resources with an event, and simulating the event, where the simulation includes comparing the stored plurality of parameters with the predetermined criterion. The system further determines whether the stored plurality of parameters satisfy the predetermined criterion, and may store the determination for subsequent evaluation.

Abstract: A voice bus on a computer backplane provides point-to-point connection between a plurality of slots on the backplane to a particular slot. Connection from the plurality of slots is provided by third connectors which lie between first and second connectors defining the slots. Connection to the particular slot is via its respective second connector. In particular, the computer backplane is physically and electrically compatible with the IEEE standard 1014-1987 defining the VMEbus. The presence of the third connector is compatible with the VMEbus standard both electrically and physically.

Abstract: A VME Bus Compatible backplane and shelf arrangement is provided which incorporates a connectorized backplane arrangement which provides for direct mating to both industry standard VME bus cards as well as VME transition cards. A backplane is provided that is double-sided. On a first face, access to two VME busses (P1 & P2) is provided via rows of first and second connectors. The connector of each row are evenly spaced along the bus and the connectors of one row are vertically aligned with the connectors of the second row. On the second face a third row of connectors is provided, directly behind the second row with each connector offset with respect to a corresponding second connector. The first and second rows of connectors accept standard VME bus cards. The third connectors accept directly, industry standard transition cards. Some of the conductors in the second connectors are connected to the second bus, while others are connected directly to conductors in the third connectors.