You have a cartridge that defines three stages of decomposition. The first stage contains order components that represent functions, the second stage contains order components that represent target systems, and the third stage contains order components that represent granularities. You want to define decomposition rules that always apply the same granularity to a function, independent of the target system that this function is communicating to. How would you design these decomposition rules such that it is easy to maintain them in the future evolutions of your system topology?

• A. a single decomposition rule that has only the target systems used by the function as source order components and the granularity as the target order component
• B. a single decomposition rule with the function as the source order component and the granularity as the target order component
• C. a single decomposition rule that has all target systems as source order components and the granularity as the target order component
• D. one decomposition rule for each target system, having this target system as the source order component and the granularity as the target order component
• E. one decomposition rule for each target system used by the function, having this target system as the source order component and the granularity as the target order component

You are working with an architecture that involves multiple billing systems. Each billing system returns its own set of external fulfillment states that you want to map to a smaller set of mapped fulfillment states defined in your cartridge. Identify two ways to implement this.

• A. Push the external fulfillment states unaltered in the automation that communicates to the billing system and define an Order Composition Rule Set for each billing systems.
• B. Push the external fulfillment states unaltered in the automation that communicates to the billing system and define an Order Item Composition Rule Set for each billing systems.
• C. Preprocess the external fulfillment states in the automation that communicates to each billing system and define a single Fulfillment State Map for all billing systems.
• D. Push the external fulfillment states unaltered in the automation that communicates to the billing system and define an upstream system notification logic for each billing systems.
• E. Push the external fulfillment states unaltered in the automation that communicates to the billing system and define a Fulfillment State Map for each billing systems.

You detect some performance issues during the execution of a load test in an environment that will be used to fulfill a large number of orders in a given day. Which three resources should you check and re-configure in your Oracle WebLogic Server console in order to provide better performance to this environment?

• A. threads
• B. deployments
• C. JMS queues
• D. database connections
• E. users and groups

What kind of fallout scenario might occur during communication between OSM and a downstream system that should eventually be resolved by simply retrying the communication?

• A. unsupported business process requests
• B. failure due to slow downstream system processing
• C. internal downstream system application error
• D. invalid message request sent to the downstream system
• E. network connectivity error

You have an XQuery automation plugin that performs several interactions with OSM, including searching for orders, getting detailed order information based on search results, and deciding whether to suspend those orders or not. What interface would you suggest to be used by this plugin in order to perform these interactions?

• A. OSM database
• B. Task Web client
• C. web service
• D. Order Management Web client
• E. XML API