Online Access Free 1z1-493 Exam Questions

Consider an order recognition rule where the validation rule XQuery expression contains the following lines of code. When a CRM application tries to create orders that would be processed by this recognition rule by using the CreateOrder web service, which are two possible responses it could receive depending on the output of the validation expression?

• A.a "Fault" message with the description containing "No matching Order Recognition rule found"
• B.a "Fault" message with a description containing "Order Id is missing in the request"
• C.a "Fault" message with a description containing "Transaction not allowed"
• D.a "Fault" message with the description containing "Error in validation expression. See order for details"
• E.a "CreateOrderResponse" message with the created "Order Id"

You have implemented a custom logic that indicates in a field of your order data if the point-of-no-return (PoNR) has been reached or not. Identify two places where you should implement the logic to check this PoNR when order entry systems want to apply changes to an in-flight order.

• A.in the Process Amendment transitions of the Order Lifecycle Policy
• B.in the Cancel Order transitions of the Order Lifecycle Policy
• C.in a behavior in the Creation Task that is used to create your order
• D.in the order recognition rule that recognizes your order
• E.in the Submit Amendment transitions of the Order Lifecycle Policy

Your OSM solution fulfills orders originating from two different countries, C1 and C2. Two roles, R1 and R2, are created in your cartridges. Which design feature can you use to enable users with role R1 to view and manage orders only from country C1 and users with role R2 to view and mange orders only from country C2?

• A.Roles, which alone are sufficient to meet the desired functionality
• B.Order Data
• C.Query
• D.Task Data
• E.Filters

The following function is called in an XQuery automation plug-in before performing a logic that you have developed. Identify the functional action that would be executed with the output of this code.

• A.Publish messages to a JMS queue.
• B.Receive responses from a JMS queue.
• C.Communicate with another running order in the same OSM instance.
• D.Check the users that are running tasks in the current order.
• E.Authenticate with a southbound interface.

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