PEGACPRSA22V1 Certified Pega Robotics System Architect 22 Question and Answers

Comprehensive and Detailed Explanation From Pega Robotics System Exact Extract:

In Pega Robot Studio, the DataTableProxy component acts as an intermediary between automations and a Data Table, allowing the automation to read, manipulate, and update tabular data stored in the project.

When you drag an element such as a DataTableProxy from the Globals section of the Palette onto the automation design surface, Pega Robot Studio presents the user with available actions (methods, properties, or events) that can be executed using that component. This is done through a Select Action dialog box, which lists all available methods associated with the DataTableProxy (e.g., GetTable, AddRow, RemoveRow, Find, Update, etc.).

From the Pega Robotics System Design and Implementation Guide (Data Table Proxy and Data Handling section):

“When a component such as a DataTableProxy or connector object is dragged from the Palette onto the automation design surface, the system opens the Select Action dialog box.

This dialog lists all available methods and properties of the selected object, allowing the developer to select the action to instantiate on the automation surface.

The dialog ensures developers can directly add the desired operation (such as GetTable or UpdateRow) without manually searching through the object’s members.”

Detailed Reasoning:

The DataTableProxy represents a data-handling object; it does not directly add a “property” or “method” by default when dragged.

Instead, Robot Studio prompts you with a Select Action dialog box, allowing you to choose which specific method (like GetTable, FindRow, or AddRow) you want to include in your automation.

After the selection is made, the chosen method (for example, GetTable) is then displayed on the automation surface.

Option Analysis:

A. Incorrect — A property is not automatically added; you must choose an action first.

B. Incorrect — The Quick Add dialog is used for linking variables and not for proxy components.

C. Incorrect — A “proxy design block” is not automatically added without specifying a method.

D. Correct — The Select Action dialog box opens to let you choose the method or property to add.

E. Incorrect — GetTable may be one of the options available, but it is not added automatically.

Hence, the correct answer is D — dragging a DataTableProxy from the Globals section triggers the Select Action dialog box to open, allowing the developer to choose which action to use.

Comprehensive and Detailed Explanation From Pega Robotics System Exact Extract:

When building robotic automations intended for integration with Pega Platform (through Robotic Desktop Automation (RDA) or Robotic Process Automation (RPA)), Pega Systems outlines a set of best practices to ensure reliable execution, data consistency, and seamless communication between the automation and Pega case workflows.

According to the Pega Robotics System Design and Implementation Guide, in the section “Developing Robot Activities for Pega Integration”, the following recommendations are provided:

“When developing automations intended for execution by Pega applications, adhere to the following guidelines:

Always return a valid completion status from the automation to indicate success or failure to the calling Pega activity.

Ensure that the data exchanged between Pega Platform and the automation matches in both type and format to prevent runtime errors or data transformation issues.

The activity name in Pega Platform (as specified in the robotic automation name field) must exactly match the name defined in the Robot Activity component in Robot Studio to establish a valid invocation link.”

Detailed Reasoning:

A. Set valid completion status.

Correct. Each automation that is invoked from Pega must return a valid completion status (e.g., Success, Fail, Completed, Error). This status is sent back through the Robot Activity response data transform.

This ensures that the Pega case or data page correctly interprets the automation’s result and can take subsequent actions (e.g., proceed, retry, or raise an exception).

D. Ensure data formats agree between the automation and the Pega application.

Correct. The data types and structure between Pega and the robotic automation must align (for example, string-to-string, integer-to-integer, JSON format consistency).

Mismatched or unstructured data results in serialization errors when passing data through the RDA bridge.

E. Match the Pega automation identifier with the robot activity component name.

Correct. The Robotic Automation Name specified in the Pega data page or case configuration (e.g., FETCH_SCORE) must exactly match the ActivityName property defined in the Robot Studio’s Robot Activity component.

This linkage ensures that the correct automation is triggered when the case executes the RDA call.

Incorrect Options:

B. Design an automation to complete multiple tasks.

Not recommended. Pega advises building modular automations, where each automation performs a single defined task to simplify debugging and improve reuse.

C. Use an unlimited number of transferable data items.

Not recommended. The number of data items passed between Pega and Robotics should be limited to those necessary for the task, as excessive data transfers can degrade performance.

F. Run automations synchronously.

Not required. RDA automations typically run asynchronously, returning results through callback mechanisms to avoid blocking the user interface.

Therefore, the three recommended developer considerations are:

A. Set valid completion status

D. Ensure data formats agree between the automation and the Pega application

E. Match the Pega automation identifier with the robot activity component name

ï‚· Retrieves the assignment from the queue.

ï‚· Obtains the case data that is associated with the assignment.

ï‚· Performs the specified automation task.

ï‚· Sends the updated data, the assignment, and confirmation back to the case.

ï‚· Retrieves the next assignment from the queue.

Unattended automations (also known as Robotic Process Automation (RPA)) are designed to work without human intervention. These automations process assignments or cases that are queued by Pega Platform and retrieved by robots through the Pega Robot Manager service.

According to the Pega Robotics System Design and Implementation Guide, in the section “Unattended Automation Workflow and Queue Processing”, the following sequence defines how an unattended robot processes a work item:

“1. The robot retrieves an assignment from the work queue managed by Pega Robot Manager.

2. The robot then requests the case data associated with the assignment, which contains the necessary contextual information.

3. The robot performs the defined automation tasks within the target applications using the case data as input.

4. Upon completion, the robot updates the case, returns the assignment results, and confirms the completion to Pega Platform.

5. The robot then retrieves the next available assignment from the queue to continue processing.”

Detailed Step Reasoning:

Retrieves the assignment from the queue — The robot begins by pulling a new assignment from the Pega Platform work queue through the Robot Manager interface.

Obtains the case data that is associated with the assignment — After assignment retrieval, the robot obtains the case data (for example, customer details or transaction info) from the platform.

Performs the specified automation task — The robot executes the defined automation using the fetched data, interacting with the necessary enterprise applications.

Sends the updated data, the assignment, and confirmation back to the case — Once the task is complete, the robot posts the results and completion confirmation back to Pega Platform.

Retrieves the next assignment from the queue — The cycle repeats as the robot moves to the next queued case or assignment.

This structured loop ensures consistent, unattended case handling by robotic workers, maintaining synchronization between Pega Platform and the robotic runtime environment.

Final Correct Order:

Retrieves the assignment from the queue.

Obtains the case data that is associated with the assignment.

Performs the specified automation task.

Sends the updated data, the assignment, and confirmation back to the case.

Retrieves the next assignment from the queue.

Pega Robotics Studio – Automation Design Concepts (Entry/Exit Points & Parameters)

“An automation can expose multiple exit points (for example, Success and Failure) and can define output parameters that return values to the caller. When the automation completes, the appropriate exit point is raised and the output parameters are made available to the caller.”

Pega Robotics Studio – Calling Automations (Run and Parameter Mapping)

“When one automation calls another, the called automation appears as a component with input parameters, output parameters, and exit points. The caller wires the Success/Failure exits to the next steps and maps output parameters (for example, result, errCode) to downstream logic.”

Why Option C is correct:

The UpdateCustomerDetails block in Option C clearly shows two exit points — Success and Failure — and two output parameters — result and errCode — on the subautomation.

The wiring demonstrates a typical pattern:

On Success, the flow proceeds to a success path with result available.

On Failure, the flow proceeds to a failure path with errCode available (the extra, unused result pin on the failure jump is permissible but not required).

This matches the specification precisely: two exits (Success/Failure) and two outputs (result, errCode).

Why the other options are not correct:

Option A: Shows errCode but does not expose result clearly as an output to the success path.

Option B: The component does not display errCode as an output parameter of the subautomation.

Option D: Emphasizes an additional boolean/conditional output and maps result on the failure path, which does not reflect the stated definition of the subautomation outputs.

Document Sources (Exact Extracts Reference):

Pega Robotics Studio User Guide — Automation Design Concepts: Entry/Exit Points and Parameters.

Pega Robotics Studio User Guide — Calling Automations and Mapping Inputs/Outputs.

Pega Robotics System Certification Study Material — Subautomation design patterns (Success/Failure with output parameters).

To diagnose a failure occurring on a link from a control’s Properties call to a String service’s Equals(), you must place breakpoints on the event links immediately before the failing link so you can inspect the values being passed (for example, the account number) and confirm whether a null is being propagated.

Pega Robot Studio debugging guidance:

“Breakpoints can be set on event links to pause execution at specific steps in an automation. During a paused state, developers can inspect the values on connected data ports to determine whether null or unexpected values are being passed to the next step.”

“Place breakpoints upstream of the failing event to verify the value retrieved from a control (for example, via a Properties call) before it is sent into a service method (such as Equals).”

Option A shows a breakpoint on the event path feeding the Properties block and another just before the segment that calls Equals(). This allows you to stop exactly where the input to Equals(string2) would be evaluated and verify whether it is null.

Option C also places a breakpoint directly on the event link leading into the Properties/Equals segment, which is the correct spot to pause and inspect the data value before the comparison occurs.

Options B, D, and E place breakpoints either too early (not reaching the Properties/Equals path yet) or on unrelated branches, which won’t reliably expose the null value being passed into IStringService.Equals().

Comprehensive and Detailed Explanation From Pega Robotics System Exact Extract:

Automatic Step Creation is a Pega Robot Studio feature that allows developers to automatically generate automation steps based on actions performed in an interrogated application. It leverages X-ray Vision for supported applications to intelligently detect UI elements and generate corresponding steps without requiring manual drag-and-drop logic creation.

According to the Pega Robotics System Design and Implementation Guide, section “Using Automatic Step Creation and X-ray Vision”:

“Automatic Step Creation simplifies automation building by detecting user interactions in X-ray Vision–supported applications and automatically adding the equivalent automation steps to the design surface.

A blue gear icon indicates that automatic step creation is active and available.

Automatic step creation works with previously interrogated application controls.

The feature is automatically available for applications that X-ray Vision supports.

For applications not supported by X-ray Vision, developers must manually create steps using traditional interrogation.”

Detailed Reasoning:

B. Displays a blue Gear icon.

Correct. When automatic step creation is active, the blue gear icon indicates the feature is enabled and ready to record actions.

D. Available for previously interrogated application controls.

Correct. Automatic step creation can only generate steps for controls that have already been interrogated, ensuring proper mapping between actions and UI elements.

E. Automatically available for applications that X-ray Vision supports.

Correct. The feature activates automatically in X-ray Vision–supported applications, which include modern UI frameworks like HTML5 and WPF.

Incorrect Options:

A. Automatically used for applications that X-ray Vision does not support.

Incorrect. It only works for applications supported by X-ray Vision.

C. Usable at any time by clicking the Gear icon.

Incorrect. The gear icon appears only when automatic step creation is available, not universally across all projects.

Final Correct Answer: B, D, E

Comprehensive and Detailed Explanation From Pega Robotics System Exact Extract:

Unattended automations, also referred to as Robotic Process Automations (RPA), are automations that execute without human intervention. These automations operate on robotic work queues managed by Pega Robot Manager, performing background tasks automatically.

According to the Pega Robotics System Design and Implementation Guide, section “Unattended Automations (RPA) — Execution Model and Characteristics”:

“Unattended automations execute robotic tasks in a fully automated manner without user interaction.

They retrieve assignments from robotic work queues in Pega Robot Manager, perform the specified automation tasks, and return results and case updates to Pega Platform.

These automations help streamline business workflows by automating repetitive tasks in back-end processes.”

Detailed Reasoning:

A. They retrieve the next case assignment in a robotic work queue.

Correct. RPA bots work from the Robot Queue (Pega’s work queue) where cases are assigned for unattended processing.

B. They execute a fully automated task.

Correct. Unattended automations perform end-to-end automation without requiring human assistance.

C. They can streamline and automate portions of your case management workflow.

Correct. These automations integrate with Pega Platform cases, performing sub-tasks or full case resolutions automatically to improve efficiency.

D. They run during pre-processing to obtain information to display on a form.

Incorrect. That behavior describes attended automations (RDA) that assist end users in real time.

E. They complete the automated tasks based on user input.

Incorrect. Unattended automations operate without any user input; attended ones are triggered by user actions.

Comprehensive and Detailed Explanation From Pega Robotics System Exact Extract:

In Pega Robot Studio, each application adapter includes specific properties that define how the application is launched and managed.

According to the Pega Robotics System Design and Implementation Guide, in the section “Application Adapter Properties and Configuration”, the following explanation is given:

“The Path property specifies the executable file (.exe) that starts a Windows application.

The StartPage property specifies the initial URL or webpage that loads when a Web application adapter launches.

Both properties are launch parameters defining how Pega Robot Studio starts and attaches to the target application, but they apply to different adapter types.”

Detailed Reasoning:

The Path property is used by Windows adapters, because it defines the file system path of the application executable (for example, C:\Program Files\AppFolder\App.exe).

The StartPage property is used by Web adapters, because it defines the initial URL or webpage (for example, https://bankerinsight.pega.com/login.html) that the adapter opens when starting the browser instance.

Option Analysis:

A. Incorrect — The StartPage is for web apps, not Windows.

B. Incorrect — Both do not belong to both adapter types.

C. Correct — StartPage is a Web adapter property; Path is a Windows adapter property.

D. Incorrect — The StartPage is not for Windows apps, and Path is not for Text adapters.

Comprehensive and Detailed Explanation From Pega Robotics System Exact Extract:

In Pega, when a data page is configured with a Robotic Desktop Automation (RDA) as its source, the automation must complete execution and return its response within a predefined timeout period. The default timeout value for data pages calling robotic automations is 60 seconds.

According to the Pega Robotics System Design and Implementation Guide, section “Data Page Integration with Robotic Desktop Automations”:

“When a Pega data page calls a robotic automation as its data source, the automation must complete and return its data within the timeout threshold.

If the automation’s execution time exceeds the timeout period (default 60 seconds), the data page fails to receive the response, resulting in an empty or incomplete data return to Pega Platform.”

Detailed Reasoning:

If the automation executes successfully but takes longer than the defined timeout, the Pega Platform assumes the call failed and releases the data page before the response arrives.

This causes the data page not to be populated, even though the Robot Studio logs show successful automation completion.

Increasing the timeout value or optimizing automation performance typically resolves this issue.

Option Analysis:

A. The automation runs longer than the default data page timeout of 60 seconds.

Correct. Exceeding the timeout prevents the data page from capturing the automation’s response.

B. The robot activity ClassName property value is incorrect.

Incorrect. This would prevent the automation from running entirely, not delay the response.

C. The automation runs faster than the data page can perform a data transform.

Incorrect. Pega manages data transforms synchronously after data retrieval, so this is not applicable.

D. The automation does not return the proper SetCompletionStatus.

Incorrect. If completion status were missing, the automation would fail altogether, not time out.

Therefore, the issue occurs because the automation execution exceeds the default 60-second data page timeout.

Comprehensive and Detailed Explanation From Pega Robotics System Exact Extract:

In Pega Robot Studio, the Credential Manager is designed to securely store user credentials (such as usernames and passwords) in an encrypted form within the user’s local profile. When properly configured, Pega Robotics can automatically log in to target applications without creating a separate automation.

From the Pega Robotics System Design and Implementation Guide (Application Configuration and Credential Management section):

“When an application requires credential-based authentication, developers can configure the application’s login controls during interrogation and assign the appropriate credential properties (Username and Password).

Once defined, credentials are stored securely in the user’s local profile and automatically retrieved and decrypted during runtime to perform the login without explicit automation logic.”

Detailed Reasoning:

During interrogation, the login controls (such as username and password fields) are identified and linked to the credential properties of the application object.

Pega Robotics automatically handles the retrieval and secure decryption of credentials stored in the local user profile at runtime.

This eliminates the need for any manual automation steps or scripts for logging in.

Option Analysis:

A. Incorrect — Robot activities are server-executed tasks, not used for local application authentication.

B. Incorrect — Credentials must be configured after interrogating target controls to map them correctly.

C. Correct — Interrogating the login fields and setting the application credential properties allows Pega Robotics to securely manage and automate login automatically.

D. Incorrect — Creating a script defeats the purpose of using the built-in credential manager.

Thus, Option C is the correct method for configuring automatic login using encrypted credentials.

Comprehensive and Detailed Explanation From Pega Robotics System Exact Extract:

When debugging automations in Pega Robot Studio, breakpoints are used to pause execution at specific points in an automation to inspect data and control flow. Before deploying or packaging a robotic solution, it is recommended to remove or clear all breakpoints to ensure that the production build executes uninterrupted.

According to the Pega Robotics System Design and Implementation Guide, section “Debugging Automations and Managing Breakpoints”:

“Breakpoints can be added, enabled, disabled, or deleted directly from the automation design surface or from the Debugging Tools window.

To remove breakpoints, developers can:

Right-click a breakpoint in the automation and select Remove Breakpoint.

Clear all breakpoints globally from the Breakpoints tab within the Debugging Tools window.

Breakpoints are maintained per automation and persist between sessions until manually removed or cleared.”

Detailed Reasoning:

A. Clear all automation breakpoints in the Breakpoints tab of the Debugging tools window.

Correct. This is the global method to remove all existing breakpoints across multiple automations at once.

The Breakpoints tab under Debug → Windows → Breakpoints lists every active breakpoint and includes the Clear All option to delete them.

B. Right-click a breakpoint in an automation, and then select Remove Breakpoint.

Correct. This is the direct method for deleting an individual breakpoint from within a specific automation.

C. Use the hot keys to remove each automation link that includes a breakpoint.

Incorrect. There is no hot key dedicated to breakpoint removal in Pega Robot Studio.

D. Right-click an automation on the automation surface, and then select Delete all breakpoints.

Incorrect. There is no such option available at the automation (background surface) level. Breakpoints are only removable individually or through the Breakpoints tab.

E. Click a breakpoint in an automation, and then press the Delete key.

Incorrect. The Delete key removes automation components, not debugging breakpoints.

Final Correct Answers:

A. Clear all automation breakpoints in the Breakpoints tab of the Debugging tools window.

B. Right-click a breakpoint in an automation, and then select Remove Breakpoint.

Comprehensive and Detailed Explanation From Pega Robotics System Exact Extract:

The Label/Jump To functionality in Pega Robot Studio is used to improve automation organization and logical control flow.

Labels act as named anchor points within a single automation, and Jump To links can redirect the execution flow to these labeled points.

According to the Pega Robotics System Design and Implementation Guide, section “Using Labels and Jump To Blocks in Automations”:

“The Label/Jump To functionality enables structured flow management within a single automation.

Labels define points in the automation to which the execution flow can jump.

Jump To blocks redirect execution to a corresponding label, allowing developers to organize complex automations into manageable sections.

This feature is particularly useful for debugging, error handling, and implementing multiple exit paths within a single automation.”

Detailed Reasoning:

A. It allows you to pass variables to different parts or workflows of the same automation.

Incorrect. The Label/Jump To mechanism changes the flow of execution; it does not pass or transfer variable data between workflows.

B. It allows you to keep automations organized and aids in debugging.

Correct. Labels and Jump To blocks make complex automations more readable and structured by dividing logic into sections. This improves debugging and maintenance.

C. It allows you to pass variables to different automations of the same project.

Incorrect. Variables between automations are passed using parameters (inputs/outputs), not Label/Jump To blocks.

D. It allows you to have multiple Exit points in an automation.

Correct. By strategically placing labels and jumps, you can create multiple exit conditions or termination points within a single automation, improving control flow.

E. It allows you to connect with other automations in the project.

Incorrect. Connections to other automations are made through automation calls, not Label/Jump To links.

Final Correct Answer: B, D

Comprehensive and Detailed Explanation From Pega Robotics System Exact Extract:

According to the Pega Robotic Automation Asset Management and Studio Guide:

“Robotic automation assets are reusable components—such as automations, global scripts, adapters, and configuration items—that are shared across multiple robotic projects. Assets enable organizations to maintain consistency and streamline project development.”

The documentation elaborates:

• “Assets streamline the development process across the enterprise by reducing duplication of work.”

• “Shared automation assets ensure consistency of development, coding standards, and project structure across teams and projects.”

• “Assets are version-controlled and centrally stored in the Pega Robot Manager or Deployment Portal for reuse.”

It also clarifies that assets are not customizable after download because they are version-controlled and used as read-only components, ensuring enterprise-wide standardization.

Therefore:

Option A — True (Assets streamline enterprise development).

Option C — True (Assets ensure consistency across projects).

Option B — Incorrect (Assets are not designed for post-download modification).

Option D — Incorrect (Assets reduce development time, not increase it).

References (Exact Extract Source):

Pega Robotics Studio User Guide – Robotic Automation Assets and Asset Management

Pega Academy – Robotics System Architect Certification Course (Asset Sharing and Reusability)

Pega Robot Manager – Asset Lifecycle and Governance Overview

Final Verified Answer: A, C

Comprehensive and Detailed Explanation From Pega Robotics System Exact Extract:

The Lookup Table is a global component in Pega Robot Studio that can be accessed from multiple automations within a project.

To use its methods—such as ImportDelimitedFile, FindRecord, or AddRecord—you must drag the lookup table instance from the Globals section to the automation surface.

According to the Pega Robotics System Design and Implementation Guide, section “Using Lookup Tables in Automations”:

“Lookup tables are global components that store data used across automations.

To call lookup table methods, drag the table from the Globals section of the Palette to the automation design surface.

The Select Action dialog box will open, allowing you to filter and select from available methods such as ImportDelimitedFile, FindRecord, and ClearTable.”

Detailed Reasoning:

A. Select the ImportDelimitedFile method in a design form... – Incorrect. The lookup table is not part of the UI form.

B. Drag the lookup table from the Locals section... – Incorrect. Lookup tables exist under Globals, not Locals.

C. Open the Globals tab and filter... – Incorrect. You must drag the component onto the automation surface to expose its methods.

D. Drag the lookup table from the Globals section... – Correct. This exposes the ImportDelimitedFile method through the Select Action dialog.

Comprehensive and Detailed Explanation From Pega Robotics System Exact Extract:

In Pega Robot Studio, when interrogating Java applications, sometimes a child process is created separately from the main application process. In such cases, controls in the child process cannot be detected unless the adapter is configured to attach to child processes as well.

According to the Pega Robotics System Design and Implementation Guide, in the section “Java Application Integration and Child Processes”:

“For Java applications that spawn additional processes, set the HookChildProcesses property of the adapter to True.

This enables the adapter to attach to both the main process and any child processes created by the parent application, allowing interrogation and automation of controls within those secondary windows.”

Detailed Reasoning:

HookChildProcesses ensures that when a Java application spawns a new process (such as a popup or a grid), Pega Robotics attaches to and monitors that process.

Without enabling this property, the adapter would only recognize the primary Java process, leaving controls in secondary processes unrecognized.

Option Analysis:

A. HookChildProcesses: Correct. Allows interrogation of child processes.

B. EnableMatchInProcess: Incorrect. Used for controlling object matching within the same process context.

C. TargetPath: Incorrect. Defines executable location for adapters.

D. IgnoreMainBrowser: Incorrect. Related to web adapters, not Java applications.