Free UiPath UiPath-ADPv1 Practice Exam with Questions & Answers | Set: 5

The graphics show a UiPath workflow that contains a Try Catch activity with a Type Into activity inside the Try block and a Log Message activity inside the Catch block. The Type Into activity isconfigured to type “Typing into Notepad” into a Notepad window with the selector “ < wnd app=‘notepad.exe’ cls=‘Notepad’ title=‘Untitled - Notepad’ / > ”. The Log Message activity is configured to log the exception message in the Output panel.

If the automation is executed and Notepad.exe is not running, the Type Into activity will fail to find the target UI element and throw an exception. The exception will be caught by the Catch block and the Log Message activity will log the exception message in the Output panel. The exception message will contain the name of the exception type, which is ApplicationNotFoundException. This exception is thrown when the application that is specified in the selector is not found or not running. Therefore, the Log Message text value that is contained in the Output panel is ApplicationNotFoundException.

The other options are not correct, as they are not the exception type that is thrown by the Type Into activity when the application is not running. Option A is incorrect, because Exception is a generic term for any error or problem that occurs during the execution of a program, not a specific exception type. Option C is incorrect, because Try is not an exception type, but a keyword that marks the beginning of a block of code that may throw an exception. Option D is incorrect, because SelectorNotFoundException is not an exception type, but a possible error message that is displayed when the selector is invalid or does not match any UI element.

A background process is a type of automation that can run in parallel with one foreground process on the same robot, without requiring user interaction. A foreground process is a type of automation that requires user interaction and runs on the visible desktop. A background process can transition to foreground by using the Use Foreground activity, which moves the current background process into the foreground, executing all the activities it contains. After the execution is complete, the process is moved back into the background.

The other options are not activities that can be used to transition a background process to foreground. Option B, Activate, is an activity that activates a specified UI element by bringing it to the foreground. Option C, Maximize Window, is an activity that maximizes a specified window. Option D, Set Focus, is an activity that sets the keyboard focus to a specified UI element.

The transaction will be retried only one time because the MaxRetryNumber from the “Config.xlsx” file is set to “1”. This parameter determines how many times a transaction item is retried when it fails with an application or a business exception. The Max # of retries from the Queue settings from Orchestrator is set to “2”, but this parameter only applies to the queue items that are marked as “Retry” by the robot. In the Robotic Enterprise Framework, the SetTransactionStatus workflow marks the queue items as “Retry” only if the MaxRetryNumber is not reached. Therefore, the first transaction item will be retried once by the robot and then marked as “Failed” in the queue, regardless of the Orchestrator setting. 

LINQ (Language-Integrated Query) is a feature of .NET that allows you to write queries to manipulate data from various sources, such as arrays, collections, databases, XML, etc. LINQ can be used in UiPath Studio to perform complex data operations on variables of different types, such as DataTable, List, Array, etc. LINQ has two syntax forms: query syntax and method syntax. Both forms can achieve the same results, but they have different styles and preferences.

Option B is the correct answer because it demonstrates using LINQ method syntax to filter DataTable rows based on a specific condition. The expression dataTable.AsEnumerable().Where(Function(row) row(“ColumnName”).ToString.Contains(“Value”)).CopyToDataTable() does the following:

It converts the DataTable variable dataTable to an IEnumerable(Of DataRow) object using the AsEnumerable extension method1. This allows the use of LINQ methods on the DataTable.

It filters the rows of the DataTable based on a lambda expression using the Where extension method2. The lambda expression Function(row) row(“ColumnName”).ToString.Contains(“Value”) returns true for the rows that have the value “Value” in the column named “ColumnName”.

It converts the filtered IEnumerable(Of DataRow) object back to a DataTable using the CopyToDataTable extension method3. This returns a new DataTable that contains only the rows that match the condition.

The other options are incorrect because:

Option A is incorrect because it uses an invalid LINQ method Concatenate. The correct method to concatenate two strings in a list is Concat4, which takes two IEnumerable(Of T) objects as arguments and returns a new IEnumerable(Of T) that contains the elements from both sources. For example, listOfStrings.Concat(new List(Of String) {“String_1”, “String_2”}).ToList().

Option C is incorrect because it uses an invalid LINQ method ToJSON. There is no such method in the LINQ library that can convert a list of integers to a JSON format. To achieve this, you need to use a JSON serializer, such as Newtonsoft.Json5, which provides methods to convert .NET objects to JSON and vice versa. For example, JsonConvert.SerializeObject(listOfIntegers).

Option D is incorrect because it uses an invalid LINQ method Split. There is no such method in the LINQ library that can split a DataTable into multiple smaller DataTables based on a specific condition. To achieve this, you need to use a group by clause in LINQ query syntax or a GroupBy extension method in LINQ method syntax6, which groups the rows of a DataTable by a key value and returns an IEnumerable(Of IGrouping(Of TKey, TElement)) object. Then, you can use a Select extension method to project each group into a new DataTable using the CopyToDataTable extension method. For example, dataTable.AsEnumerable().GroupBy(Function(row) row(“ColumnName”)).Select(Function(group) group.CopyToDataTable()).ToList().

The behavior of the Type Into activity when executing the workflow is that the activity will remove a Single Line in Run mode and Multi Line in Debug mode. This is because the activity has the Empty field property set to NEmptyFieldMode.SingleLine, which means that the activity will delete the existing content in the field by sending Ctrl+A and Delete keystrokes before typing the text. However, the activity also has the Debug mode property set to NEmptyFieldMode.MultiLine, which means that the activity will delete the existing content in the field by sending Ctrl+A, Shift+Home, and Delete keystrokes before typing the text. The Debug mode property overrides the Empty field property when the workflow is executed in Debug mode. Therefore, the activity will use different keystrokes to empty the field depending on the mode of execution. References: [Type Into], [Empty Field] , [Debug Mode]

In the Object Repository in UiPath, there are two types of elements: Local elements and library elements. Local elements are specific to a project, while library elements can be reused across multiple projects.

The Check App State activity is specifically designed for UI synchronization. It checks the state of a UI element, ensuring that subsequent actions are performed when the UI element is in the desired state.

The Type Into activity is used to send keystrokes to a UI element, such as a text box1. The activity has several properties that can be adjusted to achieve different behaviors and results1. One of these properties is the Activate property, which determines whether the specified UI element is brought to the foreground and activated before the text is written1. By default, this property is not selected, which means that the activity will type into the current active window1. However, if the property is selected, the activity will first make sure that the target UI element is visible and focused, and then type the text1. Therefore, if the automation process requires each field to be brought to the foreground, the Activate property of the Type Into activity should be adjusted to achieve this

The Verify Expression with Operator activity is used to verify an expression by asserting it in relation to a given expression with an operator1. The expressions tested with this activity must be inserted in their respective property fields. In this case, the activity is configured to verify if the expression “1” is equal to the expression “2”. The result of this verification is stored in the Result property, which reflects the state of the verification activity1. If the verification fails, the activity throws a TestingActivitiesException, which is a custom exception type defined by the UiPath.Testing.Activities package2.

The Try-Catch activity is used to catch a specified exception type in a sequence or activity, and either displays an error notification or dismisses it and continues the execution3. The activity has three main sections: Try, Catches, and Finally. The Try section holds the activity or set of activities that could throw an exception. The Catches section indicates the exception type and holds the activity or set of activities to be performed when the specified exception is thrown. The Finally section holds the activity or set of activities to be performed after the Try and Catches blocks are executed, regardless of the result3.

In this scenario, the Verify Expression with Operator activity is placed in the Try section of the Try-Catch activity. The Catches section has two exceptions caught: System.Exception and TestingActivitiesException. The Finally section is empty. During the execution of the sequence, the Verify Expression with Operator activity will throw a TestingActivitiesException, because the expressions 1 and 2 are not equal. The Try-Catch activity will catch this exception and enter the TestingActivitiesException sequence from the Catches section, where the appropriate actions can be performed to handle the error. Therefore, the correct answer is C. The Exception sequence from the Catches block within the Try-Catch activity will be entered first, after the Verify Expression with Operator activity is executed.

The other options are incorrect because:

Option A is incorrect because the Try-Catch activity will execute one of the blocks within the Catches section, depending on the type of exception thrown by the Verify Expression with Operator activity. In this case, the TestingActivitiesException sequence will be executed.

Option B is incorrect because the Finally block within the Try-Catch activity will be executed only after the Try and Catches blocks are executed, not before. The Finally block is used to perform any cleanup or final actions that are needed regardless of the outcome of the Try and Catches blocks3.

Option D is incorrect because the TestingActivitiesException sequence from the Catches block within the Try-Catch activity will be entered second, not first, after the Verify Expression with Operator activity is executed. The first block to be entered is the Try block, where the Verify Expression with Operator activity is placed.