XDR-Analyst Sample Questions Answers

The engine that determines the most relevant artifacts in each alert and aggregates all alerts related to an event into an incident is the Causality Analysis Engine. The Causality Analysis Engine is one of the core components of Cortex XDR that performs advanced analytics on the data collected from various sources, such as endpoints, networks, and clouds. The Causality Analysis Engine uses machine learning and behavioral analysis to identify the root cause, the attack chain, and the impact of each alert. It also groups related alerts into incidents based on the temporal and logical relationships among the alerts. The Causality Analysis Engine helps to reduce the noise and complexity of alerts and incidents, and provides a clear and concise view of the attack story12.

Let’s briefly discuss the other options to provide a comprehensive explanation:

A. Sensor Engine: This is not the correct answer. The Sensor Engine is not responsible for determining the most relevant artifacts in each alert and aggregating all alerts related to an event into an incident. The Sensor Engine is the component that runs on the Cortex XDR agents installed on the endpoints. The Sensor Engine collects and analyzes endpoint data, such as processes, files, registry keys, network connections, and user activities. The Sensor Engine also enforces the endpoint security policies and performs prevention and response actions3.

C. Log Stitching Engine: This is not the correct answer. The Log Stitching Engine is not responsible for determining the most relevant artifacts in each alert and aggregating all alerts related to an event into an incident. The Log Stitching Engine is the component that runs on the Cortex Data Lake, which is the cloud-based data storage and processing platform for Cortex XDR. The Log Stitching Engine normalizes and stitches together the data from different sources, such as firewalls, proxies, endpoints, and clouds. The Log Stitching Engine enables Cortex XDR to correlate and analyze data from multiple sources and provide a unified view of the network activity and threat landscape4.

D. Causality Chain Engine: This is not the correct answer. Causality Chain Engine is not a valid name for any of the Cortex XDR engines. There is no such engine in Cortex XDR that performs the function of determining the most relevant artifacts in each alert and aggregating all alerts related to an event into an incident.

In conclusion, the Causality Analysis Engine is the engine that determines the most relevant artifacts in each alert and aggregates all alerts related to an event into an incident. By using the Causality Analysis Engine, Cortex XDR can provide a comprehensive and accurate detection and response capability for security analysts.

 The output shows the top 10 hosts with the most malware in the last 30 days, based on the Cortex XDR data. The output is sorted by the number of incidents, with the host with the most incidents at the top. The output also shows the number of alerts, the number of endpoints, and the percentage of endpoints for each host. The output is generated by using the ACC (Application Command Center) feature of Cortex XDR, which provides a graphical representation of the network activity and threat landscape. The ACC allows you to view and analyze various widgets, such as the Top 10 hosts with the most malware, the Top 10 applications by bandwidth, the Top 10 threats by count, and more .

 A logical schema in an XQL query is a field, which is a named attribute of a dataset. A field can have a data type, such as string, integer, boolean, or array. A field can also have a modifier, such as bin or expand, that transforms the field value in the query output. A field can be used in the select, where, group by, order by, or having clauses of an XQL query. References:

XQL Syntax

XQL Data Types

XQL Field Modifiers

Live Terminal uses the WebSocket protocol to communicate with the agent on the endpoint. WebSocket is a full-duplex communication protocol that enables bidirectional data exchange between a client and a server over a single TCP connection. WebSocket is designed to be implemented in web browsers and web servers, but it can be used by any client or server application. WebSocket provides a persistent connection between the Cortex XDR console and the endpoint, allowing you to execute commands and receive responses in real time. Live Terminal uses port 443 for WebSocket communication, which is the same port used for HTTPS traffic. References:

Initiate a Live Terminal Session

WebSocket

The Host Insights module provides the best visibility to view vulnerabilities on your endpoints. The Host Insights module is an add-on feature for Cortex XDR that combines vulnerability management, application and system visibility, and a Search and Destroy feature to help you identify and contain threats. The vulnerability management feature allows you to scan your Windows endpoints for known vulnerabilities and missing patches, and view the results in the Cortex XDR console. You can also filter and sort the vulnerabilities by severity, CVSS score, CVE ID, or patch availability. The Host Insights module helps you reduce your exposure to threats and improve your security posture. References:

Host Insights

Vulnerability Management

The user can use the Malware Protection profile to configure malware protection in the Cortex XDR console. The Malware Protection profile defines the actions that Cortex XDR takes when it detects malware on your endpoints. You can configure different actions for different types of malware, such as ransomware, password theft, or child process. You can also configure the scan frequency and scope for periodic malware scans. The Malware Protection profile is part of the Endpoint Security policy that you assign to your endpoints. References:

Malware Protection Profile

Endpoint Security Policy

 To view the WildFire report in an incident, you need to go to the incident details page and look for the relevant key artifacts that are related to the WildFire analysis. A key artifact is a piece of evidence that is associated with an alert or an incident, such as a file hash, a registry key, an IP address, a domain name, or a full path. If a key artifact is related to a WildFire analysis, you will see a WildFire icon next to it, indicating that there is a WildFire report available for that artifact. You can click on the WildFire icon to view the report, which will show you the detailed information about the artifact, such as the verdict, the behavior, the severity, the signatures, and the screenshots12.

Let’s briefly discuss the other options to provide a comprehensive explanation:

B. under Response --> Action Center: This is not the correct answer. The Action Center is a feature that allows you to create and manage actions that you can perform on your endpoints, such as isolating, scanning, collecting files, or executing scripts. The Action Center does not show you the WildFire reports for the incidents, but it can help you to remediate the incidents by applying the appropriate actions3.

C. under the gear icon --> Agent Audit Logs: This is not the correct answer. The Agent Audit Logs are logs that show you the activities and events that occurred on the Cortex XDR agents, such as installation, upgrade, connection, policy update, or prevention. The Agent Audit Logs do not show you the WildFire reports for the incidents, but they can help you to troubleshoot the agent issues or verify the agent status4.

D. on the HUB page at apps.paloaltonetworks.com: This is not the correct answer. The HUB page is a web portal that allows you to access and manage your Palo Alto Networks applications, such as Cortex XDR, Cortex XSOAR, Prisma Cloud, or AutoFocus. The HUB page does not show you the WildFire reports for the incidents, but it can help you to navigate to the different applications or view the notifications and alerts5.

In conclusion, to view the WildFire report in an incident, you need to go to the incident details page and look for the relevant key artifacts that are related to the WildFire analysis. By viewing the WildFire report, you can gain more insights and context about the incident and the artifact.

The correct statement regarding the Cortex XDR Analytics module is D, it interferes with the pattern as soon as it is observed on the endpoint. The Cortex XDR Analytics module is a feature of Cortex XDR that uses machine learning and behavioral analytics to detect and prevent network-based attacks on endpoints. The Cortex XDR Analytics module analyzes the network traffic and activity on the endpoint, and compares it with the attack patterns defined by Palo Alto Networks threat research team. The Cortex XDR Analytics module interferes with the attack pattern as soon as it is observed on the endpoint, by blocking the malicious network connection, process, or file. This way, the Cortex XDR Analytics module can stop the attack before it causes any damage or compromise.

The other statements are incorrect for the following reasons:

A is incorrect because the Cortex XDR Analytics module does interfere with the attack pattern on the endpoint, by blocking the malicious network connection, process, or file. The Cortex XDR Analytics module does not rely on the firewall or any other network device to stop the attack, but rather uses the Cortex XDR agent installed on the endpoint to perform the interference.

B is incorrect because the Cortex XDR Analytics module does not interfere with the attack pattern as soon as it is observed by the firewall. The Cortex XDR Analytics module does not depend on the firewall or any other network device to detect or prevent the attack, but rather uses the Cortex XDR agent installed on the endpoint to perform the analysis and interference. The firewall may not be able to observe or block the attack pattern if it is encrypted, obfuscated, or bypassed by the attacker.

C is incorrect because the Cortex XDR Analytics module does need to interfere with the attack pattern to prevent the attack. The Cortex XDR Analytics module does not only detect the attack pattern, but also prevents it from succeeding by blocking the malicious network connection, process, or file. The Cortex XDR Analytics module does not rely on any other response mechanism or human intervention to stop the attack, but rather uses the Cortex XDR agent installed on the endpoint to perform the interference.

The Incident Management Dashboard provides a high-level overview of the incident response process, including the Mean Time to Resolution (MTTR) metric. This metric measures the average time it takes to resolve an incident from the moment it is created to the moment it is closed. The dashboard also shows the number of incidents by status, severity, and assigned analyst, as well as the top alerts by category, source, and destination. The Incident Management Dashboard is designed for executives and managers who want to monitor the performance and efficiency of their security teams. References: [PCDRA Study Guide], page 18.

The correct relation of alerts to incidents is that alerts with same causality chains that occur within a given time frame are grouped together into an incident. A causality chain is a sequence of events that are related to the same malicious activity, such as a malware infection, a lateral movement, or a data exfiltration. Cortex XDR uses a set of rules that take into account different attributes of the alerts, such as the alert source, type, and time period, to determine if they belong to the same causality chain. By grouping related alerts into incidents, Cortex XDR reduces the number of individual events to review and provides a complete picture of the attack with rich investigative details1.

Option A is incorrect, because alerts with the same host are not necessarily grouped together into one incident in a given time frame. Alerts with the same host may belong to different causality chains, or may be unrelated to any malicious activity. For example, if a host has a malware infection and a network anomaly, these alerts may not be grouped into the same incident, unless they are part of the same attack.

Option B is incorrect, because alerts that occur within a three hour time frame are not always grouped together into one incident. The time frame is not the only criterion for grouping alerts into incidents. Alerts that occur within a three hour time frame may belong to different causality chains, or may be unrelated to any malicious activity. For example, if a host has a file download and a registry modification within a three hour time frame, these alerts may not be grouped into the same incident, unless they are part of the same attack.

Option D is incorrect, because every alert does not create a new incident. Creating a new incident for every alert would result in alert fatigue and inefficient investigations. Cortex XDR aims to reduce the number of incidents by grouping related alerts into one incident, based on their causality chains and other attributes.

Cortex XDR Analytics is a feature of Cortex XDR that leverages machine learning and behavioral analytics to detect and alert on malicious activity across the network and endpoint layers. Cortex XDR Analytics can alert when detecting activity matching the following MITRE ATT&CKTM techniques: Exfiltration, Command and Control, Lateral Movement, Execution, Persistence, Privilege Escalation, Defense Evasion, Credential Access, Discovery, and Collection. However, among the options given in the question, the correct answer is D, Exfiltration, Command and Control, Lateral Movement. These are three of the most critical techniques that indicate an advanced and persistent threat (APT) in the environment. Exfiltration refers to the technique of transferring data or information from the compromised system or network to an external location controlled by the adversary. Command and Control refers to the technique of communicating with the compromised system or network to provide instructions, receive data, or update malware. Lateral Movement refers to the technique of moving from one system or network to another within the same environment, usually to gain access to more resources or data. Cortex XDR Analytics can alert on these techniques by analyzing various data sources, such as network traffic, firewall logs, endpoint events, and threat intelligence, and applying behavioral models, anomaly detection, and correlation rules. Cortex XDR Analytics can also map the alerts to the corresponding MITRE ATT&CKTM techniques and provide additional context and visibility into the attack chain1234

 To ingest external logs from various vendors, you need a Cortex XDR Pro per TB license. This license allows you to collect and analyze logs from Palo Alto Networks and third-party sources, such as firewalls, proxies, endpoints, cloud services, and more. You can use the Log Forwarding app to forward logs from the Logging Service to an external syslog receiver. The Cortex XDR Pro per Endpoint license only supports logs from Cortex XDR agents installed on endpoints. The Cortex XDR Vendor Agnostic Pro and Cortex XDR Cloud per Host licenses do not exist. References:

Features by Cortex XDR License Type

Log Forwarding App for Cortex XDR Analytics

SaaS Log Collection

 Palo Alto Networks provides a set of precanned scripts that you can use to perform various actions on your endpoints, such as deleting files, killing processes, or quarantining malware. The precanned scripts are written in Python and are available in the Agent Script Library in the Cortex XDR console. You can use the precanned scripts as they are, or you can customize them to suit your needs. The precanned scripts are:

delete_file: Deletes a specific file from a local or removable drive.

quarantine_file: Moves a specific file from its location on a local or removable drive to a protected folder and prevents it from being executed.

process_kill_name: Kills a process by its name on the endpoint.

process_kill_pid: Kills a process by its process ID (PID) on the endpoint.

process_kill_tree: Kills a process and all its child processes by its name on the endpoint.

process_kill_tree_pid: Kills a process and all its child processes by its PID on the endpoint.

process_list: Lists all the processes running on the endpoint, along with their names, PIDs, and command lines.

process_list_tree: Lists all the processes running on the endpoint, along with their names, PIDs, command lines, and parent processes.

process_start: Starts a process on the endpoint by its name or path.

registry_delete_key: Deletes a registry key and all its subkeys and values from the Windows registry.

registry_delete_value: Deletes a registry value from the Windows registry.

registry_list_key: Lists all the subkeys and values under a registry key in the Windows registry.

registry_list_value: Lists the value and data of a registry value in the Windows registry.

registry_set_value: Sets the value and data of a registry value in the Windows registry.

The script list_directories is not a precanned script provided by Palo Alto Networks. It is a custom script that you can write yourself using Python commands.

 The ultimate goal of any exploit is to reach the kernel, which is the core component of the operating system that has the highest level of privileges and access to the hardware resources. Application exploits are attacks that target vulnerabilities in specific applications, such as web browsers, email clients, or office suites. Kernel exploits are attacks that target vulnerabilities in the kernel itself, such as memory corruption, privilege escalation, or code execution. Kernel exploits are more difficult to prevent and detect than application exploits, because they can bypass security mechanisms and hide their presence from the user and the system. References:

Palo Alto Networks Certified Detection and Remediation Analyst (PCDRA) Study Guide, page 8

Palo Alto Networks Cortex XDR Documentation, Exploit Protection Overview

A supply chain attack is a type of cyberattack that targets a trusted third-party vendor who offers services or software vital to the supply chain. Software supply chain attacks inject malicious code into an application in order to infect all users of an app. The purpose of targeting software vendors in a supply-chain attack is to take advantage of a trusted software delivery method, such as an update or a download, that can reach a large number of potential victims. By compromising a software vendor, an attacker can bypass the security measures of the downstream organizations and gain access to their systems, data, or networks. References:

What Is a Supply Chain Attack? - Definition, Examples & More | Proofpoint US

What Is a Supply Chain Attack? - CrowdStrike

What Is a Supply Chain Attack? | Zscaler

What Is a Supply Chain Attack? Definition, Examples & Prevention

 Live terminal session is a feature of Cortex XDR that allows you to remotely access and control endpoints from the Cortex XDR console. With live terminal session, you can execute various actions on the endpoints, such as:

Manage Processes: You can view, start, or kill processes on the endpoint, and monitor their CPU and memory usage.

Manage Files: You can view, create, delete, or move files and folders on the endpoint, and upload or download files to or from the endpoint.

Run Operating System Commands: You can run commands on the endpoint using the native command-line interface of the operating system, such as cmd.exe for Windows, bash for Linux, or zsh for macOS.

Run Python Commands and Scripts: You can run Python commands and scripts on the endpoint using the Python interpreter embedded in the Cortex XDR agent. You can use the Python commands and scripts to perform advanced tasks or automation on the endpoint.

An example of an attack vector for ransomware is phishing emails containing malicious attachments. Phishing is a technique that involves sending fraudulent emails that appear to come from a legitimate source, such as a bank, a company, or a government agency. The emails typically contain a malicious attachment, such as a PDF document, a ZIP archive, or a Microsoft Office document, that contains ransomware or a ransomware downloader. When the recipient opens or downloads the attachment, the ransomware is executed and encrypts the files or data on the victim’s system. The attacker then demands a ransom for the decryption key, usually in cryptocurrency.

Phishing emails are one of the most common and effective ways of delivering ransomware, as they can bypass security measures such as firewalls, antivirus software, or URL filtering. Phishing emails can also exploit the human factor, as they can trick the recipient into opening the attachment by using social engineering techniques, such as impersonating a trusted sender, creating a sense of urgency, or appealing to curiosity or greed. Phishing emails can also target specific individuals or organizations, such as executives, employees, or customers, in a technique called spear phishing, which increases the chances of success.

According to various sources, phishing emails are the main vector of ransomware attacks, accounting for more than 90% of all ransomware infections12. Some of the most notorious ransomware campaigns, such as CryptoLocker, Locky, and WannaCry, have used phishing emails as their primary delivery method3 . Therefore, it is essential to educate users on how to recognize and avoid phishing emails, as well as to implement security solutions that can detect and block malicious attachments. References:

Top 7 Ransomware Attack Vectors & How to Avoid Becoming a Victim - Bitsight

What Is the Main Vector of Ransomware Attacks? A Definitive Guide

CryptoLocker Ransomware Information Guide and FAQ

[Locky Ransomware Information, Help Guide, and FAQ]

[WannaCry ransomware attack]

 To prevent the Cortex XDR Agent from blocking execution of a file based on the digital signer in Windows and macOS, one way to add an exception for the signer is to add the signer to the allow list in the malware profile. A malware profile is a profile that defines the settings and actions for malware prevention and detection on the endpoints. A malware profile allows you to specify a list of files, folders, or signers that you want to exclude from malware scanning and blocking. By adding the signer to the allow list in the malware profile, you can prevent the Cortex XDR Agent from blocking any file that is signed by that signer1.

Let’s briefly discuss the other options to provide a comprehensive explanation:

A. In the Restrictions Profile, add the file name and path to the Executable Files allow list: This is not the correct answer. Adding the file name and path to the Executable Files allow list in the Restrictions Profile will not prevent the Cortex XDR Agent from blocking execution of a file based on the digital signer. A Restrictions Profile is a profile that defines the settings and actions for restricting the execution of files or processes on the endpoints. A Restrictions Profile allows you to specify a list of executable files that you want to allow or block based on the file name and path. However, this method does not take into account the digital signer of the file, and it may not be effective if the file name or path changes2.

B. Create a new rule exception and use the signer as the characteristic: This is not the correct answer. Creating a new rule exception and using the signer as the characteristic will not prevent the Cortex XDR Agent from blocking execution of a file based on the digital signer. A rule exception is an exception that you can create to modify the behavior of a specific prevention rule or BIOC rule. A rule exception allows you to specify the characteristics and the actions that you want to apply to the exception, such as file hash, process name, IP address, or domain name. However, this method does not support using the signer as a characteristic, and it may not be applicable to all prevention rules or BIOC rules3.

D. Add the signer to the allow list under the action center page: This is not the correct answer. Adding the signer to the allow list under the action center page will not prevent the Cortex XDR Agent from blocking execution of a file based on the digital signer. The action center page is a page that allows you to create and manage actions that you can perform on your endpoints, such as isolating, scanning, collecting files, or executing scripts. The action center page does not have an option to add a signer to the allow list, and it is not related to the malware prevention or detection functionality4.

In conclusion, to prevent the Cortex XDR Agent from blocking execution of a file based on the digital signer in Windows and macOS, one way to add an exception for the signer is to add the signer to the allow list in the malware profile. By using this method, you can exclude the files that are signed by the trusted signer from the malware scanning and blocking.

To filter the display to only show incidents that were “starred”, you need to click the star in the widget. This will apply a filter that shows only the incidents that contain a starred alert, which is an alert that matches a specific condition that you define in the incident starring configuration. You can use the incident starring feature to prioritize and focus on the most important or relevant incidents in your environment1.

Let’s briefly discuss the other options to provide a comprehensive explanation:

A. Create a custom XQL widget: This is not the correct answer. Creating a custom XQL widget is not necessary to filter the display to only show starred incidents. A custom XQL widget is a widget that you create by using the XQL query language to define the data source and the visualization type. You can use custom XQL widgets to create your own dashboards or reports, but they are not required for filtering incidents by stars2.

B. This is not currently supported: This is not the correct answer. Filtering the display to only show starred incidents is currently supported by Cortex XDR. You can use the star icon in the widget to apply this filter, or you can use the Filter Builder to create a custom filter based on the Starred field1.

C. Create a custom report and filter on starred incidents: This is not the correct answer. Creating a custom report and filtering on starred incidents is not the only way to filter the display to only show starred incidents. A custom report is a report that you create by using the Report Builder to define the data source, the layout, and the schedule. You can use custom reports to generate and share periodic reports on your Cortex XDR data, but they are not the only option for filtering incidents by stars3.

In conclusion, clicking the star in the widget is the simplest and easiest way to filter the display to only show incidents that were “starred”. By using this feature, you can quickly identify and focus on the most critical or relevant incidents in your environment.

Ransomware is a type of malicious software, or malware, that encrypts certain files or data on the victim’s system or network and prevents them from accessing their data until they pay a ransom. This is by far the most common tactic used by ransomware to shut down a victim’s operation, as it can cause costly disruptions, data loss, and reputational damage. Ransomware can affect individual users, businesses, and organizations of all kinds. Ransomware can spread through various methods, such as phishing emails, malicious attachments, compromised websites, or network vulnerabilities. Some ransomware variants can also self-propagate and infect other devices or networks. Ransomware authors typically demand payment in cryptocurrency or other untraceable methods, and may threaten to delete or expose the encrypted data if the ransom is not paid within a certain time frame. However, paying the ransom does not guarantee that the files will be decrypted or that the attackers will not target the victim again. Therefore, the best way to protect against ransomware is to prevent infection in the first place, and to have a backup of the data in case of an attack1234

Ransomware is a type of malicious software, or malware, that encrypts user files and prevents them from accessing their data until they pay a ransom. Ransomware can affect individual users, businesses, and organizations of all kinds. Ransomware attacks can cause costly disruptions, data loss, and reputational damage. Ransomware can spread through various methods, such as phishing emails, malicious attachments, compromised websites, or network vulnerabilities. Some ransomware variants can also self-propagate and infect other devices or networks. Ransomware authors typically demand payment in cryptocurrency or other untraceable methods, and may threaten to delete or expose the encrypted data if the ransom is not paid within a certain time frame. However, paying the ransom does not guarantee that the files will be decrypted or that the attackers will not target the victim again. Therefore, the best way to protect against ransomware is to prevent infection in the first place, and to have a backup of the data in case of an attack123456

 The correct answer is B, the level of risk is assigned to the script upon import. When you import a script to the Agent Script Library in Cortex XDR, you need to specify the level of risk associated with the script. The level of risk determines the permissions and restrictions for running the script on endpoints. The levels of risk are:

Low: The script can be run on any endpoint without requiring approval from the Cortex XDR administrator. The script can also be used in remediation suggestions or automation actions.

Medium: The script can be run on any endpoint, but requires approval from the Cortex XDR administrator. The script can also be used in remediation suggestions or automation actions.

High: The script can only be run on isolated endpoints, and requires approval from the Cortex XDR administrator. The script cannot be used in remediation suggestions or automation actions.

The other options are incorrect for the following reasons:

A is incorrect because not any version of Python script can be run in Cortex XDR. The scripts must be written in Python 2.7, and must follow the guidelines and limitations described in the Cortex XDR documentation. For example, the scripts must not exceed 64 KB in size, must not use external libraries or modules, and must not contain malicious or harmful code.

C is incorrect because not any script can be imported to Cortex XDR, including Visual Basic (VB) scripts. The scripts must be written in Python 2.7, and must follow the guidelines and limitations described in the Cortex XDR documentation. VB scripts are not supported by Cortex XDR, and will not run on the endpoints.

D is incorrect because the script is not run on the machine uploading the script to ensure that it is operational. The script is only validated for syntax errors and size limitations when it is imported to the Agent Script Library. The script is not executed or tested on the machine uploading the script, and the script may still fail or cause errors when it is run on the endpoints.

The Broker VM is a virtual machine that you can deploy in your network to provide various services and functionalities to the Cortex XDR agents. One of the services that the Broker VM offers is the Local Agent Settings applet, which allows you to configure the agent proxy, agent installer, and content caching settings for the agents. The Local Agent Settings applet can support a maximum number of 10,000 agents per Broker VM. If you have more than 10,000 agents in your network, you need to deploy additional Broker VMs and distribute the load among them. References:

Broker VM Overview: This document provides an overview of the Broker VM and its features, requirements, and deployment options.

Configure the Broker VM: This document explains how to install, set up, and configure the Broker VM in an ESXi environment.

Manage Broker VM from the Cortex XDR Management Console: This document describes how to activate and manage the Broker VM applets from the Cortex XDR management console.

 A global exception is a rule that allows you to exclude specific files, processes, or behaviors from being blocked or detected by Cortex XDR. A global exception applies to all endpoints in your organization that are protected by Cortex XDR. Creating a global exception for a vitally important piece of software that is known to be benign would prevent Cortex XDR from blocking this software in the future, for all endpoints in your organization.

To create a global exception, you need to follow these steps:

In the Cortex XDR management console, go to Policy Management > Exceptions and click Add Exception.

Select the Global Exception option and click Next.

Enter a name and description for the exception and click Next.

Select the type of exception you want to create, such as file, process, or behavior, and click Next.

Specify the criteria for the exception, such as file name, hash, path, process name, command line, or behavior name, and click Next.

Review the summary of the exception and click Finish.