PCCSE Practice Exam Questions with Answers Prisma Certified Cloud Security Engineer Certification

1. Post /Login 2. Get /report 3. Get report/id/download

In Prisma Cloud, to automatically enable all severity levels for alerts, a user would need to navigate to the Policies section, then to Settings. Within this area, there is an option for "auto-enable default policies," which, when checked for all severity levels, ensures that any default policies related to those severities are automatically activated. This is a configuration setting that streamlines the alerting process by ensuring that all relevant severity levels are covered by the default policies without the need for manual intervention.

In the Anomaly settings of a cloud security platform, choosing a High alert disposition severity is crucial when the objective is to generate alerts for both low and high severity incidents, especially in scenarios such as reporting unknown browsers and OS, impossible time travel, or account hijacking attempts. Setting the alert severity to High ensures that the security team is promptly notified of both overt and subtle anomalies, enabling quick response to potential security threats that may indicate unauthorized access or suspicious activities within the cloud environment.

Prisma Cloud Data Security supports various data storage types, including AWS S3 buckets (B). AWS S3 (Simple Storage Service) is a widely used object storage service that offers scalability, data availability, security, and performance. Prisma Cloud's ability to secure S3 buckets is crucial for organizations leveraging AWS for storage needs, as it ensures that data stored within these buckets is protected against unauthorized access, data breaches, and other security threats. Prisma Cloud provides comprehensive visibility into the data stored in S3 buckets, enabling data classification, compliance monitoring, and threat detection to safeguard sensitive data effectively.

In the context of Prisma Cloud, the policy type that is specifically designed to detect unusual activities, such as port scanning, within a customer's environment is classified under "Anomaly." Anomaly-based policies leverage advanced analytics and machine learning algorithms to identify patterns and behaviors that deviate from the norm, which could indicate potential security threats like port scanning attempts. By detecting such anomalies, these policies help organizations proactively identify and respond to potential reconnaissance activities by attackers seeking to discover open ports and vulnerable services.

To authenticate to Prisma Cloud Enterprise programmatically, the use of an access key is the most suitable method among the given options. Access keys, typically consisting of an Access Key ID and Secret Access Key, are used for programmatic calls to the Prisma Cloud API. This method enables secure, authenticated API requests to Prisma Cloud services without requiring manual user intervention, which is essential for automation and integration with CI/CD pipelines.

Reference to the use of access keys for programmatic access can often be found in the API documentation of cloud security platforms like Prisma Cloud. While specific documentation from Prisma Cloud is not directly quoted here, the general practice across cloud services (AWS, Azure, GCP) supports the use of access keys for API authentication, making it a verified approach for Prisma Cloud as well.

Upon enabling alarms in Prisma Cloud, two critical alarm types that are registered are Onboarded Cloud Accounts status (A) and External integrations status (D). These alarms are pivotal for maintaining the health and security of the cloud environment. The Onboarded Cloud Accounts status alarms alert administrators about the connectivity and health of cloud accounts integrated with Prisma Cloud, ensuring continuous monitoring and security coverage. The External integrations status alarms provide notifications regarding the operational status of third-party services and tools integrated with Prisma Cloud, such as SIEMs, ticketing systems, or other security tools, ensuring that these integrations function correctly to support comprehensive security and incident response workflows.

During the creation of a custom config query in Prisma Cloud, the "api.name" field is required. This field specifies the API endpoint that the query will target, essentially defining the scope of the query within the cloud environment. The "api.name" serves as a critical identifier that allows the query to retrieve specific information or perform actions related to the chosen API endpoint. By specifying the "api.name," users can create tailored queries that address their specific security, compliance, or governance needs, enabling more precise and effective management of cloud resources and security posture.

In Prisma Cloud's Investigate page, when writing custom Resource Query Language (RQL) queries involving array objects, the platform provides auto-suggestions that are particularly useful for comparing elements within arrays. This feature aids users in constructing precise queries by offering relevant suggestions based on the context of the array elements being analyzed. It enhances the user experience by simplifying query construction and ensuring accuracy in targeting specific elements within complex data structures.

In Prisma Cloud, compliance reports can be generated on a one-time basis or on a recurring schedule. The option for a one-time report allows users to generate a specific report instantly based on the current state of the environment. The recurring option enables users to set up automatic generation of reports at regular intervals, such as weekly or monthly, to track compliance over time. This functionality ensures continuous compliance monitoring and helps in maintaining security standards across cloud resources.

The data security dashboard in Prisma Cloud provides a comprehensive overview of the security posture related to cloud data storage. However, certain information types, such as the identity of the bucket owner and the actual content within an object, are not typically displayed on such dashboards. This is because the dashboard focuses more on aggregated data profiles, exposure levels, and compliance-related information rather than individual ownership details or the specific content of objects, which may require separate detailed analysis or are managed through different security mechanisms.

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The correct RQL (Resource Query Language) that detected the vulnerability is:

config from cloud.resource where cloud.type = 'aws' and api.name = 'aws-iam-get-credential-report' AND json.rule = '(access_key_1_active is true and access_key_1_last_rotated != N/A and DateTime. ageInDays (access_key_1_last_rotated) > 90) or (access_key_2_active is true and access_key_2_last_rotated != N/A and _DateTime. ageInDays (access_key_2_last_rotated) > 90)'

This RQL is designed to check the age of the AWS IAM user's access keys to ensure that they are rotated within a recommended period, typically 90 days. If the access keys have not been rotated within this timeframe, it would be considered a security risk or vulnerability, as old keys may potentially be compromised. By enforcing access key rotation, it minimizes the risk of unauthorized access.

The reference for this type of policy check can be seen in cloud security best practices that advocate for regular rotation of access keys to minimize the potential impact of key compromise. CSPM tools like Prisma Cloud include such checks to automate compliance with these best practices.

SSH Events in Host Observations within Prisma Cloud focus on activities related to Secure Shell (SSH) usage, which is critical for secure communication and remote management of cloud resources. The elements that are part of SSH Events include the User involved in the SSH session, the Process path that indicates the executable or command invoked during the session, and the Command itself that was executed. These elements are crucial for security monitoring and forensic analysis as they provide detailed context about SSH activities, helping security teams to identify unauthorized access, potential breaches, or malicious activities within their cloud environments. Startup process and System calls, while important in other contexts, are not directly associated with SSH Events in Host Observations.

The timestamp on the compliance dashboard in a cloud security context typically reflects the point in time when data from various sources is collected, processed, and then consolidated to present the compliance status or results. This aggregation process involves compiling data from multiple scans, logs, and other compliance-related information to provide a comprehensive overview of the current compliance posture. Therefore, the timestamp usually indicates when this aggregation was completed, ensuring that users are viewing the most up-to-date and relevant compliance information based on the latest data compilation.

Outbound notifications in Prisma Cloud refer to the integration with external systems or services for the purpose of alerting or incident management.

• Option D: PagerDuty is an example of an outbound notification within Prisma Cloud. PagerDuty is a popular incident response and alerting service that teams use to manage, track, and respond to incidents in real-time. Prisma Cloud's integration with PagerDuty allows organizations to automatically forward alerts from Prisma Cloud to PagerDuty, enabling streamlined incident management and response workflows.

References:

• Prisma Cloud Integration Documentation: Provides instructions for integrating Prisma Cloud with various external services, including PagerDuty, to enhance alerting and incident management capabilities.
• Incident Management Best Practices: Discusses strategies for effective incident management, highlighting the role of integrations with external alerting services like PagerDuty in improving response times and incident resolution.

The data security default policy capable of scanning for vulnerabilities is "Objects containing Malware". In cloud security, malware scanning is an essential feature of CSPM tools that allows for the identification of malicious software within objects stored in the cloud. A policy that scans for objects containing malware ensures that any files or code bases in the cloud environment are examined for potential threats, protecting the cloud resources from being compromised.

Onboarding an account for Data Security involves several critical steps to ensure comprehensive coverage and effective monitoring. The steps involved include B. Create a Cloudtrail with SNS Topic to track and manage API calls and relevant notifications, D. Enter the RoleARN and SNSARN to provide necessary access and integration points for data security functions, and E. Create a S3 bucket which serves as a storage solution for logging and data capture essential for security analysis.

When an open alert from the previous day has been resolved without any configured auto-remediation, the change in alert status could be due to A. a user manually changing the alert status, indicating a manual intervention where someone reviewed and updated the alert status, and C. resource was deleted, implying that the resolution of the alert could be due to the removal of the resource associated with the alert, hence nullifying the alert condition.

The asset inventory in cloud security platforms like Prisma Cloud typically displays a wide range of cloud resources, including EC2 instances. EC2 instances are virtual servers in Amazon's Elastic Compute Cloud (EC2) for running applications on the Amazon Web Services (AWS) infrastructure. The asset inventory provides visibility into these instances, allowing security teams to monitor their configuration, security posture, and compliance status. This visibility is crucial for identifying misconfigurations, vulnerabilities, and ensuring that all EC2 instances adhere to the organization's security policies and compliance requirements.

In the context of calculating net effective permissions for a resource in AWS, IPTables firewall rule is not used. Net effective permissions in AWS are determined by evaluating various AWS-specific mechanisms such as IAM policies, permission boundaries, and service control policies (SCPs). IAM policies define what actions are allowed or denied for various AWS resources. Permission boundaries provide a way to delegate administration for IAM entities, setting the maximum permissions that an IAM entity can have. SCPs are part of AWS Organizations and allow for central control over the maximum available permissions for all accounts within an organization. IPTables, on the other hand, is a Linux-based application for setting up firewall rules on individual hosts and is not directly related to AWS resource permissions. Therefore, IPTables firewall rules are not considered when calculating net effective permissions in AWS, making option C the correct answer.

In a Prisma Cloud environment where both agentless scanning and Defender-based scans (Host and Container Defenders) are configured, there is no inherent conflict between these two scanning methods. Both agentless scans and Defender scans are designed to complement each other, providing comprehensive coverage and depth in the security analysis of the environment. Agentless scans offer a broad, less intrusive overview, while Defender scans provide deep, detailed insights into the security posture. Therefore, both types of scans will run concurrently, enhancing the overall security visibility and protection of the environment without disabling or interfering with each other's operations.

To upgrade Defenders in a Kubernetes deployment with Console v20.04, the recommended options are to remove the Defenders DaemonSet (Option B) and then redeploy, or let Defenders automatically upgrade (Option D). By removing the Defenders DaemonSet, you can manually control the upgrade process, ensuring that new Defenders are deployed with the latest version. Allowing Defenders to automatically upgrade is a convenient option that minimizes manual intervention, as Defenders are designed to self-update to the latest version when available. The option to run a provided curl | bash script from the Console (Option A) is not a standard practice for upgrading Defenders in Kubernetes environments. Using Cloud Discovery to automatically redeploy Defenders (Option C) is not applicable in this context, as Cloud Discovery is more relevant to discovering cloud resources rather than managing Defender deployments.

In Prisma Cloud, Defenders can be set to auto-upgrade, which is a feature that allows the host Defender to automatically upgrade to the latest version without manual intervention. This ensures that the Defenders are always up-to-date with the latest security features and fixes, enhancing the security posture of the environment they protect.

The correct construction for a container scan using the TwistCLI tool provided by Prisma Cloud (formerly Twistlock) is shown in option C. This command uses the TwistCLI tool to scan a container image, specifying the necessary authentication credentials (username and password with '-u' and '-p' flags), the address of the Prisma Cloud instance (with the '--address' flag), and the image to be scanned (in this case, 'myimage/latest'). The inclusion of the '--details' flag is a common practice to obtain detailed scan results, which is crucial for in-depth analysis and remediation efforts. This command structure aligns with the standard usage of TwistCLI for image scanning purposes, as documented in Prisma Cloud's official resources and guides.

In the event a user is unable to log in to the Prisma Cloud Console, Audit Logs serve as a critical area for investigating the issue. Audit Logs provide a detailed record of activities, including login attempts, within the Prisma Cloud environment. By examining the Audit Logs, administrators can identify failed login attempts, understand the reasons behind login failures (e.g., incorrect credentials, account lockouts, or access policy changes), and take appropriate actions to resolve the login issues, ensuring users can access the console as expected.

The Prisma Cloud Compute Edition is identified as B. Downloadable, self-hosted software. This option indicates that Prisma Cloud Compute Edition is a solution that organizations can deploy within their own infrastructure, providing them with control over the installation, configuration, and management of the security platform.

Prisma Cloud supports configuring Single Sign-On (SSO) with Identity Providers (IdPs) to streamline user authentication processes. However, for all the cloud accounts monitored by Prisma Cloud, only one IdP provider can be enabled at any given time. This limitation ensures a unified authentication mechanism across the platform, reducing complexity and potential security risks associated with managing multiple IdP configurations.

For CI/CD plugins supported by Prisma Cloud as part of its DevOps Security, BitBucket (Option A) and CircleCI (Option C) are the correct choices. BitBucket is widely used for source code management and collaboration, while CircleCI is a popular CI/CD platform. Prisma Cloud integrates with these tools to scan code repositories and CI/CD pipelines for security issues, ensuring that vulnerabilities are identified and addressed early in the development process. Visual Studio Code (Option B) and IntelliJ (Option D) are IDEs rather than CI/CD tools, and while they are supported by Prisma Cloud for scanning and security purposes, they are not considered CI/CD plugins.

The external ID plays a crucial role when onboarding a new Amazon Web Services (AWS) account in Prisma Cloud. It serves as a UUID (Universally Unique Identifier) that establishes a trust relationship between the Prisma Cloud account and the AWS account. This trust relationship is essential for allowing Prisma Cloud to securely extract data and perform security monitoring and compliance checks within the AWS environment. The use of an external ID ensures that Prisma Cloud can access the necessary information from the AWS account without compromising the security of the AWS account's credentials, adhering to the principle of least privilege and enhancing the overall security posture.

• Log in to your Okta administrator panel.
• Add an administrator role.
• Generate an API token.
• Configure Okta with Prisma Cloud.
• Run the IAM queries for Okta.

When integrating Okta with Prisma Cloud, especially in the context of Cloud Infrastructure Entitlement Management (CIEM) or Single Sign-On (SSO) integration, the process must be conducted in a sequence that establishes the necessary permissions and configurations for successful integration.

The first step is to log in to the Okta administrator panel. This is where you will manage your Okta settings and begin the integration process.

Once logged in, the next step is to add an administrator role. This involves assigning a role within Okta that has the appropriate permissions to create and manage API tokens and to perform integration tasks.

After setting up the correct administrative role, the third step is to generate an API token. This token will be used to authenticate the communications between Okta and Prisma Cloud. The API token acts as a secure method of verifying that requests made to Prisma Cloud are authorized.

With the API token generated, the fourth step is to configure Okta with Prisma Cloud. This step typically involves entering the API token into Prisma Cloud and setting up the necessary configurations within Prisma Cloud to recognize and accept authentication requests from Okta.

The final step is to run the Identity and Access Management (IAM) queries for Okta within Prisma Cloud. This step is crucial for CIEM, as it allows Prisma Cloud to query Okta for identity information, user roles, and entitlements, ensuring that the correct permissions are enforced across the cloud environment and that SSO is functioning correctly.

Following these steps in order will ensure that Okta is properly integrated with Prisma Cloud, providing a secure and efficient method for managing cloud access and entitlements.

To create a network exposure policy that identifies instances accessible from any untrusted internet sources, a SecOps engineer would need to navigate to the Policy section within Prisma Cloud and add a new policy of the Config type. They would define the details of the policy such as the name and severity level and then configure the RQL query to specify conditions that match instances accessible from untrusted internet sources. The RQL query provided in the answer specifies that the source of the network traffic should be from an untrusted internet and that the destination resource should be an instance in the AWS cloud. After defining the compliance standards and providing recommendations for remediation, the policy can be saved to be enforced within the environment.

In the Prisma Cloud Software Release 22.06, referred to as the Kepler release, the addition of Google Artifact Registry as a supported Registry type was a significant update. Google Artifact Registry is designed to store, manage, and secure your container images and language packages (such as Maven and npm). It provides a single place for teams to manage their artifacts and dependencies, improving consistency and security across software development and deployment processes. This update in Prisma Cloud reflects the platform's commitment to supporting the latest cloud-native technologies and services, enhancing its capabilities in securing modern cloud environments.

The Adoption Advisor is a feature within Prisma Cloud that aims to improve product operationalization. It provides visibility into how features are utilized, identifies unused capabilities, and suggests ways to leverage the full potential of the platform. Therefore, Option A: Adoption Advisor is the correct answer.

For CI policy in image scanning with Jenkins or twistcli, options related to scoping include specifying credentials for accessing and scanning the images, setting conditions such as applying the rule only when vendor fixes are available to prioritize remediation efforts, and establishing failure thresholds to determine the severity levels that will cause the build to fail. These options focus on integrating security into the CI/CD pipeline, ensuring images are scanned for vulnerabilities, and enforcing security standards without hindering the development process. This approach aligns with best practices in DevSecOps by embedding security early in the development lifecycle, allowing for early detection and mitigation of vulnerabilities.

Prisma Cloud Code Security is designed to integrate security into the DevOps process by scanning infrastructure as code (IaC) templates and configurations for potential security issues. This proactive approach allows developers and security teams to address misconfigurations and vulnerabilities in the code itself, before they are deployed into the cloud environment and become more challenging to resolve. By identifying and rectifying these issues early in the development lifecycle, organizations can reduce the risk of alerts and incidents arising from misconfigurations in their cloud infrastructure, leading to a more secure and compliant cloud environment.

In Kubernetes environments, deploying Defenders to protect nodes involves leveraging DaemonSets, which ensure that every node in the cluster runs a copy of a specific pod. When the Console is running within a Kubernetes cluster, it's essential to correctly reference the Console service to ensure seamless communication between Defenders and the Console. Option A is the most straightforward and Kubernetes-native method for deploying Defenders. By choosing "twistlock-console" as the Console identifier on the deployment page within the Console, users can generate a DaemonSet configuration file tailored for the Twistlock namespace. This approach ensures that the Defenders are correctly configured to communicate with the Console, providing comprehensive security coverage across the Kubernetes nodes. This method aligns with best practices for deploying security agents in Kubernetes and is supported by Prisma Cloud (formerly Twistlock) documentation, which provides step-by-step instructions for deploying Defenders using DaemonSets.

When enabling Registry Scanning in Prisma Cloud for a registry that stores Windows images, it's important to note that Windows host defenders must be deployed in the environment to scan these images effectively. The Windows host defenders are specialized versions of the Prisma Cloud Defender that are designed to run on Windows operating systems. They provide the necessary functionality to scan Windows container images stored in registries, identifying vulnerabilities and ensuring the images comply with security policies before they are deployed. This requirement underscores the importance of having the appropriate Defender deployments that match the operating systems of the images being scanned.

Enabling anomalous compute provisioning in Prisma Cloud allows for the detection of unusual and potentially unauthorized activities related to the creation of compute instances. This feature is particularly useful for identifying scenarios where an unauthorized network of compute instances might be established, either accidentally due to misconfigurations or maliciously for purposes such as cryptojacking. Cryptojacking involves the unauthorized use of someone else's compute resources to mine cryptocurrency, and anomalous compute provisioning can help in identifying such activities by highlighting unusual patterns in the provisioning of compute resources.

In Prisma Cloud, the Resource Query Language (RQL) is used as a sophisticated querying language that enables deep inspection and analysis of cloud resources, configurations, and metadata. RQL is particularly adept at scanning Infrastructure as Code (IaC) templates because it allows for granular querying of cloud resources and their attributes, including those defined within IaC templates such as Terraform and CloudFormation. This capability is essential for identifying potential security risks, misconfigurations, and compliance issues within the infrastructure code before it's deployed, ensuring that cloud environments are secure from the outset.

In the Data Security module of cloud security platforms like Prisma Cloud, the types of bucket exposures typically include Public (option A), Private (option B), and Conditional (option E). Public buckets are accessible by anyone on the internet, posing a significant data leakage risk. Private buckets are restricted to authorized users only, offering a higher level of security. Conditional exposure involves buckets that may be accessible under certain conditions or to specific users, requiring careful configuration and policy enforcement to prevent unauthorized access. International (option C) and Differential (option D) do not represent standard types of bucket exposures in cloud security contexts.

VM image scanning is a critical component of cloud security, allowing organizations to identify vulnerabilities within virtual machine images before deployment. The three major public cloud providers supported for VM image scanning are Google Cloud Platform (GCP), Amazon Web Services (AWS), and Microsoft Azure. These platforms offer extensive infrastructure services and are commonly used in various industries, making them primary targets for VM image scanning integration.

GCP, AWS, and Azure each provide capabilities to store, manage, and deploy VM images through their respective services such as Google Compute Engine, AWS EC2, and Azure Virtual Machines. By integrating VM image scanning with these services, organizations can ensure that their VM images are free from known vulnerabilities and comply with security best practices before being deployed in the cloud environment.

This approach to VM image scanning is consistent with Prisma Cloud's comprehensive security strategy, which emphasizes the importance of securing cloud workloads across the entire development lifecycle. By supporting VM image scanning across GCP, AWS, and Azure, Prisma Cloud enables organizations to maintain a consistent security posture across multiple cloud environments, mitigating the risk of deploying vulnerable or misconfigured VM images that could lead to security breaches.

References:

• Documentation from GCP, AWS, and Azure on VM management and security best practices provide foundational knowledge for understanding how VM image scanning integrates with each cloud provider's infrastructure services.
• Prisma Cloud's documentation and best practices guides offer insights into how VM image scanning is implemented within its security platform to protect cloud workloads across GCP, AWS, and Azure.

To detect port scanning activities within an environment, a "Port Scan" policy type (option B) would be the most appropriate. Port scanning is a technique used to identify open ports and services available on a host, often used by attackers to find vulnerabilities. A Port Scan policy is designed to detect and alert on such scanning activities, allowing security teams to take preventive measures. While Network (option A), Anomaly (option C), and Config (option D) policies play critical roles in cloud security, they do not specifically target the detection of port scanning behavior.

The correct RQL query to view users who have sufficient permissions to create security groups within Azure AD and create applications is option D. This query is specifically designed to assess policies within Azure Active Directory (Azure AD) by checking the authorization policy settings related to user default role permissions. The query targets the azure-active-directory-authorization-policy API to fetch configurations (config from cloud.resource) and then filters those configurations based on the JSON rules that dictate whether users are allowed to create security groups (defaultUserRolePermissions.allowedToCreateSecurityGroups is true) and applications (defaultUserRolePermissions.allowedToCreateApps is true). This query provides a comprehensive check by ensuring both conditions are met, which is necessary for users to have the combined capabilities of creating security groups and applications within Azure AD.

In the context of Prisma Cloud and cloud security principles, the RQL (Resource Query Language) is utilized for querying the configuration state of resources within cloud environments to ensure compliance with security policies. The RQL syntax in option D precisely aligns with the requirements for identifying users with specific permissions, leveraging Prisma Cloud's capability to provide visibility and control over cloud resources, as emphasized in various resources like the "Prisma Cloud Visibility and Control Qualification Guide" and the "Guide to Cloud Security Posture Management Tools." These documents highlight the importance of continuous monitoring and validation of cloud resource configurations to maintain a secure and compliant cloud environment, which is effectively achieved through targeted RQL queries like the one in option D.

References:

• "Prisma Cloud Visibility and Control Qualification Guide" discusses the importance of visibility and compliance in cloud environments, which is directly applicable to the use of RQL for querying resource configurations.
• "Guide to Cloud Security Posture Management Tools" emphasizes the need for comprehensive visibility and governance across cloud environments, further supporting the rationale behind the specific RQL query used to assess user permissions in Azure AD.

https://prisma.pan.dev/api/cloud/api-urls/

When accessing the Prisma Cloud API for a tenant located on app2.prismacloud.io, the correct API endpoint to use would be https://api2.prismacloud.io. This endpoint corresponds to the Prisma Cloud service instance hosted on app2.prismacloud.io, ensuring that API requests are directed to the correct instance of the service for processing.

The use of api2 in the URL indicates that this is the second instance or a different geographical or functional partition of the Prisma Cloud service, which might be used for load balancing, redundancy, or serving different sets of users. It is crucial to use the correct endpoint corresponding to the Prisma Cloud console URL to ensure successful API communication and authentication.

B --> Anomaly Trusted List—Exclude trusted IP addresses when conducting tests for PCI compliance or penetration testing on your network. Any addresses included in this list do not generate alerts against the Prisma Cloud Anomaly Policies that detect unusual network activity such as the policies that detect internal port scan and port sweep activity, which are enabled by default. C --> Trusted Alert IP Addresses—If you have internal networks that connect to your public cloud infrastructure, you can add these IP address ranges (or CIDR blocks) as trusted ... Prisma Cloud default network policies that look for internet exposed instances also do not generate alerts when the source IP address is included in the trusted IP address list and the account hijacking anomaly policy filters out activities from known IP addresses. Also, when you use RQL to query network traffic, you can filter out traffic from known networks that are included in the trusted IP address list.

For a customer who does not want alerts to be generated from network traffic originating from trusted internal networks, the appropriate setting is C. Trusted Alert IP Addresses. This setting allows for specifying certain IP addresses as trusted, meaning alerts will not be triggered by activities from these IPs, ensuring that internal network traffic is not flagged as potentially malicious.

For Prisma Cloud to execute auto-remediation commands, it requires write access to the cloud platform. This is because auto-remediation involves making changes to configurations or settings within the cloud environment to rectify security issues. Thus, the correct answer is B: Write access to the cloud platform.

The Container Runtime Model in Prisma Cloud typically includes states such as Learning, Active, and Archived. The Learning state is where Prisma Cloud observes container behaviors to understand normal operations and establish a baseline. During this phase, the system is not actively enforcing security policies but is learning the typical behaviors and patterns of container activity. The Active state is where the system actively enforces security policies based on the learned behaviors and detected anomalies. Containers that exhibit suspicious or malicious activity that deviates from the baseline may trigger alerts or actions based on configured policies. The Archived state refers to containers that are no longer active but whose data and activity logs are retained for historical analysis or compliance purposes.

For a custom config Resource Query Language (RQL) in Prisma Cloud, two essential attributes are "json.rule" and "api.name." The "json.rule" attribute allows users to specify the JSON structure that defines the criteria or conditions of the query, essentially dictating what the query is looking for within the cloud environment. The "api.name" attribute identifies the specific API endpoint that the query will target, providing context and scope for the query. Together, these attributes enable users to craft precise and targeted queries that can assess the configuration and security posture of cloud resources, aiding in compliance checks, security assessments, and other governance tasks.

Ensuring that builds can function properly after a Console upgrade in Prisma Cloud involves strategies that maintain compatibility and functionality with the latest versions of the Prisma Cloud tools and services.

• Option B: Updating any build environments that have twistcli included to use the latest version is crucial because twistcli is Prisma Cloud's CLI tool used for scanning images, serverless functions, and IaC for vulnerabilities and compliance issues. Ensuring that twistcli is up to date in all build environments guarantees compatibility with the latest features and security definitions provided by Prisma Cloud, as well as ensures that any new or updated policies and checks are accurately enforced during the build process.
• Option C: Configuring build pipelines to download twistcli at the start of each build ensures that the most current version of twistcli is used every time a build is initiated. This approach is beneficial in dynamic CI/CD environments where builds are frequent, and maintaining the latest security posture is critical. By downloading twistcli dynamically, teams can automatically adapt to any updates or changes introduced in the Prisma Cloud Console without manual intervention, ensuring seamless integration and continuous compliance with Prisma Cloud's security standards.

References:

• Prisma Cloud Documentation: Emphasizes the importance of keeping security tools up to date and integrating them into CI/CD pipelines for continuous security.
• Best Practices for Integrating Security Tools in CI/CD: Guides on how to effectively incorporate security scanning tools like twistcli into the CI/CD process to ensure builds are secure and compliant.

To use the automated method within Azure Cloud for streamlining the process of using remediation in the identity and access management (IAM) module, the required actions include configuring the IAM Azure remediation script, integrating with Azure Service Bus, and installing the azure.servicebus & requests library. These steps ensure that the automated remediation system can communicate effectively with Azure services, execute the necessary remediation actions, and address IAM-related alerts by adjusting permissions and access controls as needed. This automation helps maintain a secure and compliant cloud environment by promptly addressing potential IAM issues.

Following best practices, the Security Operations Center (SOC) should enable a policy that checks for publicly accessible AWS RDS database instances and then manually remediate each instance confirmed to be part of the production environment. This approach ensures that only those resources that should not be publicly accessible are modified, avoiding unintended access restrictions on non-production instances.

In Prisma Cloud, assigning an administrative user to an account group is a way to implement the principle of least privilege by restricting the user's access to a specific subset of resources and data. Account groups are logical collections of cloud accounts, and by associating an administrative user with a particular account group, their access is limited to only those resources and data associated with the cloud accounts within that group. This mechanism ensures that users have access only to the information and resources necessary for their role or tasks, enhancing security by minimizing the potential for unauthorized access or actions within the cloud environment.

Build Image, Scan Image, Publish Scan, Commit to Registry (if scan result is passed)

To immediately see all alerts associated with a newly onboarded public cloud account based on existing enabled policies, it is essential to assign the account to an account group and then create an alert rule that applies to this account group. By selecting "select all policies," the alert rule will trigger alerts for all existing enabled policies without the need to specify individual policies or add alert notifications for downstream applications.

In Prisma Cloud, the Defender type responsible for performing registry scanning is the Container Defender. Registry scanning is crucial for ensuring that container images stored in registries are free from vulnerabilities and compliance issues before they are deployed. Container Defenders scan images within container registries, identifying security risks and ensuring that only secure container images are used in deployment, thereby maintaining the integrity and security of containerized applications.

To detect and alert on activities performed by a root account, an audit event policy should be used. An audit event policy is a type of policy that can be used to detect suspicious activities or events that may be related to security threats. This type of policy will allow the administrator to monitor and alert on any activities performed by a root account.

https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin/prisma-cloud-policies/prisma-cloud-threat-detection

The correct policy type to use in order to detect and alert on any activities performed by a root account is an "audit event" policy. An audit event policy is designed to monitor and record a series of chronological events in the order they occur, typically used to track user activities and changes within the system. When a root account performs any actions, an audit event policy will log these events, allowing the administrator to review and potentially set up alerts if suspicious or unauthorized activities are detected. This type of policy is crucial for security and compliance purposes as it helps ensure that all actions performed with root privileges are legitimate and authorized.

Reference to this can be found in most cloud security platforms that offer CSPM (Cloud Security Posture Management) solutions. For example, within Prisma Cloud by Palo Alto Networks, audit events are a part of the Activity Monitoring features, which track user activities and system changes to facilitate investigations into suspicious or unauthorized actions.

In the context of Prisma Cloud and its Container Runtime Model, the Learning phase is a crucial period where the system observes and understands the normal behaviors and patterns of container activities. This "dry run" period allows Prisma Cloud to establish a baseline of what is considered normal, which later helps in identifying anomalies or malicious activities. A 48-hour period is typically used for this learning phase to ensure that a sufficient amount of data is collected across various times and conditions, providing a comprehensive understanding of typical container operations.

In the deployment scenario described, where an NGINX container is listening on port 8080 and mapped to host port 80, the Cloud Native Application Firewall (CNAF) rule should specify host port 80 (option B) to protect the application. This is because the external traffic directed towards the containerized application will be accessing it through the host port 80, which is the exposed port to the outside network. Specifying port 80 in the CNAF rule ensures that the firewall can inspect and protect the incoming traffic to the application effectively.

In Prisma Cloud, Defender debug logs are essential for troubleshooting and understanding the Defender's operational behavior. The logs can be accessed through two primary methods:

A. The first method (B) involves using the Prisma Cloud Console's user interface. By navigating to Manage > Defenders > Manage > Defenders, administrators can select a deployed Defender from the list and access its logs by clicking Actions > Logs. This method provides a convenient way to view logs directly from the Console without the need to access the Defender host directly.

D. The second method (D) involves accessing the logs directly from the file system of the host where the Defender is deployed. The correct path for the Defender logs is /var/lib/twistlock/log/defender.log. This method is useful for situations where direct access to the host is available, and it allows for more in-depth troubleshooting by examining the raw log files.

Options A and C are incorrect because the paths and navigation steps provided do not accurately reflect the structure and functionality of Prisma Cloud's logging system.

Prisma Cloud allows external notifications for policy violations to integrate with various third-party services and internal communication channels. Among the options, Splunk and Email are two services that can be configured to receive notifications about policy violations. Splunk, a software platform for searching, analyzing, and visualizing machine-generated data, can be integrated with Prisma Cloud to provide real-time security insights. Email notifications serve as a direct and accessible method to inform stakeholders about potential security issues, ensuring prompt attention and action.

When setting up Single Sign-On (SSO) in Prisma Cloud on the Identity Provider (IdP) side, it is essential to configure the Assertion Consumer Service (ACS) URL and the Service Provider (SP) Entity ID. The ACS URL is the endpoint to which the IdP will send the SAML assertion, and the SP Entity ID is a unique identifier for the service provider that often resembles a URL but does not necessarily point to a location. These elements are crucial for establishing the trust relationship between the IdP and the service provider, enabling secure user authentication and authorization.