CloudSec-Pro Exam Dumps - Paloalto Networks Cloud Security Engineer Questions and Answers

Using the Prisma Cloud API, users can fetch various attributes of policies, including the policy label (Option A) and policy mode (Option C). The policy label helps in categorizing and organizing policies, while the policy mode determines how the policy is enforced (e.g., alert, enforce). The policy signature (Option B) is not a standard attribute exposed via the API for fetching, as it relates more to the internal identification and handling of policies. The policy violation (Option D) is an outcome or event resulting from a policy breach, not an attribute of the policy itself that can be fetched via the API.

Prisma Cloud Compute Compliance enforcement for hosts covers several aspects to ensure a secure and compliant host environment, particularly within containerized environments. These include:

Docker daemon configuration files: Ensuring that Docker daemon configuration files are set up according to best security practices is crucial. These files contain various settings that control the behavior of the Docker daemon, and misconfigurations can lead to security vulnerabilities.

Docker daemon configuration: Beyond just the configuration files, the overall configuration of the Docker daemon itself is critical. This encompasses runtime settings and command-line options that determine how Docker containers are executed and managed on the host.

Host configuration: The security of the underlying host on which Docker and other container runtimes are installed is paramount. This includes the configuration of the host's operating system, network settings, file permissions, and other system-level settings that can impact the security of the containerized applications running on top.

By focusing on these areas, Prisma Cloud ensures that not just the containers but also the environment they run in is secure, adhering to compliance standards and best practices to mitigate risks associated with containerized deployments.

https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin-compute/waas/waas_dos_protection

In AWS, the net effective permissions are calculated based on various policy types and identities. The correct choices are:

A. AWS service control policies (SCPs): SCPs are used in AWS Organizations to manage permissions for all accounts within the organization, affecting the net effective permissions.

B. AWS IAM group: IAM groups define a set of permissions for a collection of users, influencing their effective permissions.

C. AWS IAM role: IAM roles provide temporary security credentials to assume a set of permissions, impacting the net effective permissions. Option D (AWS IAM User) and E (AWS IAM tag policy) also play roles in defining permissions, but A, B, and C are the primary types used in calculating net effective permissions, making them the correct choices.

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.

POST https://api.prismacloud.io/login

GET https://api.prismacloud.io/access_keys

PATCH https://api.prismacloud.io/access_keys/ /status/

To write a script that automatically deactivates access keys that have not been used for 30 days, an administrator would need to follow an ordered sequence of API calls to the Prisma Cloud platform.

The first API call must authenticate the script with the Prisma Cloud API, which is typically done using a POST request to the login endpoint. This step is necessary to establish a session and retrieve an authentication token required for subsequent API calls.

Once the script is authenticated, the next call is a GET request to the access_keys endpoint. This retrieves a list of all access keys within the environment. The script can then parse through these keys to determine which ones have not been used within the specified timeframe of 30 days.

For each access key that meets the criteria (unused for 30 days), the script must send a PATCH request to the specific access key's endpoint, which includes the access key ID and the desired status. This request will change the status of the access key to 'inactive' or a similar status that denotes deactivation.

Following this ordered sequence ensures that the script systematically authenticates, evaluates, and updates the status of access keys based on their usage, thereby maintaining security and compliance within the Prisma Cloud environment.

The Defender type "Container Defender - Linux" in Prisma Cloud is typically deployed as a container. This deployment method allows the Defender to integrate seamlessly into containerized environments, providing runtime protection and monitoring for container activities. By running as a container, the Container Defender can leverage the native capabilities of the container orchestration platform, such as Kubernetes, to provide security features like threat detection, vulnerability management, and compliance enforcement within the containerized environment. This approach ensures that the security protections are closely aligned with the dynamic and scalable nature of containerized applications.

Aggressive: For unusual user activity—Report on either unknown location or service, or both to classify an anomaly. For account hijacking—Report on unknown browser and Operating System, impossible time travel, or both. For anomalous compute provisioning activity—Reports on low and higher severity alerts.