Cloud Security Engineer PCCSE Updated Exam

The question focuses on valid host compliance policies within a cloud environment. Among the given options, the most relevant to host compliance is ensuring compliant Docker daemon configuration. Docker daemon configurations are critical for securing the host environment where containers are run. A compliant Docker daemon configuration involves setting security-related options to ensure the Docker engine operates securely. This can include configurations related to TLS for secure communication, logging levels, authorization plugins, and user namespace remapping for isolation.

Ensuring functions are not overly permissive (Option A) and ensuring images are created with a non-root user (Option C) are more directly related to the security best practices for serverless functions and container images, respectively, rather than host-specific compliance checks. Ensuring host devices are not directly exposed to containers (Option B) is also important for security, but it falls under the broader category of container runtime security rather than host-specific compliance.

Thus, the most valid host compliance policy from the given options is to ensure a compliant Docker daemon configuration, as it directly impacts the security posture of the host environment in a containerized infrastructure. This aligns with best practices for securing Docker environments and is a common recommendation in container security guidelines, including those from Docker and cybersecurity frameworks.

References:

• Docker Documentation: Security configuration and best practices for Docker engine: https://docs.docker.com/engine/security/
• CIS Docker Benchmark: Providing consensus-based best practices for securing Docker environments: https://www.cisecurity.org/benchmark/docker/

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.

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 installation of the Prisma Cloud Console in a Kubernetes cluster involves a series of steps that start with preparing the necessary deployment configurations, typically provided as YAML files. The process begins by downloading and extracting the release tarball, which contains the necessary files and instructions for the deployment. After extracting the tarball, you generate YAML files for the Console deployment. These YAML files define the Kubernetes resources needed to deploy and run the Console, such as Deployments, Services, and ConfigMaps. Finally, you deploy the Console by applying the generated YAML files using the kubectl command, which communicates with the Kubernetes API to create the specified resources in your cluster.

This process is aligned with Kubernetes best practices for deploying applications and is indicative of the steps required for deploying complex applications like the Prisma Cloud Console. The method ensures that all necessary configurations and dependencies are correctly defined and deployed in the Kubernetes environment.