Option A: While creating separate policies for each cloud provider is technically possible, using the "Network Security" category would not directly address storage bucket accessibility. It would unnecessarily complicate policy management.
Option B: Multi-cloud policies in Falcon Cloud Security allow the creation of unified rules across AWS, Azure, and GCP. The "Storage Security" category is specifically designed for securing storage buckets, ensuring that they are not publicly accessible.
Option C: Limiting the policy to AWS would not ensure protection for storage buckets in Azure and GCP.
The requirement specifies a multi-cloud approach.
Option D: Focusing solely on Azure would leave AWS and GCP buckets unprotected, violating the stated requirement.

Option A: The Image Assessment report is designed to provide a comprehensive evaluation of container images to identify security risks such as malware, CVEs, misconfigurations in Docker files, and leaked secrets. This detailed report helps security teams proactively address issues before deploying the containers.
Option B: While outdated software may contribute to vulnerabilities, the Image Assessment report focuses on known vulnerabilities (CVEs) rather than simply reporting software age or version.
Option C: Image removal is not a function of the Image Assessment report. Image repository management is typically handled through access policies and repository-specific tools.
Option D: While detecting malware is a feature of the Image Assessment report, it is not the primary purpose. Malware detection is part of the broader assessment that includes CVEs, misconfigurations, and secrets.

Option A: While runtime performance can be influenced by the image configuration, the primary focus of a security assessment is identifying and mitigating vulnerabilities, not performance optimization.
Option B: Although using minimal layers can improve storage efficiency, the goal of reviewing base images is to ensure security, not necessarily to reduce the image size.
Option C: The base image forms the foundation of a container. If it contains outdated or vulnerable dependencies, they can propagate to any containers built from it. Regularly reviewing and updating the base image ensures that known vulnerabilities are mitigated, which is critical for maintaining a secure environment.
Option D: Compatibility with orchestrators like Kubernetes is generally determined by the image's runtime requirements, not by reviewing the base image for security.

Option A: Docker is not a requirement for installing the Falcon sensor on Linux. The sensor operates independently of container runtimes, though it can monitor containers if deployed properly.
Option B: Firewall misconfigurations can prevent the sensor from communicating with the CrowdStrike cloud but do not affect the installation itself. The error specifically mentions kernel compatibility, not connectivity.
Option C: The Falcon sensor requires a supported Linux kernel version to function properly. If the kernel version is outdated or incompatible, the installation will fail with errors like the one described. The compatibility matrix provided by CrowdStrike should always be consulted before deployment.
Option D: While certain Linux configurations might benefit from iptables, its absence does not directly cause kernel compatibility errors. The Falcon sensor operates at the kernel level, making the kernel version the critical factor.

Option A: While a mismatched container runtime can cause monitoring issues, CrowdStrike supports a wide range of container runtimes. If an unsupported runtime were the issue, it would be flagged during deployment, not afterward.
Option B: While kubelet misconfiguration could cause container management issues, this would typically prevent container creation or result in broader cluster-wide errors, not selective monitoring failures.
Option C: CrowdStrike supports most major cloud providers. Unsupported cloud providers would likely cause deployment issues, not selective monitoring problems.
Option D: This is the correct answer because the DaemonSet ensures that the CrowdStrike sensor runs on all nodes in the cluster. If the DaemonSet is not deployed properly across all nodes, workloads on the unaffected nodes will not be monitored, even though the overall installation appears successful.