Practice Free CCCS-203b Exam Online Questions
You are tasked with manually scanning container images for vulnerabilities using the CrowdStrike Falcon command-line tool.
Which command correctly initiates the scan?
- A . falcon container-scan –registry <registry_url> –image <image_tag>
- B . falconctl scan –type image –file <image_file>
- C . falconctl image-scan –scan-path <path_to_image>
- D . falcon image-scan –repository <repository_url> –image <image_tag>
D
Explanation:
Option A: The falcon container-scan command is not a valid command in the CrowdStrike Falcon CLI.
The correct command for scanning images is falcon image-scan.
Option B: The falconctl command is used for managing endpoint agents, not for scanning container images. The –type image and –file flags are not valid in this context.
Option C: While falconctl is a valid tool, the –scan-path flag and image-scan subcommand do not exist.
Image scanning requires specifying the repository and image tag, not a file path.
Option D: This command follows the proper syntax to manually scan container images using the CrowdStrike Falcon command-line tool. It specifies the repository URL and image tag, which are required parameters for the scan.
CrowdStrike Falcon Cloud Workload Protection (CWP) offers runtime protection for containerized workloads.
Which feature or approach best helps identify unassessed images running in production?
- A . Image Scanning in Development Pipelines
- B . Runtime Inventory of Running Containers
- C . Integration with CI/CD for Build-Time Analysis
- D . Manual Configuration of Image Repositories
B
Explanation:
Option A: This option refers to pre-deployment scanning of images in CI/CD pipelines. While important, it doesn’t address images that bypass these pipelines and are directly deployed to production without being assessed.
Option B: CrowdStrike Falcon provides runtime inventory capabilities, allowing users to identify and monitor container images currently running in production environments. This feature is critical for detecting unassessed or unverified images because it directly analyzes the live runtime environment, bypassing any gaps left during development or build phases.
Option C: This focuses on build-time security and does not account for runtime environments. Unassessed images might still appear in production if they are manually deployed or come from external sources.
Option D: Manually configuring image repositories might ensure compliance with certain policies, but it doesn’t provide real-time visibility into running containers or unassessed images in production environments.
What is the primary action required to enable runtime protection for containers in a cloud environment using CrowdStrike Falcon?
- A . Enable the runtime protection policy within the Falcon console and assign it to a host group.
- B . Install the Falcon sensor inside each running container.
- C . Update the container runtime (e.g., Docker or containerd) to the latest version.
- D . Deploy the Falcon Container Sensor to the host running the container.
A
Explanation:
Option A: Runtime protection is controlled through policies in the Falcon console. Assigning a properly configured policy to a host group activates runtime protection for the designated hosts and their containers.
Option B: Falcon’s container runtime protection is host-based and does not involve installing sensors inside individual containers.
Option C: Keeping the container runtime updated is a best practice for security but does not directly enable CrowdStrike’s runtime protection features.
Option D: While deploying the Falcon Container Sensor is essential for container security, it is not the step that specifically enables runtime protection. This action prepares the environment but does not activate runtime protection policies.
You are tasked with reviewing container images to ensure they are secure before deploying them to production.
Which of the following actions is the most critical first step in identifying vulnerabilities in container images?
- A . Testing the container in a production-like environment.
- B . Scanning the container image with a vulnerability scanning tool.
- C . Reviewing the container’s resource utilization metrics.
- D . Manually inspecting the Dockerfile for insecure configurations.
B
Explanation:
Option A: While this helps identify runtime issues and integration problems, it does not address the specific task of reviewing an image for vulnerabilities. This step should come after ensuring the image is free from known vulnerabilities.
Option B: This is the correct answer because vulnerability scanning tools are specifically designed to identify known vulnerabilities in container images. These tools analyze both the image layers and dependencies, providing a comprehensive list of vulnerabilities that need to be addressed. This is a critical first step before proceeding with deeper analysis or deployment.
Option C: Resource utilization metrics are used for performance monitoring and optimization, not vulnerability identification. They do not provide any insights into the security posture of the container image.
Option D: This is an important step, but it is not the most critical first step. Manual inspection is prone to human error and cannot detect vulnerabilities in the underlying dependencies or base image layers.
A cloud security engineer is responsible for ensuring that all cloud workloads remain secure from vulnerabilities before execution. The engineer wants to use CrowdStrike Falcon’s pre-runtime protection capabilities to detect vulnerabilities in installed packages across multiple cloud environments.
Which of the following configurations best enables pre-runtime vulnerability detection and mitigation?
- A . Use a container image registry with basic signature verification but without vulnerability scanning
- B . Enable Falcon Spotlight and configure real-time vulnerability scanning for installed packages
- C . Manually check for CVEs using open-source vulnerability databases and apply patches reactively
- D . Disable vulnerability scanning and rely only on cloud provider security controls
B
Explanation:
Option A: Signature verification ensures the integrity of container images but does not detect vulnerabilities in installed packages. Without scanning, vulnerabilities in software dependencies may go undetected.
Option B: Falcon Spotlight provides real-time vulnerability management, detecting security issues in installed packages before runtime. This allows proactive remediation, reducing the attack surface before an exploit can occur.
Option C: Manually checking CVE databases is inefficient and does not provide real-time detection. This reactive approach increases the risk of running vulnerable workloads before security teams can apply patches.
Option D: While cloud provider security controls offer some baseline protections, they do not provide comprehensive pre-runtime scanning for vulnerabilities in installed packages. A dedicated vulnerability management solution is required.
When configuring a Falcon Fusion workflow to notify individuals after automated remediation, which action ensures effective communication with the security team?
- A . Integrate the workflow with an external notification system like Slack or email.
- B . Set the workflow to terminate immediately after the remediation action is executed.
- C . Rely solely on the Falcon platform’s detection history to inform the team.
- D . Use a webhook to trigger an external system without specifying recipients.
A
Explanation:
Option A: Integrating with external systems ensures that individuals receive real-time notifications about automated remediation actions. Platforms like Slack or email allow the security team to stay informed promptly and collaborate efficiently on follow-up actions.
Option B: Terminating the workflow immediately after remediation would skip the notification step, preventing the team from being informed. Notifications are critical for tracking and transparency.
Option C: Detection history provides useful insights but does not proactively notify individuals. Relying solely on it may result in delayed responses or missed alerts.
Option D: While webhooks are useful for integrating with external systems, failing to specify recipients or channels makes the notification less actionable. Clear communication pathways are necessary.
A cloud security team is struggling to automate responses to security incidents detected in their multi-cloud environment. They want to implement automated workflows that notify the security team when a high-severity detection occurs in a Kubernetes cluster and automatically quarantine the affected workload.
Which CrowdStrike Falcon Fusion SOAR capability is best suited for this use case?
- A . Falcon Forensics Collection
- B . Falcon Identity Protection
- C . Falcon OverWatch Threat Hunting
- D . Automated Playbooks with Conditional Logic
D
Explanation:
Option A: This feature is useful for investigating incidents after they occur but does not automate detection response in real time. It is reactive rather than proactive.
Option B: Identity Protection helps detect identity-based threats such as credential misuse but does not handle cloud workload detections or automated remediation.
Option C: While OverWatch is an advanced threat-hunting service, it does not provide automated response workflows. It focuses on identifying sophisticated attacks but does not remediate incidents automatically.
Option D: Falcon Fusion SOAR (Security Orchestration, Automation, and Response) workflows allow teams to create automated playbooks that respond to security events based on predefined logic. In this scenario, the workflow can notify the security team, assess the severity of the detection, and quarantine the compromised Kubernetes workload automatically, making it the best choice.
An organization wants to integrate their private image registry with CrowdStrike for image assessment.
What must they configure in CrowdStrike Falcon to register the connection?
- A . Install the CrowdStrike sensor on the container registry server.
- B . Use default connection settings, as CrowdStrike auto-discovers private registries.
- C . Open the container registry to public access for CrowdStrike to retrieve images.
- D . Specify the registry URL, credentials, and authentication method in the Falcon console.
D
Explanation:
Option A: Installing a CrowdStrike sensor on the registry server is not necessary for integrating image scanning. The connection is established through the Falcon console configuration.
Option B: CrowdStrike does not auto-discover registries. You must manually configure the connection by providing the necessary details in the Falcon console.
Option C: Opening the registry to public access is a major security risk. CrowdStrike requires proper authentication and secure communication rather than public access to perform image assessments.
Option D: The integration requires you to register the registry in the CrowdStrike Falcon console by specifying the registry’s URL, credentials, and authentication method. This ensures secure communication between the registry and CrowdStrike, enabling image scanning.
A security team has deployed a runtime protection sensor as a DaemonSet in a Kubernetes cluster. However, after deployment, the sensor fails to send security events to the central CrowdStrike Cloud. The cluster nodes show no network connectivity issues.
Which of the following is the most likely cause of the problem?
- A . The sensor is blocked by Kubernetes network policies; verify the namespace and allow necessary outbound traffic.
- B . The sensor DaemonSet is not using a privileged security context; restart with the –privileged flag enabled.
- C . The container runtime (e.g., containerd or CRI-O) is misconfigured; reinstall Kubernetes to ensure proper integration.
- D . The sensor lacks permissions to access container runtime data; check the Kubernetes RBAC settings.
A
Explanation:
Option A: Kubernetes NetworkPolicies restrict outbound network traffic by default in some environments. If the namespace where the sensor runs has a restrictive policy, it could block egress traffic to the CrowdStrike Cloud, preventing event transmission.
Option B: While some security sensors may require privileged access, the issue described involves network connectivity, not container runtime access. Lack of privileges would cause failure in collecting logs rather than blocking outbound traffic.
Option C: Reinstalling Kubernetes is a drastic and unnecessary step. If the container runtime were misconfigured, containers might fail to start, but the problem described is event transmission failure, not container runtime issues.
Option D: RBAC misconfigurations could cause issues in accessing Kubernetes API resources, but they would not typically prevent event transmission to an external service.
A security team is tasked with creating an image assessment policy in the Falcon Cloud to scan container images for vulnerabilities before deployment.
Which of the following configurations is required to ensure the policy works as intended?
- A . Specify the severity levels (e.g., Critical, High, Medium) for vulnerabilities to flag.
- B . Enable the "Audit Mode" to enforce runtime image assessment.
- C . Enable the "Real-time Scanning" option to automatically block all unscanned images.
- D . Assign the policy to a specific Kubernetes namespace only.
A
Explanation:
Option A: When creating an image assessment policy, defining the severity levels to flag ensures that only vulnerabilities meeting the specified thresholds are flagged. This configuration allows the policy to effectively prioritize risks and generate actionable insights.
Option B: Audit Mode is for runtime enforcement policies. Image assessment occurs during the CI/CD pipeline or image pull operations and is unrelated to runtime configurations.
Option C: Real-time scanning is unrelated to image assessment policies, as it pertains to runtime protection. Image assessment focuses on pre-deployment scanning, not real-time monitoring.
Option D: Image assessment policies apply to container images and are not limited to namespaces.
Namespace-specific configurations are part of runtime or admission policies, not image assessment.
