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Free Certified Cloud Security Engineer Practice Questions

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Sample Practice Questions

Try these 10 sample questions from the Certified Cloud Security Engineer practice bank. Each includes the answer and explanation. Continue with the interactive practice above to review the full question set.

  1. 1A cloud consumer provisions a virtual machine through an API without waiting for a provider employee to approve each request. Which NIST cloud characteristic does this illustrate?

    1. A.Broad network access
    2. B.On-demand self-serviceCorrect answer: B
    3. C.Measured service
    4. D.Resource pooling

    Explanation: NIST states, "A consumer can unilaterally provision computing capabilities," and specifies "without requiring human interaction with each service provider." Automated provisioning without individual provider intervention is on-demand self-service. Network access concerns how services are reached; measurement concerns metering; pooling concerns sharing resources.

    Reference: NIST SP 800-145: The NIST Definition of Cloud Computing — Section 2, Essential Characteristics: On-demand self-service, printed p. 2

  2. 2A team needs a logically isolated virtual network in which to launch its AWS resources. Which resource provides this boundary?

    1. A.An AWS Availability Zone
    2. B.An Amazon VPC security group
    3. C.An Amazon Virtual Private CloudCorrect answer: C
    4. D.An Amazon VPC route table

    Explanation: AWS defines Amazon VPC as "a logically isolated virtual network that you've defined." An Availability Zone is a placement/failure domain; a security group filters associated resources' traffic, and a route table directs traffic. Those components do not replace the VPC network boundary.

    Reference: What is Amazon VPC? — What is Amazon VPC?

  3. 3A cloud application concatenates user input into SQL statements. Which change directly prevents input values from being interpreted as SQL syntax?

    1. A.Give the database account read-only access
    2. B.Encrypt the database volume at rest
    3. C.Bind input values in parameterized queriesCorrect answer: C
    4. D.Increase the database connection timeout

    Explanation: OWASP states, "Prepared statements treat bound values as data rather than SQL syntax." Binding values separately from the SQL structure addresses injection. Least privilege limits impact but does not prevent injection; encryption and timeouts do not separate data from syntax.

    Reference: SQL Injection Prevention Cheat Sheet — Defense Option 1: Prepared Statements (with Parameterized Queries)

  4. 4A control is intended to prevent unauthorized changes to cloud-hosted financial records. Which information-security objective does this directly support?

    1. A.Availability
    2. B.Confidentiality
    3. C.Portability
    4. D.IntegrityCorrect answer: D

    Explanation: NIST defines integrity as "Guarding against improper information modification or destruction". Preventing unauthorized changes directly supports integrity. Confidentiality addresses disclosure, availability addresses access when needed, and portability is a different property.

    Reference: NIST Glossary: Integrity — Definitions: FIPS 200 definition

  5. 5A cloud operations team needs standard security controls to be deployed consistently and their changes to be traceable. Which workflow best meets both goals?

    1. A.Test version-controlled IaC templates and deploy them through a pipelineCorrect answer: A
    2. B.Apply console changes first and document only failed deployments
    3. C.Copy the last environment manually and discard its change history
    4. D.Let each administrator maintain an independent unreviewed baseline

    Explanation: AWS recommends defining controls with IaC and says to "capture changes in a version control system, test changes as part of a CI/CD pipeline". This provides traceable changes and consistent deployment. The other workflows lack reliable control over changes or the shared baseline.

    Reference: Automate deployment of standard security controls — SEC01-BP06

  6. 6An incident response team must coordinate even if its normal corporate communication system is compromised. What should its incident response plan include?

    1. A.A rule to postpone all communication until recovery is complete
    2. B.An assumption that the affected system is always trustworthy
    3. C.An out-of-band backup communication methodCorrect answer: C
    4. D.A requirement to send incident credentials through the affected channel

    Explanation: AWS states, "It’s a best practice to have out-of-band communication as a backup for incident communication." An independent backup supports coordination when the primary channel is unreliable. Postponing coordination or relying on the compromised channel fails that objective.

    Reference: Develop incident management plans — Develop the incident response plan: Backup communication methods

  7. 7An authorized investigation needs evidence from a running cloud VM's memory. Why should the collection plan consider capturing this data before powering the VM down?

    1. A.Memory contents are automatically included in every storage backup
    2. B.Volatile data can be lost when the system is powered downCorrect answer: B
    3. C.Powering down permanently increases the reliability of memory contents
    4. D.Volatile data cannot contain information relevant to an incident

    Explanation: NIST states, "Volatile data refers to data on a live system that is lost after a computer is powered down or due to the passage of time." This makes timely acquisition important when memory evidence is needed. It does not imply that availability, safety, or legal constraints can be ignored.

    Reference: Guide to Integrating Forensic Techniques into Incident Response — Section 3.1.2, Acquiring the Data: Volatility

  8. 8A business specifies that recovery must lose no more than 15 minutes of data preceding a disaster. Which recovery objective expresses this tolerance?

    1. A.Recovery time objective
    2. B.Mean time to repair
    3. C.Service response-time objective
    4. D.Recovery point objectiveCorrect answer: D

    Explanation: AWS defines RPO as "the maximum acceptable amount of time since the last data recovery point." The requirement concerns the age of recoverable data, not the time needed to restore service or a mean repair duration.

    Reference: Disaster Recovery objectives — Recovery Point Objective

  9. 9A team is defining cloud security control objectives. Which inputs should drive those objectives?

    1. A.Only the controls that are easiest to configure in the console
    2. B.Only the names of services already purchased
    3. C.Applicable compliance requirements and risks from the threat modelCorrect answer: C
    4. D.A fixed checklist without regard to the workload's requirements

    Explanation: AWS says, "Based on your compliance requirements and risks identified from your threat model, derive and validate the control objectives and controls". These inputs connect governance, risk, and compliance to workload controls. Convenience or an unadapted checklist does not establish the relevant objectives.

    Reference: Identify and validate control objectives — SEC01-BP03

  10. 10A US HIPAA-covered entity uses a legally separate cloud provider to maintain ePHI on its behalf. The provider stores only encrypted ePHI and has no decryption key. How does HHS guidance classify the provider?

    1. A.Exempt from HIPAA business-associate obligations because the data is encrypted
    2. B.A business associate despite lacking the encryption keyCorrect answer: B
    3. C.A covered health plan solely because it operates cloud storage
    4. D.An unrelated recipient with no need for a business associate agreement

    Explanation: HHS states, "Lacking an encryption key does not exempt a CSP from business associate status and obligations under the HIPAA Rules." Under the specified on-behalf-of arrangement, encryption does not eliminate business-associate status or the required agreement.

    Reference: HHS Guidance on HIPAA and Cloud Computing — Guidance introduction: encrypted ePHI and business associate status

Exam Review

About Certified Cloud Security Engineer

Certified Cloud Security Engineer · US

Key exam facts

Provider
EC-Council Certification Body administers the examination; delivered through the ECC Exam Centre, with remote proctoring (RPS) available.
Format
Closed-book multiple-choice examination; online remote-proctored delivery is available.
Exam questions
Total questions: 125.
Time limit
4 hours
Passing score
70% (percentage passing score)
Exam fee
US CCSE v2 remote-proctored exam voucher: USD 550 list price. Qualifying EC-Council Academia students and faculty within the network: USD 350. Applicants without official training also pay a non-refundable USD 100 eligibility application fee before purchasing a voucher at the list rate.

Topics covered

  • Introduction to Cloud Security (8%)

    • Cloud Computing Fundamentals
    • Cloud Security Objectives and Issues
    • Cloud Security Insights
    • Evaluate CSPs for Security before Consuming a Cloud Service
    • Security Shared Responsibility Model in Amazon Cloud (AWS)
    • Security Shared Responsibility Model in Microsoft Azure Cloud
    • Discuss Security Shared Responsibility Model in Google Cloud Platform (GCP)
  • Platform and Infrastructure Security in Cloud (12%)

    • Understand Cloud Platform and Infrastructure
    • Risks and Threats Associated with Cloud Platform and Infrastructure
    • Secure the Key Components of Cloud Platform and Infrastructure
    • Design a Secure Data Center in Cloud
    • Cloud Platform and Infrastructure Security in AWS
    • Implement Cloud Platform and Infrastructure Security in AWS
    • Cloud Platform and Infrastructure Security in GCP
    • Implement Cloud Platform and Infrastructure Security in Google
    • Cloud Platform and Infrastructure Security in Microsoft Azure
    • Implement Cloud Platform and Infrastructure Security in Microsoft Azure
  • Application Security in Cloud (12%)

    • Understand Cloud Application Security
    • Cloud application security risks
    • Secure Software Development Lifecycle (SSDLC) of Cloud Applications
    • DevOps and Continuous Integration/Continuous Deployment (CI/CD)
    • Cloud application security controls
    • Application Security Features in AWS
    • Implement Application Security in AWS
    • Application Security Features in Azure
    • Implement Application Security in Azure
    • Application Security Features in GCP
    • Implement Application Security in GCP
  • Data Security in Cloud (12%)

    • Understand Data Security in Cloud
    • Cloud data storage fundamentals
    • Cloud storage architecture and life cycle phases
    • Risks, attacks, and issues in cloud data storage
    • Data security strategies and technologies in the cloud
    • Information Rights management Systems
    • Data retention and archiving strategies
    • Storage and Analysis of Data events
    • Storage services in Amazon Webservices (AWS)
    • Implement data security in Amazon Webservices (AWS)
    • Storage services in Google Cloud Platform (GCP)
    • Implement data security in Google Cloud Platform (GCP)
    • Storage services in Microsoft Azure
    • Implement data security in Microsoft Azure
  • Security Operations in Cloud (8%)

    • Discuss cloud security operations
    • Elements (standards and methods) in cloud data center physical/logical Operations
    • Security Operations to Build Cloud Infrastructure
    • Perform Security Operations for Cloud Infrastructures
    • Security Operations to Manage Cloud Infrastructure
    • Security Configurations Management for Cloud Infrastructure
    • Monitor Security Operations for Cloud Infrastructure
    • Security operations in Microsoft Azure
    • Implement security operations in Microsoft Azure
    • Security operations in Amazon Webservices (AWS)
    • Implement security operations in Amazon Webservices (AWS)
    • Security operations in Google Cloud Platform (GCP)
    • Implement security operations in Google Cloud Platform (GCP)
  • Penetration Testing in Cloud (8%)

    • Scope of cloud penetration testing
    • Generic penetration testing steps in the cloud
    • AWS-specific penetration testing steps
    • Azure-specific penetration testing steps
    • GCP-specific penetration testing steps
  • Incident Response in Cloud (8%)

    • Understand Cloud Incident Response
    • Cloud Incident Response Lifecycle
    • Understand How SOAR Accelerates Incident Response
    • Security Incident Response in AWS
    • AWS Investigation and Detection Tools
    • Security Incident Response in Microsoft Azure Cloud
    • Security Incident Response in Google Cloud Platform (GCP)
  • Forensic Investigation in Cloud (8%)

    • Discuss cloud forensics
    • Investigate security incidents in Amazon Web Services (AWS)
    • Investigate security incidents in Microsoft Azure
    • Investigate security incidents in Google Cloud Platform (GCP)
  • Business Continuity and Disaster Recovery in Cloud (8%)

    • Discuss Cloud Disaster Recovery and Business Continuity
    • Design Disaster Recovery and Business Continuity in Cloud
    • Architect Recovery and Resilience in AWS
    • Implement Recovery and Resilience in AWS
    • Business Continuity and Disaster Recovery in Microsoft Azure
    • Disaster Recovery Configurations in Azure
    • Implement BC/DR with Azure SQL Database
    • Configure BCDR for Azure Stack Edge VPN
    • Various Disaster Recovery Scenarios in Azure
    • Implement BCDR in Azure
    • Azure Partner Solutions for BCDR
    • BC/DR in Google Cloud Platform (GCP)
    • GCP Resources for Disaster Recovery (DR) and Business Continuity Plan (BCP)
    • Disaster Recovery for Data in GCP
    • Disaster Recovery for Applications in GCP
    • Architect DR for Cloud Infrastructure Outages
    • Implement BCDR in Google Cloud Platform (GCP)
    • Partners Solutions for Implementing BCDR in GCP
  • Governance, Risk Management, and Compliance in Cloud (8%)

    • Understand GRC in the Cloud
    • Cloud Governance
    • Implement and Maintain Governance for Cloud Computing
    • Risk management in the Cloud
    • Risk Management Framework and Process in the Cloud
    • Cloud Compliance
    • Implement GRC in the cloud
    • GRC in Amazon Web Services (AWS)
    • GRC in Azure
    • GRC in Google Cloud Platform (GCP)
  • Standards, Policies, and Legal Issues in Cloud (8%)

    • Laws Impacting Cloud Computing
    • Cloud Computing Standards
    • Legal Frameworks for Data Protection and Privacy
    • Audit Planning and Reporting in the Cloud
    • Outsourcing and Vendor Management
    • Standards, Policies, and Auditing in AWS
    • Standards, Policies, and Auditing in Azure
    • Standards, Policies, and Auditing in GCP

How to prepare

Work through the topics, read the explanation after each answer, and revisit the areas where you miss questions. Use the official outline and reference materials below to guide your study.

These independent practice questions are not actual exam items and do not guarantee a passing result.

Frequently asked questions

What is the exam format?

Closed-book multiple-choice examination; online remote-proctored delivery is available.

How many questions are on the exam?

Total questions: 125.

How long is the exam?

4 hours

What is the passing score?

70% (percentage passing score)

How much does the exam cost?

US CCSE v2 remote-proctored exam voucher: USD 550 list price. Qualifying EC-Council Academia students and faculty within the network: USD 350. Applicants without official training also pay a non-refundable USD 100 eligibility application fee before purchasing a voucher at the list rate.

Official sources and references

Confirm current exam arrangements with the exam provider.