IAM troubleshooting, endpoint hardening, cryptography, vulnerability management, automation, and specialized system security.
This is the largest domain on the exam. It covers troubleshooting IAM components in enterprise environments, analyzing requirements to enhance endpoint and server security, troubleshooting complex network infrastructure security issues, implementing hardware security technologies, and securing specialized and legacy systems against threats. Candidates must use automation to secure the enterprise through scripting (PowerShell, Bash, Python), SOAR, IaC, and generative AI. The domain also emphasizes advanced cryptographic concepts including PKI, post-quantum cryptography (PQC), homomorphic encryption, forward secrecy, and key stretching, as well as applying appropriate cryptographic use cases for data at rest, in transit, and in use. Vulnerability management with SCAP frameworks (OVAL, XCCDF, CPE, CVE, CVSS) and patching automation are also covered. (31% of exam — Objectives 3.1 through 3.8)
5 minutes
5 Questions
Security Engineering in CompTIA CASP+ refers to the systematic design, implementation, and management of security controls and processes throughout an organization's infrastructure and systems. It involves applying engineering principles to create secure systems that protect against threats while maintaining functionality and performance. Security Engineering encompasses several critical domains. First, it includes threat modeling and risk assessment to identify vulnerabilities and potential attack vectors before they can be exploited. Engineers must understand attack surfaces and design defense mechanisms accordingly. Second, it involves secure architecture design, where systems are built with security as a foundational principle rather than an afterthought. This includes implementing defense-in-depth strategies with multiple layers of protection. Third, Security Engineering requires knowledge of cryptography, authentication mechanisms, and access control systems to protect data confidentiality, integrity, and availability. Engineers must select appropriate cryptographic algorithms and implement them correctly. Fourth, it encompasses secure development practices, including secure coding standards, code review processes, and secure software development lifecycle (SSDLC) methodologies. Fifth, Security Engineering involves infrastructure security, covering network segmentation, firewall configurations, and secure system hardening. Engineers must also consider compliance requirements and standards like NIST, ISO 27001, and industry-specific regulations. Additionally, Security Engineering includes incident response planning, disaster recovery, and business continuity strategies to minimize impact from security breaches. Professionals must stay current with emerging threats and technologies while evaluating security tools and solutions. Finally, Security Engineering requires effective communication with stakeholders, balancing security requirements with operational needs and costs. CASP+ emphasizes that security engineers must think strategically, understand business context, and make decisions that protect organizational assets while enabling business objectives, making Security Engineering a critical competency for advanced security professionals.Security Engineering in CompTIA CASP+ refers to the systematic design, implementation, and management of security controls and processes throughout an organization's infrastructure and systems. It involves applying engineering principles to create secure systems that protect against threats while m…