(ISC)2 Information Systems Security Engineering Professional (CISSP-ISSEP, Aug 2025 blueprint) (ISC) (ISC) — Questions 226–300

Impact analysis translates exploited vulnerabilities into consequences for mission, operations, assets, and personnel. For a cross-domain connection, impacts may include data spillage, mission degradation, or loss of confidentiality across enclaves. This activity is essential because risk is defined by the combination of likelihood and adverse impact, which the Authorizing Official must weigh.

Centralising boundary enforcement tasks at the API Gateway directly satisfies the architectural constraint for perimeter security in microservices by intercepting incoming requests before they reach internal service meshes. Rather than forcing individual microservices to implement redundant security logic, the gateway acts as a reverse proxy that performs token validation, session verification, and cryptographic signature checks. Furthermore, it enforces rate limiting and throttling policies to mitigate Denial-of-Service attacks, ensuring that downstream services are protected from excessive traffic loads and unauthorised access attempts.

Replacing a cryptographic module alters the security posture and the controls implemented, so a security impact analysis is required. The ISSE must assess whether the change affects the authorization boundary or risk level, update the system security plan, and, if residual risk changes, seek Authorizing Official approval to maintain a valid authorization.

Degaussing renders magnetic media unrecoverable by removing the magnetic field, and incineration provides physical destruction. Retaining the degausser certification and the destruction certificate creates an audit trail. This layered approach meets the intent of sanitization and disposal for Top Secret magnetic media while providing verifiable evidence.

Configuring rate-limiting policies at the API gateway layer per user or per IP directly addresses the resource exhaustion constraint outlined in the scenario. This technical mechanism enforces strict consumption thresholds, preventing malicious actors or runaway clients from overwhelming backend services with excessive requests. By offloading request validation and throttling to the gateway, the system preserves downstream application integrity, maintains optimal availability, and mitigates denial-of-service vectors without burdening individual microservices.

This directly addresses the missing cryptographic verification, ensuring that only authentic firmware is installed. It is the most effective first step because it closes the vulnerability at its source. The ISSEP should recommend this technical control before considering transfer or acceptance, aligning with the risk management principle of reducing risk to an acceptable level.

The ausearch command queries the audit logs for specific message types. Using -m avc filters for SELinux Access Vector Cache denial messages, and -ts recent limits results to recent events. This directly reveals whether SELinux is denying the application's write attempt, providing the exact source and target contexts and the denied permission, which is essential for verifying the MAC enforcement.

Standard changes are pre-authorised, low-risk activities that follow a documented, repeatable procedure, thereby satisfying the stem’s constraint regarding exclusions from formal Change Advisory Board oversight. Because these tasks are well-understood and have a proven track record of success, they bypass the bureaucratic bottleneck of committee review to improve operational efficiency. This mechanism allows IT teams to focus governance resources on high-risk, non-routine modifications while maintaining security compliance, such as managing user access roles within Microsoft Entra ID through automated, pre-approved workflows.

PCRs store measurements of boot components, and remote attestation allows a challenger to verify these measurements against known-good values. This provides a hardware-rooted verification of boot integrity. By using PCRs and remote attestation, the system can prove that its boot process is unmodified, satisfying the requirement for measured boot and remote verification.

Verifying multi-factor authentication natively requires an end-to-end interactive authentication attempt to test the complete challenge-response mechanism. This directly satisfies the verification constraint in the stem, ensuring that the primary credential validation successfully triggers the out-of-band secondary token prompt required by administrative security policies. Simulating a live sign-in is the only empirical method to validate both the identity provider's policy enforcement and the cryptographic token delivery channels simultaneously, unlike static configuration reviews that cannot detect runtime integration failures.

ABAC evaluates attributes of the subject, object, and environment to make access decisions. It can incorporate user role, clearance level, and time of day dynamically, and policies can be centrally managed and updated. This flexibility directly matches the requirement for multi-attribute, dynamic access control in a service-oriented architecture.

Modularity directly satisfies the requirement for component isolation and manageability within secure systems design by decomposing complex architectures into discrete, bounded elements. This technical separation restricts attack surfaces and contains potential security breaches within individual modules, preventing lateral movement across the broader system. By establishing clear interfaces and reducing interdependencies, modularity enables security professionals to thoroughly inspect, verify, and test each component independently without necessitating a comprehensive review of the entire system architecture.

A security assessment evaluates whether the implemented controls are effective and produces the assessment report that the authorizing official uses to make a risk-based authorization decision. This activity directly generates the evidence needed for the authorization package, ensuring the system can be authorized to operate based on verified control effectiveness.

Centralising transport layer security (TLS) termination at the load balancer directly satisfies the high availability and security constraints by offloading computationally intensive cryptographic processing from backend application servers. This architectural pattern allows security teams to enforce consistent cipher suites, inspect incoming payloads for malicious patterns, and implement Web Application Firewall (WAF) filtering at a single entry point. Managing certificates centrally prevents expiration vulnerabilities across distributed nodes while ensuring seamless traffic distribution and continuous service availability.

The System Security Plan acts as the foundational baseline document that defines the security categorization, boundaries, and operational requirements of an information system, thereby directly identifying the specific security controls that must be implemented. This satisfies the fundamental requirement in the question stem regarding the planning phase of compliance, where the SSP outlines the intended security posture before deficiencies are subsequently tracked and remediated.

Centralising Personally Identifiable Information (PII) within a single repository directly satisfies the architectural constraint of the prompt by creating a concentrated target for attackers. When an ISSEP evaluates a centralised database pattern, the primary vulnerability stems from aggregation: compromising this singular architectural boundary bypasses distributed security controls and exposes the entirety of the sensitive data corpus at once, rather than isolating the blast radius across segmented storage nodes.

Emergency change procedures exist for time-critical situations and require that the security impact be recorded and reviewed after implementation. This allows the logging change to proceed within four hours while ensuring the reduced logging is assessed, compensated for if needed, and either ratified or reversed. It balances operational urgency with accountability for a security-relevant modification.

Conducting a Security Design Review early in the system lifecycle directly satisfies the temporal constraint implied by "early in the lifecycle." By evaluating architectural blueprints, threat models, and data-flow diagrams before any code is committed, security teams can identify fundamental authorization flaws and boundary-defying trust assumptions. Mitigating these structural vulnerabilities at the design stage prevents costly refactoring later, aligning securely with shift-left principles where remediation is exponentially cheaper than post-deployment patching.

Privileged users possess elevated system permissions that inherently bypass standard authorisation checks, satisfying the stem's concern regarding the lack of proper oversight. Without strict monitoring, segregation of duties, or the principle of least privilege enforced, an unchecked administrator can exploit these native administrative capabilities to alter system configurations, disable logging, and exfiltrate sensitive data. Because their credentials are trusted by default across operating systems and directory services such as Microsoft Entra ID, their actions often blend with legitimate administrative traffic, making malicious access abuse extremely difficult to detect in real-time.

Connecting as an authorized user and examining the session's route table, negotiated encryption algorithm, and local network reachability directly verifies all three policy requirements in one controlled test. It confirms the user is permitted, that split tunneling is absent, and that AES-256 is in use. This produces concrete evidence that the configured policy is enforced on live sessions.

Failing to document the security justification during the tailoring process violates foundational Risk Management Framework principles regarding traceability and defensibility. When security controls are modified, removed, or supplemented, assessors and authorizing officials require a formal record explaining the risk-based rationale for these adjustments. Without this documentation, the system lacks the necessary audit trail to verify that residual risk remains within acceptable organisational thresholds, directly undermining the continuous monitoring and authorisation lifecycle mandated by NIST guidelines.

FAR is the probability that the biometric system incorrectly accepts an unauthorized individual. This directly quantifies the risk of a security breach due to false acceptance. By analyzing FAR, the ISSEP can assess the likelihood of unauthorized access and recommend additional controls such as multi-factor authentication or liveness detection to reduce that risk.

Automated evaluation of operating system configurations directly against the Defense Information Systems Agency Security Technical Implementation Guide is achieved by leveraging the Security Content Automation Protocol. The SCAP Compliance Checker executes automated scans using standardized Extensible Configuration Checklist Description Format and Open Vulnerability and Assessment Language data streams, directly satisfying the efficiency constraint for validating compliance without manual auditing. This tool parses the official DISA STIG benchmarks to rapidly compare local registry settings, file permissions, and policy values against authoritative security baselines.

Fuzz testing feeds malformed or unexpected inputs to a running parser and monitors for crashes, hangs, or memory errors. The software must execute to produce those behaviors, so this is dynamic verification. For a command-and-control system, fuzzing protocol parsers can expose input-handling defects that code inspection might miss. It is an execution-based technique, which is why it qualifies as dynamic rather than static analysis.

A Common Criteria certificate issued after evaluation by an accredited laboratory provides independent verification that the module meets a published Protection Profile. This gives the program the assurance that cryptographic and security functions were tested against a recognized standard and that the security features are documented, which is exactly what the supply chain requirement demands.

Applying separation of duties between the build and deploy roles directly satisfies the regulatory constraint to maintain end-to-end integrity and auditability during security-sensitive changes. By enforcing this strict operational boundary, no single administrator possesses the privileges required to both compile code and push it to production. This technical control effectively prevents unauthorized code injection because an attacker or rogue insider would need to compromise two distinct accounts across separate authorization domains to insert malicious payloads into the regulated environment.

Annual physical validation of a Hardware Security Module (HSM) housing root Certificate Authority keys requires inspecting the physical security posture to detect unauthorized access attempts. Verifying the presence and integrity of tamper-evident seals satisfies the specific constraint of confirming external physical tampering, as these mechanical indicators reveal whether the chassis has been opened or compromised since the last audit. This directly addresses the requirement for verifying physical security controls without needing to execute a destructive internal inspection of the cryptographic boundary.

Revoking certificates and credentials prevents unauthorized access to other systems using the decommissioned system's identity. It is essential to remove trust and access rights during decommissioning. Failure to do so could allow an attacker to impersonate the system or access resources, even after the system is offline.

Risk acceptance for an accredited system belongs to the Authorizing Official, not the system owner or the ISSEP. The ISSEP's role is to analyze the exposure, document the technical and policy implications of unencrypted classified backups, and present options such as encryption, on-site storage, or a formal risk decision. Escalation preserves the integrity of the authorization process and the chain of accountability.

Implementing `X-Frame-Options` with either the `DENY` or `SAMEORIGIN` directive directly satisfies the requirement to prevent clickjacking attacks against the internal web application. This HTTP response header instructs the browser to restrict whether the target resource can be rendered within a `<frame>`, `<iframe>`, `embed`, or `<object>` tag. By setting the value to `DENY`, the application completely prohibits any domain from framing its content, whereas `SAMEORIGIN` restricts framing exclusively to pages originating from the identical domain context, effectively neutralising UI-redressing threats.

Identifying a non-FIPS 140-3 validated module is a compliance finding. The ISSEP process requires documenting the deviation and entering the risk management framework to evaluate operational impact, likelihood, and mitigation strategies. This ensures the issue is handled systematically rather than ad hoc, and provides traceability for accreditation decisions.

Dynamic testing with crafted flows directly exercises the enforcement mechanism and reveals actual mediation behavior, including shadowed rules and protocol bypasses. It validates that authorized flows pass and unauthorized flows are blocked, producing observable evidence tied to the information flow policy rather than to configuration intent. This is the strongest verification evidence for boundary enforcement.

The Assessment phase specifically satisfies the objective to verify that security controls are implemented correctly and operating as intended by conducting a comprehensive security assessment. This involves executing rigorous testing and evaluation procedures against defined baseline specifications to produce a security assessment report. By systematically gathering evidence on control efficacy, security professionals determine whether the safeguards meet the required organisational risk tolerance before authorising the system for operational use.

An abbreviated but documented assessment of the new interface balances schedule constraints with risk management rigor. It identifies threats, vulnerabilities, and impacts specific to the change, and gives the authorizing official the information needed to accept, mitigate, or reject the risk. This approach preserves the integrity of the risk process while accommodating the program timeline. It also creates an auditable record of the decision.

Configuring an authentication service to fail-open during an outage directly prioritises availability over confidentiality and integrity. When the external multi-factor authentication provider becomes unreachable, the access control mechanism defaults to granting entry rather than denying it. Consequently, this circumvents the primary security constraint specified in the stem—the reliance on multifactor verification—thereby removing the second factor entirely and permitting unverified users to authenticate successfully with single-factor credentials or none at all, exposing the system to unauthorised access.

Continuous monitoring under RMF involves ongoing monitoring of security controls, assessing the impact of changes, and providing regular updates to the Authorizing Official. This enables near real-time risk management and supports ongoing authorization. It is the core activity that maintains the ATO.

Authentication and authorization conditions form the core logical constraints necessary to satisfy the strict identification and privilege-scoping requirements mandated in a high-security access control policy. By defining cryptographic assertion checks and contextual least-privilege guardrails—such as device posture or risk-based conditional access evaluated by identity providers like Microsoft Entra ID—this element ensures that subjects must cryptographically prove their identity and dynamically validate their entitlement state prior to resource ingestion, directly fulfilling the rigorous verification constraint specified in the stem.

Ensuring that the cryptographic module actively appears on the NIST Cryptographic Module Validation Program (CMVP) validated list is essential because FIPS compliance relies strictly on formal certification status rather than vendor claims or self-assessments. This directly satisfies the constraint of verifying FIPS 140-2/-3 validated cryptography, as a module must undergo rigorous independent testing by an accredited NVLAP laboratory and receive formal NIST validation to legally and technically qualify as a certified implementation within regulated security architectures.

NIST SP 800-53 provides a comprehensive catalog of security and privacy controls for federal information systems and organizations. It includes guidance on tailoring controls through the application of scoping, parameterization, and supplemental guidance. For a cloud deployment, the ISSEP can use SP 800-53 to select and tailor controls based on the system's impact level and the cloud service model.

The System Security Plan documents implemented security controls, their boundaries and responsibilities for a system. Decommissioning removes those controls, so the SSP must be updated to reflect the changed control baseline and residual risk posture accurately.

Requirements Analysis is where stakeholder needs are decomposed into functional and security requirements, establishing the baseline from which architecture and design trace downward. Defining security functional requirements here ensures each maps to system architecture components later in the V-Model.

Integrating a hardware-based root of trust provides a secure foundation by anchoring cryptographic functions directly in tamper-resistant silicon, such as a Trusted Platform Module (TPM). This capability satisfies the NIST SP 800-160 Trustworthiness objective by ensuring that system boot integrity and cryptographic keys cannot be compromised by software-layer vulnerabilities. Establishing this immutable hardware baseline directly validates the operational reliability and resilience demanded by the standard's rigorous systems security engineering lifecycle.

This test directly validates the IPS's inline blocking and its ability to distinguish malicious from legitimate traffic. By sending both types, the engineer can confirm that malicious packets are blocked while legitimate traffic is unaffected. This is the most comprehensive way to verify the requirement in a controlled environment.

Administrative security controls, such as an Incident Response Plan, satisfy the procedural constraint of the stem by establishing formal policies, guidelines, and organisational frameworks that govern human behaviour and operational workflows rather than deploying physical or technical mechanisms. This document-driven safeguard dictates the precise escalation paths, containment strategies, and communication protocols required when a security event occurs, thereby standardising administrative oversight and ensuring that personnel respond to operational disruptions in a structured, repeatable, and compliant manner.

This comparison directly identifies whether logs are generated but not forwarded, or not generated at all. It isolates the failure point in the logging pipeline, such as agent misconfiguration, network issues, or parsing errors. This technique is fundamental for validating log collection integrity and is the most effective way to pinpoint where events are lost.

Network segmentation with industrial firewalls limits lateral movement and blocks unauthorized access to legacy PLCs. Since patching is not possible, isolating the devices reduces exposure to external threats. This is a fundamental compensating control for unpatched ICS components, as it prevents attackers from reaching the PLCs directly.

The Authorising Official (AO) exercises ultimate accountability during the Authorization phase by reviewing the security package—comprising the security plan, assessment report, and plan of action and milestones—to determine if the residual risk falls within acceptable organisational tolerance levels. This directly satisfies the stem constraint requiring the identification of the primary goal of this specific NIST Risk Management Framework phase, which culminates in the formal, documented acceptance of risk before system deployment.

The SSP is the RMF artifact that documents the authorization boundary, the selected NIST SP 800-53 controls, implementation statements, and the security posture of the system. It is the core document reviewed by the Authorizing Official during Step 4 (Assessment) and Step 5 (Authorization) of the RMF, making it the correct answer for this scenario.

The Statement of Applicability directly satisfies the ISO 27001 requirement to justify the inclusion or exclusion of specific controls by mapping organizational risk treatment decisions against the Annex A control set. This mandatory artifact records which controls are selected to address identified risks, the justification for those choices, and whether the implemented controls are operational, thereby providing auditors with a transparent compliance baseline for the ISMS scope.

Testing actual traffic against each approved and denied path provides direct evidence that the enforcement mechanism behaves as the flow matrix specifies. This is dynamic verification: it validates the implemented configuration under real conditions and detects misordered rules, shadowed entries, or unintended implicit permits that static review may miss, which is exactly what acceptance testing demands.

A chronological series of vulnerability scan reports directly satisfies the stem's requirement to prove recurring execution over time. By inspecting timestamps and unique scan identifiers across multiple documents spanning the defined frequency interval, an auditor can empirically verify that automated scheduling mechanisms are functioning persistently. Isolated single reports or static configuration policies only demonstrate capability rather than actual historical compliance, making successive historical outputs the definitive empirical artifact required for rigorous accreditation.

IPsec in tunnel mode with IKEv2 provides confidentiality, integrity, and mutual authentication through the use of ESP and AH, and IKEv2 supports strong authentication methods such as certificates. It is a standard for site-to-site and remote access VPNs, and meets the requirements for protecting sensitive data in transit. Therefore, it is the correct choice for this scenario.

Deploying an authenticated API gateway satisfies the constraint that the underlying vendor-provided API cannot be modified directly by the development team. By placing the vulnerable API behind a reverse proxy or gateway, all incoming requests are intercepted and forced to authenticate via robust protocols such as OAuth 2.0 before reaching the legacy endpoint. This architectural pattern establishes an external security perimeter, effectively remediating the weak authentication flaw at the network and application boundary without requiring access to the proprietary source code.

An authenticated scan reads the actual configuration of the live host, enumerating running services, audit policy, and file permissions directly from the system. This produces objective evidence of the implemented state rather than intended state. Manual inspection of the scan output confirms the settings and catches nuances the automated check may not interpret, making this the strongest verification for a pre-production baseline review.

Moving the data to Write Once, Read Many (WORM) media directly satisfies the seven-year regulatory retention requirement by enforcing hardware-level immutability. This cryptographic or physical write-protection mechanism permanently prevents data alteration, deletion, or premature overwriting for the duration of the mandated retention period. Consequently, it guarantees long-term data integrity and audit compliance without relying on software access controls that could be compromised or inadvertently modified over time.

Root CA private keys must be securely destroyed to prevent forgery of new credentials, and the HSM's zeroization function is the approved method for eliminating key material. Recording the destruction provides the audit evidence needed for the decommissioning record. This action addresses the highest-risk component of the legacy system.

Digital signatures satisfy the non-repudiation constraint by leveraging asymmetric cryptography to bind an identity to a specific message. When a sender encrypts a message hash with their private key, it provides mathematical proof of origin and ensures message integrity. Because only the private key holder could have generated that signature, the sender cannot successfully deny authorship, thereby fulfilling the core legal and technical requirements of non-repudiation.

Multi-tenant cloud environments share underlying physical hardware, CPU caches, and memory buses across distinct tenant boundaries. This infrastructure sharing enables side-channel attacks, such as cache-timing exploits, where a malicious tenant monitors hardware resource contention to infer data belonging to another tenant on the same host. This specific vulnerability directly satisfies the stem's constraint of a risk unique to multi-tenancy, as dedicated single-tenant architectures do not expose workloads to cross-tenant hardware resource sharing.

Sanitization directly satisfies the decommissioning constraint of ensuring secure asset disposal by permanently overwriting storage media or executing cryptographic erase commands, which effectively destroys the physical magnetic or flash-state structures that hold residual data. This technical procedure ensures that even advanced forensic recovery techniques cannot reconstruct the underlying data blocks, thereby neutralising the risk of data leakage when hardware leaves organizational control.

SP 800-171 SC controls include cryptographic protection for data in transit and at rest, while MP controls address sanitization, marking, and physical control of media containing CUI. Together, they directly ensure confidentiality of CUI both in transit and at rest, making them the priority families for this requirement.

For a NIPS to block traffic, it must be deployed inline and the relevant policy rules must be configured with a blocking action rather than alert-only. Verifying the interface pair mode and the policy action directly confirms whether the system is capable of dropping malicious packets. This is the first configuration to check because it determines the fundamental enforcement capability.

At the concept stage, before requirements are baselined, the appropriate security engineering work is to understand stakeholder needs, mission risk, and the operating environment, then derive security objectives and initial protection needs. This early risk assessment shapes all subsequent requirements and design decisions. It is the recognized entry point that ensures security is engineered in rather than added later, which is exactly what the chief engineer is asking for.

Protected Branches restrict who may push or merge to master, and Merge Request approvals require designated approvers before merging. Together they enforce authorised-engineer-only changes, satisfying the requirement that security-critical modifications be verified prior to reaching the master branch.

Network segmentation enforces strict boundary controls and traffic flow restrictions between distinct zones using internal firewalls, VLANs, and virtual routing instances. This architectural mechanism directly satisfies the requirement to prevent lateral movement by isolating network segments, thereby containing an initial breach and denying attackers the ability to easily pivot across the wider enterprise infrastructure.

Checking the implicit deny rule confirms the firewall's default posture: any packet lacking a matching allow rule is dropped, satisfying the requirement that only explicitly permitted traffic passes. This verifies the deny-by-default principle underpinning the rule set, ensuring no unintended traffic slips through unexamined.

Encapsulation hides internal data behind well-defined interfaces, and modularity partitions the trusted computing base into isolated units. Together they ensure a compromise in one module cannot directly reach another's internals, confining damage and matching the architecture described in the review.

Before removing a system from the authorization boundary, the organization must confirm that data has been handled according to the records retention schedule and that media sanitization is complete and documented. This ensures regulatory and contractual obligations are met and that residual data does not remain on media. Without this verification, the boundary change could leave unprotected data behind.

The PDP evaluates each access request against policy, identity and contextual signals, then issues the allow, deny or modify decision that enforcement points act upon. This decision function is the core of Zero Trust's dynamic authorisation.

Misuse cases directly satisfy the constraint of integrating security into the requirements phase by inverting traditional use case modelling to define how malicious actors might subvert system functions. By explicitly detailing malicious interaction scenarios, security architects can derive negative functional requirements and security constraints early in the software development lifecycle. This technical mechanism ensures that threat modelling and defensive mitigations are structurally embedded into the architectural blueprints rather than retrofitted during later implementation stages.

NIST SP 800-53 control SA-10 governs Developer Configuration Management, directly satisfying the server migration constraint for maintaining security-critical configurations during the software and system development lifecycle. This control ensures that suppliers and developers integrity-protect, baseline, and meticulously track changes to hardware, software, and firmware components before deployment into production. By enforcing strict configuration controls and automated tracking at the vendor level, it prevents supply chain tampering and guarantees that the incoming server baseline strictly adheres to organisational security mandates.

Testing the badge reader system directly verifies that the physical access control mechanism is implemented and functioning correctly. By attempting entry with authorized and unauthorized badges, the engineer can confirm that the system enforces access restrictions as intended. This is a hands-on verification activity that provides objective evidence of control effectiveness. It aligns with the requirement to validate that access control mechanisms are properly implemented in the facility.

Data collection without analysis and escalation produces noise, not risk awareness. A defined process ensures that significant changes, such as new vulnerabilities or control failures, are evaluated for impact and communicated to the decision-maker who owns acceptance. This closes the loop between monitoring and governance, which is essential for an accurate and actionable risk picture.

Identity-based authentication satisfies the core Zero Trust constraint of transitioning from implicit network perimeter trust to explicit verification. By leveraging directory services such as Microsoft Entra ID to cryptographically verify user credentials, multi-factor authentication, and device posture before granting access, the enterprise can continuously validate identities regardless of whether the request originates from inside or outside the corporate network, ensuring that access decisions are dynamically tied to verified contextual signals rather than location.

Relying solely on hidden internal mechanisms to maintain confidentiality fails because determined adversaries can easily reverse-engineer proprietary protocols or undocumented codebases using modern decompilation tools and dynamic analysis. Once the underlying architecture is exposed, the absence of robust cryptographic controls or access enforcement leaves the system entirely vulnerable. This satisfies the design review constraint by identifying that obscurity violates foundational security principles, proving that concealment is never a substitute for mathematically sound, verifiable engineering protections.

Running the container process as the 'root' user is a critical vulnerability because container runtimes share the host Linux kernel's namespace abstraction by default. If an attacker achieves remote code execution within the container, root privileges inside the container often translate directly to root-level access on the underlying host due to inadequate privilege separation or capability dropping. To satisfy the cloud-native vulnerability assessment requirement for this Engineered System, an ISSEP must identify and remediate this misconfiguration by enforcing non-root execution via the `USER` directive in the Dockerfile or Kubernetes security contexts.