CompTIA Security+ SY0-701 Passing Score

Failure to comply with right-to-be-forgotten (data privacy) regulations can lead to significant fines imposed by regulatory authorities like GDPR enforcers. Such laws require companies to delete personal data upon user request.

Data breaches (B) are security incidents; revenue loss (C) and blackmail (D) may occur indirectly but fines are the direct legal consequence.

Regulatory compliance and consequences are critical topics in Security Program Management【6:Chapter 16†CompTIA Security+ Study Guide】

To identify authentication weaknesses in a customer-facing web application, the best method is dynamic analysis, also known as Dynamic Application Security Testing (DAST). Dynamic analysis evaluates an application while it is running, allowing testers to observe real-world interactions, session handling, login mechanisms, credential validation, access control failures, and runtime vulnerabilities such as brute-force weaknesses or authentication bypass conditions.

Security+ SY0-701 outlines DAST as the preferred approach for testing live web applications because it uncovers:

Weak session management

Broken authentication flows

Input validation failures

Misconfigurations in login portals

Runtime vulnerabilities that static code review cannot detect

Static analysis (A) only analyzes source code and may overlook logic flaws in authentication. Packet capture (B) inspects network traffic but cannot evaluate internal authentication logic. Agent-based scanning (C) is used for hosts, not web applications. Network-based scanning (E) finds port-level vulnerabilities but cannot assess application authentication mechanisms.

Therefore, dynamic analysis (D) is the most effective and accurate technique for discovering authentication weaknesses in live web applications.

The scenario describes legacy, business-critical devices with minimal vendor support that must be segmented and closely monitored. This strongly matches embedded systems commonly found in manufacturing environments (e.g., industrial machinery controllers, sensors, ICS/SCADA components). The Study Guide defines embedded systems as: “Embedded systems are computer systems that are built into other devices. Industrial machinery, appliances, and cars are all places where you may have encountered embedded systems.” Manufacturing organizations often can’t easily replace or patch these systems because they have long lifecycles and may depend on specialized firmware/RTOS and proprietary integrations. The same guide warns that legacy/unsupported platforms create risk due to lack of vendor security patches and recommends compensating controls: “Lack of support implies that no new security patches… will be released… In cases where the organization simply must continue using an unsupported operating system, best practice dictates isolating the system as much as possible… and applying as many compensating security controls as possible, such as increased monitoring and implementing strict network firewall rules.”

That guidance directly supports the question’s “segmented and monitored closely” language. Workstations typically have stronger patch/support options; core routers and DNS servers are important, but they are not usually described as embedded legacy devices with minimal vendor support in a manufacturing context.

Firewalls are classic examples of technical controls as they use technology to restrict or permit network traffic based on security policies. Technical controls are implemented through hardware or software solutions.

Security guards (A) and fences (C) are physical controls, while policies (B) are administrative controls.

Technical controls like firewalls are fundamental in securing network perimeters and endpoints as covered in the Security Architecture domain【6:Chapter 3†CompTIA Security+ Study Guide】.