AAA stands for:

Authentication: Validates user identity (Option 1).

Authorization: Grants access to specific resources based on policy (Option 3).

Accounting: Tracks user activity (Option 2).

This ordering matches standard network security architecture:

Who are you? → Authentication

What are you allowed to do? → Authorization

What did you do? → Accounting

Incorrect:

A–C. Misplace or mislabel AAA functions.

EAP-TLS requires both server and client-side digital certificates, which adds complexity in client certificate management.

EAP-TTLS uses a server certificate to establish a secure TLS tunnel, after which user credentials (e.g., username/password) are sent inside the encrypted tunnel. No client certificate is needed.

Incorrect:

A. EAP-TLS also encrypts credentials using TLS.

B. EAP-TLS supports client certificates (it’s the core requirement).

C. Both EAP methods require an authentication server.

Rogue APs pose a significant risk and should be detected and mitigated automatically.

D. A properly configured Wireless Intrusion Prevention System (WIPS) can detect unauthorized APs and prevent client associations to them in real time.

Incorrect:

A. While WPA2-Enterprise adds client-level protection, it does not detect rogue APs.

B. Hiding SSIDs is ineffective—SSIDs are still discoverable in management frames.

C. Manual scans are labor-intensive and impractical for ongoing monitoring.

E. Port security controls wired threats but cannot detect rogue APs using wireless signals.

In environments where PSK-based authentication (like WPA2-Personal) is still in use due to legacy device constraints:

C. Regularly changing static passwords helps limit exposure from credential leaks or previous employees retaining access.

Incorrect:

A. MSCHAPv2 is vulnerable to offline attacks; recommending strong passwords is good, but that alone isn’t sufficient.

B. WEP is insecure regardless of password strength due to IV reuse.

D. Certificates are stronger, but not always feasible for legacy systems.

E. EAP-TLS is ideal but not always compatible with all devices; policies should be flexible to device capabilities.

Developing a robust WLAN security policy requires buy-in from executive or senior management. Without management support, it’s difficult to enforce compliance, allocate resources, or prioritize security among other organizational objectives. This foundational step ensures that policy creation and enforcement are feasible and aligned with organizational goals.

Incorrect:

A. Device/vendor specifics are addressed later during implementation.

C. End-user training materials are created after the policy is finalized.

D. Security policy software can assist, but is not essential compared to management support.

A strong WLAN security policy should encompass both technical controls and user education.

C. Educating users about secure password creation and acceptable use policies helps reduce risks due to weak authentication and misuse.

E. Social engineering is a common attack vector, and educating users to recognize and report such attempts is critical.

Incorrect:

A. MAC addresses are always transmitted in the clear, even with encryption.

B. Policies should be shared with users to promote compliance and awareness.

D. Passwords for administrative systems should not be disclosed in public documentation or policy documents.

Peer-to-peer blocking (also called client isolation) is useful in open or public WLANs to prevent devices from communicating directly with each other.

B. In public hot-spots, isolating users helps protect against malware spread, snooping, and attacks from nearby devices.

Incorrect:

A. In home networks, peer-to-peer communication is often desired for file sharing.

C. Voice over Wi-Fi may rely on peer communication (e.g., multicast).

D. In university setups using multicast, peer-to-peer restrictions could hinder functionality.