Free Palo Alto Networks NGFW-Engineer Actual Exam Questions

B/D? Ansible doesn't handle log collection itself, so B seems off. Automating policy updates with playbooks (D) fits Ansible’s role better in managing firewalls efficiently.

D/C? I think D is the safer bet since Ansible’s main strength is automating tasks like pushing configs and policies consistently across devices. While updating threat databases (C) might happen sometimes, it’s usually a built-in NGFW function or handled by other tools. Ansible’s real value in hybrid cloud setups is cutting down manual config work, making D more aligned with its purpose here.

D, cause PA-7050 and CN-Series are known for advanced routing alongside VM-Series.

I agree with ruling out C because PA-850 and PA-460 are definitely not high-end enough for ARE. A seems best since PA-5280 and PA-7080 are known for advanced routing—so I’d pick A.

I’m thinking B might not be right since the intrazone default allow usually applies within the same zone, but IPSec traffic is often interzone. Could it be A instead of C? Or is the separate rule really mandatory?

It’s definitely C and D for me. You can’t rely on a single rule for both directions when it comes to IPSec tunnels; each direction needs its own rule. Plus, the interzone default deny policy means you have to explicitly allow IKE and IPSec/ESP packets, so those don’t get through automatically. Option B can’t be right since intrazone default allow doesn’t cover interzone tunnel traffic. And A is wrong because separate rules aren’t optional here.

B/C? Even with routes and policies, if the VSYS aren’t visible to each other (B), that could block the traffic. But the “allow inter-VSYS traffic” option (C) is often a must-have for zones to talk internally without leaving the firewall.

C/D? The question says security policies already exist between each zone and its external zone, so adding more policies between external zones (D) might be redundant. The key might be the “allow inter-VSYS traffic” setting inside those external zone configs (C), which controls whether zones in different VSYS can communicate. Without enabling that, traffic won't traverse between VSYS even if routes and policies look right. So I’d say enabling that option is the missing step here.

Makes sense to go with A because it ensures one firewall is always handling traffic, so downtime is limited. Upgrading the passive first after forcing a failover feels safer than shutting the active down outright like in B, which could risk unexpected downtime. C and D seem too risky since isolating or upgrading both at once can cause bigger service gaps. So yeah, sticking with A looks like the way to keep things running smoothly during the upgrade.

Guessing A, as it lets you upgrade one firewall without taking down both at once.

Disabling existing rules (D) doesn’t help; cert trust is key.

A. Clients have to trust the root CA cert in their trust stores; otherwise, SSL warnings will pop up when the firewall intercepts and decrypts traffic.

Makes sense to go with C here. Load balancers and health probes are designed to distribute traffic and detect failures across multiple zones, which fits the multi-AZ high availability requirement best. Active/active HA (D) sounds good but might be tricky across different zones without shared state or sync. So, C is safer and more aligned with CSP practices.

It’s C because load balancers handle traffic routing across zones, enabling failover.

I’m pretty sure it’s A and D here. Tunnel zones are definitely a thing when you want to secure VPN traffic, and Virtual Wire zones fit the use case of bridging interfaces without routing. Internal doesn’t usually appear as a zone type you configure manually, and Intrazone sounds more like a traffic category than a zone itself. So, I’d go with Tunnel (A) and Virtual Wire (D).

Maybe D and C? Virtual Wire zones make sense for bridging, and Internal sounds like a common default zone type on many firewalls, unlike Tunnel which might be more specific. Intrazone doesn’t seem like a standalone zone type.

B GlobalProtect is designed to directly associate users with their IPs during authentication, making it more accurate than indirect methods like port mapping or syslog.

B for me, GlobalProtect links users and IPs at the source reliably.

B Using an authentication sequence lets you try RADIUS first, then SAML, or vice versa, so both run side-by-side during the transition. D fits because you can add SAML into the existing RADIUS profile to support both without disruption.

It’s B, since sequences let you try multiple auth methods in order.