Free Palo Alto Networks Cybersecurity-Apprentice Actual Exam Questions

D imo, if VLAN support isn’t guaranteed, creating separate subnets alone still segments the network and controls traffic flow. It’s a bit less flexible but avoids relying on switch features that might not exist.

B/D? VLANs in B give better traffic isolation and flexibility. Without VLAN support, D still segments IPs and controls traffic but less efficiently. A flat network or single subnet just won’t scale well here.

I’m ruling out D because static routing definitely doesn’t use protocols like RIP or OSPF—that’s all dynamic. Also, C sounds off since static routing isn’t ideal for large, changing networks; it’s more for simpler setups. The real difference is about flexibility—dynamic routing adapts on its own, static doesn’t—so that points to B. But is there a scenario where A could still have some merit, like in smaller or very stable networks?

B. Static routing is pretty rigid since you have to manually update routes if something changes, which makes it less flexible for networks that evolve. Dynamic routing protocols like OSPF or RIP can detect topology changes and adapt automatically, which is a big advantage in multi-branch setups. Also, option D is clearly wrong because static routing doesn’t use protocols like RIP or OSPF—that’s all dynamic routing stuff. So the main difference is really about automatic adjustment versus manual updates.

It’s A because error detection usually happens at the Transport layer in TCP/IP, while the OSI Physical layer deals more with raw bit transmission, not error checking. That difference stands out here.

C, since both Internet and OSI Network layers focus on routing and IP addressing.

Maybe A and B again, but thinking more about it, false positives basically mean harmless stuff is mistaken for a threat. C is about real threats, so it’s out. D says no action needed, but that’s more a response than a characteristic of the alert itself. E talks about malicious activity ignored, which sounds like a false negative, not positive. So A and B still feel right since they both describe legitimate or benign actions wrongly flagged as threats.

A/B? Both clearly point to normal activities wrongly flagged. D and E don’t fit false positives since they involve ignoring alerts or malicious activity actually happening.

It’s C because the problem is definitely failing to translate domain names to IPs.

A imo, because if DNS assigned IPs wrong, name resolution would fail too.

D/C? The question says “design and prepare,” which feels more like weaponization than delivery. Delivery is just the sending part, so D fits better here.

D, it’s about building and packaging the exploit before sending it out.

D imo, since configuring firewalls is about securing the workloads they run, which the org controls directly. The provider handles the hardware and data center security, but the org needs to set up network protections like firewalls for their VMs. Managing user identities (C) is important too, but sometimes identity management tools are provided by the cloud service itself, so firewall config feels more clearly on the org side here.

This one’s about what the org controls directly. Since A and B are clearly provider’s job, it’s between C and D. Organizations always manage their user accounts and access rights, so I’d say C.

I get why B stands out—it’s definitely about real-time threat spotting. Another way to look at it: A is more about protecting data after detection, C is about setup and access control, and D is for after an incident. Detect’s main job is finding suspicious activity early, usually by monitoring things like network traffic, logs, and endpoints. So B fits best since it’s specifically focused on analyzing traffic to catch threats as they appear.

D imo, since designing disaster recovery is more about responding after an incident, not detecting it. The question is about the primary goal of Detect, which is real-time identification of threats. A and C are more about protection and access control, so they don’t fit here. B fits best because analyzing network traffic (and typically logs or endpoints too) helps spot attacks as they happen, which aligns with detection’s purpose.

D, because a wrong mask can make devices think they’re on different networks.

B/D? If the switch is Layer 3, it might route all traffic through gateway; misconfigured mask also fits.

Maybe D could work better than just monthly newsletters. Giving employees control over when they do their training might increase their motivation and actually get them to pay attention, instead of ignoring something sent as a newsletter. Plus, deadlines can stress people out or cause procrastination, so letting them pick their schedule could lead to better retention. One-time training (A) is definitely not enough, and memorizing malware (C) isn’t practical. Regular newsletters (B) are good, but engagement is the real challenge, so flexible timing in D might help with that.

Option B, regular updates keep security fresh in mind, unlike one-off training.

Not B, since hosted solutions usually have standard setups rather than full customization. A fits better because you avoid big upfront costs and can scale resources easily without owning hardware.

Makes sense to ditch D since hosted clouds definitely don’t give you full control. So yeah, A is the way to go for lowering costs and staying flexible.

It’s C because SOCs mainly deal with spotting and reacting to cyber attacks as they happen, not building apps or managing physical security. B and D are definitely off-topic for a SOC’s main job.

C/D? I get why C fits since SOCs handle threats, but D could be tempting if you think about developing security tools. Still, monitoring and response seem more core to SOC work.

B definitely, since it targets the trusted IP range and port 443 specifically. C makes sense too to block everything else from untrusted sources, keeping the access tight and secure.

It’s definitely B and C again for me. Allowing only that specific IP range to port 443 keeps the access tight and secure, while the deny-all rule makes sure nothing else slips in. A and D don’t really fit because port 80 isn’t part of the requirement, and SSL decryption isn’t necessary just to allow or block traffic. E’s about NAT, which isn’t mentioned or required here. So sticking with B and C covers both allowing the right traffic and blocking everything else effectively.

B. I agree with the points on D not being unique—stateful inspection has been around a while. Also, A and C are pretty basic firewall stuff, nothing new. The real difference with NGFWs is the ability to do deep packet inspection, which means they look beyond just headers and ports, actually checking the content for threats. That’s why B stands out as the defining feature here.

It’s B because stateful inspection (D) is standard for most firewalls now, so it’s not unique. The real game-changer with NGFWs is looking inside the packets to spot threats, which only DPI does.

Probably D, but from a containment angle. If the traffic looks suspicious enough, cutting off the device quickly prevents any possible data leak or malware spread. You can do deeper analysis after isolating the device. Waiting too long risks damage. Blocking the IP might be too narrow if the attacker switches targets, so disabling the device is a safer first step until you know more.

Makes sense to gather more context before taking action. I’d go with B since analyzing logs helps confirm if the traffic is really harmful or just a false positive.