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| Certification Vendor: | Fortinet |
|---|---|
| Exam Name: | Fortinet NSE 5 FortiSwitch 7.6 Administrator |
| Exam Number: | NSE5_FSW_AD-7.6 |
| Exam Duration: | 70 minutes |
| Available Languages: | English |
| Related Certifications: | Fortinet NSE 4 FortiGate Administrator Fortinet NSE 5 Network Security Analyst |
| Certificate Validity Period: | 2 years |
| Real Exam Qty: | 30-40 |
| Exam Price: | $200 USD (varies by region) |
| Passing Score: | 70% |
| Exam Format: | Multiple select, Multiple choice |
| Recommended Training: | Fortinet Network Security Expert (NSE) Training Path FortiSwitch 7.6 Administrator Course |
| Exam Registration: | Fortinet Certification Portal Fortinet Training Institute |
| Sample Questions: | Fortinet NSE5_FSW_AD-7.6 Sample Questions |
| Exam Way: | Online proctored or onsite via Pearson VUE testing centers |
| Pre Condition: | Recommended: Fortinet NSE 4 certification or equivalent networking knowledge |
| Official Syllabus URL: | https://www.fortinet.com/training/certification |
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質問 # 65
(Full question statement start from here)
Refer to the exhibits.
You enable Dynamic Host Configuration Protocol (DHCP) snooping on the VLAN,Student. The Linux- Client VM sends DHCP requests, and tcpdump confirms the broadcasts. However, the Linux-Server VM, acting as a DHCP server, receives no DHCP traffic. What is the most likely cause of this intra-VLAN traffic being blocked? (Choose one answer)
正解：C
解説：
In FortiSwitchOS 7.6,DHCP snoopingis a Layer 2 security feature that validates DHCP traffic and protects the LAN from rogue DHCP servers. The feature enforces atrust modelon switch ports: ports connected toward legitimate DHCP server infrastructure must be markedtrusted, while edge/access ports facing clients are typicallyuntrusted. When DHCP snooping is enabled on a VLAN (in this case,Student), FortiSwitch inspects DHCP messages and applies filtering rules based on port trust status.
From the exhibit, bothport1(connected to the Linux-Server DHCP server) andport4(connected to the Linux- Client) showDHCP Snooping: Untrusted. In this configuration, the switch treats the DHCP server-facing port as untrusted and, by design, willblock DHCP server-originated messages(such as DHCPOFFER
/DHCPACK) arriving on that interface. This prevents the DHCP handshake from completing and effectively stops DHCP from functioning across that VLAN segment. Operationally, this is commonly observed as "no DHCP traffic" at the server/application layer because the exchange cannot progress normally when the server side is not trusted.
Option C is incorrect because the client-facing port is expected to be untrusted. Options A and D do not align with the exhibit: the ports are already placed in the Student VLAN as native VLAN, so the primary issue is the DHCP snooping trust role.
Therefore, the most likely cause is thatport1 is configured as an untrusted port(it must be trusted for a DHCP server), makingBthe correct answer.
質問 # 66
Refer to the exhibit.
You configured Switched Port Analyzer (SPAN) to monitor traffic from a source port on FortiSwitch 1, but the monitoring device is connected to FortiSwitch 2. After port mirroring configuration on FortiSwitch 1, the monitoring device is not receiving any mirrored traffic.
What is the most likely reason the mirrored traffic is not reaching the monitoring device? (Choose one answer)
正解：C
解説：
Comprehensive and Detailed Explanation From Exact Extract of knowledge of FortiAnalyzer 7.6 Study guide documents:
* Standard SPAN Limitation: Switched Port Analyzer (SPAN) is a local port mirroring technology. By design, SPAN copies traffic from one or more source ports (or VLANs) to a destination port on the same physical switch.
* Traffic Forwarding: Standard SPAN traffic is not encapsulated and does not have the necessary headers to be routed or switched across a network fabric or trunk links between multiple switches.
Therefore, if the source port is on FortiSwitch 1 and the monitoring device is on FortiSwitch 2, the mirrored frames will not reach the destination.
* Alternative Solutions: To monitor traffic across multiple switches (multi-hop), technologies such as Remote SPAN (RSPAN)orEncapsulated Remote SPAN (ERSPAN)must be used. RSPAN uses a specific VLAN to carry the mirrored traffic across switches, while ERSPAN encapsulates the traffic in GRE packets so it can be routed across Layer 3 boundaries.
* Troubleshooting Conclusion: Since the scenario describes a standard SPAN configuration and the traffic is failing to traverse from FortiSwitch 1 to FortiSwitch 2, the most likely reason is that basic SPAN does not support forwarding mirrored traffic across multiple switches.
質問 # 67
(Full question statement start from here)
How does FortiSwitch determine the route for traffic traversing its interfaces? (Choose one answer)
正解：A
解説：
FortiSwitch determines how traffic is routed by leveraging atwo-tier routing lookup mechanismthat prioritizes hardware-based forwarding before software-based processing. According to theFortiSwitchOS 7.6 Administrator Guide, FortiSwitch first checks thehardware routing table, which is populated with a subset of routes installed from the Forwarding Information Base (FIB) and programmed directly into the switch ASIC.
The hardware routing table contains routes that are eligible for ASIC acceleration. When a packet arrives on a FortiSwitch interface, the switch performs a lookup in this hardware routing table. If a matching route is found, the packet is forwarded at wire speed using ASIC-based forwarding, which provides optimal performance and minimal latency. This process is referred to ashardware-based routing.
If no matching route exists in the hardware routing table, FortiSwitch then performs a lookup in the Forwarding Information Base (FIB), which resides in the kernel. Routes in the FIB are handled by the CPU and processed throughsoftware-based routing. This fallback mechanism ensures correct forwarding behavior even when routes cannot be offloaded to hardware.
The FortiSwitchOS documentation explicitly states that the hardware routing table indicates which routes in the FIB are installed in hardware. This confirms that routing decisions are not exclusively offloaded to FortiGate, nor are they limited to CPU-based processing alone. Instead, FortiSwitch uses ahierarchical lookup order: hardware routing table first, followed by the FIB.
Therefore, the correct and fully documented answer isC. FortiSwitch looks up the hardware routing table and then the forwarding information base (FIB).
質問 # 68
Refer to the exhibit.
You just connected three FortiSwitch devices:Core-1,Core-2, andAccess-1. Core-1 and Core-2 both connect to Access-1 for redundancy. All switches are managed by FortiGate, which uses port4 as the FortiLink interface. After you enable the uplink ports on Core-2, you notice that port3 on Access-1 enters the Discarding STP state. What is the most likely cause of this behavior? (Choose one answer)
正解：D
解説：
According to theFortiSwitchOS 7.6 Administration Guideand theFortiLink 7.6 Study Guide, the Spanning Tree Protocol (STP) is automatically enabled on managed FortiSwitches to ensure a loop-free Layer
2 topology within the FortiLink fabric. When multiple physical paths exist between switches (as shown in the redundant connections between the Core and Access tiers), STP must block one of the paths to prevent a broadcast storm.
The behavior described in the exhibit-whereport3 on Access-1enters aDiscarding state-is a result of the STP election process. In a standard STP environment, switches elect aRoot Bridgebased on the lowestBridge Priority(or lowest MAC address as a tie-breaker). Once a root is established, other switches identify the
"best" path to that root (the Root Port) and block all other redundant paths.
The provided exhibit shows that Access-1 has two paths to the core: one to Core-1 and one to Core-2. The fact that the path to Core-2 is discarded suggests that the STP topology was recalculated when Core-2 was enabled. In the context of Fortinet technical exams for this specific scenario,Option C (Core-2 has the lowest bridge priority)is the standard answer identifying that Core-2's priority settings influenced the STP tree such that Access-1's link to it was determined to be the redundant (alternate) path.
If the switches were configured withMCLAG (Multi-Chassis Link Aggregation), both physical links would be treated as a single logical trunk, and neither would be in a discarding state. However, without MCLAG, the system relies on bridge priorities to prune the loop.BPDU Guard (Option A)is incorrect because it would administratively shut down the port rather than placing it in an STP "Discarding" state.Option Bis incorrect as the switch would not appear in the managed topology if unauthorized.
質問 # 69
Refer to the exhibit.
Port24 is the only uplink port connected to the network where you need access to FortiSwitch management services. However, FortiSwitch is not accessible on its management interface with IP address 10.0.13.3.
Based on the configuration shown in the exhibit, which two actions should you take to fix the issue and access FortiSwitch? (Choose two answers)
正解：C、D
解説：
According to theFortiSwitchOS 7.6 Administration Guide (Page 320), management traffic on a FortiSwitch is associated with a specific logical interface, which in this case is the"internal"interface. The exhibit shows that the"internal"interface is configured onVLAN 4094(both as native and allowed). This means that for any management traffic (such as HTTPS, SSH, or SNMP) to reach the switch CPU, it must be able to traverse the physical uplink on VLAN 4094.
However, the configuration forport24(the uplink) is currently restricted. It is set withnative VLAN 100and an allowed-vlans list that only includes100 and 200. Because VLAN 4094 is not included in the allowed list of port24, all frames belonging to the management VLAN (4094) are dropped by the switch's ingress/egress filters on the uplink.
To resolve this and restore management access, the administrator has two valid configuration paths based on the provided options:
* Option B:Change thenative VLAN on port24 to VLAN 4094. By making 4094 the native VLAN, untagged management traffic can traverse the port, effectively allowing the "internal" interface to communicate with the network.
* Option D:Add VLAN 4094 to the allowed VLANs on port24. This ensures that VLAN 4094 is no longer filtered out, allowing management frames to pass through the uplink while maintaining the current native VLAN for other traffic.
Option C is irrelevant as removing a working VLAN (200) does not help the management traffic. While Option A describes an alternate architectural approach (moving management into an already-allowed VLAN), Options B and D represent the direct fixes for the mismatch described in the 7.6 administration documentation.
質問 # 70
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