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| Section | Weight | Objectives |
|---|---|---|
| System Architecture & Design | 20% | - Hardware sizing & resource planning - Security Fabric integration & scaling - VDOM design & multi-tenant deployment - FortiOS 7.6 architecture & components |
| Advanced Routing & VPN | 25% | - OSPF, BGP, IS-IS configuration & optimization - SD-WAN design & SLA management - Route redistribution & filtering - IPsec VPN & ADVPN architecture |
| Centralized Management | 20% | - Configuration provisioning & version control - FortiManager 7.6 deployment & role assignment - FortiAnalyzer logging & reporting - Policy packages & object templates |
| High Availability & Redundancy | 15% | - FGCP/FGSP/vCluster deployment - Cross-data center redundancy - Session synchronization & failover |
| Monitoring & Troubleshooting | 10% | - Connectivity & performance troubleshooting - Diagnostic tools & CLI analysis - Fabric synchronization issues |
| Security Policy & Services | 10% | - Identity-based policies - Advanced firewall & security profile design - NAT & IP pool optimization |
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NEW QUESTION # 76
Refer to the exhibit.
The partial output of diagnose sys session stat command is shown.
Which statement about the output shown in the exhibit is correct?
Answer: B
Explanation:
The correct answer is C.
The exhibit shows:
562 in ESTABLISHED state
27 in CLOSE state
memory_tension_drop=0
ephemeral=0/131072
According to the study guide, for TCP sessions: "The protocol state in the session table is a two-digit number.
For TCP, the first number (from left to right) is related to the server-side state and is 0 when the session is not subject to any inspection (flow or proxy)... The second digit is the client-side state." The same page also shows that value 1 = ESTABLISHED So, if a TCP session is in ESTABLISHED state and there is no inspection, its proto_state is 01:
first digit 0 = no inspection
second digit 1 = ESTABLISHED
That makes C correct. This is also consistent with FortiOS examples showing established TCP sessions with proto=6 proto_state=01 Why the other options are wrong:
A is wrong because the field that indicates sessions dropped due to low free memory is memory_tension_drop, and in the exhibit it is 0, not 113. The study guide states: "If there is a lack of free memory, the kernel deletes the oldest sessions. The command shown on this slide displays the number of sessions the kernel deleted because of this mechanism."So 113 is the clash value, not memory-tension drops.
B is wrong because ephemeral=0/131072 does not mean 131072 ephemeral sessions were recorded. The study guide explains that FortiGate "sets a hard limit on the maximum number of ephemeral sessions that can exist at the same time in the session table."Therefore:
0 = current ephemeral sessions
131072 = maximum allowed ephemeral sessions for that model/context
D is wrong because the study guide says the temporary retention for possible out-of-order packets happens in state value 5 (TIME_WAIT): "When a session is closed by both the sender and receiver, FortiGate keeps that session in the session table for a few seconds, to allow for any out-of-order packets that might arrive after the FIN/ACK packet. This is the state value 5."But the exhibit shows 27 in CLOSE state, and the same table shows CLOSE = 6, not TIME_WAIT So the verified answer is C.
NEW QUESTION # 77
Refer to the exhibit, which shows a partial output of the fssod daemon real-time debug command.
What two conclusions can you draw from the output? (Choose two.)
Answer: A,B
Explanation:
https://community.fortinet.com/t5/FortiGate/Troubleshooting-Tip-How-to-troubleshoot-FSSO-agentless-polling/ta-p/214349 From the snippet we can see that FortiGate (via the fssod daemon) is directly detecting the user logon rather than relying on a separate "collector" or "DC agent." This indicates agentless polling-FortiGate polls the DC's event logs over TCP 445 to discover logons. So: - FSSO is using agentless polling mode to detect logon events - In agentless mode, FortiGate will periodically poll the same IP (the DC) on port 445 to see if the user is still logged on
NEW QUESTION # 78
Refer to the exhibit, which shows a partial output of a real-time LDAP debug.
What two conclusions can you draw from the output? (Choose two.)
Answer: B,D
Explanation:
The exhibit includes these key debug lines:
* start_search_dn-base: ' DC=TAC,DC=ottawa,DC=fortinet,DC=com ' filter:sAMAccountName=jsmith
* get_all_dn-Found DN 1:CN=John Smith,CN=Users,DC=TAC,DC=ottawa,DC=fortinet,DC=com The study guide explains that in regular bind , LDAP authentication has four steps , and that during step 2 , FortiGate searches the LDAP tree to find the user's DN:
"During the second step, FortiGate does a search query in the LDAP database to find the user's location-in other words, the user's DN. If the user is found, the server replies with the user's DN." It also states for the real-time debug of step 2:
"An fnbamd_ldap_build_dn_search_req-base message indicates that FortiGate is performing step two:
searching for the user in the LDAP tree. This message includes the base branch (distinguished name setting) and the name of the attribute used to locate the user... If the LDAP server finds the user, the output shows the user's full DN." That directly proves:
* D is correct because the debug is showing step 2: Search Request
* A is correct because the base DN and found DN are under DC=TAC,DC=ottawa,DC=fortinet, DC=com, which corresponds to the LDAP domain/tree root TAC.ottawa.fortinet.com Why the other options are wrong:
* B is wrong because binding with the user's credentials is step 3 , not the step shown here. The study guide says: "Step 3 - Bind user credentials" and shows that this happens later with fnbamd_ldap_build_userbind_req / __ldap_build_bind_req-Binding to ' CN=John Smith... '
* C is wrong because collecting user group information is step 4 , not the step shown in the exhibit.
The study guide says: "The last step is to get the user group information" and shows step 4 with Attr query / memberOf search
NEW QUESTION # 79
Refer to the exhibit, which contains the output of diagnose vpn tunnel list.
Which command will capture ESP traffic for the VPN named DialUp_0?
Answer: A
NEW QUESTION # 80
What can cause an IKEv2 tunnel to go down after it was initially brought up successfully?
Answer: A
Explanation:
The correct answer is D .
The study guide explains that IKEv2 has two initial exchanges:
* IKE_SA_INIT
* IKE_AUTH
and then later exchanges such as:
* CREATE_CHILD_SA
It also states the roles of those exchanges:
* IKE_SA_INIT negotiates the security settings for IKE traffic
* IKE_AUTH performs mutual authentication and sets up the piggyback child SA
* CREATE_CHILD_SA creates a new child SA or rekeys an existing child SA Most importantly, the study guide explicitly says:
"By IKEv2 design, no Diffie-Hellman public key is exchanged during an IKE_AUTH exchange.
Consequently, any phase 2 Diffie-Hellman group configuration mismatch between FortiGate and the peer is experienced only during the first rekey (CREATE_CHILD_SA exchange) of the child SA created during IKE_AUTH." This proves the key idea behind the question: an IKEv2 tunnel can come up successfully first, then fail later during a CREATE_CHILD_SA rekey/renegotiation event because of a phase 2 mismatch. Among the provided options, the matching later-stage cause is mismatched quick-mode selectors during CREATE_CHILD_SA .
Why the other options are wrong:
* A is wrong because if the proposal mismatch were in the initial negotiation path, the tunnel would fail during establishment, not after it was already up. The study guide places initial tunnel establishment in IKE_SA_INIT and IKE_AUTH
* B is wrong because a mismatch in IKE_SA_INIT affects the initial establishment stage, not a tunnel that was already brought up successfully
* C is wrong because a pre-shared key mismatch is part of authentication during IKE_AUTH , so the tunnel would not come up successfully in the first place
NEW QUESTION # 81
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