Fortinet • NSE7_SAR
Validates advanced skills in designing, deploying, and managing Fortinet Secure Access Service Edge (SASE) solutions, including FortiSASE architecture, Secure Private Access, and security analytics. Targets network security architects and administrators responsible for enterprise SASE environments.
Questions
600
Duration
60 minutes
Passing Score
Pass/Fail
Difficulty
ProfessionalLast Updated
May 2026
The Fortinet NSE 7 – Network Security Architect (SASE) exam, code NSE7_SAR, is part of Fortinet's Fortinet Certified Solution Specialist (FCSS) Secure Access Service Edge track and validates advanced proficiency in designing, deploying, and managing Fortinet SASE solutions. The exam tests candidates on FortiSASE architecture, Secure Private Access (SPA), Zero Trust Network Access (ZTNA), FortiSASE analytics, and enterprise-scale SD-WAN integration. It is closely aligned with—and has evolved alongside—Fortinet's broader NSE7_SSE_AD-25 FortiSASE Enterprise Administrator exam family, covering product versions including FortiSASE 25, FortiOS 7.4, FortiAuthenticator 6.5, and FortiClient 7.0+.
The certification reflects the industry shift away from traditional perimeter-based security toward cloud-delivered, identity-centric network access. Candidates are expected to demonstrate operational command of FortiSASE provisioning, multi-site deployment, endpoint onboarding, security policy enforcement, and telemetry-based optimization. All questions are multiple-choice (single and multiple selection), and answers must be 100% correct for credit—no partial credit is awarded.
This certification is designed for network security architects, senior security engineers, and enterprise administrators who are responsible for planning and operating SASE environments at scale. Ideal candidates hold roles such as Cloud Security Architect, Zero Trust Security Analyst, Network Security Engineer, or SASE Implementation Specialist, and are already familiar with Fortinet's security fabric.
Candidates typically have hands-on experience with FortiGate, FortiManager, or FortiClient and are transitioning into or deepening their expertise in cloud-delivered security models. The exam is not entry-level; it targets professionals who understand SD-WAN, remote access architectures, and identity-based access policies, and need to validate their ability to deliver these capabilities using Fortinet's SASE platform.
Fortinet does not enforce formal prerequisites for the NSE7_SAR exam, but strongly recommends completing the FortiSASE Enterprise Administrator and FortiSASE Core Administrator courses available on the Fortinet Training Institute portal prior to attempting the exam. These courses include hands-on labs covering provisioning, SPA policy configuration, and analytics dashboard navigation.
Candidates should have practical experience with Fortinet security solutions—particularly FortiOS, FortiClient, and FortiManager—and a solid grounding in networking concepts such as IPsec/SSL VPN, SD-WAN, and ZTNA. Familiarity with cloud security models and Zero Trust principles is strongly advised. For the broader FCSS SASE certification, candidates must pass two core exams within a two-year window.
The NSE7_SAR exam consists of approximately 30 questions and has a 60-minute time limit. Questions are delivered in multiple-choice format, including both single-selection and multiple-selection items. The exam is administered through Pearson VUE testing centers and is available in English. There is no partial credit; each question requires a fully correct answer to earn points.
The passing threshold is reported as pass/fail based on Fortinet's internal cut score. Candidates who do not pass must wait 15 days before reattempting. The certification is valid for two years and can be renewed by passing the same exam or a higher-level exam within the renewal window. Candidates cannot retake an exam they have already passed.
Professionals who earn this certification are positioned for senior roles including SASE Implementation Specialist, Cloud Security Architect, Zero Trust Security Analyst, and Network Security Engineer. As enterprises accelerate the replacement of traditional VPNs and on-premises security appliances with cloud-delivered SASE platforms, demand for engineers who can architect and operate these solutions continues to grow. Fortinet's SASE platform is widely deployed in mid-enterprise and large enterprise environments, making this credential directly applicable across industries.
While exact salary figures vary by region and experience, network security professionals with validated SASE expertise—particularly on commercial platforms like Fortinet—typically command a premium over general network security roles. The certification complements adjacent credentials such as NSE 5 FortiSASE Administrator and NSE 7 SD-WAN Architect, enabling a clear specialization path within the Fortinet security fabric ecosystem. The two-year validity period ensures certified professionals stay current with rapidly evolving SASE capabilities.
5 sample questions with correct answers and explanations. Start a practice session to test yourself across all 600 questions.
1. A network administrator at Adatum configures both a ZTNA connection rule for the corporate HR application at hr.adatum.com and an SSL-VPN tunnel profile on FortiClient for all remote users. When a user establishes the SSL-VPN tunnel and then opens a browser to access hr.adatum.com, which path does FortiClient use for this traffic? (Select one!)
Explanation
When both ZTNA connection rules and SSL-VPN are configured and active in FortiClient simultaneously, ZTNA rules take precedence for traffic matching defined ZTNA destinations. When the user accesses hr.adatum.com, FortiClient evaluates the destination against ZTNA connection rules first, finds a match, and routes the traffic to the ZTNA access proxy rather than through the SSL-VPN tunnel. The VPN tunnel remains active for other corporate resources that do not have ZTNA rules defined. This behavior enables incremental migration from SSL-VPN to ZTNA: high-value applications can be transitioned to per-application ZTNA access with posture verification while remaining corporate resources continue using the VPN tunnel as a temporary bridge. SSL-VPN tunnel routing does not override ZTNA rules regardless of establishment order. FortiClient does not block access or require manual toggling between modes — ZTNA precedence operates transparently from the user's perspective. Traffic splitting or simultaneous dual-path routing between ZTNA and VPN does not occur; ZTNA destination matching is deterministic and exclusive.
2. A FortiSASE administrator at Contoso is configuring FortiClient profiles for 500 remote employees. The security policy requires that all internet traffic always flows through FortiSASE with no gaps in coverage, including after device reboots or connectivity interruptions. Which VPN connection configuration should be applied to the FortiClient profile? (Select one!)
Explanation
Both auto-connect and always-up should be enabled simultaneously because they serve complementary purposes that together ensure continuous FortiSASE coverage. Auto-connect triggers the VPN tunnel establishment automatically when the user logs into the operating system, ensuring connectivity is established without manual action at the start of each session. Always-up monitors the active tunnel and automatically re-establishes it if it drops due to network interruptions, PoP failovers, or timeout events. Enabling only auto-connect without always-up does not handle reconnection after drops. Enabling only always-up may not reliably initiate the tunnel at login without a triggering event. Login scripts introduce timing gaps and are not managed through EMS, creating management complexity.
3. A government agency at Fabrikam needs ZTNA access control with three distinct tiers: fully compliant devices with all posture tags receive unrestricted corporate access; domain-joined devices missing disk encryption receive web-only access without private application access; unregistered personal devices receive no access at all. How should the ZTNA policies be structured to enforce this tiered model? (Select one!)
Explanation
Tiered access control via ZTNA requires multiple ordered policies leveraging ZTNA's top-to-bottom, first-match evaluation. The first policy matches the full set of compliance tags — AV-Compliant, Disk-Encrypted, Domain-Joined, and OS-Patched — and allows access to all corporate resources including private applications. The second policy matches partial compliance tags — Domain-Joined but with No-Encryption — and allows access only to web destinations, explicitly excluding private application ZTNA rules. The third policy provides an explicit deny for unregistered devices that present no ZTNA tags. This three-tier model cleanly maps posture states to access entitlements. A single policy with a security profile cannot implement tiered access at the resource-level granularity required — security profiles control traffic inspection, not which application categories are accessible. A two-policy model with only compliant-allow and implicit deny at the bottom cannot accommodate the intermediate web-only access tier for partially compliant devices, as the implicit deny would apply to both unregistered and partially compliant devices without differentiation. EMS enrollment controls cannot substitute for ZTNA policy enforcement because personal unmanaged devices may never attempt EMS enrollment and must still be denied access through ZTNA.
4. Woodgrove's security team discovers that users are bypassing FortiSASE SSL inspection by using applications that communicate over QUIC. Which two actions should the team take to prevent QUIC-based SSL inspection bypass? (Select two!)
Multiple correct answersExplanation
QUIC operates over UDP port 443 and therefore bypasses traditional TCP-based SSL inspection mechanisms entirely. Blocking the QUIC application signature via application control prevents clients from establishing QUIC connections at the application identification layer, forcing fallback to TCP-based HTTPS. Additionally, blocking UDP port 443 in the firewall policy provides a network-layer backstop ensuring any QUIC traffic not matched by application control is also dropped, guaranteeing browsers fall back to inspectable TCP connections.
5. A security administrator is enabling SSL deep inspection on FortiSASE for all internet-bound traffic. The administrator notes that a growing portion of traffic uses TLS 1.3. Which statement correctly describes how TLS 1.3 affects FortiSASE SSL inspection behavior? (Select one!)
Explanation
TLS 1.3 introduced two critical changes that eliminate passive decryption capability. First, TLS 1.3 encrypts handshake extensions including the server certificate, preventing certificate-layer inspection without decryption. Second, TLS 1.3 removed RSA key exchange entirely and mandates only ephemeral Diffie-Hellman (DHE and ECDHE) key agreements, which generate session keys that cannot be derived from stored private keys. These changes mean that only active man-in-the-middle deep inspection is possible with TLS 1.3. FortiSASE must intercept the TLS handshake, establish two separate TLS sessions, and re-sign the server certificate with its own CA to inspect the traffic content. TLS 1.3 also uses a faster 1-RTT handshake compared to TLS 1.2's 2-RTT, but this does not eliminate the inspection requirement. Deep inspection must be explicitly configured through an SSL inspection profile.
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