Cisco 300-730 SVPN Secure VPN Solutions Practice Exam
Cover the full 300-730 v1.1 blueprint — site-to-site VPNs, remote access VPNs, troubleshooting with ASDM and CLI, and secure communications architectures — with objective-mapped questions, immediate feedback in Learn mode, and full timed simulation in Exam mode.
Start 24-hour free trial →300-730 exam at a glance
- Vendor
- Cisco
- Exam code
- 300-730 (SVPN)
- Full name
- Implementing Secure Solutions with Virtual Private Networks
- Level
- Professional
- Blueprint
- v1.1
- Duration
- 90 minutes
- Focus
- Hands-on VPN implementation and troubleshooting on Cisco routers and Secure Firewall/ASA
- Role in CCNP
- CCNP Security concentration exam — pair with the SCOR 350-701 core to earn CCNP Security
- Also earns
- Cisco Certified Specialist – Network Security VPN Implementation
- Domains
- Four, with published weights (see below); they sum to 100%
- Prerequisites
- None formally required; working knowledge of IP routing and IPsec fundamentals is strongly recommended
- Delivery
- Pearson VUE; test center or online proctored
Sources: Cisco — SVPN (300-730) exam page · Cisco — official SVPN v1.1 exam topics (PDF). Verify current details with Cisco before scheduling.
About the Cisco 300-730 SVPN exam
The 300-730 SVPN exam validates the skills to implement and troubleshoot Cisco VPN solutions — secure site-to-site and remote-access connectivity using IPsec, DMVPN, FlexVPN, GETVPN, and AnyConnect/clientless SSL VPNs. Unlike a design-only exam, SVPN is heavily hands-on: you configure and, above all, troubleshoot real VPN deployments with ASDM and the CLI. For how certification exams work generally, see the certification study guides in our Learning Hub.
SVPN is a CCNP Security concentration exam. To earn CCNP Security you pass two exams: the SCOR 350-701 core (Implementing and Operating Cisco Security Core Technologies) plus one concentration — SVPN being the VPN-implementation option. Passing SVPN on its own also earns the Cisco Certified Specialist – Network Security VPN Implementation credential. Related concentrations include SCAZT secure cloud access (300-740), SNCF firewall security (300-710), and the design-focused SDSI (300-745).
Every PowerKram practice question maps to one of the four weighted domains and links to Cisco’s own exam material, so a weak spot becomes a specific study step rather than a guess.
300-730 exam domains and weights (v1.1)
Cisco publishes four weighted domains for the 300-730 exam, and they sum to 100%. Troubleshooting is by far the heaviest at 35%, with Secure Communications Architectures close behind at 30% — so the exam rewards engineers who can read configuration output and diagnose why a tunnel isn’t coming up, not just build one. Confirm the current weights on Cisco’s exam topics before scheduling.
Describe GETVPN; implement DMVPN; and implement FlexVPN using local AAA — the core site-to-site tunnel technologies on Cisco routers and firewalls.
Implement AnyConnect IKEv2 VPNs on ASA and routers; AnyConnect SSL VPN on ASA; clientless SSL VPN on ASA; and FlexVPN on routers — the remote-access side of the exam.
Troubleshoot IPsec, DMVPN, FlexVPN, and AnyConnect IKEv2/SSL and clientless SSL VPNs on ASA and routers — reading debug and show output to find why a tunnel fails. The single heaviest area.
Identify functional components of GETVPN, FlexVPN, DMVPN, IPsec, and clientless SSL; identify VPN technology from configuration output; split-tunneling requirements; design site-to-site and remote-access solutions with high-availability considerations; and Elliptic Curve Cryptography (ECC).
Source: Cisco — official SVPN v1.1 (300-730) exam topics (PDF). Weights are Cisco’s and sum to 100%. Verify the current edition before scheduling.
Who the 300-730 exam is for
SVPN is aimed at engineers who build and support secure connectivity:
- Network security engineers implementing site-to-site and remote-access VPNs on Cisco routers and Secure Firewall/ASA.
- VPN and remote-access specialists deploying AnyConnect and clientless SSL for a distributed workforce.
- Support and operations engineers who troubleshoot IPsec, DMVPN, and FlexVPN tunnels under pressure.
- CCNP Security candidates choosing the VPN concentration alongside the SCOR 350-701 core.
Complement VPN implementation with cloud/remote access via SCAZT (300-740), firewall skills via SNCF (300-710), or the broader security-design exam SDSI (300-745). For where VPN and security skills lead, see the cybersecurity career paths in our Career Hub.
What this 300-730 practice exam delivers
Learn mode
Get the correct answer, the explanation, and a direct link to Cisco’s exam material each question maps to — immediately after each question. Ideal for the troubleshooting-heavy blueprint, where reading output is the skill.
Exam mode
Timed, full-length simulation weighted toward troubleshooting and spanning all four domains at the real 90-minute pace — so test day feels familiar.
Source-linked explanations
Every answer links to Cisco’s own SVPN exam material, so you can verify each VPN implementation and troubleshooting step against the source.
Score by weighted domain
Results break down across the four weighted domains so you can see whether it’s site-to-site, remote access, troubleshooting, or architecture that needs more work.
Sample 300-730 practice questions
Ten free questions across the 300-730 weighted domains, with full explanations and source links to Cisco’s exam material. The complete bank is available with the 24-hour trial.
Which site-to-site VPN technology preserves the original IP header and uses a group key so any member can decrypt, making it ideal for encrypting native multicast over a private MPLS core?
- GETVPN (Group Encrypted Transport VPN)
- Clientless SSL VPN
- AnyConnect SSL VPN
- A standard access control list
Show answer & explanation
Correct: A. GETVPN uses a group security association (via GDOI) and tunnel-header preservation, so it encrypts any-to-any traffic — including native multicast — across a trusted private network like an MPLS core without point-to-point tunnels.
Why not the others: clientless (B) and AnyConnect SSL (C) are remote-access, not site-to-site group encryption; an ACL (D) filters traffic and provides no encryption.
Source: Cisco — SVPN: site-to-site VPNs (GETVPN) → Further reading: PowerKram — SNCF (300-710) →Which technology builds dynamic, on-demand spoke-to-spoke tunnels using multipoint GRE and NHRP so branches can talk directly without static hub-to-spoke config for every pair?
- A single static IPsec tunnel
- DMVPN (Dynamic Multipoint VPN)
- Clientless SSL VPN
- Port Address Translation
Show answer & explanation
Correct: B. DMVPN combines multipoint GRE with NHRP (and IPsec) so spokes register with a hub and then build dynamic, on-demand tunnels directly to each other — scaling site-to-site connectivity without per-pair static config.
Why not the others: a single static IPsec tunnel (A) is point-to-point and doesn’t scale to dynamic spoke-to-spoke; clientless SSL (C) is remote-access; PAT (D) is address translation, not a VPN.
Source: Cisco — SVPN: DMVPN → Further reading: PowerKram — SDSI (300-745) →A company wants remote employees to use the Cisco Secure Client (AnyConnect) with a full IPsec tunnel to the ASA. Which protocol underpins this AnyConnect deployment?
- Telnet
- IKEv2/IPsec
- SNMPv2c
- TFTP
Show answer & explanation
Correct: B. AnyConnect can establish a full-tunnel remote-access VPN using IKEv2/IPsec to an ASA or router — one of the two named AnyConnect remote-access methods (the other being SSL) in the exam objectives.
Why not the others: Telnet (A) is unencrypted remote CLI; SNMPv2c (C) is monitoring; TFTP (D) is file transfer — none establish a remote-access VPN.
Source: Cisco — SVPN: AnyConnect IKEv2 → Further reading: PowerKram — SCAZT (300-740) →A contractor needs occasional access to a couple of internal web apps from a shared kiosk with no software install allowed. Which remote-access VPN type best fits?
- A permanent site-to-site IPsec tunnel to the kiosk
- GETVPN on the kiosk
- Clientless SSL VPN (browser-based) on the ASA
- DMVPN on the kiosk
Show answer & explanation
Correct: C. Clientless SSL VPN gives browser-based access to specific internal web applications with no client software installed — the right fit for a shared kiosk and limited app access.
Why not the others: a site-to-site tunnel (A), GETVPN (B), and DMVPN (D) are site-to-site technologies requiring device configuration, not ad-hoc clientless user access from a kiosk.
Source: Cisco — SVPN: clientless SSL VPN →An IPsec site-to-site tunnel won’t come up. IKE Phase 1 completes, but Phase 2 fails. Which mismatch is the most likely cause?
- The switch hostname is wrong
- Mismatched IPsec transform sets / proxy IDs (interesting-traffic ACLs) between peers
- The office Wi-Fi SSID differs
- The NTP server is offline
Show answer & explanation
Correct: B. When Phase 1 (IKE SA) succeeds but Phase 2 (IPsec SA) fails, the usual culprits are mismatched transform sets or non-mirrored proxy IDs / crypto ACLs defining interesting traffic. Verify both peers agree on the Phase 2 parameters.
Why not the others: a wrong hostname (A) doesn’t break Phase 2 negotiation; the Wi-Fi SSID (C) is irrelevant; an offline NTP server (D) can affect certificate validity but isn’t the classic Phase 2 mismatch.
Source: Cisco — SVPN: troubleshoot IPsec → Further reading: PowerKram — SNCF (300-710) →On a DMVPN spoke, spoke-to-hub works but spoke-to-spoke tunnels never form. Which component should you troubleshoot first?
- The building HVAC
- The monitor refresh rate
- The coffee machine timer
- NHRP registration and resolution (and NHRP redirect/shortcut on the hub/spokes)
Show answer & explanation
Correct: D. Spoke-to-spoke DMVPN depends on NHRP: spokes register with the hub and use NHRP resolution (with redirect/shortcut) to discover each other’s NBMA addresses. If direct tunnels never form, inspect NHRP first.
Why not the others: HVAC (A), monitor refresh (B), and a coffee timer (C) have nothing to do with DMVPN tunnel establishment.
Source: Cisco — SVPN: troubleshoot DMVPN →Remote users report the AnyConnect SSL VPN connects but they can’t reach internal subnets, while internet still works. Which configuration is the most likely cause?
- The split-tunnel policy is not including the internal subnets in the secured (tunneled) routes
- The users’ keyboards are the wrong layout
- The ASA is painted the wrong color
- The DNS root servers are down globally
Show answer & explanation
Correct: A. If the tunnel is up but internal resources are unreachable while internet works, the split-tunnel policy likely isn’t sending the internal subnets through the tunnel. Verify the split-include ACL / tunnel policy contains those networks.
Why not the others: keyboard layout (B) and the ASA’s color (C) are irrelevant; a global DNS root outage (D) would break far more than one VPN’s internal access.
Source: Cisco — SVPN: troubleshoot AnyConnect / split tunneling →Which CLI command family is most useful for watching IKE/IPsec negotiation in real time to pinpoint where a tunnel fails?
- show running-config only
- ping the default gateway repeatedly
- debug crypto ikev2 / debug crypto ipsec (with matching show crypto commands)
- reload the device
Show answer & explanation
Correct: C. Real-time debug crypto ikev2 and debug crypto ipsec output (paired with show crypto ikev2 sa / show crypto ipsec sa) shows exactly which negotiation step fails — the core CLI troubleshooting workflow SVPN tests.
Why not the others: show running-config alone (A) is static and won’t reveal negotiation failures; pinging the gateway (B) doesn’t inspect IKE/IPsec; reloading (D) is a blunt action that discards diagnostic state.
Source: Cisco — SVPN: troubleshooting with CLI →A design must send only corporate-app traffic through the VPN while normal internet browsing goes out locally, to save bandwidth and improve performance. Which feature enables this?
- Full tunneling of all traffic
- Disabling encryption
- Split tunneling
- Turning off the VPN entirely
Show answer & explanation
Correct: C. Split tunneling sends only defined (corporate) subnets through the encrypted tunnel while other traffic egresses locally — reducing VPN load and improving user performance. Identifying split-tunnel requirements is an explicit architecture objective.
Why not the others: full tunneling (A) sends everything through the VPN (the opposite); disabling encryption (B) breaks security; turning off the VPN (D) removes secure access altogether.
Source: Cisco — SVPN: split tunneling & architecture →A design needs resilient remote-access VPN so a single head-end failure doesn’t drop all users. Which consideration most directly addresses this?
- Buying larger monitors for the SOC
- Using a longer console cable
- Painting the rack
- High-availability design (redundant VPN head-ends / failover)
Show answer & explanation
Correct: D. High-availability design — redundant VPN head-ends with failover/clustering — keeps remote access working when one device fails. HA considerations for both site-to-site and remote-access solutions are named architecture objectives.
Why not the others: larger monitors (A), a longer console cable (B), and painting the rack (C) do nothing for VPN resilience.
Source: Cisco — SVPN: high-availability design →Keep going: Learning & Career resources
SVPN is the VPN-implementation concentration in the CCNP Security track. Two PowerKram hubs back this exam.
Deep dive: the VPN technologies, the CCNP Security path, and study strategy
The VPN technologies you must know cold
SVPN centers on a handful of technologies: IPsec (the foundation), DMVPN (multipoint GRE + NHRP for dynamic spoke-to-spoke), FlexVPN (IKEv2-based, flexible site-to-site and remote access), GETVPN (group encryption with header preservation for private cores), and AnyConnect/clientless SSL for remote users. Know what each is for, its functional components, and how to recognize it from configuration output. See SCAZT (300-740) →
How SVPN fits CCNP Security
CCNP Security requires two exams: the SCOR 350-701 core plus one concentration. SVPN is the VPN-implementation concentration; firewalls (SNCF 300-710), cloud access (SCAZT 300-740), and security design (SDSI 300-745) are related options. Passing SVPN alone also earns Cisco Certified Specialist – Network Security VPN Implementation. See SNCF (300-710) →
Realistic study path
Because Troubleshooting is 35% and Architectures 30%, more than half the exam rewards diagnosis and recognition, not just configuration. Lab the technologies, then deliberately break them: watch debug crypto output for a Phase 1 vs Phase 2 failure, an NHRP resolution problem, or a split-tunnel misconfiguration. Learn to identify the VPN type from a config snippet. Finish with objective-mapped practice and at least one timed 90-minute run. Confirm the current blueprint on Cisco’s exam topics. See SDSI (300-745) →
Frequently asked questions
What is the 300-730 SVPN exam?
Is 300-730 a CCNP exam by itself?
What are the exam domains and weights?
How long is the exam?
Is SVPN a configuration exam?
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