Exam Bundle

IKE establishes successfully and logs show compatible negotiated parameters. This would be relevant evidence for a different failure: An FTD site-to-site VPN shows no active IKE security association despite route reachability, usually addressed by Inspect IKE proposals, peer identity, authentication, and exchange logs before changing data-plane policy. It does not demonstrate that the current problem at Atlas Scientific was resolved. The specific required evidence is: Corrected child SAs form and packet encryption and decryption counters increment.

Protected traffic uses the intended encrypted path rather than an ordinary Internet route. This would be relevant evidence for a different failure: Tunnel SAs exist but packets reach a wrong next hop instead of the VPN egress interface, usually addressed by Correct routing and policy-based forwarding toward the appropriate protected tunnel. It does not demonstrate that the current problem at Atlas Scientific was resolved. The specific required evidence is: Corrected child SAs form and packet encryption and decryption counters increment.

Traffic from each approved subnet crosses the tunnel and unrelated networks stay blocked. This would be relevant evidence for a different failure: An FTD tunnel has healthy SAs but one internal subnet cannot reach the remote peer, usually addressed by Inspect routing, protected network selectors, access control, and NAT treatment for that subnet. It does not demonstrate that the current problem at Atlas Scientific was resolved. The specific required evidence is: Corrected child SAs form and packet encryption and decryption counters increment.

Check secure peer key agreement and effective authentication profile on both sides. That action fits another problem: Site-to-site VPN negotiation repeatedly fails just after a PSK rotation. It does not directly remediate the current finding at Pinecrest Research: Tunnel SAs exist but packets reach a wrong next hop instead of the VPN egress interface. The relevant corrective control for this case is: Correct routing and policy-based forwarding toward the appropriate protected tunnel.

Inspect routing, protected network selectors, access control, and NAT treatment for that subnet. That action fits another problem: An FTD tunnel has healthy SAs but one internal subnet cannot reach the remote peer. It does not directly remediate the current finding at Pinecrest Research: Tunnel SAs exist but packets reach a wrong next hop instead of the VPN egress interface. The relevant corrective control for this case is: Correct routing and policy-based forwarding toward the appropriate protected tunnel.

Inspect IKE proposals, peer identity, authentication, and exchange logs before changing data-plane policy. That action fits another problem: An FTD site-to-site VPN shows no active IKE security association despite route reachability. It does not directly remediate the current finding at Pinecrest Research: Tunnel SAs exist but packets reach a wrong next hop instead of the VPN egress interface. The relevant corrective control for this case is: Correct routing and policy-based forwarding toward the appropriate protected tunnel.

IKE establishes successfully and logs show compatible negotiated parameters. This would be relevant evidence for a different failure: An FTD site-to-site VPN shows no active IKE security association despite route reachability, usually addressed by Inspect IKE proposals, peer identity, authentication, and exchange logs before changing data-plane policy. It does not demonstrate that the current problem at Pinecrest Research was resolved. The specific required evidence is: Protected traffic uses the intended encrypted path rather than an ordinary Internet route.

Traffic from each approved subnet crosses the tunnel and unrelated networks stay blocked. This would be relevant evidence for a different failure: An FTD tunnel has healthy SAs but one internal subnet cannot reach the remote peer, usually addressed by Inspect routing, protected network selectors, access control, and NAT treatment for that subnet. It does not demonstrate that the current problem at Pinecrest Research was resolved. The specific required evidence is: Protected traffic uses the intended encrypted path rather than an ordinary Internet route.

Negotiation succeeds with the current credential while the old PSK remains invalid. This would be relevant evidence for a different failure: Site-to-site VPN negotiation repeatedly fails just after a PSK rotation, usually addressed by Check secure peer key agreement and effective authentication profile on both sides. It does not demonstrate that the current problem at Pinecrest Research was resolved. The specific required evidence is: Protected traffic uses the intended encrypted path rather than an ordinary Internet route.

Compare IPsec proposals, traffic selectors, PFS settings, and the actual interesting traffic. That action fits another problem: IKE succeeds but there are no IPsec child SAs when users send protected traffic. It does not directly remediate the current finding at Briarwood Property Group: Tunnel SAs exist but packets reach a wrong next hop instead of the VPN egress interface. The relevant corrective control for this case is: Correct routing and policy-based forwarding toward the appropriate protected tunnel.

Assess path MTU and MSS handling for the VPN without disabling encryption. That action fits another problem: A tunnel passes small pings but application sessions fail after encapsulation overhead. It does not directly remediate the current finding at Briarwood Property Group: Tunnel SAs exist but packets reach a wrong next hop instead of the VPN egress interface. The relevant corrective control for this case is: Correct routing and policy-based forwarding toward the appropriate protected tunnel.

Inspect IKE proposals, peer identity, authentication, and exchange logs before changing data-plane policy. That action fits another problem: An FTD site-to-site VPN shows no active IKE security association despite route reachability. It does not directly remediate the current finding at Briarwood Property Group: Tunnel SAs exist but packets reach a wrong next hop instead of the VPN egress interface. The relevant corrective control for this case is: Correct routing and policy-based forwarding toward the appropriate protected tunnel.

An application transaction succeeds across typical payload sizes after tuning. This would be relevant evidence for a different failure: A tunnel passes small pings but application sessions fail after encapsulation overhead, usually addressed by Assess path MTU and MSS handling for the VPN without disabling encryption. It does not demonstrate that the current problem at Briarwood Property Group was resolved. The specific required evidence is: Protected traffic uses the intended encrypted path rather than an ordinary Internet route.

Corrected child SAs form and packet encryption and decryption counters increment. This would be relevant evidence for a different failure: IKE succeeds but there are no IPsec child SAs when users send protected traffic, usually addressed by Compare IPsec proposals, traffic selectors, PFS settings, and the actual interesting traffic. It does not demonstrate that the current problem at Briarwood Property Group was resolved. The specific required evidence is: Protected traffic uses the intended encrypted path rather than an ordinary Internet route.

IKE establishes successfully and logs show compatible negotiated parameters. This would be relevant evidence for a different failure: An FTD site-to-site VPN shows no active IKE security association despite route reachability, usually addressed by Inspect IKE proposals, peer identity, authentication, and exchange logs before changing data-plane policy. It does not demonstrate that the current problem at Briarwood Property Group was resolved. The specific required evidence is: Protected traffic uses the intended encrypted path rather than an ordinary Internet route.

Inspect IKE proposals, peer identity, authentication, and exchange logs before changing data-plane policy. That action fits another problem: An FTD site-to-site VPN shows no active IKE security association despite route reachability. It does not directly remediate the current finding at Maple Creek Agriculture: A tunnel passes small pings but application sessions fail after encapsulation overhead. The relevant corrective control for this case is: Assess path MTU and MSS handling for the VPN without disabling encryption.

Compare IPsec proposals, traffic selectors, PFS settings, and the actual interesting traffic. That action fits another problem: IKE succeeds but there are no IPsec child SAs when users send protected traffic. It does not directly remediate the current finding at Maple Creek Agriculture: A tunnel passes small pings but application sessions fail after encapsulation overhead. The relevant corrective control for this case is: Assess path MTU and MSS handling for the VPN without disabling encryption.

Inspect routing, protected network selectors, access control, and NAT treatment for that subnet. That action fits another problem: An FTD tunnel has healthy SAs but one internal subnet cannot reach the remote peer. It does not directly remediate the current finding at Maple Creek Agriculture: A tunnel passes small pings but application sessions fail after encapsulation overhead. The relevant corrective control for this case is: Assess path MTU and MSS handling for the VPN without disabling encryption.

IKE establishes successfully and logs show compatible negotiated parameters. This would be relevant evidence for a different failure: An FTD site-to-site VPN shows no active IKE security association despite route reachability, usually addressed by Inspect IKE proposals, peer identity, authentication, and exchange logs before changing data-plane policy. It does not demonstrate that the current problem at Maple Creek Agriculture was resolved. The specific required evidence is: An application transaction succeeds across typical payload sizes after tuning.

Traffic from each approved subnet crosses the tunnel and unrelated networks stay blocked. This would be relevant evidence for a different failure: An FTD tunnel has healthy SAs but one internal subnet cannot reach the remote peer, usually addressed by Inspect routing, protected network selectors, access control, and NAT treatment for that subnet. It does not demonstrate that the current problem at Maple Creek Agriculture was resolved. The specific required evidence is: An application transaction succeeds across typical payload sizes after tuning.

Corrected child SAs form and packet encryption and decryption counters increment. This would be relevant evidence for a different failure: IKE succeeds but there are no IPsec child SAs when users send protected traffic, usually addressed by Compare IPsec proposals, traffic selectors, PFS settings, and the actual interesting traffic. It does not demonstrate that the current problem at Maple Creek Agriculture was resolved. The specific required evidence is: An application transaction succeeds across typical payload sizes after tuning.

Compare IPsec proposals, traffic selectors, PFS settings, and the actual interesting traffic. That action fits another problem: IKE succeeds but there are no IPsec child SAs when users send protected traffic. It does not directly remediate the current finding at Sapphire Data Systems: A tunnel passes small pings but application sessions fail after encapsulation overhead. The relevant corrective control for this case is: Assess path MTU and MSS handling for the VPN without disabling encryption.

Correct routing and policy-based forwarding toward the appropriate protected tunnel. That action fits another problem: Tunnel SAs exist but packets reach a wrong next hop instead of the VPN egress interface. It does not directly remediate the current finding at Sapphire Data Systems: A tunnel passes small pings but application sessions fail after encapsulation overhead. The relevant corrective control for this case is: Assess path MTU and MSS handling for the VPN without disabling encryption.

Verify NAT traversal configuration and peer reachability for UDP-encapsulated IPsec. That action fits another problem: A tunnel drops traffic only when behind a NAT device that changes the peer's translated address. It does not directly remediate the current finding at Sapphire Data Systems: A tunnel passes small pings but application sessions fail after encapsulation overhead. The relevant corrective control for this case is: Assess path MTU and MSS handling for the VPN without disabling encryption.

The VPN remains established through NAT with reliable bidirectional protected flows. This would be relevant evidence for a different failure: A tunnel drops traffic only when behind a NAT device that changes the peer's translated address, usually addressed by Verify NAT traversal configuration and peer reachability for UDP-encapsulated IPsec. It does not demonstrate that the current problem at Sapphire Data Systems was resolved. The specific required evidence is: An application transaction succeeds across typical payload sizes after tuning.

Corrected child SAs form and packet encryption and decryption counters increment. This would be relevant evidence for a different failure: IKE succeeds but there are no IPsec child SAs when users send protected traffic, usually addressed by Compare IPsec proposals, traffic selectors, PFS settings, and the actual interesting traffic. It does not demonstrate that the current problem at Sapphire Data Systems was resolved. The specific required evidence is: An application transaction succeeds across typical payload sizes after tuning.

Protected traffic uses the intended encrypted path rather than an ordinary Internet route. This would be relevant evidence for a different failure: Tunnel SAs exist but packets reach a wrong next hop instead of the VPN egress interface, usually addressed by Correct routing and policy-based forwarding toward the appropriate protected tunnel. It does not demonstrate that the current problem at Sapphire Data Systems was resolved. The specific required evidence is: An application transaction succeeds across typical payload sizes after tuning.

Compare IPsec proposals, traffic selectors, PFS settings, and the actual interesting traffic. That action fits another problem: IKE succeeds but there are no IPsec child SAs when users send protected traffic. It does not directly remediate the current finding at Seabright Municipal Works: A tunnel drops traffic only when behind a NAT device that changes the peer's translated address. The relevant corrective control for this case is: Verify NAT traversal configuration and peer reachability for UDP-encapsulated IPsec.

Inspect IKE proposals, peer identity, authentication, and exchange logs before changing data-plane policy. That action fits another problem: An FTD site-to-site VPN shows no active IKE security association despite route reachability. It does not directly remediate the current finding at Seabright Municipal Works: A tunnel drops traffic only when behind a NAT device that changes the peer's translated address. The relevant corrective control for this case is: Verify NAT traversal configuration and peer reachability for UDP-encapsulated IPsec.

Correct routing and policy-based forwarding toward the appropriate protected tunnel. That action fits another problem: Tunnel SAs exist but packets reach a wrong next hop instead of the VPN egress interface. It does not directly remediate the current finding at Seabright Municipal Works: A tunnel drops traffic only when behind a NAT device that changes the peer's translated address. The relevant corrective control for this case is: Verify NAT traversal configuration and peer reachability for UDP-encapsulated IPsec.

IKE establishes successfully and logs show compatible negotiated parameters. This would be relevant evidence for a different failure: An FTD site-to-site VPN shows no active IKE security association despite route reachability, usually addressed by Inspect IKE proposals, peer identity, authentication, and exchange logs before changing data-plane policy. It does not demonstrate that the current problem at Seabright Municipal Works was resolved. The specific required evidence is: The VPN remains established through NAT with reliable bidirectional protected flows.

Corrected child SAs form and packet encryption and decryption counters increment. This would be relevant evidence for a different failure: IKE succeeds but there are no IPsec child SAs when users send protected traffic, usually addressed by Compare IPsec proposals, traffic selectors, PFS settings, and the actual interesting traffic. It does not demonstrate that the current problem at Seabright Municipal Works was resolved. The specific required evidence is: The VPN remains established through NAT with reliable bidirectional protected flows.

Protected traffic uses the intended encrypted path rather than an ordinary Internet route. This would be relevant evidence for a different failure: Tunnel SAs exist but packets reach a wrong next hop instead of the VPN egress interface, usually addressed by Correct routing and policy-based forwarding toward the appropriate protected tunnel. It does not demonstrate that the current problem at Seabright Municipal Works was resolved. The specific required evidence is: The VPN remains established through NAT with reliable bidirectional protected flows.