Pass Your Cisco 350-501 Exam Easy!

This concern applies to carrier supporting carrier VPN in a different scenario where operators need to let a carrier customer transport its own labeled VPN services over another carrier backbone. For the deployed EVPN single-active access design approach, the relevant caution is instead that failover convergence remains limited by Ethernet segment state timing.

This concern applies to controlled Internet breakout in a different scenario where operators need to provide Internet access for an L3VPN tenant without leaking private customer prefixes. For the deployed EVPN single-active access design approach, the relevant caution is instead that failover convergence remains limited by Ethernet segment state timing.

This concern applies to shared extranet route import in a different scenario where operators need to let only selected tenants reach a common internal service subnet. For the deployed EVPN single-active access design approach, the relevant caution is instead that failover convergence remains limited by Ethernet segment state timing.

EVPN route target matching instead addresses a different condition: restrict the import of BGP EVPN routes to the correct tenant service. It would instead require you to configure the intended import/export route target set for each EVI, not the stated goal to advertise a reachable customer MAC address over a provider EVPN fabric.

MPLS L3VPN label stack instead addresses a different condition: carry a VPN packet through a core that does not hold customer routes. It would instead require you to push a VPN service label beneath an appropriate transport label at the ingress PE, not the stated goal to advertise a reachable customer MAC address over a provider EVPN fabric.

802.1ah provider backbone bridging instead addresses a different condition: reduce provider core visibility into customer MAC addresses for a large Ethernet service. It would instead require you to apply PBB service encapsulation with backbone MAC and service identifiers where supported, not the stated goal to advertise a reachable customer MAC address over a provider EVPN fabric.

The proposed step is for EVPN route target matching, whose purpose is to restrict the import of BGP EVPN routes to the correct tenant service. It would not perform the necessary EVPN MAC/IP route type 2 operation: enable MAC learning and Type-2 EVPN route advertisement for the correct service.

The proposed step is for MPLS L3VPN label stack, whose purpose is to carry a VPN packet through a core that does not hold customer routes. It would not perform the necessary EVPN MAC/IP route type 2 operation: enable MAC learning and Type-2 EVPN route advertisement for the correct service.

The proposed step is for 802.1ah provider backbone bridging, whose purpose is to reduce provider core visibility into customer MAC addresses for a large Ethernet service. It would not perform the necessary EVPN MAC/IP route type 2 operation: enable MAC learning and Type-2 EVPN route advertisement for the correct service.

The observation would verify EVPN route target matching under the separate requirement to restrict the import of BGP EVPN routes to the correct tenant service. It does not demonstrate the needed EVPN MAC/IP route type 2 result: remote PEs learn the MAC via BGP EVPN and can forward to its advertising PE.

The observation would verify MPLS L3VPN label stack under the separate requirement to carry a VPN packet through a core that does not hold customer routes. It does not demonstrate the needed EVPN MAC/IP route type 2 result: remote PEs learn the MAC via BGP EVPN and can forward to its advertising PE.

The observation would verify 802.1ah provider backbone bridging under the separate requirement to reduce provider core visibility into customer MAC addresses for a large Ethernet service. It does not demonstrate the needed EVPN MAC/IP route type 2 result: remote PEs learn the MAC via BGP EVPN and can forward to its advertising PE.

This defect belongs to EVPN route target matching, where the affected outcome is to restrict the import of BGP EVPN routes to the correct tenant service. It is not the direct failure mode identified for the EVPN MAC/IP route type 2 design in this case: only an IP-prefix route is advertised and MAC reachability remains unknown.

This defect belongs to MPLS L3VPN label stack, where the affected outcome is to carry a VPN packet through a core that does not hold customer routes. It is not the direct failure mode identified for the EVPN MAC/IP route type 2 design in this case: only an IP-prefix route is advertised and MAC reachability remains unknown.

This defect belongs to 802.1ah provider backbone bridging, where the affected outcome is to reduce provider core visibility into customer MAC addresses for a large Ethernet service. It is not the direct failure mode identified for the EVPN MAC/IP route type 2 design in this case: only an IP-prefix route is advertised and MAC reachability remains unknown.

This concern applies to EVPN route target matching in a different scenario where operators need to restrict the import of BGP EVPN routes to the correct tenant service. For the deployed EVPN MAC/IP route type 2 approach, the relevant caution is instead that rapid MAC moves need dampening and loop-protection policy.

This concern applies to MPLS L3VPN label stack in a different scenario where operators need to carry a VPN packet through a core that does not hold customer routes. For the deployed EVPN MAC/IP route type 2 approach, the relevant caution is instead that rapid MAC moves need dampening and loop-protection policy.

This concern applies to 802.1ah provider backbone bridging in a different scenario where operators need to reduce provider core visibility into customer MAC addresses for a large Ethernet service. For the deployed EVPN MAC/IP route type 2 approach, the relevant caution is instead that rapid MAC moves need dampening and loop-protection policy.

EVPN route target matching instead addresses a different condition: restrict the import of BGP EVPN routes to the correct tenant service. It would instead require you to configure the intended import/export route target set for each EVI, not the stated goal to advertise an IP prefix through a routed EVPN service without relying solely on individual MAC advertisements.

L3VPN overlapping subnet migration instead addresses a different condition: move a customer site to a new PE while another tenant uses the same IP block. It would instead require you to retain unique VRF and RD identities during the CE handoff change, not the stated goal to advertise an IP prefix through a routed EVPN service without relying solely on individual MAC advertisements.

VRF customer routing isolation instead addresses a different condition: prevent two subscribers with overlapping private addresses from mixing their forwarding routes. It would instead require you to create separate VRFs and bind the correct customer interfaces to each table, not the stated goal to advertise an IP prefix through a routed EVPN service without relying solely on individual MAC advertisements.

The proposed step is for EVPN route target matching, whose purpose is to restrict the import of BGP EVPN routes to the correct tenant service. It would not perform the necessary EVPN IP prefix type 5 operation: use supported EVPN IP prefix route advertisement with the correct VRF mapping.

The proposed step is for L3VPN overlapping subnet migration, whose purpose is to move a customer site to a new PE while another tenant uses the same IP block. It would not perform the necessary EVPN IP prefix type 5 operation: use supported EVPN IP prefix route advertisement with the correct VRF mapping.

The proposed step is for VRF customer routing isolation, whose purpose is to prevent two subscribers with overlapping private addresses from mixing their forwarding routes. It would not perform the necessary EVPN IP prefix type 5 operation: use supported EVPN IP prefix route advertisement with the correct VRF mapping.

The observation would verify EVPN route target matching under the separate requirement to restrict the import of BGP EVPN routes to the correct tenant service. It does not demonstrate the needed EVPN IP prefix type 5 result: remote PEs install the Type-5 prefix into the intended routing context.

The observation would verify L3VPN overlapping subnet migration under the separate requirement to move a customer site to a new PE while another tenant uses the same IP block. It does not demonstrate the needed EVPN IP prefix type 5 result: remote PEs install the Type-5 prefix into the intended routing context.

The observation would verify VRF customer routing isolation under the separate requirement to prevent two subscribers with overlapping private addresses from mixing their forwarding routes. It does not demonstrate the needed EVPN IP prefix type 5 result: remote PEs install the Type-5 prefix into the intended routing context.

This defect belongs to EVPN route target matching, where the affected outcome is to restrict the import of BGP EVPN routes to the correct tenant service. It is not the direct failure mode identified for the EVPN IP prefix type 5 design in this case: a Type-2 MAC route alone is expected to advertise a complete IP aggregate.

This defect belongs to L3VPN overlapping subnet migration, where the affected outcome is to move a customer site to a new PE while another tenant uses the same IP block. It is not the direct failure mode identified for the EVPN IP prefix type 5 design in this case: a Type-2 MAC route alone is expected to advertise a complete IP aggregate.

This defect belongs to VRF customer routing isolation, where the affected outcome is to prevent two subscribers with overlapping private addresses from mixing their forwarding routes. It is not the direct failure mode identified for the EVPN IP prefix type 5 design in this case: a Type-2 MAC route alone is expected to advertise a complete IP aggregate.

This concern applies to EVPN route target matching in a different scenario where operators need to restrict the import of BGP EVPN routes to the correct tenant service. For the deployed EVPN IP prefix type 5 approach, the relevant caution is instead that route-target and next-hop resolution remain prerequisites.

This concern applies to L3VPN overlapping subnet migration in a different scenario where operators need to move a customer site to a new PE while another tenant uses the same IP block. For the deployed EVPN IP prefix type 5 approach, the relevant caution is instead that route-target and next-hop resolution remain prerequisites.

This concern applies to VRF customer routing isolation in a different scenario where operators need to prevent two subscribers with overlapping private addresses from mixing their forwarding routes. For the deployed EVPN IP prefix type 5 approach, the relevant caution is instead that route-target and next-hop resolution remain prerequisites.