Pass Your Cisco 350-501 Exam Easy!

This concern applies to L3VPN label blackhole diagnosis in a different scenario where operators need to investigate a VPNv4 route that exists in BGP but does not carry packets end to end. For the deployed route distinguisher VPN identity approach, the relevant caution is instead that the RD identifies a route but does not by itself control route import.

This concern applies to EVPN single-active access design in a different scenario where operators need to make only one provider edge forward traffic for a protected customer Ethernet segment. For the deployed route distinguisher VPN identity approach, the relevant caution is instead that the RD identifies a route but does not by itself control route import.

This concern applies to E-Line attachment circuit binding in a different scenario where operators need to bind an existing customer Ethernet UNI into the correct E-Line pseudowire and transport endpoint. For the deployed route distinguisher VPN identity approach, the relevant caution is instead that the RD identifies a route but does not by itself control route import.

L3VPN label blackhole diagnosis instead addresses a different condition: investigate a VPNv4 route that exists in BGP but does not carry packets end to end. It would instead require you to check transport label and VPN service label resolution from ingress to egress, not the stated goal to control which provider-edge VRFs import a shared customer's VPN routes.

EVPN MAC/IP route type 2 instead addresses a different condition: advertise a reachable customer MAC address over a provider EVPN fabric. It would instead require you to enable MAC learning and Type-2 EVPN route advertisement for the correct service, not the stated goal to control which provider-edge VRFs import a shared customer's VPN routes.

E-Tree root and leaf isolation instead addresses a different condition: allow a hub to reach remote leaves while preventing leaf-to-leaf communication. It would instead require you to configure an E-Tree rooted multipoint Ethernet service with leaf restrictions, not the stated goal to control which provider-edge VRFs import a shared customer's VPN routes.

The proposed step is for L3VPN label blackhole diagnosis, whose purpose is to investigate a VPNv4 route that exists in BGP but does not carry packets end to end. It would not perform the necessary route target VPN membership operation: configure matching import and export route-target policies between authorized VRFs.

The proposed step is for EVPN MAC/IP route type 2, whose purpose is to advertise a reachable customer MAC address over a provider EVPN fabric. It would not perform the necessary route target VPN membership operation: configure matching import and export route-target policies between authorized VRFs.

The proposed step is for E-Tree root and leaf isolation, whose purpose is to allow a hub to reach remote leaves while preventing leaf-to-leaf communication. It would not perform the necessary route target VPN membership operation: configure matching import and export route-target policies between authorized VRFs.

The observation would verify L3VPN label blackhole diagnosis under the separate requirement to investigate a VPNv4 route that exists in BGP but does not carry packets end to end. It does not demonstrate the needed route target VPN membership result: only the intended remote VRFs import the labeled customer routes.

The observation would verify EVPN MAC/IP route type 2 under the separate requirement to advertise a reachable customer MAC address over a provider EVPN fabric. It does not demonstrate the needed route target VPN membership result: only the intended remote VRFs import the labeled customer routes.

The observation would verify E-Tree root and leaf isolation under the separate requirement to allow a hub to reach remote leaves while preventing leaf-to-leaf communication. It does not demonstrate the needed route target VPN membership result: only the intended remote VRFs import the labeled customer routes.

This defect belongs to L3VPN label blackhole diagnosis, where the affected outcome is to investigate a VPNv4 route that exists in BGP but does not carry packets end to end. It is not the direct failure mode identified for the route target VPN membership design in this case: matching RDs are incorrectly assumed to grant VPN route import authorization.

This defect belongs to EVPN MAC/IP route type 2, where the affected outcome is to advertise a reachable customer MAC address over a provider EVPN fabric. It is not the direct failure mode identified for the route target VPN membership design in this case: matching RDs are incorrectly assumed to grant VPN route import authorization.

This defect belongs to E-Tree root and leaf isolation, where the affected outcome is to allow a hub to reach remote leaves while preventing leaf-to-leaf communication. It is not the direct failure mode identified for the route target VPN membership design in this case: matching RDs are incorrectly assumed to grant VPN route import authorization.

This concern applies to L3VPN label blackhole diagnosis in a different scenario where operators need to investigate a VPNv4 route that exists in BGP but does not carry packets end to end. For the deployed route target VPN membership approach, the relevant caution is instead that incorrect route targets can leak sensitive routes across tenants.

This concern applies to EVPN MAC/IP route type 2 in a different scenario where operators need to advertise a reachable customer MAC address over a provider EVPN fabric. For the deployed route target VPN membership approach, the relevant caution is instead that incorrect route targets can leak sensitive routes across tenants.

This concern applies to E-Tree root and leaf isolation in a different scenario where operators need to allow a hub to reach remote leaves while preventing leaf-to-leaf communication. For the deployed route target VPN membership approach, the relevant caution is instead that incorrect route targets can leak sensitive routes across tenants.

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 exchange labeled VPN-IPv4 reachability among provider PEs.

VLAN tag pop at handoff instead addresses a different condition: deliver untagged Ethernet to a customer while transporting a provider service tag. It would instead require you to apply an explicit VLAN tag rewrite pop operation at the intended EFP boundary, not the stated goal to exchange labeled VPN-IPv4 reachability among provider PEs.

EVPN IP prefix type 5 instead addresses a different condition: advertise an IP prefix through a routed EVPN service without relying solely on individual MAC advertisements. It would instead require you to use supported EVPN IP prefix route advertisement with the correct VRF mapping, not the stated goal to exchange labeled VPN-IPv4 reachability among provider PEs.

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 MP-BGP vpnv4 peering operation: enable compatible vpnv4 unicast address-family BGP neighbor sessions.

The proposed step is for VLAN tag pop at handoff, whose purpose is to deliver untagged Ethernet to a customer while transporting a provider service tag. It would not perform the necessary MP-BGP vpnv4 peering operation: enable compatible vpnv4 unicast address-family BGP neighbor sessions.

The proposed step is for EVPN IP prefix type 5, whose purpose is to advertise an IP prefix through a routed EVPN service without relying solely on individual MAC advertisements. It would not perform the necessary MP-BGP vpnv4 peering operation: enable compatible vpnv4 unicast address-family BGP neighbor sessions.

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 MP-BGP vpnv4 peering result: remote PEs learn RD-qualified VPN NLRI with corresponding next-hop and labels.

The observation would verify VLAN tag pop at handoff under the separate requirement to deliver untagged Ethernet to a customer while transporting a provider service tag. It does not demonstrate the needed MP-BGP vpnv4 peering result: remote PEs learn RD-qualified VPN NLRI with corresponding next-hop and labels.

The observation would verify EVPN IP prefix type 5 under the separate requirement to advertise an IP prefix through a routed EVPN service without relying solely on individual MAC advertisements. It does not demonstrate the needed MP-BGP vpnv4 peering result: remote PEs learn RD-qualified VPN NLRI with corresponding next-hop and labels.

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 MP-BGP vpnv4 peering design in this case: ordinary IPv4 unicast only is activated and remote VRFs remain empty.

This defect belongs to VLAN tag pop at handoff, where the affected outcome is to deliver untagged Ethernet to a customer while transporting a provider service tag. It is not the direct failure mode identified for the MP-BGP vpnv4 peering design in this case: ordinary IPv4 unicast only is activated and remote VRFs remain empty.

This defect belongs to EVPN IP prefix type 5, where the affected outcome is to advertise an IP prefix through a routed EVPN service without relying solely on individual MAC advertisements. It is not the direct failure mode identified for the MP-BGP vpnv4 peering design in this case: ordinary IPv4 unicast only is activated and remote VRFs remain empty.

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 MP-BGP vpnv4 peering approach, the relevant caution is instead that PE loopbacks and MPLS transport must be reachable independent of VPN routes.

This concern applies to VLAN tag pop at handoff in a different scenario where operators need to deliver untagged Ethernet to a customer while transporting a provider service tag. For the deployed MP-BGP vpnv4 peering approach, the relevant caution is instead that PE loopbacks and MPLS transport must be reachable independent of VPN routes.

This concern applies to EVPN IP prefix type 5 in a different scenario where operators need to advertise an IP prefix through a routed EVPN service without relying solely on individual MAC advertisements. For the deployed MP-BGP vpnv4 peering approach, the relevant caution is instead that PE loopbacks and MPLS transport must be reachable independent of VPN routes.