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It is valid for another service scenario but checks operators expect the rd itself to enforce customer route isolation. This case instead needs a gate for ipv6 routes leak into the global ipv6 table instead of the tenant's inet6 vrf and evidence that global and tenant IPv6 RIBs remain separate and allowed customer routes work.

The proposed control is tied to site-of-origin extended-community filtering is missing and can cause routing feedback, typically observed when both PEs advertise the same CE prefix with inconsistent site-of-origin tags. Here the target is the customer interface or routing family is associated with the wrong routing instance; monitor global and tenant IPv6 RIBs remain separate and allowed customer routes work.

This gate monitors a different failure, the configured interface belongs to the master instance instead of its customer vrf. It would not detect the current problem: IPv6 routes leak into the global IPv6 table instead of the tenant's inet6 VRF. The appropriate check requires global and tenant IPv6 RIBs remain separate and allowed customer routes work.

This remediates cross-service route-target import is too permissive for overlapping partner addresses, normally indicated by A route received through one partner is installed in the other's VRF. It would leave the observed problem (Both PEs advertise the same CE prefix with inconsistent site-of-origin tags) unresolved. Address it with apply compatible SOO tagging and route rejection on re-entry.

The option may be useful when a customer subnet is absent on the far side while local sites exchange correctly, but that is not the current evidence. Here, both PEs advertise the same CE prefix with inconsistent site-of-origin tags, indicating site-of-origin extended-community filtering is missing and can cause routing feedback. The targeted action is Apply compatible SOO tagging and route rejection on re-entry.

This change belongs to a different Layer 3 VPNs issue: Remote PE imports the route but forwarding fails on the core transit. That issue involves the vpn bgp next hop lacks a resolvable mpls labeled transport path. The current symptom is Both PEs advertise the same CE prefix with inconsistent site-of-origin tags. It instead requires apply compatible SOO tagging and route rejection on re-entry.

That observation would verify a separate fault involving the inter-as per-vrf ebgp exchange is missing a route export or prefix permission. Its symptom is A customer subnet is absent on the far side while local sites exchange correctly. For this case the actual issue is site-of-origin extended-community filtering is missing and can cause routing feedback, and the relevant success signal is The multihomed site's prefix remains stable without reimport looping.

This result is useful in another case with evidence A route received through one partner is installed in the other's VRF. It does not test recovery from both pes advertise the same ce prefix with inconsistent site-of-origin tags. Check instead whether the multihomed site's prefix remains stable without reimport looping.

It confirms an unrelated service correction: The VPN BGP next hop lacks a resolvable MPLS labeled transport path. The present case reports Both PEs advertise the same CE prefix with inconsistent site-of-origin tags. Its completion test is The multihomed site's prefix remains stable without reimport looping.

The VPN BGP next hop lacks a resolvable MPLS labeled transport path. would normally be accompanied by remote pe imports the route but forwarding fails on the core transit. The observed symptom is different: Both PEs advertise the same CE prefix with inconsistent site-of-origin tags. The likely cause is Site-of-origin extended-community filtering is missing and can cause routing feedback.

The stated cause is possible elsewhere but explains a customer subnet is absent on the far side while local sites exchange correctly, not both pes advertise the same ce prefix with inconsistent site-of-origin tags. This incident is better attributed to site-of-origin extended-community filtering is missing and can cause routing feedback.

That explanation fits another condition: A route received through one partner is installed in the other's VRF. The evidence here is Both PEs advertise the same CE prefix with inconsistent site-of-origin tags. Its closer root cause is Site-of-origin extended-community filtering is missing and can cause routing feedback.

This gate monitors a different failure, remote pe imports the route but forwarding fails on the core transit. It would not detect the current problem: Both PEs advertise the same CE prefix with inconsistent site-of-origin tags. The appropriate check requires the multihomed site's prefix remains stable without reimport looping.

It is valid for another service scenario but checks a route received through one partner is installed in the other's vrf. This case instead needs a gate for both pes advertise the same ce prefix with inconsistent site-of-origin tags and evidence that the multihomed site's prefix remains stable without reimport looping.

The proposed control is tied to the inter-as per-vrf ebgp exchange is missing a route export or prefix permission, typically observed when a customer subnet is absent on the far side while local sites exchange correctly. Here the target is site-of-origin extended-community filtering is missing and can cause routing feedback; monitor the multihomed site's prefix remains stable without reimport looping.

This remediates the carrier-of-carriers design lacks compatible labeled route distribution and transport resolution, normally indicated by An interprovider labeled packet cannot be forwarded through the upstream core. It would leave the observed problem (A route received through one partner is installed in the other's VRF) unresolved. Address it with remove shared RT membership and use a controlled firewall/service-exchange VRF if justified.

The option may be useful when two spoke sites unexpectedly exchange routes without the central hub, but that is not the current evidence. Here, a route received through one partner is installed in the other's VRF, indicating cross-service route-target import is too permissive for overlapping partner addresses. The targeted action is Remove shared RT membership and use a controlled firewall/service-exchange VRF if justified.

This change belongs to a different Layer 3 VPNs issue: Customer VRFs can reach shared DNS but also import other tenants' direct routes. That issue involves the shared-services exchange uses transit rts that permit uncontrolled customer-to-customer reachability. The current symptom is A route received through one partner is installed in the other's VRF. It instead requires remove shared RT membership and use a controlled firewall/service-exchange VRF if justified.

That observation would verify a separate fault involving spoke import/export rt policy grants direct spoke route membership. Its symptom is Two spoke sites unexpectedly exchange routes without the central hub. For this case the actual issue is cross-service route-target import is too permissive for overlapping partner addresses, and the relevant success signal is Partner routes remain isolated except through explicitly approved exchange paths.

This result is useful in another case with evidence An interprovider labeled packet cannot be forwarded through the upstream core. It does not test recovery from a route received through one partner is installed in the other's vrf. Check instead whether partner routes remain isolated except through explicitly approved exchange paths.

It confirms an unrelated service correction: The shared-services exchange uses transit RTs that permit uncontrolled customer-to-customer reachability. The present case reports A route received through one partner is installed in the other's VRF. Its completion test is Partner routes remain isolated except through explicitly approved exchange paths.

The shared-services exchange uses transit RTs that permit uncontrolled customer-to-customer reachability. would normally be accompanied by customer vrfs can reach shared dns but also import other tenants' direct routes. The observed symptom is different: A route received through one partner is installed in the other's VRF. The likely cause is Cross-service route-target import is too permissive for overlapping partner addresses.

That explanation fits another condition: An interprovider labeled packet cannot be forwarded through the upstream core. The evidence here is A route received through one partner is installed in the other's VRF. Its closer root cause is Cross-service route-target import is too permissive for overlapping partner addresses.

The stated cause is possible elsewhere but explains two spoke sites unexpectedly exchange routes without the central hub, not a route received through one partner is installed in the other's vrf. This incident is better attributed to cross-service route-target import is too permissive for overlapping partner addresses.

The proposed control is tied to spoke import/export rt policy grants direct spoke route membership, typically observed when two spoke sites unexpectedly exchange routes without the central hub. Here the target is cross-service route-target import is too permissive for overlapping partner addresses; monitor partner routes remain isolated except through explicitly approved exchange paths.

It is valid for another service scenario but checks an interprovider labeled packet cannot be forwarded through the upstream core. This case instead needs a gate for a route received through one partner is installed in the other's vrf and evidence that partner routes remain isolated except through explicitly approved exchange paths.

This gate monitors a different failure, customer vrfs can reach shared dns but also import other tenants' direct routes. It would not detect the current problem: A route received through one partner is installed in the other's VRF. The appropriate check requires partner routes remain isolated except through explicitly approved exchange paths.

The option may be useful when vPN route remains active at PEs despite loss of the underlying labeled transport, but that is not the current evidence. Here, customer VRFs can reach shared DNS but also import other tenants' direct routes, indicating the shared-services exchange uses transit rts that permit uncontrolled customer-to-customer reachability. The targeted action is Scope RT and prefix exchange through the shared-services VRF to the DNS service only.

This change belongs to a different Layer 3 VPNs issue: A remote PE selects the backup site because the route policy overwrote local preference. That issue involves the vpn import policy modifies best-path attributes inconsistently. The current symptom is Customer VRFs can reach shared DNS but also import other tenants' direct routes. It instead requires scope RT and prefix exchange through the shared-services VRF to the DNS service only.

This remediates the new site imports an incomplete set of route targets for the vpn, normally indicated by The new VRF learns only one existing site after provisioning. It would leave the observed problem (Customer VRFs can reach shared DNS but also import other tenants' direct routes) unresolved. Address it with scope RT and prefix exchange through the shared-services VRF to the DNS service only.

It confirms an unrelated service correction: The VPN import policy modifies best-path attributes inconsistently. The present case reports Customer VRFs can reach shared DNS but also import other tenants' direct routes. Its completion test is Only the shared DNS prefixes traverse service VRFs and tenants stay isolated.

That observation would verify a separate fault involving mp-bgp control-plane reachability is out of sync with mpls transport forwarding. Its symptom is VPN route remains active at PEs despite loss of the underlying labeled transport. For this case the actual issue is the shared-services exchange uses transit rts that permit uncontrolled customer-to-customer reachability, and the relevant success signal is Only the shared DNS prefixes traverse service VRFs and tenants stay isolated.

This result is useful in another case with evidence The new VRF learns only one existing site after provisioning. It does not test recovery from customer vrfs can reach shared dns but also import other tenants' direct routes. Check instead whether only the shared DNS prefixes traverse service VRFs and tenants stay isolated.