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That observation would verify a separate fault involving pseudowire service label resolves to a broken mpls transport next hop. Its symptom is Pseudowire signaling remains Up but data drops on one transport path. For this case the actual issue is ethernet segment split-horizon or designated-forwarder behavior is incorrect, and the relevant success signal is Only the elected forwarding path replicates BUM traffic and failover stays loss-limited.

This result is useful in another case with evidence Data is discarded because the ingress and egress service framing differ. It does not test recovery from a customer-facing ce sees duplicate broadcast frames after a pe failure. Check instead whether only the elected forwarding path replicates BUM traffic and failover stays loss-limited.

It confirms an unrelated service correction: Ethernet segment identifier mismatch prevents correct multihoming coordination. The present case reports A customer-facing CE sees duplicate broadcast frames after a PE failure. Its completion test is Only the elected forwarding path replicates BUM traffic and failover stays loss-limited.

That explanation fits another condition: Data is discarded because the ingress and egress service framing differ. The evidence here is A customer-facing CE sees duplicate broadcast frames after a PE failure. Its closer root cause is Ethernet segment split-horizon or designated-forwarder behavior is incorrect.

Ethernet segment identifier mismatch prevents correct multihoming coordination. would normally be accompanied by each pe advertises a different esi for the same physical ethernet segment. The observed symptom is different: A customer-facing CE sees duplicate broadcast frames after a PE failure. The likely cause is Ethernet segment split-horizon or designated-forwarder behavior is incorrect.

The stated cause is possible elsewhere but explains pseudowire signaling remains up but data drops on one transport path, not a customer-facing ce sees duplicate broadcast frames after a pe failure. This incident is better attributed to ethernet segment split-horizon or designated-forwarder behavior is incorrect.

It is valid for another service scenario but checks data is discarded because the ingress and egress service framing differ. This case instead needs a gate for a customer-facing ce sees duplicate broadcast frames after a pe failure and evidence that only the elected forwarding path replicates BUM traffic and failover stays loss-limited.

This gate monitors a different failure, each pe advertises a different esi for the same physical ethernet segment. It would not detect the current problem: A customer-facing CE sees duplicate broadcast frames after a PE failure. The appropriate check requires only the elected forwarding path replicates BUM traffic and failover stays loss-limited.

The proposed control is tied to pseudowire service label resolves to a broken mpls transport next hop, typically observed when pseudowire signaling remains Up but data drops on one transport path. Here the target is ethernet segment split-horizon or designated-forwarder behavior is incorrect; monitor only the elected forwarding path replicates BUM traffic and failover stays loss-limited.

The option may be useful when broadcast and unknown-unicast traffic never reaches one remote PE, but that is not the current evidence. Here, each PE advertises a different ESI for the same physical Ethernet segment, indicating ethernet segment identifier mismatch prevents correct multihoming coordination. The targeted action is Assign the matching planned ESI and compatible ES import/community settings.

This change belongs to a different Layer 2 VPNs issue: One remote PE receives BGP routes but does not establish the required connection. That issue involves import route targets do not include the originating l2vpn service. The current symptom is Each PE advertises a different ESI for the same physical Ethernet segment. It instead requires assign the matching planned ESI and compatible ES import/community settings.

This remediates the pe's df election view disagrees because vlan or ethernet tag association is inconsistent, normally indicated by A newly connected PE advertises the service but never forwards BUM frames when elected. It would leave the observed problem (Each PE advertises a different ESI for the same physical Ethernet segment) unresolved. Address it with assign the matching planned ESI and compatible ES import/community settings.

This result is useful in another case with evidence A newly connected PE advertises the service but never forwards BUM frames when elected. It does not test recovery from each pe advertises a different esi for the same physical ethernet segment. Check instead whether the remote EVPN domain recognizes one common segment and converges on failover.

That observation would verify a separate fault involving the receiving pe lacks an eligible ingress-replication membership or tunnel mapping. Its symptom is Broadcast and unknown-unicast traffic never reaches one remote PE. For this case the actual issue is ethernet segment identifier mismatch prevents correct multihoming coordination, and the relevant success signal is The remote EVPN domain recognizes one common segment and converges on failover.

It confirms an unrelated service correction: Import route targets do not include the originating L2VPN service. The present case reports Each PE advertises a different ESI for the same physical Ethernet segment. Its completion test is The remote EVPN domain recognizes one common segment and converges on failover.

That explanation fits another condition: A newly connected PE advertises the service but never forwards BUM frames when elected. The evidence here is Each PE advertises a different ESI for the same physical Ethernet segment. Its closer root cause is Ethernet segment identifier mismatch prevents correct multihoming coordination.

Import route targets do not include the originating L2VPN service. would normally be accompanied by one remote pe receives bgp routes but does not establish the required connection. The observed symptom is different: Each PE advertises a different ESI for the same physical Ethernet segment. The likely cause is Ethernet segment identifier mismatch prevents correct multihoming coordination.

The stated cause is possible elsewhere but explains broadcast and unknown-unicast traffic never reaches one remote pe, not each pe advertises a different esi for the same physical ethernet segment. This incident is better attributed to ethernet segment identifier mismatch prevents correct multihoming coordination.

It is valid for another service scenario but checks a newly connected pe advertises the service but never forwards bum frames when elected. This case instead needs a gate for each pe advertises a different esi for the same physical ethernet segment and evidence that the remote EVPN domain recognizes one common segment and converges on failover.

This gate monitors a different failure, one remote pe receives bgp routes but does not establish the required connection. It would not detect the current problem: Each PE advertises a different ESI for the same physical Ethernet segment. The appropriate check requires the remote EVPN domain recognizes one common segment and converges on failover.

The proposed control is tied to the receiving pe lacks an eligible ingress-replication membership or tunnel mapping, typically observed when broadcast and unknown-unicast traffic never reaches one remote PE. Here the target is ethernet segment identifier mismatch prevents correct multihoming coordination; monitor the remote EVPN domain recognizes one common segment and converges on failover.

The option may be useful when two attachments map to the same site ID and service endpoints conflict, but that is not the current evidence. Here, broadcast and unknown-unicast traffic never reaches one remote PE, indicating the receiving pe lacks an eligible ingress-replication membership or tunnel mapping. The targeted action is Restore proper EVPN Type-3 import and replication next-hop resolution.

This remediates evpn aliasing and backup-path signaling are not aligned for the ethernet segment, normally indicated by Both attachment PEs forward duplicate known unicast after migration. It would leave the observed problem (Broadcast and unknown-unicast traffic never reaches one remote PE) unresolved. Address it with restore proper EVPN Type-3 import and replication next-hop resolution.

This change belongs to a different Layer 2 VPNs issue: A transit PE imports endpoints from an unrelated L2VPN. That issue involves l2vpn rt filters permit cross-service membership despite separate service definitions. The current symptom is Broadcast and unknown-unicast traffic never reaches one remote PE. It instead requires restore proper EVPN Type-3 import and replication next-hop resolution.

It confirms an unrelated service correction: L2VPN RT filters permit cross-service membership despite separate service definitions. The present case reports Broadcast and unknown-unicast traffic never reaches one remote PE. Its completion test is BUM traffic reaches each subscribed PE exactly as permitted.

That observation would verify a separate fault involving site-id uniqueness is not maintained across the pseudowire service. Its symptom is Two attachments map to the same site ID and service endpoints conflict. For this case the actual issue is the receiving pe lacks an eligible ingress-replication membership or tunnel mapping, and the relevant success signal is BUM traffic reaches each subscribed PE exactly as permitted.

This result is useful in another case with evidence Both attachment PEs forward duplicate known unicast after migration. It does not test recovery from broadcast and unknown-unicast traffic never reaches one remote pe. Check instead whether bUM traffic reaches each subscribed PE exactly as permitted.

That explanation fits another condition: Both attachment PEs forward duplicate known unicast after migration. The evidence here is Broadcast and unknown-unicast traffic never reaches one remote PE. Its closer root cause is The receiving PE lacks an eligible ingress-replication membership or tunnel mapping.

The stated cause is possible elsewhere but explains two attachments map to the same site id and service endpoints conflict, not broadcast and unknown-unicast traffic never reaches one remote pe. This incident is better attributed to the receiving pe lacks an eligible ingress-replication membership or tunnel mapping.

L2VPN RT filters permit cross-service membership despite separate service definitions. would normally be accompanied by a transit pe imports endpoints from an unrelated l2vpn. The observed symptom is different: Broadcast and unknown-unicast traffic never reaches one remote PE. The likely cause is The receiving PE lacks an eligible ingress-replication membership or tunnel mapping.

The proposed control is tied to site-id uniqueness is not maintained across the pseudowire service, typically observed when two attachments map to the same site ID and service endpoints conflict. Here the target is the receiving pe lacks an eligible ingress-replication membership or tunnel mapping; monitor bUM traffic reaches each subscribed PE exactly as permitted.

This gate monitors a different failure, a transit pe imports endpoints from an unrelated l2vpn. It would not detect the current problem: Broadcast and unknown-unicast traffic never reaches one remote PE. The appropriate check requires bUM traffic reaches each subscribed PE exactly as permitted.

It is valid for another service scenario but checks both attachment pes forward duplicate known unicast after migration. This case instead needs a gate for broadcast and unknown-unicast traffic never reaches one remote pe and evidence that bUM traffic reaches each subscribed PE exactly as permitted.