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The proposed control is tied to the provider path appears less preferable to the direct intra-area backdoor path, typically observed when sham-link connectivity is missing and a customer backdoor link becomes preferred. Here the target is rt policy permits an alternate direct path that avoids the approved service chain; monitor allowed tenant traffic traverses the inspection service with symmetric return paths.

This gate monitors a different failure, core transit traffic starts following a customer internet gateway. It would not detect the current problem: One tenant bypasses inspection due to a direct imported route. The appropriate check requires allowed tenant traffic traverses the inspection service with symmetric return paths.

It is valid for another service scenario but checks the remote pe sees the updated vpnv4 prefix but ce traffic cannot return. This case instead needs a gate for one tenant bypasses inspection due to a direct imported route and evidence that allowed tenant traffic traverses the inspection service with symmetric return paths.

This change belongs to a different Layer 3 VPNs issue: The VPN intermittently chooses the slower CE even though the primary is healthy. That issue involves pe inbound route preference does not reflect the customer's intended ce priority. The current symptom is Core transit traffic starts following a customer Internet gateway. It instead requires remove unintended master-table import and implement a scoped VPN-only default.

This remediates the ce-facing import policy is not accepting those routes, normally indicated by The PE does not export the agreed customer prefixes into its VRF. It would leave the observed problem (Core transit traffic starts following a customer Internet gateway) unresolved. Address it with remove unintended master-table import and implement a scoped VPN-only default.

The option may be useful when customer VPN prefixes reach the ASBR but fail beyond the boundary, but that is not the current evidence. Here, core transit traffic starts following a customer Internet gateway, indicating a route leak was configured in the wrong direction between master and tenant vrfs. The targeted action is Remove unintended master-table import and implement a scoped VPN-only default.

This result is useful in another case with evidence The PE does not export the agreed customer prefixes into its VRF. It does not test recovery from core transit traffic starts following a customer internet gateway. Check instead whether core routing stays independent and tenant Internet access follows its authorized path.

That observation would verify a separate fault involving asbr mp-bgp labeled vpn route handling and next-hop resolution are incomplete. Its symptom is Customer VPN prefixes reach the ASBR but fail beyond the boundary. For this case the actual issue is a route leak was configured in the wrong direction between master and tenant vrfs, and the relevant success signal is Core routing stays independent and tenant Internet access follows its authorized path.

It confirms an unrelated service correction: PE inbound route preference does not reflect the customer's intended CE priority. The present case reports Core transit traffic starts following a customer Internet gateway. Its completion test is Core routing stays independent and tenant Internet access follows its authorized path.

That explanation fits another condition: The PE does not export the agreed customer prefixes into its VRF. The evidence here is Core transit traffic starts following a customer Internet gateway. Its closer root cause is A route leak was configured in the wrong direction between master and tenant VRFs.

PE inbound route preference does not reflect the customer's intended CE priority. would normally be accompanied by the vpn intermittently chooses the slower ce even though the primary is healthy. The observed symptom is different: Core transit traffic starts following a customer Internet gateway. The likely cause is A route leak was configured in the wrong direction between master and tenant VRFs.

The stated cause is possible elsewhere but explains customer vpn prefixes reach the asbr but fail beyond the boundary, not core transit traffic starts following a customer internet gateway. This incident is better attributed to a route leak was configured in the wrong direction between master and tenant vrfs.

The proposed control is tied to asbr mp-bgp labeled vpn route handling and next-hop resolution are incomplete, typically observed when customer VPN prefixes reach the ASBR but fail beyond the boundary. Here the target is a route leak was configured in the wrong direction between master and tenant vrfs; monitor core routing stays independent and tenant Internet access follows its authorized path.

This gate monitors a different failure, the vpn intermittently chooses the slower ce even though the primary is healthy. It would not detect the current problem: Core transit traffic starts following a customer Internet gateway. The appropriate check requires core routing stays independent and tenant Internet access follows its authorized path.

It is valid for another service scenario but checks the pe does not export the agreed customer prefixes into its vrf. This case instead needs a gate for core transit traffic starts following a customer internet gateway and evidence that core routing stays independent and tenant Internet access follows its authorized path.

This remediates the pe imported vpn routes using shared route targets instead of isolated tenant membership, normally indicated by Traffic from one customer appears in the other's routing table. It would leave the observed problem (Customer VPN prefixes reach the ASBR but fail beyond the boundary) unresolved. Address it with configure approved option B VPN route exchange and valid labeled next-hop rewrite as designed.

This change belongs to a different Layer 3 VPNs issue: Customer VPN packets arrive with a valid label but are dropped during VRF lookup. That issue involves the service label maps to an unexpected forwarding table or vrf. The current symptom is Customer VPN prefixes reach the ASBR but fail beyond the boundary. It instead requires configure approved option B VPN route exchange and valid labeled next-hop rewrite as designed.

The option may be useful when the remote PE sees valid VPN reachability but data plane drops occur after ECMP change, but that is not the current evidence. Here, customer VPN prefixes reach the ASBR but fail beyond the boundary, indicating asbr mp-bgp labeled vpn route handling and next-hop resolution are incomplete. The targeted action is Configure approved option B VPN route exchange and valid labeled next-hop rewrite as designed.

That observation would verify a separate fault involving service-label forwarding and transport next-hop resolution disagree on one path. Its symptom is The remote PE sees valid VPN reachability but data plane drops occur after ECMP change. For this case the actual issue is asbr mp-bgp labeled vpn route handling and next-hop resolution are incomplete, and the relevant success signal is Far-side PEs import intended VPN routes and customer packets traverse the AS boundary.

This result is useful in another case with evidence Traffic from one customer appears in the other's routing table. It does not test recovery from customer vpn prefixes reach the asbr but fail beyond the boundary. Check instead whether far-side PEs import intended VPN routes and customer packets traverse the AS boundary.

It confirms an unrelated service correction: The service label maps to an unexpected forwarding table or VRF. The present case reports Customer VPN prefixes reach the ASBR but fail beyond the boundary. Its completion test is Far-side PEs import intended VPN routes and customer packets traverse the AS boundary.

The service label maps to an unexpected forwarding table or VRF. would normally be accompanied by customer vpn packets arrive with a valid label but are dropped during vrf lookup. The observed symptom is different: Customer VPN prefixes reach the ASBR but fail beyond the boundary. The likely cause is ASBR MP-BGP labeled VPN route handling and next-hop resolution are incomplete.

The stated cause is possible elsewhere but explains the remote pe sees valid vpn reachability but data plane drops occur after ecmp change, not customer vpn prefixes reach the asbr but fail beyond the boundary. This incident is better attributed to asbr mp-bgp labeled vpn route handling and next-hop resolution are incomplete.

That explanation fits another condition: Traffic from one customer appears in the other's routing table. The evidence here is Customer VPN prefixes reach the ASBR but fail beyond the boundary. Its closer root cause is ASBR MP-BGP labeled VPN route handling and next-hop resolution are incomplete.

This gate monitors a different failure, customer vpn packets arrive with a valid label but are dropped during vrf lookup. It would not detect the current problem: Customer VPN prefixes reach the ASBR but fail beyond the boundary. The appropriate check requires far-side PEs import intended VPN routes and customer packets traverse the AS boundary.

It is valid for another service scenario but checks traffic from one customer appears in the other's routing table. This case instead needs a gate for customer vpn prefixes reach the asbr but fail beyond the boundary and evidence that far-side PEs import intended VPN routes and customer packets traverse the AS boundary.

The proposed control is tied to service-label forwarding and transport next-hop resolution disagree on one path, typically observed when the remote PE sees valid VPN reachability but data plane drops occur after ECMP change. Here the target is asbr mp-bgp labeled vpn route handling and next-hop resolution are incomplete; monitor far-side PEs import intended VPN routes and customer packets traverse the AS boundary.

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 (One endpoint reports a matching neighbor but pseudowire status stays Down) unresolved. Address it with configure the contracted matching VC ID and compatible circuit signaling on both endpoints.

This change belongs to a different Layer 2 VPNs issue: Traffic passes small frames but larger customer packets are discarded. That issue involves the attachment circuit and pseudowire do not share a compatible effective mtu. The current symptom is One endpoint reports a matching neighbor but pseudowire status stays Down. It instead requires configure the contracted matching VC ID and compatible circuit signaling on both endpoints.

The option may be useful when customer MAC addresses appear on the wrong PE after a planned move, but that is not the current evidence. Here, one endpoint reports a matching neighbor but pseudowire status stays Down, indicating the local and remote virtual circuit identifiers do not match. The targeted action is Configure the contracted matching VC ID and compatible circuit signaling on both endpoints.

That observation would verify a separate fault involving the vpls service still contains stale forwarding database or pseudowire mapping. Its symptom is Customer MAC addresses appear on the wrong PE after a planned move. For this case the actual issue is the local and remote virtual circuit identifiers do not match, and the relevant success signal is The L2 circuit becomes Up and customer frames traverse the pseudowire.

This result is useful in another case with evidence Both attachment PEs forward duplicate known unicast after migration. It does not test recovery from one endpoint reports a matching neighbor but pseudowire status stays down. Check instead whether the L2 circuit becomes Up and customer frames traverse the pseudowire.

It confirms an unrelated service correction: The attachment circuit and pseudowire do not share a compatible effective MTU. The present case reports One endpoint reports a matching neighbor but pseudowire status stays Down. Its completion test is The L2 circuit becomes Up and customer frames traverse the pseudowire.