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It confirms an unrelated service correction: SSM group-range classification overlaps with the existing ASM service. The present case reports The route never appears despite an active local IGMPv2 membership. Its completion test is The receiver establishes an (S,G) state for the intended channel.

That observation would verify a separate fault involving multicast vpn service control signaling and transport tunnel mapping do not match. Its symptom is The provider MVPN receives control routes but does not deliver customer stream data. For this case the actual issue is source-specific join signaling requires igmpv3 or supported source filters, and the relevant success signal is The receiver establishes an (S,G) state for the intended channel.

This result is useful in another case with evidence Packets are dropped by reverse-path-forwarding checks. It does not test recovery from the route never appears despite an active local igmpv2 membership. Check instead whether the receiver establishes an (S,G) state for the intended channel.

SSM group-range classification overlaps with the existing ASM service. would normally be accompanied by a legacy asm group is interpreted as source-specific and cannot use its rp. The observed symptom is different: The route never appears despite an active local IGMPv2 membership. The likely cause is Source-specific join signaling requires IGMPv3 or supported source filters.

The stated cause is possible elsewhere but explains the provider mvpn receives control routes but does not deliver customer stream data, not the route never appears despite an active local igmpv2 membership. This incident is better attributed to source-specific join signaling requires igmpv3 or supported source filters.

That explanation fits another condition: Packets are dropped by reverse-path-forwarding checks. The evidence here is The route never appears despite an active local IGMPv2 membership. Its closer root cause is Source-specific join signaling requires IGMPv3 or supported source filters.

The proposed control is tied to multicast vpn service control signaling and transport tunnel mapping do not match, typically observed when the provider MVPN receives control routes but does not deliver customer stream data. Here the target is source-specific join signaling requires igmpv3 or supported source filters; monitor the receiver establishes an (S,G) state for the intended channel.

This gate monitors a different failure, a legacy asm group is interpreted as source-specific and cannot use its rp. It would not detect the current problem: The route never appears despite an active local IGMPv2 membership. The appropriate check requires the receiver establishes an (S,G) state for the intended channel.

It is valid for another service scenario but checks packets are dropped by reverse-path-forwarding checks. This case instead needs a gate for the route never appears despite an active local igmpv2 membership and evidence that the receiver establishes an (S,G) state for the intended channel.

This change belongs to a different IP Multicast issue: One RP fails but receivers stay joined to a dead shared tree. That issue involves rp redundancy and discovery were not implemented for the asm service. The current symptom is Packets are dropped by reverse-path-forwarding checks. It instead requires repair source RPF reachability and ingress interface alignment.

The option may be useful when two RP nodes disagree on active source registrations, but that is not the current evidence. Here, packets are dropped by reverse-path-forwarding checks, indicating unicast routing points toward the source through a different incoming interface. The targeted action is Repair source RPF reachability and ingress interface alignment.

This remediates the group filter mistakenly denies the contracted multicast address, normally indicated by A valid service group never creates IGMP membership on the PE. It would leave the observed problem (Packets are dropped by reverse-path-forwarding checks) unresolved. Address it with repair source RPF reachability and ingress interface alignment.

That observation would verify a separate fault involving anycast rp source-information synchronization is incomplete. Its symptom is Two RP nodes disagree on active source registrations. For this case the actual issue is unicast routing points toward the source through a different incoming interface, and the relevant success signal is RPF checks succeed and packets forward along the source tree.

This result is useful in another case with evidence A valid service group never creates IGMP membership on the PE. It does not test recovery from packets are dropped by reverse-path-forwarding checks. Check instead whether rPF checks succeed and packets forward along the source tree.

It confirms an unrelated service correction: RP redundancy and discovery were not implemented for the ASM service. The present case reports Packets are dropped by reverse-path-forwarding checks. Its completion test is RPF checks succeed and packets forward along the source tree.

That explanation fits another condition: A valid service group never creates IGMP membership on the PE. The evidence here is Packets are dropped by reverse-path-forwarding checks. Its closer root cause is Unicast routing points toward the source through a different incoming interface.

The stated cause is possible elsewhere but explains two rp nodes disagree on active source registrations, not packets are dropped by reverse-path-forwarding checks. This incident is better attributed to unicast routing points toward the source through a different incoming interface.

RP redundancy and discovery were not implemented for the ASM service. would normally be accompanied by one rp fails but receivers stay joined to a dead shared tree. The observed symptom is different: Packets are dropped by reverse-path-forwarding checks. The likely cause is Unicast routing points toward the source through a different incoming interface.

The proposed control is tied to anycast rp source-information synchronization is incomplete, typically observed when two RP nodes disagree on active source registrations. Here the target is unicast routing points toward the source through a different incoming interface; monitor rPF checks succeed and packets forward along the source tree.

It is valid for another service scenario but checks a valid service group never creates igmp membership on the pe. This case instead needs a gate for packets are dropped by reverse-path-forwarding checks and evidence that rPF checks succeed and packets forward along the source tree.

This gate monitors a different failure, one rp fails but receivers stay joined to a dead shared tree. It would not detect the current problem: Packets are dropped by reverse-path-forwarding checks. The appropriate check requires rPF checks succeed and packets forward along the source tree.

The option may be useful when edge receivers are active but the intermediate router has no outgoing interface list, but that is not the current evidence. Here, one RP fails but receivers stay joined to a dead shared tree, indicating rp redundancy and discovery were not implemented for the asm service. The targeted action is Configure supported Anycast RP or redundant RP discovery with proper synchronization.

This remediates local igmp version is fixed at an earlier membership model, normally indicated by IGMPv3 receivers cannot express source include lists to the router. It would leave the observed problem (One RP fails but receivers stay joined to a dead shared tree) unresolved. Address it with configure supported Anycast RP or redundant RP discovery with proper synchronization.

This change belongs to a different IP Multicast issue: Shared-tree traffic continues after the receiver requests shortest-path switchover. That issue involves spt threshold or pim source-tree behavior is not aligned to the service policy. The current symptom is One RP fails but receivers stay joined to a dead shared tree. It instead requires configure supported Anycast RP or redundant RP discovery with proper synchronization.

This result is useful in another case with evidence IGMPv3 receivers cannot express source include lists to the router. It does not test recovery from one rp fails but receivers stay joined to a dead shared tree. Check instead whether failover retains multicast delivery without stale RP dependency.

It confirms an unrelated service correction: SPT threshold or PIM source-tree behavior is not aligned to the service policy. The present case reports One RP fails but receivers stay joined to a dead shared tree. Its completion test is Failover retains multicast delivery without stale RP dependency.

That observation would verify a separate fault involving the group join state does not propagate through the intended pim path. Its symptom is Edge receivers are active but the intermediate router has no outgoing interface list. For this case the actual issue is rp redundancy and discovery were not implemented for the asm service, and the relevant success signal is Failover retains multicast delivery without stale RP dependency.

That explanation fits another condition: IGMPv3 receivers cannot express source include lists to the router. The evidence here is One RP fails but receivers stay joined to a dead shared tree. Its closer root cause is RP redundancy and discovery were not implemented for the ASM service.

The stated cause is possible elsewhere but explains edge receivers are active but the intermediate router has no outgoing interface list, not one rp fails but receivers stay joined to a dead shared tree. This incident is better attributed to rp redundancy and discovery were not implemented for the asm service.

SPT threshold or PIM source-tree behavior is not aligned to the service policy. would normally be accompanied by shared-tree traffic continues after the receiver requests shortest-path switchover. The observed symptom is different: One RP fails but receivers stay joined to a dead shared tree. The likely cause is RP redundancy and discovery were not implemented for the ASM service.

It is valid for another service scenario but checks igmpv3 receivers cannot express source include lists to the router. This case instead needs a gate for one rp fails but receivers stay joined to a dead shared tree and evidence that failover retains multicast delivery without stale RP dependency.

The proposed control is tied to the group join state does not propagate through the intended pim path, typically observed when edge receivers are active but the intermediate router has no outgoing interface list. Here the target is rp redundancy and discovery were not implemented for the asm service; monitor failover retains multicast delivery without stale RP dependency.

This gate monitors a different failure, shared-tree traffic continues after the receiver requests shortest-path switchover. It would not detect the current problem: One RP fails but receivers stay joined to a dead shared tree. The appropriate check requires failover retains multicast delivery without stale RP dependency.