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That observation would verify a separate fault involving legacy any-source join configuration remains after the ssm group move. Its symptom is Receiver packets still target a shared-tree RP that no longer has active mapping. For this case the actual issue is a control-plane filter blocks required pim packets on the transit segment, and the relevant success signal is PIM neighbors remain Up and multicast joins propagate.

This result is useful in another case with evidence The provider MVPN receives control routes but does not deliver customer stream data. It does not test recovery from pim hellos traverse a link whose multicast control traffic is filtered. Check instead whether pIM neighbors remain Up and multicast joins propagate.

It confirms an unrelated service correction: The rendezvous point address is missing or unreachable for the ASM group. The present case reports PIM Hellos traverse a link whose multicast control traffic is filtered. Its completion test is PIM neighbors remain Up and multicast joins propagate.

The stated cause is possible elsewhere but explains receiver packets still target a shared-tree rp that no longer has active mapping, not pim hellos traverse a link whose multicast control traffic is filtered. This incident is better attributed to a control-plane filter blocks required pim packets on the transit segment.

That explanation fits another condition: The provider MVPN receives control routes but does not deliver customer stream data. The evidence here is PIM Hellos traverse a link whose multicast control traffic is filtered. Its closer root cause is A control-plane filter blocks required PIM packets on the transit segment.

The rendezvous point address is missing or unreachable for the ASM group. would normally be accompanied by sources transmit packets but receivers see none until a static join is added. The observed symptom is different: PIM Hellos traverse a link whose multicast control traffic is filtered. The likely cause is A control-plane filter blocks required PIM packets on the transit segment.

The proposed control is tied to legacy any-source join configuration remains after the ssm group move, typically observed when receiver packets still target a shared-tree RP that no longer has active mapping. Here the target is a control-plane filter blocks required pim packets on the transit segment; monitor pIM neighbors remain Up and multicast joins propagate.

It is valid for another service scenario but checks the provider mvpn receives control routes but does not deliver customer stream data. This case instead needs a gate for pim hellos traverse a link whose multicast control traffic is filtered and evidence that pIM neighbors remain Up and multicast joins propagate.

This gate monitors a different failure, sources transmit packets but receivers see none until a static join is added. It would not detect the current problem: PIM Hellos traverse a link whose multicast control traffic is filtered. The appropriate check requires pIM neighbors remain Up and multicast joins propagate.

This change belongs to a different IP Multicast issue: A valid service group never creates IGMP membership on the PE. That issue involves the group filter mistakenly denies the contracted multicast address. The current symptom is The provider MVPN receives control routes but does not deliver customer stream data. It instead requires align supported MVPN provider tunnel and customer multicast routing design.

This remediates ssm group-range classification overlaps with the existing asm service, normally indicated by A legacy ASM group is interpreted as source-specific and cannot use its RP. It would leave the observed problem (The provider MVPN receives control routes but does not deliver customer stream data) unresolved. Address it with align supported MVPN provider tunnel and customer multicast routing design.

The option may be useful when the route never appears despite an active local IGMPv2 membership, but that is not the current evidence. Here, the provider MVPN receives control routes but does not deliver customer stream data, indicating multicast vpn service control signaling and transport tunnel mapping do not match. The targeted action is Align supported MVPN provider tunnel and customer multicast routing design.

That observation would verify a separate fault involving source-specific join signaling requires igmpv3 or supported source filters. Its symptom is The route never appears despite an active local IGMPv2 membership. For this case the actual issue is multicast vpn service control signaling and transport tunnel mapping do not match, and the relevant success signal is Customer receiver receives packets with correct isolated MVPN forwarding.

It confirms an unrelated service correction: The group filter mistakenly denies the contracted multicast address. The present case reports The provider MVPN receives control routes but does not deliver customer stream data. Its completion test is Customer receiver receives packets with correct isolated MVPN forwarding.

This result is useful in another case with evidence A legacy ASM group is interpreted as source-specific and cannot use its RP. It does not test recovery from the provider mvpn receives control routes but does not deliver customer stream data. Check instead whether customer receiver receives packets with correct isolated MVPN forwarding.

That explanation fits another condition: A legacy ASM group is interpreted as source-specific and cannot use its RP. The evidence here is The provider MVPN receives control routes but does not deliver customer stream data. Its closer root cause is Multicast VPN service control signaling and transport tunnel mapping do not match.

The group filter mistakenly denies the contracted multicast address. would normally be accompanied by a valid service group never creates igmp membership on the pe. The observed symptom is different: The provider MVPN receives control routes but does not deliver customer stream data. The likely cause is Multicast VPN service control signaling and transport tunnel mapping do not match.

The stated cause is possible elsewhere but explains the route never appears despite an active local igmpv2 membership, not the provider mvpn receives control routes but does not deliver customer stream data. This incident is better attributed to multicast vpn service control signaling and transport tunnel mapping do not match.

This gate monitors a different failure, a valid service group never creates igmp membership on the pe. It would not detect the current problem: The provider MVPN receives control routes but does not deliver customer stream data. The appropriate check requires customer receiver receives packets with correct isolated MVPN forwarding.

The proposed control is tied to source-specific join signaling requires igmpv3 or supported source filters, typically observed when the route never appears despite an active local IGMPv2 membership. Here the target is multicast vpn service control signaling and transport tunnel mapping do not match; monitor customer receiver receives packets with correct isolated MVPN forwarding.

It is valid for another service scenario but checks a legacy asm group is interpreted as source-specific and cannot use its rp. This case instead needs a gate for the provider mvpn receives control routes but does not deliver customer stream data and evidence that customer receiver receives packets with correct isolated MVPN forwarding.

The option may be useful when shared-tree traffic continues after the receiver requests shortest-path switchover, but that is not the current evidence. Here, a valid service group never creates IGMP membership on the PE, indicating the group filter mistakenly denies the contracted multicast address. The targeted action is Narrow IGMP or multicast policy to permit authorized group membership.

This remediates unicast routing points toward the source through a different incoming interface, normally indicated by Packets are dropped by reverse-path-forwarding checks. It would leave the observed problem (A valid service group never creates IGMP membership on the PE) unresolved. Address it with narrow IGMP or multicast policy to permit authorized group membership.

This change belongs to a different IP Multicast issue: Two RP nodes disagree on active source registrations. That issue involves anycast rp source-information synchronization is incomplete. The current symptom is A valid service group never creates IGMP membership on the PE. It instead requires narrow IGMP or multicast policy to permit authorized group membership.

It confirms an unrelated service correction: Anycast RP source-information synchronization is incomplete. The present case reports A valid service group never creates IGMP membership on the PE. Its completion test is Intended groups appear in membership state while prohibited groups remain excluded.

That observation would verify a separate fault involving spt threshold or pim source-tree behavior is not aligned to the service policy. Its symptom is Shared-tree traffic continues after the receiver requests shortest-path switchover. For this case the actual issue is the group filter mistakenly denies the contracted multicast address, and the relevant success signal is Intended groups appear in membership state while prohibited groups remain excluded.

This result is useful in another case with evidence Packets are dropped by reverse-path-forwarding checks. It does not test recovery from a valid service group never creates igmp membership on the pe. Check instead whether intended groups appear in membership state while prohibited groups remain excluded.

The stated cause is possible elsewhere but explains shared-tree traffic continues after the receiver requests shortest-path switchover, not a valid service group never creates igmp membership on the pe. This incident is better attributed to the group filter mistakenly denies the contracted multicast address.

Anycast RP source-information synchronization is incomplete. would normally be accompanied by two rp nodes disagree on active source registrations. The observed symptom is different: A valid service group never creates IGMP membership on the PE. The likely cause is The group filter mistakenly denies the contracted multicast address.

That explanation fits another condition: Packets are dropped by reverse-path-forwarding checks. The evidence here is A valid service group never creates IGMP membership on the PE. Its closer root cause is The group filter mistakenly denies the contracted multicast address.

It is valid for another service scenario but checks packets are dropped by reverse-path-forwarding checks. This case instead needs a gate for a valid service group never creates igmp membership on the pe and evidence that intended groups appear in membership state while prohibited groups remain excluded.

The proposed control is tied to spt threshold or pim source-tree behavior is not aligned to the service policy, typically observed when shared-tree traffic continues after the receiver requests shortest-path switchover. Here the target is the group filter mistakenly denies the contracted multicast address; monitor intended groups appear in membership state while prohibited groups remain excluded.

This gate monitors a different failure, two rp nodes disagree on active source registrations. It would not detect the current problem: A valid service group never creates IGMP membership on the PE. The appropriate check requires intended groups appear in membership state while prohibited groups remain excluded.