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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.

This change belongs to a different IP Multicast issue: PIM Join packets repeatedly time out as the RP next hop changes. That issue involves rp address unicast reachability is unstable through recursive routes. The current symptom is Edge receivers are active but the intermediate router has no outgoing interface list. It instead requires trace upstream Join messages and restore PIM neighbor and multicast routing state.

This remediates pim operating mode does not match the intended sparse distribution tree, normally indicated by The link is in dense-mode flood-and-prune behavior rather than sparse-mode operation. It would leave the observed problem (Edge receivers are active but the intermediate router has no outgoing interface list) unresolved. Address it with trace upstream Join messages and restore PIM neighbor and multicast routing state.

The option may be useful when subscribers several hops away receive no video although nearby receivers work, but that is not the current evidence. Here, edge receivers are active but the intermediate router has no outgoing interface list, indicating the group join state does not propagate through the intended pim path. The targeted action is Trace upstream Join messages and restore PIM neighbor and multicast routing state.

It confirms an unrelated service correction: RP address unicast reachability is unstable through recursive routes. The present case reports Edge receivers are active but the intermediate router has no outgoing interface list. Its completion test is The multicast forwarding table lists the correct outgoing interfaces.

This result is useful in another case with evidence The link is in dense-mode flood-and-prune behavior rather than sparse-mode operation. It does not test recovery from edge receivers are active but the intermediate router has no outgoing interface list. Check instead whether the multicast forwarding table lists the correct outgoing interfaces.

That observation would verify a separate fault involving source multicast ttl is too small to traverse the intended router depth. Its symptom is Subscribers several hops away receive no video although nearby receivers work. For this case the actual issue is the group join state does not propagate through the intended pim path, and the relevant success signal is The multicast forwarding table lists the correct outgoing interfaces.

That explanation fits another condition: The link is in dense-mode flood-and-prune behavior rather than sparse-mode operation. The evidence here is Edge receivers are active but the intermediate router has no outgoing interface list. Its closer root cause is The group join state does not propagate through the intended PIM path.

The stated cause is possible elsewhere but explains subscribers several hops away receive no video although nearby receivers work, not edge receivers are active but the intermediate router has no outgoing interface list. This incident is better attributed to the group join state does not propagate through the intended pim path.

RP address unicast reachability is unstable through recursive routes. would normally be accompanied by pim join packets repeatedly time out as the rp next hop changes. The observed symptom is different: Edge receivers are active but the intermediate router has no outgoing interface list. The likely cause is The group join state does not propagate through the intended PIM path.

The proposed control is tied to source multicast ttl is too small to traverse the intended router depth, typically observed when subscribers several hops away receive no video although nearby receivers work. Here the target is the group join state does not propagate through the intended pim path; monitor the multicast forwarding table lists the correct outgoing interfaces.

This gate monitors a different failure, pim join packets repeatedly time out as the rp next hop changes. It would not detect the current problem: Edge receivers are active but the intermediate router has no outgoing interface list. The appropriate check requires the multicast forwarding table lists the correct outgoing interfaces.

It is valid for another service scenario but checks the link is in dense-mode flood-and-prune behavior rather than sparse-mode operation. This case instead needs a gate for edge receivers are active but the intermediate router has no outgoing interface list and evidence that the multicast forwarding table lists the correct outgoing interfaces.

The option may be useful when operators report no outgoing multicast copies and assume a network failure, but that is not the current evidence. Here, the link is in dense-mode flood-and-prune behavior rather than sparse-mode operation, indicating pim operating mode does not match the intended sparse distribution tree. The targeted action is Align PIM sparse mode across the transit and inspect group state.

This remediates dense-mode initial flooding conflicts with the bandwidth-sensitive shared network, normally indicated by Traffic reaches links with no subscribers until prune state forms. It would leave the observed problem (The link is in dense-mode flood-and-prune behavior rather than sparse-mode operation) unresolved. Address it with align PIM sparse mode across the transit and inspect group state.

This change belongs to a different IP Multicast issue: The upstream PE never adds the receiver interface to its forwarding state. That issue involves igmp membership reporting or the igmp-to-pim boundary is misconfigured. The current symptom is The link is in dense-mode flood-and-prune behavior rather than sparse-mode operation. It instead requires align PIM sparse mode across the transit and inspect group state.

That observation would verify a separate fault involving pim sparse mode rightly prunes branches without subscribed receivers. Its symptom is Operators report no outgoing multicast copies and assume a network failure. For this case the actual issue is pim operating mode does not match the intended sparse distribution tree, and the relevant success signal is Only receiver-joined paths carry the multicast stream after convergence.

It confirms an unrelated service correction: IGMP membership reporting or the IGMP-to-PIM boundary is misconfigured. The present case reports The link is in dense-mode flood-and-prune behavior rather than sparse-mode operation. Its completion test is Only receiver-joined paths carry the multicast stream after convergence.

This result is useful in another case with evidence Traffic reaches links with no subscribers until prune state forms. It does not test recovery from the link is in dense-mode flood-and-prune behavior rather than sparse-mode operation. Check instead whether only receiver-joined paths carry the multicast stream after convergence.

The stated cause is possible elsewhere but explains operators report no outgoing multicast copies and assume a network failure, not the link is in dense-mode flood-and-prune behavior rather than sparse-mode operation. This incident is better attributed to pim operating mode does not match the intended sparse distribution tree.

That explanation fits another condition: Traffic reaches links with no subscribers until prune state forms. The evidence here is The link is in dense-mode flood-and-prune behavior rather than sparse-mode operation. Its closer root cause is PIM operating mode does not match the intended sparse distribution tree.

IGMP membership reporting or the IGMP-to-PIM boundary is misconfigured. would normally be accompanied by the upstream pe never adds the receiver interface to its forwarding state. The observed symptom is different: The link is in dense-mode flood-and-prune behavior rather than sparse-mode operation. The likely cause is PIM operating mode does not match the intended sparse distribution tree.

The proposed control is tied to pim sparse mode rightly prunes branches without subscribed receivers, typically observed when operators report no outgoing multicast copies and assume a network failure. Here the target is pim operating mode does not match the intended sparse distribution tree; monitor only receiver-joined paths carry the multicast stream after convergence.

This gate monitors a different failure, the upstream pe never adds the receiver interface to its forwarding state. It would not detect the current problem: The link is in dense-mode flood-and-prune behavior rather than sparse-mode operation. The appropriate check requires only receiver-joined paths carry the multicast stream after convergence.

It is valid for another service scenario but checks traffic reaches links with no subscribers until prune state forms. This case instead needs a gate for the link is in dense-mode flood-and-prune behavior rather than sparse-mode operation and evidence that only receiver-joined paths carry the multicast stream after convergence.

This change belongs to a different IP Multicast issue: Multicast stream briefly loops and then disappears even though source route remains in RIB. That issue involves rpf-specific policy chooses an unintended interface relative to actual source arrival. The current symptom is The upstream PE never adds the receiver interface to its forwarding state. It instead requires check IGMP version and group joins on the access side and PIM on the upstream side.

The option may be useful when pIM RPF discards increase when routing chooses the other uplink, but that is not the current evidence. Here, the upstream PE never adds the receiver interface to its forwarding state, indicating igmp membership reporting or the igmp-to-pim boundary is misconfigured. The targeted action is Check IGMP version and group joins on the access side and PIM on the upstream side.

This remediates reverse-path routing to the source differs across area boundaries, normally indicated by One receiver never sees the stream although the other is healthy. It would leave the observed problem (The upstream PE never adds the receiver interface to its forwarding state) unresolved. Address it with check IGMP version and group joins on the access side and PIM on the upstream side.

This result is useful in another case with evidence One receiver never sees the stream although the other is healthy. It does not test recovery from the upstream pe never adds the receiver interface to its forwarding state. Check instead whether the PE maps the local membership into forwarding toward the receiver.

That observation would verify a separate fault involving the incoming interface differs from the preferred unicast reverse path to the source. Its symptom is PIM RPF discards increase when routing chooses the other uplink. For this case the actual issue is igmp membership reporting or the igmp-to-pim boundary is misconfigured, and the relevant success signal is The PE maps the local membership into forwarding toward the receiver.

It confirms an unrelated service correction: RPF-specific policy chooses an unintended interface relative to actual source arrival. The present case reports The upstream PE never adds the receiver interface to its forwarding state. Its completion test is The PE maps the local membership into forwarding toward the receiver.