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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 traffic reaches links with no subscribers until prune state forms. Check instead whether unsubscribed transit links no longer carry unnecessary multicast traffic.

That observation would verify a separate fault involving rpf-specific policy chooses an unintended interface relative to actual source arrival. Its symptom is Multicast stream briefly loops and then disappears even though source route remains in RIB. For this case the actual issue is dense-mode initial flooding conflicts with the bandwidth-sensitive shared network, and the relevant success signal is Unsubscribed transit links no longer carry unnecessary multicast traffic.

It confirms an unrelated service correction: PIM sparse mode rightly prunes branches without subscribed receivers. The present case reports Traffic reaches links with no subscribers until prune state forms. Its completion test is Unsubscribed transit links no longer carry unnecessary multicast traffic.

That explanation fits another condition: The link is in dense-mode flood-and-prune behavior rather than sparse-mode operation. The evidence here is Traffic reaches links with no subscribers until prune state forms. Its closer root cause is Dense-mode initial flooding conflicts with the bandwidth-sensitive shared network.

The stated cause is possible elsewhere but explains multicast stream briefly loops and then disappears even though source route remains in rib, not traffic reaches links with no subscribers until prune state forms. This incident is better attributed to dense-mode initial flooding conflicts with the bandwidth-sensitive shared network.

PIM sparse mode rightly prunes branches without subscribed receivers. would normally be accompanied by operators report no outgoing multicast copies and assume a network failure. The observed symptom is different: Traffic reaches links with no subscribers until prune state forms. The likely cause is Dense-mode initial flooding conflicts with the bandwidth-sensitive shared network.

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 traffic reaches links with no subscribers until prune state forms and evidence that unsubscribed transit links no longer carry unnecessary multicast traffic.

This gate monitors a different failure, operators report no outgoing multicast copies and assume a network failure. It would not detect the current problem: Traffic reaches links with no subscribers until prune state forms. The appropriate check requires unsubscribed transit links no longer carry unnecessary multicast traffic.

The proposed control is tied to rpf-specific policy chooses an unintended interface relative to actual source arrival, typically observed when multicast stream briefly loops and then disappears even though source route remains in RIB. Here the target is dense-mode initial flooding conflicts with the bandwidth-sensitive shared network; monitor unsubscribed transit links no longer carry unnecessary multicast traffic.

The option may be useful when one receiver never sees the stream although the other is healthy, but that is not the current evidence. Here, multicast stream briefly loops and then disappears even though source route remains in RIB, indicating rpf-specific policy chooses an unintended interface relative to actual source arrival. The targeted action is Reconcile multicast reverse-path policy with approved source reachability.

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 Multicast stream briefly loops and then disappears even though source route remains in RIB. It instead requires reconcile multicast reverse-path policy with approved source reachability.

This remediates multicast group isolation and igmp membership controls are not scoped by tenant, normally indicated by One tenant receives another tenant's IPTV stream on a shared access segment. It would leave the observed problem (Multicast stream briefly loops and then disappears even though source route remains in RIB) unresolved. Address it with reconcile multicast reverse-path policy with approved source reachability.

That observation would verify a separate fault involving reverse-path routing to the source differs across area boundaries. Its symptom is One receiver never sees the stream although the other is healthy. For this case the actual issue is rpf-specific policy chooses an unintended interface relative to actual source arrival, and the relevant success signal is The RPF interface and incoming packets agree with no continuing loop or drop.

This result is useful in another case with evidence One tenant receives another tenant's IPTV stream on a shared access segment. It does not test recovery from multicast stream briefly loops and then disappears even though source route remains in rib. Check instead whether the RPF interface and incoming packets agree with no continuing loop or drop.

It confirms an unrelated service correction: IGMP membership reporting or the IGMP-to-PIM boundary is misconfigured. The present case reports Multicast stream briefly loops and then disappears even though source route remains in RIB. Its completion test is The RPF interface and incoming packets agree with no continuing loop or drop.

The stated cause is possible elsewhere but explains one receiver never sees the stream although the other is healthy, not multicast stream briefly loops and then disappears even though source route remains in rib. This incident is better attributed to rpf-specific policy chooses an unintended interface relative to actual source arrival.

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: Multicast stream briefly loops and then disappears even though source route remains in RIB. The likely cause is RPF-specific policy chooses an unintended interface relative to actual source arrival.

That explanation fits another condition: One tenant receives another tenant's IPTV stream on a shared access segment. The evidence here is Multicast stream briefly loops and then disappears even though source route remains in RIB. Its closer root cause is RPF-specific policy chooses an unintended interface relative to actual source arrival.

It is valid for another service scenario but checks one tenant receives another tenant's iptv stream on a shared access segment. This case instead needs a gate for multicast stream briefly loops and then disappears even though source route remains in rib and evidence that the RPF interface and incoming packets agree with no continuing loop or drop.

The proposed control is tied to reverse-path routing to the source differs across area boundaries, typically observed when one receiver never sees the stream although the other is healthy. Here the target is rpf-specific policy chooses an unintended interface relative to actual source arrival; monitor the RPF interface and incoming packets agree with no continuing loop or drop.

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: Multicast stream briefly loops and then disappears even though source route remains in RIB. The appropriate check requires the RPF interface and incoming packets agree with no continuing loop or drop.

The option may be useful when pIM RPF discards increase when routing chooses the other uplink, but that is not the current evidence. Here, one tenant receives another tenant's IPTV stream on a shared access segment, indicating multicast group isolation and igmp membership controls are not scoped by tenant. The targeted action is Apply tenant-specific group authorization and forwarding-instance separation.

This remediates the rp mapping is inconsistent across source and receiver routers, normally indicated by Source registers continue to reach the old RP while receivers use the new RP. It would leave the observed problem (One tenant receives another tenant's IPTV stream on a shared access segment) unresolved. Address it with apply tenant-specific group authorization and forwarding-instance separation.

This change belongs to a different IP Multicast issue: Sources transmit packets but receivers see none until a static join is added. That issue involves the rendezvous point address is missing or unreachable for the asm group. The current symptom is One tenant receives another tenant's IPTV stream on a shared access segment. It instead requires apply tenant-specific group authorization and forwarding-instance separation.

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 multicast group isolation and igmp membership controls are not scoped by tenant, and the relevant success signal is Receivers obtain only their authorized groups and cross-tenant traffic ceases.

This result is useful in another case with evidence Source registers continue to reach the old RP while receivers use the new RP. It does not test recovery from one tenant receives another tenant's iptv stream on a shared access segment. Check instead whether receivers obtain only their authorized groups and cross-tenant traffic ceases.

It confirms an unrelated service correction: The rendezvous point address is missing or unreachable for the ASM group. The present case reports One tenant receives another tenant's IPTV stream on a shared access segment. Its completion test is Receivers obtain only their authorized groups and cross-tenant traffic ceases.

The stated cause is possible elsewhere but explains pim rpf discards increase when routing chooses the other uplink, not one tenant receives another tenant's iptv stream on a shared access segment. This incident is better attributed to multicast group isolation and igmp membership controls are not scoped by tenant.

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: One tenant receives another tenant's IPTV stream on a shared access segment. The likely cause is Multicast group isolation and IGMP membership controls are not scoped by tenant.

That explanation fits another condition: Source registers continue to reach the old RP while receivers use the new RP. The evidence here is One tenant receives another tenant's IPTV stream on a shared access segment. Its closer root cause is Multicast group isolation and IGMP membership controls are not scoped by tenant.

The proposed control is tied to the incoming interface differs from the preferred unicast reverse path to the source, typically observed when pIM RPF discards increase when routing chooses the other uplink. Here the target is multicast group isolation and igmp membership controls are not scoped by tenant; monitor receivers obtain only their authorized groups and cross-tenant traffic ceases.

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: One tenant receives another tenant's IPTV stream on a shared access segment. The appropriate check requires receivers obtain only their authorized groups and cross-tenant traffic ceases.

It is valid for another service scenario but checks source registers continue to reach the old rp while receivers use the new rp. This case instead needs a gate for one tenant receives another tenant's iptv stream on a shared access segment and evidence that receivers obtain only their authorized groups and cross-tenant traffic ceases.