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This concern applies to route target VPN membership in a different scenario where operators need to control which provider-edge VRFs import a shared customer's VPN routes. For the deployed L3VPN label blackhole diagnosis approach, the relevant caution is instead that packet loss can reflect core MTU or data-plane policy even with labels installed.

This concern applies to carrier supporting carrier VPN in a different scenario where operators need to let a carrier customer transport its own labeled VPN services over another carrier backbone. For the deployed L3VPN label blackhole diagnosis approach, the relevant caution is instead that packet loss can reflect core MTU or data-plane policy even with labels installed.

This concern applies to PIM-SM shared tree initial join in a different scenario where operators need to provide multicast to sparse receivers through an RP-assisted distribution process. For the deployed L3VPN label blackhole diagnosis approach, the relevant caution is instead that packet loss can reflect core MTU or data-plane policy even with labels installed.

IGMPv3 inclusion filtering instead addresses a different condition: request multicast only from one specified source at the IPv4 receiver edge. It would instead require you to send appropriate IGMPv3 INCLUDE-mode membership state, not the stated goal to provide multicast to sparse receivers through an RP-assisted distribution process.

shared extranet route import instead addresses a different condition: let only selected tenants reach a common internal service subnet. It would instead require you to create explicit selective route-target import or route-leak policies for the shared service, not the stated goal to provide multicast to sparse receivers through an RP-assisted distribution process.

EVPN MAC mobility control instead addresses a different condition: maintain forwarding when a customer virtual machine moves between EVPN access PEs. It would instead require you to apply MAC mobility and sequence handling for newly advertised locations, not the stated goal to provide multicast to sparse receivers through an RP-assisted distribution process.

The proposed step is for IGMPv3 inclusion filtering, whose purpose is to request multicast only from one specified source at the IPv4 receiver edge. It would not perform the necessary PIM-SM shared tree initial join operation: configure PIM sparse mode and consistent rendezvous point reachability.

The proposed step is for shared extranet route import, whose purpose is to let only selected tenants reach a common internal service subnet. It would not perform the necessary PIM-SM shared tree initial join operation: configure PIM sparse mode and consistent rendezvous point reachability.

The proposed step is for EVPN MAC mobility control, whose purpose is to maintain forwarding when a customer virtual machine moves between EVPN access PEs. It would not perform the necessary PIM-SM shared tree initial join operation: configure PIM sparse mode and consistent rendezvous point reachability.

The observation would verify IGMPv3 inclusion filtering under the separate requirement to request multicast only from one specified source at the IPv4 receiver edge. It does not demonstrate the needed PIM-SM shared tree initial join result: receivers join the shared tree and traffic begins arriving through RP-based state.

The observation would verify shared extranet route import under the separate requirement to let only selected tenants reach a common internal service subnet. It does not demonstrate the needed PIM-SM shared tree initial join result: receivers join the shared tree and traffic begins arriving through RP-based state.

The observation would verify EVPN MAC mobility control under the separate requirement to maintain forwarding when a customer virtual machine moves between EVPN access PEs. It does not demonstrate the needed PIM-SM shared tree initial join result: receivers join the shared tree and traffic begins arriving through RP-based state.

This defect belongs to IGMPv3 inclusion filtering, where the affected outcome is to request multicast only from one specified source at the IPv4 receiver edge. It is not the direct failure mode identified for the PIM-SM shared tree initial join design in this case: no RP is reachable but group joins are expected to create a shared tree.

This defect belongs to shared extranet route import, where the affected outcome is to let only selected tenants reach a common internal service subnet. It is not the direct failure mode identified for the PIM-SM shared tree initial join design in this case: no RP is reachable but group joins are expected to create a shared tree.

This defect belongs to EVPN MAC mobility control, where the affected outcome is to maintain forwarding when a customer virtual machine moves between EVPN access PEs. It is not the direct failure mode identified for the PIM-SM shared tree initial join design in this case: no RP is reachable but group joins are expected to create a shared tree.

This concern applies to IGMPv3 inclusion filtering in a different scenario where operators need to request multicast only from one specified source at the IPv4 receiver edge. For the deployed PIM-SM shared tree initial join approach, the relevant caution is instead that RP redundancy and RPF consistency influence multicast availability.

This concern applies to shared extranet route import in a different scenario where operators need to let only selected tenants reach a common internal service subnet. For the deployed PIM-SM shared tree initial join approach, the relevant caution is instead that RP redundancy and RPF consistency influence multicast availability.

This concern applies to EVPN MAC mobility control in a different scenario where operators need to maintain forwarding when a customer virtual machine moves between EVPN access PEs. For the deployed PIM-SM shared tree initial join approach, the relevant caution is instead that RP redundancy and RPF consistency influence multicast availability.

IGMPv3 inclusion filtering instead addresses a different condition: request multicast only from one specified source at the IPv4 receiver edge. It would instead require you to send appropriate IGMPv3 INCLUDE-mode membership state, not the stated goal to let subscribers request an explicitly selected multicast source and group pair.

EVPN multihomed all-active Ethernet segment instead addresses a different condition: let a CE use two provider edges without losing its active Ethernet path on one PE failure. It would instead require you to configure compatible EVPN Ethernet segment identifiers and all-active multihoming, not the stated goal to let subscribers request an explicitly selected multicast source and group pair.

controlled Internet breakout instead addresses a different condition: provide Internet access for an L3VPN tenant without leaking private customer prefixes. It would instead require you to place an explicit default-route or shared-services handoff inside the authorized VPN routing design, not the stated goal to let subscribers request an explicitly selected multicast source and group pair.

The proposed step is for IGMPv3 inclusion filtering, whose purpose is to request multicast only from one specified source at the IPv4 receiver edge. It would not perform the necessary PIM-SSM source-specific join operation: use SSM with source-aware membership such as IGMPv3 on supported receivers.

The proposed step is for EVPN multihomed all-active Ethernet segment, whose purpose is to let a CE use two provider edges without losing its active Ethernet path on one PE failure. It would not perform the necessary PIM-SSM source-specific join operation: use SSM with source-aware membership such as IGMPv3 on supported receivers.

The proposed step is for controlled Internet breakout, whose purpose is to provide Internet access for an L3VPN tenant without leaking private customer prefixes. It would not perform the necessary PIM-SSM source-specific join operation: use SSM with source-aware membership such as IGMPv3 on supported receivers.

The observation would verify IGMPv3 inclusion filtering under the separate requirement to request multicast only from one specified source at the IPv4 receiver edge. It does not demonstrate the needed PIM-SSM source-specific join result: the forwarding entry matches the requested source and group without RP discovery.

The observation would verify EVPN multihomed all-active Ethernet segment under the separate requirement to let a CE use two provider edges without losing its active Ethernet path on one PE failure. It does not demonstrate the needed PIM-SSM source-specific join result: the forwarding entry matches the requested source and group without RP discovery.

The observation would verify controlled Internet breakout under the separate requirement to provide Internet access for an L3VPN tenant without leaking private customer prefixes. It does not demonstrate the needed PIM-SSM source-specific join result: the forwarding entry matches the requested source and group without RP discovery.

This defect belongs to IGMPv3 inclusion filtering, where the affected outcome is to request multicast only from one specified source at the IPv4 receiver edge. It is not the direct failure mode identified for the PIM-SSM source-specific join design in this case: an any-source IGMPv2 membership is used expecting source-specific filtering.

This defect belongs to EVPN multihomed all-active Ethernet segment, where the affected outcome is to let a CE use two provider edges without losing its active Ethernet path on one PE failure. It is not the direct failure mode identified for the PIM-SSM source-specific join design in this case: an any-source IGMPv2 membership is used expecting source-specific filtering.

This defect belongs to controlled Internet breakout, where the affected outcome is to provide Internet access for an L3VPN tenant without leaking private customer prefixes. It is not the direct failure mode identified for the PIM-SSM source-specific join design in this case: an any-source IGMPv2 membership is used expecting source-specific filtering.

This concern applies to IGMPv3 inclusion filtering in a different scenario where operators need to request multicast only from one specified source at the IPv4 receiver edge. For the deployed PIM-SSM source-specific join approach, the relevant caution is instead that the receiver must know and signal the intended multicast source.

This concern applies to EVPN multihomed all-active Ethernet segment in a different scenario where operators need to let a CE use two provider edges without losing its active Ethernet path on one PE failure. For the deployed PIM-SSM source-specific join approach, the relevant caution is instead that the receiver must know and signal the intended multicast source.

This concern applies to controlled Internet breakout in a different scenario where operators need to provide Internet access for an L3VPN tenant without leaking private customer prefixes. For the deployed PIM-SSM source-specific join approach, the relevant caution is instead that the receiver must know and signal the intended multicast source.