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This concern applies to MPLS-TE preemption priority in a different scenario where operators need to allow higher-priority reservation requests to displace lower-priority capacity commitments. For the deployed CBTS tunnel service assignment approach, the relevant caution is instead that fallback behavior matters if a class-specific tunnel becomes unavailable.

This concern applies to PCE PCC path delegation in a different scenario where operators need to allow a centralized PCE to update a delegated SR-TE candidate path on a headend. For the deployed CBTS tunnel service assignment approach, the relevant caution is instead that fallback behavior matters if a class-specific tunnel becomes unavailable.

This concern applies to IGP LDP synchronization in a different scenario where operators need to avoid forwarding traffic onto a link before necessary MPLS labels are usable. For the deployed CBTS tunnel service assignment approach, the relevant caution is instead that fallback behavior matters if a class-specific tunnel becomes unavailable.

MPLS-TE preemption priority instead addresses a different condition: allow higher-priority reservation requests to displace lower-priority capacity commitments. It would instead require you to configure setup and hold priorities consistently with the provider TE policy, not the stated goal to delegate constrained SR-TE or MPLS-TE path computation to a path computation entity.

SR static versus dynamic path choice instead addresses a different condition: choose a repeatable explicit path when an operator needs fixed audited waypoints. It would instead require you to configure an explicit SR segment list candidate rather than only dynamic SPF computation, not the stated goal to delegate constrained SR-TE or MPLS-TE path computation to a path computation entity.

SRv6 locator aggregation instead addresses a different condition: allocate routable prefixes to identify SRv6-capable nodes and behaviors. It would instead require you to configure a valid SRv6 locator prefix and corresponding IGP advertisement, not the stated goal to delegate constrained SR-TE or MPLS-TE path computation to a path computation entity.

The proposed step is for MPLS-TE preemption priority, whose purpose is to allow higher-priority reservation requests to displace lower-priority capacity commitments. It would not perform the necessary PCE constrained path computation operation: use a PCE-PCC architecture with agreed objectives and topology visibility.

The proposed step is for SR static versus dynamic path choice, whose purpose is to choose a repeatable explicit path when an operator needs fixed audited waypoints. It would not perform the necessary PCE constrained path computation operation: use a PCE-PCC architecture with agreed objectives and topology visibility.

The proposed step is for SRv6 locator aggregation, whose purpose is to allocate routable prefixes to identify SRv6-capable nodes and behaviors. It would not perform the necessary PCE constrained path computation operation: use a PCE-PCC architecture with agreed objectives and topology visibility.

The observation would verify MPLS-TE preemption priority under the separate requirement to allow higher-priority reservation requests to displace lower-priority capacity commitments. It does not demonstrate the needed PCE constrained path computation result: the PCC receives a viable path matching the constraints and programs it.

The observation would verify SR static versus dynamic path choice under the separate requirement to choose a repeatable explicit path when an operator needs fixed audited waypoints. It does not demonstrate the needed PCE constrained path computation result: the PCC receives a viable path matching the constraints and programs it.

The observation would verify SRv6 locator aggregation under the separate requirement to allocate routable prefixes to identify SRv6-capable nodes and behaviors. It does not demonstrate the needed PCE constrained path computation result: the PCC receives a viable path matching the constraints and programs it.

This defect belongs to MPLS-TE preemption priority, where the affected outcome is to allow higher-priority reservation requests to displace lower-priority capacity commitments. It is not the direct failure mode identified for the PCE constrained path computation design in this case: a path is selected by local shortest path ignoring the stated constraint.

This defect belongs to SR static versus dynamic path choice, where the affected outcome is to choose a repeatable explicit path when an operator needs fixed audited waypoints. It is not the direct failure mode identified for the PCE constrained path computation design in this case: a path is selected by local shortest path ignoring the stated constraint.

This defect belongs to SRv6 locator aggregation, where the affected outcome is to allocate routable prefixes to identify SRv6-capable nodes and behaviors. It is not the direct failure mode identified for the PCE constrained path computation design in this case: a path is selected by local shortest path ignoring the stated constraint.

This concern applies to MPLS-TE preemption priority in a different scenario where operators need to allow higher-priority reservation requests to displace lower-priority capacity commitments. For the deployed PCE constrained path computation approach, the relevant caution is instead that PCE availability and stale topology information can limit path validity.

This concern applies to SR static versus dynamic path choice in a different scenario where operators need to choose a repeatable explicit path when an operator needs fixed audited waypoints. For the deployed PCE constrained path computation approach, the relevant caution is instead that PCE availability and stale topology information can limit path validity.

This concern applies to SRv6 locator aggregation in a different scenario where operators need to allocate routable prefixes to identify SRv6-capable nodes and behaviors. For the deployed PCE constrained path computation approach, the relevant caution is instead that PCE availability and stale topology information can limit path validity.

RSVP TE explicit path instead addresses a different condition: steer an MPLS TE tunnel over selected intermediate nodes rather than only IGP shortest path. It would instead require you to configure an RSVP-TE tunnel with a suitable explicit-route object, not the stated goal to allow higher-priority reservation requests to displace lower-priority capacity commitments.

LDP address family transport instead addresses a different condition: carry the intended labeled IPv4 transport prefixes consistently across a provider core. It would instead require you to enable the supported address-family LDP capability on participating routers, not the stated goal to allow higher-priority reservation requests to displace lower-priority capacity commitments.

LDP label binding verification instead addresses a different condition: check the label binding for a specific IGP destination before enabling a VPN. It would instead require you to inspect local and remote LDP bindings and installed labeled forwarding entries, not the stated goal to allow higher-priority reservation requests to displace lower-priority capacity commitments.

The proposed step is for RSVP TE explicit path, whose purpose is to steer an MPLS TE tunnel over selected intermediate nodes rather than only IGP shortest path. It would not perform the necessary MPLS-TE preemption priority operation: configure setup and hold priorities consistently with the provider TE policy.

The proposed step is for LDP address family transport, whose purpose is to carry the intended labeled IPv4 transport prefixes consistently across a provider core. It would not perform the necessary MPLS-TE preemption priority operation: configure setup and hold priorities consistently with the provider TE policy.

The proposed step is for LDP label binding verification, whose purpose is to check the label binding for a specific IGP destination before enabling a VPN. It would not perform the necessary MPLS-TE preemption priority operation: configure setup and hold priorities consistently with the provider TE policy.

The observation would verify RSVP TE explicit path under the separate requirement to steer an MPLS TE tunnel over selected intermediate nodes rather than only IGP shortest path. It does not demonstrate the needed MPLS-TE preemption priority result: admission selects eligible reservations and preemption obeys intended priorities.

The observation would verify LDP address family transport under the separate requirement to carry the intended labeled IPv4 transport prefixes consistently across a provider core. It does not demonstrate the needed MPLS-TE preemption priority result: admission selects eligible reservations and preemption obeys intended priorities.

The observation would verify LDP label binding verification under the separate requirement to check the label binding for a specific IGP destination before enabling a VPN. It does not demonstrate the needed MPLS-TE preemption priority result: admission selects eligible reservations and preemption obeys intended priorities.

This defect belongs to RSVP TE explicit path, where the affected outcome is to steer an MPLS TE tunnel over selected intermediate nodes rather than only IGP shortest path. It is not the direct failure mode identified for the MPLS-TE preemption priority design in this case: low-priority LSPs consume all reservable capacity while urgent LSPs cannot signal.

This defect belongs to LDP address family transport, where the affected outcome is to carry the intended labeled IPv4 transport prefixes consistently across a provider core. It is not the direct failure mode identified for the MPLS-TE preemption priority design in this case: low-priority LSPs consume all reservable capacity while urgent LSPs cannot signal.

This defect belongs to LDP label binding verification, where the affected outcome is to check the label binding for a specific IGP destination before enabling a VPN. It is not the direct failure mode identified for the MPLS-TE preemption priority design in this case: low-priority LSPs consume all reservable capacity while urgent LSPs cannot signal.

This concern applies to RSVP TE explicit path in a different scenario where operators need to steer an MPLS TE tunnel over selected intermediate nodes rather than only IGP shortest path. For the deployed MPLS-TE preemption priority approach, the relevant caution is instead that preemption can interrupt displaced services and requires policy controls.

This concern applies to LDP address family transport in a different scenario where operators need to carry the intended labeled IPv4 transport prefixes consistently across a provider core. For the deployed MPLS-TE preemption priority approach, the relevant caution is instead that preemption can interrupt displaced services and requires policy controls.

This concern applies to LDP label binding verification in a different scenario where operators need to check the label binding for a specific IGP destination before enabling a VPN. For the deployed MPLS-TE preemption priority approach, the relevant caution is instead that preemption can interrupt displaced services and requires policy controls.