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That option concerns BGP next-hop reachability. RSVP sessions must successfully signal along a path before the intended signaled MPLS LSP can forward.

That option concerns RSVP explicit-route constraints, not the requirement in this case.

That option concerns SR-MPLS shortest-path transport. RSVP sessions must successfully signal along a path before the intended signaled MPLS LSP can forward.

Differentiate RSVP signaling state failure from underlying IGP reachability is relevant to the different engineering topic "RSVP session and state troubleshooting", but it is not the most directly supported technical design or decision for this precise case: A provider deploys SR-MPLS for selected backbone loopbacks. the best answer here is: Relate a Segment Routing prefix SID to an IGP-advertised prefix and the router's supported label behavior.

That option concerns BGP peer-group policy inheritance. SR-MPLS uses IGP-distributed segment identifiers and a label stack, reducing dependence on per-LSP RSVP signaling.

That option concerns MPLS label-stack header. SR-MPLS uses IGP-distributed segment identifiers and a label stack, reducing dependence on per-LSP RSVP signaling.

That option concerns IS-IS hello adjacency negotiation. SR-MPLS uses IGP-distributed segment identifiers and a label stack, reducing dependence on per-LSP RSVP signaling.

Inspect show rsvp session and RSVP signaling error detail is relevant to the different engineering topic "RSVP session and state troubleshooting", but it is not the most directly supported implementation and troubleshooting step for this precise case: A provider deploys SR-MPLS for selected backbone loopbacks. the best answer here is: Configure and verify the supported prefix SID advertisements in the IGP.

Inspect how the ingress imposes the outgoing label stack is relevant to the different engineering topic "MPLS push swap pop forwarding", but it is not the most directly supported implementation and troubleshooting step for this precise case: A provider deploys SR-MPLS for selected backbone loopbacks. the best answer here is: Configure and verify the supported prefix SID advertisements in the IGP.

That option concerns Penultimate-hop popping. SR-MPLS uses IGP-distributed segment identifiers and a label stack, reducing dependence on per-LSP RSVP signaling.

Packets enter the LSP associated with their intended egress is relevant to the different engineering topic "MPLS forwarding-equivalence classes", but it is not the most directly supported operational verification evidence for this precise case: A provider deploys SR-MPLS for selected backbone loopbacks. the best answer here is: The intended prefix segments appear in the forwarding state.

That option concerns BGP message processing. SR-MPLS uses IGP-distributed segment identifiers and a label stack, reducing dependence on per-LSP RSVP signaling.

Identify the forwarding equivalence class used to map network traffic to label-switched paths is relevant to the different engineering topic "MPLS forwarding-equivalence classes", but it is not the most directly supported technical design or decision for this precise case: A transit router shows unexpected labels for a remote prefix SID. the best answer here is: Relate a Segment Routing prefix SID to an IGP-advertised prefix and the router's supported label behavior.

That option concerns VSTP per-VLAN tree behavior. SR-MPLS uses IGP-distributed segment identifiers and a label stack, reducing dependence on per-LSP RSVP signaling.

Recognize ingress push, transit swap and egress pop actions along a label-switched path is relevant to the different engineering topic "MPLS push swap pop forwarding", but it is not the most directly supported technical design or decision for this precise case: A transit router shows unexpected labels for a remote prefix SID. the best answer here is: Relate a Segment Routing prefix SID to an IGP-advertised prefix and the router's supported label behavior.

Check the transport addresses and route to the neighbor's LDP identifier is relevant to the different engineering topic "LDP session discovery", but it is not the most directly supported implementation and troubleshooting step for this precise case: A transit router shows unexpected labels for a remote prefix SID. the best answer here is: Review local SRGB interpretation and IGP SID advertisements.

That option concerns Native VLAN and untagged trunk behavior. SR-MPLS uses IGP-distributed segment identifiers and a label stack, reducing dependence on per-LSP RSVP signaling.

Inspect RSVP session status and per-hop signaling errors is relevant to the different engineering topic "RSVP LSP signaling", but it is not the most directly supported implementation and troubleshooting step for this precise case: A transit router shows unexpected labels for a remote prefix SID. the best answer here is: Review local SRGB interpretation and IGP SID advertisements.

LDP sessions stabilize once their transport endpoints resolve is relevant to the different engineering topic "LDP session discovery", but it is not the most directly supported operational verification evidence for this precise case: A transit router shows unexpected labels for a remote prefix SID. the best answer here is: The forwarding label is consistent with the resolved segment rather than a guessed number.

That option concerns GRE tunnel forwarding tests. SR-MPLS uses IGP-distributed segment identifiers and a label stack, reducing dependence on per-LSP RSVP signaling.

The diagnosed signaling fault is corrected without changing unrelated customer routing is relevant to the different engineering topic "RSVP LSP signaling", but it is not the most directly supported operational verification evidence for this precise case: A transit router shows unexpected labels for a remote prefix SID. the best answer here is: The forwarding label is consistent with the resolved segment rather than a guessed number.

That option concerns Segment-routing MPLS prefix SIDs. A prefix segment generally follows IGP shortest-path computation, unlike an arbitrary unconstrained manual route.

Filter and modify received BGP routes with explicit import policy terms is relevant to the different engineering topic "BGP inbound routing policy", but it is not the most directly supported technical design or decision for this precise case: An SR-capable core rebalances an LSP after a metric update. the best answer here is: Use IGP SPF results and segment labels to validate shortest-path SR-MPLS forwarding.

Recognize ingress push, transit swap and egress pop actions along a label-switched path is relevant to the different engineering topic "MPLS push swap pop forwarding", but it is not the most directly supported technical design or decision for this precise case: An SR-capable core rebalances an LSP after a metric update. the best answer here is: Use IGP SPF results and segment labels to validate shortest-path SR-MPLS forwarding.

That option concerns VRRP virtual gateway failover. A prefix segment generally follows IGP shortest-path computation, unlike an arbitrary unconstrained manual route.

That option concerns LDP-IGP synchronization. A prefix segment generally follows IGP shortest-path computation, unlike an arbitrary unconstrained manual route.

Enable suitable MPLS/RSVP interfaces and define the ingress LSP destination is relevant to the different engineering topic "RSVP LSP signaling", but it is not the most directly supported implementation and troubleshooting step for this precise case: An SR-capable core rebalances an LSP after a metric update. the best answer here is: Inspect IGP cost change and installed SR forwarding route.

The first core hop sees the expected MPLS label is relevant to the different engineering topic "MPLS push swap pop forwarding", but it is not the most directly supported operational verification evidence for this precise case: An SR-capable core rebalances an LSP after a metric update. the best answer here is: Labeled traffic follows the recomputed eligible shortest path.

An RSVP session and operational MPLS LSP become visible is relevant to the different engineering topic "RSVP LSP signaling", but it is not the most directly supported operational verification evidence for this precise case: An SR-capable core rebalances an LSP after a metric update. the best answer here is: Labeled traffic follows the recomputed eligible shortest path.

That option concerns OSPF LSDB synchronization. A prefix segment generally follows IGP shortest-path computation, unlike an arbitrary unconstrained manual route.

Distinguish transport routes, MPLS forwarding entries and regular IP routing when troubleshooting is relevant to the different engineering topic "MPLS route and forwarding tables", but it is not the most directly supported technical design or decision for this precise case: An operator sees a working SR prefix SID but no RSVP session. the best answer here is: Use IGP SPF results and segment labels to validate shortest-path SR-MPLS forwarding.

That option concerns BGP message processing. A prefix segment generally follows IGP shortest-path computation, unlike an arbitrary unconstrained manual route.

Recognize ingress push, transit swap and egress pop actions along a label-switched path is relevant to the different engineering topic "MPLS push swap pop forwarding", but it is not the most directly supported technical design or decision for this precise case: An operator sees a working SR prefix SID but no RSVP session. the best answer here is: Use IGP SPF results and segment labels to validate shortest-path SR-MPLS forwarding.