Unfiltered redistribution can expose unintended paths, create loops and carry unnecessary routes between otherwise isolated segments. The indicated result—the learned-route inventory contains only approved destination prefixes and no private guest or management routes—checks a different mechanism and would not confirm the required VSF member management outcome.

This would validate VRRP gateway resilience, not VSF member management. A virtual first-hop gateway provides a stable client next-hop while authorized peers coordinate active forwarding after failure. It is therefore insufficient acceptance evidence for the reported condition.

That result—The registered device reaches only its designated services and unknown MAC identities are denied or quarantined—concerns MAC authentication for headless devices. MAC authentication can support devices without a supplicant but is weaker than cryptographic identity, so narrow policy and inventory are essential. It can be healthy even while the current VSF member management problem remains.

This would validate AP radio disabled or unsupported channel, not missing trunk VLAN. Cloud device online status does not prove every radio is active or that target clients can discover the selected channel. It is therefore insufficient acceptance evidence for the reported condition.

Mismatched physical link parameters can create collisions or errors despite a link-up status, so higher-layer policy changes cannot repair them. The indicated result—both interfaces report compatible negotiated parameters and throughput tests show no related error growth—checks a different mechanism and would not confirm the required missing trunk VLAN outcome.

That result—The repaired link remains stable under load and physical error counters stop increasing unexpectedly—concerns physical layer link fault. Repeated link transitions and frame errors point to Layer 1 quality or negotiation rather than an unseen WLAN authentication issue. It can be healthy even while the current missing trunk VLAN problem remains.

That result—Time-series telemetry shows documented normal ranges and highlights material changes from the baseline—concerns baseline interface health metrics. Counters are most useful when compared with known normal operating behavior and collection intervals rather than isolated snapshots. It can be healthy even while the current SNMP monitoring scope problem remains.

A capture tool sees only frames delivered to it; a correctly scoped mirror copies relevant ingress or egress traffic without changing production forwarding. The indicated result—the capture workstation receives the expected test flow and does not inadvertently mirror unrelated sensitive traffic—checks a different mechanism and would not confirm the required SNMP monitoring scope outcome.

This would validate config drift after manual overrides, not SNMP monitoring scope. Undocumented differences make subsequent upgrades and incident response unpredictable because the managed baseline is no longer authoritative. It is therefore insufficient acceptance evidence for the reported condition.

This would validate UXI application tests, not NAE event rules on AOS-CX. Network device health does not establish application experience; end-to-end synthetic tests expose DNS, transport and service delays along the client path. It is therefore insufficient acceptance evidence for the reported condition.

That result—The collector receives attributable device events with usable timestamps and appropriate retention settings—concerns syslog event centralization. Centralized time-stamped records preserve context for multi-device analysis and avoid relying on volatile local event buffers. It can be healthy even while the current NAE event rules on AOS-CX problem remains.

An idempotent workflow can be safely retried without proliferating duplicate objects or introducing inconsistent partial configuration. The indicated result—two successive authorized automation runs leave one correct intended configuration and no duplicate managed objects—checks a different mechanism and would not confirm the required NAE event rules on AOS-CX outcome.

This would validate RADIUS server reachability, not duplex and speed negotiation. A silent RADIUS transport failure prevents normal authentication regardless of whether the user certificate or role rules are correct. It is therefore insufficient acceptance evidence for the reported condition.

Rapid MAC moves and broadcast amplification indicate switching topology instability, not a problem fixed by adding a default route. The indicated result—the repaired topology has stable learned MAC locations and broadcast volume returns to expected baseline—checks a different mechanism and would not confirm the required duplex and speed negotiation outcome.

That result—The repaired link remains stable under load and physical error counters stop increasing unexpectedly—concerns physical layer link fault. Repeated link transitions and frame errors point to Layer 1 quality or negotiation rather than an unseen WLAN authentication issue. It can be healthy even while the current duplex and speed negotiation problem remains.

This would validate address pool capacity, not critical application traffic profile. More APs cannot solve exhaustion of the IP-address pool; usable addresses, lease duration and peak devices must be evaluated together. It is therefore insufficient acceptance evidence for the reported condition.

That result—A link or peer failure test keeps supported endpoint traffic forwarded over the surviving upstream path—concerns dual-homed downstream aggregation. Hardware redundancy is ineffective if every downstream path still depends on one forwarding node or unsound Layer 2 topology. It can be healthy even while the current critical application traffic profile problem remains.

Missing uplink, power, VLAN, routing and identity dependencies cause apparently successful device replacements to disconnect applications or clients unexpectedly. The indicated result—a validated inventory identifies uplinks, upstream routes, address services, identity services and critical endpoint relationships—checks a different mechanism and would not confirm the required critical application traffic profile outcome.

The alternative targets storm control tuning, where overly aggressive limits can discard necessary discovery traffic, while absent protection permits broadcasts to overwhelm forwarding capacity. It does not establish the intended interference spectrum diagnosis behavior described in the scenario.

Downlink strength from a powerful AP does not increase client transmit capability; asymmetric links and oversized cells can harm roaming. Adjust transmit power to balance bidirectional coverage and cell size. would address transmit-power balance, but the reported facts instead point to interference spectrum diagnosis. That change would leave the actual requirement unresolved.

That action—Evaluate supported basic-rate settings and phase out unnecessary legacy rates after client compatibility testing—is relevant to legacy low-rate airtime overhead. Low PHY data rates use more airtime per transmitted bit; rate changes must be constrained by coverage and device support. It does not correct the observed interference spectrum diagnosis condition.

Edge ports should not accept topology-control messages from unauthorized bridges; BPDU Guard can protect the switching domain by restricting offending links. Enable suitable BPDU protection on ports intended only for endpoints. would address BPDU Guard at edge ports, but the reported facts instead point to new Central persona applicability. That change would leave the actual requirement unresolved.

That action—Configure the AP regulatory domain and permissible channels for its actual deployment location—is relevant to AP country-code and RF regulatory setting. Radio operation is constrained by regional rules, and an incorrect country or channel plan can prevent valid operation or break client support. It does not correct the observed new Central persona applicability condition.

The alternative targets template variable rendering, where shared templates are reusable only when site-specific identity, address and port data are correctly substituted for each target device. It does not establish the intended new Central persona applicability behavior described in the scenario.

This would validate captive portal redirect fault, not roaming reassociation delay. A guest can associate and receive a lease without completing the portal flow; redirect and pre-auth policy must permit necessary portal dependencies. It is therefore insufficient acceptance evidence for the reported condition.

A silent RADIUS transport failure prevents normal authentication regardless of whether the user certificate or role rules are correct. The indicated result—RADIUS requests and responses traverse the approved path and the client reaches its intended authorized role—checks a different mechanism and would not confirm the required roaming reassociation delay outcome.

That result—The repaired topology has stable learned MAC locations and broadcast volume returns to expected baseline—concerns MAC learning and unintended loops. Rapid MAC moves and broadcast amplification indicate switching topology instability, not a problem fixed by adding a default route. It can be healthy even while the current roaming reassociation delay problem remains.

The alternative targets WPA3 and legacy clients, where WLAN security changes can exclude devices with unsupported cipher, authentication or protected-management-frame capabilities. It does not establish the intended AP uplink power and negotiation behavior described in the scenario.

That action—Configure DHCP relay on the correct client-facing routed interface where centralized DHCP is used—is relevant to DHCP relay on routed segments. Layer 3 boundaries do not normally forward client DHCP broadcasts without relay behavior; the helper target must also be reachable. It does not correct the observed AP uplink power and negotiation condition.

EAP-TLS verifies certificate-based identities through the configured authentication system; a shared PSK does not give per-device certificate identity. Configure an enterprise WLAN with appropriate EAP-TLS and trusted RADIUS/certificate services. would address corporate EAP-TLS SSID, but the reported facts instead point to AP uplink power and negotiation. That change would leave the actual requirement unresolved.

This would validate 2.4 GHz interference planning, not RADIUS service resilience. The 2.4 GHz band has limited nonoverlapping channel choices in typical regulatory domains, so channel overlap and wide channels intensify contention. It is therefore insufficient acceptance evidence for the reported condition.

An AP advertising a network does not prove that clients can authenticate, receive approved privileges or maintain application continuity while moving. The indicated result—test records show representative clients join, receive correct roles, roam and reach only approved services—checks a different mechanism and would not confirm the required RADIUS service resilience outcome.

That result—The identity design includes certificate enrollment, renewal, revocation and a successful mutual-trust authentication test—concerns EAP-TLS certificate lifecycle. EAP-TLS authenticates with certificates, so healthy network transport alone cannot correct absent trust, expired credentials or unmanaged key lifecycle. It can be healthy even while the current RADIUS service resilience problem remains.