That action—Inspect STP port roles and topology before overriding a blocked redundant link—is relevant to spanning-tree blocked forwarding. A correctly blocked path may be essential loop prevention; unblocking without analyzing topology can trigger broadcasts and MAC instability. It does not correct the observed captive portal redirect fault condition.

Cloud device online status does not prove every radio is active or that target clients can discover the selected channel. Check AP radio administrative state, band and regulatory channel support. would address AP radio disabled or unsupported channel, but the reported facts instead point to captive portal redirect fault. That change would leave the actual requirement unresolved.

The alternative targets 802.1X supplicant disabled, where an authentication server cannot authorize an endpoint that never initiates the intended EAP handshake on the controlled link. It does not establish the intended captive portal redirect fault behavior described in the scenario.

That action—Inspect EAP-TLS certificate trust, validity and identity on both authentication sides—is relevant to EAP-TLS trust-chain failure. EAP-TLS relies on a trusted certificate path; successful network reachability does not bypass expired or unknown issuing authorities. It does not correct the observed power-over-Ethernet failure condition.

Mismatched physical link parameters can create collisions or errors despite a link-up status, so higher-layer policy changes cannot repair them. Verify compatible link speed, duplex and negotiation settings on both interface ends. would address duplex and speed negotiation, but the reported facts instead point to power-over-Ethernet failure. That change would leave the actual requirement unresolved.

The alternative targets MAC learning and unintended loops, where rapid MAC moves and broadcast amplification indicate switching topology instability, not a problem fixed by adding a default route. It does not establish the intended power-over-Ethernet failure behavior described in the scenario.

That result—A client on the SSID receives the expected address and the mapped traffic follows the intended path to permitted destinations—concerns SSID-to-forwarding path consistency. Wireless association is only the first hop; downstream tunnel, VLAN and gateway mappings must agree for application access. It can be healthy even while the current MAC authentication for headless devices problem remains.

This would validate management connectivity and DNS, not MAC authentication for headless devices. Central enrollment requires correctly routed and resolved management traffic; a working user VLAN does not guarantee reachability of the management plane. It is therefore insufficient acceptance evidence for the reported condition.

Authentication success is not the same as authorization; WLAN roles and VLAN selection determine where the user can forward traffic. The indicated result—the authenticated test client receives the expected role or VLAN and reaches only approved application destinations—checks a different mechanism and would not confirm the required MAC authentication for headless devices outcome.

That action—Apply appropriate IPv6 RA protection on untrusted access ports—is relevant to IPv6 router-advertisement spoofing. IPv4 ARP safeguards do not inspect ICMPv6 router announcements; RA protection constrains unauthorized router information on client segments. It does not correct the observed missing default gateway condition.

IP forwarding selects the most specific matching destination prefix before comparing less-specific alternatives; a summary route does not override a more-specific match. Inspect matching route prefixes and prefer the longest matching prefix in path analysis. would address longest-prefix route selection, but the reported facts instead point to missing default gateway. That change would leave the actual requirement unresolved.

The alternative targets route missing in correct VRF, where separate VRFs maintain distinct forwarding information bases; routes visible in one context do not automatically apply in another. It does not establish the intended missing default gateway behavior described in the scenario.

An SSID name is not a security boundary; guest users need controlled authorization and routes that limit access to internal resources. The indicated result—guest clients receive approved services and internet access while tests deny connections to protected internal networks—checks a different mechanism and would not confirm the required high-density channel-width choice outcome.

This would validate change-window and rollback requirements, not high-density channel-width choice. A planned change must include dependencies and a reversible path because a correct configuration can still disrupt business services during transition. It is therefore insufficient acceptance evidence for the reported condition.

That result—Pilot devices supporting the target band join securely and unsupported clients have a documented alternative network—concerns 6 GHz WLAN compatibility. 6 GHz operation requires capable client hardware and supported regulatory and security settings; enabling the band does not upgrade legacy adapters. It can be healthy even while the current high-density channel-width choice problem remains.

Blindly trusting endpoint markings lets untrusted traffic dominate queues; classification must reflect approved service importance. Establish QoS trust boundaries and classify traffic according to validated application policy. would address trust and QoS marking boundary, but the reported facts instead point to channel reuse planning. That change would leave the actual requirement unresolved.

The alternative targets high-density WLAN airtime optimization, where wireless capacity depends on shared airtime and contention as well as signal quality; excessive power can enlarge overlap without adding usable spectrum. It does not establish the intended channel reuse planning behavior described in the scenario.

That action—Adjust transmit power to balance bidirectional coverage and cell size—is relevant to transmit-power balance. Downlink strength from a powerful AP does not increase client transmit capability; asymmetric links and oversized cells can harm roaming. It does not correct the observed channel reuse planning condition.

That result—The revised performance baseline includes recent peak usage and documented changes to client mix, application load and network capacity—concerns periodic baseline refresh. A fixed historical baseline can become misleading as workload mix and client capability change; thresholds should reflect current accepted operating conditions. It can be healthy even while the current energy and utilization efficiency problem remains.

Optimization claims require equivalent loads, test methods and service metrics before and after; otherwise changes in demand confound comparison. The indicated result—the report contrasts like-for-like baseline and post-change throughput, latency, retries and error statistics—checks a different mechanism and would not confirm the required energy and utilization efficiency outcome.

This would validate multicast traffic scope, not energy and utilization efficiency. Subscriber tracking lets a switch direct multicast toward active receivers instead of flooding every port, protecting shared access bandwidth. It is therefore insufficient acceptance evidence for the reported condition.

The alternative targets syslog event centralization, where centralized time-stamped records preserve context for multi-device analysis and avoid relying on volatile local event buffers. It does not establish the intended UXI application tests behavior described in the scenario.

That action—Record baseline interface utilization, errors, discards and latency before judging later degradation—is relevant to baseline interface health metrics. Counters are most useful when compared with known normal operating behavior and collection intervals rather than isolated snapshots. It does not correct the observed UXI application tests condition.

Healthy RF and RADIUS reachability cannot compensate for an expired or untrusted certificate that fails the authentication handshake. Monitor and renew EAP-TLS trust-chain certificates before their validity ends. would address certificate expiry monitoring, but the reported facts instead point to UXI application tests. That change would leave the actual requirement unresolved.

An SSID name is not a security boundary; guest users need controlled authorization and routes that limit access to internal resources. The indicated result—guest clients receive approved services and internet access while tests deny connections to protected internal networks—checks a different mechanism and would not confirm the required directional antenna selection outcome.

This would validate routing and VRF separation, not directional antenna selection. VLANs divide Layer 2 domains, whereas VRFs maintain separate Layer 3 routing contexts; any intentional crossing needs controlled connectivity. It is therefore insufficient acceptance evidence for the reported condition.

That result—Approved radios operate on permitted channels and representative clients associate without DFS or compatibility surprises—concerns 5 GHz regulatory channel constraints. Allowed frequencies, radar-detection obligations and client capabilities can vary by country and AP model, so global channel templates may fail. It can be healthy even while the current directional antenna selection problem remains.

That action—Analyze LAG member utilization and flow-hashing behavior before claiming linear single-flow throughput—is relevant to LAG capacity and hash distribution. Standard link aggregation typically hashes an individual flow onto one member to avoid reordering; aggregate bandwidth benefits many flows more than one. It does not correct the observed traffic policing versus shaping condition.

The alternative targets periodic baseline refresh, where a fixed historical baseline can become misleading as workload mix and client capability change; thresholds should reflect current accepted operating conditions. It does not establish the intended traffic policing versus shaping behavior described in the scenario.

QoS can prioritize selected packets when contention occurs but cannot create bandwidth; correct queue treatment reduces latency for critical applications. Apply appropriate queue scheduling for delay-sensitive traffic at the congested interface. would address voice queuing under load, but the reported facts instead point to traffic policing versus shaping. That change would leave the actual requirement unresolved.

This would validate power-over-Ethernet failure, not physical layer link fault. A data VLAN or management group cannot correct a switch power budget that denies the PD enough electrical power. It is therefore insufficient acceptance evidence for the reported condition.

That result—The session is assigned the approved VLAN and receives the expected subnet's gateway and address settings—concerns access VLAN misassignment. The VLAN used for an untagged or dynamically authorized session determines its broadcast and DHCP context; physical link state is not enough. It can be healthy even while the current physical layer link fault problem remains.

IPv4 ARP safeguards do not inspect ICMPv6 router announcements; RA protection constrains unauthorized router information on client segments. The indicated result—test rogue advertisements are blocked while approved router advertisements continue to reach clients—checks a different mechanism and would not confirm the required physical layer link fault outcome.