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Using DFS-compliant operation or plan a suitable non-DFS channel if needed would not plan nonoverlapping 20MHz channels such as 1, 6, 11 in the permitted regulatory domain.

Reduce channel width where dense deployments need more independent channels would not plan nonoverlapping 20MHz channels such as 1, 6, 11 in the permitted regulatory domain.

Keeping a common enterprise SSID while allowing each radio its distinct BSSID would not plan nonoverlapping 20MHz channels such as 1, 6, 11 in the permitted regulatory domain.

Event and move confirm correct DFS handling. It does not measure retry rate after channel survey and retuning.

Area throughput validates the dense RF tradeoff. It does not measure retry rate after channel survey and retuning.

Changed BSSID with stable service confirms roaming. It does not measure retry rate after channel survey and retuning.

Regulatory radar protection supersedes static channel preference. That does not establish overlapping 2.4GHz channels create adjacent-channel interference.

Guest access lacks captive acknowledgement and segmentation. That does not establish overlapping 2.4GHz channels create adjacent-channel interference.

Enterprise authentication infrastructure is unavailable for casual guests. That does not establish overlapping 2.4GHz channels create adjacent-channel interference.

Planning nonoverlapping 20MHz channels such as 1, 6, 11 in the permitted regulatory domain would not meet the need for dFS-compliant operation or plan a suitable non-DFS channel if needed.

Reduce channel width where dense deployments need more independent channels would not meet the need for dFS-compliant operation or plan a suitable non-DFS channel if needed.

Applying suitable band steering and maintaining acceptable 2.4GHz coverage for legacy devices would not meet the need for dFS-compliant operation or plan a suitable non-DFS channel if needed.

Area throughput validates the dense RF tradeoff. It does not inspect controller DFS event log and observed channel migration.

That test concerns 2.4ghz channel overlap rather than the specific reported condition. Event and move confirm correct DFS handling.

Guest success and internal denial validate both rules. It does not inspect controller DFS event log and observed channel migration.

This describes the 2.4ghz channel overlap mechanism, not the failure in this case. Regulatory radar protection supersedes static channel preference.

Wide channels reduce usable nonoverlapping channel choices. That does not establish dFS regulation requires vacating radar-sensitive channels.

Band choice is not optimized for supported clients. That does not establish dFS regulation requires vacating radar-sensitive channels.

Adjusting placement and applicable RTS/CTS or RF cell design would not provide an appropriate compatible 5GHz SSID or upgrade clients with 6GHz-capable radios.

Applying suitable band steering and maintaining acceptable 2.4GHz coverage for legacy devices would not provide an appropriate compatible 5GHz SSID or upgrade clients with 6GHz-capable radios.

Keeping a common enterprise SSID while allowing each radio its distinct BSSID would not provide an appropriate compatible 5GHz SSID or upgrade clients with 6GHz-capable radios.

Lower collision rate supports the hidden-node diagnosis. It does not review client adapter capability and successful 5GHz association.

Guest success and internal denial validate both rules. It does not review client adapter capability and successful 5GHz association.

Survey signal and roaming across the intended aisle map. It does not review client adapter capability and successful 5GHz association.

Hidden-station behavior causes collisions at the receiver. That does not establish legacy radios cannot discover unsupported 6GHz bands.

Band choice is not optimized for supported clients. That does not establish legacy radios cannot discover unsupported 6GHz bands.

Antenna pattern does not concentrate power toward the far endpoint.

Providing an appropriate compatible 5GHz SSID or upgrade clients with 6GHz-capable radios would not apply suitable band steering and maintain acceptable 2.4GHz coverage for legacy devices.

Using DFS-compliant operation or plan a suitable non-DFS channel if needed would not apply suitable band steering and maintain acceptable 2.4GHz coverage for legacy devices.

Reduce channel width where dense deployments need more independent channels would not apply suitable band steering and maintain acceptable 2.4GHz coverage for legacy devices.

Event and move confirm correct DFS handling. It does not compare association distribution and throughput after steering.

Review client adapter capability and successful 5GHz association. It does not compare association distribution and throughput after steering.

Area throughput validates the dense RF tradeoff.