To the TP-Link Engineering and Product Team,
 

I would like to submit a formal technical proposal to optimize the recovery process of Deco Mesh systems (specifically high-density Wi-Fi 7 models like the Deco BE63) following a scheduled or manual reboot.

The Problem: The "Initial Association Trap" and Required Manual Intervention Currently, when a Deco unit reboots, all radio bands (2.4GHz, 5GHz, and 6GHz) are initialized and broadcasted simultaneously. Due to its superior physical penetration and faster discovery, the 2.4GHz signal is almost always the first to be captured by client devices.

This creates the "Sticky Client" phenomenon, where WI-FI 7/6E/6/5 ready devices associate with the 2.4GHz band just to regain immediate connectivity. This results in two critical failures:

1. Algorithmic Strain: The Band Steering and Roaming processes must work unnecessarily hard to attempt migrating these clients later, often causing initial network instability.

2. The Manual Burden: In high-density environments, the automated steering often fails to move these clients to the optimal band. This forces the user to perform tedious manual intervention—toggling Wi-Fi on each device or manually assigning bands in the App to restore the network to its peak state. For a network with 40+ devices, this is a significant and unnecessary maintenance chore that contradicts the "seamless" promise of the Deco line.
    

The Proposal: Tiered/Sequential Radio Activation I propose a firmware-level logic change where radios are initialized in descending order of performance to allow hardware-based "self-sorting" during the association phase:

• Phase 1: 6GHz Activation. Initialize the 6GHz radio first. This allows Wi-Fi 7 and 6E devices to claim the cleanest spectrum immediately without interference.

• Phase 2: 5GHz Activation (30-45s delay). Initialize the 5GHz band. Modern high-speed devices that lack 6GHz will associate here.

• Phase 3: 2.4GHz Activation (Final stage). Finally, enable the 2.4GHz band for IoT and legacy devices.

Technical Benefits:

• Zero-Touch Optimization: Clients are sorted into their optimal bands by their own hardware capability from the moment of association, eliminating the need for manual user intervention.

• Reduced Logic Overhead: By ensuring high-performance clients are off the 2.4GHz band from the start, the system avoids the "churn" and logging noise associated with late-stage Band Steering.

• Enhanced UX: The network achieves an "Optimal State" immediately upon recovery, rather than a "Suboptimal State" that requires user correction.

While I understand that "fast recovery" of the Wi-Fi icon is a priority, a "Smart Recovery" through sequential activation is the only way to ensure stability in modern, heterogeneous high-density environments.

I look forward to seeing this logic considered for future firmware updates.
 

Best regards,
Nelson Lora