The AP5020 is an indoor Wi-Fi 7 tri-radio access point with support for multiple Extreme Networks operating systems.

Note

Important
WPA3-Compatibility is not WFA compliant. WPA3-Compatibility supports both WPA2 Personal and WPA3 Personal on the same network. If a WPA3-Compatibility network is assigned to 6 GHz radio, only WPA3 Personal is assigned, thus making the network compliant.
Note
For all Extreme Networks access points, use the Extreme Networks certified ACC-WIFI-MICRO-USB console cable. Other MICRO-USB console cables have not been certified by Extreme Networks.LPI (Low Power Indoor) operation is permitted in US and Canada, as is 6 GHz SP (Standard Power).
The AP5020 must obtain GPS coordinates from the Extreme Mobile App (to function as an anchor) or derive geo coordinates from the Geo-Location Agent.
The AFC server has to allocate spectrum; that is, the channel power plan based on the reported geo-location coordinates.
Radio Support for AP5020 per Compliance Region outlines the current radio support per compliance region for the AP5020.
| Region | Indoor 2.4GHz | Indoor 5GHz | Indoor 6GHz (LPI) | Indoor 6GHz (SP) |
|---|---|---|---|---|
| FCC | Yes | Yes | Yes | Yes |
| Canada | Yes | Yes | Yes | Yes |
| WR: Rest of World | Yes | Yes | Yes | Yes |
The AP5020 software-defined WI-FI 7 AP provides support for dual 5 GHz and dual 6 GHz, as well as additional software programmable modes to optimally manage radios to provide the best performance.
The AP5020 tri-radio AP transmits with multiple combinations of three data radios across the 2.4 GHz, 5 GHz, and 6 GHz bands in addition to a dedicated tri-frequency sensor. The AP5020 monitors the software-configurable radios, enabling configuration of the APs in different modes as required.
Supported Software Defined Radio Modes shows the maximum TX power allowed to be conducted per chain to operate within hardware thermal design restrictions. The actual maximum TX power conducted may vary per channel, according to regulatory testing for each country.
2x2 chain Radio: controller-reported conducted power per chain + 3dBm (if the radio reports 13dBm on the GUI, the actual power feed to the antennas is 16dBm)
4x4 chain Radio: controller-reported conducted power per chain + 6dBm (if the radio reports 13dBm on the GUI, the actual power feed to the antennas is 19dBm)
Actual maximum conducted power per radio + Antenna Gain
|
Num |
Mode |
Radio 1 |
Radio 2 4x4 160 Mhz |
Radio 3 | |
|---|---|---|---|---|---|
| 1 | 2.4/5/6 GHz Service | 2.4G(18dBm 4x4) | 5G-Full(18dBm 4x4) | 6G(18dBm 4x4) | Tri Radio |
| 2 | 5/6 GHz Service w/ Sensor | tri-radio 2x2 scan | 5G-Full(18dBm 4x4) | 6G(18dBm 4x4) | High Band w/ Scan |
| 3 | 5L/5H/6 GHz Service 1 | 5G-Low(16dBm 2x2) | 5G-High(16dBm 4x4) | 6G(18dBm 4x4) | Dual 5GHz w/ 6GHz |
| 4 | 2.4/5 GHz Service w/ Sensor | tri-radio 2x2 scan | 5G-Full(18dBm 4x4) | 2.4G(18dBm 2x2) | DBDC w/ Scan |
| 5 | 5L/5H/2.4 GHz Service 1 | 5G-Low(16dBm 2x2) | 5G-High(18dBm 4x4) | 2.4G(18dBm 2x2) | Dual 5GHz w/ 2.4GHz |
| 6 | 6L/5/6H GHz Service 1 | 6G-Low(16dBm 2x2) | 5G(18dBm 4x4) | 6G-High(18dBm 4x4) | Dual 6GHz w/ 5GHz |
|
Notes: 1 When operating in Dual Band mode, it is possible to observe a higher power-level output on Radio 1 as compared to the Radio 3 output. This is possible because Radio 1 uses 2x2 transmission and Radio 3 uses 4x4 transmission, and the total power output is divided among antennas (chains) associated with each radio. | |||||