Those numbers are typically the sum of the max theoretical Tx rates for all the bands the router has. They are largely marketing BS. For instance the EAP670 spec sheet says "Simultaneous 574 Mbps on 2.4 GHz and 4804 Mbps on 5 GHz totals 5378 Mbps WiFi speeds", which they then round up to 5400 because they can. You will not get anywhere near those speeds in real life. 4800Mbps on the 5GHz band is the theoretical best case Tx rate if you have a 4x4 client (which you don't) and are using a 160MHz channel width (which you can't, unless you live somewhere far from any airport or weather radar that will hog the "DFS" channels). On top of which, real-world data throughput is typically no better than about two-thirds of whatever Tx rate you do manage to reach. So that "4804" is probably more like "800" for most of us, or at best "1600" if you live in the sticks where you can use DFS channels. Derate the 2.4GHz number similarly, although few makers provide 4x4 radios on 2.4GHz so there's one factor-of-two you might not be losing on that band. And you're probably not saturating both bands simultaneously in day-to-day use, either.What does the AX3600 vs the AX 5400 mean ?
I have the TP-Link TL-SG2016P Switch with 10/100/1000 Mbps RJ45 ports .Those numbers are typically the sum of the max theoretical Tx rates for all the bands the router has. They are largely marketing BS. For instance the EAP670 spec sheet says "Simultaneous 574 Mbps on 2.4 GHz and 4804 Mbps on 5 GHz totals 5378 Mbps WiFi speeds", which they then round up to 5400 because they can. You will not get anywhere near those speeds in real life. 4800Mbps on the 5GHz band is the theoretical best case Tx rate if you have a 4x4 client (which you don't) and are using a 160MHz channel width (which you can't, unless you live somewhere far from any airport or weather radar that will hog the "DFS" channels). On top of which, real-world data throughput is typically no better than about two-thirds of whatever Tx rate you do manage to reach. So that "4804" is probably more like "800" for most of us, or at best "1600" if you live in the sticks where you can use DFS channels. Derate the 2.4GHz number similarly, although few makers provide 4x4 radios on 2.4GHz so there's one factor-of-two you might not be losing on that band. And you're probably not saturating both bands simultaneously in day-to-day use, either.
It's best to drill down to the actual spec sheet details. Look at the number of antennas (typically 2 or 4 per band, often written "2x2" or "4x4"); more is better, but it helps more for serving more clients than for getting better speed to any one client. Check whether 160MHz channel width is supported (not that you care if you're in an urban environment). The EAP660 has 4x4 radios on both bands but no 160MHz, so it ends up with the lower marketing number but might nonetheless outperform the EAP670 (2x2 on 2.4GHz, 4x4 on 5GHz, with 160MHz) if you don't care about 160MHz but do care about supporting a lot of 2.4GHz clients.
Also pay attention to whether the device has backend bandwidth sufficient to support whatever performance you're hoping for. These two TPLinks both have 2.5Gbps ethernet ports, but there's a lot of gear out there with just 1Gbps ports, which tells you something about what the manufacturer's engineers think you'll actually get out of it.
I didn't look at the Omada-nameplate devices to see if they are different, but they might be.
How much specifically? 100, 200, 500? What type? Computers, phones, IoT?I have a lot of clients
AX1800 is enough up to 1GbE.I have a 500mg connection and can upgrade to 1gig later on.
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