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120hz 3200x1728
It's affecting a good few Quest 3 owners, including myself.
Basically, low power mode makes the Quest 3 look low resolution, and blurry, and any attempt to correct this just does nothing, only upscale a blurry image.
You might not have this, and it's something else, but worth a try first.
Or at least that is what I was able to gather, not being a network engineer I don't really understand it. But I have never had any kind of problem with using a dedicated router for the quest. Especially since you can put it in your VR room so you also get the benefit of proximity.
Actually pretty sure the multiple antennae are for beam forming which massively increase bandwidth throughput. There's no reason why a single antennae can not send and receive on multiple frequencies simultaneously.
Can you only see single frequencies of light? Same thing in principle.
... Yes. That's why you have different cones, each for light of a specific wavelength. For humans these are the L (Long), M (Medium) and S (Short) cones and Rods, roughly equivalent to Red, Green and Blue with rods also falling under a different part of the blue waveband but being used to pick up light intensity and not colour. Because of biological imprecision they are not perfectly tuned but the sensitivity falls off a cliff either side of the peak (which is around 565nm, 535nm, 420nm and 500nm respectively, with some individual variance because of genetics). Your brain then uses the relative signal strength from each of the types of cells to calculate a perceived colour. That is how you see cyan and red for example, despite your eyes having very low sensitivity to those wavelengths (counter intuitively the Red cells are actually tuned to yellow, but they're the only cells that have sensitivity extending into the red range at all, so your brain calculates that you see red based on weak input into the red cones).
You might be right regarding radio antennae, though it contradicts the small amount of education I have on the subject.
What the radio does with two antennas is send a signal out one antenna, then that same bit signal gets "phase delayed" and sent out the other. that time difference and the antenna locations are the calculated to do error correction. Less errors equals more succesful packets.
Theres a lot more to it than that of course, and im not RF expert. But a single radio/antenna combo can only do one thing at a time on one frequency. Or say one radio chip with multiple controlled radios work in tandem. with the same bit of info and a whole bunch of calculations
Thats why wifi is "half duplex".
https://youtu.be/kcIkgyRGFQE?si=GRN6iSkhLvVnjnZ4