Oh seriously.
That is basically how everyone is thinking about you.
You don't seem to understand the difference between the speed the wave travels at, vs how much data it can carry.
Lets keep it simple, you have a fleet of small hatch backs, each capable of carrying 100 kg, and a fleet of large B-double trucks (i.e. a truck, with 2 large trailers) each capable of carrying 40 000 kg.
Both will travel at 100 km/hr, the entire time, and for the sake of argument, can be loaded instantly, and you can send 1 car out every hour.
You need to move 80 000 kg of stuff, a distance of 100 hours.
How long will it take?
A child can probably do the math and tell you that the trucks will require 2 trips, the second will be sent out 1 hour the first one leaves, and then take 1 hour to reach its destination, for a total time of 2 hours.
The hatch backs instead will require 800 trips, for a total time of 801 hours (1 hour delay between sending out each, and the 1 hour for the last one to travel).
Both travelled at the same velocity, but one required fewer trips so was able to get the job done faster.
As another comparison, lets just say you have 2 options for the fleet of hatch backs.
In one, you can send 1 out every hour, for another, you can send 1 out every minute.
Now, the 1 every hour is the same as before, so it will take 801 hours.
But the one sending 1 every minute will take 800 minutes plus 1 hour, or roughly 14 hours.
Again, they travel at the same velocity, but one is able to send much more data.
A higher data rate (which equates to a faster transfer speed) does NOT require a higher velocity.
Likewise, range depends on the energy of the emitter.
Again, you can compare a tiny LED, with a higher power LED floodlight.
One has a much larger effective range. This has NOTHING to do with the wavelength.
A child can easily understand these points. Why do you insist on playing dumb?
But what is coverage? As wavelength decreases, frequency increases. As frequency increases, energy increases.
A multitude of factors, but the one you are focusing on actually works against you.
For a higher frequency, the energy per photon increases, which means for the same energy you have fewer photons coming out, which means the signal can be worse.
Note that 5G transmitters require more energy than a 4G transmitter and cover a smaller area.
So that doesn't help your claim at all.
You're talking about a better connection because the area is blanketed with faster signals.
No, there is a better connection because there is more bandwidth.
It has NOTHING to do with velocity of the signals.
So answer this. If all frequencies are the same (they are not, you insufferable dumbasses), then what is the actual point of upgrading from almost harmless RF frequencies to much more dangerous MF radiation? I mean seriously, we use microwave radiation to cook our food, despite that cases of cancer have definitely increased since that became the trend.
Again, this has been explained repeatedly.
Stop just ignoring it and stop playing dumb.
The SPEED of the waves are the same. What changes is the frequency, and with that, the amount of data that can be sent.
Repeatedly ignoring this fact because it is inconvenient for your delusional garbage just shows your dishonesty.
If you increase the frequency, you increase the data rate.
Yes, even they admit to the term faster.
Because they are referring to the data transfer rate.
You can transfer the same amount of data faster.
That doesn't mean the velocity of the wave is faster.
The point is that 1G could manage voice only, and it wasn't until nearly 3G that we began to talk about data plans. Had data been used in 1G, it would have been laughed off. My mom was able to do video calls during the height of COVID hysteria.
1G was analogue (a collection of different standards).
Data is transferred in a digital format, so you would need something on top of that 1G to be able to get data transferred.
2G provided a 30 kHz channel, so not much data could be sent.
4G provides more options for channels, from 5 MHz to 40 MHz, allowing vastly more data to be sent.
Again, they don't need the waves themselves to travel faster.