Okay but you have to keep in mind that there are multiple waves, and what you might use them for. Think of how a sonar works. Sonars must associate and compare

Okay but you have to keep in mind that there are multiple waves, and what you might use them for. Think of how a sonar works. Sonars must associate and compare the timing of events, just like neurons. They use as many different frequencies for that as possible (used to be 4-8 frequencies but the state of the art is presumably much more) Let's say I have brainwaves at 0.5Hz, 4Hz, 8Hz and 20Hz wave. And let's assume they are all non-harmonic. If you have an event, and you can quickly inspect the position and phase of all these waves, you now have an extremely accurate and long-period reference for the time the event occurred (think of the individual waves as the numbers on a clock). So the accuracy would be a decent multiple of the highest frequency, so let's say 20-50ms resolution. And the repeat is the multiple of all the wavelengths, so this would give neurons a trivial way to understand or plan events up to 640 seconds away from the current moment, as well as an easy way to refer to the exact moment a prediction will come true, and how different events relate to eachother in time. It's brilliant.