Delengowski :
The fact that you cannot even understand that Palladin is talking about less than a second is pretty ******* hilarious, there is a 833 thousandths of a second difference between the 120 hz and 60 hz or 1.66 milli seconds vs .833 milli seconds, now do you know how many milliseconds there are in a second? 1000, Palladin in right in calling your a cyborg to be able to see the difference in that.
Your arguments amount to this kind of logic . The human cannot possibly see light. That would require seeing wavelengths between 380 nanometers to 740 nanometers. That's impossible because its a really small number. Seriously that's all your argument amounts to. But for those of us humans who can see, we know that our eyes can do such a thing.
Now hear me out. Using real numbers from sites like humanbenchmark and medical sites we can break down how long it takes for each part of the human function and try to isolate just how long it's taking the brain to discern an image. I think we can agree that if the brain can make a action in 1 second. It's probably able to process visual stimuli (in ms) at a much higher rate. For *EXAMPLE* if it can take 2 images and combine them in 1 second plus dictate a proper action for them it probably could see the difference between images being displayed at 1/2 a second and 1/4 a second. (by being able to properly see the whole picture it probably understands what some of the elements are) Kinda like if I know how a car works I know what a muffler is.
120ms total reaction time according to human benchmark
40ms (eye to brain)
20ms (brain to hand)
16ms (monitor)
10ms very conservative ( mouse browser processing)
=less than 36ms internal brain processing including choice of action.
Now here are the numbers, the lower end of human reaction time is around 120ms on humanbenchmark (before we get to statistical inconsistencies). I'm choosing the lower end because we want to isolate what the human brain might capable of since it's still such a mystery, and I'm just trying to show its plausible. So lets break down each segment of the 120ms to isolate the brain (get rid of all the extra latency that has nothing to do with the brain). 40ms is for the signal traveling to the back of the brain. Nerve impulses travel from .89 meters per second to 119m/s (the signal to your muscles) . That means it takes 20ms for the signal to travel to your muscles. With just those 2 things ( signal from eye to brain/ brain to muscle) That's 60ms just for sensory input/output. Now the monitor at 60hz takes 16ms and the mouse, browser, and computer processing takes some time, since I don't have a good number lets say 10ms. So we have eliminated 82 ms from 120ms. That leaves just 36ms for brain processing.
Ok so 36ms, higher than 8 right. But the key isn't being lower than 8. Just that ms to the brain is relatively long intervals. Since we have no idea how the brain works internally there is no way to break it down beyond that, however I'd say that if the brain can take an image, communicate that to other parts of the brain and make a decision. It's def not out of the questions that the brain can tell the difference between 8ms and 16ms. So how you can sit here and try to say other wise is beyond me, especially without providing a good argument, other than your own circular logic.
So if the brain can make a decision in 36ms, how long did it really spend processing an image? Probably not 16ms. It certainly seems plausible to me that the brain can see the difference between image intervals of 8ms and 16ms. As far as making use of them. Like I said, it helps track objects and creates less strain on the brain (person experience).
The fact that the brain can make a smooth image out of 24-60fps is simply a feet of the mind. not because the number of ms between frames is so low.
Now lets see you 2 come up with an argument that doesn't amount to, But its a really small number.