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by felipemnoa
5485 days ago
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I suspect with respect to the frame of reference from where the measurement is being done. If the frame of reference is the ship itself then you will not notice any change in entropy. Hence why you won't be able to tell that time is actually slower. However, from a frame of reference outside the ship you will notice the difference in rate of change. So really what you are really measuring is the difference in change of entropy from your local frame of reference to the frame of reference of the ship. There is no such thing as absolute rate of change. All is relative. With respect to time, if you could somehow reverse all the motions of every single subatomic particles in a particular frame of reference then you would essentially be moving back in time in that specific frame of reference. To reverse time you have to reverse the motion of every single particle, sub-particle. Is almost the same thing as simply playing a movie in reverse. Now the real issue with this methodology is that the particle movements are not being recorded anywhere as far as we can tell. So we need to first find a way to record the movement of all the particles in a frame of reference and then find another way to run the entire recording in reverse. I wonder if exceeding the speed of light would actually reverse the motion of particles. That would imply that the motion is somehow being recorded? Who knows, just thinking out-loud. Another really good question that I've been wondering about is why does entropy decreases when you move faster? What is it that causes entropy to decrease? Is it some sort of "friction" with space-time? Anybody have any good suggestions? It may have to do something with conservation of energy. Or conservation of something. The faster it moves the slower the particles move. Something is being compensated for. |
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One analogy that occurrs to me is movement through a fluid. There is almost always a terminal velocity. We can transmit waves via a fluid, and particles through it as well.
I would like to know what vacuum looks like at the Planck scale. Perhaps entropy increases slower or faster based on interactions at the smallest scale between light/matter and whatever space-time is. Movement through the medium at higher speeds decreases these interactions, maybe by skipping over them. Less interactions, slower entropy, slower apparent time.
Perhaps c is the terminal velocity of space-time. The air/water analogy breaks down easily, since we can travel faster than terminal velocity in air. But it's a different way of looking at the question.