Time is a property of the map, not a property of the territory. The territory probably doesn’t have anything that could reasonably be called time, along the lines of the timeless physics posts.
In this approach, anything is a property of the map only.
(One thing is to say that time isn’t, from the point of view of the fundamental microscopic laws, as universal and important as might intuitively appear. Another thing is to say that it doesn’t exist in the territory. There are natural clocks, such as decaying radioctive elements, whose existence has little common with human “maps”.)
Barbour’s universe/multiverse is much more complex than a classical timeful universe. And it isn’t especialy likely, either. Specualtion =/= proof. To say the least.
Could you expand on that? I had the impression that timeless physics was larger in RAM, but not on disk—where it counts for MML, Solomonoff Induction, etc.
I took it to mean that it requires you to keep track of more state at any given time, but that the whole system has less logical complexity when you write it all down. Sort of like the difference between estimating the future state of a restricted N-body problem with numerical methods vs. solving it directly.
Time is a property of the map, not a property of the territory. The territory probably doesn’t have anything that could reasonably be called time, along the lines of the timeless physics posts.
In this approach, anything is a property of the map only.
(One thing is to say that time isn’t, from the point of view of the fundamental microscopic laws, as universal and important as might intuitively appear. Another thing is to say that it doesn’t exist in the territory. There are natural clocks, such as decaying radioctive elements, whose existence has little common with human “maps”.)
Barbour’s universe/multiverse is much more complex than a classical timeful universe. And it isn’t especialy likely, either. Specualtion =/= proof. To say the least.
Could you expand on that? I had the impression that timeless physics was larger in RAM, but not on disk—where it counts for MML, Solomonoff Induction, etc.
I’m afraid I don’t understand your RAM/disk metaphor.
I took it to mean that it requires you to keep track of more state at any given time, but that the whole system has less logical complexity when you write it all down. Sort of like the difference between estimating the future state of a restricted N-body problem with numerical methods vs. solving it directly.
There are no “given times” in Barbour’s universe. And who’s the “you”? An internal or external observer?