Can Time Move Faster in Low Gravity Fields?

matdoya
Messages
6
Reaction score
0
I read on wikipedia that time goes slower in higher gravitational fields,

I also know that 'inside' a black hole time stands still.
(simplified, I know)

Does this mean that in places where the gravitational field is extremely low (far apart from galaxies and any other objects having mass) time goes infinitely fast?

So that if you would travel through such a place and the only gravity that wouldn't be neglectable is the one formed by your own mass and thus time proceeds extremely fast there?

just asking,

S.
 
Physics news on Phys.org
The right to think about, I guess, it's that when you are here or here, you measure some time.

Every observer has some rules and some clocks to measure time.

Now suppose the twin paradox. The thing that actually happens is that their clocks will not measure the same amount of time, but time will pass as usual for both

The reason of this, it's the Lorentz Transformations, which are the ones you should use when relativistic effects are not negligible. this is, when speeds are not small when compared to the speed of light in vacuum, and when the distances traveled are long enough (I'm sorry but i do not know what long enough actually means in this context, but think about astronomical scale of course)
 
Advent said:
The right to think about, I guess, it's that when you are here or here, you measure some time.

Every observer has some rules and some clocks to measure time.

Now suppose the twin paradox. The thing that actually happens is that their clocks will not measure the same amount of time, but time will pass as usual for both

The reason of this, it's the Lorentz Transformations, which are the ones you should use when relativistic effects are not negligible. this is, when speeds are not small when compared to the speed of light in vacuum, and when the distances traveled are long enough (I'm sorry but i do not know what long enough actually means in this context, but think about astronomical scale of course)

I thought that the 'solution' to the twin paradox was that first the traveling twin was traveling away from his Earth'sick brother with two different reference frames, but traveling back he travels in a third reference frame, one that is the inverse of his first one, eliminating any gain or lose in time made...

-> what is the difference between time passing by and measure it's progress?
-> the Lorenz transformations apply to the length of the moving object, not to the distance traveled
-> suppose for simplicity of argument that the speed indeed is nowhere near the speed of light, say the speed of sound or something...

S.
 
No, time would not be infinite. It would be "normal" time (no time dilation). Just let r go to infinity in the equation and you will see that time is not changed.
 
Legion81 said:
No, time would not be infinite. It would be "normal" time (no time dilation). Just let r go to infinity in the equation and you will see that time is not changed.

For some reason I always forget to check the equations :s.

It would have been cool though :)

S.

ps: in the formula on wikipedia
http://en.wikipedia.org/wiki/Gravitational_time_dilation#Outside_a_non-rotating_sphere
you can also set M to 0, same result (obviously)...
 
Thread 'Can this experiment break Lorentz symmetry?'
1. The Big Idea: According to Einstein’s relativity, all motion is relative. You can’t tell if you’re moving at a constant velocity without looking outside. But what if there is a universal “rest frame” (like the old idea of the “ether”)? This experiment tries to find out by looking for tiny, directional differences in how objects move inside a sealed box. 2. How It Works: The Two-Stage Process Imagine a perfectly isolated spacecraft (our lab) moving through space at some unknown speed V...
Does the speed of light change in a gravitational field depending on whether the direction of travel is parallel to the field, or perpendicular to the field? And is it the same in both directions at each orientation? This question could be answered experimentally to some degree of accuracy. Experiment design: Place two identical clocks A and B on the circumference of a wheel at opposite ends of the diameter of length L. The wheel is positioned upright, i.e., perpendicular to the ground...
According to the General Theory of Relativity, time does not pass on a black hole, which means that processes they don't work either. As the object becomes heavier, the speed of matter falling on it for an observer on Earth will first increase, and then slow down, due to the effect of time dilation. And then it will stop altogether. As a result, we will not get a black hole, since the critical mass will not be reached. Although the object will continue to attract matter, it will not be a...

Similar threads

Replies
40
Views
3K
Replies
8
Views
2K
Replies
18
Views
1K
Replies
36
Views
4K
Replies
69
Views
7K
Replies
27
Views
4K
Back
Top