Time Dilation: Understanding the Formula

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The discussion centers on the time dilation formula and its interpretation, particularly regarding the gamma factor. A gamma value closer to 1 indicates no time dilation, meaning the clock ticks normally in the observer's frame. Conversely, a higher gamma value signifies that the moving clock ticks slower relative to the observer, illustrating the effects of time dilation. While some participants advocate for the Lorentz transform as a more reliable method, others argue that the time dilation formula can enhance understanding of relativistic effects. Ultimately, grasping these concepts is essential for comprehending the nature of time in different frames of reference.
lewis1440
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I do not fully understand the time dilation formula, if the answer is nearer to 1 does that mean time itself under perspection has slowed or increased?
 
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I would recommend not using the time dilation formula. It is too easy to misuse. Instead, you should always use the Lorentz transform.
 
DaleSpam said:
I would recommend not using the time dilation formula. It is too easy to misuse. Instead, you should always use the Lorentz transform.

ok, thankyou.
 
lewis1440 said:
I do not fully understand the time dilation formula, if the answer is nearer to 1 does that mean time itself under perspection has slowed or increased?
While it's safer to use the full Lorentz transform, IMO the time dilation formula can give better physical intuition if you're trying to picture how things are behaving in a given frame. It's always true that a clock which is moving in a given inertial frame is running slower in that frame, so for example if gamma=1.25, that means in the frame of the observer who sees the clock in motion, it takes 1.25 seconds for the clock to tick forward by 1 second. So the larger the value of gamma, the slower the clock is ticking in the observer's frame. If gamma=1, then that means the clock is at rest relative to the observer, and it's ticking at 1 second per second of time in the observer's frame (no relativistic time dilation).
 
In an inertial frame of reference (IFR), there are two fixed points, A and B, which share an entangled state $$ \frac{1}{\sqrt{2}}(|0>_A|1>_B+|1>_A|0>_B) $$ At point A, a measurement is made. The state then collapses to $$ |a>_A|b>_B, \{a,b\}=\{0,1\} $$ We assume that A has the state ##|a>_A## and B has ##|b>_B## simultaneously, i.e., when their synchronized clocks both read time T However, in other inertial frames, due to the relativity of simultaneity, the moment when B has ##|b>_B##...

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