ofirg
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I was just wondering. According to Lorentz transformations, if two events are simultaneous in one reference frame, they will generally not be simultaneous in another.
The time difference that I get between the two events in the other reference frame is
\Delta t^{`} = \gamma\beta\Delta x \approx {\Large \frac{\beta^{3}}{2}} \Delta x
Where the approximation assumes \beta \ll 1
Now, for space born objects \beta \approx 3 \cdot 10^{-5} so
\Delta t^{`} \approx 10^{-14} \Delta x where \Delta x is in light time.
If one takes a distance of 100 Mpc then \Delta t^{`} \approx 10 sec
So If I have two distant transient sources that give a signal at more or less the same time on earth, a space telescope will observe them at a noticeable time difference?
The time difference that I get between the two events in the other reference frame is
\Delta t^{`} = \gamma\beta\Delta x \approx {\Large \frac{\beta^{3}}{2}} \Delta x
Where the approximation assumes \beta \ll 1
Now, for space born objects \beta \approx 3 \cdot 10^{-5} so
\Delta t^{`} \approx 10^{-14} \Delta x where \Delta x is in light time.
If one takes a distance of 100 Mpc then \Delta t^{`} \approx 10 sec
So If I have two distant transient sources that give a signal at more or less the same time on earth, a space telescope will observe them at a noticeable time difference?