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Polama
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How do time-energy uncertainty and special relativity's rules about observers seeing time different for each other interact?
Heisenberg's uncertainty principal applies to time and energy: a system existing for a short duration of time has more uncertainty in its energy than one that exists for longer.
When I measure a system moving at a greatly different speed than myself, relativity kicks in, right? So I observe the system as evolving substantially slower than it perceives itself.
So which delta-t do we use? Am I able to observe the energy of a fast moving system more accurately then I could if I was traveling the same speed as it? Is it only the system's clock that matters? Or is energy-uncertainty relative? But what would that mean? If I perform a measurement of energy, and a scientist moving at high speeds makes a measurement, what would we see when we compared notes?
Heisenberg's uncertainty principal applies to time and energy: a system existing for a short duration of time has more uncertainty in its energy than one that exists for longer.
When I measure a system moving at a greatly different speed than myself, relativity kicks in, right? So I observe the system as evolving substantially slower than it perceives itself.
So which delta-t do we use? Am I able to observe the energy of a fast moving system more accurately then I could if I was traveling the same speed as it? Is it only the system's clock that matters? Or is energy-uncertainty relative? But what would that mean? If I perform a measurement of energy, and a scientist moving at high speeds makes a measurement, what would we see when we compared notes?