johanfprins
Graduate Poster
- Joined
- Dec 1, 2010
- Messages
- 1,015
Yes if he knew relativity theory or else he would not.No, obviously not. The observer could simply conclude that the bomb wasn't at rest at the time is was "launched", but instead had some initial horizontal motion.
Of course not: Just as the inquisition had no idea what Galileo was talking about when he said that even though objects on the earth can be stationary, the earth is not stationary. As I have pointed out before: You should have been a Cardinal at the Vatican in the time of Galileo. You still are unable to understand what Galileo postulated.It is not required, so I have no idea what you are talking about here.
Clock rates are not frame dependent and muon lifetimes are also not frame dependent. The apparent increase in lifetime of the muon does not occur within the reference frame moving with the muon.That's correct, yes. Clock rates, lifetimes, etc. are frame-dependent quantities.
I am afraid that it is you who are having a childish misundersatnding.The fact that you categorize "longer muon lifetimes" and "slower clocks" differently reveals yet another childish misunderstanding.
Define a "moving" reference frame to me please! All inertial refrence frames are moving since there is not one of them that is uniquely stationary: Thus, if your argument is correct, all clocks within all inertial reference frames must go slower and do this simultaneously at different rates within the same inertial reference frame; since such a clock moves with different speeds relative to clocks within all the other inertial reference frames in the universe: Can you not see that you are spouting nonsense? Your explanation can only be valid if there exists a uniquely stationary clock: And Einstein's postulates is based on the assumption that such a clock does not exist.There is no difference between the two. All processes run slow in moving frames.
You can make a clock out of any radioactive "particle" and this clock will keep the same time rate within any possible inertial reference frame, no matter at what speed such a reference frame moves relative to any other inertial reference frame in the universe.You could make a clock out of muons, for example.
Childishly wrong!And yet, they don't. Moving muons decay slower than stationary muons, so moving muon-clocks run slow (as to all other types of clocks).
Yes I am. Why do you people keep on referring to publications that I know in detail and which you are unable to interpret correctly. The problem does not lie with my knowledge but with the lack of logic you, Ben and Ziggurat has. In this experiment these clocks were flown around the world in aeroplanes which took off and landed all the time: So there was no constant relative motion between them. Furthermore, the data collected have HUGE experimental uncertainties in them; and are thus far from convincing: The result could have been found because the experimenters wanted to find the result. This publication is discussed in my friend's manuscript.Are you aware of this experiment, Johan? http://hyperphysics.phy-astr.gsu.edu/hbase/relativ/airtim.html
You have still not defined to me what you mean by stating that a clock is stationary. Stationary relative to what?
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