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Talk:Counterexamples to Relativity (view source)
Revision as of 00:03, August 28, 2011
, 00:03, August 28, 2011Reinsert block of text removed by Casey
::::: Nearly everything about charged particles requires relativity and quantum mechanics. There is no alternative way to understand charged particles, as far as I know. I do not even know what it would mean to reject relativity for this. [[User:RSchlafly|RSchlafly]] 02:12, 27 August 2011 (EDT)
::::: Nearly everything about charged particles requires relativity and quantum mechanics. There is no alternative way to understand charged particles, as far as I know. I do not even know what it would mean to reject relativity for this. [[User:RSchlafly|RSchlafly]] 02:12, 27 August 2011 (EDT)
:::::: Relativity is an unproductive belief system, disproved by more precise measurements in the tests that supposedly verified it. String theory is taking over university physics programs because Relativity is so obviously flawed.--[[User:Aschlafly|Andy Schlafly]] 12:28, 27 August 2011 (EDT)
:::::: Relativity is an unproductive belief system, disproved by more precise measurements in the tests that supposedly verified it. String theory is taking over university physics programs because Relativity is so obviously flawed.--[[User:Aschlafly|Andy Schlafly]] 12:28, 27 August
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::::::: [[String theory]] assumes that relativity is 100% correct. Physicists pursue string theory because they are sold on Einstein's dream of using relativistic ideas to unify physics, without having to pay attention to experiments. They are ''not'' pursuing string theory because they are persuaded by your list of relativity counterexamples. [[User:RSchlafly|RSchlafly]] 14:47, 27 August 2011 (EDT)
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:::::::: String theory's motivation is to provide a way to unite quantum mechanics and general relativity, so it assumes general relativity is a good description of nature. In fact, string theory becomes general relativity in the low energy limit. In addition, string theories are Lorentz invariant. Whatever the merits of string theory, relativity is incorporated fundamentally to it, so if anything this example speaks to the strength of relativity. --[[User:MatthewQ|MatthewQ]] 15:11, 27 August 2011 (EDT)
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::::::::: Andy Schlafly: ''"This scholarly article says that [[quantum mechanics]] is needed to explain syncrotron radiation. [http://adsabs.harvard.edu/full/1989A%26A...208..351L]"''-> It also says (right in the abstract) that relativity ''must'' be taken into account:
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::::::::::"However, '''when ɣB ≅ 10<sup>14</sup> Gauss, where ɣ is the electron Lorentz factor, Compton scattering becomes important'''. The result is a reduction in the synchrotron loss rate which '''agrees closely with quantum electrodynamics'''." [Emphasis added]
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::::::::: Both Compton scattering and quantum electrodynamics make use of special relativity. If you take a look at the equations in the paper you can see that special relativity is used explicitly. --[[User:MatthewQ|MatthewQ]] 15:32, 27 August 2011 (EDT)2011 (EDT)
== Standard kilogrammes? ==
== Standard kilogrammes? ==