Muons were mentioned by TimFox in #1386. And by penfold in #1310.
Yes - and you have no explanation for them.The muon is wonderful. It is another fine example where Einsteinist's shoot themselves in the foot.
That’s the beautiful thing about Einsteinist's when they proudly crow about another proof of Einsteinian stuff. They love to assert that the new experiment proves or confirms STR or GTR to well within the margin for error. Not realizing that when aetherists show that the experiment has an error then that same experiment has to then be seen to be a disproof of STR or GTR.
The muon experiment is one such disproof, within the margin for error.
I'm not wasting my time parsing for errors in a crank paper published on a crank website like 'General Science Journal' though I did derive no small amusement from perusing a few of the submissions there.
Rather, I'm going to focus on something else stupid that you're asserting here - that the experiments on muon decay were done once in the 1960s and that's it! I don't care about the 1960s experiment (other than for historical reasons) - because other people did the experiment and the measurements of muon decay and the relativistic calculations associated with it are something so trivial that physics undergraduate students do this experiment ALL THE TIME:
https://scholarworks.smith.edu/cgi/viewcontent.cgi?article=1041&context=phy_facpubs
https://arxiv.org/pdf/physics/0502103.pdf
https://www.physlab.org/wp-content/uploads/2016/04/Muon_cali.pdf
https://www2.ph.ed.ac.uk/~muheim/teaching/projects/muon-lifetime.pdf
https://www.ictp-saifr.org/wp-content/uploads/2018/08/Lab_MuonLifetime_2018.pdf
http://www.princeton.edu/~romalis/PHYS312/Muon_lifetime.pdf
The list goes on.
Let me repeat. This experiment is so trivial that undergraduate physics students do it all the time in universities all over the world.
I don’t understand the undergraduate muon Xs. But it appears to me that all of them (most of them) involve measurement of the lifetime of muons, the Xs do not involve the more complicated confirmation of time dilation.
I think that i am ok with the existence of muons (massive electrons), & (perhaps) with the measurement of their lifetimes (i think that their lifetimes depend on where they come to rest)(are some orbiting a nucleus?). But i am not ok with the standard Einsteinian time dilation explanation for the overly high number of muons hitting Earth.
Here is how neoLorentz Relativity (my preferred theory)(very nearly) sees ticking dilation & length contraction for muons hitting Earth.
LENGTH CONTRACTION. Firstly we have a muon looking at the distance to Earth.
Einsteinian Relativity says that if the muon is falling at 0.99c then the distance to Earth appears to the muon to be D/9 approx. Hence the muon has a greater chance of reaching Earth before decaying (half life is 2.2 microsec)(time to reach Earth from 10 km or 33,000 ft is 33,000 ns which is 33 microsec).
neoLorentz Relativity says that the muon is length contracted, ie its length is L/9, in which case the distance to Earth which is D appears to the (contracted) muon to be 9D (if using measuring rods carried by the muon)(ie the measuring rods are contracted by L/9). This is 81 times the Einsteinian D/9.
Hence neoLorentz Relativity length contraction can't explain why so many muons reach Earth. In fact neoLorentz Relativity apparent length contraction makes the probability almost zero. So, this kind of apparent length contraction cant be involved -- it is irrelevant.
TICKING DILATION. Secondly we have an observer on Earth looking at a falling muon.
Einsteinian Relativity says that if a stationary observer sees that the muon is falling at 0.99c then the observer sees that the muon's time is passing at T/9 relative to the observer. Hence the muon has a greater chance of reaching Earth before decaying.
neoLorentz Relativity possibly says the same. neoLorentz Relativity ticking dilation probably has a different value of ticking dilation for each kind of clock, ie for each kind of atomic or subatomic particle, ie for each kind of subatomic or atomic process. Some processes might have a ticking dilation that is equal to or very nearly the Einsteinian time dilation.
So, what is the neoLorentz Relativity value for the ticking dilation of the decay lifetime of a muon?
As i said, if that value is equal to the Einsteinian value then every experiment that validates Einsteinian time dilation also validates neoLorentz ticking dilation.
And it validates every such theory that has that value, every such theory that has already been invented, & every future theory that has not yet been invented, ie an infinite number of such theories.
But, to Einsteinists, the muon decay lifetime experiment proves Einsteinian time dilation, the whole of Einsteinian time dilation, & nothing but Einsteinian time dilation.
Einsteinian time dilation says that time is dilated. In which case every clock, every process, is dilated, equally.
neoLorentz ticking dilation says that the ticking of every process is affected in a different way, & to a different degree. At the subatomic & atomic level the ticking is affected by length contraction, in every case, the length contraction affecting the strength & speed of every em radiation field & force.
Not only that, but length contraction in neoLorentz relativity is due to the speed through the aether, in other words it is due to the aetherwind. Whereas in Einsteinian Relativity length contraction is due to relative velocity & time dilation is due to relative speed.Not only that, but the stationary observer that i mentioned earlier is almost irrelevant in neoLorentz Relativity. In neoLorentz Relativity the observer has to be stationary in the (absolute) aether frame, ie where the aetherwind is zero km/s (ie the absolute reference frame)(the ARF). The background aetherwind near Earth blows at 500 km/s (c/600) south to north about 20 deg off Earth's axis. Hence in some experiments the exact aetherwind is critical, in some it aint. A muon falling to Earth near the north pole might have an aetherwind of 0.99c plus c/600, & a muon falling to Earth near the south pole might have an aetherwind of 0.99c minus c/600. Or, do they have the same aetherwind? Its tricky.