No, man, honestly I don't read into dumbed-down releases. What's the point? I reread what you posted, and maybe what you meant back there is that some particles are so short lived that they need to be accelerated so much so that they survive traveling from the collision spot to the detector. I see. But we again can continue to discuss what is "time dilation". What I'm saying is that those particles projected at very high speed, go through that "time dilation" _maybe_ because they acquire different physical characteristics.You guys read too much of the dumbed-down "We smack the particles like billiard balls" public releases that CERN and other accelerators make. The general public isn't able to accept that they are making black holes (albeit small ones). Dig past the normal public stuff and read the released work synopses. It's really friggin amazing stuff. I get like 5% of it but it's got serious "wow".
No, they don't have to live "longer" since they are travelling at very high speed, therefore it's enough for them to reach longer distances until they desintegrateGoogle neutrino detectors like the one that Fermilab operates. Cosmic rays strike the upper atmosphere and occasionally create special types of neutrinos. These decay almost instantly but because they are traveling so fast in relation to us they live long enough (again relative to us) to make it to the earth's surface and even pass through.
I'm not sure that we are talking about the same thing here, so let's see where this gets me.Einstein's theory of special relativity has been beaten on worse than evolution by minds far greater than ours and it has withstood every test. There is even movement now to declare it a law of physics.
What I'm saying is that there's something overlooked: the observer and the Cesium clock are made of matter. You can't be sure that absolutely nothing happens to them, it's just a matter of time. If you project matter at near the speed of light, freeze near the absolute zero or subject it to gravity pull to one direction, that changes the speed and trajectory of the electrons around the nucleus of their atoms, right? Let's look at this extreme example: it's intuitive that near a black hole, in some matter travelling and being pulled to it, atoms change shape and become stretched or elliptic, and electrons stop rotating or stall facing the black hole or even get ripped of the atoms? How about it?
Changes to electron speed and trajectory influences the speed and intensity of chemical reactions. Changes in the nucleus may induce a subtle change the behavior of radiation emission, including those Cesium atoms. Regarding the twin paradox, why doesn't time pass slower to the high speed traveller due to basic slow down from atomic level to chemical reactions to metabolism and the way that the brain tracks time?
Anyway, you got me interested I'm going to read in detail about this, some day.
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