houserichichi
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Chroot, thanks for the explanation. I had convinced myself muon-antimuon couldn't be produced but you've shed the light right on it for me! Thanks for the clarification folks!
If you smash a gamma ray into a piece of metal, you can create a wide variety of pairs (e+, e- or u+, u- or p+, p-, etc.). Each has its own statistical probability of being created, but all valid reactions are possible, given enough energy
I don't think that is the general consensus. The general consensus - right now - is that there were equal amounts of antimatter and matter, but that symmetry is broken between the two - ie. antimatter is not exactly the same as matter, and for some reason, in our universe, decays a little more quickly. This is what leads to the imbalance. This, if I remember correctly, is borne out in a number of experiments which have illustrated broken symmetry, though results are not yet conclusive, since the effects observed do not fully account for the size of the imbalance.I'm under the impression that there was whole lots of matter and anti-matter at the time of the big bang, but there was a "slight" excess of what we call matter.
FZ+ said:I don't think that is the general consensus. The general consensus - right now - is that there were equal amounts of antimatter and matter, but that symmetry is broken between the two - ie. antimatter is not exactly the same as matter, and for some reason, in our universe, decays a little more quickly. This is what leads to the imbalance. This, if I remember correctly, is borne out in a number of experiments which have illustrated broken symmetry, though results are not yet conclusive, since the effects observed do not fully account for the size of the imbalance.
Also, antimatter/matter imbalance is different from charge conservation. 1 proton + 1 antiproton -> 1 proton + 1 electron conserves charge, but still breaks the standard model.