Chapter 39: Problem 23
Write the equation for the decay of a positive pion to a muon and a neutrino, being sure to label the type of neutrino. (Hint: The positive muon is an antiparticle.)
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Chapter 39: Problem 23
Write the equation for the decay of a positive pion to a muon and a neutrino, being sure to label the type of neutrino. (Hint: The positive muon is an antiparticle.)
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Are either or both of these decay schemes possible for the tau particle: (a) \(\tau^{-} \rightarrow e^{-}+\bar{\nu}_{e}+\nu_{\tau} ;\) (b) \(\tau^{-} \rightarrow \pi^{-}+\pi^{0}+\nu_{\tau} ?\)
Why do we need higher-energy particle accelerators to explore fully the standard model?
What forces would be unified by GUTs?
Some grand unification theories suggest that the decay \(p \rightarrow \pi^{0}+e^{+}\) may be possible, in which case all matter may eventually become radiation. Are (a) baryon number and (b) electric charge conserved in this hypothetical proton decay?
Why did Yukawa conclude that the particle mediating the strong force should have nonzero mass?
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