Chapter 12: Q40E (page 557)
Sketch the Feynman diagram if the proposed decay is possible.
Short Answer
The proposed decay is possible.The Feynman diagram is shown in the figure :

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Chapter 12: Q40E (page 557)
Sketch the Feynman diagram if the proposed decay is possible.
The proposed decay is possible.The Feynman diagram is shown in the figure :

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Does the requirement of color neutrality for a real particle prohibit the existence of hadrons containing 4 quarks? 5 quarks?Any number? If so, why? If not, what rules would apply?
The classical magnetic force formula F= qvB is correct relativistically.
But a magnetic field is to keep a high-energy charged particle moving in a circle, it must satisfy the relativistically correct relationship between force and centripetal acceleration
(a) To keep proton in a radius circle, as is done at a Tevatron, how strong must the magnetic field be?
(b) How large would the radius have to be for magnets of the same strength to keep proton in a circle?
The electron mentioned in Section 12.3 for deep inelastic scattering experiments is , and the momentum is given as . Why so simple a conversion?
What does color neutrality have to do with quark confinement?
From the experimental evidence that the force between nucleons has a range of about 1 fm. Obtaina rough value (in MeV/c2) for the mass of the particle exchanged to convey this force, the pion.
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