Excitation levels (gamma ray spectrum) of a single proton nucleus

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SUMMARY

The discussion centers on the excitation levels and gamma ray spectrum of a single proton nucleus, specifically hydrogen-1 (1H). It is established that 1H does not possess excited states or a gamma-ray spectrum like nuclei with mass number greater than one (A>1). The conservation of momentum dictates that the proton remains at rest in the center of mass frame. Additionally, while delta resonances can be achieved by exciting quarks, these do not correspond to traditional nuclear excited states, occur at different energy scales, and do not decay via gamma emission.

PREREQUISITES
  • Understanding of nuclear physics concepts, particularly regarding single proton nuclei.
  • Familiarity with gamma-ray spectroscopy and its applications in nuclear analysis.
  • Knowledge of conservation of momentum principles in particle physics.
  • Awareness of baryon resonances, specifically delta baryons and their characteristics.
NEXT STEPS
  • Research the properties of hydrogen-1 and its lack of excited states.
  • Explore gamma-ray spectroscopy techniques used for nuclei with A>1.
  • Study the mechanisms of delta baryon formation and their energy scales.
  • Investigate the implications of conservation of momentum in particle interactions.
USEFUL FOR

Physicists, nuclear researchers, and students studying particle physics and nuclear reactions, particularly those interested in the properties of single proton nuclei and gamma-ray emissions.

granpa
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where can I get information about the excitation levels (gamma ray spectrum) of a single proton nucleus?
 
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1H does not have excited states or a gamma-ray spectrum analogous to those of nuclei with A>1. By conservation of momentum, the proton must remain at rest in the center of mass frame.

You can get delta resonances http://en.wikipedia.org/wiki/Delta_baryon by exciting the quarks, but they're not analogous to excited states of ordinary nuclei, don't occur at the same energy scale, and don't decay by gamma emission.
 

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