Ultimate Fate of a Hydrogen Atom in a Perfect Vacuum

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SUMMARY

The discussion centers on the fate of a hydrogen atom placed in a perfect vacuum, defined as an environment devoid of matter and electromagnetic radiation. It concludes that the hydrogen atom remains stable indefinitely due to the principles of quantum mechanics, as the electron remains bound to the nucleus and quarks remain bound within protons and neutrons. The concept of entropy does not apply to the atom's stability in this scenario, as classical mechanics suggests that the atom's state does not change over time in a vacuum.

PREREQUISITES
  • Understanding of quantum mechanics principles
  • Familiarity with atomic structure, specifically hydrogen
  • Knowledge of classical mechanics and entropy
  • Basic concepts of particle physics, including quarks
NEXT STEPS
  • Research quantum mechanics and its implications on atomic stability
  • Explore the structure of hydrogen and its electron configuration
  • Study classical mechanics and the role of entropy in physical systems
  • Learn about particle physics, focusing on quarks and their interactions
USEFUL FOR

This discussion is beneficial for physicists, students of quantum mechanics, and anyone interested in atomic theory and the behavior of particles in a vacuum.

NthDeegree
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Assume that you placed a single atom (let's keep it simple and specify a hydrogen atom) in a theoretical container that could maintain a perfect vacuum. The perfect vacuum being defined as having no matter, electromagnetic radiation, neutrinos etc.

What would be the ultimate fate of that atom? Would it slowly lose any energy it possessed when first put in the container and eventually degrade to a thin quark soup? How long would it take the atom to degrade if indeed that was it's fate.
 
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I don't know the particle physics part, but from the classical view entropy only tell which of the mechanically allowed states are more likely. So for a mass orbiting another mass the entropy concept isn't really useful. The path would stay a perfect ellipse forever.
 
A stable atom does not change with time. Quarks are forever bound together in the nucleus, the electron forever bound to the nucleus.
 

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