Sommerfeld quantization condition

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SUMMARY

The discussion focuses on the Sommerfeld quantization condition applied to the allowable radius of a spinning electron in a uniform magnetic field. The equation derived, r = √((nh)/(2πqB)), is presented as a solution to the relationship between angular momentum and magnetic field strength. The user seeks validation of this equation, indicating a lack of available resources online to confirm its accuracy. The conversation highlights the intersection of classical mechanics and quantum theory in understanding electron behavior in magnetic fields.

PREREQUISITES
  • Understanding of classical mechanics principles
  • Familiarity with quantum mechanics concepts
  • Knowledge of electromagnetism, specifically magnetic fields
  • Proficiency in mathematical manipulation of equations
NEXT STEPS
  • Research the derivation of the Sommerfeld quantization condition
  • Explore the implications of the equation r = √((nh)/(2πqB)) in quantum mechanics
  • Study the behavior of electrons in magnetic fields using classical and quantum perspectives
  • Investigate related topics such as Landau levels and their applications
USEFUL FOR

Physicists, students of quantum mechanics, and anyone interested in the behavior of charged particles in magnetic fields will benefit from this discussion.

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1. The allowable radius of spinning electron in uniform magnetic field using sommerfield quantization condition

3. Subs mv/r=qvB and some of its variation (like th period 2pi*r /v) into the closed int of pdq=nh and I got r=sqr((nh)/(2pi*qB)). Is this correct. I can't find anything about this equation in the internet.
 
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