No. of possible electron transitions in hydrogen in magnetic field

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SUMMARY

The discussion centers on the number of possible photon emissions from a hydrogen atom in the n=3 state when subjected to a magnetic field. In the absence of a magnetic field, three transitions are possible: n=3 to n=2, n=3 to n=1, and n=2 to n=1. The presence of a magnetic field introduces the concept of orbital magnetic quantum numbers, which results in the splitting of energy levels, leading to unique energy states for each angular momentum configuration. This phenomenon is known as the Zeeman Effect, which is crucial for understanding the energy transitions in the presence of a magnetic field.

PREREQUISITES
  • Understanding of quantum numbers, specifically principal quantum number (n), angular momentum quantum number (l), and magnetic quantum number (ml)
  • Knowledge of energy level transitions in hydrogen atoms
  • Familiarity with the Zeeman Effect and its implications on atomic energy levels
  • Basic principles of quantum mechanics and atomic structure
NEXT STEPS
  • Research the Zeeman Effect and its mathematical formulation
  • Study the concept of hyperfine splitting in atomic physics
  • Explore the implications of magnetic fields on electron transitions in various atomic systems
  • Learn about the experimental methods used to observe photon emissions in magnetic fields
USEFUL FOR

Students of quantum mechanics, physicists studying atomic interactions, and educators teaching advanced topics in atomic physics will benefit from this discussion.

Newtonz
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Homework Statement


A hydrogen atom is in the n=3 state. Given that a magnetic field is present, how many photons of different energy can we observe when the atom de-excites to the ground state?

Homework Equations


quantum number, angular momentum quantum number, orbital magnetic quantum number

The Attempt at a Solution


So far, I am aware in the absence of a magnetic field, there should be three possible transitions: n=3 to n=2, n=3 to n=1, and n=2 to n=1. I know that a magnetic field will cause there to be orbital magnetic quantum number. However, may I know whether electrons in the same n-state but with different angular momentum quantum number and orbital magnetic quantum number have different energy levels? For example, are energy levels of electron in the state: [n=3, l=2, m[itex]_{l}[/itex]=1] different from [n=3, l=2, m[itex]_{l}[/itex]=-1]?
 
Last edited:
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Welcome to PF;
Magnetic fields interact with the electron angular momenta ... thus splitting the energy levels.
So yes - each angular momentum state now has a unique energy where before you had degenerate states.
The question is basically testing your knowledge of this ...

Look up "splitting" and "hyperfine splitting".
But what I think you really want is "Zeeman Effect".
http://hyperphysics.phy-astr.gsu.edu/hbase/quantum/zeeman.html
 

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