So a question remains about electrons and probability waves like Schrodinger's one: does a single electron occupy both spin states in a lone orbital, then if another electron pairs up they align their spins, otherwise the wavefunction describes what exactly?
I'd say they do, a hydrogen atom has a single electron that allows itself to occupy the 1s orbital with both spins which would be a more relaxed or resonant state. Schrodinger's time-dependent probability wave dynamics, finds electrons in both states in delocalised orbitals too, I guess.
And that is somehow connected to photon emission, which we know is because of an electron losing momentum by finding a lower level of resonance, but spin is conserved.
I'd say they do, a hydrogen atom has a single electron that allows itself to occupy the 1s orbital with both spins which would be a more relaxed or resonant state. Schrodinger's time-dependent probability wave dynamics, finds electrons in both states in delocalised orbitals too, I guess.
And that is somehow connected to photon emission, which we know is because of an electron losing momentum by finding a lower level of resonance, but spin is conserved.
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