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Quantum Electronics and Laser Science Conference

High resolution spectroscopy ef Bydberg atoms in a magnetic field

Michael M. Kash, George R. Welch, Chun-ho Iu, Long Hsu, Daniel Kleppner

Published Apr 24, 1989• 0 citations
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We have studied the high resolution spectroscopy of Rydberg state 87Rb in a ladder-type electromagnetically induced transparency (EIT) configuration at room temperature. A highly excited Rydberg atom is nearly degenerate for its hyperfine states but this degeneracy will be broken by an applied magnetic field, resulting in a spectral splitting in a coupled basis. In our ladder-type EIT experiment, we observed the high resolution spectral splitting of Rydberg atoms in an external magnetic field with two different optical polarization combinations of σ+ − σ+ and σ+ − σ− for probe and coupling laser beams. A strict theory has been set up to explain the observed spectral line position and intensity accurately considering the Zeeman effects of three EIT-concerned states all in the coupled basis. Specially for the Rydberg state, we can transform its wavefunction back into the decoupled basis for the spectral line assignment.
The behavior of Rydberg atoms in a strong magnetic field demonstrates many aspects of modern atomic physics. While the basic goal is the accurate prediction of energy levels and wave functions, the results may be interpreted in several ways. These Include the manifestation of dynamic symmetry and symmetry breaking in the distribution and anticrossing of energy levels. The high resolution afforded by cw dye lasers allows the stringent testing of theory and is also desirable in the study of energy field regimes not presently accessible to theory.