Probing an excited-state atomic transition using hyperfine quantum beat spectroscopy
arXiv:1408.3506 · doi:10.1103/PhysRevA.90.033424
Abstract
We describe a method to observe the dynamics of an excited-state transition in a room temperature atomic vapor using hyperfine quantum beats. Our experiment using cesium atoms consists of a pulsed excitation of the D2 transition, and continuous-wave driving of an excited-state transition from the 6P state to the 7S state. We observe quantum beats in the fluorescence from the 6P state which are modified by the driving of the excited-state transition. The Fourier spectrum of the beat signal yields evidence of Autler-Townes splitting of the 6P, F = 5 hyperfine level and Rabi oscillations on the excited-state transition. A detailed model provides qualitative agreement with the data, giving insight to the physical processes involved.
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- Single-photon interference due to motion in an atomic collective excitation
- Observation of vacuum-induced collective quantum beats
- Dressed-state electromagnetically induced transparency for light storage in uniform phase spin-waves