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Optics Communications

A comparison of bichromatic beam splitters for atoms

M. K. Olsen, Seok Jin Choi, Howard M. Wiseman, S. M. Tan, Daniel F. Walls

Published Feb 1, 1998• 3 citations
Publisher
DOI
10.1016/s0030-4018(97)00537-3

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We investigate schemes for the clean splitting of beams of three-level atoms using two standing-wave laser fields within an optical cavity. The proposed beam splitter is shown to work for atoms in the \ensuremath{\Lambda} ladder, and ssV configurations. For appropriate values of Rabi frequencies and detunings, we obtain a triangular type of potential for the atomic states of interest. As well as modeling the coherent evolution of the systems, we have used quantum Monte Carlo wave-function methods to model the effects of spontaneous emission on the resulting diffraction pattern, finding significant differences between the three configurations. We also investigate the limits of the Raman-Nath approximation for our systems, using the symmetric split-operator technique to include the effects of the kinetic term in the Hamiltonian. We also present the results of calculations in which the split output beams are recombined, demonstrating the expected interference for differently prepared input beams. In comparison with two-level beam splitters using a single standing wave, we obtain a superior splitting, while, in comparison with magneto-optical beam splitters, our system possesses the worthwhile practical advantages of experimental simplicity.
The recently proposed two-level atom bichromatic beam splitter has been shown theoretically to give exceptionally clean beam splitting in momentum space. In this paper, we investigate the first-order coherence property of this beam splitter, which is an important test of its usefulness in interferometric applications. We find that the beam splitter exhibits maximum fringe visibility of 0.3, which may be increased significantly through conditioning on certain variables. We then propose a type of atom interferometer based on this system, which has many desirable properties when compared with existing versions.