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Optics Communications

Stimulated emission by hybrid transitions via a heteronuclear molecule

Stoyan Dinev, Georgi Borislavov Hadjichristov, Ivan L. Stefanov

Published Mar 1, 1990• 2 citations
Publisher
DOI
10.1016/0030-4018(90)90531-w

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The formation of heteronuclear molecules in their electronic ground states from a mixture of two ultracold atomic species via a one-photon stimulated emission process is investigated. The presence of an additional external homogeneous and static electric field is shown to severely influence the induced emission process. Using the LiCs molecule as a prototype, we study the corresponding cross section and its dependence on the continuum energy, final rovibrational state, and static electric field strength. The possibility of controlling the single-photon association process via an additional static electric field is demonstrated.
We report increased stimulated emission on some optically pumped laser transitions coupled to suppressed stimulated emission on other transitions when a weak Stokes laser beam and a strong pump laser beam interact with K 2 molecules in the counterintuitive sequence. The Stokes laser photons begin to interact with the K 2 molecules 3 to 4 ns before the pump laser photons can interact with the K 2 molecules. Both the Stokes and the pump laser pulses last for approximately 5 ns and the suppressed and enhanced stimulated emissions coincide with the pump laser pulse. The stimulated emissions described in this paper propagate parallel to the Stokes and pump laser beams.