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Optics Communications

Resonance fluorescence in a bichromatic field and photon correlation between spectral lines

G. Yu. Kryuchkov

Published May 1, 1985• 31 citations
Publisher
DOI
10.1016/0030-4018(85)90126-9

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We study the correlation between photons in the fluorescence light scattered from an atom driven by an intense bichromatic field having one strong and one weak component, with or without the use of frequency filters in front of the photodetectors. Depending on the filters used and on the spectral components selected, we predict signals corresponding either to bunching or to antibunching, and modulations at the driving field Rabi frequencies as well as at their sum and difference. In contrast with the case of monochromatic driving, the antibunching can occur between photons emitted into different (as well as the same) lines of the fluorescence spectrum.
The polarization-dependent resonance-fluorescence spectra of a bichromatically driven four-level atom are studied. It is shown that very narrow spectral lines can occur in the incoherent part of the spectra for polarization directions that are different from that of the driving field. Squeezing properties of the fluorescent light are also investigated. The degree of squeezing depends on the polarization direction and reaches a maximum of remarkably 5656%.56