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Bulletin of the American Physical Society

Modelling Spatial Modes of Squeezed Vacuum - When it Comes to Squeezing, Plane Waves Are Just Too Plain

R. Nicholas Lanning, Zhihao Xiao, Mi Zhang, Irina V. Novikova, Eugeniy E. Mikhailov, Jonathan P. Dowling

Published Mar 5, 2015• 0 citations
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We investigate the interaction of an atom with a multichannel squeezed vacuum. It turns out that the light coming out in a particular channel can have anomalous spectral properties, among them being an asymmetry of the spectrum, an absence of the central peak, as well as central hole burning for particular parameters. As an example plane-wave squeezing is considered. In this case the above phenomena can occur for the light spectra in certain directions. In the total spectrum these phenomena are washed out.
A spatially varying field mode is included in calculating the squeezing effect for a system of two-level atoms in the good-cavity limit. Two examples of a Gaussian mode field in a ring cavity and a plane-wave field in a standing-wave interferometer are used to demonstrate the quite general method. In qualitative terms, the squeezing predicted for plane waves is preserved. However, for a given value of atomic cooperativity parameter C, there is a degradation in squeezing because of the spatially varying field structure.