Raman superradiance and spin lattice of ultracold atoms in optical cavities

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Abstract

We investigate the synthesis of a hyperfine spin lattice in an atomic Bose-Einstein condensate, with two hyperfine spin components, inside a one-dimensional high-finesse optical cavity, using off-resonant superradiant Raman scattering. Spatio-temporal evolution of the relative population of the hyperfine spin modes is examined numerically by solving the coupled cavity-condensate mean-field equations in the dispersive regime. We find, analytically and numerically, that beyond a certain threshold of the transverse laser pump, Raman superradiance and self-organization of the hyperfine spin components occur simultaneously and as a result a magnetic lattice is formed. The effects of an extra laser pump parallel to the cavity axis and the time dependence of the pump strength on the synthesis of a sharper lattice are also addressed. © IOP Publishing and Deutsche Physikalische Gesellschaft.

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Safaei, S., Müstecaplioǧlu, Ö. E., & Tanatar, B. (2013). Raman superradiance and spin lattice of ultracold atoms in optical cavities. New Journal of Physics, 15. https://doi.org/10.1088/1367-2630/15/8/083037

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