Laser cooling all the way down to Fermi superfluid
Jacek Dziarmaga, Maciej Lewenstein
Abstract
Numerical simulations for realistic experimental parameters demonstrate that laser cooling on the attractive side of the Feshbach resonance can drive fermions much below the superfluid transition. For the assumed set of experimental parameters the transition takes place at 0.35TF, and laser cooling can drive the system down to at least 0.085TF in a time of a few seconds. Superfluid growth is self-consistently included in simulations.
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