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Bulletin of the American Physical Society

Rapid Molecular Transport in Pulsed Optical Lattices

P. F. Barker, R. C. Fulton, Alexis I. Bishop, Mikhail N. Shneider

Published May 18, 2005• 0 citations
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Interaction of an optical lattice created by two counter-propagating laser elds with gas molecules is studied numerically with the direct simulation Monte Carlo method. Molecular trapping by an optical lattice potential well in a collisional regime is demonstrated. Energy and momentum deposition from lattice to gas is examined, and the ability of a lattice to increase gas temperature to thousands of K in a single pulse is shown. The formation and development of an acoustic signal created by the lattice is investigated.
We propose a new scheme to realize a multistage optical Stark deceleration for a supersonic molecular beam using a time-varying red-detuned quasi-cw optical lattice with a length of up to 10 mm. We analyze the motion of the slowed molecules inside the optical decelerator, and study the dependences of the velocity of the slowed molecular packet on the synchronous phase angle and the number of the deceleration stages (i.e., the number of the optical-lattice cells) by using Monte-Carlo method. Our study shows that the proposed optical Stark decelerator cannot only efficiently slow a pulsed supersonic beam from 230 m/s to zero (standstill), but also obtain an ultracold molecular packet with a temperature of sub-mK due to bunching effect in the multistage optical Stark decelerator, which can be trapped in the optical lattice by rapidly turning off the modulation signal of the lattice. Also, we compare the decelerated results of our multistage optical Stark decelerator with a single-stage optical one, and find that our scheme cannot only obtain a colder molecular packet under the same molecular-beam parameters and deceleration conditions, but also be directly used to trap the slowed cold molecules after the deceleration, while don't need to use another molecular trap.