Physical Review Letters · 2011 · 183 citations · 27 references
Natural SciencesPhysicsAtomic PhysicsOpticsPhotonicsLaser CoolingLaser PhysicsLaser TrappingLattice DynamicsMembrane DynamicsMembrane MechanicsAtom-field InteractionsCenter Of Mass MotionDissipationDissipation RateMembrane PhysicsQuantum Optomechanics
Atoms are trapped in an optical lattice created by retro‑reflecting a laser off the membrane, enabling optomechanical coupling between membrane vibrations and atomic center‑of‑mass motion. The hybrid system couples ultracold atoms to a micromechanical membrane, demonstrating mutual back‑action, engineered membrane dissipation, and quantitative agreement with a simple model.
We have realized a hybrid optomechanical system by coupling ultracold atoms to a micromechanical membrane. The atoms are trapped in an optical lattice, which is formed by retro-reflection of a laser beam from the membrane surface. In this setup, the lattice laser light mediates an optomechanical coupling between membrane vibrations and atomic center-of-mass motion. We observe both the effect of the membrane vibrations onto the atoms as well as the backaction of the atomic motion onto the membrane. By coupling the membrane to laser-cooled atoms, we engineer the dissipation rate of the membrane. Our observations agree quantitatively with a simple model.
27
Cavity Optomechanics: Back-Action at the Mesoscale
Tobias J. Kippenberg, Kerry J. Vahala · Science · 2008 · 1.9K citations · Full text
Ultracold quantum gases in optical lattices
Immanuel Bloch · Nature Physics · 2005 · 1.5K citations
Florian Marquardt, S. M. Girvin · Physics · 2009 · 730 citations · Full text
Engineering, Physics, Optics +16
Observation of quantum-measurement backaction with an ultracold atomic gas
Kater Murch, Kevin L. Moore, Subhadeep Gupta et al. · Nature Physics · 2008 · 439 citations
Atomic Micromanipulation with Magnetic Surface Traps
Jakob Reichel, W. Hänsel, T. W. Hänsch · Physical Review Letters · 1999 · 404 citations