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Quantum Electronics and Laser Science Conference

A coherent adiabatic acceleration of atoms by light

Овчинников

Published Jan 1, 2000• 0 citations
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A coherent adiabatic acceleration of atoms by light

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Summary form only given. A coherent acceleration of atoms can be realized by an adiabatic sequence of Bragg reflections from an accelerating standing light wave. The arrangement of laser beams for such an acceleration is shown. The atom is illuminated by two counterpropagating laser beams. The fixed frequency of the pump laser /spl omega//sub 1/ is far detuned (/spl Delta/=/spl omega//sub 1/-/spl omega//sub 0/) from some allowed optical atomic transition having a frequency /spl omega//sub 0/. The frequency of the Stokes laser is linearly swept in time according to the law /spl omega//sub 2/(t)=/spl omega//sub 1/-/spl mu/t.

Quantum Electronics and Laser Science Conference•May 12, 2000•0 citations

Atoms in a Classical Light Field

WORLD SCIENTIFIC eBooks•Jan 1, 2009•0 citations

New experiments with BEC in an optical lattice

Maximilian Theis, Gregor Thalhammer, Klaus Winkler +2 more

Summary form only given. Our new Rb BEC apparatus features a magnetic transport scheme, good optical access and maximum flexibility. This allows for new experiments which investigate the interaction of a BEC in various environments. Our first experiments will study BEC in a 1D optical lattice. We construct and characterize a coherent accelerator for a condensate which consists of a far detuned standing light wave. We load the BEC adiabatically into the lattice ground state and accelerate the lattice by frequency chirping the lattice laser beams. In simple words the accelerated lattice drags the condensate with it. Coherent acceleration to velocities corresponding to 10 photon recoils has been demonstrated recently in a similar setup. We test whether this scheme can be extended to transport BEC over distances of tens of centimeters. In order to represent a valuable new tool the accelerator has to be able to coherently transfer about 1000 photon recoils (recoil velocity of /sup 87/Rb = 5.85 mm/s) to the atoms in less than 100 ms. We test the efficiency of the transport and study atomic loss, heating and phase corrugation of the condensate wavefunction. In the near future we will extend our work to 3D optical lattices where we will use a Mott insulator state to study molecule formation out of atom number states.

European Quantum Electronics Conference (EQEC)•Jan 1, 2003•0 citations

Atoms in a Classical Light Field

WORLD SCIENTIFIC eBooks•Feb 1, 2004•0 citations
Summary form only given. A coherent acceleration of atoms can be realized by an adiabatic sequence of Bragg reflections from an accelerating standing light wave. The arrangement of laser beams for such an acceleration is shown. The atom is illuminated by two counterpropagating laser beams. The fixed frequency of the pump laser /spl omega//sub 1/ is far detuned (/spl Delta/=/spl omega//sub 1/-/spl omega//sub 0/) from some allowed optical atomic transition having a frequency /spl omega//sub 0/. The frequency of the Stokes laser is linearly swept in time according to the law /spl omega//sub 2/(t)=/spl omega//sub 1/-/spl mu/t.
Summary form only given. Our new Rb BEC apparatus features a magnetic transport scheme, good optical access and maximum flexibility. This allows for new experiments which investigate the interaction of a BEC in various environments. Our first experiments will study BEC in a 1D optical lattice. We construct and characterize a coherent accelerator for a condensate which consists of a far detuned standing light wave. We load the BEC adiabatically into the lattice ground state and accelerate the lattice by frequency chirping the lattice laser beams. In simple words the accelerated lattice drags the condensate with it. Coherent acceleration to velocities corresponding to 10 photon recoils has been demonstrated recently in a similar setup. We test whether this scheme can be extended to transport BEC over distances of tens of centimeters. In order to represent a valuable new tool the accelerator has to be able to coherently transfer about 1000 photon recoils (recoil velocity of /sup 87/Rb = 5.85 mm/s) to the atoms in less than 100 ms. We test the efficiency of the transport and study atomic loss, heating and phase corrugation of the condensate wavefunction. In the near future we will extend our work to 3D optical lattices where we will use a Mott insulator state to study molecule formation out of atom number states.