Results 281 to 290 of about 117,799 (311)
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Microfluidic sorting in an optical lattice

Nature, 2003
The response of a microscopic dielectric object to an applied light field can profoundly affect its kinetic motion. A classic example of this is an optical trap, which can hold a particle in a tightly focused light beam. Optical fields can also be used to arrange, guide or deflect particles in appropriate light-field geometries.
MacDonald, M. P.   +2 more
openaire   +3 more sources

Purely optical dark lattice

Optics Letters, 1996
We study a new type of optical lattice in which the localized atoms experience a much reduced optical pumping and fluorescence rate. An optical standing wave is tuned to the blue of the F = 2 ? F = 2 transition of the (87)Rb D(2) line and induces periodic optical potentials by coupling the F = 2 ground state to both the F = 2 and F = 3 excited states ...
T, Esslinger   +5 more
openaire   +2 more sources

Optical coherence gratings and lattices

Optics Letters, 2014
We introduce a class of partially coherent temporal/spatial sources, optical coherence gratings/lattices that have a Gaussian intensity profile and statistically stationary/homogeneous, periodic temporal/spatial coherence properties. We show that temporal coherence gratings generate partially coherent pulses with periodic spectra, whereas spatial ...
Liyuan, Ma, Sergey A, Ponomarenko
openaire   +2 more sources

Engineering novel optical lattices

Reports on Progress in Physics, 2013
Optical lattices have developed into a widely used and highly recognized tool to study many-body quantum physics with special relevance for solid state type systems. One of the most prominent reasons for this success is the high degree of tunability in the experimental setups.
Patrick, Windpassinger, Klaus, Sengstock
openaire   +2 more sources

Optical lattices

Nature, 2008
Markus Greiner, Simon Fölling
  +4 more sources

Polarization singularities in optical lattices

Optics Letters, 2004
Polarization singularities are shown to be unavoidable features of three-dimensional optical lattices. These singularities take the form of lines of circular polarization, C lines, and lines of linear polarization, L lines. The polarization figures surrounding a C line (L line) rotate about the line with winding number +/-1/2 (+/-1).
openaire   +2 more sources

Evaluation of Lattice Light Shift at Low 10−19 Uncertainty for a Shallow Lattice Sr Optical Clock

Physical Review Letters, 2023
Kyungtae Kim   +2 more
exaly  

Floquet Engineering Hz-Level Rabi Spectra in Shallow Optical Lattice Clock

Physical Review Letters, 2022
Xiaotong Lu, Tao Wang, Xue-Feng Zhang
exaly  

Optical lattices

Physics World, 1998
openaire   +1 more source

Transportable Strontium Optical Lattice Clocks Operated Outside Laboratory at the Level of 10 −18 Uncertainty

Advanced Quantum Technologies, 2021
Noriaki Ohmae   +2 more
exaly  

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