Spatially selective Bragg scattering: a signature for vortices in Bose-Einstein condensates
arXiv:cond-mat/0101205 · doi:10.1103/PhysRevLett.86.3930
Abstract
We demonstrate that Bragg scattering from a condensate can be sensitive to the spatial phase distribution of the initial state. This allows preferential scattering from a selected spatial region, and provides a robust signature for a vortex state. We develop an analytic model which accurately describes this phenomenon and we give quantitative predictions for current experimental conditions.
5 pages, 3 figures
Cited by in corpus (19)
- Atom-wave diffraction between the Raman-Nath and the Bragg regime: Effective Rabi frequency, losses, and phase shifts
- Momentum transferred to a trapped Bose-Einstein condensate by stimulated light scattering
- Observation of vortex-antivortex pairing in decaying 2D turbulence of a superfluid gas
- Roton spectroscopy in a harmonically trapped dipolar Bose-Einstein condensate
- Theory of coherent Bragg spectroscopy of a trapped Bose-Einstein condensate
- Microscopic Structure of a Vortex Line in a Superfluid Fermi Gas
- Bragg Spectroscopy of Vortex Lattices in Bose-Einstein condensates
- Bogoliubov spectrum and Bragg spectroscopy of elongated Bose-Einstein condensates
- Cold atoms in rotating optical lattice with nearest neighbour interaction
- Bragg spectroscopy and Ramsey interferometry with an ultracold Fermi gas
- Spin-dependent Bragg spectroscopy of a spinor Bose gas
- Bragg spectroscopy with an accelerating Bose-Einstein condensate
- Calorimetry of Bose-Einstein condensates
- Dynamics of rotating Bose-Einstein condensates probed by Bragg scattering
- In situ Ramsey Interferometry and Diffraction Echo with an Ultracold Fermi Gas
- Bogoliubov spectrum and the dynamic structure factor in a quasi-two-dimensional spin-orbit coupled BEC
- Sensing atomic superfluid rotation beyond the standard quantum limit
- Bragg spectroscopy of an accelerating condensate with solitary-wave behaviour
- Characterizing Real-space Topology in Rice-Mele Model by Thermodynamics