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Atomic and Laser Physics
Credit: Jack Hobhouse

Professor Christopher Foot

Professor of Physics

Research theme

  • Quantum optics & ultra-cold matter

Sub department

  • Atomic and Laser Physics

Research groups

  • Ultracold quantum matter
  • AION/Magis
Christopher.Foot@physics.ox.ac.uk
Telephone: 01865 (2)72256
Clarendon Laboratory, room 161
  • About
  • Publications

Hubbard model for atomic impurities bound by the vortex lattice of a rotating BEC

(2015)

Authors:

TH Johnson, Y Yuan, W Bao, SR Clark, C Foot, D Jaksch
More details from the publisher

Design of a millimetre-scale magnetic surface trap for cold atoms

Journal of Physics B Atomic Molecular and Optical Physics IOP Publishing 47:7 (2014) 075302

Authors:

D Trypogeorgos, SD Albright, D Beesley, CJ Foot
More details from the publisher

Design of a millimetre-scale magnetic surface trap for cold atoms

(2013)

Authors:

Dimitris Trypogeorgos, Stephen D Albright, Daniel Beesley, Christopher J Foot
More details from the publisher

Co-trapping different species in ion traps using multiple radio-frequencies

(2013)

Authors:

Dimitris Trypogeorgos, Christopher Foot
More details from the publisher

Precise shaping of laser light by an acousto-optic deflector.

Optics express 21:21 (2013) 24837-24846

Authors:

Dimitris Trypogeorgos, Tiffany Harte, Alexis Bonnin, Christopher Foot

Abstract:

We present a laser beam shaping method using acousto-optic deflection of light and discuss its application to dipole trapping of ultracold atoms. By driving the acousto-optic deflector with multiple frequencies, we generate an array of overlapping diffraction-limited beams that combine to form an arbitrary-shaped smooth and continuous trapping potential. Confinement of atoms in a flat-bottomed potential formed by a laser beam with uniform intensity over its central region confers numerous advantages over the harmonic confinement intrinsic to Gaussian beam dipole traps and many other trapping schemes. We demonstrate the versatility of this beam shaping method by generating potentials with large flat-topped regions as well as intensity patterns that compensate for residual external potentials to create a uniform background to which the trapping potential of experimental interest can be added.
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