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Atomic and Laser Physics
Credit: Jack Hobhouse

Dr Axel Kuhn

Associate Professor

Research theme

  • Quantum information and computation
  • Quantum optics & ultra-cold matter

Sub department

  • Atomic and Laser Physics

Research groups

  • Atom-photon connection
Axel.Kuhn@physics.ox.ac.uk
  • About
  • Publications

Cavity-based single-photon sources

CONTEMPORARY PHYSICS 51:4 (2010) 289-313

Authors:

Axel Kuhn, Daniel Ljunggren
More details from the publisher
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Single photons made-to-measure

NEW JOURNAL OF PHYSICS 12 (2010) ARTN 063024

Authors:

Genko S Vasilev, Daniel Ljunggren, Axel Kuhn
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Coherent imaging of extended objects

OPTICS COMMUNICATIONS 282:4 (2009) 465-472

Authors:

E Brainis, C Muldoon, L Brandt, A Kuhn
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Optimum pulse shapes for stimulated Raman adiabatic passage

PHYSICAL REVIEW A 80:1 (2009) ARTN 013417

Authors:

GS Vasilev, A Kuhn, NV Vitanov
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Single-atom single-photon quantum interface.

Science 317:5837 (2007) 488-490

Authors:

Tatjana Wilk, Simon C Webster, Axel Kuhn, Gerhard Rempe

Abstract:

A major challenge for a scalable quantum computing architecture is the faithful transfer of information from one node to another. We report on the realization of an atom-photon quantum interface based on an optical cavity, using it to entangle a single atom with a single photon and then to map the quantum state of the atom onto a second single photon. The latter step disentangles the atom from the light and produces an entangled photon pair. Our scheme is intrinsically deterministic and establishes the basic element required to realize a distributed quantum network with individual atoms at rest as quantum memories and single flying photons as quantum messengers.
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