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artwork giving an impression of bitstrings, light and quantum
Credit: I believe this widely-used image is public domain; it was obtained by download in 2015; source unknown

Prof Andrew Steane

Professor of Physics

Research theme

  • Quantum information and computation

Sub department

  • Atomic and Laser Physics

Research groups

  • Ion trap quantum computing
Andrew.Steane@physics.ox.ac.uk
Telephone: 01865 (2)72346,01865 (2)72385
Clarendon Laboratory, room 316.2
  • About
  • Teaching
  • Publications

Quantum computing: Logic gateway.

Nature 422:6930 (2003) 387-388
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Extracting Entropy from Quantum Computers

Annales Henri Poincare 4:SUPPL. 2 (2003)

Abstract:

Quantum error correction (QEC) and fault tolerant quantum computing are introduced. The basic theory of an important class of quantum error correcting codes, the stabilizer codes, is given. Fault tolerance is described very briefly. The whole fault-tolerant correction process can usefully be described in thermodynamic language, as a special form of heat engine which extracts entropy from a collection of qubits without fully measuring their state. QEC is useful both for stabilizing quantum computers and for detecting small many-body correlated effects which would otherwise be swamped by (uncorrelated) noise.
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Fast quantum logic by selective displacement of hot trapped ions

Physical Review A - Atomic, Molecular, and Optical Physics 67:6 (2003) 623181-6231819

Authors:

M Šašura, AM Steane

Abstract:

A report on the fast quantum logic by selective displacement of hot trapped ions was presented in the article. The effect of imperfections in a pair of π pulses which are used to implement a 'spin echo' to cancel correlated errors was also analyzed. It was found that whereas the pushing gate is not as resistant to imperfection as was supposed, it remains a significant candidate for ion trap quantum computing since it does not require ground state cooling.
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Extracting Entropy from Quantum Computers

Chapter in International Conference on Theoretical Physics, Springer Nature (2003) 799-809
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Realistic fast quantum gates with hot trapped ions

(2002)

Authors:

Marek Sasura, Andrew M Steane
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