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The Oxford 750MHz NMR Spectrometer

The Oxford 750MHz NMR Spectrometer

Prof Jonathan Jones

Professor of Physics

Research theme

  • Quantum information and computation

Sub department

  • Atomic and Laser Physics

Research groups

  • NMR quantum computing
jonathan.jones@physics.ox.ac.uk
  • About
  • Publications

Error tolerance in an NMR implementation of Grover's fixed-point quantum search algorithm - art. no. 032326

PHYSICAL REVIEW A 72:3 (2005) ARTN 032326

Authors:

L Xiao, JA Jones

Generation and interrogation of a pure nuclear spin state by parahydrogen-enhanced NMR spectroscopy: a defined initial state for quantum computation

MAGNETIC RESONANCE IN CHEMISTRY 43:3 (2005) 200-208

Authors:

D Blazina, SB Duckett, TK Halstead, CM Kozak, RJK Taylor, MS Anwar, JA Jones, HA Carteret

Practical implementations of twirl operations - art. no. 032327

PHYSICAL REVIEW A 71:3 (2005) ARTN 032327

Authors:

MS Anwar, L Xiao, AJ Short, JA Jones, D Blazina, SB Duckett, HA Carteret

Practical Implementations of Twirl Operations

(2004)

Authors:

MS Anwar, L Xiao, AJ Short, JA Jones, D Blazina, SB Duckett, HA Carteret

Preparing high purity initial states for nuclear magnetic resonance quantum computing

Physical Review Letters 93:4 (2004) 1-40501

Authors:

MS Anwar, D Blazina, HA Carteret, SB Duckett, TK Halstead, JA Jones, CM Kozak, RJK Taylor

Abstract:

High purity initial states were prepared for nuclear magnetic resonance quantum computing. A chemical reaction involving pure parahydrogen was initiated using a 12 ns laser pulse. The product containes a hydrogen-derived two-spin system with an effective spin-state purity of 0.916. It is observed that the resulting spin state has an entanglement of formation of 0.822 and cannot be described by local hidden variable models.

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