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Atomic and Laser Physics
Credit: Jack Hobhouse

Prof Vlatko Vedral FInstP

Professor of Quantum Information Science

Sub department

  • Atomic and Laser Physics

Research groups

  • Frontiers of quantum physics
vlatko.vedral@physics.ox.ac.uk
Telephone: 01865 (2)72389
Clarendon Laboratory, room 241.8
  • About
  • Publications

Quantum coherent contributions in biological electron transfer

(2011)

Authors:

Ross Dorner, John Goold, Libby Heaney, Tristan Farrow, Philippa G Roberts, Judy Hirst, Vlatko Vedral
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Unification of quantum and classical correlations and quantumness measures

AIP Conference Proceedings 1384 (2011) 69-75

Authors:

K Modi, V Vedral

Abstract:

We give a pedagogical introduction to quantum discord and discuss the problem of separation of total correlations in a given quantum state into entanglement, dissonance, and classical correlations using the concept of relative entropy. This allows us to put all correlations on an equal footing. Entanglement and dissonance jointly belong to what is known as quantum discord. Our methods are completely applicable for multipartite systems of arbitrary dimensions. We finally show, using relative entropy, how different notions of quantum correlations are related to each other. This gives a single theory that incorporates all correlations, quantum and classical, and different methods of quantifying them. © 2011 American Institute of Physics.
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Quantum Physics: A Fundamental Approach to Modern Physics, by John S. Townsend

Contemporary Physics Taylor & Francis 52:6 (2011) 614-615
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Information-theoretic bound on the energy cost of stochastic simulation

(2011)

Authors:

Karoline Wiesner, Mile Gu, Elisabeth Rieper, Vlatko Vedral
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Behavior of entanglement and Cooper pairs under relativistic boosts

Physical Review A - Atomic, Molecular, and Optical Physics 84:4 (2011)

Authors:

V Palge, V Vedral, JA Dunningham

Abstract:

Recent work has shown how single-particle entangled states are transformed when boosted in relativistic frames for certain restricted geometries. Here we extend that work to consider completely general inertial boosts. We then apply our single-particle results to multiparticle entanglements by focusing on Cooper pairs of electrons. We show that a standard Cooper pair state consisting of a spin-singlet acquires spin-triplet components in a relativistically boosted inertial frame, regardless of the geometry. We also show that, if we start with a spin-triplet pair, two out of the three triplet states acquire a singlet component, the size of which depends on the geometry. This transformation between the different singlet and triplet superconducting pairs may lead to a better understanding of unconventional superconductivity. © 2011 American Physical Society.
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