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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

Electrical Conductivity in Solid

Chapter in Solid State Quantum Information — An Advanced Textbook, World Scientific Publishing (2018) 15-48

Authors:

Vlatko Vedral, Wonmin Son
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Introduction

Chapter in Solid State Quantum Information — An Advanced Textbook, World Scientific Publishing (2018) 1-13

Authors:

Vlatko Vedral, Wonmin Son
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Theory of Magnetism and Many-Body Quantum Mechanics

Chapter in Solid State Quantum Information — An Advanced Textbook, World Scientific Publishing (2018) 49-110

Authors:

Vlatko Vedral, Wonmin Son
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Maximum one-shot dissipated work from Rényi divergences.

Physical review. E 97:5-1 (2018) 052135-052135

Authors:

Nicole Yunger Halpern, Andrew JP Garner, Oscar CO Dahlsten, Vlatko Vedral

Abstract:

Thermodynamics describes large-scale, slowly evolving systems. Two modern approaches generalize thermodynamics: fluctuation theorems, which concern finite-time nonequilibrium processes, and one-shot statistical mechanics, which concerns small scales and finite numbers of trials. Combining these approaches, we calculate a one-shot analog of the average dissipated work defined in fluctuation contexts: the cost of performing a protocol in finite time instead of quasistatically. The average dissipated work has been shown to be proportional to a relative entropy between phase-space densities, to a relative entropy between quantum states, and to a relative entropy between probability distributions over possible values of work. We derive one-shot analogs of all three equations, demonstrating that the order-infinity Rényi divergence is proportional to the maximum possible dissipated work in each case. These one-shot analogs of fluctuation-theorem results contribute to the unification of these two toolkits for small-scale, nonequilibrium statistical physics.
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Introductory Quantum Physics and Relativity

World Scientific Publishing, 2018

Authors:

Jacob Dunningham, Vlatko Vedral
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