Dynamical Symmetry Breaking and Phase Transitions in Driven Diffusive Systems

Abstract : We study the probability distribution of a current flowing through a diffusive system connected to a pair of reservoirs at its two ends. Sufficient conditions for the occurrence of a host of possible phase transitions both in and out of equilibrium are derived. These transitions manifest themselves as singularities in the large deviation function, resulting in enhanced current fluctuations. Microscopic models which implement each of the scenarios are presented, with possible experimental realizations. Depending on the model, the singularity is associated either with a particle-hole symmetry breaking, which leads to a continuous transition, or in the absence of the symmetry with a first-order phase transition. An exact Landau theory which captures the different singular behaviors is derived.
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Article dans une revue
Physical Review Letters, American Physical Society, 2017, 118, pp.030604. 〈https://journals.aps.org/prl/abstract/10.1103/PhysRevLett.118.030604〉
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Contributeur : Serena Benassù <>
Soumis le : jeudi 16 mars 2017 - 11:25:14
Dernière modification le : jeudi 27 avril 2017 - 09:47:15

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  • HAL Id : hal-01490993, version 1

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Yongjoo Baek, Yariv Kafri, Vivien Lecomte. Dynamical Symmetry Breaking and Phase Transitions in Driven Diffusive Systems. Physical Review Letters, American Physical Society, 2017, 118, pp.030604. 〈https://journals.aps.org/prl/abstract/10.1103/PhysRevLett.118.030604〉. 〈hal-01490993〉

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