How a dc Electric Field Drives Mott Insulators out of Equilibrium

Out of equilibrium phenomena are a major issue of modern physics. In particular, correlated materials such as Mott insulators experience fascinating long-lived exotic states under a strong electric field. Yet, the origin of their destabilization by the electric field is not elucidated. Here we prese...

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Autores principales: Diener, P., Janod, E., Corraze, B., Querré, M., Adda, C., Guilloux-Viry, M., Cordier, S., Camjayi, A., Rozenberg, M., Besland, M.P., Cario, L.
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Acceso en línea:http://hdl.handle.net/20.500.12110/paper_00319007_v121_n1_p_Diener
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spelling todo:paper_00319007_v121_n1_p_Diener2023-10-03T14:42:49Z How a dc Electric Field Drives Mott Insulators out of Equilibrium Diener, P. Janod, E. Corraze, B. Querré, M. Adda, C. Guilloux-Viry, M. Cordier, S. Camjayi, A. Rozenberg, M. Besland, M.P. Cario, L. DC motors Electric drives Electric fields High energy physics Hot electrons Correlated materials Electrical breakdown Electrical response Microscopic theory Out of equilibrium Resistive transition Strong electric fields Two Temperature Model Mott insulators Out of equilibrium phenomena are a major issue of modern physics. In particular, correlated materials such as Mott insulators experience fascinating long-lived exotic states under a strong electric field. Yet, the origin of their destabilization by the electric field is not elucidated. Here we present a comprehensive study of the electrical response of canonical Mott insulators GaM4Q8 (M=V, Nb, Ta, Mo; Q=S, Se) in the context of a microscopic theory of electrical breakdown where in-gap states allow for a description in terms of a two-temperature model. Our results show how the nonlinearities and the resistive transition originate from a massive creation of hot electrons under an electric field. These results give new insights for the control of the long-lived states reached under an electric field in these systems which has recently open the way to new functionalities used in neuromorphic applications. © 2018 American Physical Society. JOUR info:eu-repo/semantics/openAccess http://creativecommons.org/licenses/by/2.5/ar http://hdl.handle.net/20.500.12110/paper_00319007_v121_n1_p_Diener
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic DC motors
Electric drives
Electric fields
High energy physics
Hot electrons
Correlated materials
Electrical breakdown
Electrical response
Microscopic theory
Out of equilibrium
Resistive transition
Strong electric fields
Two Temperature Model
Mott insulators
spellingShingle DC motors
Electric drives
Electric fields
High energy physics
Hot electrons
Correlated materials
Electrical breakdown
Electrical response
Microscopic theory
Out of equilibrium
Resistive transition
Strong electric fields
Two Temperature Model
Mott insulators
Diener, P.
Janod, E.
Corraze, B.
Querré, M.
Adda, C.
Guilloux-Viry, M.
Cordier, S.
Camjayi, A.
Rozenberg, M.
Besland, M.P.
Cario, L.
How a dc Electric Field Drives Mott Insulators out of Equilibrium
topic_facet DC motors
Electric drives
Electric fields
High energy physics
Hot electrons
Correlated materials
Electrical breakdown
Electrical response
Microscopic theory
Out of equilibrium
Resistive transition
Strong electric fields
Two Temperature Model
Mott insulators
description Out of equilibrium phenomena are a major issue of modern physics. In particular, correlated materials such as Mott insulators experience fascinating long-lived exotic states under a strong electric field. Yet, the origin of their destabilization by the electric field is not elucidated. Here we present a comprehensive study of the electrical response of canonical Mott insulators GaM4Q8 (M=V, Nb, Ta, Mo; Q=S, Se) in the context of a microscopic theory of electrical breakdown where in-gap states allow for a description in terms of a two-temperature model. Our results show how the nonlinearities and the resistive transition originate from a massive creation of hot electrons under an electric field. These results give new insights for the control of the long-lived states reached under an electric field in these systems which has recently open the way to new functionalities used in neuromorphic applications. © 2018 American Physical Society.
format JOUR
author Diener, P.
Janod, E.
Corraze, B.
Querré, M.
Adda, C.
Guilloux-Viry, M.
Cordier, S.
Camjayi, A.
Rozenberg, M.
Besland, M.P.
Cario, L.
author_facet Diener, P.
Janod, E.
Corraze, B.
Querré, M.
Adda, C.
Guilloux-Viry, M.
Cordier, S.
Camjayi, A.
Rozenberg, M.
Besland, M.P.
Cario, L.
author_sort Diener, P.
title How a dc Electric Field Drives Mott Insulators out of Equilibrium
title_short How a dc Electric Field Drives Mott Insulators out of Equilibrium
title_full How a dc Electric Field Drives Mott Insulators out of Equilibrium
title_fullStr How a dc Electric Field Drives Mott Insulators out of Equilibrium
title_full_unstemmed How a dc Electric Field Drives Mott Insulators out of Equilibrium
title_sort how a dc electric field drives mott insulators out of equilibrium
url http://hdl.handle.net/20.500.12110/paper_00319007_v121_n1_p_Diener
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