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A scaling law describes the spin-glass response in theory, experiments and simulations

ORAL

Abstract

The dynamical arrest found upon cooling glass formers to their glass temperature Tg is caused by the unbounded expansion of cooperative regions as Tg is approached or as the system is left to age below Tg. It is extremely difficult to measure quantities that are accessible both to experiment and simulations, which has led to seemingly irreconcilable approaches.
We solved this dilemma in a framework that harmonizes experiments with theory. We conduct a parallel study of spin-glass dynamics both in an experiment in a CuMn single crystal and in simulations of the Ising-Edwards-Anderson (IEA) model carried out on the Janus II custom-built supercomputer. We introduced a scaling law that describes the system's response over its entire natural range of variation.

Presenters

  • Ilaria Paga

    Sapienza Università di Roma, Univ of Rome La Sapienza

Authors

  • Ilaria Paga

    Sapienza Università di Roma, Univ of Rome La Sapienza

  • Qiang Zhai

    University of Texas at Austin, Texas materials institute, University of Texas at Austin

  • Marco Baity-Jesi

    Eawag

  • Enrico Calore

    University of Ferrara, INFN Ferrara

  • Jose Miguel Gil-Narvion

    University of Zaragoza, Universidad de Saragoza, Instituto de Biocomputacion y fisica de sistemas complejos

  • Antonio Gordillo-Guerrero

    University of Extremadura, Universidad de Saragoza, Instituto de Biocomputacion y fisica de sistemas complejos

  • David Iñiguez

    University of Zaragoza, Universidad de Saragoza, Instituto de Biocomputacion y fisica de sistemas complejos

  • Andrea Maiorano

    INFN, Univ of Rome La Sapienza

  • Enzo Marinari

    Sapienza Università di Roma, Univ of Rome La Sapienza

  • Victor Martin-Mayor

    Universidad Complutense de Madrid, Universitada de Madrid Complutense, Universidad de Fisica teorica, Física Teórica, Univ Complutense

  • Javier Moreno-Gordo

    University of Zaragoza, Universidad de Saragoza, Instituto de Biocomputacion y fisica de sistemas complejos

  • Antonio Muñoz-Sudupe

    Universidad Complutense de Madrid, Universitada de Madrid Complutense, Universidad de Fisica teorica

  • Denis Navarro

    University of Zaragoza, Departamento de Ingenierià, Electrònica y Comunicaciones, Zaragoza

  • Raymond Orbach

    University of Texas at Austin, Texas Materials Institute, The University of Texas at Austin, Texas materials institute, University of Texas at Austin

  • Giorgio Parisi

    Sapienza Università di Roma, Univ of Rome La Sapienza

  • Sergio Perez-Gaviro

    University of Zaragoza, Universidad de Saragoza, Instituto de Biocomputacion y fisica de sistemas complejos

  • Federico Ricci-Tersenghi

    Sapienza Università di Roma, Univ of Rome La Sapienza

  • Juan Jesús Ruiz-Lorenzo

    University of Extremadura, Departiemnto de fisica, Universidad de Extramadura

  • Sebastiano Fabio Schifano

    University of Ferrara, INFN Ferrara

  • Beatriz Seoane

    Universidad Complutense de Madrid, Universitada de Madrid Complutense, Universidad de Fisica teorica

  • Alfonso Tarancon

    University of Zaragoza, Universidad de Saragoza, Instituto de Biocomputacion y fisica de sistemas complejos

  • Raffaele Tripiccione

    University of Ferrara, INFN Ferrara

  • David Yllanes

    Chan Zuckerberg Biohub, Universidad de Saragoza, Instituto de Biocomputacion y fisica de sistemas complejos, Theory, Chan Zuckerberg Biohub

  • Andrés Cruz

    University of Zaragoza, Universidad de Saragoza, Instituto de Biocomputacion y fisica de sistemas complejos

  • Luis Antonio Fernández

    Universidad Complutense de Madrid, Universitada de Madrid Complutense, Universidad de Fisica teorica