2008
DOI: 10.1103/physreve.78.041120
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Nonlinear response and fluctuation-dissipation relations

Abstract: A unified derivation of the off equilibrium fluctuation dissipation relations (FDR) is given for Ising and continous spins to arbitrary order, within the framework of Markovian stochastic dynamics. Knowledge of the FDR allows to develop zero field algorithms for the efficient numerical computation of the response functions. Two applications are presented. In the first one, the problem of probing for the existence of a growing cooperative length scale is considered in those cases, like in glassy systems, where … Show more

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Cited by 74 publications
(106 citation statements)
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“…This relation, besides being the basis for the FDT, allows to prove the Green-Kubo relation [54] in the case of homogeneous perturbation (k t = k) of a stationary dynamics. Note that other higher order relations may be derived in the context of the non-linear response theory [61].…”
Section: Response Functionmentioning
confidence: 99%
“…This relation, besides being the basis for the FDT, allows to prove the Green-Kubo relation [54] in the case of homogeneous perturbation (k t = k) of a stationary dynamics. Note that other higher order relations may be derived in the context of the non-linear response theory [61].…”
Section: Response Functionmentioning
confidence: 99%
“…Since C is univocally determined by N D , computing D C simply amounts to determine the average time needed for a faceted domain of N D spins to disappear with zero temperature dynamics, namely D C = −8 τ ND /N . In [35] …”
Section: Appendix IImentioning
confidence: 99%
“…(12)]. We obtain this quantity using the generalization to non-equilibrium states of the fluctuation-dissipation theorem derived in [8,16]. Similarly to the well known equilibrium theorem, this amounts to an analytical relation between χ and certain correlation functions of the unperturbed system, namely the one where the perturbation h is absent.…”
Section: The Ising Model and The Observable Quantitiesmentioning
confidence: 99%