Physica A: Statistical Mechanics and its Applications
A local fluctuation theorem
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Role of ergodicity in the transient Fluctuation Relation and a new relation for a dissipative non-chaotic map
2016, Chaos, Solitons and FractalsCitation Excerpt :Other complex dynamics such as those of turbulent fluids, as long as they are analysed e.g. as discrete sets of modes [9,36], remain within the standard non-extended framework. One may consider more general situations, like those e.g. of coupled maps, for which local FRs can be envisaged [31,37], but not much has been done in that direction. Although extended systems are of great interest in nonequilibrium physics, a systematic study of their FRs from the deterministic point of view is limited so far.
Fluctuation-dissipation: Response theory in statistical physics
2008, Physics ReportsCourse 13 Elements of nonequilibrium statistical mechanics
2006, Les Houches Summer School ProceedingsLyapunov spectra and nonequilibrium ensembles equivalence in 2D fluid mechanics
2004, Physica D: Nonlinear PhenomenaCoexistence of chaotic and non-chaotic states in the two-dimensional Gauss-Navier-Stokes dynamics
2004, Physica D: Nonlinear PhenomenaCitation Excerpt :This property is not evidenced by the NS equation, which predicts that the dissipated power is constant in time [2,4,5].1 At the same time, a local fluctuation theorem can be derived for the same systems for which the Gallavotti–Cohen theorem holds (see, e.g. Ref. [8]). Therefore, one may think that this local theorem holds for the GNS dynamics and, by virtue of the Equivalence Conjecture, that it must hold also for the NS dynamics.
Deterministic thermostats, theories of nonequilibrium systems and parallels with the ergodic condition
2010, Journal of Physics A: Mathematical and Theoretical