Entropy Production, Fractals, and Relaxation to Equilibrium
T. Gilbert, J. R. Dorfman, P. Gaspard
Abstract
The theory of entropy production in nonequilibrium, Hamiltonian systems, previously described for steady states using partitions of phase space, is here extended to time dependent systems relaxing to equilibrium. We illustrate the main ideas by using a simple multibaker model, with some nonequilibrium initial state, and we study its progress toward equilibrium. The central results are (i) the entropy production is governed by an underlying, exponentially decaying fractal structure in phase space, (ii) the rate of entropy production is largely independent of the scale of resolution used in the partitions, and (iii) the rate of entropy production is in agreement with the predictions of nonequilibrium thermodynamics.
Create a lesson
Related papers
Ordinal-pattern transition networks as a symbolic substrate for reservoir computing
Max Potratzki, Thomas G. de Jong, Michael Small et al.
A general feedback mechanism unifying stochasticity, long transients, and resilience
Misha Chai, Holger Kantz
Statistical Characterization of Erratic and Chaotic Processes through Their Extrema I. Thermodynamics
Jacob Sonnenschein
Online training of Echo State Networks to predict chaotic dynamical systems
Astero Provata, Markos Syroukis, Johanne Hizanidis
Partial Multistep Prediction of Chaotic Time Series: What Remains Predictable beyond the Horizon of Predictability?
Vasilii A. Gromov, Maksim Lomakin, Aleksei Kudryashov et al.
Stability of inverse cascade in NLS Wave turbulence
Guillaume Costa, Sergey Nazarenko, Giorgio Krstulovic