Preprint Article Version 1 This version is not peer-reviewed

Quantifying Chaos by Various Computational Methods. Part 1: Simple Systems

Version 1 : Received: 17 January 2018 / Approved: 17 January 2018 / Online: 17 January 2018 (11:38:53 CET)

How to cite: Awrejcewicz, J.; Krysko, A.; Erofeev, N.; Dobriyan, V.; Barulina, M.; Krysko, V. Quantifying Chaos by Various Computational Methods. Part 1: Simple Systems. Preprints 2018, 2018010154 (doi: 10.20944/preprints201801.0154.v1). Awrejcewicz, J.; Krysko, A.; Erofeev, N.; Dobriyan, V.; Barulina, M.; Krysko, V. Quantifying Chaos by Various Computational Methods. Part 1: Simple Systems. Preprints 2018, 2018010154 (doi: 10.20944/preprints201801.0154.v1).

Abstract

The first part of the paper was aimed at analyzing the given nonlinear problem by different methods of computation of the Lyapunov exponents (Wolf method [1], Rosenstein method [2], Kantz method [3], method based on the modification of a neural network [4, 5], and the synchronization method [6, 7]) for the classical problems governed by difference and differential equations (Hénon map [8], hyper-chaotic Hénon map [9], logistic map [10], Rössler attractor [11], Lorenz attractor [12]) and with the use of both Fourier spectra and Gauss wavelets [13]. It was shown that a modification of the neural network method [4, 5] makes it possible to compute a spectrum of Lyapunov exponents, and then to detect a transition of the system regular dynamics into chaos, hyper-chaos, hyper hyper-chaos and deep chaos [14-16]. Different algorithms for computation of Lyapunov exponents were validated by comparison with the known dynamical systems spectra of the Lyapunov exponents. The carried out analysis helps comparatively estimate the employed methods in order to choose the most suitable/optimal one to study different kinds of dynamical systems and different classes of problems in both this and the next paper parts.

Subject Areas

Lyapunov exponents; Wolf method; Rosenstein method, Kantz method; neural network method; method of synchronization; Benettin method; Fourier spectrum; Gauss wavelets.

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