Input-Output Mechanism of the Discrete Chaos Extension

Date

2014-08-09

Author

Akhmet, Marat

Metadata

Show full item record

This work is licensed under a Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License.

Item Usage Stats

26
views

0
downloads

In this chapter the extension of chaos in difference equations is discussed. The theoretical results are based on chaos in the sense of Devaney and period-doubling cascades. The existence of homoclinic and heteroclinic orbits is rigorously proved, and a theoretical control technique for the extended chaos is proposed. The results are supported with the aid of simulations. Arbitrarily high-dimensional chaotic discrete-time dynamical systems can be designed by means of the presented technique. A discrete gonorrhea model is utilized to generate chaotic behavior in population dynamics.

Subject Keywords

Li-Yorke chaos, Dynamical synthesis, Systems, Horseshoes, Maps

URI

https://hdl.handle.net/11511/32865

DOI

https://doi.org/10.1007/978-3-319-28764-5_7

Collections

Department of Mathematics, Conference / Seminar

Suggestions

OpenMETU
Core

Input-Output Mechanism of the Discrete Chaos Extension Akhmet, Marat (Springer International Publishing, 2016-01-01) In this paper, the authors analyze the extension of chaotic dynamics to a particular transformation of a discrete dynamical system. The main result consists in showing that starting from a chaotic map (input), the state variable obtained by adding a linear map and a continuous function of the chaotic state (output) is chaotic as well. These results are based on Devaney's definition of chaos and, for this purpose, this definition is extended to collections of sequences. Several examples are presented to show...
Persistence of Li-Yorke chaos in systems with relay Akhmet, Marat; Kashkynbayev, Ardak (University of Szeged, 2017-01-01) It is rigorously proved that the chaotic dynamics of the non-smooth system with relay function is persistent even if a chaotic perturbation is applied. We consider chaos in a modified Li-Yorke sense such that there are infinitely many almost periodic motions embedded in the chaotic attractor. It is demonstrated that the system under investigation possesses countable infinity of chaotic sets of solutions. An example that supports the theoretical results is represented. Moreover, a chaos control procedure bas...
Almost periodicity in chaos Akhmet, Marat (2018-01-01) Periodicity plays a significant role in the chaos theory from the beginning since the skeleton of chaos can consist of infinitely many unstable periodic motions. This is true for chaos in the sense of Devaney [1], Li-Yorke [2] and the one obtained through period-doubling cascade [3]. Countable number of periodic orbits exist in any neighborhood of a structurally stable Poincaré homoclinic orbit, which can be considered as a criterion for the presence of complex dynamics [4]-[6]. It was certified by Shilniko...
The Feynman path integral quantization of constrained systems Muslih, S; Guler, Y (1997-01-01) The Feynman path integral for constrained systems is constructed using the canonical formalism introduced by Guler. This approach is applied to a free relativistic particle and Christ-Lee model.
General analysis of self-dual solutions for the Einstein-Maxwell-Chern-Simons theory in (1+2) dimensions Dereli, T; Obukhov, YN (2000-07-15) The solutions of the Einstein-Maxwell-Chem-Simons theory are studied in (1+2) dimensions with the self-duality condition imposed on the Maxwell field. We give a closed form of the general solution which is determined by a single function having the physical meaning of the quasilocal angular momentum of the solution. This function completely determines the geometry of spacetime, also providing the direct computation of the conserved total mass and angular momentum of the configurations.

Citation Formats

M. Akhmet, “Input-Output Mechanism of the Discrete Chaos Extension,” 2014, vol. 15, Accessed: 00, 2020. [Online]. Available: https://hdl.handle.net/11511/32865.