Published on 01 January 2025 |

Version 1.0

Uncertain Destination of a 4D Autonomous System with Five Line Equilibria

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R. Wafo Tapche;J. Kengne;Z.T. Njitacke;F.B. Pelap

Description

AbstractObjectives: This paper introduces a novel 4D autonomous dynamic system with five line equilibria and a smooth nonlinearity.Methods/ statistical analysis: The new model is obtained by adding one more freedom degree to the 3D jerk system recently introduced by Kengne and Mogue, 2018. To analyze and study the model, Ruth criterion principle is used for the stability of different lines equilibria. Using traditional dynamics tools such as bifurcation diagrams, phase portraits, Poincare section, power spectrum, and Pspice software, the dynamic of the system is carried out.Findings: The new elegant system has an extremely rich dynamics predominated by the phenomenon of extreme multistability. The various sequences of coexisting route to chaos (coexisting bifurcation) confirm the uncertain destination of our novel elegant system. Note that, for the best of author’s knowledge, this is one of the best reproducible extreme multistable system because is not a flux control memristor-based system.Application/improvements: The results obtained in this investigation enrich the literature and being used to improve the extreme multistability application in many research domains such as Random Number Generation (RNG) and image encryption.Keywords: Five line equilibria, Extreme multistability, Composite tanh-cubic nonlinearity, PSpice simulations

Citations (1)

Mentions (0)

Metrics

Dataset Index

1.8

FAIR Score

58%

Citations

1

Mentions

0

Metrics Over Time

Publication Details

DOI

Publisher

Harvard Dataverse

Assigned Domain

Subfield

Biomedical Engineering

Field

Engineering

Domain

Physical Sciences

Confidence Score

54%

Source

Scholar Data Model

Keywords

EngineeringFive line equilibria, Extreme multistability, Composite tanh-cubic nonlinearity, PSpice simulations

Normalization Factors

FT

13.46

CTw

1.00

MTw

1.00