Synchronization and antisynchronization protocol design of chaotic nonlinear gyros: an adaptive integral sliding mode approach

Authors

FAZAL UR RAHMAN
QUDRAT KHAN
RINI AKMELIAWATI

DOI

10.3906/elk-1803-97

Abstract

A novel control protocol design, via integral sliding mode control with parameter update laws, for synchronization and desynchronization of a chaotic nonlinear gyro with unknown parameters is the focus of this work. The error dynamics of the actual system are substructured into nominal and uncertain parts to employ adaptive integral sliding mode (AISM) control. The uncertain parameters are estimated via devised adaptive laws. Then the disagreement dynamics are guided to origin via AISM control. The stabilizing controller is also designed in terms of nominal control along with a compensating component. The control and the parameter update laws are constructed to ensure the strictly negative derivative of a Lyapunov function. Graphical results related to synchronization, desynchronization, and chaos suppression are displayed to demonstrate the potential of the proposed control.

Keywords

Chaotic gyro, synchronization, desynchronization, adaptive backstepping method, AISM control, Lyapunov function

First Page

675

Last Page

684

Recommended Citation

RAHMAN, FAZAL UR; KHAN, QUDRAT; and AKMELIAWATI, RINI (2019) "Synchronization and antisynchronization protocol design of chaotic nonlinear gyros: an adaptive integral sliding mode approach," Turkish Journal of Electrical Engineering and Computer Sciences: Vol. 27: No. 1, Article 49. https://doi.org/10.3906/elk-1803-97
Available at: https://journals.tubitak.gov.tr/elektrik/vol27/iss1/49