Improved Event-Triggered Dynamic Output Feedback Control for Networked T-S Fuzzy Systems With Actuator Failure and Deception Attacks

• Published in: IEEE transactions on cybernetics Vol. 53; no. 12; pp. 1 - 11
• Main Authors: Zhang, Huiyan, Zhao, Ning, Wang, Shuoyu, Agarwal, Ramesh K.
• Format: Journal Article
• Language: English
• Published: United States IEEE 01.12.2023; The Institute of Electrical and Electronics Engineers, Inc. (IEEE)
• Subjects: Actuator failure; Actuators; Analytical models; Control systems design; Controllers; Deception; deception attacks; Electronic mail; event-triggered schemes (ETSs); Feedback control; Fuzzy systems; Linear matrix inequalities; Mathematical analysis; Mechanical systems; networked Takagi-Sugeno (T–S) fuzzy systems; Output feedback; Sensors; Symmetric matrices
• ISSN: 2168-2267; 2168-2275; 2168-2275
• DOI: 10.1109/TCYB.2023.3264820

This article addresses the problem of event-triggered dynamic output feedback controller design for networked Takagi-Sugeno (T-S) fuzzy systems subject to actuator failure and deception attacks. In order to save network resources effectively, two event-triggered schemes (ETSs) are introduced to test whether the measurement output and control input are transmitted under network communication. While the ETS brings advantages, it also leads to a mismatch between the premise variables of the system and the controller. To solve this problem, an asynchronous premise reconstruct method is considered, which relaxes the condition of the previous results that the premises of the plant and the controller are synchronous. Furthermore, two crucial factors, including actuator failure and deception attacks, are taken into consideration simultaneously. Then, the mean square asymptotic stability conditions of the resultant augmented system are derived by utilizing the Lyapunov stability theory. Besides, controller gains and event-triggered parameters are co-designed with the help of linear matrix inequality techniques. Finally, a cart-damper-spring system and a nonlinear mass-spring-damper mechanical system are presented to verify the theoretical analysis.