Title :
Discretized LKF approach for coupled differential-difference equations with multiple discrete and distributed delays
Author_Institution :
Dept. of Math., Yulin Univ., Yulin, China
Abstract :
Time-delay systems described by couple differential-functional equations include as special cases many types of time delay systems and coupled differential-difference systems with time-delays. This article discusses the discretized Lyapunov-Krasovskii functional (LKF) approach for the stability problem of coupled differential-difference equations with multiple discrete and distributed delays. Through independently divided every delay region that the plane regions consists in two delays to discritized the LKF, the stability conditions for coupled systems with multiple discrete and distributed delays are established based on a linear matrix inequality(LMI). The numerical examples show that the analysis limit of delay bound in which the systems is stable may be approached by our result.
Keywords :
Lyapunov methods; difference equations; linear matrix inequalities; stability; coupled differential-difference equation; coupled differential-difference system; coupled system; differential-functional equation; discretized LKF approach; discretized Lyapunov-Krasovskii functional; distributed delay; linear matrix inequality; stability condition; time-delay system; Asymptotic stability; Delay; Equations; Mathematical model; Power system stability; Silicon; Stability analysis; Coupled Differential-functional Equations; Discretized LKF Approach; LMI; Multiple Distributed Delays;
Conference_Titel :
Control Conference (CCC), 2010 29th Chinese
Conference_Location :
Beijing
Print_ISBN :
978-1-4244-6263-6