Stability analysis for a class of functional differential equations and applications
https://doi.org/10.1016/j.na.2009.06.028Publisher, magazine: ,
Publication year: 2009
Lưu Trích dẫn Chia sẻAbstract
The problem of Lyapunov stability for functional differential equations in Hilbert spaces is studied. The system to be considered is non-autonomous and the delay is time-varying. Known results on this problem are based on the Gronwall inequality yielding relative conservative bounds on nonlinear perturbations. In this paper, using more general Lyapunov–Krasovskii functional, neither model variable transformation nor bounding restriction on nonlinear perturbations is required to obtain improved conditions for the global exponential stability of the system. The conditions given in terms of the solution of standard Riccati differential equations allow to compute simultaneously the two bounds that characterize the stability rate of the solution. The proposed method can be easily applied to some control problems of nonlinear non-autonomous control time-delay systems.
Tags: Stability, Nonlinear system, Time-varying delay, Lyapunov function, Riccati equations, Stabilization
Các bài viết liên quan đến tác giả Vũ Ngọc Phát
Constrained controllability theory: From linear to nonlinear dynamical discrete-time systems
Sufficient Conditions for Stabilizability of Linear Periodic Differential Equations
Global stabilization for linear continuous time-varying systems
Global controllability to a target set of a discrete-time system in Banach spaces
Robust set-valued state estimation for linear time-varying systems in Hilbert spaces
Global stabilization of linear periodically time-varying switched systems via matrix inequalities