TL;DR
Finite-time stochastic stability for discrete-time switched stochastic systems with delayed impulses and asynchronous switching, typical in cyber-physical systems like microgrids and vehicle platoons is investigated, revealing a bidirectional regulation mechanism between impulse frequency and system stability.
Given the excessive consumption of communication resources in time-varying systems without prior system information, efficient resource-saving strategies are of vital importance. This paper explores and analyzes the event-triggered adaptive the control issue concerning linear discrete systems with time-varying characte...
This paper investigates the distributed secure control problem for time‐varying complex networked control systems with parameter uncertainties, under the coexistence of the Random‐Access protocol and false data injection attacks. To tackle network resource constraints and security threats, a mode‐dependent distribute...
This article investigates the secure control problem of multiagent systems (MASs) with Lipschitz nonlinear dynamics under the asynchronous impulsive control framework. Random substitution deception attacks are modeled by Bernoulli variables and are assumed to occur in the controller or controller-to-actuator channel. B...
This paper proposes a resilient inverse optimal control strategy for industrial cyber-physical systems (ICPSs) subject to unknown nonlinearities, mismatched disturbances, and actuator attacks. To achieve optimality without solving the complex Hamilton-Jacobi-Bellman equation, an inverse optimal control framework is est...
This paper investigates the robust stability of a class of uncertain switched time-varying delay systems containing unstable subsystems. In the presence of unstable subsystems, a novel slow-fast weighted admissible edge-dependent average dwell time method is introduced for designing the switching signal. An enhanced mu...
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