Variable Convergence Rate Control of High-Order Nonlinear Impulsive Systems: A Fully Actuated System Approach

This paper investigates the variable convergence rate stability of high-order nonlinear impulsive systems. Different from most of the existing methods, this work eliminates the nonlinearities by using the full-actuation property of the system, based on which the idea of generalized pole assignment is employed to ensure the convergence of the target system with regulable convergence rate. According to the definition of global exponential stability, a variable convergence rate stability condition is derived for high-order nonlinear impulsive systems based on the fully actuated system (FAS) approach. Finally, the validity and feasibility of the method are verified by numerical simulations of a single-link flexible joint robotic system.

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Published
2025-07-04
DOI
https://doi.org/10.1109/fasta65681.2025.11138758
Primary Topic
Chaos control and synchronization
Type
article
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article

Variable Convergence Rate Control of High-Order Nonlinear Impulsive Systems: A Fully Actuated System Approach

Yuanen Li, Wanquan Liu, Xuefang Li
Chaos control and synchronization
article

Variable Convergence Rate Control of High-Order Nonlinear Impulsive Systems: A Fully Actuated System Approach

Yuanen Li, Wanquan Liu, Xuefang Li
article en

Abstract

This paper investigates the variable convergence rate stability of high-order nonlinear impulsive systems. Different from most of the existing methods, this work eliminates the nonlinearities by using the full-actuation property of the system, based on which the idea of generalized pole assignment is employed to ensure the convergence of the target system with regulable convergence rate. According to the definition of global exponential stability, a variable convergence rate stability condition is derived for high-order nonlinear impulsive systems based on the fully actuated system (FAS) approach. Finally, the validity and feasibility of the method are verified by numerical simulations of a single-link flexible joint robotic system.

Shenzhen University (CN)
Openalex Percentile: Top 81%
Chaos control and synchronization
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