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Adaptive neural network feedback control for uncertain fractional-order building structure vibration systems

Title
Adaptive neural network feedback control for uncertain fractional-order building structure vibration systems
Type
Article in International Scientific Journal
Year
2024
Authors
Xu, K
(Author)
Other
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Chen, LP
(Author)
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Gu, PP
(Author)
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António Mendes Lopes
(Author)
FEUP
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Wang, MW
(Author)
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Du, WX
(Author)
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Journal
The Journal is awaiting validation by the Administrative Services.
Vol. 104
Pages: 627-635
ISSN: 1110-0168
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Publicação em ISI Web of Knowledge ISI Web of Knowledge - 0 Citations
Publicação em Scopus Scopus - 0 Citations
Other information
Authenticus ID: P-016-RP5
Abstract (EN): In previous studies, structure vibration control mainly focused on integer-order systems or commensurate fractional-order (FO) dynamics systems. In this paper, we propose an adaptive radial basis function (RBF) neural network feedback (ARBF-FK) controller for FO building structure vibration systems with viscoelastic (VE) dampers, uncertain structure parameters and unknown seismic waves. Firstly, use a FO multi-order state space description for FO building structural vibration systems. Then, the design of the ideal feedback controller is based on the stability theory of FO multi-order systems. Moreover, to reduce the cost and facilitate the practical implementation of the control, unknown earthquake seismic waves is approximated by a RBF neural network, the ARBF-FK controller is proposed. In addition, to guarantee the stability of the closed-loop control system and avoid falling into local optimum, network weights are adapted by the FO Lyapunov stability theory instead of gradient descent algorithms. Finally, the convergence rate of the system is analyzed and perform various tests on the ARBF-FK controller. The simulation results demonstrate that the ARBF-FK controller has superior performance and is very robust to control FO building structure vibration systems with uncertain structure parameters and unknown external earthquake excitation.
Language: English
Type (Professor's evaluation): Scientific
No. of pages: 9
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