Cascade control design for supercavitating vehicles with actuator saturation and the estimation of the domain of attraction

Supercavitating vehicles can achieve underwater high-speed motion using supercavitation drag-reduction technology; however, the vehicle-cavity interaction can lead to strong nonlinear characteristics, which pose substantial challenges to the classical control method. This paper proposes a linear mat...

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Published inOcean engineering Vol. 282; p. 114996
Main Authors Zhou, Yu, Li, Jiedong, Sun, Mingwei, Zhang, Jianhong, Chen, Zengqiang
Format Journal Article
LanguageEnglish
Published Elsevier Ltd 15.08.2023
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ISSN0029-8018
DOI10.1016/j.oceaneng.2023.114996

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Abstract Supercavitating vehicles can achieve underwater high-speed motion using supercavitation drag-reduction technology; however, the vehicle-cavity interaction can lead to strong nonlinear characteristics, which pose substantial challenges to the classical control method. This paper proposes a linear matrix inequality (LMI)-based cascade control to realize an efficient depth-tracking task subject to actuator saturation. First, the depth-tracking error cascade scheme is established. Then, the saturation constraint can be represented using the convex hull to obtain a linear-parameter-varying inner-loop model. Finally, the feedback gains can be optimized by using LMIs. Moreover, the domain of attraction can be estimated to obtain the feasible operating range, which can provide an overall guideline for practitioners. We evaluated the proposed method through a comparative simulation, and the results show that it quickly reached the desired depth without overshoot under actuator saturation, indicating the method’s feasibility and efficiency. •A cascade controller with actuator saturation is designed based on LMI and LPV.•Domain of attraction is provided and the smooth transient response is achieved.•Settling time and the domain of attraction can realize actively regulating.•The selection of reference set is investigated to find the larger domain of attraction.
AbstractList Supercavitating vehicles can achieve underwater high-speed motion using supercavitation drag-reduction technology; however, the vehicle-cavity interaction can lead to strong nonlinear characteristics, which pose substantial challenges to the classical control method. This paper proposes a linear matrix inequality (LMI)-based cascade control to realize an efficient depth-tracking task subject to actuator saturation. First, the depth-tracking error cascade scheme is established. Then, the saturation constraint can be represented using the convex hull to obtain a linear-parameter-varying inner-loop model. Finally, the feedback gains can be optimized by using LMIs. Moreover, the domain of attraction can be estimated to obtain the feasible operating range, which can provide an overall guideline for practitioners. We evaluated the proposed method through a comparative simulation, and the results show that it quickly reached the desired depth without overshoot under actuator saturation, indicating the method’s feasibility and efficiency. •A cascade controller with actuator saturation is designed based on LMI and LPV.•Domain of attraction is provided and the smooth transient response is achieved.•Settling time and the domain of attraction can realize actively regulating.•The selection of reference set is investigated to find the larger domain of attraction.
ArticleNumber 114996
Author Li, Jiedong
Zhou, Yu
Sun, Mingwei
Chen, Zengqiang
Zhang, Jianhong
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crossref_primary_10_3390_drones9020087
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Keywords Supercavitating vehicle
Cascade control
Domain of attraction
Linear matrix inequalities
Planing force
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Snippet Supercavitating vehicles can achieve underwater high-speed motion using supercavitation drag-reduction technology; however, the vehicle-cavity interaction can...
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StartPage 114996
SubjectTerms Cascade control
Domain of attraction
Linear matrix inequalities
Planing force
Supercavitating vehicle
Title Cascade control design for supercavitating vehicles with actuator saturation and the estimation of the domain of attraction
URI https://dx.doi.org/10.1016/j.oceaneng.2023.114996
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