Asynchronous gain-scheduled control of deepwater drilling riser system with hybrid event-triggered sampling and unreliable communication

• Published in: Frontiers of information technology & electronic engineering Vol. 25; no. 2; pp. 272 - 285
• Main Authors: Pang, Na, Zhang, Dawei, Zhu, Shuqian
• Format: Journal Article
• Language: English
• Published: Hangzhou Zhejiang University Press 01.02.2024; Springer Nature B.V
• Subjects: Communication; Communications Engineering; Computer Hardware; Computer Science; Computer Systems Organization and Communication Networks; Control methods; Control systems; Data loss; Deepwater drilling; Electrical Engineering; Electronics and Microelectronics; H-infinity control; Hybrid systems; Instrumentation; Linear control; Mathematical models; Network control; Networks; Nonlinear control; Nonlinear systems; Parameters; Polytopes; Recoil; Research Article; Resource utilization; 异步增益调度控制; 反冲控制; Asynchronous gain-scheduled control; 数据丢失; Data loss; Event-triggered scheme; 事件触发方案; TP13; Recoil control; Riser system; 隔水管系统
• DOI: 10.1631/FITEE.2300625
• ISSN: 2095-9184

This paper investigates the recoil control of the deepwater drilling riser system with nonlinear tension force and energy-bounded friction force under the circumstances of limited network resources and unreliable communication. Different from the existing linearization modeling method, a triangle-based polytope modeling method is applied to the nonlinear riser system. Based on the polytope model, to improve resource utilization and accommodate random data loss and communication delay, an asynchronous gain-scheduled control strategy under a hybrid event-triggered scheme is proposed. An asynchronous linear parameter-varying system that blends input delay and impulsive update equation is presented to model the nonlinear networked recoil control system, where the asynchronous deviation bounds of scheduling parameters are calculated. Resorting to the Lyapunov–Krasovskii functional method, some solvable conditions of disturbance attenuation analysis and recoil control design are derived such that the resulting networked system is exponentially mean-square stable with prescribed H ∞ performance. The obtained numerical results verified that the proposed nonlinear networked control method can achieve a better recoil response of the riser system with less transmission data compared with the linear control method.