Control system design for vessel towing system by activating rudders of the towed vessel
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참고문헌
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초록
In this study, the motion control problem of the vessel towed by a towing ship (tugboat) is considered. The non-powered towed ship is dragged by the towing ship. Even though the towed ship is equipped with propulsion systems, they cannot be used at low or constant speeds due to safety issues. In narrow canals, rivers, and busy harbor areas especially, where extreme tension is required during towing operation, the course stability of the towed vessel depends on the towing ship. Therefore, the authors propose a new control strategy in which the rudder system of the towed vessel is activated to provide its maneuverability. Based on the leader-follower system configuration, a nonlinear mathematical model is derived and a back-stepping control is designed. By simulation and experiment results with a comparison study, the usefulness and effectiveness of the proposed strategy are validated.
Abstract
In this study, the motion control problem of the vessel towed by a towing ship (tugboat) is considered. The non-powered towed ship is dragged by the towing ship. Even though the towed ship is equipped with propulsion systems, they cannot be used at low or constant speeds due to safety issues. In narrow canals, rivers, and busy harbor areas especially, where extreme tension is required during towing operation, the course stability of the towed vessel depends on the towing ship. Therefore, the authors propose a new control strategy in which the rudder system of the towed vessel is activated to provide its maneuverability. Based on the leader-follower system configuration, a nonlinear mathematical model is derived and a back-stepping control is designed. By simulation and experiment results with a comparison study, the usefulness and effectiveness of the proposed strategy are validated.
참고문헌 (27)
- Van Phuoc Bui, "Development of Constrained Control Allocation for Ship Berthing by Using Autonomous Tugboats", International Journal of Control, Automation, and Systems, 9(6), pp.1203~1208 (2011), 제어·로봇·시스템학회
- Bui, V. P., "Optimal control design for automatic ship berthing by using bow and stern thrusters", Journal of Ocean Engineering and Technology, 24(2), pp.10~17 (2010)
- Van Phuoc Bui, "A ship berthing system design with four tug boats", Journal of Mechanical Science and Technology, 25(5), pp.1257~1264 (2011), 대한기계학회
- Zaopeng Dong, "Trajectory tracking control of underactuated USV based on modified backstepping approach", International Journal of Naval Architecture and Ocean Engineering, 7(5), pp.817~832 (2015), 대한조선학회
- Ming-Chung Fang, "Application of neuro-fuzzy algorithm to portable dynamic positioning control system for ships", International Journal of Naval Architecture and Ocean Engineering, 8(1), pp.38~52 (2016), 대한조선학회
- Fitriadhy, A., "Course stability of a ship towing system in wind", Ocean. Eng., 64, pp.135~145 (2013)
- Fossen, T. I., "Marine Control System-Guidance, Navigation, Rigs and Underwater Vehicle", pp.2002
- Kawai, H., "Anti-sway system with image sensor for container cranes", J. Mech. Sci. Technol., 23(10), pp.2757~2765 (2009)
- Kawai, H., "Measurement of a container crane spreader under bad weather conditions by image restoration", IEEE Transactions on Instrumentation and Measurement, 61(1), pp.35~42 (2012)
- Kehtarnavaz, N., "Digital Signal Processing System-Level Design Using Labview" (2005)
- Kunimitsu, S., "Development of crane vision for positioning container", J. Robot. Mechatron., 16(2), pp.186~193 (2004)
- Lee, D. J., "Design of an automatic winch system for small fishing vessel", Journal of the Korean Society for Fisheries and Technology, 36(3), pp.157~165 (2000)
- Lopez, M. J., "LQG", LTR control of ship steering autopilots, 1992, 447~450
- Michiel, W., "Output feedback tracking of ships", IEEE Trans. Contr. Syst. Technol., 19(2), pp.442~448 (2011)
- Nguyen, V. T., "Modeling, identification, and simulation of positional displacement control for ribbon bridges", MATEC Web of Conferences IJCAET & ISAMPE 2017, pp.159~ (2018)
- Oh, S., "System identification of a model ship using a mechatronic system", IEEE ASME Trans. Mechatron, 15(2), pp.316~320 (2010)
- Skjetne, R., "A Nonlinear Ship Maneuvering Model:identification and adaptive control with experiments for a model ship", Model. Ident. Contr., 25(1), pp.3~27 (2004)
- Anh-Minh D. Tran, "Dynamics Identification and Robust Control Performance Evaluation of Towing Rope under Rope Length Variation", 동력시스템공학회지, 20(2), pp.58~65 (2016), 한국동력기계공학회[DOI]
- 안민트란, "A Ship Berthing System Design by Cooperating with Tugboats and Dampers", 드라이브·컨트롤, 11(3), pp.7~13 (2014), 사단법인 유공압건설기계학회[DOI]
- 트란덕권, "견인되는 선박의 조종성능 개선에 관한 연구 : 시스템 모델링", 수산해양기술연구, 54(4), pp.343~352 (2018), 한국수산해양기술학회[DOI]
- Tran Duc Quan, "Leader-Following Control System Design for a Towed Vessel by Tugboat", 한국해양공학회지, 33(5), pp.462~469 (2019), 한국해양공학회[DOI]
- Jian-qin Wang, "Path following of a surface ship sailing in restricted waters under wind effect using robust H∞ guaranteed cost control", International Journal of Naval Architecture and Ocean Engineering, 11(1), pp.606~623 (2019), 대한조선학회[DOI]
- Yuanyuan Wang, "Experimental and numerical study of autopilot using Extended Kalman Filter trained neural networks for surface vessels", International Journal of Naval Architecture and Ocean Engineering, 12, pp.314~324 (2020), 대한조선학회[DOI]
- Yamato, H., "Automatic berthing by the neural controller", Proc. 9th Ship Control Systems Symposium USA, 3, pp.183~201 (1990)
- Yoon, H. J., "Real-time container position estimation method using stereo vision for container auto-landing system", ICCAS 2010 -International Conference on Control, Automation and Systems, pp.872~876 (2010)
- Zhang, Y., "A multivariable neural controller for automatic ship berthing", Journal of IEEE Control System, 17, pp.31~44 (1999)
- Zwierzewicz, Z., "On the ship trajectory tracking LQG controller design", Transactions on the Built Environment, 42, pp.399~406 (1999)