一种有效自适应船舶自动驾驶仪的研究

VanTuan Nguyen, Thi-Oanh Le, T. Do, M.-M. Nguyen, Thi-Minh-Huong Nguyen, Thi-Kim-Tuyen Dinh, Thanh-Nhan Man
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引用次数: 7

摘要

船舶运动是一个复杂的控制过程,它包含多个水动力参数,这些参数与船舶的负载状况、航速以及周围条件(如风、流、潮等)有关,变化范围很大。因此,如何有效地将船舶控制在设计的航迹上一直是船长的重要任务。本文提出了一种有效的船舶自适应自动驾驶仪,以保证最佳的精度、经济性和稳定性。对PID控制方法进行了改进,并设计了PID控制器的参数,使其满足由航向误差、变航向时的阻力和漂移以及浪涌速度或燃油消耗损失组成的最优目标函数的条件。改变航向过程的控制器设计基于模型参考自适应系统(MRAS)控制理论,自动保持航向过程的控制器设计基于自整定调节器(STR)控制理论。在各种扰动条件下的仿真(MATLAB软件)表明,与传统PID自动驾驶仪相比,所设计的自动驾驶仪具有航向转向速度快、在强风浪条件下船首摆动小、航向保持精度高、操舵动作时间短、换舵次数少等显著优点。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Study on an effective adaptive ship autopilot
Ship motion is a complex controlled process with several hydrodynamic parameters that vary in wide ranges with respect to ship load condition, speed and surrounding conditions (such as wind, current, tide, etc.). Therefore, to effectively control ships in a designed track is always an important task for ship masters. This paper presents an effective adaptive autopilot for ships that ensure the optimal accuracy, economy and stability characteristics. The PID control methodology is modified and parameters of a PID controller is designed to satisfy conditions for an optimal objective function that comprised by heading error, resistance and drift during changing course, and loss of surge velocity or fuel consumption. Designing of the controller for course changing process is based on the Model Reference Adaptive System (MRAS) control theory, while as designing of the automatic course keeping process is based on the Self Tuning Regulator (STR) control theory. Simulation (using MATLAB software) in various disturbance conditions shows that in comparison with conventional PID autopilots, the designed autopilot has several notable advantages: higher course turning speed, lower swing of ship bow even in strong waves and winds, high accuracy of course keeping, shorter time of rudder actions smaller times of changing rudder direction.
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