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AUV Modeling and Motion Control Strategy Design 被引量:1

智能水下机器人的建模和控制策略研究(英文)
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摘要 To provide a suitable model for AUV simulation and control purposes, a general nonlinear dynamic model including a novel thruster hydrodynamics model was derived. Based on the modeling method, the "AUV-XX" simulation platform was established to carry out fundamental tests on its motion characteristics, stability, and controllability. A motion control strategy consisting of both position and speed control in a horizontal plane was designed for different task assignments of underwater vehicles. Combined control of heave and pitch was adopted to compensate for the reduction of vertical tunnel thrusters when the vehicle is moving at a high speed. An improved S-surface controller based on the capacitor plate model was developed with flexible gain selections made possible by different forms of restricting the error and changing the rate of the error. Simulation results show that the derived general mathematical model together with simulation platform can provide a test bed for fundamental tests of motion control. Additionally, the capacitor plate model S-surface control shows a good performance in guiding the vehicle to achieve the desired position and speed with sufficient accuracy.
出处 《Journal of Marine Science and Application》 2010年第4期379-385,共7页 船舶与海洋工程学报(英文版)
基金 the National Science Foundation under Grant No.50879014,No.50909025
关键词 AUV general dynamic model hydrodynamics modeling simulation platform motion control 水下机器人 机器人设计 控制策略 运动建模 非线性动态模型 模型推导 仿真平台 速度控制
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