基于Pixhawk与开源架构的ROV总体设计与运动控制OA
Overall Design and Motion Control of an ROV Based on Pixhawk and Open-Source Architecture
为优化水下航行器开发周期与项目成本,文中设计并实现了一种基于开源软硬件平台的遥控水下航行器(ROV)系统.首先,利用Fusion360 软件完成ROV的三维建模,并采用 3D打印技术实现原型快速制作;其次,设计构建了一种Pixhawk与树莓派(RPi)的组合式分层控制架构:上层由RPi作为决策单元,负责运行机器人操作系统(ROS)节点、处理视觉数据、执行任务规划及与地面站的高速通信;下层由Pixhawk作为实时运动控制单元,负责航行姿态计算和推进器驱动,通过MAVLink通信协议实现上下层间及与远程地面站的数据交互.静水环境测试结果表明,该ROV平台能稳定接收并响应地面站发送的控制指令,定深控制精度在±0.3 m以内,航向控制偏差小于±3°.研究表明,基于开源Pixhawk飞控平台与低成本制造技术的研发路径具备可实现性,该方案缩短了航行器的开发周期,降低了成本,并且其软硬件架构可扩展,为中小型水下探测装备的快速研发提供了可复用的技术参考与实践经验.
To optimize the development cycle and project cost of undersea vehicles,this paper designed and implemented a remotely operated vehicle(ROV)system based on an open-source hardware and software platform.First,this paper utilized Fusion360 software for the three-dimensional(3D)modeling of the ROV and adopted 3D printing technology to achieve rapid prototyping.Second,a combined hierarchical control architecture of Pixhawk and Raspberry Pi(RPi)was designed and constructed.The upper layer used RPi as the decision-making unit to run robot operating system(ROS)nodes,process visual data,execute task planning,and conduct high-speed communication with the ground station.The lower layer used Pixhawk as the real-time motion control unit to calculate navigation attitude and drive thrusters.Data interaction between the upper and lower layers,as well as between the system and the remote ground station,was realized through the MAVLink communication protocol.Test results in a static water environment show that the ROV can stably receive and respond to control commands sent by the ground station,with a depth-keeping control accuracy within±0.3 m and a heading control deviation of less than±3°.The research indicates that the development path based on the open-source Pixhawk flight control platform and low-cost manufacturing technology is feasible.This scheme shortens the development cycle and reduces the cost of the undersea vehicle,and its hardware and software architecture is scalable,providing reusable technical references and practical experience for the rapid development of small and medium-sized underwater detection equipment.
李行行;朱发新;廖煜铭;董良雄;王盛儿
浙江海洋大学 船舶与海运学院,浙江 舟山,316022浙江海洋大学 船舶与海运学院,浙江 舟山,316022广州航海学院 航运学院,广东 广州,510725广州航海学院 航运学院,广东 广州,510725中国船级社实业有限公司宁波分公司,浙江 宁波,315000
军事科技
遥控水下航行器Pixhawk开源架构总体设计运动控制
remotely operated vehiclePixhawkopen-source architectureoverall designmotion control
《水下无人系统学报》 2026 (1)
167-174,8
2025浙江省大学生科技创新活动计划暨新苗人才计划(2025R411CO47)2024年教育部供需对接就业育人项目(2024103088623)2022年浙江省优秀研究生课程(2022YXKC0235)2022年浙江省"十四五"研究生教育改革项目(2022KCSZ0236).
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