开源水下机械臂套件,低成本实现深海可靠操作
An Open Toolkit for Underwater Field Robotics
- 设计可深潜40米的防水关节模块,带早期漏液检测
- 集成控制电路与ROS2软件栈,支持多模式驱动
- 适合海洋科研、工业检测等领域的研究者快速部署
水下机器人在海洋科学、环境监测和海底工业中日益重要,但关节驱动系统仍受限于高成本、专有设计及缺乏模块化研究硬件。尽管开源车辆与控制软件已普及,针对需防水、带反馈的关节驱动系统(如机械臂、夹爪、仿生装置)仍存在显著空白。本研究提出一个开源、低成本的水下操作硬件与软件套件,包含耐压至40米的水下机器人关节(URJ),具备早期漏液检测功能,紧凑型控制与电源管理电子模块,以及基于ROS2的传感与多模式驱动软件栈。所有CAD模型、制造文件、PCB源码、固件和ROS2包均公开,支持本地制造与社区迭代。套件经实验室测试与多次野外部署验证,在3自由度水下机械臂、腱驱动软夹爪、欠驱动沉积物采样器等应用中表现稳定可靠。该平台为真实海洋环境中的水下操作研究提供完整、可复现、可扩展的基础,降低研究门槛,推动水下现场机器人技术发展。
原文摘要 · Abstract (English)
Underwater robotics is becoming increasingly important for marine science, environmental monitoring, and subsea industrial operations, yet the development of underwater manipulation and actuation systems remains restricted by high costs, proprietary designs, and limited access to modular, research-oriented hardware. While open-source initiatives have democratized vehicle construction and control software, a substantial gap persists for joint-actuated systems-particularly those requiring waterproof, feedback-enabled actuation suitable for manipulators, grippers, and bioinspired devices. As a result, many research groups face lengthy development cycles, limited reproducibility, and difficulty transitioning laboratory prototypes to field-ready platforms. To address this gap, we introduce an open, cost-effective hardware and software toolkit for underwater manipulation research. The toolkit includes a depth-rated Underwater Robotic Joint (URJ) with early leakage detection, compact control and power management electronics, and a ROS2-based software stack for sensing and multi-mode actuation. All CAD models, fabrication files, PCB sources, firmware, and ROS2 packages are openly released, enabling local manufacturing, modification, and community-driven improvement. The toolkit has undergone extensive laboratory testing and multiple field deployments, demonstrating reliable operation up to 40 m depth across diverse applications, including a 3-DoF underwater manipulator, a tendon-driven soft gripper, and an underactuated sediment sampler. These results validate the robustness, versatility, and reusability of the toolkit for real marine environments. By providing a fully open, field-tested platform, this work aims to lower the barrier to entry for underwater manipulation research, improve reproducibility, and accelerate innovation in underwater field robotics.
Thank you to arXiv for use of its open access interoperability. PaperDance 不是 arXiv 官方产品;中文卡片由大模型生成,请以原文为准。