Biomimetic Robotic Remora With Hitchhiking Ability: Design, Control and Experiment

IF 4.6 2区 计算机科学 Q2 ROBOTICS IEEE Robotics and Automation Letters Pub Date : 2024-10-28 DOI:10.1109/LRA.2024.3487075
Tong Tan;Lin Yu;Kai Guo;Xuyang Wang;Lei Qiao
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Abstract

Remora, which is well known for it's ’hitchhiking’ behavior, can attach to diverse marine animals and travel with them for a long distance with low energy consumption due to its special disc. In this letter, inspired by the unique ’hitchhiking’ behavior, a new prototype of a robotic remora with good maneuverability, reliable adhesion system and robust motion control strategy is designed to apply the ’hitchhiking’ behavior to engineered system. In the design of the mechanics, a robotic remora with wire-driven propulsion mechanism and pectoral fins diving mechanism is developed to realize the decoupled planar and vertical motion. Besides, a stable adhesion system with considerable adhesive force( $\sim$ 274 N), low pre-load demand and perception ability is developed. In the aspect of motion control, considering the underactuated characteristics, highly nonlinear and model uncertainty of the robotic remora dynamics, a planar controller consisted of a line-of-sight guidance law and an active disturbance rejection heading controller, and a proportional-integral-derivative based depth controller are adopted. The combination of the two controllers enable the robotic fish to achieve autonomous motion in three-dimensional space, providing strong support for achieving the ’hitchhiking’ behavior. Extensive experiments, including the coordination between the robotic remora and underwater vehicle, have been conducted to verify the reliability of the designed robotic remora and the corresponding control strategy.
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具有搭便车能力的仿生机器人 Remora:设计、控制和实验
Remora以其 "搭便车 "行为而闻名,由于其特殊的圆盘,它可以附着在各种海洋动物身上,并以较低的能耗与它们一起进行长距离旅行。在这封信中,受鮣鱼独特的 "搭便车 "行为的启发,我们设计了一种新的机器人原型,它具有良好的机动性、可靠的附着系统和稳健的运动控制策略,可将 "搭便车 "行为应用到工程系统中。在机械设计中,开发了一种带有钢丝驱动推进机构和胸鳍下潜机构的机器人鮣鱼,以实现平面和垂直运动的解耦。此外,还开发了一套稳定的粘附系统,具有相当大的粘附力($\sim$274 N)、低预紧力需求和感知能力。在运动控制方面,考虑到机器人雷莫拉动力学的欠驱动特性、高度非线性和模型不确定性,采用了由视线制导律和主动干扰抑制航向控制器组成的平面控制器,以及基于比例-积分-派生的深度控制器。两个控制器的组合使机器鱼能够在三维空间中实现自主运动,为实现 "搭便车 "行为提供了有力支持。为了验证所设计的机器鱼和相应控制策略的可靠性,还进行了大量实验,包括机器鱼和水下航行器之间的协调。
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来源期刊
IEEE Robotics and Automation Letters
IEEE Robotics and Automation Letters Computer Science-Computer Science Applications
CiteScore
9.60
自引率
15.40%
发文量
1428
期刊介绍: The scope of this journal is to publish peer-reviewed articles that provide a timely and concise account of innovative research ideas and application results, reporting significant theoretical findings and application case studies in areas of robotics and automation.
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