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用于飞行、游泳和奔跑的相互驱动核心与模块化机器人肢体。

Reciprocal actuation core and modular robotic limbs for flying, swimming and running.

作者信息

Li Song, Liu Fangyuan, Dong Xin, Xiang Jinwu, Li Daochun, Chirarattananon Pakpong, Tu Zhan

机构信息

Department of Biomedical Engineering, City University of Hong Kong, Kowloon, Hong Kong SAR, China.

School of Aeronautic Science and Engineering, Beihang University, Beijing, China.

出版信息

Commun Eng. 2025 Apr 13;4(1):71. doi: 10.1038/s44172-025-00404-7.

Abstract

Investigations into animal locomotion across diverse environments have highlighted the universal applicability of adjustable reciprocal motion, offering insights into simplifying actuation systems for multi-modal robots. However, achieving unified and efficient reciprocal motion with environmental adaptability in miniature robotic systems is challenging due to constraints of size, weight, and the need for controlled degree of freedom. Here, we present the UniCore, a miniature unified actuation platform capable of flying, swimming, and running with modular appendages. This platform features bio-inspired motor-spring resonance actuation systems, with a central controller that generates four adjustable reciprocal control signals based on a central pattern generator model. Performance validation demonstrates UniCore's proficiency in achieving three distinct modes of locomotion, underscoring the effectiveness of reciprocal motion for the locomotion of both animals and machines. All in all, this work demonstrates the potential of a unified reciprocal actuation platform to eliminate morphological and actuation redundancies commonly found in existing multi-modal robots, paving the way for more efficient and versatile miniature robotic systems.

摘要

对动物在不同环境中运动的研究突出了可调往复运动的普遍适用性,为简化多模态机器人的驱动系统提供了见解。然而,由于尺寸、重量的限制以及对可控自由度的需求,在微型机器人系统中实现具有环境适应性的统一高效往复运动具有挑战性。在此,我们展示了UniCore,这是一个能够通过模块化附件飞行、游泳和奔跑的微型统一驱动平台。该平台具有受生物启发的电机-弹簧共振驱动系统,带有一个中央控制器,该控制器基于中央模式发生器模型生成四个可调的往复控制信号。性能验证表明UniCore在实现三种不同运动模式方面的熟练程度,强调了往复运动对动物和机器运动的有效性。总而言之,这项工作展示了统一往复驱动平台消除现有多模态机器人中常见的形态和驱动冗余的潜力,为更高效、多功能的微型机器人系统铺平了道路。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/abd7/11994817/391e233e5236/44172_2025_404_Fig1_HTML.jpg

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