Large-Deformation Electrothermal Actuation Inchworm-Like Crawling Robot Based on Bistable Structures for Load Carrying

IF 2.3 4区 材料科学 Q3 MATERIALS SCIENCE, COMPOSITES Applied Composite Materials Pub Date : 2024-06-14 DOI:10.1007/s10443-024-10242-z
Zheng Zhang, Tianye Wang, Tao Zhang, Hongcheng Shen, Baisong Pan, Min Sun, Guang Zhang, Shaofei Jiang
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Abstract

Crawling robots have great potential in some harsh environments, but there are still some limitations, such as tiny structures that can only produce small deformation and poor load-carrying capacity. A lightweight inchworm-like crawling robot made of bistable structure driven by electrothermal actuation is proposed in this paper. The robot has the characteristics of large deformation and a certain extent of load capacity. The motion of the crawling robot was realized by the common effect of the bistable structure and the designed feet with anisotropic friction. The unstable transition process between snap-through and snap-back processes of the bistable structure was utilized to provide morphological deformation. Meanwhile the feet with anisotropic friction transformed the deformation to unidirectional movement of the crawling robot. Through electric experiments, the electrothermal driving influencing factors of bistable structure are tested, including heating time, maximum temperature and curvature change, which demonstrates the possibility of driving inchworm-like crawling robot with bistable structure and large-deformation. And the structure of the inchworm-like crawling robot assembled by a bistable shell pasted with an electric heating sheet and the designed feet with anisotropic friction. In order to evaluate the motion properties and load-carrying function of the inchworm-like crawling robot, the step length test under different voltages and the experiment of the crawling robot load-carrying capacity were completed. The results show that the crawling robot performs well in load-carrying, can achieve crawling movement under the condition of carrying 10 g and 20 g objects. The inchworm-like crawling robot provides a method to achieve large-deformation and load-carrying and demonstrates it is suitable in some extreme environments.

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基于双稳态结构的大变形电热致动寸虫式爬行机器人,用于承载负荷
爬行机器人在一些恶劣环境中具有巨大潜力,但仍存在一些局限性,如结构微小,只能产生很小的变形,承载能力差等。本文提出了一种由电热驱动双稳态结构制成的轻型尺蠖状爬行机器人。该机器人具有大变形和一定承载能力的特点。爬行机器人的运动是在双稳态结构和设计的各向异性摩擦脚的共同作用下实现的。利用双稳态结构在 "卡穿 "和 "卡回 "之间的不稳定过渡过程来实现形态变形。同时,各向异性摩擦脚将变形转化为爬行机器人的单向运动。通过电学实验,测试了双稳态结构的电热驱动影响因素,包括加热时间、最高温度和曲率变化,证明了双稳态结构和大变形驱动类尺蠖爬行机器人的可能性。在双稳态外壳上粘贴电加热片,并设计出具有各向异性摩擦力的脚,从而组装出了类尺蠖爬行机器人的结构。为了评估类尺蠖爬行机器人的运动特性和承载功能,完成了不同电压下的步长测试和爬行机器人承载能力实验。结果表明,爬行机器人的承载性能良好,能在承载10 g和20 g物体的条件下实现爬行运动。类似尺蠖的爬行机器人提供了一种实现大变形和承载的方法,并证明它适用于一些极端环境。
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来源期刊
Applied Composite Materials
Applied Composite Materials 工程技术-材料科学:复合
CiteScore
4.20
自引率
4.30%
发文量
81
审稿时长
1.6 months
期刊介绍: Applied Composite Materials is an international journal dedicated to the publication of original full-length papers, review articles and short communications of the highest quality that advance the development and application of engineering composite materials. Its articles identify problems that limit the performance and reliability of the composite material and composite part; and propose solutions that lead to innovation in design and the successful exploitation and commercialization of composite materials across the widest spectrum of engineering uses. The main focus is on the quantitative descriptions of material systems and processing routes. Coverage includes management of time-dependent changes in microscopic and macroscopic structure and its exploitation from the material''s conception through to its eventual obsolescence.
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