A Millimeter-Scale Multilocomotion Microrobot Capable of Controlled Crawling and Jumping.

Soft robotics Pub Date : 2024-04-01 Epub Date: 2024-01-09 DOI:10.1089/soro.2023.0025
Ruide Yun, Zhiwei Liu, Jiaming Leng, Jianmei Huang, Xiaojun Yan, Mingjing Qi
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Abstract

Insects and animals in nature generally have powerful muscles to guarantee their complex motion, such as crawling, running, and jumping. It is challenging for insect-sized robots to achieve controlled crawling and jumping within the scale of millimeters and milligrams. This article proposes a novelty bionic muscle actuator, where an electrical pulse is applied to generate joule heat to expand the actuator's chamber. Under the restoring force of the spring element, the chamber contracts back to the initial state to finish a complete cycle. The actuator can obtain high-frequency vibration under the high-frequency electrical signal. We propose a microrobot based on the novelty actuator to achieve controlled crawling and jumping over the obstacle of the millimeter-sized robot. The robot is fabricated with two actuators as a crawling module and one actuator as a jumping module, with a mass of 52 mg, length of 9.3 mm, width of 9.1 mm, and height of 4 mm. The microrobot has a maximum crawling turning velocity of 0.73 rad/s, a maximum jump height of 42 mm (10.5 times body height), and a maximum jump velocity of 0.91 m/s. This study extends the potential for applying the novelty bionic-muscle actuator to the microrobot.

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能控制爬行和跳跃的毫米级多运动微型机器人
自然界中的昆虫和动物一般都拥有强大的肌肉,以保证其爬行、奔跑和跳跃等复杂运动。对于昆虫大小的机器人来说,在毫米和毫克的尺度内实现可控爬行和跳跃是一项挑战。本文提出了一种新颖的仿生肌肉致动器,即通过电脉冲产生焦耳热来扩大致动器的腔体。在弹簧元件的恢复力作用下,腔体收缩回初始状态,完成一个完整的循环。在高频电信号的作用下,致动器可以获得高频振动。我们提出了一种基于新型致动器的微型机器人,以实现毫米级机器人的可控爬行和跳跃越障。该机器人由两个致动器组成爬行模块,一个致动器组成跳跃模块,质量为 52 毫克,长度为 9.3 毫米,宽度为 9.1 毫米,高度为 4 毫米。微型机器人的最大爬行转弯速度为 0.73 弧度/秒,最大跳跃高度为 42 毫米(身体高度的 10.5 倍),最大跳跃速度为 0.91 米/秒。这项研究拓展了将新型仿生肌肉致动器应用于微型机器人的可能性。
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