Light‐Driven Amphibious Mini Soft Robot Mimicking the Locomotion Gait of Inchworm and Water Strider

Amphibious robots, which are expected to move agilely in both land and water environments with huge differences in medium density, have always been a hot spot in the field of robotics. However, limited by the simple structure and drive system, the existing mini‐robots have a relatively single‐moveme...

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Bibliographic Details
Published in:Advanced intelligent systems Vol. 6; no. 1
Main Authors: Zhu, Pengfei, Shang, Kedong, Huang, Yinpeng, Jiang, Zhongbao, Zhou, Jian, Lu, Xulei, Yang, Tingting
Format: Journal Article
Language:English
Published: Weinheim John Wiley & Sons, Inc 01-01-2024
Wiley
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Summary:Amphibious robots, which are expected to move agilely in both land and water environments with huge differences in medium density, have always been a hot spot in the field of robotics. However, limited by the simple structure and drive system, the existing mini‐robots have a relatively single‐movement mode, which limits their ability to move in complex environments. This article fuses two different biomimetic morphological features to create an amphibious mini‐robot: mimicking the body shape and gait of a terrestrial inchworm, and mimicking the superhydrophobic leg shape and gait of an aquatic water strider. The light‐driven approach also brings the advantage of remote wireless manipulation. The mass of the robot is only 8 mg, and it has fast land movement speed (≈0.05 times body length s−1), water surface movement speed (≈0.5 times body length s−1), and some obstacle‐crossing ability (over obstacles of ≈64% of the robot's height). Moreover, the robot can quickly switch from land to water locomotion, which is expected to facilitate emerging applications in various industrial and biomedical settings. An amphibious mini‐robot, which fuses two different biomimetic morphological features, has been proposed and is able to move agilely in both land and water environments. The mini‐robot brings the advantages of remote wireless manipulation, light mass, fast movement speed, and can quickly switch from land to water locomotion, demonstrating its ability to move in complex environments.
ISSN:2640-4567
2640-4567
DOI:10.1002/aisy.202300466