4D Thermomechanical metamaterials for soft microrobotics
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Published:2021-09-09
Issue:1
Volume:2
Page:
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ISSN:2662-4443
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Container-title:Communications Materials
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language:en
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Short-container-title:Commun Mater
Author:
Ji QingxiangORCID, Moughames Johnny, Chen Xueyan, Fang Guodong, Huaroto Juan J., Laude VincentORCID, Martínez Julio Andrés Iglesias, Ulliac Gwenn, Clévy CédricORCID, Lutz Philippe, Rabenorosoa Kanty, Guelpa Valerian, Spangenberg Arnaud, Liang JunORCID, Mosset AlexisORCID, Kadic Muamer
Abstract
AbstractMetamaterials have attracted wide scientific interest to break fundamental bounds on materials properties. Recently, the field has been extending to coupled physical phenomena where one physics acts as the driving force for another. Stimuli-responsive or 4D metamaterials have been demonstrated for thermo-elasticity, magneto-optics or piezo-electricity. Herein, a soft, ultra-compact and accurate microrobot is described which can achieve controlled motion under thermal stimuli. The system consists of an organized assembly of two functional structures: a rotational and a translational element. Both elements are designed basing upon the principle of the thermoelastic bilayer plate that bends as temperature changes. Samples are fabricated using gray-tone lithography from a single polymer but with two different laser writing powers, making each part different in its thermal and mechanical behaviors. Excellent motion-controllable, reversible and stable features in a dry environment are verified by simulations and experiments, revealing broad application prospects for the designed soft micro actuators.
Publisher
Springer Science and Business Media LLC
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