Programmable shape transformations of electro-mechanical metamaterial muscles

Abstract Studies of electromagnetic and mechanical metamaterials are, for the large part, two quite separate disciplines. Here, we explore the potential for using electromagnetic-derived forces to control the shape changes in a mechanical metamaterial system. Such shape-morphing materials have potential for use in many fields, including robotics, telecommunications and medicine. Recent work has shown mechanically adjustable frequency selectivity and antenna tunability through mechanically driven shape changes. Here, we explore a simple meta-atom chain structure where hinged joints connect each meta-atom to its two neighbours. We demonstrate the actuation of this simple mechanism by the application of electromagnetic signals, which propagate along the chain while generating torques about each hinge.

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Publication Details

Journal
Royal Society Open Science
Published
2026-06-17
DOI
https://doi.org/10.1098/rsos.252215
Primary Topic
Advanced Materials and Mechanics
Type
article
Field-Weighted Citation Impact
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article

Programmable shape transformations of electro-mechanical metamaterial muscles

C.J. Stevens, L. Solymár, E. Shamonina, Kailun Xu
Royal Society Open Science
Advanced Materials and Mechanics
article

Programmable shape transformations of electro-mechanical metamaterial muscles

C.J. Stevens, L. Solymár, E. Shamonina, Kailun Xu
article en

Abstract

Abstract Studies of electromagnetic and mechanical metamaterials are, for the large part, two quite separate disciplines. Here, we explore the potential for using electromagnetic-derived forces to control the shape changes in a mechanical metamaterial system. Such shape-morphing materials have potential for use in many fields, including robotics, telecommunications and medicine. Recent work has shown mechanically adjustable frequency selectivity and antenna tunability through mechanically driven shape changes. Here, we explore a simple meta-atom chain structure where hinged joints connect each meta-atom to its two neighbours. We demonstrate the actuation of this simple mechanism by the application of electromagnetic signals, which propagate along the chain while generating torques about each hinge.

Royal Society Open ScienceVol. 13(6)
University of Oxford (GB)
Openalex Percentile: Top 11%
Advanced Materials and Mechanics
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