Recent Advances of Auxetic Metamaterials in Smart Materials and Structural Systems

Abstract Auxetic metamaterials refer to materials and structures with extraordinary deformation, i.e., transverse expansion (contraction) under uniaxial tension (compression). In recent decades, a very wide range of innovative and functional performance has been discovered stemming from this extraordinary behavior. This desirable exhibition of adaptivity, programmability, and functionality provides great potential in soft intelligent systems. However, thus far, the mainstream research on auxetic metamaterials has focused on subjective design, monotonic mechanical properties, and passive tunability. This review provides a thorough overview of auxetic metamaterials from classical mechanical properties to intelligent applications, with the primary objective of proposing a new roadmap of auxetics for intelligent advances in this interdisciplinary field. The fundamental works are categorized in different configurations and mechanisms. In particular, the intelligent functional integration of shape morphing, actuation, sensing, multiphysical response, and inverse design is reviewed in detail. To accelerate the development of auxetics in smart materials and structural systems, the potential intelligent applications of auxetic metamaterials are generalized into soft robotics (outside the body), human–machine interaction (surrounding the body), and healthcare devices (inside the body). Finally, several significant research topics for intelligent auxetics are emphasized in theory, design, material choice, manufacturing technique, properties, and applications.

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Publication Details

Journal
Advanced Functional Materials
Published
2025-02-26
DOI
https://doi.org/10.1002/adfm.202421746
Citations
47
Primary Topic
Cellular and Composite Structures
Type
article
Field-Weighted Citation Impact
33.53

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article

Recent Advances of Auxetic Metamaterials in Smart Materials and Structural Systems

Wei Jiang, Xiang Yu Zhang, Xin Ren, Yi Min Xie et al.
47 citations
Advanced Functional Materials
Cellular and Composite Structures
33.53
article

Recent Advances of Auxetic Metamaterials in Smart Materials and Structural Systems

Wei Jiang, Xiang Yu Zhang, Xin Ren, Yi Min Xie, Wei Jiang, Jun Dong, Ken E. Evans, Yi Zhang
article en
47 citations

Abstract

Abstract Auxetic metamaterials refer to materials and structures with extraordinary deformation, i.e., transverse expansion (contraction) under uniaxial tension (compression). In recent decades, a very wide range of innovative and functional performance has been discovered stemming from this extraordinary behavior. This desirable exhibition of adaptivity, programmability, and functionality provides great potential in soft intelligent systems. However, thus far, the mainstream research on auxetic metamaterials has focused on subjective design, monotonic mechanical properties, and passive tunability. This review provides a thorough overview of auxetic metamaterials from classical mechanical properties to intelligent applications, with the primary objective of proposing a new roadmap of auxetics for intelligent advances in this interdisciplinary field. The fundamental works are categorized in different configurations and mechanisms. In particular, the intelligent functional integration of shape morphing, actuation, sensing, multiphysical response, and inverse design is reviewed in detail. To accelerate the development of auxetics in smart materials and structural systems, the potential intelligent applications of auxetic metamaterials are generalized into soft robotics (outside the body), human–machine interaction (surrounding the body), and healthcare devices (inside the body). Finally, several significant research topics for intelligent auxetics are emphasized in theory, design, material choice, manufacturing technique, properties, and applications.

Advanced Functional MaterialsVol. 35(23)
Nanjing Tech University (CN), Hebei University of Technology (CN), University of Exeter (GB), Zhejiang University (CN), RMIT University (AU)
National Natural Science Foundation of China, Natural Science Foundation of Jiangsu Province
Openalex Percentile: Top 0%
Cellular and Composite Structures
33.53
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