3D arc-shaped structure design of compression-twist coupling metamaterial

Abstract Compression-twist coupling (CTC) metamaterials are special mechanical metamaterials that convert axial force into circumferential force. Based on the dislocated re-entrant structure, a novel structure with line-shaped polyline rods is proposed to achieve the CTC effect. To reduce the stress concentration, a corresponding arc-shaped CTC structure is further designed, which is the focus structure of our study. The influence of the geometrical parameters of the arc-shaped structures on the CTC effect is explored through energy-based theoretical analysis, finite element simulation, and validation experiments. Finally, the CTC effects of extended single-side arc-shaped and multi-arc design structures are discussed. Compared with previous designs, the novel structure proposed in this work enhances the design flexibility and achieves a significant CTC effect, which can serve as a reference for the design of new CTC metamaterials.

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Publication Details

Journal
Smart Materials and Structures
Published
2024-12-20
DOI
https://doi.org/10.1088/1361-665x/ada21b
Citations
3
Primary Topic
Dynamics and Control of Mechanical Systems
Type
article
Field-Weighted Citation Impact
0.98

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article

3D arc-shaped structure design of compression-twist coupling metamaterial

Miaolin Feng, Xuan Chen, Shuping Huang, Haibing Wang et al.
3 citations
Smart Materials and Structures
Dynamics and Control of Mechanical Systems
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article

3D arc-shaped structure design of compression-twist coupling metamaterial

Miaolin Feng, Xuan Chen, Shuping Huang, Haibing Wang, Liuyang Li
article en
3 citations

Abstract

Abstract Compression-twist coupling (CTC) metamaterials are special mechanical metamaterials that convert axial force into circumferential force. Based on the dislocated re-entrant structure, a novel structure with line-shaped polyline rods is proposed to achieve the CTC effect. To reduce the stress concentration, a corresponding arc-shaped CTC structure is further designed, which is the focus structure of our study. The influence of the geometrical parameters of the arc-shaped structures on the CTC effect is explored through energy-based theoretical analysis, finite element simulation, and validation experiments. Finally, the CTC effects of extended single-side arc-shaped and multi-arc design structures are discussed. Compared with previous designs, the novel structure proposed in this work enhances the design flexibility and achieves a significant CTC effect, which can serve as a reference for the design of new CTC metamaterials.

Smart Materials and StructuresVol. 34(2)
Shanghai Jiao Tong University (CN), Marine Design & Research Institute of China (CN)
National Natural Science Foundation of China, Natural Science Foundation of Jiangsu Province, Fundamental Research Funds for the Central Universities
Affordable and clean energy
Openalex Percentile: Top 22%
Dynamics and Control of Mechanical Systems
0.98
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