Development of a textile structure for multi-directional auxetic deformation
[Display omitted] •A new 3D multi-directional textile auxetic structure has been developed in current work.•The deformation behavior data simulated from FE model shows excellent agreement with additively manufactured 2D material.•The developed model was subsequently expanded for 3D geometry to predi...
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| Published in | Materials & design Vol. 223; p. 111237 |
|---|---|
| Main Authors | , |
| Format | Journal Article |
| Language | English |
| Published |
Elsevier Ltd
01.11.2022
Elsevier |
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| Abstract | [Display omitted]
•A new 3D multi-directional textile auxetic structure has been developed in current work.•The deformation behavior data simulated from FE model shows excellent agreement with additively manufactured 2D material.•The developed model was subsequently expanded for 3D geometry to predict the auxetic deformation behavior in each direction.•This novel textile structure can find its application in designing multi-directional auxetic composites.
Previous studies of auxetic composites reinforced with woven fiber structures focused on unidirectional tension or compression. Multiple fibers are often required to play different roles in the structure, making it difficult to fully exploit the advantages of auxetic materials in real-world applications. Here, a single fiber-composed textile structure that can be stretched in various directions to produce auxetic behavior was developed. The single-layer structure was successfully fabricated using a three-dimensional (3D) printing method and evaluated by finite element analysis (FEA). The tensile deformation behavior of the 3D structure was simulated, and Poisson’s ratio (PR) values of the single-layer and 3D structures were obtained. There was good agreement between the FEA and experimental results, and the proposed structure can exhibit auxetic behavior when stretched in three orthogonal directions. With tensile displacements of 4 mm in the X and Z directions, the 3D structure was able to achieve maximum negative Poisson's ratio (NPR) values of −0.26 and −0.43, respectively. In particular, the diameter ratio of the fibers in each direction is an influential factor in terms of the degree of auxetic deformation of the textile. Thus, the results of this study could inform the development of novel multi-directional auxetic textile composites. |
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| AbstractList | [Display omitted]
•A new 3D multi-directional textile auxetic structure has been developed in current work.•The deformation behavior data simulated from FE model shows excellent agreement with additively manufactured 2D material.•The developed model was subsequently expanded for 3D geometry to predict the auxetic deformation behavior in each direction.•This novel textile structure can find its application in designing multi-directional auxetic composites.
Previous studies of auxetic composites reinforced with woven fiber structures focused on unidirectional tension or compression. Multiple fibers are often required to play different roles in the structure, making it difficult to fully exploit the advantages of auxetic materials in real-world applications. Here, a single fiber-composed textile structure that can be stretched in various directions to produce auxetic behavior was developed. The single-layer structure was successfully fabricated using a three-dimensional (3D) printing method and evaluated by finite element analysis (FEA). The tensile deformation behavior of the 3D structure was simulated, and Poisson’s ratio (PR) values of the single-layer and 3D structures were obtained. There was good agreement between the FEA and experimental results, and the proposed structure can exhibit auxetic behavior when stretched in three orthogonal directions. With tensile displacements of 4 mm in the X and Z directions, the 3D structure was able to achieve maximum negative Poisson's ratio (NPR) values of −0.26 and −0.43, respectively. In particular, the diameter ratio of the fibers in each direction is an influential factor in terms of the degree of auxetic deformation of the textile. Thus, the results of this study could inform the development of novel multi-directional auxetic textile composites. Previous studies of auxetic composites reinforced with woven fiber structures focused on unidirectional tension or compression. Multiple fibers are often required to play different roles in the structure, making it difficult to fully exploit the advantages of auxetic materials in real-world applications. Here, a single fiber-composed textile structure that can be stretched in various directions to produce auxetic behavior was developed. The single-layer structure was successfully fabricated using a three-dimensional (3D) printing method and evaluated by finite element analysis (FEA). The tensile deformation behavior of the 3D structure was simulated, and Poisson’s ratio (PR) values of the single-layer and 3D structures were obtained. There was good agreement between the FEA and experimental results, and the proposed structure can exhibit auxetic behavior when stretched in three orthogonal directions. With tensile displacements of 4 mm in the X and Z directions, the 3D structure was able to achieve maximum negative Poisson's ratio (NPR) values of −0.26 and −0.43, respectively. In particular, the diameter ratio of the fibers in each direction is an influential factor in terms of the degree of auxetic deformation of the textile. Thus, the results of this study could inform the development of novel multi-directional auxetic textile composites. |
| ArticleNumber | 111237 |
| Author | Li, Yuze Yu, Woong-Ryeol |
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| Keywords | Finite element analysis Auxetic textile structure Multi-dimensional auxetic deformation 3D printing |
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•A new 3D multi-directional textile auxetic structure has been developed in current work.•The deformation behavior data simulated from FE... Previous studies of auxetic composites reinforced with woven fiber structures focused on unidirectional tension or compression. Multiple fibers are often... |
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| SubjectTerms | 3D printing Auxetic textile structure Finite element analysis Multi-dimensional auxetic deformation |
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| Title | Development of a textile structure for multi-directional auxetic deformation |
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