Effect of microplatelet orientation in 3D printed microplatelet reinforced composites with bioinspired microstructures
Complex microstructures are the hallmark of natural ceramic biocomposites, but limited processing methods to reproduce them hinder the understanding of mineral orientation roles on the mechanical properties. This study investigates the influence of microplatelet orientation in composite materials, u...
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sg-ntu-dr.10356-1739422024-03-09T16:48:24Z Effect of microplatelet orientation in 3D printed microplatelet reinforced composites with bioinspired microstructures Peng, Weixiang Chan, Xin Ying Lee, Seo Heyong Le Ferrand, Hortense School of Mechanical and Aerospace Engineering School of Materials Science and Engineering Engineering 3D printing Reinforced composite Complex microstructures are the hallmark of natural ceramic biocomposites, but limited processing methods to reproduce them hinder the understanding of mineral orientation roles on the mechanical properties. This study investigates the influence of microplatelet orientation in composite materials, utilizing the magnetically assisted direct ink writing method (M-DIW) to create microstructured microplatelet-reinforced composites. Experimental and computational approaches are employed to explore the critical role of microplatelet orientation on the flexural properties of these materials. Horizontal microplatelets are found to significantly enhance the composite's flexural toughness by promoting overlap and increasing fracture energy during crack propagation. Vertical microplatelets contribute to increased flexural modulus and strength. Perpendicular microplatelets facilitate straight crack paths and smoother fracture surfaces. Moreover, complex microstructural designs were introduced by strategically combining microplatelet orientations to optimize mechanical properties. These findings emphasize the vital role of microplatelet orientation in composite materials, offering potential for tailored materials with superior performance. National Research Foundation (NRF) Submitted/Accepted version The authors acknowledge funding from the National Research Foundation of Singapore, Singapore (Award No. NRFF12 2020-0002). 2024-03-08T01:45:09Z 2024-03-08T01:45:09Z 2024 Journal Article Peng, W., Chan, X. Y., Lee, S. H. & Le Ferrand, H. (2024). Effect of microplatelet orientation in 3D printed microplatelet reinforced composites with bioinspired microstructures. MRS Bulletin. https://dx.doi.org/10.1557/s43577-024-00670-4 0883-7694 https://hdl.handle.net/10356/173942 10.1557/s43577-024-00670-4 en NRFF12 2020-0002 MRS Bulletin © 2024 The Author(s), under exclusive license to the Materials Research Society. All rights reserved. This article may be downloaded for personal use only. Any other use requires prior permission of the copyright holder. The Version of Record is available online at http://doi.org/10.1557/s43577-024-00670-4. application/pdf |
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Engineering 3D printing Reinforced composite Peng, Weixiang Chan, Xin Ying Lee, Seo Heyong Le Ferrand, Hortense Effect of microplatelet orientation in 3D printed microplatelet reinforced composites with bioinspired microstructures |
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Complex microstructures are the hallmark of natural ceramic biocomposites, but limited processing methods to reproduce them hinder the understanding of mineral orientation roles on the mechanical properties. This study investigates the influence of microplatelet orientation in composite materials, utilizing the magnetically assisted direct ink writing method (M-DIW) to create microstructured microplatelet-reinforced composites. Experimental and computational approaches are employed to explore the critical role of microplatelet orientation on the flexural properties of these materials. Horizontal microplatelets are found to significantly enhance the composite's flexural toughness by promoting overlap and increasing fracture energy during crack propagation. Vertical microplatelets contribute to increased flexural modulus and strength. Perpendicular microplatelets facilitate straight crack paths and smoother fracture surfaces. Moreover, complex microstructural designs were introduced by strategically combining microplatelet orientations to optimize mechanical properties. These findings emphasize the vital role of microplatelet orientation in composite materials, offering potential for tailored materials with superior performance. |
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School of Mechanical and Aerospace Engineering |
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School of Mechanical and Aerospace Engineering Peng, Weixiang Chan, Xin Ying Lee, Seo Heyong Le Ferrand, Hortense |
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Article |
author |
Peng, Weixiang Chan, Xin Ying Lee, Seo Heyong Le Ferrand, Hortense |
author_sort |
Peng, Weixiang |
title |
Effect of microplatelet orientation in 3D printed microplatelet reinforced composites with bioinspired microstructures |
title_short |
Effect of microplatelet orientation in 3D printed microplatelet reinforced composites with bioinspired microstructures |
title_full |
Effect of microplatelet orientation in 3D printed microplatelet reinforced composites with bioinspired microstructures |
title_fullStr |
Effect of microplatelet orientation in 3D printed microplatelet reinforced composites with bioinspired microstructures |
title_full_unstemmed |
Effect of microplatelet orientation in 3D printed microplatelet reinforced composites with bioinspired microstructures |
title_sort |
effect of microplatelet orientation in 3d printed microplatelet reinforced composites with bioinspired microstructures |
publishDate |
2024 |
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https://hdl.handle.net/10356/173942 |
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