Design of novel non-periodic biomimetic bone scaffolds using the Moving Morphable Components method

• MMC method was employed to design novel non-periodic biomimetic bone scaffolds. • Elastic properties of the novel scaffolds closely matched those of target bone tissues. • Anisotropies of the scaffolds were also close to those of the target bone tissues. • The scaffolds had not only suitable mechanical properties but also improved permeability. • The designed novel scaffolds exhibited excellent manufacturability. Bone scaffolds are widely used in orthopedics for tissue repair and regeneration, yet achieving optimal bone growth through porous scaffolds remains a significant challenge. In this study, the Moving Morphable Components (MMC) method was employed to design novel non-periodic biomimetic bone scaffolds. Four types of scaffolds were created to mimic different human bone tissues. Their average elastic moduli were evaluated, and found to closely match with those of the corresponding bone tissues. Compared to triply periodic minimal surface (TPMS) structures, the novel scaffolds exhibited significantly higher permeability − up to 3.70 × 10 −8 m 2 at a porosity of 62 %. These scaffolds demonstrated not only suitable mechanical properties but also enhanced permeability. Furthermore, they showed a good manufacturability, making them practical for fabrication. Overall, the MMC-designed scaffolds present a promising solution with matched mechanical properties and superior permeability, potentially reducing stress shielding and promoting bone cell growth and regeneration in tissue engineering applications.

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Publication Details

Journal
Materials & Design
Published
2025-09-25
DOI
https://doi.org/10.1016/j.matdes.2025.114815
Citations
2
Primary Topic
Innovations in Concrete and Construction Materials
Type
article
Field-Weighted Citation Impact
2.01

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article

Design of novel non-periodic biomimetic bone scaffolds using the Moving Morphable Components method

Sergei Bosiakov, Michael Zhuravkov, Mohammed Rafiq Abdul Kadir, Hao Wang et al.
2 citations
Materials & Design
Innovations in Concrete and Construction Materials
2.01
article

Design of novel non-periodic biomimetic bone scaffolds using the Moving Morphable Components method

Sergei Bosiakov, Michael Zhuravkov, Mohammed Rafiq Abdul Kadir, Hao Wang, Jiongyi Wu, Youwei Zhang, Jian Jiang, Yongtao Lyu, Yuhang Chen
article en
2 citations

Abstract

• MMC method was employed to design novel non-periodic biomimetic bone scaffolds. • Elastic properties of the novel scaffolds closely matched those of target bone tissues. • Anisotropies of the scaffolds were also close to those of the target bone tissues. • The scaffolds had not only suitable mechanical properties but also improved permeability. • The designed novel scaffolds exhibited excellent manufacturability. Bone scaffolds are widely used in orthopedics for tissue repair and regeneration, yet achieving optimal bone growth through porous scaffolds remains a significant challenge. In this study, the Moving Morphable Components (MMC) method was employed to design novel non-periodic biomimetic bone scaffolds. Four types of scaffolds were created to mimic different human bone tissues. Their average elastic moduli were evaluated, and found to closely match with those of the corresponding bone tissues. Compared to triply periodic minimal surface (TPMS) structures, the novel scaffolds exhibited significantly higher permeability − up to 3.70 × 10 −8 m 2 at a porosity of 62 %. These scaffolds demonstrated not only suitable mechanical properties but also enhanced permeability. Furthermore, they showed a good manufacturability, making them practical for fabrication. Overall, the MMC-designed scaffolds present a promising solution with matched mechanical properties and superior permeability, potentially reducing stress shielding and promoting bone cell growth and regeneration in tissue engineering applications.

Materials & DesignVol. 259
National Natural Science Foundation of China, Fundamental Research Funds for the Central Universities
Openalex Percentile: Top 12%
Innovations in Concrete and Construction Materials
2.01
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