仿生矿化——受自然启发的硬组织再生材料开发策略。

IF 0.9
Lin Xue Zhang, Zuo Ying Yuan, Yu Ming Zhao, Yun Fan Zhang
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引用次数: 0

摘要

生物矿化是一个显著的生物过程,生物体对无机结晶相的成核和生长施加精确的控制,从而形成具有特殊机械和功能特性的分层结构的生物复合材料。由于骨骼和牙齿的损伤直接影响日常生活,各种仿生矿化材料已被设计用于生物医学应用。虽然仿生材料通常表现出优越的机械性能和生物功能,但仿生结构与天然结构之间仍然存在显著差异,特别是在机械性能和多尺度结构组织方面。本文综述了矿化微环境中I型胶原原纤维、无定形磷酸钙相和多功能非胶原蛋白之间的动态相互作用。此外,它还评估了基于仿生矿化策略的先进生物材料的最新进展,并寻求为研究人员探索再生医学和硬组织重建中的生物矿化原理提供创新和有前途的解决方案。讨论了存在的问题和今后的发展方向。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Biomimetic Mineralisation - Nature-inspired Strategy for Promising Hard Tissue Regenerative Materials Development.

Biomineralisation is a remarkable biological process in which living organisms exert precise control over the nucleation and growth of inorganic crystalline phases, resulting in the formation of hierarchically structured biocomposites that exhibit exceptional mechanical and functional properties. Since damage to bone and teeth directly affect everyday life, various biomimetic mineralised materials have been engineered for use in biomedical applications. While bioinspired materials typically demonstrate superior mechanical properties and biological functions, significant disparities remain between biomimetic constructs and their natural counterparts, especially concerning mechanical performance and multiscale structural organisation. This review initially describes the dynamic reciprocity between type I collagen fibrils, amorphous calcium phosphate phases and multifunctional non-collagenous protein within mineralisation microenvironments. Furthermore, it evaluates recent progress in advanced biomaterials based on biomimetic mineralisation strategies and seeks to spark innovative and promising solutions for investigators exploring biomineralisation principles in regenerative medicine and hard tissue reconstruction. Existing problems and future directions are discussed.

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