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骨中的矿物质-胶原蛋白界面

The Mineral-Collagen Interface in Bone.

作者信息

Stock S R

机构信息

Department of Cell and Molecular Biology, Feinberg School of Medicine, Northwestern University, 303 E. Chicago Ave., Chicago, IL, 60611-3008, USA,

出版信息

Calcif Tissue Int. 2015 Sep;97(3):262-80. doi: 10.1007/s00223-015-9984-6. Epub 2015 Apr 1.

Abstract

The interface between collagen and the mineral reinforcement phase, carbonated hydroxyapatite (cAp), is essential for bone's remarkable functionality as a biological composite material. The very small dimensions of the cAp phase and the disparate natures of the reinforcement and matrix are essential to the material's performance but also complicate study of this interface. This article summarizes what is known about the cAp-collagen interface in bone and begins with descriptions of the matrix and reinforcement roles in composites, of the phases bounding the interface, of growth of cAp growing within the collagen matrix, and of the effect of intra- and extrafibrilar mineral on determinations of interfacial properties. Different observed interfacial interactions with cAp (collagen, water, non-collagenous proteins) are reviewed; experimental results on interface interactions during loading are reported as are their influence on macroscopic mechanical properties; conclusions of numerical modeling of interfacial interactions are also presented. The data suggest interfacial interlocking (bending of collagen molecules around cAp nanoplatelets) and water-mediated bonding between collagen and cAp are essential to load transfer. The review concludes with descriptions of areas where new research is needed to improve understanding of how the interface functions.

摘要

胶原蛋白与矿物增强相——碳酸羟基磷灰石(cAp)之间的界面,对于骨骼作为一种生物复合材料所具有的卓越功能至关重要。cAp相的极小尺寸以及增强相和基质截然不同的性质,对材料的性能至关重要,但也使对该界面的研究变得复杂。本文总结了关于骨骼中cAp - 胶原蛋白界面的已知信息,并首先描述了复合材料中基质和增强相的作用、界定界面的相、cAp在胶原蛋白基质中的生长,以及纤维内和纤维外矿物质对界面性质测定的影响。回顾了观察到的与cAp(胶原蛋白、水、非胶原蛋白)的不同界面相互作用;报告了加载过程中界面相互作用的实验结果及其对宏观力学性能的影响;还介绍了界面相互作用数值模拟的结论。数据表明界面互锁(胶原蛋白分子围绕cAp纳米片弯曲)以及胶原蛋白和cAp之间的水介导键合对于载荷传递至关重要。综述最后描述了需要开展新研究以增进对界面功能理解的领域。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/1e9b/4727835/1cb4bddf6d70/nihms748366f1.jpg

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