生物矿化
牙本质
无定形磷酸钙
矿化组织
结晶
胶原纤维
化学
成核
生物物理学
人类牙齿
矿化(土壤科学)
再矿化
纤维发生
材料科学
牙科
磷酸盐
纤维
化学工程
生物化学
复合材料
生物
无机化学
有机化学
氮气
搪瓷漆
工程类
医学
氟化物
作者
Libang He,Hao Yu,Zhen Li,Hongling Liu,Meiying Shao,Xin Xu,Kunneng Liang,Yuan Gao,Yuanqing He,Jianshu Li,Jiyao Li,Lei Cheng,C. van Loveren
标识
DOI:10.1016/j.jsb.2019.05.010
摘要
A single biomineralization of demineralized dentin is significant to restore the demineralized dentin due to dental caries or erosion. In recent years, meaningful progress has been made regarding the mechanisms involved in the biomineralization of dentin collagen. Concepts changing from the classical ion-based crystallization to non-classical particle-based crystallization, inspired a different strategy to infiltrate the demineralized dentin collagen. The remarkable discovery was the report of liquid-like amorphous calcium phosphate as nanoprecursor particles to carbonated hydroxyapatite. The non-collagenous proteins and their analogues are widely investigated, for their key role in controlling mineralization during the process of crystal nucleation and growth. The in-depth studies of the gap zone provided significant improvements in our understanding of the structure of collagen and of the intrafibrillar remineralization of collagen fibrils. The collagen is not a passive substrate as previously supposed, and the active role of guiding nanoprecursor infiltration and mediating its nucleation has been demonstrated. Furthermore, recovery of mechanical properties has been evaluated to determine the effectiveness of dentin remineralization. Finally, the problems regarding the origin formation of the calcium phosphate that is deposited in the collagen, and the exact interactions between the non-collagenous proteins, amorphous calcium phosphate and collagen are still unclear. We reviewed the importance of these findings in enriching our understanding of dentin biomineralization, while addressing certain limitations that are inherent to in vitro studies.
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