Smart, Biomimetic Periosteum Created from the Cerium(III, IV) Oxide-Mineralized Eggshell Membrane

骨膜 材料科学 骨愈合 氧化铈 生物相容性 细胞生物学 氧化物 生物 解剖 冶金
作者
Qian‐qian Wan,Kai Jiao,Yu‐xuan Ma,Bo Gao,昭 高木,Yirong Wang,Yanhao Wang,Lian Duan,Kehui Xu,Jun‐ting Gu,Jianfei Yan,Jing Wang,Min‐juan Shen,Franklin R. Tay,Li‐na Niu
出处
期刊:ACS Applied Materials & Interfaces [American Chemical Society]
卷期号:14 (12): 14103-14119 被引量:29
标识
DOI:10.1021/acsami.2c02079
摘要

The periosteum orchestrates the microenvironment of bone regeneration, including facilitating local neuro-vascularization and regulating immune responses. To mimic the role of natural periosteum for bone repair enhancement, we adopted the principle of biomimetic mineralization to delicately inlay amorphous cerium oxide within eggshell membranes (ESMs) for the first time. Cerium from cerium oxide possesses unique ability to switch its oxidation state from cerium III to cerium IV and vice versa, which provides itself promising potential for biomedical applications. ESMs are mineralized with cerium(III, IV) oxide and examined for their biocompatibility. Apart from serving as physical barriers, periosteum-like cerium(III, IV) oxide-mineralized ESMs are biocompatible and can actively regulate immune responses and facilitate local neuro-vascularization along with early-stage bone regeneration in a murine cranial defect model. During the healing process, cerium-inlayed biomimetic periosteum can boost early osteoclastic differentiation of macrophage lineage cells, which may be the dominant mediator of the local repair microenvironment. The present work provides novel insights into expanding the definition and function of a biomimetic periosteum to boost early-stage bone repair and optimize long-term repair with robust neuro-vascularization. This new treatment strategy which employs multifunctional bone-and-periosteum-mimicking systems creates a highly concerted microenvironment to expedite bone regeneration.
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