Nano implant surface triggers autophagy through membrane curvature distortion to regulate the osteogenic differentiation.

IF 3.9 3区 医学 Q2 ENGINEERING, BIOMEDICAL Biomedical materials Pub Date : 2024-04-24 DOI:10.1088/1748-605X/ad42eb
Guangwen Li, Bei Chang, Yuqi Zhao, Haochen Wang, Yan Zhang, Meiqi Zhao, Li Zhang, Wen Song, Yumei Zhang
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Abstract

Anodized titania nanotubes have been considered as an effective coating for bone implants due to their ability to induce osteogenesis, but the mechanism is not fully understood. Our previous study indicated the potential role of autophagy in osteogenic regulation of nanotubular surface, whereas how the autophagy is activated remains unknown. In this study, we focused on the cell membrane curvature-sensing protein Bif-1 and its effect on the regulation of autophagy. Both autophagosome formation and autophagic flux are enhanced on the nanotubular surface, as indicated by LC3-II accumulation and p62 degradation. In the meanwhile, the Bif-1 was significantly upregulated, which contributed to autophagy activation and osteogenic differentiation through Beclin-1/PIK3C3 signaling pathway. In conclusion, these findings may provide deeper insight into the signaling transition from mechanical to biological across the cell membrane.
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纳米植入物表面通过膜曲率变形引发自噬,从而调节成骨分化。
阳极氧化钛纳米管具有诱导骨生成的能力,因此被认为是骨植入物的有效涂层,但其机制尚未完全明了。我们之前的研究表明,自噬在纳米管表面的成骨调控中可能发挥作用,但自噬是如何被激活的仍不清楚。在本研究中,我们重点研究了细胞膜曲率感应蛋白 Bif-1 及其对自噬的调控作用。在纳米管表面,自噬体的形成和自噬通量都得到了增强,LC3-II的积累和p62的降解都表明了这一点。同时,Bif-1明显上调,通过Beclin-1/PIK3C3信号通路促进自噬激活和成骨分化。总之,这些发现可能会让人们更深入地了解细胞膜从机械信号到生物信号的转变。
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来源期刊
Biomedical materials
Biomedical materials 工程技术-材料科学:生物材料
CiteScore
6.70
自引率
7.50%
发文量
294
审稿时长
3 months
期刊介绍: The goal of the journal is to publish original research findings and critical reviews that contribute to our knowledge about the composition, properties, and performance of materials for all applications relevant to human healthcare. Typical areas of interest include (but are not limited to): -Synthesis/characterization of biomedical materials- Nature-inspired synthesis/biomineralization of biomedical materials- In vitro/in vivo performance of biomedical materials- Biofabrication technologies/applications: 3D bioprinting, bioink development, bioassembly & biopatterning- Microfluidic systems (including disease models): fabrication, testing & translational applications- Tissue engineering/regenerative medicine- Interaction of molecules/cells with materials- Effects of biomaterials on stem cell behaviour- Growth factors/genes/cells incorporated into biomedical materials- Biophysical cues/biocompatibility pathways in biomedical materials performance- Clinical applications of biomedical materials for cell therapies in disease (cancer etc)- Nanomedicine, nanotoxicology and nanopathology- Pharmacokinetic considerations in drug delivery systems- Risks of contrast media in imaging systems- Biosafety aspects of gene delivery agents- Preclinical and clinical performance of implantable biomedical materials- Translational and regulatory matters
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