破骨细胞
表观遗传学
抗菌剂
肽
化学
细胞生物学
细胞分化
微生物学
生物
生物化学
基因
受体
作者
Yuerong Gao,Yingzhen Lai,Hong Wang,Jingjing Su,Chen Yan,Shunjie Mao,Xin Guan,Yihuang Cai,Jiang Chen
标识
DOI:10.3389/fbioe.2024.1497265
摘要
Implant surface designs have advanced to address challenges in oral rehabilitation for healthy and compromised bone. Several studies have analyzed the effects of altering material surfaces on osteogenic differentiation. However, the crucial role of osteoclasts in osseointegration has often been overlooked. Overactive osteoclasts can compromise implant stability. In this study, we employed a silanization method to alter pure titanium to produce a surface loaded with the antimicrobial peptide GL13K that enhanced biocompatibility. Pure titanium (Ti), silanization-modified titanium, and GL13K-modified titanium (GL13K-Ti) were co-cultured with macrophages. Our findings indicated that GL13K-Ti partially inhibited osteoclastogenesis and expression of osteoclast-related genes and proteins by limiting the formation of the actin ring, an important structure for osteoclast bone resorption. Our subsequent experiments confirmed the epigenetic role in regulating this process. GL13K-Ti was found to impact the degree of methylation modifications of H3K27 in the
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