姜黄素
骨吸收
金黄色葡萄球菌
纳米颗粒
骨愈合
破骨细胞
抗菌剂
吸收
材料科学
活性氧
药理学
化学
微生物学
医学
纳米技术
生物化学
细菌
生物
受体
病理
内科学
解剖
遗传学
作者
Zeyu Shou,Dong Yang,Yewen Liu,Jiawei Yu,Jiali Shou,Cai Ming,Lianxin Li,Shuohui Yuan,X. Wang
标识
DOI:10.1002/adhm.202503470
摘要
Abstract To address the clinical challenges of bacterial infection, inflammation, oxidative stress, ischemia‐hypoxia, and excessive bone resorption during infected bone therapy, a multifunctional nanoparticle (Cur/Sr@CAMEL0 NPs) is engineered by integrating a self‐assembled curcumin‐strontium metal‐phenolic network core (Cur/Sr NPs) with a hexameric lysine‐conjugated antimicrobial peptide (K6‐CAMEL0) via surface modification. The resultant nanoparticle exhibits distinctive morphological and structural characteristics, along with favorable cellular compatibility. Functionally, it is demonstrated to exhibit broad‐spectrum antibacterial activity, along with inflammation and reactive oxygen species (ROS) scavenging capabilities, pro‐angiogenic effects, and significant promotion of necrotic bone resorption and normal bone regeneration. In an infected bone defect animal model, the composite nanoparticle effectively eradicated Staphylococcus aureus ( S. aureus ) colonization and facilitated the bone regeneration process through single‐dose administration. These findings collectively highlight the therapeutic potential of Cur/Sr@CAMEL0 as a multifunctional platform for managing bone infections, offering a promising strategy to address complex challenges in infected bone diseases.
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