Localized Surface Plasmon Resonance-Enhanced Photocatalytic Antibacterial of In-situ Sprayed 0D/2D Heterojunction Composite Hydrogel for Treating Diabetic Wound.
Zhengao WangWei LiYouzhun FanCairong XiaoZhifeng ShiYunbing ChangGuoyan LiangChengli LiuZurong ZhuPeng YuXuebin YangZhiguo SongChengyun NingPublished in: Advanced healthcare materials (2024)
Chronic diabetic wounds pose significant challenges due to uncontrolled bacterial infections, prolonged inflammation, and impaired angiogenesis. The rapid advancement of photo-responsive antibacterial therapy showed promise in addressing these complex issues, particularly utilizing 2D heterojunction materials, which offer unique properties. Herein, we designed an in situ sprayed Bi/BiOCl 0D/2D heterojunction composite fibrin gel with the characteristics of rapid formation and effective near-infrared activation for the treatment of non-healing diabetes-infected wounds. The sprayed composite gel can provide protective shielding for skin tissues and promote endothelial cell proliferation, vascularization, and angiogenesis. The Bi/BiOCl 0D/2D heterojunction, with its localized surface plasmon resonance (LSPR), can overcome the wide bandgap limitation of BiOCl, enhancing the generation of local heat and reactive oxygen species under near-infrared irradiation. This facilitated bacterial elimination and reduced inflammation, supporting the accelerated healing of diabetes-infected wounds. Our study underscores the potential of LSPR-enhanced heterojunctions as advanced wound therapies for chronic diabetic wounds. This article is protected by copyright. All rights reserved.
Keyphrases
- wound healing
- visible light
- solar cells
- perovskite solar cells
- type diabetes
- reactive oxygen species
- cell proliferation
- oxidative stress
- cardiovascular disease
- glycemic control
- endothelial cells
- gene expression
- big data
- cell cycle
- loop mediated isothermal amplification
- bone marrow
- human health
- combination therapy
- cancer therapy
- replacement therapy
- silver nanoparticles
- artificial intelligence
- climate change