Zhang Si-Jie, Xu Ran, He Shao-Bin, Sun Rong, Wang Guan-Nan, Wei Shu-Yi, Yan Xi-Yun, Fan Ke-Long
CAS Engineering Laboratory for Nanozyme, Key Laboratory of Biomacromolecules (CAS), CAS Center for Excellence in Biomacromolecules, Institute of Biophysics, Chinese Academy of Sciences, Beijing, 100101, China.
College of Life Sciences, University of Chinese Academy of Sciences, Beijing, 101408, China.
Mil Med Res. 2025 May 31;12(1):27. doi: 10.1186/s40779-025-00611-5.
The treatment of chronic wounds presents significant challenges due to the necessity of accelerating healing within complex microenvironments characterized by persistent inflammation and biochemical imbalances. Factors such as bacterial infections, hyperglycemia, and oxidative stress disrupt cellular functions and impair angiogenesis, substantially delaying wound repair. Nanozymes, which are engineered nanoscale materials with enzyme-like activities, offer distinct advantages over conventional enzymes and traditional nanomaterials, making them promising candidates for chronic wound treatment. To enhance their clinical potential, nanozyme-based catalytic systems are currently being optimized through formulation advancements and preclinical studies assessing their biocompatibility, anti-oxidant activity, antibacterial efficacy, and tissue repair capabilities, ensuring their safety and clinical applicability. When integrated into multifunctional wound dressings, nanozymes modulate reactive oxygen species levels, promote tissue regeneration, and simultaneously combat infections and oxidative damage, extending beyond conventional enzyme-like catalysis in chronic wound treatment. The customizable architectures of nanozymes enable precise therapeutic applications, enhancing their effectiveness in managing complex wound conditions. This review provides a comprehensive analysis of the incorporation of nanozymes into wound dressings, detailing fabrication methods and emphasizing their transformative potential in chronic wound management. By identifying and addressing key limitations, we introduce strategic advancements to drive the development of nanozyme-driven dressings, paving the way for next-generation chronic wound treatments.
由于需要在以持续炎症和生化失衡为特征的复杂微环境中加速愈合,慢性伤口的治疗面临重大挑战。细菌感染、高血糖和氧化应激等因素会破坏细胞功能并损害血管生成,从而严重延迟伤口修复。纳米酶是具有类酶活性的工程化纳米材料,与传统酶和传统纳米材料相比具有明显优势,使其成为慢性伤口治疗的有前途的候选者。为了提高其临床潜力,目前正在通过配方改进和临床前研究来优化基于纳米酶的催化系统,评估其生物相容性、抗氧化活性、抗菌功效和组织修复能力,以确保其安全性和临床适用性。当整合到多功能伤口敷料中时,纳米酶可调节活性氧水平,促进组织再生,同时对抗感染和氧化损伤,在慢性伤口治疗中超越了传统的类酶催化作用。纳米酶的可定制结构能够实现精确的治疗应用,提高其在处理复杂伤口状况方面的有效性。本文综述对纳米酶在伤口敷料中的应用进行了全面分析,详细介绍了制备方法,并强调了其在慢性伤口管理中的变革潜力。通过识别和解决关键限制,我们引入了战略进展以推动纳米酶驱动敷料的发展,为下一代慢性伤口治疗铺平道路。