Endogenous electric field coupling Mxene sponge for diabetic wound management: haemostatic, antibacterial, and healing

伤口愈合 细胞外基质 脚手架 海绵 化学 再生(生物学) 生物医学工程 壳聚糖 细胞生物学 内生 体内 生物物理学 免疫学 医学 生物化学 生物 生物技术 植物
作者
Hai Zhou,Lianglong Chen,Chaoyang Huang,Ziwei Jiang,Huihui Zhang,Xiaoyang Liu,Fengyi Zhu,Qi Wen,Pengwei Shi,Kun Liu,Lei Yang
出处
期刊:Journal of Nanobiotechnology [Springer Nature]
卷期号:22 (1)
标识
DOI:10.1186/s12951-024-02799-5
摘要

Improper management of diabetic wound effusion and disruption of the endogenous electric field can lead to passive healing of damaged tissue, affecting the process of tissue cascade repair. This study developed an extracellular matrix sponge scaffold (K1P6@Mxene) by incorporating Mxene into an acellular dermal stroma-hydroxypropyl chitosan interpenetrating network structure. This scaffold is designed to couple with the endogenous electric field and promote precise tissue remodelling in diabetic wounds. The fibrous structure of the sponge closely resembles that of a natural extracellular matrix, providing a conducive microenvironment for cells to adhere grow, and exchange oxygen. Additionally, the inclusion of Mxene enhances antibacterial activity(98.89%) and electrical conductivity within the scaffold. Simultaneously, K1P6@Mxene exhibits excellent water absorption (39 times) and porosity (91%). It actively interacts with the endogenous electric field to guide cell migration and growth on the wound surface upon absorbing wound exudate. In in vivo experiments, the K1P6@Mxene sponge reduced the inflammatory response in diabetic wounds, increased collagen deposition and arrangement, promoted microvascular regeneration, Facilitate expedited re-epithelialization of wounds, minimize scar formation, and accelerate the healing process of diabetic wounds by 7 days. Therefore, this extracellular matrix sponge scaffold, combined with an endogenous electric field, presents an appealing approach for the comprehensive repair of diabetic wounds.
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