Litcius/Paper detail

Ceria Nanoenzyme‐Based Hydrogel with Antiglycative and Antioxidative Performance for Infected Diabetic Wound Healing

Fang Cheng, Shenqiang Wang, Hua Zheng, Haidong Shen, Li Zhou, Zuoting Yang, Qiyan Li, Qiuyu Zhang, Hepeng Zhang

2022Small Methods64 citationsDOI

Abstract

Diabetic wound healing still faces a dilemma because of the hostile hyperglycemic, oxidative, and easily-infected wound microenvironment. In addition, advanced glycation end products (AGEs) further impede wound repair by altering the immunological balance. Herein, ceria nanorods with distinctive antiglycative and excellent antioxidative capacities are innovatively introduced into a self-healing and erasable hydrogel, which could reshape the wound microenvironment by expediting hemostasis, inhibiting infection, reducing AGEs, and continuously depleting reactive oxygen species. The remitted oxidative stress and glycosylation synergistically regulate inflammatory responses, and promote revascularization and extracellular matrix deposition, resulting in accelerated diabetic wound repair. This study provides a highly efficient strategy for constructing nanoenzyme-reinforced antiglycative hydrogel that regulates every wound healing stage for diabetic wound management.

Topics & Concepts

Wound healingGlycationOxidative stressExtracellular matrixInflammationReactive oxygen speciesChemistryHemostasisMedicinePharmacologySurgeryImmunologyDiabetes mellitusBiochemistryEndocrinologyAdvanced Glycation End Products researchWound Healing and TreatmentsAdvanced Nanomaterials in Catalysis