Synergistic Effect of Anti‐Infection, Anti‐Inflammatory and Pro‐Angiogenic for Novel Nanozyme‐Reinforced Supramolecular Hydrogel in Diabetic Wound Healing
Ye Zhang, Xia Zhao, Xiaohan Zhang, Fengshi Shang, Baorui Li, Wenjie Wang, Xiaohan Zhang, Biao Wang 等 11 位
Tianjin University of Science and Technology Shandong Academy of Agricultural Sciences China Aerospace Science and Industry Corporation (China) First Affiliated Hospital of Henan University of Traditional Chinese Medicine
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摘要与影响
A multifunctional supramolecular hydrogel (TF‐MOD) through the synergistic integration of thioctic acid (TA), Fe 3+ , and MnO 2 @dopamine (DA) nanozymes was developed for diabetic wounds. The TA‐based dynamic disulfide network offered remarkable injectability, tissue adhesion, and controllable degradation. The Fe 3+ coordination significantly improved mechanical stability through metal‐ligand interactions. The incorporated MnO 2 @DA nanozymes created a triple therapeutic synergy through cooperative antioxidant effects (MnO 2 ’s catalase‐like activity, TA's redox activity achieving 92.3% H 2 O 2 clearance), antimicrobial action (photothermal therapy with a 26.1°C temperature increase and TA's inherent antibacterial properties), and enhanced anti‐inflammatory effects combined with pro‐angiogenic effects mediated by the nanozymes. Through rheological analysis, lap‐shear testing, and injectability assessments, the establishment of a stable yet dynamic network structure exhibited remarkable self‐healing, injectability, and tissue adhesion. The TF‐MOD hydrogel was designed to promote diabetic wound healing by providing sustained antibacterial efficacy (16.1% residual MRSA biofilm), anti‐inflammatory activity, and pro‐angiogenic effects, thereby enhancing collagen deposition (68.2%) and reducing wound area (15.2% remaining on day 10) significantly. Additionally, the TF‐MOD hydrogel demonstrated dual therapeutic effects for both infected wounds (12.4% residual area, 67.8% collagen deposition) and incisional wounds (214.8 µm width). The TF‐MOD hydrogel served as a novel and versatile platform for diabetic wound therapy.
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学科主题
生物医学Wound Healing and Treatments
Hydrogels: synthesis, properties, applications · Advanced Nanomaterials in Catalysis
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