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Autocatalytically hydroxyl-producing composite wound dressing for bacteria-infected wound healing

The creation of wound dressings with low drug resistance and broad-spectrum antibacterial capability is a key topic of scientific interest. To achieve this, a bactericidal wound dressing with the capacity to autocatalytically produce hydroxyl radicals (OH) was developed. The wound dressing was an el...

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Published in:Nanomedicine 2023-07, Vol.51, p.102683-102683, Article 102683
Main Authors: Zhang, Pinrui, Xu, Xiaomu, He, Wangmei, Li, Hong, Huang, Yue, Wu, Gang
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description The creation of wound dressings with low drug resistance and broad-spectrum antibacterial capability is a key topic of scientific interest. To achieve this, a bactericidal wound dressing with the capacity to autocatalytically produce hydroxyl radicals (OH) was developed. The wound dressing was an electrospun PCL/gelatin/glucose composite fiber mesh (PGD) with functional iron-containing metal-organic framework (Fe-MOF) nanozymes. These functional nanozymes (G@Fe) were formed by coupling glucose oxidase (GOx) and Fe-MOF through amide bonds. These nanozymes enabled the conversion of glucose released from the PGD composite mesh into hydroxyl radicals via an autocatalytic cascade reaction to destroy bacteria. The antibacterial efficiency of wound dressings and their stimulation of tissue regeneration were assessed using a MRSA-infected skin wound infection model on the back of SD mice. The G@Fe/PGD wound dressing exhibited improved wound healing capacity and had comparable biosafety to commercial silver-containing dressings, suggesting a potential replacement in the future. A self-activated antimicrobial wound dressing was created based on the cascade reaction between glucose and glucose oxidase (GOx). The wound dressing was made by depositing hybrid Fe-MOF/GOx (G@Fe) peroxide-like nanozyme on PCL/gelatin/d-glucose (PGD) electrospun composite fiber mesh, which generated OH for an antimicrobial effect. The bacterial-infected wound model was used to gauge the wound healing rate which demonstrated the G@Fe/PGD would dressing had an excellent wound healing capability. [Display omitted]
doi_str_mv 10.1016/j.nano.2023.102683
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subjects Animals
Anti-Bacterial Agents - chemistry
Anti-Bacterial Agents - pharmacology
Antibacterial
Autocatalytic
Bacteria
Bandages - microbiology
Glucose
Hydroxyl radical
Metal-organic framework nanozyme
Methicillin-Resistant Staphylococcus aureus
Mice
Wound dressing
Wound Healing
Wound Infection - therapy
title Autocatalytically hydroxyl-producing composite wound dressing for bacteria-infected wound healing
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