Aug 2026· Small· pp.
e75281
· 0 citations· 10 references
Medicine
TL;DR
PM hydrogel combined with light irradiation effectively remodels the wound microenvironment and markedly accelerates healing of infected burn wounds, reaching a 94% healing rate by day 14, and Transcriptomic analyses reveal that PM promotes tissue repair by modulating immune responses, enhancing cell migration and differentiation, and activating wound-regeneration-related pathways.
Abstract
Burn wounds are challenging to heal due to irregular tissue architecture, high bacterial susceptibility, excessive oxidative stress, and prolonged inflammation. Here, we report a multifunctional sprayable hydrogel (PM) by integrating MoB (MBene) nanosheets into a thermoresponsive Pluronic F127 matrix for comprehensive burn wound therapy. Benefiting from electron-deficient boron sites and multivalent Mo states, MoB exhibits robust SOD- and CAT-mimetic activities, enabling efficient ROS scavenging, restoration of mitochondrial homeostasis, and macrophage polarization toward an anti-inflammatory M2 phenotype. Meanwhile, MoB shows high photothermal conversion efficiency, endowing the hydrogel with potent photothermal antibacterial activity, achieving >90% bacterial inhibition. In vivo studies demonstrate that PM hydrogel combined with light irradiation effectively remodels the wound microenvironment and markedly accelerates healing of infected burn wounds, reaching a 94% healing rate by day 14. Transcriptomic analyses further reveal that PM promotes tissue repair by modulating immune responses, enhancing cell migration and differentiation, and activating wound-regeneration-related pathways. Overall, this MoB-empowered sprayable hydrogel represents a promising, translatable platform integrating antioxidative, immunomodulatory, and antibacterial functions for effective management of infected burn wounds.
A combined therapeutic platform that merges immediate photothermal antibacterial action with sustained pro-healing microenvironment support is presented, offering a promising non-antibiotic solution for infected wound management.
A novel multifunctional wound dressing based on a composite of tannic acid-silver self-assembled nanoparticles (TA-AgNPs) and electrospun nanofiber membranes (NFMs) that combines excellent biocompatibility with mechanical properties demonstrates promising applications in chronic wound treatment.
This multifunctional hydrogel provides a promising strategy for diabetic wound management by integrating antibacterial potential and tissue regeneration by integrating antibacterial potential and tissue regeneration.
In vitro and in vivo experiments confirm that this system achieves deep integration of antibacterial, antioxidant, and immunomodulatory functions through the synergistic effects of acoustically assisted permeation and electronic energy level catalytic equilibrium, achieving tissue repair through systematic intervention...
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