All-in-One: A Multifunctional Chitosan-Based Hydrogel for Wound Management

Hydrogel dressings offer a promising treatment option for the bacterial infection of skin wounds. In this work, we developed multifunctional hydrogels by incorporating carbon nanotubes and protocatechualdehyde into a thiolated chitosan network via multiple interactions. The hydrogels exhibited tunable adhesion (2.7-3.1 kPa), on-demand detachment, as well as restorable antioxidant activity, approximately 80% of its original level. They demonstrated electrical conductivity, in the range of 0.009-0.027 S/m, and maintained stability for nearly 400 s under pressing cycles, suitable for monitoring physiological signals. They demonstrated potent mild photothermal antibacterial capability under near-infrared (NIR) light, with the temperature increasing to 48 ± 0.85 °C and the antibacterial rate up to 99.9%. In an infected mouse wound model, the hydrogels with NIR irradiation achieved ∼ 99.9% wound closure by day 9, outperforming a commercial antibiotic ointment. This work presents a comprehensive strategy for integrated biomass-based wound management systems, combining advanced therapy with smart bioelectronic sensing.

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Publication Details

Journal
Biomacromolecules
Published
2026-04-21
DOI
https://doi.org/10.1021/acs.biomac.5c02719
Primary Topic
Wound Healing and Treatments
Type
article
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article

All-in-One: A Multifunctional Chitosan-Based Hydrogel for Wound Management

Tian Gao, Chaoxing Chen, Bowen Huang, HJ Xu et al.
Biomacromolecules
Wound Healing and Treatments
article

All-in-One: A Multifunctional Chitosan-Based Hydrogel for Wound Management

Tian Gao, Chaoxing Chen, Bowen Huang, HJ Xu, Zikang Yang, Hongli Zhang, Shaohua Xiong, Qiong Wu, Xiaoyan Wang, Genxi Yu
article en

Abstract

Hydrogel dressings offer a promising treatment option for the bacterial infection of skin wounds. In this work, we developed multifunctional hydrogels by incorporating carbon nanotubes and protocatechualdehyde into a thiolated chitosan network via multiple interactions. The hydrogels exhibited tunable adhesion (2.7-3.1 kPa), on-demand detachment, as well as restorable antioxidant activity, approximately 80% of its original level. They demonstrated electrical conductivity, in the range of 0.009-0.027 S/m, and maintained stability for nearly 400 s under pressing cycles, suitable for monitoring physiological signals. They demonstrated potent mild photothermal antibacterial capability under near-infrared (NIR) light, with the temperature increasing to 48 ± 0.85 °C and the antibacterial rate up to 99.9%. In an infected mouse wound model, the hydrogels with NIR irradiation achieved ∼ 99.9% wound closure by day 9, outperforming a commercial antibiotic ointment. This work presents a comprehensive strategy for integrated biomass-based wound management systems, combining advanced therapy with smart bioelectronic sensing.

BiomacromoleculesVol. 27(5)
Kunming Medical University (CN), Changzhou Institute of Technology (CN), California Institute Of Medical Science (US), Hubei Engineering University (CN), Institute of Coal Chemistry (CN), Wuhan University of Science and Technology (CN)
Openalex Percentile: Top 25%
Wound Healing and Treatments
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