Journal of Controlled Release, volume 370, pages 210-229
Healing with precision: A multi-functional hydrogel-bioactive glass dressing boosts infected wound recovery and enhances neurogenesis in the wound bed
Yu Kang
1
,
Yu Kang
2
,
Kun Liu
3
,
Kun Liu
4
,
Zhenbing Chen
1, 2
,
Jiahe Guo
1, 2
,
Kaituo Xiang
1, 2
,
Xiaopei Wu
3, 4
,
Tao Jiang
1
,
Tao Jiang
2
,
Jing Chen
1
,
Jing Chen
2
,
Yan Cao
1
,
Chenqi Yan
2
,
Guoyong Jiang
1, 2
,
Yufeng Wang
1
,
Yufeng Wang
2
,
Maojie Zhang
1
,
Maojie Zhang
2
,
Xuejiao Xiang
1
,
Honglian Dai
5
,
Honglian Dai
4, 6
,
ZHENBING CHEN
1, 2
6
Chaozhou Branch of Chemistry and Chemical Engineering Guangdong Laboratory, Chaozhou 521000, China
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Publication type: Journal Article
Publication date: 2024-06-01
Journal:
Journal of Controlled Release
scimago Q1
SJR: 2.157
CiteScore: 18.5
Impact factor: 10.5
ISSN: 01683659, 18734995
Abstract
Chronic skin wounds, especially infected ones, pose a significant clinical challenge due to their increasing incidence and poor outcomes. The deteriorative microenvironment in such wounds, characterized by reduced extracellular matrix, impaired angiogenesis, insufficient neurogenesis, and persistent bacterial infection, has prompted the exploration of novel therapeutic strategies. In this study, we developed an injectable multifunctional hydrogel (GEL/BG@Cu + Mg) incorporating Gelatin-Tannic acid/ N-hydroxysuccinimide functionalized polyethylene glycol and Bioactive glass doped with copper and magnesium ions to accelerate the healing of infected wounds. The GEL/BG@Cu + Mg hydrogel composite demonstrates good biocompatibility, degradability, and rapid formation of a protective barrier to stop bleeding. Synergistic bactericidal effects are achieved through the photothermal properties of BG@Cu + Mg and sustained copper ions release, with the latter further promoting angiogenesis. Furthermore, the hydrogel enhances neurogenesis by stimulating axons and Schwann cells in the wound bed through the beneficial effects of magnesium ions. Our results demonstrate that the designed novel multifunctional hydrogel holds tremendous promise for treating infected wounds and allowing regenerative neurogenesis at the wound site, which provides a viable alternative for further improving clinical outcomes.
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