Biomimetic rhCOL17‐P334 Conjugate for Enhanced Wound Healing

Wound healing remains a significant global health challenge, affecting millions annually and imposing substantial economic burdens. Most commercially available biomaterials for wound management primarily address external symptoms, including hemostasis, exudation, scarring, and infection. Advanced biomaterials derived from endogenous molecules aim to better replicate the native wound microenvironment, promoting enhanced repair. Since wounds frequently occur on exposed skin, which is vulnerable to UVA radiation and requires protective yet invisible materials, traditional wound care products often lack these essential features. Inspired by natural UV protection mechanisms, a novel bioscaffold is developed using recombinant human collagen XVII (rhCOL17) crosslinked with porphyra-334 (P334) to improve wound healing under UVA exposure. The resulting rhCOL17-P334 conjugate integrates extracellular matrix (ECM)-like cues with UVA-shielding properties provided by P334. This conjugate is used to construct a transparent, injectable hydrogel combining gelatin methacryloyl (GelMA) and rhCOL17-P334 (GCP). GCP significantly inhibits UVA-induced fibroblast senescence and improves wound healing outcomes by targeting integrin α6β4 through rhCOL17. Its transparency facilitates convenient wound monitoring while also addressing the aesthetic requirement for invisibility. By combining UVA shielding with wound repair capabilities, GCP presents a promising platform for advanced wound management.

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Publication Details

Journal
Advanced Materials
Published
2025-02-23
DOI
https://doi.org/10.1002/adma.202417980
Citations
10
Primary Topic
Bone Tissue Engineering Materials
Type
article
Field-Weighted Citation Impact
6.74

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article

Biomimetic rhCOL17‐P334 Conjugate for Enhanced Wound Healing

Shuting Feng, Guping Tang, Minjun Wang, Yang Yang et al.
10 citations
Advanced Materials
Bone Tissue Engineering Materials
6.74
article

Biomimetic rhCOL17‐P334 Conjugate for Enhanced Wound Healing

Shuting Feng, Guping Tang, Minjun Wang, Yang Yang, Zhe Chen, Jiayi Chen, Jue Hou, Chunyan Dai, Guoqiao Xu, Zhaohui Zhou, Shuangshuang Liu, Rijuan Jin, H.L. Bai, Yijie Lou, Nan Wang
article en
10 citations

Abstract

Wound healing remains a significant global health challenge, affecting millions annually and imposing substantial economic burdens. Most commercially available biomaterials for wound management primarily address external symptoms, including hemostasis, exudation, scarring, and infection. Advanced biomaterials derived from endogenous molecules aim to better replicate the native wound microenvironment, promoting enhanced repair. Since wounds frequently occur on exposed skin, which is vulnerable to UVA radiation and requires protective yet invisible materials, traditional wound care products often lack these essential features. Inspired by natural UV protection mechanisms, a novel bioscaffold is developed using recombinant human collagen XVII (rhCOL17) crosslinked with porphyra-334 (P334) to improve wound healing under UVA exposure. The resulting rhCOL17-P334 conjugate integrates extracellular matrix (ECM)-like cues with UVA-shielding properties provided by P334. This conjugate is used to construct a transparent, injectable hydrogel combining gelatin methacryloyl (GelMA) and rhCOL17-P334 (GCP). GCP significantly inhibits UVA-induced fibroblast senescence and improves wound healing outcomes by targeting integrin α6β4 through rhCOL17. Its transparency facilitates convenient wound monitoring while also addressing the aesthetic requirement for invisibility. By combining UVA shielding with wound repair capabilities, GCP presents a promising platform for advanced wound management.

Advanced MaterialsVol. 37(15)
Zhejiang Chinese Medical University (CN), Zhejiang Ocean University (CN), Sanya University (CN), Zhejiang University (CN)
National Natural Science Foundation of China, Guangxi Key Research and Development Program, Basic Public Welfare Research Program of Zhejiang Province
Openalex Percentile: Top 3%
Bone Tissue Engineering Materials
6.74
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