Photoelectric-driven conductive composite ionogel patch for effective wound healing

IF 42.9 Q1 ELECTROCHEMISTRY
Xingkai Ju , Jiao Kong , Guohua Qi , Shuping Hou , Bo Wang , Xingkang Diao , Shaojun Dong , Yongdong Jin
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引用次数: 0

Abstract

Developing the high biosafety, effective and wearable devices for fast wound healing is highly desired but remains a challenge. Here, we propose a “win–win co-operation” strategy to potentiate effective skin wound healing at the wound site by constructing robust and ecofriendly composite patch under opto-electric stimulation. The wearable patch is composed of ionic gel doped with Ti3C2Tx (MXene), which possesses good photothermal response to kill the bacteria via effective inhibition of the expression of inflammatory factors, preventing wound infection. Importantly, the composite ionogel patch is capable of providing green and on-demand electrical stimulation for wound site, guiding cell migration and proliferation by improved bioenergy and expression up-regulation of growth factor. In mice wound models, the treatment group healed ∼31% more rapidly. Mechanistically, the wearable devices could enable visual and real-time supervising treatment effect due to their good transmittance. The proposed strategy would be promising for future clinical treatment of wound healing.

Abstract Image

Abstract Image

用于伤口有效愈合的光电驱动导电复合离子凝胶贴片
开发生物安全性高、有效且可穿戴的快速伤口愈合设备是人们的殷切期望,但仍是一项挑战。在此,我们提出了一种 "双赢合作 "策略,通过构建光电刺激下的坚固且环保的复合贴片,促进伤口部位皮肤伤口的有效愈合。该可穿戴贴片由掺杂 Ti3C2Tx(MXene)的离子凝胶组成,具有良好的光热反应,可通过有效抑制炎症因子的表达来杀灭细菌,防止伤口感染。重要的是,复合离子凝胶贴片能够为伤口部位提供绿色、按需的电刺激,通过改善生物能和上调生长因子的表达来引导细胞迁移和增殖。在小鼠伤口模型中,治疗组的愈合速度提高了 31%。从机理上讲,由于可穿戴设备具有良好的透光性,因此可以直观、实时地监督治疗效果。所提出的策略在未来的伤口愈合临床治疗中将大有可为。
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CiteScore
33.70
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