可注射的 dECM 增强型透明质酸微凝胶可按时空释放软骨特异性分子,改善骨关节炎软骨细胞的功能

Siyan Deng, Hongfu Cao, Yan Lu, Wenqing Shi, Manyu Chen, Xiaolin Cui, Jie Liang, Yujiang Fan, Qiguang Wang, Xingdong Zhang
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引用次数: 0

摘要

骨关节炎(OA)的关节软骨内部环境存在巨大障碍,导致软骨细胞功能失调和富含胶原蛋白 II 的透明软骨基质分解。尽管如此,大多数临床治疗方法只能暂时缓解 OA 带来的不适,却无法阻止 OA 的发展。本研究旨在通过开发可关节内注射的 dECM 增强透明质酸(HE)微凝胶来缓解 OA。利用微流体技术和光聚合技术,将透明质酸水凝胶设计和成型为大小一致的微凝胶。这些微凝胶产生了时空级联效应,促进了生长因子的快速释放以及 ECM 大分子和蛋白质的缓慢释放。这一过程有助于恢复 OA 软骨细胞的功能,促进细胞增殖、基质合成和体外软骨特异性基因表达。在 OA 大鼠模型中进行的放射学观察、大体外观、组织学/免疫组织化学染色和体内分析表明,它还能有效帮助修复富含胶原蛋白 II 的透明软骨,并显著减轻 OA 的严重程度。总之,具有软骨特异性分子时空释放功能的 HE 可注射微凝胶有望成为无细胞 OA 治疗方法的潜在候选材料。
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Injectable dECM-enhanced hyaluronic microgels with spatiotemporal release of cartilage-specific molecules to improve osteoarthritic chondrocyte’s function

The interior environment of articular cartilage in osteoarthritis (OA) presents substantial hurdles, leading to the malfunction of chondrocytes and the breakdown of collagen II-enriched hyaline cartilage matrix. Despite this, most clinical treatments primarily provide temporary relief from OA discomfort without arresting OA progression. This study aimed to alleviate OA by developing intra-articular injectable dECM-enhanced hyaluronic (HE) microgels. The HE hydrogel was engineered and shaped into uniformly sized microgels using microfluidics and photopolymerization techniques. These microgels provided a spatiotemporal cascade effect, facilitating the rapid release of growth factors and a slower release of ECM macromolecules and proteins. This process assisted in the recovery of OA chondrocytes’ function, promoting cell proliferation, matrix synthesis, and cartilage-specific gene expression in vitro. It also effectively aided repair of the collagen II-enriched hyaline cartilage and significantly reduced the severity of OA, as demonstrated by radiological observation, gross appearance, histological/immunohistochemical staining, and analysis in an OA rat model in vivo. Collectively, the HE injectable microgels with spatiotemporal release of cartilage-specific molecules have shown promise as a potential candidate for a cell-free OA therapy approach.

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来源期刊
Journal of Leather Science and Engineering
Journal of Leather Science and Engineering 工程技术-材料科学:综合
CiteScore
12.80
自引率
0.00%
发文量
29
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