五味子醇 B 通过靶向 p53 相关炎症和衰老抑制主动脉瓣钙化。

Xing Liu, Kan Wang, Qiang Zheng, Xinyi Liu, Yuehang Yang, Chiyang Xie, Dingyi Yao, Chen Jiang, Zongtao Liu, Huadong Li, Jiawei Shi, Nianguo Dong
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摘要

主动脉瓣钙化病(CAVD)主要涉及人类主动脉瓣间质细胞(hVICs)的成骨分化。五味子醇 B(SolB)是一种天然生物活性成分,对炎症和纤维化疾病有已知的治疗作用。然而,它对瓣膜钙化的影响尚未见报道。我们研究了 SolB 对 hVICs 成骨分化的影响。通过转录组测序分析了受 SolB 治疗影响的潜在分子通路。该研究还利用主动脉瓣线损伤手术建立了一个体内小鼠模型,以观察 SolB 对瓣膜钙化的影响。SolB抑制了hVICs的成骨分化,逆转了钙化结节形成和成骨蛋白的增加。在小鼠模型中,SolB能显著降低主动脉瓣损伤后的峰值速度,减少瓣膜纤维化和钙化。转录组测序确定了 p53 信号通路是 SolB 的关键分子靶点,证明了 SolB 在小鼠双分 2(MDM2)-p53 相互作用中的分子粘合剂作用,从而促进了 p53 泛素化和降解,进一步抑制了 p53 相关的炎症和衰老反应。这些结果凸显了SolB通过抑制p53信号通路对CAVD的治疗潜力,并揭示了SolB新的分子机制,为CAVD的治疗机制提供了新的见解。
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Schisandrol B inhibits calcification of aortic valve by targeting p53 related inflammatory and senescence.

Calcific aortic valve disease (CAVD) primarily involves osteogenic differentiation in human aortic valve interstitial cells (hVICs). Schisandrol B (SolB), a natural bioactive constituent, has known therapeutic effects on inflammatory and fibrotic disorders. However, its impact on valve calcification has not been reported. We investigated the effect of SolB on osteogenic differentiation of hVICs. Transcriptome sequencing was used to analyze potential molecular pathways affected by SolB treatment. The study also included an in vivo murine model using aortic valve wire injury surgery to observe SolB's effect on valve calcification. SolB inhibited the osteogenic differentiation of hVICs, reversing the increase in calcified nodule formation and osteogenic proteins. In the murine model, SolB significantly decreased the peak velocity of the aortic valve post-injury and reduced valve fibrosis and calcification. Transcriptome sequencing identified the p53 signaling pathway as a key molecular target of SolB, demonstrating its role as a molecular glue in the mouse double minute 2 (MDM2)-p53 interaction, thereby promoting p53 ubiquitination and degradation, which further inhibited p53-related inflammatory and senescence response. These results highlighted therapeutic potential of SolB for CAVD via inhibiting p53 signaling pathway and revealed a new molecular mechanism of SolB which provided a new insight of theraputic mechanism for CAVD.

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