基于芯片方法的cepa葱潜在植物化学抑制剂治疗COVID-19

I. N. Fitriani, W. Utami
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引用次数: 1

摘要

极端急性呼吸综合征冠状病毒2型感染引发2019冠状病毒病(COVID-19)。COVID-19对人类造成了不利影响,并且在所有国家都在恶化。本研究旨在探讨植物化学抑制剂对抗COVID-19通路抑制的硅化方法的发展。药用植物中有许多植物化学物质,但其生物活性机制尚不明确。计算机实验为证实药用植物的抑制作用提供了额外的证据。采用分子对接的方法,对比标准药物瑞德西韦,评价葱属植物成分作为COVID-19 M-pro抑制剂的作用。利用STITCH数据库预测最有潜力化合物的相互作用网络过程。最具潜力的化合物是齐墩果酸。齐墩果酸的对接评分为-9.20 kcal/mol,具有抗covid -19活性。该对接评分高于瑞德西韦。齐墩果酸通过氢键与GLU166、CYS44、HIS41和THR25相互作用。从STITCH数据库中,齐墩果酸与CASP-9, XIAP, CASP-3信号通路相互作用。据报道,来自葱属植物的齐墩果酸可能是COVID-19 M-pro抑制剂,应在未来的研究中进行研究。实验表明,植物化学抑制剂可能有助于COVID-19的药物治疗。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Potential Phytochemical Inhibitor from Allium cepa for the Medication of COVID-19 using In-Silico Approach
Infection of extreme acute respiratory syndrome coronavirus 2 triggers Coronavirus disease 2019 (COVID-19). COVID-19 has adverse consequences on persons and is getting worse in all nations. The aim of this research is to investigate the development of in-silico approach of phytochemical inhibitor used to fight COVID-19 pathway inhibition. In medicinal plants, there are many phytochemicals, however the bioactive mechanism remains uncertain.  In-silico experiments offer additional evidence to confirm the inhibition of medicinal plants. Molecular docking was used to evaluate phytoconstituents from Allium cepa as COVID-19 M-pro inhibitor, compared to remdesivir (standard drug). STITCH database used to predict the interaction network process of the most potential compound. The most potential compound was oleanolic acid. Oleanolic acid with a docking score of -9.20 kcal/mol was reported as anti-COVID-19 activity. This docking score was higher than remdesivir. Oleanolic acid interacted with GLU166, CYS44, HIS41, and THR25 via the hydrogen bond. From STITCH Database, oleanolic acid interact with CASP-9, XIAP, CASP-3 signalling pathway. Oleanolic acid from Allium cepa has been reported as a possible COVID-19 M-pro inhibitor and should be studied in future studies. The experiment indicates that phytochemical inhibitor can be helpful in the medication of COVID-19.
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