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首页> 外文期刊>Pharmaceutical research >A Systems Biology Workflow for Drug and Vaccine Repurposing: Identifying Small-Molecule BCG Mimics to Reduce or Prevent COVID-19 Mortality
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A Systems Biology Workflow for Drug and Vaccine Repurposing: Identifying Small-Molecule BCG Mimics to Reduce or Prevent COVID-19 Mortality

机译:用于药物和疫苗的系统生物学工作流程:鉴定小分子BCG模拟以减少或预防Covid-19死亡率

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PurposeCoronavirus disease 2019 (COVID-19) is expected to continue to cause worldwide fatalities until the World population develops 'herd immunity', or until a vaccine is developed and used as a prevention. Meanwhile, there is an urgent need to identify alternative means of antiviral defense. Bacillus Calmette-Guerin (BCG) vaccine that has been recognized for its off-target beneficial effects on the immune system can be exploited to boast immunity and protect from emerging novel viruses.MethodsWe developed and employed a systems biology workflow capable of identifying small-molecule antiviral drugs and vaccines that can boast immunity and affect a wide variety of viral disease pathways to protect from the fatal consequences of emerging viruses.ResultsOur analysis demonstrates that BCG vaccine affects the production and maturation of naive T cells resulting in enhanced, long-lasting trained innate immune responses that can provide protection against novel viruses. We have identified small-molecule BCG mimics, including antiviral drugs such as raltegravir and lopinavir as high confidence hits. Strikingly, our top hits emetine and lopinavir were independently validated by recent experimental findings that these compounds inhibit the growth of SARS-CoV-2 in vitro.ConclusionsOur results provide systems biology support for using BCG and small-molecule BCG mimics as putative vaccine and drug candidates against emergent viruses including SARS-CoV-2.
机译:目的2019年新冠病毒病(COVID-19)预计将继续在世界范围内造成死亡,直到世界人口发展出“群体免疫”,或者直到开发出疫苗并用作预防措施。与此同时,迫切需要确定抗病毒防御的替代手段。卡介苗(BCG)疫苗因其对免疫系统的非靶向有益作用而被公认,可用于增强免疫力和保护新出现的病毒。方法我们开发并使用了一个系统生物学工作流程,能够识别小分子抗病毒药物和疫苗,这些药物和疫苗具有免疫力,并影响多种病毒疾病途径,以防止新出现病毒的致命后果。结果我们的分析表明,卡介苗影响幼稚T细胞的产生和成熟,从而产生增强的、持久的、经过训练的先天性免疫反应,从而对新病毒提供保护。我们已经确定小分子卡介苗模拟物,包括抗病毒药物,如雷特拉韦和洛匹那韦,为高置信度药物。引人注目的是,我们的热门药物埃美汀和洛匹那韦被最近的实验结果独立证实,这些化合物在体外抑制SARS-CoV-2的生长。结论SOUR结果为使用卡介苗和小分子卡介苗模拟物作为对抗SARS-CoV-2等突发病毒的假定疫苗和候选药物提供了系统生物学支持。

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