Olive Andrew J
Department of Microbiology, Genetics, and Immunology, College of Osteopathic Medicine, Michigan State University, East Lansing, Michigan, USA.
mSphere. 2025 May 27;10(5):e0051724. doi: 10.1128/msphere.00517-24. Epub 2025 Apr 22.
Infections with (Mtb) resulted in over one million deaths in 2024, the highest number for any infectious disease. With no vaccines that protect against pulmonary tuberculosis (TB) and the challenges associated with antibiotic therapy, there is a critical need to better understand host-Mtb interactions to help curb this major public health problem. Mtb is arguably the most successful human pathogen, and it survives in diverse environments, resulting in heterogeneous disease outcomes in patients. Five years ago, in my commentary in mSphere, I discussed how Mtb virulence strategies that sense, adapt, and evade killing in the host can be uncovered using genetic approaches. Here, I will come full circle to highlight genetic approaches that recently uncovered new mechanisms regulating protective host responses and Mtb survival tactics. The goal is to highlight a genetic framework to probe a range of unexplored Mtb phenotypes, increase our understanding of host-Mtb interactions, and identify new therapeutic targets that may help prevent TB.
2024年,结核分枝杆菌(Mtb)感染导致超过100万人死亡,这是所有传染病中死亡人数最多的。由于没有预防肺结核(TB)的疫苗以及抗生素治疗存在的挑战,迫切需要更好地了解宿主与Mtb之间的相互作用,以帮助遏制这一重大公共卫生问题。Mtb可以说是最成功的人类病原体,它能在多种环境中生存,导致患者出现异质性疾病结果。五年前,在我发表于《mSphere》的评论中,我讨论了如何利用遗传学方法揭示Mtb在宿主中感知、适应和逃避杀伤的毒力策略。在这里,我将回到原点,重点介绍最近发现调节宿主保护性反应和Mtb生存策略新机制的遗传学方法。目标是突出一个遗传学框架,以探究一系列未被探索的Mtb表型,增进我们对宿主与Mtb相互作用的理解,并确定可能有助于预防结核病的新治疗靶点。
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