Ana-Lucia Cabello, Kelsey Wells, Wenjing Peng, Hui-Qiang Feng, Junyao Wang, Damien F Meyer, Christophe Noroy, En-Shuang Zhao, Hao Zhang, Xueqing Li, Haowu Chang, Gabriel Gomez, Yuxin Mao, Kristin L Patrick, Robert O Watson, William K Russell, Aiying Yu, Jieqiang Zhong, Fengguang Guo, Mingqian Li, Mingyuan Zhou, Xiaoning Qian, Koichi S Kobayashi, Jianxun Song, Suresh Panthee, Yehia Mechref, Thomas A Ficht, Qing-Ming Qin, Paul de Figueiredo
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引用次数: 0
摘要
人们采用了许多强大的方法来阐明病原体感染宿主细胞后的全局转录组、蛋白质组或代谢反应。然而,宿主对细菌感染的糖代谢反应在很大程度上仍未得到探索,因此,我们对细菌病原体操纵宿主糖代谢以促进感染的分子机制的理解仍不完整。在这里,我们针对这一空白,对导致布鲁氏菌病的细菌病原体布鲁氏菌属感染宿主过程中的糖代谢进行了系统分析。我们惊奇地发现,布鲁氏菌效应蛋白(EP)Rhg1 通过与控制 N-连接的蛋白质糖基化的寡糖转移酶复合物的组分相互作用,诱导宿主细胞 N-糖基化的全面重编程、在布鲁氏菌病小鼠模型中,Rhg1 调节布鲁氏菌的复制和组织定植,表明布鲁氏菌利用 EP Rhg1 重编程宿主 N-糖基化,促进细菌在细胞内寄生,从而为细菌控制宿主细胞感染提供了一个范例。
Many powerful methods have been employed to elucidate the global transcriptomic, proteomic, or metabolic responses to pathogen-infected host cells. However, the host glycome responses to bacterial infection remain largely unexplored, and hence, our understanding of the molecular mechanisms by which bacterial pathogens manipulate the host glycome to favor infection remains incomplete. Here, we address this gap by performing a systematic analysis of the host glycome during infection by the bacterial pathogen Brucella spp. that cause brucellosis. We discover, surprisingly, that a Brucella effector protein (EP) Rhg1 induces global reprogramming of the host cell N-glycome by interacting with components of the oligosaccharide transferase complex that controls N-linked protein glycosylation, and Rhg1 regulates Brucella replication and tissue colonization in a mouse model of brucellosis, demonstrating that Brucella exploits the EP Rhg1 to reprogram the host N-glycome and promote bacterial intracellular parasitism, thereby providing a paradigm for bacterial control of host cell infection.