先天免疫中的多面线粒体

Eloïse Marques, Robbin Kramer, Dylan G. Ryan
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引用次数: 0

摘要

线粒体将我们从食物中获得的能量转化为细胞磷酸化潜能的能力早已为人们所认识。然而,近几十年来,我们对线粒体的认识不断发展,凸显了线粒体作为关键信号转导细胞器的重要意义,其在免疫中的重要作用已超越了生物能功能。重要的是,线粒体保留了内共生起源中残留的细菌图案,先天性免疫细胞可识别这些图案,从而引发炎症并参与抗微生物防御。本综述旨在探讨线粒体生理学(从氧化磷酸化(OxPhos)到线粒体核酸、代谢物和脂质的信号传递)如何影响吞噬细胞的效应功能。这些效应功能包括巨噬细胞极化、渗出、抗菌活性、抗原呈递、免疫信号和细胞因子调节。这些过程的严格调控对机体的平衡至关重要,一旦受到破坏,就可能造成损伤或导致疾病。因此,越来越多的文献继续强调线粒体在先天性免疫系统中的核心作用,这为开发治疗炎症性疾病的新一代疗法提供了启示。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Multifaceted mitochondria in innate immunity

Multifaceted mitochondria in innate immunity
The ability of mitochondria to transform the energy we obtain from food into cell phosphorylation potential has long been appreciated. However, recent decades have seen an evolution in our understanding of mitochondria, highlighting their significance as key signal-transducing organelles with essential roles in immunity that extend beyond their bioenergetic function. Importantly, mitochondria retain bacterial motifs as a remnant of their endosymbiotic origin that are recognised by innate immune cells to trigger inflammation and participate in anti-microbial defence. This review aims to explore how mitochondrial physiology, spanning from oxidative phosphorylation (OxPhos) to signalling of mitochondrial nucleic acids, metabolites, and lipids, influences the effector functions of phagocytes. These myriad effector functions include macrophage polarisation, efferocytosis, anti-bactericidal activity, antigen presentation, immune signalling, and cytokine regulation. Strict regulation of these processes is critical for organismal homeostasis that when disrupted may cause injury or contribute to disease. Thus, the expanding body of literature, which continues to highlight the central role of mitochondria in the innate immune system, may provide insights for the development of the next generation of therapies for inflammatory diseases.
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