CD4-Transgenic Zebrafish Reveal Tissue-Resident Th2- and Regulatory T Cell–like Populations and Diverse Mononuclear Phagocytes

C. Dee, R. Nagaraju, E. Athanasiadis, C. Gray, Laura Fernandez del Ama, S. Johnston, C. Secombes, A. Cvejic, A. Hurlstone
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引用次数: 97

Abstract

CD4+ T cells are at the nexus of the innate and adaptive arms of the immune system. However, little is known about the evolutionary history of CD4+ T cells, and it is unclear whether their differentiation into specialized subsets is conserved in early vertebrates. In this study, we have created transgenic zebrafish with vibrantly labeled CD4+ cells allowing us to scrutinize the development and specialization of teleost CD4+ leukocytes in vivo. We provide further evidence that CD4+ macrophages have an ancient origin and had already emerged in bony fish. We demonstrate the utility of this zebrafish resource for interrogating the complex behavior of immune cells at cellular resolution by the imaging of intimate contacts between teleost CD4+ T cells and mononuclear phagocytes. Most importantly, we reveal the conserved subspecialization of teleost CD4+ T cells in vivo. We demonstrate that the ancient and specialized tissues of the gills contain a resident population of il-4/13b–expressing Th2-like cells, which do not coexpress il-4/13a. Additionally, we identify a contrasting population of regulatory T cell–like cells resident in the zebrafish gut mucosa, in marked similarity to that found in the intestine of mammals. Finally, we show that, as in mammals, zebrafish CD4+ T cells will infiltrate melanoma tumors and obtain a phenotype consistent with a type 2 immune microenvironment. We anticipate that this unique resource will prove invaluable for future investigation of T cell function in biomedical research, the development of vaccination and health management in aquaculture, and for further research into the evolution of adaptive immunity.
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cd4转基因斑马鱼揭示组织常驻Th2和调节性T细胞样群体和多样化的单核吞噬细胞
CD4+ T细胞是先天免疫系统和适应性免疫系统的纽带。然而,我们对CD4+ T细胞的进化史知之甚少,也不清楚它们分化为特化亚群是否在早期脊椎动物中保守。在这项研究中,我们创造了带有活力标记CD4+细胞的转基因斑马鱼,使我们能够在体内仔细观察硬骨鱼CD4+白细胞的发育和特化。我们提供了进一步的证据,证明CD4+巨噬细胞有一个古老的起源,并且已经出现在硬骨鱼中。我们展示了这种斑马鱼资源的效用,通过硬骨鱼CD4+ T细胞和单核吞噬细胞之间的密切接触成像,在细胞分辨率上询问免疫细胞的复杂行为。最重要的是,我们揭示了硬骨鱼CD4+ T细胞在体内的保守亚特化。我们证明了古老的和特殊的鳃组织包含一个常住的表达il-4/13b的th2样细胞群,这些细胞不共表达il-4/13a。此外,我们在斑马鱼肠道粘膜中发现了一种截然不同的调节性T细胞样细胞,与哺乳动物肠道中发现的细胞有明显的相似性。最后,我们表明,与哺乳动物一样,斑马鱼CD4+ T细胞会浸润黑色素瘤肿瘤,并获得与2型免疫微环境一致的表型。我们预计,这一独特的资源将证明对未来生物医学研究中T细胞功能的研究,疫苗接种和水产养殖健康管理的发展,以及对适应性免疫进化的进一步研究是无价的。
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