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IRF4和IRF8在CD11c+细胞中发挥作用,以调节肺组织树突状细胞的终末分化。

IRF4 and IRF8 Act in CD11c+ Cells To Regulate Terminal Differentiation of Lung Tissue Dendritic Cells.

作者信息

Bajaña Sandra, Turner Sean, Paul Jinny, Ainsua-Enrich Erola, Kovats Susan

机构信息

Arthritis and Clinical Immunology Program, Oklahoma Medical Research Foundation, Oklahoma City, OK 73104.

Arthritis and Clinical Immunology Program, Oklahoma Medical Research Foundation, Oklahoma City, OK 73104

出版信息

J Immunol. 2016 Feb 15;196(4):1666-77. doi: 10.4049/jimmunol.1501870. Epub 2016 Jan 8.

DOI:10.4049/jimmunol.1501870
PMID:26746189
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC4744567/
Abstract

Dendritic cells (DCs) initiate immune responses in barrier tissues including lung and skin. Conventional DC (cDC) subsets, CD11b(-) (cDC1s) or CD11b(+) (cDC2s), arise via distinct networks of transcription factors involving IFN regulatory factor 4 (IRF4) and IRF8, and are specialized for unique functional responses. Using mice in which a conditional Irf4 or Irf8 allele is deleted in CD11c(+) cells, we determined whether IRF4 or IRF8 deficiency beginning in CD11c(+) cDC precursors (pre-cDCs) changed the homeostasis of mature DCs or pre-DCs in the lung, dermis, and spleen. CD11c-cre-Irf4(-/-) mice selectively lacked a lung-resident CD11c(hi)CD11b(+)SIRPα(+)CD24(+) DC subset, but not other lung CD11b(+) DCs or alveolar macrophages. Numbers of CD11b(+)CD4(+) splenic DCs, but not CD11b(+) dermal DCs, were reduced, indicating cDC2s in the lung and dermis develop via different pathways. Irf4 deficiency did not alter numbers of cDC1s. CD11c-cre-Irf8(-/-) mice lacked lung-resident CD103(+) DCs and splenic CD8α(+) DCs, yet harbored increased IRF4-dependent DCs. This correlated with a reduced number of Irf8(-/-) pre-cDCs, which contained elevated IRF4, suggesting that Irf8 deficiency diverts pre-cDC fate. Analyses of Irf4 and Irf8 haploinsufficient mice showed that, although one Irf4 allele was sufficient for lung cDC2 development, two functional Irf8 alleles were required for differentiation of lung cDC1s. Thus, IRF8 and IRF4 act in pre-cDCs to direct the terminal differentiation of cDC1 and cDC2 subsets in the lung and spleen. These data suggest that variation in IRF4 or IRF8 levels resulting from genetic polymorphisms or environmental cues will govern tissue DC numbers and, therefore, regulate the magnitude of DC functional responses.

摘要

树突状细胞(DCs)在包括肺和皮肤在内的屏障组织中启动免疫反应。传统DC(cDC)亚群,即CD11b(-)(cDC1s)或CD11b(+)(cDC2s),通过涉及干扰素调节因子4(IRF4)和IRF8的不同转录因子网络产生,并专门用于独特的功能反应。利用在CD11c(+)细胞中条件性缺失Irf4或Irf8等位基因的小鼠,我们确定了从CD11c(+) cDC前体(pre-cDCs)开始的IRF4或IRF8缺陷是否会改变肺、真皮和脾脏中成熟DCs或pre-DCs的稳态。CD11c-cre-Irf4(-/-)小鼠选择性地缺乏肺驻留的CD11c(hi)CD11b(+)SIRPα(+)CD24(+) DC亚群,但不缺乏其他肺CD11b(+) DCs或肺泡巨噬细胞。脾CD11b(+)CD4(+) DCs的数量减少,但真皮CD11b(+) DCs的数量未减少,这表明肺和真皮中的cDC2s通过不同途径发育。Irf4缺陷并未改变cDC1s的数量。CD11c-cre-Irf8(-/-)小鼠缺乏肺驻留的CD103(+) DCs和脾CD8α(+) DCs,但含有增加的IRF4依赖性DCs。这与Irf8(-/-) pre-cDCs数量减少相关,其中IRF4升高,表明Irf8缺陷改变了pre-cDC的命运。对Irf4和Irf8单倍体不足小鼠的分析表明,虽然一个Irf4等位基因足以促进肺cDC2的发育,但肺cDC1的分化需要两个功能性Irf8等位基因。因此,IRF8和IRF4在pre-cDCs中发挥作用,指导肺和脾脏中cDC1和cDC2亚群的终末分化。这些数据表明,由基因多态性或环境线索导致的IRF4或IRF8水平变化将控制组织DC数量,从而调节DC功能反应的强度。