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The neonatal microenvironment programs innate γδ T cells through the transcription factor STAT5
Darshana Kadekar, … , Richard Moriggl, Vasileios Bekiaris
Darshana Kadekar, … , Richard Moriggl, Vasileios Bekiaris
Published April 13, 2020
Citation Information: J Clin Invest. 2020;130(5):2496-2508. https://doi.org/10.1172/JCI131241.
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Research Article Immunology Article has an altmetric score of 6

The neonatal microenvironment programs innate γδ T cells through the transcription factor STAT5

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Abstract

IL-17–producing RORγt+ γδ T cells (γδT17 cells) are innate lymphocytes that participate in type 3 immune responses during infection and inflammation. Herein, we show that γδT17 cells rapidly proliferate within neonatal lymph nodes and gut, where, upon entry, they upregulate T-bet and coexpress IL-17, IL-22, and IFN-γ in a STAT3- and retinoic acid–dependent manner. Neonatal expansion was halted in mice conditionally deficient in STAT5, and its loss resulted in γδT17 cell depletion from all adult organs. Hyperactive STAT5 mutant mice showed that the STAT5A homolog had a dominant role over STAT5B in promoting γδT17 cell expansion and downregulating gut-associated T-bet. In contrast, STAT5B preferentially expanded IFN-γ–producing γδ populations, implying a previously unknown differential role of STAT5 gene products in lymphocyte lineage regulation. Importantly, mice lacking γδT17 cells as a result of STAT5 deficiency displayed a profound resistance to experimental autoimmune encephalomyelitis. Our data identify that the neonatal microenvironment in combination with STAT5 is critical for post-thymic γδT17 development and tissue-specific imprinting, which is essential for infection and autoimmunity.

Authors

Darshana Kadekar, Rasmus Agerholm, John Rizk, Heidi A. Neubauer, Tobias Suske, Barbara Maurer, Monica Torrellas Viñals, Elena M. Comelli, Amel Taibi, Richard Moriggl, Vasileios Bekiaris

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Figure 2

Differential impact of STAT5A and STAT5B on γδT17 and CD27+ γδ T cells.

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Differential impact of STAT5A and STAT5B on γδT17 and CD27+ γδ T cells.
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Flow cytometric analysis of γδ T cells in mice that either are wild type or constitutively express under the Vav1 promoter one of the following forms of STAT5: low (STAT5AS710Flow) or high (STAT5AS710Fhigh) copy number of the hyperactive STAT5A S710F mutant, or human wild-type STAT5B or the hyperactive N642H STAT5B mutant (STAT5BN642H). In graphs, each symbol represents a mouse, and lines represent the median. **P < 0.01, ***P < 0.001, ****P < 0.0001 using ordinary 1-way ANOVA with Tukey’s multiple-comparisons test. (A) Expression of CD27 and CD44 in order to identify CD27−CD44+ γδT17 cells in the LN. Numbers indicate percentage of CD27−CD44+ or CD27+ within the γδ T cell compartment. (B) Numbers of γδT17 (staining as in A) and CD27+ cells in the LN. (C) Expression of IL-17A within the LN γδ T cell compartment (single asterisk in STAT5BN642H denotes difference by comparison with STAT5AS710Flow). (D) Expression of CCR6 and Vγ4 in skin γδT17 cells (staining as in Figure 1B). Numbers indicate percentage of CCR6+ or CCR6− cells within the γδ T cell compartment. (E) Numbers of CCR6+ and CCR6− cells identified in D. (F) Ratio of CCR6+ over CCR6− cells in WT compared with STAT5AS710Fhigh (5A) and STAT5BN642H (5B) mice. (A–E) n = 8 WT, 8 STAT5AS710Flow, 8 STAT5AS710Fhigh, 7 STAT5B, and 5 STAT5BN642H mice, 2 experiments.

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