Th9 cell development requires a BATF-regulated transcriptional network

Rukhsana Jabeen(Indiana University – Purdue University Indianapolis), Ritobrata Goswami(Indiana University – Purdue University Indianapolis), Olufolakemi Awe(Indiana University School of Medicine), Aishwarya Kulkarni(Indiana University – Purdue University Indianapolis), Evelyn Nguyen(Indiana University – Purdue University Indianapolis), Andrea Attenasio(Indiana University – Purdue University Indianapolis), Daniel J. Walsh(Indiana University – Purdue University Indianapolis), Matthew R. Olson(Indiana University – Purdue University Indianapolis), Myung H. Kim(Weldon City Schools), Robert S. Tepper(Pulmonary and Allergy Associates), Jie Sun(Indiana University School of Medicine), Chang H. Kim(Purdue University Institute for Cancer Research), Elizabeth J. Taparowsky(Purdue University West Lafayette), Baohua Zhou(Indiana University – Purdue University Indianapolis), Mark H. Kaplan(Indiana University School of Medicine)
Journal of Clinical Investigation
October 7, 2013
Cited by 220Open Access
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Abstract

T helper 9 (Th9) cells are specialized for the production of IL-9, promote allergic inflammation in mice, and are associated with allergic disease in humans. It has not been determined whether Th9 cells express a characteristic transcriptional signature. In this study, we performed microarray analysis to identify genes enriched in Th9 cells compared with other Th subsets. This analysis defined a transcriptional regulatory network required for the expression of a subset of Th9-enriched genes. The activator protein 1 (AP1) family transcription factor BATF (B cell, activating transcription factor–like) was among the genes enriched in Th9 cells and was required for the expression of IL-9 and other Th9-associated genes in both human and mouse T cells. The expression of BATF was increased in Th9 cultures derived from atopic infants compared with Th9 cultures from control infants. T cells deficient in BATF expression had a diminished capacity to promote allergic inflammation compared with wild-type controls. Moreover, mouse Th9 cells ectopically expressing BATF were more efficient at promoting allergic inflammation than control transduced cells. These data indicate that BATF is a central regulator of the Th9 phenotype and contributes to the development of allergic inflammation.


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