Patrick A Molina, Claudia J Edell, Luke S Dunaway, Cailin E Kellum, Rachel Q Muir, Melissa S Jennings, Jackson C Colson, Carmen De Miguel, Megan K Rhoads, Ashlyn A Buzzelli, Laurie E Harrington, Selene Meza-Perez, Troy D Randall, Davide Botta, Dominik N Müller, David M Pollock, Craig L Maynard, Jennifer S Pollock
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In the intestinal mucosa, we demonstrate that a high-salt diet (HSD) is a key driving factor, independent of hypertension, in diminishing interleukin 17A (IL-17A) production by CD4+ T (Th17) cells without disrupting circulating cytokines associated with Th17 function. Previous studies suggest that hypertensive patients and individuals on a HSD are deficient in AhR ligands or agonistic metabolites. We found that activating AhR augments Th17 cells during experimental salt-sensitive hypertension. Further, we demonstrate that activating AhR in vitro contributes to sustaining Th17 cells in the setting of excess salt. Using photoconvertible Kikume Green-Red mice, we also revealed that HSD drives CD4+ T cell mobilization. Next, we found that excess salt augments T cell mobilization markers, validating HSD-driven T cell migration. Also, we found that activating AhR mitigates HSD-induced T cell migration markers. Using telemetry in a model of experimental salt-sensitivity, we found that activating AhR prevents the development of salt-sensitive hypertension. 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引用次数: 0
摘要
饮食中盐过量和盐敏感会导致心血管疾病。不同的T细胞对高盐和高血压的表型反应以及环境因素的影响尚不清楚。芳烃受体(AhR)被膳食配体激活,促进T细胞和系统的稳态。我们假设激活AhR支持CD4+稳态功能,如细胞因子的产生和动员,以应对高盐摄入,同时减轻盐敏感性高血压。在肠粘膜中,我们证明高盐饮食(HSD)是一个独立于高血压的关键驱动因素,在不破坏与Th17功能相关的循环细胞因子的情况下,减少CD4+ T (Th17)细胞产生白细胞介素17A (IL-17A)。先前的研究表明,高血压患者和高盐饮食的个体缺乏AhR配体或激动性代谢物。我们发现,在实验性盐敏感性高血压中,激活AhR可增强Th17细胞。此外,我们证明在体外激活AhR有助于维持过量盐环境下的Th17细胞。在光转换的Kikume GreenRed小鼠中,我们还发现HSD可以促进CD4+ T细胞的动员。接下来,我们发现过量的盐增加了T细胞动员标记物,验证了hsd驱动的T细胞迁移。此外,我们发现激活AhR可以减轻hsd诱导的T细胞迁移标记物。在实验盐敏感性模型中使用遥测技术,我们发现激活AhR可以防止盐敏感性高血压的发展。总的来说,通过饮食配体刺激AhR可促进过量盐摄入时的免疫和系统功能,并抑制盐敏感性高血压的发展。
Aryl Hydrocarbon Receptor Activation Promotes Effector CD4+ T Cell Homeostasis and Restrains Salt-Sensitive Hypertension.
Excess dietary salt and salt-sensitivity contribute to cardiovascular disease. Distinct T cell phenotypic responses to high salt and hypertension, as well as influences from environmental cues, are not well understood. The aryl hydrocarbon receptor (AhR) is activated by dietary ligands, promoting T cell and systemic homeostasis. We hypothesized that activating AhR supports CD4+ homeostatic functions, such as cytokine production and mobilization, in response to high salt intake while mitigating salt-sensitive hypertension. In the intestinal mucosa, we demonstrate that a high-salt diet (HSD) is a key driving factor, independent of hypertension, in diminishing interleukin 17A (IL-17A) production by CD4+ T (Th17) cells without disrupting circulating cytokines associated with Th17 function. Previous studies suggest that hypertensive patients and individuals on a HSD are deficient in AhR ligands or agonistic metabolites. We found that activating AhR augments Th17 cells during experimental salt-sensitive hypertension. Further, we demonstrate that activating AhR in vitro contributes to sustaining Th17 cells in the setting of excess salt. Using photoconvertible Kikume Green-Red mice, we also revealed that HSD drives CD4+ T cell mobilization. Next, we found that excess salt augments T cell mobilization markers, validating HSD-driven T cell migration. Also, we found that activating AhR mitigates HSD-induced T cell migration markers. Using telemetry in a model of experimental salt-sensitivity, we found that activating AhR prevents the development of salt-sensitive hypertension. Collectively, stimulating AhR through dietary ligands facilitates immunologic and systemic functions amid excess salt intake and restrains the development of salt-sensitive hypertension.