蜕膜化
间质细胞
下调和上调
生物
转录组
转录因子
子宫内膜
细胞生物学
缺氧(环境)
男科
蜕膜
蜕膜细胞
内分泌学
癌症研究
基因表达
化学
基因
胎盘
医学
胎儿
遗传学
怀孕
有机化学
氧气
作者
Kalle T. Rytkönen,Taija Heinosalo,Mehrad Mahmoudian,Xinghong Ma,Antti Perheentupa,Laura L. Elo,Matti Poutanen,Günter P. Wagner
出处
期刊:Reproduction
[Bioscientifica]
日期:2020-04-09
卷期号:160 (1): 39-51
被引量:15
摘要
Human reproductive success depends on a properly decidualized uterine endometrium that allows implantation and the formation of the placenta. At the core of the decidualization process are endometrial stromal fibroblasts (ESF) that differentiate to decidual stromal cells (DSC). As variations in oxygen levels are functionally relevant in endometrium both upon menstruation and during placentation, we assessed the transcriptomic responses to hypoxia in ESF and DSC. In both cell types, hypoxia-upregulated genes in classical hypoxia pathways such as glycolysis and the epithelial mesenchymal transition. In DSC, hypoxia restored an ESF-like transcriptional state for a subset of transcription factors that are known targets of the progesterone receptor, suggesting that hypoxia partially interferes with progesterone signaling. In both cell types, hypoxia modified transcription of several inflammatory transcription factors that are known regulators of decidualization, including decreased transcription of STATs and increased transcription of CEBPs . We observed that hypoxia-upregulated genes in ESF and DSC had a significant overlap with genes previously detected to be upregulated in endometriotic stromal cells. Promoter analysis of the genes in this overlap suggested the hypoxia-upregulated Jun/Fos and CEBP transcription factors as potential drivers of endometriosis-associated transcription. Using immunohistochemistry, we observed increased expression of JUND and CEBPD in endometriosis lesions compared to healthy endometria. Overall, the findings suggest that hypoxic stress establishes distinct transcriptional states in ESF and DSC and that hypoxia influences the expression of genes that contribute to the core gene regulation of endometriotic stromal cells.
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