Dataset Information

A GREB1-steroid receptor feedforward mechanism governs differential GREB1 action in endometrial function and endometriosis.

ABSTRACT: Cellular responses to the steroid hormones, estrogen (E2), and progesterone (P4) are governed by their cognate receptor's transcriptional output. However, the feed-forward mechanisms that shape cell-type-specific transcriptional fulcrums for steroid receptors are unidentified. Herein, we found that a common feed-forward mechanism between GREB1 and steroid receptors regulates the differential effect of GREB1 on steroid hormones in a physiological or pathological context. In physiological (receptive) endometrium, GREB1 controls P4-responses in uterine stroma, affecting endometrial receptivity and decidualization, while not affecting E2-mediated epithelial proliferation. Of mechanism, progesterone-induced GREB1 physically interacts with the progesterone receptor, acting as a cofactor in a positive feedback mechanism to regulate P4-responsive genes. Conversely, in endometrial pathology (endometriosis), E2-induced GREB1 modulates E2-dependent gene expression to promote the growth of endometriotic lesions in mice. This differential action of GREB1 exerted by a common feed-forward mechanism with steroid receptors advances our understanding of mechanisms that underlie cell- and tissue-specific steroid hormone actions.

SUBMITTER: Chadchan SB

PROVIDER: S-EPMC10908778 | biostudies-literature | 2024 Mar

REPOSITORIES: biostudies-literature

ACCESS DATA

Publications

A GREB1-steroid receptor feedforward mechanism governs differential GREB1 action in endometrial function and endometriosis.

Chadchan Sangappa B SB Popli Pooja P Liao Zian Z Andreas Eryk E Dias Michelle M Wang Tianyuan T Gunderson Stephanie J SJ Jimenez Patricia T PT Lanza Denise G DG Lanz Rainer B RB Foulds Charles E CE Monsivais Diana D DeMayo Francesco J FJ Yalamanchili Hari Krishna HK Jungheim Emily S ES Heaney Jason D JD Lydon John P JP Moley Kelle H KH O'Malley Bert W BW Kommagani Ramakrishna R

Nature communications 20240302 1

Cellular responses to the steroid hormones, estrogen (E2), and progesterone (P4) are governed by their cognate receptor's transcriptional output. However, the feed-forward mechanisms that shape cell-type-specific transcriptional fulcrums for steroid receptors are unidentified. Herein, we found that a common feed-forward mechanism between GREB1 and steroid receptors regulates the differential effect of GREB1 on steroid hormones in a physiological or pathological context. In physiological (recepti ...[more]

PMID: 38431630

Similar Datasets

Project description:The cellular responses to the steroid hormones, estrogen (E2), and progesterone (P4) are governed by their cognate receptor’s transcriptional output. Although multiple mechanisms including the tissue-specific coactivators dictate these transcriptional signatures, the feed-forward mechanisms, that evolved to coordinate the cell-type specific transcriptional fulcrums for steroid receptors are not yet identified. In this report, we found that a common feed-forward mechanism between GREB1 and steroid receptors governs the differential effect of GREB1 on steroid hormones in a physiological or pathological context. We found that in physiological (receptive) endometrium, GREB1 is essential for progesterone but not estrogenic responses, whereas in endometriosis, an E2-dependent endometrial pathology, it pre-dominantly mediates estrogenic actions. Specifically, the deletion of GREB1 curtails endometrial receptivity and decidualization, owing to impaired P4-dependent stromal cell proliferation. In contrast, GREB1 is not required for E2-mediated epithelial proliferation of the receptive uterus. Of mechanism, in receptive endometrium, progesterone-induced GREB1 physically interacts with the progesterone receptor on chromatin and functions as a cofactor in a positive feedback mechanism to selectively regulate P4-responses. In pathological conditions (endometriosis), ablation of GREB1 led to the development of smaller endometriotic lesions in mice and reduced E2-driven proliferation of human endometriotic cells. Moreover, E2-induced GREB1 modulated the E2-dependent target gene expression in a feed-forward mechanism. Collectively, acting as a downstream effector, GREB1 governs either P4-responses or E2-responses depending on the physiological or pathological setting. Importantly, this differential action of GREB1 is exerted by a common feed-forward mechanism between GREB1 and steroid receptors, which conceptually advances our understanding of the mechanism(s) that underlie the distinct cell- and tissue-specific actions of steroid hormones.

Project description:Programmed cellular responses to cycling ovarian-derived steroid hormones are central to normal endometrial function. Abnormalities therein, as in the estrogen-dependent, progesterone-"resistant" disorder, endometriosis, predispose to infertility and poor pregnancy outcomes. The endometrial stromal fibroblast (eSF) is a master regulator of pregnancy success. However, the complex hormone-epigenome-transcriptome interplay in eSF by each individual steroid hormone, estradiol (E2) and/or progesterone (P4), under physiologic and pathophysiologic conditions, is poorly understood and was investigated herein. Genome-wide analysis in normal, early and late stage eutopic eSF revealed: i) In contrast to P4, E2 extensively affected the eSF DNA methylome and transcriptome. Importantly, E2 resulted in a more open versus closed chromatin, confirmed by histone modification analysis. Combined E2 with P4 affected a totally different landscape than E2 or P4 alone. ii) P4 responses were aberrant in early and late stage endometriosis, and mapping differentially methylated CpG sites with progesterone receptor targets from the literature revealed different but not decreased P4-targets, leading to question the P4-"resistant" phenotype in endometriosis. Interestingly, an aberrant E2-response was noted in eSF from endometriosis women; iii) Steroid hormones affected specific genomic contexts and locations, significantly enriching enhancers and intergenic regions and minimally involving proximal promoters and CpG islands, regardless of hormone type and eSF disease state. iv) In eSF from women with endometriosis, aberrant hormone-induced methylation signatures were mainly due to existing DNA methylation marks prior to hormone treatments and involved known endometriosis genes and pathways. v) Distinct DNA methylation and transcriptomic signatures revealed early and late stage endometriosis comprise unique disease subtypes. Taken together, the data herein, for the first time, provide significant insight into the hormone-epigenome-transcriptome interplay of each steroid hormone in normal eSF, and aberrant E2 response, distinct disease subtypes, and pre-existing epigenetic aberrancies in the setting of endometriosis, provide mechanistic insights into how endometriosis affects endometrial function/dysfunction.

Dataset Information

A GREB1-steroid receptor feedforward mechanism governs differential GREB1 action in endometrial function and endometriosis.

Publications

A GREB1-steroid receptor feedforward mechanism governs differential GREB1 action in endometrial function and endometriosis.

Similar Datasets

OmicsDI is part of the ELIXIR infrastructure

Tweets