Epithelial-Stromal Interaction and Progesterone Receptors in the Mouse Uterus

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This study investigated epithelial-stromal interaction and progesterone receptor signaling in the mouse uterus, focusing on mechanisms of progesterone resistance relevant to women's reproductive health.

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The paper reviews how balanced estrogen and progesterone receptor signaling in the mouse uterus depends on reciprocal “cross talk” between the epithelial and stromal compartments, emphasizing that progesterone receptor (PR) is a major mediator of these interactions. It discusses mouse models in which PR signaling is ablated or altered, describing that disrupted epithelial-stromal communication can produce uterine progesterone resistance affecting PR itself, receptor coregulators, and downstream effectors, with infertility as a key outcome. The authors note the mechanisms of progesterone resistance are being elucidated across these models, but the complexity of uterine diseases and molecular layering across PR, co-regulators, and downstream pathways is a major interpretive caveat. Relevance to endometriosis: the paper explicitly lists endometriosis among diseases associated with progesterone resistance and cites prior work on progesterone resistance in endometriosis, though the present focus is on epithelial-stromal interaction and PR signaling mechanisms in the mouse uterus.

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Abstract

Healthy uterine function depends on the balanced interaction of the ovarian steroids estrogen and progesterone (P4) signaling through their respective receptors. The expression of each receptor is regulated by the other through crucial cross talk between the epithelial and stromal compartments. Ablation of the progesterone receptor (PR) results in complete infertility in mice, and evidence increasingly demonstrates that the PR is a major mediator of epithelial-stromal cross talk and events leading to the disruption of this communication can lead to P4 resistance in the uterus. This resistance, through impaired P4 signaling, can be at the level of the PR itself, coregulators, and downstream effectors. The mechanisms underlying P4 resistance is of critical importance in women's health because this defect is seen in a wide variety of diseases including infertility, endometriosis, endometrial carcinoma, polycystic ovarian syndrome, and leiomyomas. By using mouse models of PR signaling, many of these mechanisms are beginning to be elucidated and aid in the development of effective therapies for treatment of uterine diseases.
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Abstract

Healthy uterine function depends on the balanced interaction of the ovarian steroids estrogen and progesterone (P4) signaling through their respective receptors. The expression of each receptor is regulated by the other through crucial cross talk between the epithelial and stromal compartments. Ablation of the progesterone receptor (PR) results in complete infertility in mice, and evidence increasingly demonstrates that the PR is a major mediator of epithelial-stromal cross talk and events leading to the disruption of this communication can lead to P4 resistance in the uterus. This resistance, through impaired P4 signaling, can be at the level of the PR itself, coregulators, and downstream effectors. The mechanisms underlying P4 resistance is of critical importance in women's health because this defect is seen in a wide variety of diseases including infertility, endometriosis, endometrial carcinoma, polycystic ovarian syndrome, and leiomyomas. By using mouse models of PR signaling, many of these mechanisms are beginning to be elucidated and aid in the development of effective therapies for treatment of uterine diseases.

Keywords

Progesterone receptor - progesterone resistance - uterus

References

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Condition tags

endometriosisinfertility

MeSH descriptors

Cell Communication Epithelial Cells Progesterone Receptors, Progesterone Uterus Animals Cell Communication Epithelial Cells Female Mice Molecular Chaperones Molecular Chaperones Paracrine Communication Paracrine Communication Progesterone Receptors, Progesterone Stromal Cells Stromal Cells Uterus Uterus

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