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PGRMC1/2 促进黄体血管生成并维持小鼠的原始卵泡。

PGRMC1/2 promotes luteal vascularization and maintains the primordial follicles of mice.

机构信息

Department of Cell Biology, University of Connecticut Health Center, Farmington, Connecticut, USA.

Department of Obstetrics and Gynecology, University of Connecticut Health Center, Farmington, Connecticut, USA.

出版信息

Reproduction. 2018 Oct 1;156(4):365-373. doi: 10.1530/REP-18-0155.

Abstract

To determine whether conditional depletion of progesterone receptor membrane component (PGRMC) 1 and PGRMC2 affected ovarian follicle development, follicle distribution was assessed in ovaries of young (≈3-month-old) and middle-aged (≈6-month-old) control (Pgrmc1/2fl/fl) and double conditional PGRMC1/2-knockout (Pgrmc1/2d/d) mice. This study revealed that the distribution of primary, preantral and antral follicles was not altered in Pgrmc1/2d/d mice, regardless of the age. Although the number of primordial follicles was similar at ≈3 months of age, their numbers were reduced by ≈80% in 6-month-old Pgrmc1/2d/d mice compared to age-matched Pgrmc1/2fl/fl mice. The Pgrmc1/2d/d mice were generated using Pgr-cre mice, so ablation of Pgrmc1 and Pgrmc2 in the ovary was restricted to peri-ovulatory follicles and subsequent corpora lutea (CL). In addition, the vascularization of CL was attenuated in Pgrmc1/2d/d mice, although mRNA levels of vascular endothelial growth factor A (Vegfa) were elevated. Moreover, depletion of Pgrmc1 and Pgrmc2 altered the gene expression profile in the non-luteal component of the ovary such that Vegfa expression, a stimulator of primordial follicle growth, was elevated; Kit Ligand expression, another stimulator of primordial follicle growth, was suppressed and anti-Mullerian hormone, an inhibitor of primordial follicle growth, was enhanced compared to Pgrmc1/2fl/fl mice. These data reveal that luteal cell depletion of Pgrmc1 and 2 alters the expression of growth factors within the non-luteal component of the ovary, which could account for the premature demise of the adult population of primordial follicles. In summary, the survival of adult primordial follicles is dependent in part on progesterone receptor membrane component 1 and 2.

摘要

为了确定孕酮受体膜成分(PGRMC)1 和 PGRMC2 的条件性缺失是否影响卵泡发育,我们评估了年轻(约 3 月龄)和中年(约 6 月龄)对照(Pgrmc1/2fl/fl)和双条件 PGRMC1/2 敲除(Pgrmc1/2d/d)小鼠卵巢中的卵泡分布。这项研究表明,无论年龄大小,PGRMC1/2d/d 小鼠的初级卵泡、窦前卵泡和窦卵泡分布均未改变。虽然在约 3 月龄时原始卵泡数量相似,但与年龄匹配的 Pgrmc1/2fl/fl 小鼠相比,6 月龄 Pgrmc1/2d/d 小鼠的原始卵泡数量减少了约 80%。PGRMC1/2d/d 小鼠是使用 Pgr-cre 小鼠生成的,因此卵巢中 Pgrmc1 和 Pgrmc2 的缺失仅限于排卵前卵泡和随后的黄体(CL)。此外,PGRMC1/2d/d 小鼠的 CL 血管生成减弱,尽管血管内皮生长因子 A(Vegfa)的 mRNA 水平升高。此外,PGRMC1 和 Pgrmc2 的缺失改变了卵巢非黄体成分的基因表达谱,导致促进原始卵泡生长的刺激因子 Vegfa 表达升高;另一种促进原始卵泡生长的刺激因子 Kit 配体表达受到抑制;抑制原始卵泡生长的抗 Müllerian 激素表达增强,与 Pgrmc1/2fl/fl 小鼠相比。这些数据表明,黄体细胞中 Pgrmc1 和 2 的缺失改变了卵巢非黄体成分中生长因子的表达,这可能是成年原始卵泡群体过早死亡的原因。总之,成年原始卵泡的存活部分依赖于孕酮受体膜成分 1 和 2。

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