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Human Luteinized Granulosa Cells—A Cellular Model for the Human Corpus Luteum

机译:人黄体化颗粒细胞—人黄体的细胞模型

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摘要

In the ovary, the corpus luteum (CL) forms a temporal structure. Luteinized mural granulosa cells (GCs), which stem from the ruptured follicle, are the main cells of the CL. They can be isolated from follicular fluid of woman undergoing in vitro fertilization. In culture, human GCs are viable for several days and produce progesterone, yet eventually steroid production stops and GCs with increasing time in culture undergo changes reminiscent of the ones observed during the demise of the CL in vivo. This short review summarizes the general use of human GCs as a model for the primate CL and some of the data from our lab, which indicate that viability, functionality, survival and death of GCs can be regulated by local signal molecules (e.g., oxytocin and PEDF) and the extracellular matrix (e.g., via the proteoglycan decorin). We further summarize studies, which identified autophagocytotic events in human GCs linked to the activation of an ion channel. More recent studies identified a form of regulated cell death, namely necroptosis. This form of cell death may, in addition to apoptosis, contribute to the demise of the human CL. We believe that human GCs are a unique window into the human CL. Studies employing these cells may lead to the identification of molecular events and novel targets, which may allow to interfere with CL functions.
机译:在卵巢中,黄体(CL)形成一个时间结构。卵泡破裂的主要来源是黄素化的壁颗粒细胞(GCs)。它们可以从进行体外受精的妇女的卵泡液中分离出来。在培养中,人类GC可以存活数天并产生孕酮,但最终类固醇的生产会停止,并且随着培养时间的延长,GC发生的变化让人联想到体内CL灭亡期间观察到的变化。这篇简短的综述总结了人类GC作为灵长类动物CL模型的一般用途以及我们实验室的一些数据,这些数据表明,GC的生存力,功能性,存活和死亡可以通过局部信号分子(例如催产素和PEDF)和细胞外基质(例如,通过蛋白聚糖核心蛋白聚糖)。我们进一步总结了研究,这些研究确定了人类GC中与离子通道激活有关的自吞噬事件。最近的研究发现一种受调节的细胞死亡形式,即坏死性坏死。除细胞凋亡外,这种细胞死亡形式还可能导致人CL死亡。我们相信人类GC是进入人类CL的独特窗口。使用这些细胞的研究可能导致分子事件和新靶标的鉴定,这可能会干扰CL功能。

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