Defects in meiosis I contribute to the genesis of androgenetic hydatidiform moles.

IF 13.3 1区 医学 Q1 MEDICINE, RESEARCH & EXPERIMENTAL Journal of Clinical Investigation Pub Date : 2024-11-15 DOI:10.1172/JCI170669
Maryam Rezaei, Manqi Liang, Zeynep Yalcin, Jacinta H Martin, Parinaz Kazemi, Eric Bareke, Zhao-Jia Ge, Majid Fardaei, Claudio Benadiva, Reda Hemida, Adnan Hassan, Geoffrey J Maher, Ebtesam Abdalla, William Buckett, Pierre-Adrien Bolze, Iqbaljit Sandhu, Onur Duman, Suraksha Agrawal, JianHua Qian, Jalal Vallian Broojeni, Lavi Bhati, Pierre Miron, Fabienne Allias, Amal Selim, Rosemary A Fisher, Michael J Seckl, Philippe Sauthier, Isabelle Touitou, Seang Lin Tan, Jacek Majewski, Teruko Taketo, Rima Slim
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Abstract

To identify novel genes responsible for recurrent hydatidiform moles (HMs), we performed exome sequencing on 75 unrelated patients who were negative for mutations in the known genes. We identified biallelic deleterious variants in 6 genes, FOXL2, MAJIN, KASH5, SYCP2, MEIOB, and HFM1, in patients with androgenetic HMs, including a familial case of 3 affected members. Five of these genes are essential for meiosis I, and their deficiencies lead to premature ovarian insufficiency. Advanced maternal age is the strongest risk factor for sporadic androgenetic HM, which affects 1 in every 600 pregnancies. We studied Hfm1-/- female mice and found that these mice lost all their oocytes before puberty but retained some at younger ages. Oocytes from Hfm1-/- mice initiated meiotic maturation and extruded the first polar bodies in culture; however, their meiotic spindles were often positioned parallel, instead of perpendicular, to the ooplasmic membrane at telophase I, and some oocytes extruded the entire spindle with all the chromosomes into the polar bodies at metaphase II, a mechanism we previously reported in Mei1-/- oocytes. The occurrence of a common mechanism in two mouse models argues in favor of its plausibility at the origin of androgenetic HM formation in humans.

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减数分裂 I 的缺陷是雄激素性水滴形痣的成因之一。
为了找出导致复发性水滴形痣(HMs)的新基因,我们对已知基因突变呈阴性的 75 名无关患者进行了外显子组测序。我们在雄激素遗传性水滴形痣患者中发现了 6 个基因(FOXL2、MAJIN、KASH5、SYCP2、MEIOB 和 HFM1)的双偶缺失变异,其中包括一个由 3 名患者组成的家族病例。其中五个基因是减数分裂 I 的必需基因,缺乏这些基因会导致卵巢早衰。高龄产妇是偶发性雄激素性 HM 的最大风险因素,每 600 例妊娠中就有 1 例罹患该病。我们对Hfm1-/-雌性小鼠进行了研究,发现这些小鼠在青春期前失去了所有卵母细胞,但在较年轻时保留了一些。Hfm1-/-小鼠的卵母细胞开始减数分裂成熟,并在培养过程中挤出第一个极体;然而,它们的减数分裂纺锤体在端期I时的位置往往与卵原膜平行,而不是垂直,有些卵母细胞在分裂后期II时将整个纺锤体连同所有染色体挤出极体,这是我们之前在Mei1-/-卵母细胞中报道的一种机制。在两种小鼠模型中出现的共同机制证明了人类雄激素性 HM 形成的起源是合理的。
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来源期刊
Journal of Clinical Investigation
Journal of Clinical Investigation 医学-医学:研究与实验
CiteScore
24.50
自引率
1.30%
发文量
1034
审稿时长
2 months
期刊介绍: The Journal of Clinical Investigation, established in 1924 by the ASCI, is a prestigious publication that focuses on breakthroughs in basic and clinical biomedical science, with the goal of advancing the field of medicine. With an impressive Impact Factor of 15.9 in 2022, it is recognized as one of the leading journals in the "Medicine, Research & Experimental" category of the Web of Science. The journal attracts a diverse readership from various medical disciplines and sectors. It publishes a wide range of research articles encompassing all biomedical specialties, including Autoimmunity, Gastroenterology, Immunology, Metabolism, Nephrology, Neuroscience, Oncology, Pulmonology, Vascular Biology, and many others. The Editorial Board consists of esteemed academic editors who possess extensive expertise in their respective fields. They are actively involved in research, ensuring the journal's high standards of publication and scientific rigor.
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