The neonatal ketone body is important for primordial follicle pool formation and regulates ovarian ageing in mice

Xin-ying Wang, Xin-Ge Zhang, Yong-Juan Sang, Danyang Chong, X. Sheng, Haiquan Wang, Chao-Fan Yang, Gui Jun Yan, Haixiang Sun, Chao-Jun Li
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引用次数: 1

Abstract

Adverse nutritional conditions during the perinatal stage are related to early menopause in adulthood; however, the underlying mechanism is still unclear. Herein, we revealed that colostrum-activated ketone body elevation during the postnatal stage regulated primordial follicle reservoir size and then affected ovarian ageing. We found that the expression of the ketogenesis rate-limiting enzyme 3-hydroxy-3-methylglutaryl-CoA synthase 2 (Hmgcs2) was largely enhanced during primordial follicle pool formation after birth and might be activated in the ovaries by colostrum. Reactive oxygen species (ROS) elevation in the ovaries leads to follicle apoptosis to deplete damaged follicles, while Hmgcs2 deficiency enhances follicle apoptosis and thus decreases the size of the primordial follicle pool and leads to premature ovarian ageing (POA), which might be related to the activation of cellular endogenous antioxidant system. All these defects could be rescued by ketone body administration, which suppressed ROS-activated follicle apoptosis. Our results suggest that the internal metabolic homeostasis of new-born mice is critical for the primordial reservoir and that any intrauterine and perinatal undernutrition could result in POA.
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新生酮体在小鼠原始卵泡池形成和调节卵巢老化中起重要作用
围产期的不良营养状况与成年早期更年期有关;然而,其根本机制仍不清楚。在此,我们发现,在出生后阶段,初乳激活的酮体升高调节了原始卵泡库的大小,然后影响了卵巢衰老。我们发现,在出生后原始卵泡池的形成过程中,酮生成速率限制酶3-羟基-3-甲基戊二酰-CoA合成酶2(Hmgcs2)的表达显著增强,并且可能在卵巢中被初乳激活。卵巢中活性氧(ROS)的升高导致卵泡凋亡,耗尽受损的卵泡,而Hmgcs2缺乏则会增强卵泡凋亡,从而减少原始卵泡池的大小,并导致卵巢早衰(POA),这可能与细胞内源性抗氧化系统的激活有关。酮体给药可抑制ROS激活的卵泡凋亡,从而挽救所有这些缺陷。我们的研究结果表明,新生小鼠的内部代谢稳态对原始库至关重要,任何宫内和围产期营养不良都可能导致POA。
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