Calcium Signaling in Oocyte Quality and Functionality and Its Application

Overview

Journal Front Endocrinol (Lausanne)

Specialty Endocrinology

Date 2024 Sep 2

PMID 39220364

Authors

Chen Chen

Zefan Huang

Shijue Dong

Mengqian Ding

Jinran Li

Miaomiao Wang

Xuhui Zeng

Xiaoning Zhang

Xiaoli Sun

Affiliations

Soon will be listed here.

Abstract

Calcium (Ca) is a second messenger for many signal pathways, and changes in intracellular Ca concentration ([Ca]i) are an important signaling mechanism in the oocyte maturation, activation, fertilization, function regulation of granulosa and cumulus cells and offspring development. Ca oscillations occur during oocyte maturation and fertilization, which are maintained by Ca stores and extracellular Ca ([Ca]e). Abnormalities in Ca signaling can affect the release of the first polar body, the first meiotic division, and chromosome and spindle morphology. Well-studied aspects of Ca signaling in the oocyte are oocyte activation and fertilization. Oocyte activation, driven by sperm-specific phospholipase PLCζ, is initiated by concerted intracellular patterns of Ca release, termed Ca oscillations. Ca oscillations persist for a long time during fertilization and are coordinately engaged by a variety of Ca channels, pumps, regulatory proteins and their partners. Calcium signaling also regulates granulosa and cumulus cells' function, which further affects oocyte maturation and fertilization outcome. Clinically, there are several physical and chemical options for treating fertilization failure through oocyte activation. Additionally, various exogenous compounds or drugs can cause ovarian dysfunction and female infertility by inducing abnormal Ca signaling or Ca dyshomeostasis in oocytes and granulosa cells. Therefore, the reproductive health risks caused by adverse stresses should arouse our attention. This review will systematically summarize the latest research progress on the aforementioned aspects and propose further research directions on calcium signaling in female reproduction.

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