粒体自噬
癫痫
下调和上调
海马结构
生物
自噬
细胞生物学
神经科学
基因
遗传学
细胞凋亡
作者
Yuan Gao,Limin Ma,Jinxian Yuan,Yunyi Huang,Yuenan Ban,Peng Zhang,Dandan Tan,Minxue Liang,Zhipeng Li,Gong Chen,Tao Xu,Xiaolan Yang,Yong Liu
摘要
Abstract Background Altered mitophagy has been observed in various neurological disorders, such as epilepsy. The role of mitophagy in causing neuronal damage during epileptic episodes is significant, and recent research has indicated that GLS2 plays a crucial role in regulating autophagy. However, exactly how GLS2 affects epilepsy is still unclear. Aims To investigate the expression and distribution characteristics of GLS2 in epilepsy, and then observed the changes in behavior and electrophysiology caused by overexpression of GLS2 in epileptic mice, and determined whether GLS2 regulated seizure‐like changes in the mouse model through the protective mechanism of mitophagy. Results The expression of GLS2 in a kainic acid (KA)‐induced epileptic mouse model and aglutamate‐inducedneuronal excitatory damage in HT22 cells model was downregulation. In brief, overexpression of GLS2 can alleviate epileptic activity. Subsequently, we demonstrated that GLS2 interacts with mitophagy‐related proteins in a KA‐induced epilepsy mouse model. Mechanistically, overexpression of GLS2 inhibited mitophagy in epileptic mice, downregulating the expression of LC3 and reducing ROS production. Conclusions This study proves the GLS2 expression pattern is abnormal in epileptic mice. The function of mitophagy in hippocampal neurons is affected by GLS2, and overexpression of GLS2 can reduce the occurrence of seizure‐like events (SLEs) by altering mitophagy function. Thus, GLS2 might control seizures, and our findings provide a fresh avenue for antiepileptic treatment and offer novel insights into treating and preventing epilepsy.
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