线粒体融合
神经科学
线粒体
发病机制
生物
疾病
生物能学
神经保护
氧化应激
线粒体DNA
线粒体分裂
阿尔茨海默病
神经退行性变
机制(生物学)
生物信息学
医学
遗传学
免疫学
病理
内分泌学
基因
哲学
认识论
作者
Wenyan Wei,Ying Jiang,Guizhen Hu,Yanfang He,Huiyi Chen
摘要
Alzheimer’s disease (AD) is one of the most common neurodegenerative disorders and is characterized by a decrease in learning capacity, memory loss and behavioral changes. In addition to the well-recognized amyloid-β cascade hypothesis and hyperphosphorylated Tau hypothesis, accumulating evidence has led to the proposal of the mitochondrial dysfunction hypothesis as the primary etiology of AD. However, the predominant molecular mechanisms underlying the development and progression of AD have not been fully elucidated. Mitochondrial dysfunction is not only considered an early event in AD pathogenesis but is also involved in the whole course of the disease, with numerous pathophysiological processes, including disordered energy metabolism, Ca 2+ homeostasis dysfunction and hyperactive oxidative stress. In the current review, we have integrated emerging evidence to summarize the main mitochondrial alterations— bioenergetic metabolism, mitochondrial inheritance, mitobiogenesis, fission– fusion dynamics, mitochondrial degradation, and mitochondrial movement— underlying AD pathogenesis; precisely identified the mitochondrial regulators; discussed the potential mechanisms and primary processes; highlighted the leading players; and noted additional incidental signaling pathway changes. This review may help to stimulate research exploring mitochondrial metabolically-oriented neuroprotection strategies in AD therapies, leading to a better understanding of the link between the mitochondrial dysfunction hypothesis and AD pathogenesis.
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