生物
线粒体
粒体自噬
线粒体融合
线粒体分裂
细胞生物学
生物发生
秀丽隐杆线虫
模式生物
柠檬酸循环
遗传学
线粒体DNA
生物化学
基因
自噬
新陈代谢
细胞凋亡
作者
Alexander M. van der Bliek,Margaret M. Sedensky,Philip G. Morgan
出处
期刊:Genetics
[Oxford University Press]
日期:2017-10-25
卷期号:207 (3): 843-871
被引量:308
标识
DOI:10.1534/genetics.117.300262
摘要
Abstract Mitochondria are best known for harboring pathways involved in ATP synthesis through the tricarboxylic acid cycle and oxidative phosphorylation. Major advances in understanding these roles were made with Caenorhabditiselegans mutants affecting key components of the metabolic pathways. These mutants have not only helped elucidate some of the intricacies of metabolism pathways, but they have also served as jumping off points for pharmacology, toxicology, and aging studies. The field of mitochondria research has also undergone a renaissance, with the increased appreciation of the role of mitochondria in cell processes other than energy production. Here, we focus on discoveries that were made using C. elegans, with a few excursions into areas that were studied more thoroughly in other organisms, like mitochondrial protein import in yeast. Advances in mitochondrial biogenesis and membrane dynamics were made through the discoveries of novel functions in mitochondrial fission and fusion proteins. Some of these functions were only apparent through the use of diverse model systems, such as C. elegans. Studies of stress responses, exemplified by mitophagy and the mitochondrial unfolded protein response, have also benefitted greatly from the use of model organisms. Recent developments include the discoveries in C. elegans of cell autonomous and nonautonomous pathways controlling the mitochondrial unfolded protein response, as well as mechanisms for degradation of paternal mitochondria after fertilization. The evolutionary conservation of many, if not all, of these pathways ensures that results obtained with C. elegans are equally applicable to studies of human mitochondria in health and disease.
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