School of Engineering and Science, Research Center MOLIFE - Molecular Life Science, Jacobs University Bremen, Campus Ring 1, Research II, Room 120, Bremen D-28759, Germany.
Nutr Metab (Lond). 2013 Oct 12;10(1):63. doi: 10.1186/1743-7075-10-63.
Research in the last decade has revolutionized the way in which we view mitochondria. Mitochondria are no longer viewed solely as cellular powerhouses; rather, mitochondria are now understood to be vibrant, mobile structures, constantly undergoing fusion and fission, and engaging in intimate interactions with other cellular compartments and structures. Findings have implicated mitochondria in a wide variety of cellular processes and molecular interactions, such as calcium buffering, lipid flux, and intracellular signaling. As such, it does not come as a surprise that an increasing number of human pathologies have been associated with functional defects in mitochondria. The difficulty in understanding and treating human pathologies caused by mitochondrial dysfunction arises from the complex relationships between mitochondria and other cellular processes, as well as the genetic background of such diseases. This review attempts to provide a summary of the background knowledge and recent developments in mitochondrial processes relating to mitochondrial-associated metabolic diseases arising from defects or deficiencies in mitochondrial function, as well as insights into current and future avenues for investigation.
在过去的十年中,研究彻底改变了我们看待线粒体的方式。线粒体不再被单纯视为细胞的能量工厂;相反,现在人们认为线粒体是充满活力、可移动的结构,不断进行融合和裂变,并与其他细胞区室和结构进行密切相互作用。研究结果表明,线粒体参与了多种细胞过程和分子相互作用,如钙缓冲、脂质流动和细胞内信号转导。因此,越来越多的人类疾病与线粒体功能缺陷有关,这并不奇怪。理解和治疗由线粒体功能障碍引起的人类疾病的困难源于线粒体与其他细胞过程之间的复杂关系,以及这些疾病的遗传背景。本文综述试图概述与线粒体功能缺陷相关的线粒体代谢疾病的线粒体相关过程的背景知识和最新进展,以及对当前和未来研究途径的见解。