Höök Peter
Department of Pathology and Cell Biology, Columbia University, New York, USA.
ScientificWorldJournal. 2010 May 4;10:857-64. doi: 10.1100/tsw.2010.76.
Unlike our understanding of the other two classes of cytoskeletal motor proteins, the myosins and kinesins, we have only recently begun to comprehend the molecular mechanism for how dynein produces force and movement. The slow progress has been attributed, in part, to the enormous size of the dynein force-producing head, but also to the complex interplay between its structural components, each of which has a unique role in regulating dynein motor activity. The integrated and highly coordinated mechanism by which these structures work together in powering the dynein machinery is discussed in this review.
与我们对细胞骨架运动蛋白的其他两类——肌球蛋白和驱动蛋白的理解不同,我们直到最近才开始理解动力蛋白产生力和运动的分子机制。进展缓慢部分归因于动力蛋白产生力的头部体积巨大,也归因于其结构组件之间复杂的相互作用,每个组件在调节动力蛋白的运动活性方面都有独特作用。本文综述讨论了这些结构共同作用为动力蛋白机制提供动力的整合且高度协调的机制。