Evolutionary relationships and structural mechanisms of AAA+ proteins.

Jan P Erzberger, James M Berger
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引用次数: 726

Abstract

Complex cellular events commonly depend on the activity of molecular "machines" that efficiently couple enzymatic and regulatory functions within a multiprotein assembly. An essential and expanding subset of these assemblies comprises proteins of the ATPases associated with diverse cellular activities (AAA+) family. The defining feature of AAA+ proteins is a structurally conserved ATP-binding module that oligomerizes into active arrays. ATP binding and hydrolysis events at the interface of neighboring subunits drive conformational changes within the AAA+ assembly that direct translocation or remodeling of target substrates. In this review, we describe the critical features of the AAA+ domain, summarize our current knowledge of how this versatile element is incorporated into larger assemblies, and discuss specific adaptations of the AAA+ fold that allow complex molecular manipulations to be carried out for a highly diverse set of macromolecular targets.

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AAA+蛋白的进化关系及结构机制。
复杂的细胞事件通常依赖于分子“机器”的活性,这些“机器”在多蛋白组装中有效地偶联酶和调节功能。这些组合的一个基本和不断扩大的子集包括与多种细胞活动相关的atp酶(AAA+)家族的蛋白质。AAA+蛋白的定义特征是一个结构保守的atp结合模块,寡聚成活性阵列。邻近亚基界面的ATP结合和水解事件驱动AAA+组装中的构象变化,从而指导目标底物的易位或重塑。在这篇综述中,我们描述了AAA+结构域的关键特征,总结了我们目前对这种多功能元件如何被纳入更大的组装体的了解,并讨论了AAA+折叠的特定适应性,这些适应性允许对高度多样化的大分子靶标进行复杂的分子操作。
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