The role of Aha1 in cancer and neurodegeneration.

IF 3.5 3区 医学 Q2 NEUROSCIENCES
Frontiers in Molecular Neuroscience Pub Date : 2024-12-24 eCollection Date: 2024-01-01 DOI:10.3389/fnmol.2024.1509280
Brian S J Blagg, Kevin C Catalfano
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引用次数: 0

Abstract

The 90 kDa Heat shock protein (Hsp90) is a family of ubiquitously expressed molecular chaperones responsible for the stabilization and maturation of >400 client proteins. Hsp90 exhibits dramatic conformational changes to accomplish this, which are regulated by partner proteins termed co-chaperones. One of these co-chaperones is called the activator or Hsp90 ATPase activity homolog 1 (Aha1) and is the most potent accelerator of Hsp90 ATPase activity. In conditions where Aha1 levels are dysregulated including cystic fibrosis, cancer and neurodegeneration, Hsp90 mediated client maturation is disrupted. Accumulating evidence has demonstrated that many disease states exhibit large hetero-protein complexes with Hsp90 as the center. Many of these include Aha1, where increased Aha1 levels drive disease states forward. One strategy to block these effects is to design small molecule disruptors of the Hsp90/Aha1 complex. Studies have demonstrated that current Hsp90/Aha1 small molecule disruptors are effective in both models for cancer and neurodegeration.

Aha1在癌症和神经变性中的作用。
90 kDa热休克蛋白(Hsp90)是一个普遍表达的分子伴侣蛋白家族,负责bbb400客户蛋白的稳定和成熟。Hsp90表现出戏剧性的构象变化来实现这一目标,这是由称为co-chaperone的伴侣蛋白调节的。这些共同伴侣之一被称为激活剂或Hsp90 atp酶活性同源物1 (Aha1),是Hsp90 atp酶活性最有效的加速器。在包括囊性纤维化、癌症和神经变性在内的Aha1水平失调的情况下,Hsp90介导的客户成熟被破坏。越来越多的证据表明,许多疾病状态表现出以Hsp90为中心的大型异蛋白复合物。其中许多包括Aha1,其中Aha1水平的增加推动疾病状态的发展。阻断这些影响的一种策略是设计Hsp90/Aha1复合物的小分子干扰物。研究表明,目前的Hsp90/Aha1小分子干扰物在癌症和神经变性模型中都有效。
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来源期刊
CiteScore
5.70
自引率
2.10%
发文量
669
审稿时长
14 weeks
期刊介绍: Frontiers in Molecular Neuroscience is a first-tier electronic journal devoted to identifying key molecules, as well as their functions and interactions, that underlie the structure, design and function of the brain across all levels. The scope of our journal encompasses synaptic and cellular proteins, coding and non-coding RNA, and molecular mechanisms regulating cellular and dendritic RNA translation. In recent years, a plethora of new cellular and synaptic players have been identified from reduced systems, such as neuronal cultures, but the relevance of these molecules in terms of cellular and synaptic function and plasticity in the living brain and its circuits has not been validated. The effects of spine growth and density observed using gene products identified from in vitro work are frequently not reproduced in vivo. Our journal is particularly interested in studies on genetically engineered model organisms (C. elegans, Drosophila, mouse), in which alterations in key molecules underlying cellular and synaptic function and plasticity produce defined anatomical, physiological and behavioral changes. In the mouse, genetic alterations limited to particular neural circuits (olfactory bulb, motor cortex, cortical layers, hippocampal subfields, cerebellum), preferably regulated in time and on demand, are of special interest, as they sidestep potential compensatory developmental effects.
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