甲基CpG结合域在启动子调控和神经发育中的作用

IF 4.7 2区 生物学 Q2 CELL BIOLOGY
Stephanie M Bilinovich, Surya B Chhetri, Jackson T Mitchell, Gage O Leighton, Vladislav Jdanov, Jacob K Zieba, Taylor W Cook, Krysta L Engel, Robert M Vaughan, Humza Bhatti, Sadie L Heeringa, Amy M Wilstermann, Sophie Vanderweele, Akansha S Das, Emily C Sherry, Stephen A Duncan, Katie L Uhl, David C Hinds, Mark Mackiewicz, Sarah K Meadows, Kimberly M Newberry, E Christopher Partridge, Sara G Cline, C Joy Shepard, D Casey Smith, Antonio Bradley, Daniel Vogt, Daniel B Campbell, Lucas Pozzo-Miller, Caleb P Bupp, Austin J Goodyke, Surender Rajasekaran, Rebecca C Knickmeyer, Benjie Blair, Connie M Krawczyk, Timothy J Triche, Richard M Myers, Eric M Mendenhall, David C Williams, Jeremy W Prokop
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引用次数: 0

摘要

越来越多的证据表明,甲基结合结构域(MBD)是一种蛋白-蛋白相互作用基序,可以独立于甲基化DNA结合发挥作用。在植物和无脊椎动物中发现的MBD蛋白可以复制成多个脊椎动物DNA和非DNA结合成员(MBD1、MBD2、MBD3、MBD4、MBD5、MBD6、MECP2、BAZ2A、BAZ2B、SETDB1、SETDB2)。虽然许多无脊椎动物拥有可以结合和识别DNA甲基化的MBD蛋白,但DNA结合功能已经多次独立丧失,蛋白质相互作用残基只有微小的改变。核小体重塑和去乙酰化酶(NuRD)复合物与MBD2/3相互作用,并与MBD1/4 ChIP-Seq共定位,在MBD2/3不能与DNA结合的物种中得以维持。来自HepG2细胞系、人ipsc和人ipsc衍生的肝细胞的NuRD ChIP-seq数据表明,NuRD复合物高度定位于非甲基化的富含cpg的内务基因启动子元件,这在器官发生中是必不可少的,并在果蝇MBD2/3非dna结合系统中维持。MBD相互作用蛋白和来自bb1.15亿个单细胞RNA-seq细胞的NuRD基因表达的整合,以及数千个大组织谱,突出了MBD3, MECP2和GATAD2B在大脑发育和智力残疾综合征中的关键作用,这种作用在整个无脊椎动物神经发育过程中维持,并且可能涉及随着脊椎动物MBD蛋白扩展而进化扩大的缠结。这项研究表明,MBD作为一种关键的蛋白质相互作用基序,在调节增强子和启动子的进化上是保守的,其作用在很大程度上尚未被探索。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Methyl-CpG-binding domain as a protein interaction partner in promoter regulation and neurodevelopment through evolutionary expanded entanglement.

There is increasing evidence that the methyl-binding domain (MBD) is a protein-protein interaction motif that can function independently of methylated DNA binding. The MBD proteins found throughout plants and invertebrates duplicated into multiple vertebrate DNA and non-DNA-binding members (MBD1, MBD2, MBD3, MBD4, MBD5, MBD6, MECP2, BAZ2A, BAZ2B, SETDB1, and SETDB2). Although many invertebrate species possess MBD proteins that can bind and recognize DNA methylation, the DNA-binding function has been independently lost multiple times, with only minor alterations to the protein interaction residues. The nucleosome remodeling and deacetylase (NuRD) complex, which interacts with MBD2/3 and is colocalized with MBD1/4 ChIP-Seq, is maintained in species where MBD2/3 cannot bind to DNA. NuRD ChIP-seq data from HepG2 cell line, human induced pluripotent stem cells (iPSCs), and human iPSC-derived liver cells suggest that the NuRD complex is highly localized to nonmethylated CpG-rich housekeeping gene promoter elements, which are essential in organogenesis and maintained within the Drosophila melanogaster MBD2/3 non-DNA-binding system. Integration of MBD interaction proteins and NuRD gene expression from >115 million cells of single-cell RNA-seq, along with thousands of bulk tissue profiles, highlights a critical role of MBD3, MECP2, and GATAD2B in brain development and intellectual disability syndromes that is maintained throughout invertebrate neural development and likely involves evolutionary expanded entanglement as the vertebrate MBD proteins expanded. This work suggests that MBD has a largely unexplored role as a critical protein interaction motif that is evolutionarily conserved for regulating enhancers and promoters.NEW & NOTEWORTHY The evolution of the methyl-binding domain (MBD) suggests a shared function in gene regulation, from plants to humans, with the conservation of non-DNA-interacting amino acids critical for protein-protein interactions. The MBD-regulated NuRD complex localizes to promoters of housekeeping genes with hypomethylated CpG islands. Expression profiles suggest a shared role for NuRD complex components in neurodevelopment, where the MBD3 and GATAD2B subcomplex of NuRD may be underexplored due to its non-DNA-binding biology.

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来源期刊
CiteScore
9.10
自引率
1.80%
发文量
252
审稿时长
1 months
期刊介绍: The American Journal of Physiology-Cell Physiology is dedicated to innovative approaches to the study of cell and molecular physiology. Contributions that use cellular and molecular approaches to shed light on mechanisms of physiological control at higher levels of organization also appear regularly. Manuscripts dealing with the structure and function of cell membranes, contractile systems, cellular organelles, and membrane channels, transporters, and pumps are encouraged. Studies dealing with integrated regulation of cellular function, including mechanisms of signal transduction, development, gene expression, cell-to-cell interactions, and the cell physiology of pathophysiological states, are also eagerly sought. Interdisciplinary studies that apply the approaches of biochemistry, biophysics, molecular biology, morphology, and immunology to the determination of new principles in cell physiology are especially welcome.
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