Centromere Transcription: Means and Motive.

Q2 Medicine
Zachary Duda, Sarah Trusiak, Rachel O'Neill
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引用次数: 13

Abstract

The chromosome biology field at large has benefited from studies of the cell cycle components, protein cascades and genomic landscape that are required for centromere identity, assembly and stable transgenerational inheritance. Research over the past 20 years has challenged the classical descriptions of a centromere as a stable, unmutable, and transcriptionally silent chromosome component. Instead, based on studies from a broad range of eukaryotic species, including yeast, fungi, plants, and animals, the centromere has been redefined as one of the more dynamic areas of the eukaryotic genome, requiring coordination of protein complex assembly, chromatin assembly, and transcriptional activity in a cell cycle specific manner. What has emerged from more recent studies is the realization that the transcription of specific types of nucleic acids is a key process in defining centromere integrity and function. To illustrate the transcriptional landscape of centromeres across eukaryotes, we focus this review on how transcripts interact with centromere proteins, when in the cell cycle centromeric transcription occurs, and what types of sequences are being transcribed. Utilizing data from broadly different organisms, a picture emerges that places centromeric transcription as an integral component of centromere function.

着丝粒转录:手段和动机。
对着丝粒身份、组装和稳定的跨代遗传所需的细胞周期成分、蛋白质级联和基因组景观的研究使染色体生物学领域受益匪浅。过去20年的研究挑战了着丝粒作为稳定、不变和转录沉默的染色体成分的经典描述。相反,基于对真核生物物种(包括酵母、真菌、植物和动物)的广泛研究,着丝粒被重新定义为真核生物基因组中更具活力的区域之一,它需要以细胞周期特定的方式协调蛋白质复合物组装、染色质组装和转录活性。最近的研究表明,特定类型核酸的转录是定义着丝粒完整性和功能的关键过程。为了说明真核生物中着丝粒的转录景观,我们将重点介绍转录物如何与着丝粒蛋白相互作用,在细胞周期中何时发生着丝粒转录,以及转录的序列类型。利用来自广泛不同生物体的数据,一幅将着丝粒转录作为着丝粒功能不可分割的组成部分的图景出现了。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
3.30
自引率
0.00%
发文量
7
期刊介绍: Molecular biology has been providing an overwhelming amount of data on the structural components and molecular machineries of the cell and its organelles and the complexity of intra- and intercellular communication. The molecular basis of hereditary and acquired diseases is beginning to be unravelled, and profound new insights into development and evolutionary biology have been gained from molecular approaches. Progress in Molecular and Subcellular Biology summarises the most recent developments in this fascinating area of biology.
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