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MYRF:一种独特的跨膜转录因子——从蛋白水解自我加工到其在动物发育中的多方面作用。

MYRF: A unique transmembrane transcription factor- from proteolytic self-processing to its multifaceted roles in animal development.

机构信息

School of Life Science and Technology, ShanghaiTech University, Shanghai, China.

出版信息

Bioessays. 2024 Apr;46(4):e2300209. doi: 10.1002/bies.202300209. Epub 2024 Mar 15.

DOI:10.1002/bies.202300209
PMID:38488284
Abstract

The Myelin Regulator Factor (MYRF) is a master regulator governing myelin formation and maintenance in the central nervous system. The conservation of MYRF across metazoans and its broad tissue expression suggest it has functions extending beyond the well-established role in myelination. Loss of MYRF results in developmental lethality in both invertebrates and vertebrates, and MYRF haploinsufficiency in humans causes MYRF-related Cardiac Urogenital Syndrome, underscoring its importance in animal development; however, these mechanisms are largely unexplored. MYRF, an unconventional transcription factor, begins embedded in the membrane and undergoes intramolecular chaperone mediated trimerization, which triggers self-cleavage, allowing its N-terminal segment with an Ig-fold DNA-binding domain to enter the nucleus for transcriptional regulation. Recent research suggests developmental regulation of cleavage, yet the mechanisms remain enigmatic. While some parts of MYRF's structure have been elucidated, others remain obscure, leaving questions about how these motifs are linked to its intricate processing and function.

摘要

髓鞘调节因子 (MYRF) 是一种主调控因子,负责中枢神经系统中的髓鞘形成和维持。MYRF 在后生动物中的保守性及其广泛的组织表达表明,它的功能不仅限于已确立的髓鞘形成作用。MYRF 的缺失会导致无脊椎动物和脊椎动物的发育致死,人类的 MYRF 杂合不足会导致 MYRF 相关的心-尿生殖综合征,这凸显了它在动物发育中的重要性;然而,这些机制在很大程度上尚未得到探索。MYRF 是一种非常规的转录因子,它最初嵌入在膜中,并经历分子内伴侣介导的三聚化,这触发了自我切割,使其具有 Ig 折叠 DNA 结合结构域的 N 端片段进入细胞核进行转录调控。最近的研究表明,切割的发育调控,但机制仍然神秘。虽然已经阐明了 MYRF 结构的某些部分,但其他部分仍然不清楚,这就提出了关于这些基序如何与其复杂的加工和功能相关的问题。

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