Understanding Prokaryotic Adaptation through Advanced DNA Methylation Detection Techniques.

Ziming Chen,Chian Teng Ong,Elizabeth M Ross
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Abstract

DNA methylation, a versatile epigenetic modification in prokaryotes, is a crucial regulator of various biological activities, such as genome defence, gene expression, and DNA repair. The most common DNA methylation form in prokaryotes is N6-methyladenine, where a methyl group is added to the adenine. Orphan and restriction-modification system methylases constitute the main methylation systems in prokaryotes. Prokaryotes can adapt to environmental fluctuations through orphan methylase regulation and phase variation of restriction-modification systems, which generate diversified methylomes that modulate the expression of genes. Modern sequencing techniques, including single-molecule real-time sequencing and Nanopore sequencing, enable the characterization of several methylation patterns simultaneously and facilitate the study of prokaryotic epigenomics. This review introduces the prokaryotic DNA methylation systems and prokaryotic adaptation through DNA methylation. Finally, we summarize the current sequencing techniques capable of characterizing methylation forms applicable to prokaryotes and their future perspectives.
通过先进的DNA甲基化检测技术了解原核生物的适应性。
DNA甲基化是原核生物中一种多用途的表观遗传修饰,是多种生物活性的重要调控因子,如基因组防御、基因表达和DNA修复。在原核生物中最常见的DNA甲基化形式是n6 -甲基腺嘌呤,在腺嘌呤上加一个甲基。孤儿甲基化酶和限制性修饰体系甲基化酶是原核生物中主要的甲基化体系。原核生物通过孤儿甲基化酶调控和限制性修饰系统的相位变化来适应环境波动,产生多样化的甲基组,调节基因的表达。现代测序技术,包括单分子实时测序和纳米孔测序,能够同时表征几种甲基化模式,促进了原核表观基因组学的研究。本文综述了原核生物DNA甲基化系统及通过DNA甲基化进行的原核生物适应。最后,我们总结了目前能够表征适用于原核生物的甲基化形式的测序技术及其未来前景。
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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