Chen Chen, Zhang Yue, Wu Hao, Qiao Jianjun, Caiyin Qinggele
School of Chemical Engineering and Technology, Tianjin University, Tianjin 300072, China.
State Key Laboratory of Synthetic Biology, Tianjin University, Tianjin 300072, China.
Microorganisms. 2025 May 14;13(5):1126. doi: 10.3390/microorganisms13051126.
Restriction-modification systems (RMS) are ubiquitous in prokaryotes and serve as primitive immune-like mechanisms that safeguard microbial genomes against foreign genetic elements. Beyond their well-known role in sequence-specific defense, RMS also contribute significantly to genomic stability, drive evolutionary processes, and mitigate the deleterious effects of mutations. This review provides a comprehensive synthesis of current insights into RMS, emphasizing their structural and functional diversity, ecological and evolutionary roles, and expanding applications in biotechnology. By integrating recent advances with an analysis of persisting challenges, we highlight the critical contributions of RMS to both fundamental microbiology and practical applications in biomedicine and industrial biotechnology. Furthermore, we discuss emerging research directions in RMS, particularly in light of novel technologies and the increasing importance of microbial genetics in addressing global health and environmental issues.
限制修饰系统(RMS)在原核生物中普遍存在,作为一种原始的类似免疫的机制,保护微生物基因组免受外来遗传元件的侵害。除了在序列特异性防御中众所周知的作用外,RMS对基因组稳定性也有显著贡献,推动进化过程,并减轻突变的有害影响。本综述全面综合了目前对RMS的见解,强调了它们的结构和功能多样性、生态和进化作用以及在生物技术中的扩展应用。通过将最新进展与对持续挑战的分析相结合,我们突出了RMS对基础微生物学以及生物医学和工业生物技术实际应用的关键贡献。此外,我们讨论了RMS的新兴研究方向,特别是鉴于新技术以及微生物遗传学在解决全球健康和环境问题方面日益重要的地位。
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