Zhang Linda, Wei Jiangbo, Zou Zhongyu, He Chuan
Department of Chemistry, Department of Biochemistry and Molecular Biology, and Institute for Biophysical Dynamics, The University of Chicago, Chicago, IL, USA.
Howard Hughes Medical Institute, University of Chicago, Chicago, IL, USA.
Nat Rev Drug Discov. 2025 Sep 17. doi: 10.1038/s41573-025-01280-8.
Ribonucleotide bases can be chemically modified by cellular enzymes such as methyltransferases to regulate RNA metabolism and biological processes. The association between abnormal levels of RNA modification effector proteins and human diseases has spurred interest in therapeutic targeting of RNA modification systems, and an agent that inhibits the RNA-methylating enzyme METTL3 has entered clinical trials. Despite the promise of these pathways, therapeutic agents targeting proteins that write, read and erase RNA modifications are still limited. In this Review, we describe the cellular functions and disease associations of proteins that regulate RNA modifications. We focus on the N-methyladenosine pathway, highlighting early-stage advances in inhibitor development such as against the YTH reader proteins, but we also discuss the potential of targeting other RNA modification pathways. Targeting RNA modification systems offers a new strategy for treating cancer, improving immunotherapy and enhancing stem cell therapies.
核糖核苷酸碱基可被诸如甲基转移酶等细胞酶进行化学修饰,以调节RNA代谢和生物过程。RNA修饰效应蛋白水平异常与人类疾病之间的关联激发了人们对RNA修饰系统治疗靶点的兴趣,一种抑制RNA甲基化酶METTL3的药物已进入临床试验。尽管这些途径前景广阔,但针对参与RNA修饰写入、读取和擦除过程的蛋白质的治疗药物仍然有限。在本综述中,我们描述了调节RNA修饰的蛋白质的细胞功能和疾病关联。我们重点关注N-甲基腺苷途径,强调抑制剂开发的早期进展,如针对YTH读取蛋白的抑制剂,但我们也讨论了靶向其他RNA修饰途径的潜力。靶向RNA修饰系统为治疗癌症、改善免疫疗法和增强干细胞疗法提供了一种新策略。