DNA糖基化酶
基底切除修复术
DNA修复
生物
DNA损伤
AP核酸内切酶
基因组不稳定性
基因
遗传学
神经退行性变
DNA
DNA甲基化
人类基因组
穆提
基因组
疾病
医学
基因表达
病理
作者
Young Sun Hwang,Sujin Kang,Jieun Kang,Jeong‐Woo Choi,Seung-Jin Kim,Sunbok Jang
标识
DOI:10.1038/s12276-025-01417-0
摘要
Abstract The base excision repair pathway protects DNA from base damage via oxidation, deamination, alkylation and methylation. DNA glycosylases are key enzymes that recognize damaged bases in a lesion-specific manner and initiate the base excision repair process. Among these, the endonuclease VIII-like 1–3 (NEIL1–3) family, which is found in mammalian genomes, is a homolog of bacterial DNA glycosylases known as Fpg/Nei. NEIL enzymes have similar structures and substrates but with slight differences. When repair proteins are impaired, the accumulation of damaged bases can lead to increased genomic instability, which is implicated in various pathologies, including cancer and neurodegeneration. Notably, mutations in these proteins also influence a range of other diseases and inflammation. This review focuses on the influence of the NEIL family on human health across different organ systems. Investigating the relationship between NEIL mutations and diseases can improve our understanding of how these enzymes affect the human body. This information is crucial for understanding the basic mechanisms of DNA repair and enabling the development of novel inhibitors or gene therapies that target only these enzymes. Understanding the role of the NEIL family provides insights into novel therapies and improves our ability to combat genetic diseases.
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