DNA修复
生物
神经退行性变
基因组
基因
DNA
人类基因组
计算生物学
遗传学
染色质
细胞生物学
疾病
医学
病理
作者
Dylan A. Reid,Patrick Reed,J Schlachetzki,I Niţulescu,Grace Chou,Enoch C. Tsui,Jeffrey R. Jones,Sahaana Chandran,Ake T. Lu,Claire A. McClain,Jean H. Ooi,Tzu‐Wen Wang,Addison J. Lana,Sara B. Linker,Anthony S. Ricciardulli,Shong Lau,Simon T. Schafer,Steve Horvath,Jesse R. Dixon,Nasun Hah,Christopher K. Glass,Fred H. Gage
出处
期刊:Science
[American Association for the Advancement of Science (AAAS)]
日期:2021-04-02
卷期号:372 (6537): 91-94
被引量:78
标识
DOI:10.1126/science.abb9032
摘要
DNA repair within neurons Humans have only a limited capacity to generate new neurons. These cells thus need to repair errors in the genome. To better understand this process, Reid et al. developed Repair-seq, a method to locate DNA repair within the genome of stem cell–derived neurons. DNA repair hotspots (DRHs) were more likely to occur within specific genomic features such as gene bodies as well as in genomic formations, open chromatin, and active regulatory regions. This method showed that repair was enriched at sites involved in neuronal function and identity. Furthermore, proteomic data indicated that genes in DRHs are enriched in Alzheimer's disease and that DRHs are more active in aging. These observations link neuronal DNA repair to aging and neurodegeneration. Science , this issue p. 91
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