Single-nucleus analysis of accessible chromatin in developing mouse forebrain reveals cell-type-specific transcriptional regulation

被引:0
|
作者
Sebastian Preissl
Rongxin Fang
Hui Huang
Yuan Zhao
Ramya Raviram
David U. Gorkin
Yanxiao Zhang
Brandon C. Sos
Veena Afzal
Diane E. Dickel
Samantha Kuan
Axel Visel
Len A. Pennacchio
Kun Zhang
Bing Ren
机构
[1] Ludwig Institute for Cancer Research,Center for Epigenomics, Department of Cellular and Molecular Medicine
[2] University of California,Bioinformatics and Systems Biology Graduate Program
[3] San Diego,Biomedical Sciences Graduate Program
[4] School of Medicine,Department of Bioengineering
[5] University of California San Diego,Environmental Genomics and Systems Biology Division
[6] University of California San Diego,School of Natural Sciences
[7] University of California San Diego,Comparative Biochemistry Program
[8] Lawrence Berkeley National Laboratory,Institute of Genomic Medicine, Moores Cancer Center
[9] US Department of Energy Joint Genome Institute,undefined
[10] University of California Merced,undefined
[11] University of California Berkeley,undefined
[12] University of California San Diego,undefined
[13] School of Medicine,undefined
来源
Nature Neuroscience | 2018年 / 21卷
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摘要
Analysis of chromatin accessibility can reveal transcriptional regulatory sequences, but heterogeneity of primary tissues poses a significant challenge in mapping the precise chromatin landscape in specific cell types. Here we report single-nucleus ATAC-seq, a combinatorial barcoding-assisted single-cell assay for transposase-accessible chromatin that is optimized for use on flash-frozen primary tissue samples. We apply this technique to the mouse forebrain through eight developmental stages. Through analysis of more than 15,000 nuclei, we identify 20 distinct cell populations corresponding to major neuronal and non-neuronal cell types. We further define cell-type-specific transcriptional regulatory sequences, infer potential master transcriptional regulators and delineate developmental changes in forebrain cellular composition. Our results provide insight into the molecular and cellular dynamics that underlie forebrain development in the mouse and establish technical and analytical frameworks that are broadly applicable to other heterogeneous tissues.
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页码:432 / 439
页数:7
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