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Genomic Architecture of Cells in Tissues (GeACT): Study of Human Mid-gestation Fetus

Tian, F.; Zhou, F.; Li, X.; Ma, W.; Wu, H.; Yang, M.; Chapman, A. R.; Lee, D. F.; Tan, L.; Xing, D.; Yin, G.; Semayel, A.; Wang, J.; Wang, J.; Sun, W.; He, R.; Zhang, S.; Cao, Z.; Wei, L.; Lu, S.; Yang, D.; Mao, Y.; Gao, Y.; Chen, K.; Zhang, Y.; Liu, X.; Yong, J.; Yan, L.; Huang, Y.; Qiao, J.; Tang, F.; Gao, G.; Xie, X. S.

2020-04-13 genomics
10.1101/2020.04.12.038000 bioRxiv
Show abstract

By circumventing cellular heterogeneity, single cell omics have now been widely utilized for cell typing in human tissues, culminating with the undertaking of human cell atlas aimed at characterizing all human cell types. However, more important are the probing of gene regulatory networks, underlying chromatin architecture and critical transcription factors for each cell type. Here we report the Genomic Architecture of Cells in Tissues (GeACT), a comprehensive genomic data base that collectively address the above needs with the goal of understanding the functional genome in action. GeACT was made possible by our novel single-cell RNA-seq (MALBAC-DT) and ATAC-seq (METATAC) methods of high detectability and precision. We exemplified GeACT by first studying representative organs in human mid-gestation fetus. In particular, correlated gene modules (CGMs) are observed and found to be cell-type-dependent. We linked gene expression profiles to the underlying chromatin states, and found the key transcription factors for representative CGMs. HighlightsO_LIGenomic Architecture of Cells in Tissues (GeACT) data for human mid-gestation fetus C_LIO_LIDetermining correlated gene modules (CGMs) in different cell types by MALBAC-DT C_LIO_LIMeasuring chromatin open regions in single cells with high detectability by METATAC C_LIO_LIIntegrating transcriptomics and chromatin accessibility to reveal key TFs for a CGM C_LI

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