Nature CommunicationsBioinformaticsPeer-reviewed journal article
De novo analysis of bulk RNA-seq data at spatially resolved single-cell resolution
Jie LiaoiD, Jingyang QianiD, Fang YiniD, Zhuo CheniD, Xiang ZhuangiD, Ningyu ZhangiD, Xin ShaoiD, Yining Hu, Penghui YangiD, Junyun ChengiD, Yang HuiD, Lingqi Yu, Haihong Yang, Jinlu ZhangiD, Xiaoyan LuiD, Li ShaoiD, Dan WuiD, Yue GaoiD, Huajun CheniD, Xiaohui FaniD
Abstract
Uncovering the tissue molecular architecture at single-cell resolution could help better understand organisms biological and pathological processes. However, bulk RNA-seq can only measure gene expression in cell mixtures, without revealing the transcriptional heterogeneity and spatial patterns of single cells. Herein, we introduce Bulk2Space (https://github.com/ZJUFanLab/bulk2space), a deep learning framework-based spatial deconvolution algorithm that can simultaneously disclose the spatial and cellular heterogeneity of bulk RNA-seq data using existing single-cell and spatial transcriptomics references. The use of bulk transcriptomics to validate Bulk2Space unveils, in particular, the spatial variance of immune cells in different tumor regions, the molecular and spatial heterogeneity of tissues during inflammation-induced tumorigenesis, and spatial patterns of novel genes in different cell types. Moreover, Bulk2Space is utilized to perform spatial deconvolution analysis on bulk transcriptome data from two different mouse brain regions derived from our in-house developed sequencing approach termed Spatial-seq. We have not only reconstructed the hierarchical structure of the mouse isocortex but also further annotated cell types that were not identified by original methods in the mouse hypothalamus.
- organism: mouse
- assay: bulk RNA-seq
- assay: spatial transcriptomics
- assay: scRNA-seq
- research focus: deconvolution
- research focus: cell type annotation
- research focus: spatial domain detection
- approach: deep learning
- Citations
- 89
- FWCI
- 5.88
- Field percentile
- top 2%
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