<p>Cell functions across eukaryotes are driven by specific gene expression programs, which are dependent on chromatin structure<sup><CitationRef AdditionalCitationIDS="CR2" CitationID="CR1">1</CitationRef>–<CitationRef CitationID="CR3">3</CitationRef></sup>. Here we report a single-cell multi-omics atlas of rice, one of the world’s major crops. By simultaneously profiling chromatin accessibility and RNA expression in 116,564 cells from eight organs, we identified cell-type-specific gene regulatory networks and described novel cell states, such as a ‘transitional state’ in floral meristems. On the basis of our network analyses, we uncovered the function of the cell-type-specific regulatory hubs RSR1, F3H and LTPL120 during rice development. Our analysis revealed correlations between cell type and agronomic traits, as well as conserved and divergent cell-type functions during evolution. In summary, this study not only offers a unique single-cell multi-omics resource for a major crop but also advances our understanding of cell-type functions and the underlying molecular programs in rice.</p>

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A single-cell multi-omics atlas of rice

  • Xiangyu Wang,
  • Huanwei Huang,
  • Sanjie Jiang,
  • Jingmin Kang,
  • Dongwei Li,
  • Kailai Wang,
  • Shang Xie,
  • Cheng Tong,
  • Chaofan Liu,
  • Guihua Hu,
  • Haoqian Li,
  • Cong Li,
  • Liwen Yang,
  • Yike Ding,
  • Shang-Tong Li,
  • Faming Wang,
  • Jan U. Lohmann,
  • Zhe Liang,
  • Xiaofeng Gu

摘要

Cell functions across eukaryotes are driven by specific gene expression programs, which are dependent on chromatin structure13. Here we report a single-cell multi-omics atlas of rice, one of the world’s major crops. By simultaneously profiling chromatin accessibility and RNA expression in 116,564 cells from eight organs, we identified cell-type-specific gene regulatory networks and described novel cell states, such as a ‘transitional state’ in floral meristems. On the basis of our network analyses, we uncovered the function of the cell-type-specific regulatory hubs RSR1, F3H and LTPL120 during rice development. Our analysis revealed correlations between cell type and agronomic traits, as well as conserved and divergent cell-type functions during evolution. In summary, this study not only offers a unique single-cell multi-omics resource for a major crop but also advances our understanding of cell-type functions and the underlying molecular programs in rice.