4.8 Article

Single-cell transcriptomic characterization of a gastrulating human embryo

Journal

NATURE
Volume 600, Issue 7888, Pages 285-+

Publisher

NATURE PORTFOLIO
DOI: 10.1038/s41586-021-04158-y

Keywords

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Funding

  1. MRC-Wellcome Trust [099175/Z/12/Z, MR/R006237/1]
  2. British Heart Foundation [FS/18/24/33424]
  3. JSPS
  4. European Research Council [ERC: 741707]
  5. Helmholtz Association
  6. Wellcome [105031/C/14/Z, 108438/Z/15/Z, 215116/Z/18/Z, 103788/Z/14/Z]
  7. Wellcome Trust [108438/Z/15/Z, 215116/Z/18/Z, 105031/C/14/Z] Funding Source: Wellcome Trust

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The single-cell transcriptional profile of a human embryo between 16 and 19 days after fertilization shows similarities and differences in gastrulation compared to mouse and non-human primate models. This study provides new insights into human development and offers valuable information for directed differentiation of human cells in vitro.
The single-cell transcriptional profile of a human embryo between 16 and 19 days after fertilization reveals parallels and differences in gastrulation in humans as compared with mouse and non-human primate models. Gastrulation is the fundamental process in all multicellular animals through which the basic body plan is first laid down(1-4). It is pivotal in generating cellular diversity coordinated with spatial patterning. In humans, gastrulation occurs in the third week after fertilization. Our understanding of this process in humans is relatively limited and based primarily on historical specimens(5-8), experimental models(9-12) or, more recently, in vitro cultured samples(13-16). Here we characterize in a spatially resolved manner the single-cell transcriptional profile of an entire gastrulating human embryo, staged to be between 16 and 19 days after fertilization. We use these data to analyse the cell types present and to make comparisons with other model systems. In addition to pluripotent epiblast, we identified primordial germ cells, red blood cells and various mesodermal and endodermal cell types. This dataset offers a unique glimpse into a central but inaccessible stage of our development. This characterization provides new context for interpreting experiments in other model systems and represents a valuable resource for guiding directed differentiation of human cells in vitro.

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