A multi-omic atlas of human embryonic skeletal development

Human embryonic bone and joint formation is determined by coordinated differentiation of progenitors in the nascent skeleton. The cell states, epigenetic processes and key regulatory factors that underlie lineage commitment of these cells remain elusive. Here we applied paired transcriptional and epigenetic profiling of approximately 336,000 nucleus droplets and spatial transcriptomics to establish a multi-omic atlas of human embryonic joint and cranium development between 5 and 11 weeks after conception. Using combined modelling of transcriptional and epigenetic data, we characterized regionally distinct limb and cranial osteoprogenitor trajectories across the embryonic skeleton and further described regulatory networks that govern intramembranous and endochondral ossification. Spatial localization of cell clusters in our in situ sequencing data using a new tool, ISS-Patcher, revealed mechanisms of progenitor zonation during bone and joint formation. Through trajectory analysis, we predicted potential non-canonical cellular origins for human chondrocytes from Schwann cells. We also introduce SNP2Cell, a tool to link cell-type-specific regulatory networks to polygenic traits such as osteoarthritis. Using osteolineage trajectories characterized here, we simulated in silico perturbations of genes that cause monogenic craniosynostosis and implicate potential cell states and disease mechanisms. This work forms a detailed and dynamic regulatory atlas of bone and cartilage maturation and advances our fundamental understanding of cell-fate determination in human skeletal development.

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Publication Details

Journal
Nature
Published
2024-11-20
DOI
https://doi.org/10.1038/s41586-024-08189-z
Citations
76
Primary Topic
Congenital heart defects research
Type
article
Field-Weighted Citation Impact
17.77

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article

A multi-omic atlas of human embryonic skeletal development

Madelyn Moy, Pavel Mazin, Raphaël Blain, Omer Ali Bayraktar et al.
76 citations
Nature
Congenital heart defects research
17.77
article

A multi-omic atlas of human embryonic skeletal development

Madelyn Moy, Pavel Mazin, Raphaël Blain, Omer Ali Bayraktar, Kazumasa Kanemaru, Anna Wilbrey-Clark, James J. Cranley, Ruoyan Li, Sarah Amalia Teichmann, Fani Memi, Ken To, J. Patrick Pett, Tong Li, Laura Richardson, Stathis Megas, Kenny S. Roberts, Alexander V. Predeus, Alain Chédotal, Simon Murray, Batuhan Çakır, Lijiang Fei, Christopher Dominic Buckley, Muzlifah A. Haniffa, Chuan Xu, Martin Prete, Rakeshlal Kapuge, Shani Perera, Xiaoling He, Ni Huang, Nadav Yayon, Roger A. Barker, Dave Horsfall, Krzysztof Polański, Elizabeth J. Tuck, Ilaria Mulas, Peng He, Kerstin B. Meyer
article en
76 citations

Abstract

Human embryonic bone and joint formation is determined by coordinated differentiation of progenitors in the nascent skeleton. The cell states, epigenetic processes and key regulatory factors that underlie lineage commitment of these cells remain elusive. Here we applied paired transcriptional and epigenetic profiling of approximately 336,000 nucleus droplets and spatial transcriptomics to establish a multi-omic atlas of human embryonic joint and cranium development between 5 and 11 weeks after conception. Using combined modelling of transcriptional and epigenetic data, we characterized regionally distinct limb and cranial osteoprogenitor trajectories across the embryonic skeleton and further described regulatory networks that govern intramembranous and endochondral ossification. Spatial localization of cell clusters in our in situ sequencing data using a new tool, ISS-Patcher, revealed mechanisms of progenitor zonation during bone and joint formation. Through trajectory analysis, we predicted potential non-canonical cellular origins for human chondrocytes from Schwann cells. We also introduce SNP2Cell, a tool to link cell-type-specific regulatory networks to polygenic traits such as osteoarthritis. Using osteolineage trajectories characterized here, we simulated in silico perturbations of genes that cause monogenic craniosynostosis and implicate potential cell states and disease mechanisms. This work forms a detailed and dynamic regulatory atlas of bone and cartilage maturation and advances our fundamental understanding of cell-fate determination in human skeletal development.

NatureVol. 635(8039)
Université Claude Bernard Lyon 1 (FR), Centre National de la Recherche Scientifique (FR), European Bioinformatics Institute (GB), Institut de la Vision (FR), Inserm (FR), University of California, San Francisco (US), Wellcome/MRC Cambridge Stem Cell Institute (GB), University of Cambridge (GB), Macmillan Cancer Support (GB), Wellcome Sanger Institute (GB), Sorbonne Université (FR), University of Oxford (GB), Hospices Civils de Lyon (FR), NIHR Newcastle Biomedical Research Centre (GB), Stem Cell Institute (PA), Newcastle University (GB)
Medical Research Council
Openalex Percentile: Top 0%
Congenital heart defects research
17.77
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