bioRxivDevelopmental BiologyPreprint
Zebrahub - Multimodal Zebrafish Developmental Atlas Reveals the State Transition Dynamics of Late Vertebrate Pluripotent Axial Progenitors
Merlin LangeiD, Alejandro A. GranadosiD, Shruthi VijayKumariD, Jordão BragantiniiD, Sarah AnchetaiD, Sreejith SanthoshiD, Michael BorjaiD, Hirofumi KobayashiiD, Aaron McGeeveriD, Ahmet Can SolakiD, Bin YangiD, Xiang ZhaoiD, Yang LiuiD, Angela M. DetweileriD, Sheryl PauliD, Honey E. MekoneniD, Tiger LaoiD, Rachel A. BanksiD, Yang Joon KimiD, Adrián JacoboiD, Keir M. BallaiD, Kyle AwayaniD, Samuel D’SouzaiD, Robert HaaseiD, Alexandre DizeuxiD, , Löıc A. RoyeriD
Abstract
Elucidating the developmental processes of organisms requires a comprehensive understanding of cellular lineages in the spatial, temporal, and molecular domains. In this study, we introduce Zebrahub, a dynamic atlas of zebrafish embryonic development that integrates single-cell sequencing time course data with lineage reconstructions facilitated by light-sheet microscopy. This atlas offers high-resolution and in-depth molecular insights into zebrafish development, achieved through the sequencing of individual embryos across ten developmental stages, complemented by trajectory reconstructions. Zebrahub also incorporates an interactive tool to navigate the complex cellular flows and lineages derived from light-sheet microscopy data, enabling in silico fate mapping experiments. To demonstrate the versatility of our multi-modal resource, we utilize Zebrahub to provide fresh insights into the pluripotency of Neuro-Mesodermal Progenitors (NMPs). Our publicly accessible web-based platform, Zebrahub, is a foundational resource for studying developmental processes at both transcriptional and spatiotemporal levels, providing researchers with an integrated approach to exploring and analyzing the complexities of cellular lineages during zebrafish embryogenesis.
- organism: zebrafish
- assay: scRNA-seq
- assay: imaging
- research focus: cell type annotation
- research focus: trajectory inference
- research focus: database / resource
- approach: statistical model
- approach: experimental assay
Abstract summary
Claude Opus 5.5 · xhigh effort · 18 Oct 2026 · from the abstract · CC BY-NC-ND 4.0
Zebrafish embryos sequenced individually across ten developmental stages, paired with light-sheet lineage reconstruction, form an atlas and browser for in silico fate mapping.
Tracing development requires cellular lineages understood in spatial, temporal and molecular domains together. Zebrahub joins per-embryo single-cell sequencing to light-sheet lineage reconstructions in one navigable resource.
Key results
ClaimedZebrahub assembles a zebrafish developmental atlas from single-cell sequencing of individual embryos at ten stages together with lineage reconstructions from light-sheet imaging.
Abstract describes sequencing of individual embryos across ten developmental stages plus trajectory reconstructions; no counts, quality metrics or comparisons are reported. · Abstract
ClaimedAn interactive web platform lets users follow cellular flows and lineages from the light-sheet data and run in silico fate mapping.
Stated as a feature of the publicly accessible platform; the abstract gives no example output or validation against experimental fate maps. · Abstract
ClaimedApplying the resource to neuro-mesodermal progenitors (NMPs) yields new conclusions about their pluripotency.
Presented as a demonstration of the multimodal resource; the abstract reports no measurements, marker genes or statistics behind the NMP conclusions. · Abstract
Methods, data and reproducibility
Single-cell sequencing of individual zebrafish embryos sampled over a time course of ten developmental stages, combined with lineage and cellular-flow reconstruction from light-sheet microscopy and with trajectory reconstruction, delivered through an interactive web-based platform.
- single-cell sequencing time course of individual zebrafish embryos across ten developmental stages · zebrafish
- light-sheet microscopy imaging used for lineage reconstruction and cellular flows · zebrafish
- Methods & tools
- Zebrahub, light-sheet microscopy, single-cell sequencing
- Reproducibility gaps
- The platform is described as publicly accessible but no address, repository or accession is printed in the abstract.
Limitations (2)
- No validation of the in silico fate mapping against experimental fate mapping, and no accuracy figures for the light-sheet lineage reconstructions, are described. · noted in this summary
- The NMP pluripotency conclusions are asserted without any supporting measurement, cell count or comparison in the available text. · noted in this summary
Read this if you study vertebrate developmental trajectories and want a zebrafish resource linking per-embryo transcriptomes to light-sheet lineage tracks.
- Citations
- 66
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