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flysta3d_v2

Drosophila melanogaster (Drosophila) - Taxonomy ID: 7227
Tissue
Whole organism
Biological Process
Development
Time Points
41
Time Details
embryonic_0_hours, embryonic_1.60_hours, embryonic_1.89_hours, embryonic_3.22_hours, embryonic_3.27_hours, embryonic_3.72_hours, embryonic_4.56_hours, embryonic_4.78_hours, embryonic_6.41_hours, embryonic_7.33_hours, embryonic_7.62_hours, embryonic_8.84_hours, embryonic_9.08_hours, embryonic_10.26_hours, embryonic_12.94_hours, embryonic_13.26_hours, embryonic_13.79_hours, embryonic_15.75_hours, embryonic_15.77_hours, embryonic_16.32_hours, embryonic_16.53_hours, embryonic_16.57_hours, embryonic_16.63_hours, embryonic_16.88_hours, embryonic_17.34_hours, embryonic_17.61_hours, embryonic_18.39_hours, embryonic_18.97_hours, embryonic_19.84_hours, embryonic_20.54_hours, larval_stage_1_early, larval_stage_1_late, larval_stage_2_early, larval_stage_2_late, larval_stage_3_early, larval_stage_3_late, pupal_12_hours, pupal_24_hours, pupal_48_hours, pupal_60_hours, pupal_72_hours
Total Slices
883
Sequencing Technology
Stereo-seq
Slice Thickness
7 μm for embryos/L1; 8 μm for L2/L3/Pupa
Interslice Distance
inferred equal to slice thickness from serial cryosectioning
Analysis Bin Size
not explicitly reported
Publication
A Drosophila single-cell 3D spatiotemporal multi-omics atlas unveils panoramic key regulators of cell-type differentiation
Journal
Cell (2025)
Data Source
https://db.cngb.org/stomics/flysta3d-v2/download/
Description

The development of a multicellular organism is a highly intricate process tightly regulated by numerous genes and pathways in both spatial and temporal manners. Here, we present Flysta3D-v2, a comprehensive multi-omics atlas of the model organism Drosophila spanning its developmental lifespan from embryo to pupa. Our datasets encompass 3D single-cell spatial transcriptomic, single-cell transcriptomic, and single-cell chromatin accessibility information. Through the integration of multimodal data, we generated developmentally continuous in silico 3D models of the entire organism. We further constructed tissue development trajectories that uncover the detailed profiles of cell-type differentiation. With a focus on the midgut, we identified transcription factors involved in midgut cell-type regulation and validated exex as a key regulator of copper cell development. This extensive atlas provides a rich resource and serves as a systematic platform for studying Drosophila development with integrated single-cell data at ultra-high spatiotemporal resolution.