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Omics · study · 2026

Global cell-state and gene-program representations reveal conserved and context-specific perturbation responses of cells

Listed in NCBI GEO

Mammalian organisms comprise numerous types of cells with distinct gene-expression states, which arise from single zygotes differentiating on a complex landscape of cell states.

Description

The surge of single-cell transcriptomic data from human and other animals offer the possibility of constructing a global cell-state map, which will be foundational for understanding the molecular basis of normal tissue functions and dysfunction in diseases.

However, this challenging task requires computationally efficient integration of many large datasets and accurate removal of artifactual batch effects while preserving true biological variations. Here, we developed a contrastive learning model that combines the strong batch-correction power of pairwise integration with the computational scalability of deep learning and used this model to construct a global cell-state map from human and mouse single-cell transcriptomic data.

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This model outperforms other state-of-the-art foundation models for batch correction and dataset integration. The resulting global cell-state manifold enables projection and annotation of cell states, generation of cell-state trajectories, and prediction of causal genes driving cell-state transitions. To further illustrate its power for understanding the molecular basis of cell-state transitions, we performed genome-scale perturb-seq experiments on human embryonic stem cells and systematically mapped the cell states induced by genetic perturbations to the global cell-state manifold.

We identified gene programs that are differentially regulated both under normal development and upon genetic perturbations and distinct classes of perturbation-induced cell-state transitions that are aligned with or orthogonal to normal cell differentiation. The global cell-state manifold and related computational tools provide a powerful resource for understanding cell states and transitions in health and disease.

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Life Sciences
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Disease 75%
Provenance · 1 source records, 8 field assertions
SourceKeyLast seenRaw
NCBI GEOGSE29521415 d agoJSON v1
FieldAssertionExtractorEvidence
access_levelsource · NCBI GEOconnector:ncbi_geo@1.0.0
concepts[disease].local:disease:diseaseenrichment · NCBI GEOkeyword-concept-rules@1.0.0title+description (75%)
concepts[field].local:field:life-sciencesmapping · NCBI GEOconnector:ncbi_geo@1.0.0
concepts[method].geo_series_type:expression-profiling-by-high-throughput-sequencingsource · NCBI GEOconnector:ncbi_geo@1.0.0/gdstype
concepts[organism].NCBITaxon:9606source · NCBI GEOconnector:ncbi_geo@1.0.0/taxon
descriptionsource · NCBI GEOconnector:ncbi_geo@1.0.0/summary
publication_datesource · NCBI GEOconnector:ncbi_geo@1.0.0
titlesource · NCBI GEOconnector:ncbi_geo@1.0.0/title