CellUntangler: Separating distinct biological signals in single-cell data with deep generative models

Single-cell RNA sequencing has provided new insights into both intracellular and intercellular processes. However, multiple processes, such as cell-type programs, differentiation, and the cell cycle, often occur simultaneously within one cell. Existing methods typically target a single process and impose restrictive assumptions, risking the loss of valuable biological information. We introduce CellUntangler, a deep generative model that embeds cells into a latent space composed of multiple subspaces, each tailored with an appropriate geometry to capture a distinct signal. Applied to datasets of cycling-only and mixed cycling/non-cycling cells, CellUntangler disentangles the cell cycle from other processes such as cell type. The framework generalizes to disentangle additional signals, including spatial, tissue dissociation, interferon response, and cell-type identity. By providing flexible embeddings to capture various signals, CellUntangler enables selective enhancement or filtering of signals at the gene-expression level, offering a powerful tool for disentangling complex biological processes in single-cell data.

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Publication Details

Journal
Cell Genomics
Published
2025-12-01
DOI
https://doi.org/10.1016/j.xgen.2025.101073
Primary Topic
Single-cell and spatial transcriptomics
Type
article
Field-Weighted Citation Impact
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article

CellUntangler: Separating distinct biological signals in single-cell data with deep generative models

Anne Condon, Sarah Chen, Jiarui Ding, Aviv Regev
Cell Genomics
Single-cell and spatial transcriptomics
article

CellUntangler: Separating distinct biological signals in single-cell data with deep generative models

Anne Condon, Sarah Chen, Jiarui Ding, Aviv Regev
article en

Abstract

Single-cell RNA sequencing has provided new insights into both intracellular and intercellular processes. However, multiple processes, such as cell-type programs, differentiation, and the cell cycle, often occur simultaneously within one cell. Existing methods typically target a single process and impose restrictive assumptions, risking the loss of valuable biological information. We introduce CellUntangler, a deep generative model that embeds cells into a latent space composed of multiple subspaces, each tailored with an appropriate geometry to capture a distinct signal. Applied to datasets of cycling-only and mixed cycling/non-cycling cells, CellUntangler disentangles the cell cycle from other processes such as cell type. The framework generalizes to disentangle additional signals, including spatial, tissue dissociation, interferon response, and cell-type identity. By providing flexible embeddings to capture various signals, CellUntangler enables selective enhancement or filtering of signals at the gene-expression level, offering a powerful tool for disentangling complex biological processes in single-cell data.

Cell GenomicsVol. 6(2)
Broad Institute (US), University of British Columbia (CA)
Openalex Percentile: Top 66%
Single-cell and spatial transcriptomics
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CellUntangler: Separating distinct biological signals in single-cell data with deep generative models — Anne Condon, Sarah Chen, et al. · Cell Genomics (2025) | TGRS Research Map | TGRS