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May 15, 2026Communications Biology0 citationsOpen Access

Deciphering microenvironmental heterogeneity by scalable Niche Guided Module Discovery

CLChang LiuYZYi ZhouLXLongchen Xu

Key Points

  • This research aims to develop a scalable method to identify gene modules influenced by microenvironmental factors using spatial transcriptomics.
  • Developed Scalable Niche Guided Module Discovery (SIGMOD) integrating microenvironmental information with gene expression data.
  • Analyzed cell-type-specific and cell-state-specific gene modules using various spatial transcriptomics platforms.
  • Investigated gene module interactions to understand tissue composition and heterogeneity.
  • SIGMOD effectively identifies clinically relevant gene modules across multiple platforms including 10X ST and Visium.
  • Revealed significant cross-cell-type interactions and biologically relevant spatial patterns.
  • Enhanced understanding of crosstalk within the microenvironment, improving insights into tissue architecture.

Abstract

Spatial transcriptomics provides high-dimensional gene expression data while preserving spatial context, offering novel insights into tissue composition and heterogeneity. Each spot or cell in the spatial transcriptome could be reflected as gene modules influenced by its surrounding microenvironment, with module interactions vital for tissue architecture and function. Here, we present Scalable Niche Guided Module Discovery (SIGMOD), a method that integrates prior constructed microenvironment information with gene expression decompositions to uncover gene modules, enabling a deeper understanding of crosstalk within the microenvironment. SIGMOD identifies cell-type-specific and cell-state-specific, clinically relevant gene modules, uncovering gene module-module interactions in 10X ST, Visium, Xenium, and CosMX data, demonstrating its effectiveness and broad applicability. SIGMOD is a scalable framework for spatial transcriptomics that integrates microenvironmental niche information to discover gene modules. Across platforms and tissues, it identifies cell-type and cell-state programs, cross-cell-type interactions, and biologically relevant spatial patterns.

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Cite This Study

Liu et al. (2026) studied this question.

synapsesocial.com/papers/6a06b888e7dec685947aaff6https://doi.org/10.1038/s42003-026-10240-w
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