Unveiling Tissue Structure and Tumor Microenvironment from Spatial Omics by Hypergraph Learning

Spatial omics technologies have revolutionized life sciences by enabling the simultaneous acquisition of biomolecular and spatial information. Identifying spatial patterns is crucial for understanding organ development and tumor microenvironments. However, the emergence of diverse spatial omics resolutions in these technologies has made it challenging to accurately characterize spatial domains at finer resolutions. To address this, we propose HyperSTAR, a hypergraph-based method designed to precisely identify spatial domains across varying resolutions by leveraging higher-order relationships among spatially adjacent tissue programs. Specifically, a gene expression-guided hyperedge decomposition module is introduced to refine the hypergraph structure to accurately delineate spatial domains boundaries. Additionally, a hypergraph attention convolutional neural network is designed to adaptively learn the importance of each hyperedge, enhancing the model's ability to capture complex higher-order relationships within spatially neighboring multi-spots and/or single cells. HyperSTAR outperforms existing graph neural network models in tasks such as uncovering tissue substructures, inferring spatiotemporal patterns, and denoising spatially resolved gene expressions. It effectively handles diverse spatial omics data types and scales seamlessly to large datasets. The method successfully reveals spatial heterogeneity in breast cancer sections, with findings validated through functional and survival analyses of independent clinical data. HyperSTAR represents a significant advancement in spatial omics analysis, representing a robust tool for exploring complex spatial patterns across varying resolutions and data types. Its ability to capture intricate higher-order relationships among spatially neighboring spots/cells makes it an invaluable tool for advancing research in life sciences, particularly in cancer and developmental biology. The toolbox is available at https://github.com/Ringoio/HyperSTAR.

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Publication Details

Journal
Genomics Proteomics & Bioinformatics
Published
2025-12-26
DOI
https://doi.org/10.1093/gpbjnl/qzaf128
Primary Topic
Single-cell and spatial transcriptomics
Type
article
Field-Weighted Citation Impact
0.00
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article

Unveiling Tissue Structure and Tumor Microenvironment from Spatial Omics by Hypergraph Learning

Weitian Huang, Chong Zhang, Zhiyuan Yuan, Junyu Li et al.
Genomics Proteomics & Bioinformatics
Single-cell and spatial transcriptomics
article

Unveiling Tissue Structure and Tumor Microenvironment from Spatial Omics by Hypergraph Learning

Weitian Huang, Chong Zhang, Zhiyuan Yuan, Junyu Li, Shangyan Cai, Jiazhou Chen, Yi Liao, Zhikang Wang, Robin B Gasser, Fei Qi, Jiangning Song, Hongmin Cai
article en

Abstract

Spatial omics technologies have revolutionized life sciences by enabling the simultaneous acquisition of biomolecular and spatial information. Identifying spatial patterns is crucial for understanding organ development and tumor microenvironments. However, the emergence of diverse spatial omics resolutions in these technologies has made it challenging to accurately characterize spatial domains at finer resolutions. To address this, we propose HyperSTAR, a hypergraph-based method designed to precisely identify spatial domains across varying resolutions by leveraging higher-order relationships among spatially adjacent tissue programs. Specifically, a gene expression-guided hyperedge decomposition module is introduced to refine the hypergraph structure to accurately delineate spatial domains boundaries. Additionally, a hypergraph attention convolutional neural network is designed to adaptively learn the importance of each hyperedge, enhancing the model's ability to capture complex higher-order relationships within spatially neighboring multi-spots and/or single cells. HyperSTAR outperforms existing graph neural network models in tasks such as uncovering tissue substructures, inferring spatiotemporal patterns, and denoising spatially resolved gene expressions. It effectively handles diverse spatial omics data types and scales seamlessly to large datasets. The method successfully reveals spatial heterogeneity in breast cancer sections, with findings validated through functional and survival analyses of independent clinical data. HyperSTAR represents a significant advancement in spatial omics analysis, representing a robust tool for exploring complex spatial patterns across varying resolutions and data types. Its ability to capture intricate higher-order relationships among spatially neighboring spots/cells makes it an invaluable tool for advancing research in life sciences, particularly in cancer and developmental biology. The toolbox is available at https://github.com/Ringoio/HyperSTAR.

Genomics Proteomics & Bioinformatics
Beijing Normal-Hong Kong Baptist University (CN), Guangdong University of Technology (CN), Hong Kong Baptist University (HK), The University of Melbourne (AU), Discovery Institute (US), Guizhou Minzu University (CN), Sustainable Development Institute (US), Pudong Medical Center (CN), Shanghai Center for Brain Science and Brain-Inspired Technology (CN), Monash University (AU), Monash Institute of Medical Research (AU), South China University of Technology (CN)
Responsible consumption and production
Openalex Percentile: Top 36%
Single-cell and spatial transcriptomics
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