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MarsGT: Multi-omics analysis for rare population inference using single-cell graph transformer

Medicine and Health

MarsGT: Multi-omics analysis for rare population inference using single-cell graph transformer

X. Wang, M. Duan, et al.

MarsGT, an innovative deep learning model, excels in pinpointing rare cell populations critical for understanding disease progression and therapy responses. This groundbreaking approach offers unprecedented insights into unique subpopulations in various datasets, highlighting potential avenues for early detection and therapeutic intervention. This research was conducted by Xiaoying Wang, Maoteng Duan, Jingxian Li, Anjun Ma, Gang Xin, Dong Xu, Zihai Li, Bingqiang Liu, and Qin Ma.

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Abstract
Rare cell populations are key in neoplastic progression and therapeutic response, offering potential intervention targets. However, their computational identification and analysis often lag behind major cell types. To fill this gap, we introduce MarsGT: Multi-omics Analysis for Rare population inference using a Single-cell Graph Transformer. It identifies rare cell populations using a probability-based heterogeneous graph transformer on single-cell multi-omics data. MarsGT outperforms existing tools in identifying rare cells across 550 simulated and four real human datasets. In mouse retina data, it reveals unique subpopulations of rare bipolar cells and a Müller glia cell subpopulation. In human lymph node data, MarsGT detects an intermediate B cell population potentially acting as lymphoma precursors. In human melanoma data, it identifies a rare MAIT-like population impacted by a high IFN-I response and reveals the mechanism of immunotherapy. Hence, MarsGT offers biological insights and suggests potential strategies for early detection and therapeutic intervention of disease.
Publisher
Nature Communications
Published On
Jan 06, 2024
Authors
Xiaoying Wang, Maoteng Duan, Jingxian Li, Anjun Ma, Gang Xin, Dong Xu, Zihai Li, Bingqiang Liu, Qin Ma
Tags
deep learning
rare cell populations
single-cell multi-omics
neurology
therapy response
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