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Updated: Aug 9, 2026

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Studying Triple Negative Breast Cancer Using Orthotopic Breast Cancer Model
Published on: March 20, 2020
An Explanatory Deep Learning Pipeline for the Prediction and Visualization of Spatially Resolved Biomarker Expression
Vibha R Rao1, Madhumala K Sadanandappa1, Candice C Black2
1Department of Pathology and Laboratory Medicine, Dartmouth Hitchcock Medical Center, Lebanon, NH, USA.
The American Journal of Pathology
|August 7, 2026
Summary
X-SPATIO computationally links standard H&E pathology images with spatial gene and protein expression. This pipeline aids triple-negative breast cancer research by revealing spatial biomarker patterns cost-effectively.
Area of Science:
- Computational pathology
- Molecular imaging
- Cancer research
Background:
- Histopathology is crucial for cancer diagnosis but lacks routine molecular insights.
- Spatial omics platforms offer region-specific data but face cost and scalability limits.
- Current computational models often miss detailed spatial morpho-molecular connections, especially in heterogeneous cancers like TNBC.
Purpose of the Study:
- To develop X-SPATIO, a computational pipeline linking H&E morphology with spatial mRNA and protein expression.
- To enable cost-effective inference of spatial biomarker expression in routine histopathology.
- To support discovery and precision oncology in triple-negative breast cancer (TNBC).
Main Methods:
- Developed X-SPATIO, a spatially compatible computational pipeline.
- Trained the model on H&E regions and spatially-resolved omics data (GeoMx DSP).
- Utilized a multiple-instance learning approach to capture morpho-molecular associations and generate attention maps.
Main Results:
- X-SPATIO demonstrated strong performance for spatial biomarkers (AUC 0.79-0.97).
- Generated spatio-morphologic attention maps highlighting predictive tissue regions.
- Attention maps aligned with known biological patterns and tissue organization.
Conclusions:
- X-SPATIO effectively integrates spatial molecular data with histopathology.
- Enables cost-effective inference of spatial biomarker expression, crucial for TNBC.
- Provides a foundation for biologically grounded discovery and precision oncology in TNBC.