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SIB-MIL: Sparsity-Induced Bayesian Neural Network for Robust Multiple Instance Learning on Whole Slide Image Analysis
IEEE Transactions on Medical Imaging
|November 27, 2025
Summary
This study introduces SIB-MIL, a novel Bayesian neural network for whole slide image analysis, improving cancer classification and reducing prediction variance. The method enhances robustness and uncertainty quantification in histopathology image analysis.
Area of Science:
- Computational pathology
- Machine learning in histopathology
- Medical image analysis
Background:
- Multiple instance learning (MIL) is effective for whole slide histopathology images (WSIs) but struggles with overfitting and uncertainty quantification.
- Existing Bayesian neural networks (BNNs) face challenges with unstable predictions and high variance under weak supervision in WSI analysis.
Purpose of the Study:
- To develop a robust MIL method for WSI analysis that mitigates overfitting and provides reliable uncertainty quantification.
- To address the limitations of Gaussian BNNs in WSI prediction by introducing a sparsity-induced prior.
Main Methods:
- Proposed SIB-MIL: a sparsity-induced Bayesian Neural Network integrated into the MIL framework.
- Utilized a Horse-shoe prior on BNN parameters to induce sparsity, filter noise, and manage prediction variance.
- Applied the method to cancer classification and subtyping tasks using WSIs.
Main Results:
- SIB-MIL demonstrated improved performance over existing MIL networks in WSI analysis.
- The method effectively addressed variance overflowing issues common in Gaussian BNNs.
- Achieved robust performance in uncertainty quantification for histopathology image tasks.
Conclusions:
- SIB-MIL offers a more robust and uncertainty-aware approach for analyzing whole slide histopathology images.
- The sparsity-induced prior is crucial for enhancing MIL performance and reliability in WSI analysis.
- This work advances computational pathology by providing a powerful tool for cancer diagnosis and subtyping.
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