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Curriculum Feature Alignment Domain Adaptation for Epithelium-Stroma Classification in Histopathological Images
IEEE Journal of Biomedical and Health Informatics
|September 4, 2020
Summary
This study introduces a new Curriculum Feature Alignment Network (CFAN) for epithelial-stroma (ES) classification, improving accuracy by aligning features across different datasets without needing manual labels. The method enhances deep learning performance in medical imaging tasks.
Area of Science:
- Medical Imaging
- Computer Vision
- Machine Learning
Background:
- Deep learning is increasingly used for epithelial-stroma (ES) classification in medical imaging.
- Traditional methods fail when training and test data distributions differ, common in complex imaging.
- Unsupervised domain adaptation (UDA) offers a solution by transferring knowledge to unlabeled data, avoiding extensive manual annotation.
Purpose of the Study:
- To address the limitation of existing UDA methods that ignore semantic alignment in ES classification.
- To propose a novel deep learning framework, the Curriculum Feature Alignment Network (CFAN), for improved ES classification.
- To enhance the transferability of deep learning models across different medical imaging datasets.
Main Methods:
- Developed a Curriculum Feature Alignment Network (CFAN) to gradually align discriminative features across domains.
- Implemented a Curriculum Transfer Strategy (CTS) for effective sample selection from the target domain.
- Utilized Adaptive Centroid Alignment (ACA) to minimize intra-class differences during iterative training.
Main Results:
- CFAN demonstrated superior performance in epithelial-stroma (ES) classification compared to standard deep learning and existing UDA methods.
- Experiments were validated on three independent public ES datasets, confirming the method's robustness.
- The proposed approach effectively aligns features and reduces domain discrepancies in medical image classification.
Conclusions:
- The Curriculum Feature Alignment Network (CFAN) significantly advances unsupervised domain adaptation for ES classification tasks.
- CFAN's iterative approach with CTS and ACA provides a robust solution for handling domain shifts in medical imaging.
- This work offers a promising direction for developing more accurate and adaptable deep learning models in clinical applications.
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