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BFENet: A two-stream interaction CNN method for multi-label ophthalmic diseases classification with bilateral fundus
Xingyuan Ou1, Li Gao2, Xiongwen Quan1
1College of Artificial Intelligence, Nankai University, Tianjin, China.
This study introduces a novel Bilateral Feature Enhancement Network (BFENet) for improved diagnosis of multiple eye diseases using both eyes' fundus images. BFENet enhances classification performance for ophthalmic conditions.
Area of Science:
- Ophthalmology
- Medical Imaging
- Artificial Intelligence
Background:
- Early detection of eye diseases is crucial for preventing blindness.
- Existing methods often analyze single-eye fundus images, neglecting valuable bilateral information.
- Current approaches typically focus on classifying only one ocular disease at a time.
Purpose of the Study:
- To develop a model that utilizes bilateral fundus images for patient-level diagnosis.
- To enable multi-label classification of ophthalmic diseases simultaneously.
- To introduce the Bilateral Feature Enhancement Network (BFENet) for improved accuracy.
Main Methods:
- A two-stream interactive Convolutional Neural Network (CNN) architecture is proposed.
- A feature enhancement module uses attention mechanisms to leverage inter-eye information, improving feature representation.
- A multiscale module with dilated convolutions enriches feature maps for capturing diverse disease characteristics.
Main Results:
- BFENet achieved superior performance compared to existing methods on both off-site and on-site datasets.
- Key performance metrics include Kappa (0.535 off-site, 0.513 on-site), F1-score (0.892 off-site, 0.886 on-site), and AUC (0.912 off-site, 0.903 on-site).
- The model demonstrated strong classification accuracy for multiple ophthalmic diseases.
Conclusions:
- BFENet effectively addresses the limitations of single-eye analysis and single-disease classification.
- The model's ability to integrate bilateral information enhances diagnostic capabilities.
- The proposed method is adaptable to other tasks requiring analysis of correlated image data.
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