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MLP-Like Model With Convolution Complex Transformation for Auxiliary Diagnosis Through Medical Images
IEEE Journal of Biomedical and Health Informatics
|July 19, 2023
Summary
This study introduces the CCT-MLP model for improved medical image analysis, enhancing disease diagnosis from facial and tongue images. The novel approach achieves superior accuracy and mean average precision in identifying disease location and nature.
Area of Science:
- Biomedical image analysis
- Artificial intelligence in healthcare
- Medical diagnostics
Background:
- Facial and tongue images are crucial for intelligence-assisted diagnosis.
- This task is framed as multi-label classification for disease location (DL) and disease nature (DN).
- MLP-like architectures offer computational efficiency and generalization but need enhanced input features.
Purpose of the Study:
- To propose a novel Convolution Complex Transformation MLP-like (CCT-MLP) model.
- To improve multi-label disease location and nature recognition in facial and tongue images.
- To address the limitations of existing MLP-like models in feature extraction.
Main Methods:
- The CCT-MLP model integrates a convolutional Tokenizer and convolutional layers for robust shallow feature extraction.
- It utilizes a Channel-MLP architecture with complex transformations for deep contextual feature extraction.
- Multi-channel features are extracted and fused for multi-label classification.
Main Results:
- The CCT-MLP model demonstrated superior performance on constructed multi-label facial and tongue image datasets.
- Experimental results showed significant improvements in accuracy (Acc) and mean average precision (mAP) compared to existing methods.
- The method effectively compensates for spatial information loss in traditional MLP structures.
Conclusions:
- The CCT-MLP model offers a promising approach for multi-label classification in biomedical image analysis.
- It enhances the diagnostic capabilities of AI systems using facial and tongue imaging.
- The proposed method represents a significant advancement in medical image-based disease recognition.
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