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OCIF: automatically learning the optimized clinical information fusion method for computer-aided diagnosis tasks.
Zhaoyu Hu1, Leyin Li1, An Sui1
1School of Information Science and Technology, Fudan University, Shanghai, China.
International Journal of Computer Assisted Radiology and Surgery
|August 21, 2023
Summary
A new framework, OCIF, optimizes the integration of clinical data with neural network features for improved computer-aided diagnosis. This approach enhances diagnostic accuracy by effectively combining diverse data types.
Area of Science:
- Medical image analysis
- Artificial intelligence in healthcare
- Computational neuroscience
Background:
- Accurate computer-aided diagnosis (CAD) requires fusing image features from neural networks with clinical information.
- Integrating low-dimensional clinical information (LDCF) with high-dimensional network features (HDNF) presents a significant challenge in CAD.
- Existing methods struggle to efficiently combine these disparate data types for improved diagnostic performance.
Purpose of the Study:
- To introduce a novel network search framework, OCIF (Optimized Clinical Information Fusion), for effective LDCF integration with HDNF.
- To provide an optimized solution for LDCF fusion and efficient dimensionality reduction in HDNF within CAD systems.
- To enhance diagnostic accuracy in CAD by leveraging both clinical and image-derived features.
Main Methods:
- OCIF utilizes Gaussian process optimization to explore optimal neural network architectures, including fully connected layers, neuron counts, activation functions, dropout rates, and clinical information inclusion.
- Transfer learning is employed within OCIF to reduce the parameter space and accelerate the search process.
- The framework's effectiveness was evaluated using three popular end-to-end overall survival (OS) time prediction models on a relevant dataset.
Main Results:
- Applying OCIF to a standard CAD neural network significantly improved classification accuracy.
- Experiments on the 2020 BRATS dataset demonstrated OCIF's satisfactory performance in OS time prediction, achieving an accuracy of 0.684, precision of 0.735, recall of 0.684, and F1-score of 0.675.
- The results confirm OCIF's capability to enhance diagnostic performance in medical classification tasks.
Conclusions:
- OCIF effectively integrates clinical information with network features, enhancing diagnostic accuracy in computer-aided diagnosis.
- The framework demonstrates the potential for significant improvements in CAD accuracy by leveraging multimodal data.
- OCIF shows promise for extension to various other medical classification tasks, offering a versatile approach to data fusion.
Keywords:
Clinical information fusionGaussian process optimization algorithmNeural architecture search
