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Visual Prompting Based Incremental Learning for Semantic Segmentation of Multiplex Immuno-Flourescence Microscopy
Ryan Faulkenberry1, Saurabh Prasad2, Dragan Maric3
1Department of Electrical Engineering, University of Houston, 4226 Martin Luther King Boulevard, Houston, 77204, Texas, United States. rfaulken@cougarnet.uh.edu.
This study introduces an incremental deep learning framework for medical image segmentation, significantly improving accuracy with minimal expert annotations. The method enhances rat brain image analysis by refining segmentation efficiently.
Area of Science:
- Medical image analysis
- Computational neuroscience
- Biomedical engineering
Background:
- Deep learning excels at semantic segmentation but requires large datasets.
- Medical image segmentation faces challenges due to limited annotated data.
- Existing methods struggle with the constraints of medical imaging datasets.
Purpose of the Study:
- To develop an efficient framework for fine-tuning multi-class segmentation of multiplex immuno-fluorescence images.
- To address the challenge of limited annotated data in medical image segmentation.
- To improve the accuracy and reduce the annotation effort for medical image segmentation tasks.
Main Methods:
- A modified Swin-UNet architecture was employed for initial global segmentation (pre-training).
- An incremental learning approach was used for refining each class with minimal expert-provided labels.
- Multi-class weights were utilized for initialization, guiding network optimization for specific regions.
Main Results:
- The proposed framework significantly outperforms traditional multi-class segmentation methods.
- The incremental learning approach drastically reduces the amount of required expert labeling.
- Annotation speed is substantially increased, enabling rapid error correction by experts.
Conclusions:
- The developed framework offers an effective solution for semantic segmentation of medical images with limited data.
- Incremental fine-tuning with minimal annotations enhances segmentation accuracy and efficiency.
- This approach holds promise for accelerating research in fields requiring detailed medical image analysis.
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