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SESV: Accurate Medical Image Segmentation by Predicting and Correcting Errors
IEEE Transactions on Medical Imaging
|September 21, 2020
Summary
This study introduces a novel framework to enhance medical image segmentation accuracy by predicting and correcting errors from existing deep learning models. The Segmentation-Emendation-reSegmentation-Verification (SESV) framework improves segmentation results for clinical applications.
Area of Science:
- Medical Image Analysis
- Computer-Aided Diagnosis
- Deep Learning
Background:
- Deep convolutional neural networks (DCNNs) are vital for medical image segmentation but require further accuracy and robustness for clinical use.
- Existing DCNNs often produce segmentation errors that limit their application in diagnosis.
Purpose of the Study:
- To propose a novel and generic framework, Segmentation-Emendation-reSegmentation-Verification (SESV), to improve the accuracy of existing DCNNs for medical image segmentation.
- To enhance segmentation performance without designing entirely new segmentation models.
Main Methods:
- The SESV framework predicts segmentation errors and uses these predictions to refine segmentation masks.
- It incorporates a re-segmentation network that uses error maps as priors and a verification network for region-based mask acceptance/rejection.
Main Results:
- The SESV framework significantly improved the accuracy of DeepLabv3+ in segmenting gland cells, skin lesions, and retinal microaneurysms across CRAG, ISIC, and IDRiD datasets.
- Consistent improvements were observed when applying SESV with other DCNNs like PSPNet, U-Net, and FPN.
Conclusions:
- The proposed SESV framework effectively enhances the accuracy of various DCNNs for diverse medical image segmentation tasks.
- SESV offers a versatile approach to improve clinical applicability of existing deep learning segmentation models.

