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Updated: Jun 14, 2025

Live Imaging of Mitosis in the Developing Mouse Embryonic Cortex
Published on: June 4, 2014
ConvNext Mitosis Identification-You Only Look Once (CNMI-YOLO): Domain Adaptive and Robust Mitosis Identification in
Yasemin Topuz1, Serdar Yıldız2, Songül Varlı1
1Department of Computer Engineering, Yıldız Technical University, Istanbul, Turkey; Health Institutes of Türkiye, Istanbul, Turkey.
This study introduces CNMI-YOLO, a deep learning method for accurate mitosis detection in digital pathology images. It significantly improves cancer diagnosis by enhancing the identification of mitotic cells across diverse datasets.
Area of Science:
- Digital pathology
- Computational pathology
- Machine learning in oncology
Background:
- Accurate mitosis detection is crucial for cancer diagnosis and prognosis in digital pathology.
- Challenges include cell morphology variability and domain shift, hindering model generalization.
- Existing methods struggle with robustness across different data sources.
Purpose of the Study:
- To develop a robust deep learning model for accurate mitosis identification in histopathological images.
- To improve the generalization capability of mitosis detection models across various cancer types, scanners, and species.
- To enhance cancer diagnosis and prognosis through improved mitotic cell detection.
Main Methods:
- Introduced ConvNext Mitosis Identification-You Only Look Once (CNMI-YOLO), a two-stage deep learning approach.
- Utilized YOLOv7 for cell detection and ConvNeXt for cell classification.
- Validated the model on the Mitosis Domain Generalization Challenge 2022 dataset and external test sets.
Main Results:
- CNMI-YOLO achieved a superior F1 score of 0.795 on the Mitosis Domain Generalization Challenge 2022 dataset.
- Demonstrated robust generalization with F1 scores of 0.783 on melanoma and 0.759 on sarcoma test sets.
- Outperformed existing models in precision, recall, and F1 score, with strong performance on unseen data.
Conclusions:
- The CNMI-YOLO model offers a significant advancement in automated mitosis detection for digital pathology.
- The model exhibits strong robustness and generalization capabilities, suitable for real-world clinical applications.
- This approach holds potential for improving the accuracy and efficiency of cancer diagnosis and prognosis.
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