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Enterprise AI Analysis: Normal and Atypical Mitosis Image Classifier using Efficient Vision Transformer

Enterprise AI Analysis

Normal and Atypical Mitosis Image Classifier using Efficient Vision Transformer

A deep dive into the MIDOG 2025 challenge solution, leveraging a hybrid CNN-ViT architecture for highly accurate and efficient mitosis classification across diverse cancer types.

Authored by: Xuan Qi, Dominic Labella, Thomas Sanford, Maxwell Lee | Publication: arXiv:2509.02589v1 [eess.IV] 28 Aug 2025

Executive Impact: Precision in Cancer Diagnostics

The EfficientViT model delivers high-performance, critical for integrating advanced AI into clinical pathology workflows for improved diagnostic accuracy and efficiency.

0 Balanced Accuracy (Preliminary Eval)
0 ROC AUC (Preliminary Eval)
0 Unified Dataset Size
0 Cancer Types Covered

Deep Analysis & Enterprise Applications

Select a topic to dive deeper, then explore the specific findings from the research, rebuilt as interactive, enterprise-focused modules.

EfficientViT: The Hybrid Powerhouse for Clinical AI

The model employs EfficientViT-L2, a hybrid CNN-ViT architecture designed for both accuracy and efficiency, critical for clinical deployment. With a 256x256 input, it achieves 85.37% ImageNet accuracy while maintaining low computational cost (64M parameters, 9.1 GMACs). Its cascaded linear attention mechanism captures long-range dependencies efficiently, making it ideal for complex image classification tasks like mitosis detection.

Robust Generalization: Leave-One-Out Cross-Validation & Ensemble

Exclude one cancer type
Train on 6 types (5-fold CV)
5 models per configuration
Evaluate on held-out type
Ensemble predictions
Final Model Submission

Unified Dataset Composition Across Cancer Types

Cancer Type Sample Num AMF NMF AMF %
Canine cutaneous mast cell tumor2327351197615.10%
Canine lung cancer85511074512.90%
Canine lymphoma395931736428.00%
Canine soft tissue sarcoma1286210107616.30%
Human breast cancer3722832289022.40%
Human melanoma115027187923.60%
Human neuroendocrine tumor6398555413.30%
Total1393821761176215.60%

Note: Class imbalance (average 15.6% AMF) was addressed with strategies like stain-deconvolution for augmentation and weighted loss functions.

0.942 Overall ROC AUC in Preliminary Evaluation

This metric highlights the strong discriminative capability of the model across all cancer domains in the preliminary evaluation phase.

Preliminary Evaluation Results Across Domains

Domain ROC AUC Accuracy Sensitivity Specificity BA
Domain 00.8750.8061.0000.7810.891
Domain 10.8980.8200.7240.8410.783
Domain 20.9740.8880.9720.8540.913
Domain 30.9720.8951.0000.8890.944
Overall0.9420.8500.8730.8440.859

LOOCV Performance by Cancer Type (Otsu Threshold)

Cancer Type ROC_AUC BA NMF_acc AMF_acc
canine_cutaneous_mast_cell_tumor0.9650.9090.8940.923
canine_lung_cancer0.9580.8730.9280.818
canine_lymphoma0.9050.8020.9260.678
canine_soft_tissue_sarcoma0.9510.8790.8920.867
human_breast_cancer0.9130.8300.7770.882
human_melanoma0.9510.8760.8630.889
human_neuroendocrine_tumor0.9690.8940.8940.894

Calculate Your Potential AI Impact

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Estimated Annual Savings $0
Hours Reclaimed Annually 0

Your AI Implementation Roadmap

A typical phased approach to integrate advanced AI solutions into your existing enterprise infrastructure and workflows.

Phase 1: Discovery & Strategy (2-4 Weeks)

Detailed assessment of current mitosis detection workflows, identification of integration points for the EfficientViT model, and definition of custom requirements.

Phase 2: Data Preparation & Model Adaptation (6-12 Weeks)

Establish secure data pipelines, perform necessary data annotation and augmentation tailored to your specific histological data, and fine-tune the EfficientViT model for optimal performance in your environment.

Phase 3: Integration & Testing (4-8 Weeks)

Seamless integration of the AI model with existing pathology systems (e.g., LIS, PACS), comprehensive testing, and initial user acceptance trials to ensure accuracy and workflow compatibility.

Phase 4: Deployment & Monitoring (Ongoing)

Full-scale deployment of the AI-powered mitosis classifier, continuous performance monitoring, and iterative improvements based on real-world clinical feedback and new data.

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