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Streamlining the Histopathologic Workflow in Diabetic Kidney Disease with Artificial Intelligence
Christos Matsoukas1,2,3, Tajana Tesan Tomic4, Pernilla Tonelius5
1Pathology, Clinical Pharmacology and Safety Sciences, R&D AstraZeneca, Gothenburg, Sweden.
AI tools accelerate diabetic kidney disease pathology assessment in animal models, reducing bias and improving translation to human biopsies. This speeds up drug development for diabetic kidney disease patients.
Area of Science:
- Nephrology
- Computational Pathology
- Artificial Intelligence
Background:
- Diabetic kidney disease (DKD) pathology assessment in animal models is slow and subjective.
- Limited human kidney biopsy data impedes translational research from animal models to humans.
Purpose of the Study:
- To develop an AI-driven workflow for efficient and accurate histopathological assessment in diabetic nephropathy animal models.
- To enhance the translation of AI scoring models from preclinical animal studies to human kidney biopsies.
Main Methods:
- Developed an AI workflow including glomeruli detection, an expert annotation tool for fast scoring, and automated scoring.
- Utilized self-supervised learning on unlabeled preclinical data to improve AI performance and reduce bias.
- Implemented a method to adapt AI models to human kidney features for cross-species translation.
Main Results:
- AI annotation tool reduced scoring time by 80%; automated scoring reduced it by 90%, outperforming expert agreement.
- Self-supervised learning achieved a κ of 0.78; combined with supervised learning, performance improved to κ = 0.84, reducing bias.
- The translational approach achieved a κ of 0.63 on human glomeruli, reducing the translational gap by 45%.
Conclusions:
- AI-assisted scoring accelerates pathology readouts and reduces pathologist workload in pharmaceutical settings.
- Self-supervised learning captures kidney morphology, minimizes bias, and bridges the translational gap in DKD drug development.
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