PLoS ONE · 2024 · 16 citations · 24 references
MedicineComputer ScienceOphthalmologyClinical Vision ScienceComputer VisionOcular ImagingCorneal ImagingCorneal PathologyDry Eye EvaluationMedical Image AnalysisVision AssessmentVisual Loss EvaluationClinical Dry Eye Severity GradingCorneal Fluorescein ImagingDeep Learning-based ClassificationDisease GradingDry Eye AssessmentFluorescein Staining ImagingGround Truth Data CollectionObjective Grading Systems
There is an increasing need for an objective grading system to evaluate the severity of dry eye disease (DED). In this study, a fully automated deep learning-based system for the assessment of DED severity was developed. Corneal fluorescein staining (CFS) images of DED patients from one hospital for system development (n = 1400) and from another hospital for external validation (n = 94) were collected. Three experts graded the CFS images using NEI scale, and the median value was used as ground truth. The system was developed in three steps: (1) corneal segmentation, (2) CFS candidate region classification, and (3) estimation of NEI grades by CFS density map generation. Also, two images taken on different days in 50 eyes (100 images) were compared to evaluate the probability of improvement or deterioration. The Dice coefficient of the segmentation model was 0.962. The correlation between the system and the ground truth data was 0.868 (p<0.001) and 0.863 (p<0.001) for the internal and external validation datasets, respectively. The agreement rate for improvement or deterioration was 88% (44/50). The fully automated deep learning-based grading system for DED severity can evaluate the CFS score with high accuracy and thus may have potential for clinical application.
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