Sep 2026· World Journal of Methodology· Vol 16· 0 citations· 44 references
Medicine
TL;DR
The limits of using high-performing artificial intelligence systems in ocular image processing, which seldom lead to enhanced patient outcomes, are assessed and the scientific, clinical, and practical techniques required to close this gap are delineated.
Abstract
Artificial intelligence in ophthalmology encounters a continual challenge: Systems proficient in picture classification seldom yield quantifiable enhancements in patient outcomes. The primary concern is the disparity between pixel-level performance metrics and their clinical significance. Primary obstacles encompass data bias, domain shift, and label noise, exacerbated by the lack of prospective, randomized deployment trials. The frequent disregard for patient-centered objectives, cost-effectiveness, and equity evaluations is significant. Rectifying these deficiencies necessitates stringent external validation, established decision criteria, and ongoing surveillance within actual clinical practices. Transparent reporting criteria and the deliberate incorporation of human-factors engineering are essential. Only by bridging this gap can algorithmic accuracy be converted into significant diagnostic precision for glaucoma, diabetic retinopathy, and macular conditions (specifically diabetic macular edema and age-related macular degeneration). This paper aims to assess the limits of using high-performing artificial intelligence systems in ocular image processing, which seldom lead to enhanced patient outcomes, and to delineate the scientific, clinical, and practical techniques required to close this gap.
This narrative review summarizes the methodological evolution of ophthalmic AI, including traditional machine learning, task‐specific deep learning, self‐supervised learning, foundation models, multimodal AI, and generative AI, and examines their applications across major ophthalmic diseases.
Yu-Xi Liu, Han-Ruo Liu· Eye & ENT Research· 0 citations
Artificial intelligence should currently be considered primarily as a decision -support technology that complements rather than replaces ophthalmologists for its safe and effective implementation.
Ulykbek Daurenov, Assem Tabynbay, A. Baizak et al.· European Open Science Space· 0 citations
Clinically useful OCT‐based AI should be implemented as clinician‐led decision support, with explicit intended use, external validation, calibration, post‐deployment monitoring, and lifecycle governance.
Stjepan Škudar· Eye & ENT Research· 0 citations
This review outlines the current requirements for clinical translation: multicenter external validation, transparent reporting, safe abstention, and prospective clinical impact studies.
Anđela Jukić, Kata Čulina, Vedran Markušić et al.· Frontiers in Ophthalmology· 0 citations
The study highlights the impact of imaging equipment, demographics, and image quality on diagnostic performance and underscores the need for benchmarking AI-based DR screening tools using standardized datasets that encompass diverse populations and imaging conditions.
Philipp Schapotschnikow, Vladyslav Dusiak, Murat Osswald et al.· Physiological Measurement· 0 citations
AI-assisted community eye screening showed high sensitivity and good overall diagnostic performance with strong operational feasibility and the false-positive burden, particularly among participants with diabetes, supports continued clinical oversight, image-quality assurance, and subgroup-specific validation before wi...
D. Mukhopadhyay, A. Varshney, R. Mandal et al.· F1000Research· 0 citations
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