Artificial intelligence for detecting keratoconus
Background Keratoconus remains difficult to diagnose, especially in the early stages. It is a progressive disorder of the cornea that starts at a young age. Diagnosis is based on clinical examination and corneal imaging; though in the early stages, when there are no clinical signs, diagnosis depends...
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Veröffentlicht in: | Cochrane database of systematic reviews 2023-11, Vol.2023 (11), p.CD014911 |
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Zusammenfassung: | Background
Keratoconus remains difficult to diagnose, especially in the early stages. It is a progressive disorder of the cornea that starts at a young age. Diagnosis is based on clinical examination and corneal imaging; though in the early stages, when there are no clinical signs, diagnosis depends on the interpretation of corneal imaging (e.g. topography and tomography) by trained cornea specialists. Using artificial intelligence (AI) to analyse the corneal images and detect cases of keratoconus could help prevent visual acuity loss and even corneal transplantation. However, a missed diagnosis in people seeking refractive surgery could lead to weakening of the cornea and keratoconus‐like ectasia. There is a need for a reliable overview of the accuracy of AI for detecting keratoconus and the applicability of this automated method to the clinical setting.
Objectives
To assess the diagnostic accuracy of artificial intelligence (AI) algorithms for detecting keratoconus in people presenting with refractive errors, especially those whose vision can no longer be fully corrected with glasses, those seeking corneal refractive surgery, and those suspected of having keratoconus. AI could help ophthalmologists, optometrists, and other eye care professionals to make decisions on referral to cornea specialists.
Secondary objectives
To assess the following potential causes of heterogeneity in diagnostic performance across studies.
• Different AI algorithms (e.g. neural networks, decision trees, support vector machines)
• Index test methodology (preprocessing techniques, core AI method, and postprocessing techniques)
• Sources of input to train algorithms (topography and tomography images from Placido disc system, Scheimpflug system, slit‐scanning system, or optical coherence tomography (OCT); number of training and testing cases/images; label/endpoint variable used for training)
• Study setting
• Study design
• Ethnicity, or geographic area as its proxy
• Different index test positivity criteria provided by the topography or tomography device
• Reference standard, topography or tomography, one or two cornea specialists
• Definition of keratoconus
• Mean age of participants
• Recruitment of participants
• Severity of keratoconus (clinically manifest or subclinical)
Search methods
We searched CENTRAL (which contains the Cochrane Eyes and Vision Trials Register), Ovid MEDLINE, Ovid Embase, OpenGrey, the ISRCTN registry, ClinicalTrials.gov, and the World Health Organizatio |
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ISSN: | 1465-1858 1469-493X 1465-1858 1469-493X |
DOI: | 10.1002/14651858.CD014911.pub2 |