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Effects of Study Population, Labeling and Training on Glaucoma Detection Using Deep Learning Algorithms.

Authors :
Christopher, Mark
Christopher, Mark
Nakahara, Kenichi
Bowd, Christopher
Proudfoot, James A
Belghith, Akram
Goldbaum, Michael H
Rezapour, Jasmin
Weinreb, Robert N
Fazio, Massimo A
Girkin, Christopher A
Liebmann, Jeffrey M
De Moraes, Gustavo
Murata, Hiroshi
Tokumo, Kana
Shibata, Naoto
Fujino, Yuri
Matsuura, Masato
Kiuchi, Yoshiaki
Tanito, Masaki
Asaoka, Ryo
Zangwill, Linda M
Christopher, Mark
Christopher, Mark
Nakahara, Kenichi
Bowd, Christopher
Proudfoot, James A
Belghith, Akram
Goldbaum, Michael H
Rezapour, Jasmin
Weinreb, Robert N
Fazio, Massimo A
Girkin, Christopher A
Liebmann, Jeffrey M
De Moraes, Gustavo
Murata, Hiroshi
Tokumo, Kana
Shibata, Naoto
Fujino, Yuri
Matsuura, Masato
Kiuchi, Yoshiaki
Tanito, Masaki
Asaoka, Ryo
Zangwill, Linda M
Source :
Translational vision science & technology; vol 9, iss 2, 27; 2164-2591
Publication Year :
2020

Abstract

PurposeTo compare performance of independently developed deep learning algorithms for detecting glaucoma from fundus photographs and to evaluate strategies for incorporating new data into models.MethodsTwo fundus photograph datasets from the Diagnostic Innovations in Glaucoma Study/African Descent and Glaucoma Evaluation Study and Matsue Red Cross Hospital were used to independently develop deep learning algorithms for detection of glaucoma at the University of California, San Diego, and the University of Tokyo. We compared three versions of the University of California, San Diego, and University of Tokyo models: original (no retraining), sequential (retraining only on new data), and combined (training on combined data). Independent datasets were used to test the algorithms.ResultsThe original University of California, San Diego and University of Tokyo models performed similarly (area under the receiver operating characteristic curve = 0.96 and 0.97, respectively) for detection of glaucoma in the Matsue Red Cross Hospital dataset, but not the Diagnostic Innovations in Glaucoma Study/African Descent and Glaucoma Evaluation Study data (0.79 and 0.92; P < .001), respectively. Model performance was higher when classifying moderate-to-severe compared with mild disease (area under the receiver operating characteristic curve = 0.98 and 0.91; P < .001), respectively. Models trained with the combined strategy generally had better performance across all datasets than the original strategy.ConclusionsDeep learning glaucoma detection can achieve high accuracy across diverse datasets with appropriate training strategies. Because model performance was influenced by the severity of disease, labeling, training strategies, and population characteristics, reporting accuracy stratified by relevant covariates is important for cross study comparisons.Translational relevanceHigh sensitivity and specificity of deep learning algorithms for moderate-to-severe glaucoma across diverse p

Details

Database :
OAIster
Journal :
Translational vision science & technology; vol 9, iss 2, 27; 2164-2591
Notes :
application/pdf, Translational vision science & technology vol 9, iss 2, 27 2164-2591
Publication Type :
Electronic Resource
Accession number :
edsoai.on1367452016
Document Type :
Electronic Resource