TY - JOUR
T1 - DeepLensNet
T2 - Deep Learning Automated Diagnosis and Quantitative Classification of Cataract Type and Severity
AU - AREDS Deep Learning Research Group
AU - Keenan, Tiarnan D.L.
AU - Chen, Qingyu
AU - Agrón, Elvira
AU - Tham, Yih Chung
AU - Goh, Jocelyn Hui Lin
AU - Lei, Xiaofeng
AU - Ng, Yi Pin
AU - Liu, Yong
AU - Xu, Xinxing
AU - Cheng, Ching Yu
AU - Bikbov, Mukharram M.
AU - Jonas, Jost B.
AU - Bhandari, Sanjeeb
AU - Broadhead, Geoffrey K.
AU - Colyer, Marcus H.
AU - Corsini, Jonathan
AU - Cousineau-Krieger, Chantal
AU - Gensheimer, William
AU - Grasic, David
AU - Lamba, Tania
AU - Magone, M. Teresa
AU - Maiberger, Michele
AU - Oshinsky, Arnold
AU - Purt, Boonkit
AU - Shin, Soo Y.
AU - Thavikulwat, Alisa T.
AU - Lu, Zhiyong
AU - Chew, Emily Y.
AU - Ajilore, Priscilla
AU - Akman, Alex
AU - Azar, Nadim S.
AU - Azar, William S.
AU - Chan, Bryan
AU - Cox, Victor
AU - Dave, Amisha D.
AU - Dhanjal, Rachna
AU - Donovan, Mary
AU - Farrell, Maureen
AU - Finkel, Francisca
AU - Goblirsch, Timothy
AU - Ha, Wesley
AU - Hill, Christine
AU - Kumar, Aman
AU - Kent, Kristen
AU - Lee, Arielle
AU - Patel, Pujan
AU - Peprah, David
AU - Piliponis, Emma
AU - Selzer, Evan
AU - Swaby, Benjamin
N1 - Publisher Copyright:
© 2022
PY - 2022/5
Y1 - 2022/5
N2 - Purpose: To develop deep learning models to perform automated diagnosis and quantitative classification of age-related cataract from anterior segment photographs. Design: DeepLensNet was trained by applying deep learning models to the Age-Related Eye Disease Study (AREDS) dataset. Participants: A total of 18 999 photographs (6333 triplets) from longitudinal follow-up of 1137 eyes (576 AREDS participants). Methods: Deep learning models were trained to detect and quantify nuclear sclerosis (NS; scale 0.9–7.1) from 45-degree slit-lamp photographs and cortical lens opacity (CLO; scale 0%–100%) and posterior subcapsular cataract (PSC; scale 0%–100%) from retroillumination photographs. DeepLensNet performance was compared with that of 14 ophthalmologists and 24 medical students. Main Outcome Measures: Mean squared error (MSE). Results: On the full test set, mean MSE for DeepLensNet was 0.23 (standard deviation [SD], 0.01) for NS, 13.1 (SD, 1.6) for CLO, and 16.6 (SD, 2.4) for PSC. On a subset of the test set (substantially enriched for positive cases of CLO and PSC), for NS, mean MSE for DeepLensNet was 0.23 (SD, 0.02), compared with 0.98 (SD, 0.24; P = 0.000001) for the ophthalmologists and 1.24 (SD, 0.34; P = 0.000005) for the medical students. For CLO, mean MSE was 53.5 (SD, 14.8), compared with 134.9 (SD, 89.9; P = 0.003) for the ophthalmologists and 433.6 (SD, 962.1; P = 0.0007) for the medical students. For PSC, mean MSE was 171.9 (SD, 38.9), compared with 176.8 (SD, 98.0; P = 0.67) for the ophthalmologists and 398.2 (SD, 645.4; P = 0.18) for the medical students. In external validation on the Singapore Malay Eye Study (sampled to reflect the cataract severity distribution in AREDS), the MSE for DeepSeeNet was 1.27 for NS and 25.5 for PSC. Conclusions: DeepLensNet performed automated and quantitative classification of cataract severity for all 3 types of age-related cataract. For the 2 most common types (NS and CLO), the accuracy was significantly superior to that of ophthalmologists; for the least common type (PSC), it was similar. DeepLensNet may have wide potential applications in both clinical and research domains. In the future, such approaches may increase the accessibility of cataract assessment globally. The code and models are available at https://github.com/ncbi/deeplensnet.
AB - Purpose: To develop deep learning models to perform automated diagnosis and quantitative classification of age-related cataract from anterior segment photographs. Design: DeepLensNet was trained by applying deep learning models to the Age-Related Eye Disease Study (AREDS) dataset. Participants: A total of 18 999 photographs (6333 triplets) from longitudinal follow-up of 1137 eyes (576 AREDS participants). Methods: Deep learning models were trained to detect and quantify nuclear sclerosis (NS; scale 0.9–7.1) from 45-degree slit-lamp photographs and cortical lens opacity (CLO; scale 0%–100%) and posterior subcapsular cataract (PSC; scale 0%–100%) from retroillumination photographs. DeepLensNet performance was compared with that of 14 ophthalmologists and 24 medical students. Main Outcome Measures: Mean squared error (MSE). Results: On the full test set, mean MSE for DeepLensNet was 0.23 (standard deviation [SD], 0.01) for NS, 13.1 (SD, 1.6) for CLO, and 16.6 (SD, 2.4) for PSC. On a subset of the test set (substantially enriched for positive cases of CLO and PSC), for NS, mean MSE for DeepLensNet was 0.23 (SD, 0.02), compared with 0.98 (SD, 0.24; P = 0.000001) for the ophthalmologists and 1.24 (SD, 0.34; P = 0.000005) for the medical students. For CLO, mean MSE was 53.5 (SD, 14.8), compared with 134.9 (SD, 89.9; P = 0.003) for the ophthalmologists and 433.6 (SD, 962.1; P = 0.0007) for the medical students. For PSC, mean MSE was 171.9 (SD, 38.9), compared with 176.8 (SD, 98.0; P = 0.67) for the ophthalmologists and 398.2 (SD, 645.4; P = 0.18) for the medical students. In external validation on the Singapore Malay Eye Study (sampled to reflect the cataract severity distribution in AREDS), the MSE for DeepSeeNet was 1.27 for NS and 25.5 for PSC. Conclusions: DeepLensNet performed automated and quantitative classification of cataract severity for all 3 types of age-related cataract. For the 2 most common types (NS and CLO), the accuracy was significantly superior to that of ophthalmologists; for the least common type (PSC), it was similar. DeepLensNet may have wide potential applications in both clinical and research domains. In the future, such approaches may increase the accessibility of cataract assessment globally. The code and models are available at https://github.com/ncbi/deeplensnet.
KW - Artificial intelligence
KW - Automated diagnosis
KW - Cataract
KW - Cortical cataract
KW - Deep learning
KW - Nuclear sclerosis
KW - Posterior subcapsular cataract
KW - Severity classification
KW - Telemedicine
KW - Teleophthalmology
UR - http://www.scopus.com/inward/record.url?scp=85124146256&partnerID=8YFLogxK
U2 - 10.1016/j.ophtha.2021.12.017
DO - 10.1016/j.ophtha.2021.12.017
M3 - Article
C2 - 34990643
AN - SCOPUS:85124146256
SN - 0161-6420
VL - 129
SP - 571
EP - 584
JO - Ophthalmology
JF - Ophthalmology
IS - 5
ER -