Madadi Yeganeh, Abu-Serhan Hashem, Yousefi Siamak
Department of Ophthalmology, University of Tennessee Health Science Center, Memphis, TN, USA.
Hamad Medical Corporation, Doha, QA.
Biomed Signal Process Control. 2024 Jun;92. doi: 10.1016/j.bspc.2024.106061. Epub 2024 Feb 14.
The main factor causing irreversible blindness is glaucoma. Early detection greatly reduces the risk of further vision loss. To address this problem, we developed a domain adaptation-based deep learning model called Glaucoma Domain Adaptation (GDA) based on 66,742 fundus photographs collected from 3272 eyes of 1636 subjects. GDA learns domain-invariant and domain-specific representations to extract both general and specific features. We also developed a progressive weighting mechanism to accurately transfer the source domain knowledge while mitigating the transfer of negative knowledge from the source to the target domain. We employed low-rank coding for aligning the source and target distributions. We trained GDA based on three different scenarios including eyes annotated as glaucoma due to 1) optic disc abnormalities regardless of visual field abnormalities, 2) optic disc or visual field abnormalities except ones that are glaucoma due to both optic disc and visual field abnormalities at the same time, and 3) visual field abnormalities regardless of optic disc abnormalities We then evaluate the generalizability of GDA based on two independent datasets. The AUCs of GDA in forecasting glaucoma based on the first, second, and third scenarios were 0.90, 0.88, and 0.80 and the Accuracies were 0.82, 0.78, and 0.72, respectively. The AUCs of GDA in diagnosing glaucoma based on the first, second, and third scenarios were 0.98, 0.96, and 0.93 and the Accuracies were 0.93, 0.91, and 0.88, respectively. The proposed GDA model achieved high performance and generalizability for forecasting and diagnosis of glaucoma disease from fundus photographs. GDA may augment glaucoma research and clinical practice in identifying patients with glaucoma and forecasting those who may develop glaucoma thus preventing future vision loss.
导致不可逆失明的主要因素是青光眼。早期检测可大大降低进一步视力丧失的风险。为解决这一问题,我们基于从1636名受试者的3272只眼睛收集的66742张眼底照片,开发了一种基于域适应的深度学习模型,称为青光眼域适应(GDA)。GDA学习域不变和域特定表示,以提取通用和特定特征。我们还开发了一种渐进加权机制,以准确转移源域知识,同时减轻负面知识从源域到目标域的转移。我们采用低秩编码来对齐源域和目标域分布。我们基于三种不同情况训练GDA,包括因以下原因被标注为青光眼的眼睛:1)视盘异常,无论视野是否异常;2)视盘或视野异常,但不包括因视盘和视野同时异常而导致的青光眼;3)视野异常,无论视盘是否异常。然后,我们基于两个独立数据集评估GDA的泛化能力。基于第一种、第二种和第三种情况,GDA预测青光眼的AUC分别为0.90、0.88和0.80,准确率分别为0.82、0.78和0.72。基于第一种、第二种和第三种情况,GDA诊断青光眼的AUC分别为0.98、0.96和0.93,准确率分别为0.93、0.91和0.88。所提出的GDA模型在从眼底照片预测和诊断青光眼疾病方面具有高性能和泛化能力。GDA可能会增强青光眼研究和临床实践,以识别青光眼患者并预测可能发展为青光眼的患者,从而预防未来的视力丧失。