Mobile-based deep learning system for early detection of diabetic retinopathy

El-Mehdi Chakour , Zineb Sadok , Rostom Kachouri , Anass Mansouri , Idriss Benatiya Andaloussi , Mohamed Akil , Ali Ahaitouf
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Abstract

Diabetic retinopathy (DR) is a leading cause of vision loss globally, especially in regions with limited access to eye care. Early detection is essential to prevent irreversible damage and improve patient outcomes. In this study, a portable, real-time Assisted Mobile Diagnostic (AMD) system for DR detection, which integrates an optimized deep learning model into a mobile platform, is presented. Unlike conventional AI-based approaches that require high-performance computing and stationary fundus cameras, our system combines a non-mydriatic retinal camera with a mobile device, enabling point-of-care diagnostics. Captured retinal images are preprocessed using techniques such as blurring and contrast enhancement before being analyzed by a fine-tuned DenseNet-121 model. The model is trained using a private dataset along with two large public datasets: APTOS (Asia Pacific Tele-Ophthalmology Society) and EyePACS (Eye Picture Archive Communication System). The proposed approach achieved a high accuracy: 97.38% on APTOS, 90.90% on EyePACS, and 98.61% on the private dataset. The system delivers real-time performance on mobile devices, with an average processing time of 162.5 ms, making it well-suited for rapid screening. This Deep learning-based mobile application is part of a multi-platform tele-ophthalmology framework that includes both tablet and desktop integrations, facilitating accessible and remote DR diagnosis.

Abstract Image

基于移动设备的糖尿病视网膜病变早期检测深度学习系统
糖尿病性视网膜病变(DR)是全球视力丧失的主要原因,特别是在获得眼科保健机会有限的地区。早期发现对于预防不可逆转的损害和改善患者预后至关重要。在本研究中,提出了一种便携式,实时辅助移动诊断(AMD)系统,用于DR检测,该系统将优化的深度学习模型集成到移动平台中。与需要高性能计算和固定眼底相机的传统人工智能方法不同,我们的系统将非散瞳视网膜相机与移动设备结合在一起,实现了即时诊断。捕获的视网膜图像在通过微调的DenseNet-121模型进行分析之前,使用模糊和对比度增强等技术进行预处理。该模型使用私人数据集以及两个大型公共数据集进行训练:APTOS(亚太远程眼科学会)和EyePACS(眼睛图像存档通信系统)。该方法在APTOS上的准确率为97.38%,在EyePACS上的准确率为90.90%,在私有数据集上的准确率为98.61%。该系统在移动设备上提供实时性能,平均处理时间为162.5 ms,非常适合快速筛选。这个基于深度学习的移动应用程序是多平台远程眼科框架的一部分,该框架包括平板电脑和桌面集成,促进可访问和远程DR诊断。
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来源期刊
Intelligence-based medicine
Intelligence-based medicine Health Informatics
CiteScore
5.00
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审稿时长
187 days
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