An Ocular Feature-Based Novel Biomarker Determination for Glaucoma Diagnosis Using Supervised Machine Learning and Fundus Imaging

IF 2.2 Q3 ENGINEERING, ELECTRICAL & ELECTRONIC IEEE Sensors Letters Pub Date : 2024-10-21 DOI:10.1109/LSENS.2024.3483990
Nibedita Kalita;Samir Kumar Borgohain
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Abstract

Glaucoma, an incurable eye disease, is a significant global health concern recognized by the World Health Organization. It progresses by increasing eye pressure, damaging the optic nerve, and leading to blindness. Regular eye exams are crucial for early detection and preventing vision loss, as early stages are often asymptomatic. Advanced feature engineering and machine learning are key to uncovering new glaucoma biomarkers, aiding early diagnosis and improving automated systems for ophthalmologists. The glaucoma biomarkers in the realm of machine learning are the features that act as a metaphor of biological biomarkers. Most research has concentrated on either structural or nonstructural feature selection strategies, with limited analysis on combined feature sets. In this letter, a new reduced feature set is investigated by combining both handcrafted structural and nonstructural features that act as a novel glaucoma biomarker for efficient and robust glaucoma diagnosis system. The proposed biomarker is a combination of structural and nonstructural (statistical, spectral, and geometric) features, which has been rigorously evaluated on the publicly available, large, and diverse standardized multi-channel dataset (SMDG)-19 glaucoma dataset. The classification accuracy achieved from Extra Tree Classifier is 85.42 % using tenfold cross-validation approach. In light of this, the suggested method's outcome set it apart from other State-of-the-Art models in biomarker determination and makes it a unique choice for ophthalmologists seeking a glaucoma biomarker for diagnosis systems.
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利用监督机器学习和眼底成像,基于眼部特征确定青光眼诊断的新型生物标记物
青光眼是一种无法治愈的眼疾,是世界卫生组织公认的全球重大健康问题。青光眼的发展过程是眼压升高、视神经受损并导致失明。定期眼科检查对于早期发现和预防视力丧失至关重要,因为早期阶段通常没有症状。先进的特征工程和机器学习是发现新的青光眼生物标志物、帮助早期诊断和改进眼科医生自动化系统的关键。机器学习领域的青光眼生物标志物是作为生物标志物隐喻的特征。大多数研究都集中在结构或非结构特征选择策略上,对组合特征集的分析有限。在这封信中,通过结合手工制作的结构和非结构特征,研究了一种新的简化特征集,它可以作为一种新型的青光眼生物标志物,用于高效、稳健的青光眼诊断系统。所提出的生物标志物是结构和非结构(统计、光谱和几何)特征的组合,已在公开、大型和多样化的标准化多通道数据集(SMDG)-19 青光眼数据集上进行了严格评估。使用十倍交叉验证方法,额外树分类器的分类准确率达到 85.42%。有鉴于此,所建议方法的结果使其在生物标志物确定方面有别于其他先进模型,成为眼科医生为诊断系统寻找青光眼生物标志物的独特选择。
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来源期刊
IEEE Sensors Letters
IEEE Sensors Letters Engineering-Electrical and Electronic Engineering
CiteScore
3.50
自引率
7.10%
发文量
194
期刊最新文献
Front Cover IEEE Sensors Council Information Table of Contents IEEE Sensors Letters Subject Categories for Article Numbering Information IEEE Sensors Letters Publication Information
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