language Türkçe
Article 2024 · 17 citations

A CNN-based hybrid model to detect glaucoma disease

Oguz, Cinare, Aydin, Tolga, Yaganoglu, Mete

Abstract

Glaucoma is an eye disease caused by damage to the optic nerves and is a common cause of incurable blindness worldwide. If glaucoma is diagnosed early, vision loss can be prevented with regular exams and treatment. If diagnosed too late, the disease can cause severe damage to the optic nerve that cannot be reversed, leading to loss of central vision and blindness. Therefore, early diagnosis of the disease is critical. Most of the studies conducted in recent years have presented Deep Learning (DL) based architectures that use an automatic computerized system based on segmentation of hand-made features in fundus images. In this study, we seek to help experts detect glaucoma using a model that combines Deep Learning and Machine Learning using raw fundus images. Deep features are extracted using a new Convolutional Neural Networks (CNN) model. Deep features have been used in popular traditional Machine Learning methods (ML) for classification such as Adaboost, k Nearest Neighbor (kNN), Random Forest (RF), Multilayer Perceptron (MLP), Support Vector Machines (SVM), and Naive Bayes (NB). The performances of the hybrid models were evaluated using the ACRIMA dataset of 705 images. The dataset is reserved for 80% training and 20% testing data. Experimental results show that the hybrid model of CNN and Adaboost has the highest success rate with 92.96% accuracy, 93.75% F1 score and an AUC value of 0.928.

Keywords
Glaucoma Deep learning CNN AdaBoost ACRIMA Hybrid models NEURAL-NETWORK CLASSIFIERS DIAGNOSIS
WoS Categories
Computer Science, Information Systems Computer Science, Software Engineering Computer Science, Theory & Methods Engineering, Electrical & Electronic
Sustainable Development Goals
Citation
Journal
MULTIMEDIA TOOLS AND APPLICATIONS
Year
2024
Volume
83
Issue
6
Pages
17921-17939
ISSN
1380-7501
eISSN
1573-7721
DOI
10.1007/s11042-023-16129-8
WoS UID
WOS:001031485100011
Open via DOI