Abstract
Detection of abnormalities in human eye is one of the well-established research areas of Machine Learning. Deep Learning techniques are widely used for the diagnosis of Retinal Diseases (RD). Fovea is one of the significant parts of retina which would be prevented before the involvement of Perforated Blood Vessels (PBV). Retinopathy Images (RI) contains sufficient information to classify structural changes incurred upon PBV but Macular Features (MF) and Fovea Features (FF) are very difficult to detect because features of MF and FF could be found with Similar Color Movements (SCM) with minor variations. This paper presents novel method for the diagnosis of Irregular Fovea (IF) to assist the doctors in diagnosis of irregular fovea. By considering all above problems this paper proposes a three-layer decision support system to explore the hindsight knowledge of RI and to solve the classification problem of IF. The first layer involves data preparation, the second layer builds the decision model to extract the hidden patterns of fundus images by using Deep Belief Neural Network (DBN) and the third layer visualizes the results by using confusion matrix. This paper contributes a data preparation algorithm for irregular fovea and a highest estimated classification accuracy measured about 96.90%.
Highlights
Retinopathy images reveals very vital information regarding the diagnosis of eye diseases (ED) but machine level interpretation (MLI) requires intelligent algorithms to train the computers
This paper proposes a novel technique to classify the irregularities of fovea with highest accuracy and proposed method comprises over data preparation such as color segmentation of retinal nerves, segmentation of veins, selection of macula and fovea [13,14]
Fovea is a significant part of retina which is kwon as vision field, it is situated at the center of macula
Summary
Retinopathy images reveals very vital information regarding the diagnosis of eye diseases (ED) but machine level interpretation (MLI) requires intelligent algorithms to train the computers. Since retinal sub components (RSC) on a fundus image are observed with similar colour movements (SCM) having minor variations. Graph cut segmentation provides assistance in object detection in such situations where color base segmentation is required [5] but loss of vital information (VI) can be reduced as background information (BI) [6] which might be crucial for MLI to instruct the computers [7]. The used datasets were acquired from civil hospital Kamber, Pakistan
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