Automatic Detection of Genetics and Genomics of Eye Disease Using Deep Assimilation Learning Algorithm

Sikkandar, Mohamed Yacin

doi:10.1007/s12539-020-00404-5

Cited by 5 publications

(2 citation statements)

References 32 publications

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“…In [13] introduced the DL-CAEF (DLT Assisted Convolution Auto-Encoders Frameworks) to diagnose glaucoma and recognize AVPs (Anterior Visual Pathways) from retinal fundus pictures. In [15] identified CWS, HE on retinal images using super iterative clustering approach which comprised of CNNs and encoders with encoder structures. To convert red, blue and green images into ideal grayscale images devoid of noises, FBMIR dataset's data were combined with histogram filters and subsequently categorized using DALAs (deep assimilation learning algorithms).…”

Section: Related Workmentioning

confidence: 99%

Identification of Retinal Disease using Anchor-Free Modified Faster Region

Arulselvam.¹,

Joseph²

2022

IJACSA

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Infections of the retinal tissue, as well as delayed or untreated therapy, may result in visual loss. Furthermore, when a large dataset is involved, the diagnosis is prone to inaccuracies. As a consequence, a completely automated model of retinal illness diagnosis is presented to eliminate human input while maintaining high accuracy classification findings. ODALAs (Optimal Deep Assimilation Learning Algorithms) are unable to handle zero errors or covariance or linearity and normalcy. DLTs (Deep Learning Techniques) such as GANs (Generative Adversarial Networks) or CNNs might replace the numerical solution of dynamic systems (Convolution Neural Networks), in order to speed up the runs. With this objective, this study proposes a completely automated multi-class retina disorders prediction system in which pictures from the Fundus image dataset are upgraded using RSWHEs (Recursive Separated Weighted Histogram Equalizations) to boost contrast and noise is eliminated using the Wiener filter. The improved picture is used for segmentation, which is done using clustering and the optimum threshold. The suggested EFFCM is used for clustering (Enriched Fast Fuzzy C Means). The suggested AOO (Adaptive optimum Otsu) threshold technique is used for clustering and picture optimal thresholding. This work suggests AMF-RCNNs (anchor-free modified faster region-based CNNs) that integrate AFRPNs (anchor free regions proposal generation networks) with Improved Fast R-CNNs into single networks for detecting retinal issues accurately. The performances of Accuracy is 98.5%, F-Measure is 96.5%, Precession is 99.2% and different Subset features are 98.5 % show better results when compared with other related techniques or models.

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Section: Related Workmentioning

confidence: 99%

Identification of Retinal Disease using Anchor-Free Modified Faster Region

Arulselvam.¹,

Joseph²

2022

IJACSA

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“…In [13] introduced the DL-CAEF (DLT Website: www.ijeer.forexjournal.co.in An Adaptive Technique for Underwater Image Enhancement with CNN and Ensemble Classifier Assisted Convolution Auto-Encoders Frameworks) to diagnose glaucoma and recognize AVPs (Anterior Visual Pathways) from retinal fundus pictures. In [15] identified CWS, HE on retinal images using super iterative clustering approach which comprised of CNNs and encoders with encoder structures. To convert red, blue and green images into ideal grayscale images devoid of noises, FBMIR dataset's data were combined with histogram filters and subsequently categorized using DALAs (deep assimilation learning algorithms).…”

Section: ░ 2 Related Workmentioning

confidence: 99%

Retinal Disease Identification Using Anchor-Free Modified Faster Region-Based Convolutional Neural Network for Eye Fundus Image

Arulselvam.

Joseph²

2022

IJEER

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Major Improvements in diagnostic methods are providing previously insight into the condition of the retina and other conditions outside of ocular disease. Infections of the retinal tissue, as well as delayed or untreated therapy, may result in visual loss. Furthermore, when a large dataset is involved, the diagnosis is prone to inaccuracies. As a consequence, a completely automated model of retinal illness diagnosis is presented to get rid of human input while maintaining high accuracy classification findings. ODALAs (Optimal Deep Assimilation Learning Algorithms) are unable to handle zero errors or covariance or linearity and normalcy. DLTs (Deep Learning Techniques) such as GANs (Generative Adversarial Networks) or CNNs might replace the numerical solution of dynamic systems (Convolution Neural Networks), in order to speed up the runs. With this objective, this research proposes a completely automated multi-class retina disorders prediction system in which pictures from the Fundus image dataset are upgraded using RSWHEs (Recursive Separated Weighted Histogram Equalizations) to boost contrast and noise is eliminated using the Wiener filter. The enhanced picture is used for segmentation, which is done using clustering and the optimum threshold. The suggested EFFCM is used for clustering (Enriched Fast Fuzzy C Means) The suggested AOO (Adaptive optimum Otsu) threshold technique is used for clustering and picture optimal thresholding. This paper suggests AMF-RCNNs (anchor-free modified faster region-based CNNs) that integrate AFRPNs (anchor free regions proposal generation networks) with Improved Fast R-CNNs into single networks for detecting retinal problem exactly. The performances of the suggested method illustrate improved outcome when compare with other related techniques or methods.

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