Enhancing Pneumonia Disease Classification using Genetic Algorithm-Tuned DCGANs and VGG-16 Integration

Diagnostic complications arise from pneumonia, characterized by lung inflammation caused by alveolar fluid accumulation, particularly in regions with limited radiologists. To tackle this issue, a new method utilizes the VGG16 methodology for categorization, bolstered by genetic algorithms. In additi...

Full description

Bibliographic Details
Main Authors: Kania Ardhani Putri, Wikky Fawwaz Al Maki
Format: Article
Language:English
Published: Poltekkes Kemenkes Surabaya 2023-12-01
Series:Journal of Electronics, Electromedical Engineering, and Medical Informatics
Subjects:
Online Access:https://jeeemi.org/index.php/jeeemi/article/view/349
_version_ 1797337485627359232
author Kania Ardhani Putri
Wikky Fawwaz Al Maki
author_facet Kania Ardhani Putri
Wikky Fawwaz Al Maki
author_sort Kania Ardhani Putri
collection DOAJ
description Diagnostic complications arise from pneumonia, characterized by lung inflammation caused by alveolar fluid accumulation, particularly in regions with limited radiologists. To tackle this issue, a new method utilizes the VGG16 methodology for categorization, bolstered by genetic algorithms. In addition, Deep Convolutional Generative Adversarial Networks (DCGANs) improve the dataset by adding fake X-rays of pneumonia. Genetic algorithms are used to optimize hyperparameters in classification tasks. In contrast, DCGANs are employed to increase data augmentation techniques, boosting models' accuracy in identifying and categorizing pneumonia cases. The study partitioned a dataset into training, testing, and validation sets for pneumonia X-ray pictures. The training of GANs entails utilizing both generators and discriminators to produce increasingly realistic pictures gradually. The genetic algorithm enhances the hyperparameter tuning process, resulting in a substantial increase in accuracy. Initially, VGG16 achieved a success rate of 89.50% and a fitness score of 87.50%. Post-optimization and DCGAN augmentation, accuracy climbed to 95.50%, and F1-Score improved to 94.75%. This study combines genetic algorithms and DCGANs to create a model that can produce genuine pneumonia X-ray pictures and enhance categorization accuracy.
first_indexed 2024-03-08T09:11:17Z
format Article
id doaj.art-67c9d89180a6484fbedda7eb85012192
institution Directory Open Access Journal
issn 2656-8632
language English
last_indexed 2024-03-08T09:11:17Z
publishDate 2023-12-01
publisher Poltekkes Kemenkes Surabaya
record_format Article
series Journal of Electronics, Electromedical Engineering, and Medical Informatics
spelling doaj.art-67c9d89180a6484fbedda7eb850121922024-01-31T23:55:01ZengPoltekkes Kemenkes SurabayaJournal of Electronics, Electromedical Engineering, and Medical Informatics2656-86322023-12-0161112210.35882/jeeemi.v6i1.349349Enhancing Pneumonia Disease Classification using Genetic Algorithm-Tuned DCGANs and VGG-16 IntegrationKania Ardhani Putri0Wikky Fawwaz Al Maki1School of Computing, Telkom University, Bandung, IndonesiaSchool of Computing, Telkom University, Bandung, IndonesiaDiagnostic complications arise from pneumonia, characterized by lung inflammation caused by alveolar fluid accumulation, particularly in regions with limited radiologists. To tackle this issue, a new method utilizes the VGG16 methodology for categorization, bolstered by genetic algorithms. In addition, Deep Convolutional Generative Adversarial Networks (DCGANs) improve the dataset by adding fake X-rays of pneumonia. Genetic algorithms are used to optimize hyperparameters in classification tasks. In contrast, DCGANs are employed to increase data augmentation techniques, boosting models' accuracy in identifying and categorizing pneumonia cases. The study partitioned a dataset into training, testing, and validation sets for pneumonia X-ray pictures. The training of GANs entails utilizing both generators and discriminators to produce increasingly realistic pictures gradually. The genetic algorithm enhances the hyperparameter tuning process, resulting in a substantial increase in accuracy. Initially, VGG16 achieved a success rate of 89.50% and a fitness score of 87.50%. Post-optimization and DCGAN augmentation, accuracy climbed to 95.50%, and F1-Score improved to 94.75%. This study combines genetic algorithms and DCGANs to create a model that can produce genuine pneumonia X-ray pictures and enhance categorization accuracy.https://jeeemi.org/index.php/jeeemi/article/view/349pneumoniadeep learningvgg16genetic algorithmdeep convolutional generative adversarial network
spellingShingle Kania Ardhani Putri
Wikky Fawwaz Al Maki
Enhancing Pneumonia Disease Classification using Genetic Algorithm-Tuned DCGANs and VGG-16 Integration
Journal of Electronics, Electromedical Engineering, and Medical Informatics
pneumonia
deep learning
vgg16
genetic algorithm
deep convolutional generative adversarial network
title Enhancing Pneumonia Disease Classification using Genetic Algorithm-Tuned DCGANs and VGG-16 Integration
title_full Enhancing Pneumonia Disease Classification using Genetic Algorithm-Tuned DCGANs and VGG-16 Integration
title_fullStr Enhancing Pneumonia Disease Classification using Genetic Algorithm-Tuned DCGANs and VGG-16 Integration
title_full_unstemmed Enhancing Pneumonia Disease Classification using Genetic Algorithm-Tuned DCGANs and VGG-16 Integration
title_short Enhancing Pneumonia Disease Classification using Genetic Algorithm-Tuned DCGANs and VGG-16 Integration
title_sort enhancing pneumonia disease classification using genetic algorithm tuned dcgans and vgg 16 integration
topic pneumonia
deep learning
vgg16
genetic algorithm
deep convolutional generative adversarial network
url https://jeeemi.org/index.php/jeeemi/article/view/349
work_keys_str_mv AT kaniaardhaniputri enhancingpneumoniadiseaseclassificationusinggeneticalgorithmtuneddcgansandvgg16integration
AT wikkyfawwazalmaki enhancingpneumoniadiseaseclassificationusinggeneticalgorithmtuneddcgansandvgg16integration