COVIDNet: Implementing Parallel Architecture on Sound and Image for High Efficacy

The present work relates to the implementation of core parallel architecture in a deep learning algorithm. At present, deep learning technology forms the main interdisciplinary basis of healthcare, hospital hygiene, biological and medicine. This work establishes a baseline range by training hyperpar...

Descripción completa

Guardado en:
Detalles Bibliográficos
Autores principales: Manickam Murugappan, John Victor Joshua Thomas, Ugo Fiore, Yesudas Bevish Jinila, Subhashini Radhakrishnan
Formato: article
Lenguaje:EN
Publicado: MDPI AG 2021
Materias:
Acceso en línea:https://doaj.org/article/b6606dcd6fc7439da1e766ec723a2c12
Etiquetas: Agregar Etiqueta
Sin Etiquetas, Sea el primero en etiquetar este registro!
id oai:doaj.org-article:b6606dcd6fc7439da1e766ec723a2c12
record_format dspace
spelling oai:doaj.org-article:b6606dcd6fc7439da1e766ec723a2c122021-11-25T17:39:35ZCOVIDNet: Implementing Parallel Architecture on Sound and Image for High Efficacy10.3390/fi131102691999-5903https://doaj.org/article/b6606dcd6fc7439da1e766ec723a2c122021-10-01T00:00:00Zhttps://www.mdpi.com/1999-5903/13/11/269https://doaj.org/toc/1999-5903The present work relates to the implementation of core parallel architecture in a deep learning algorithm. At present, deep learning technology forms the main interdisciplinary basis of healthcare, hospital hygiene, biological and medicine. This work establishes a baseline range by training hyperparameter space, which could be support images, and sound with further develop a parallel architectural model using multiple inputs with and without the patient’s involvement. The chest X-ray images input could form the model architecture include variables for the number of nodes in each layer and dropout rate. Fourier transformation Mel-spectrogram images with the correct pixel range use to covert sound acceptance at the convolutional neural network in embarrassingly parallel sequences. COVIDNet the end user tool has to input a chest X-ray image and a cough audio file which could be a natural cough or a forced cough. Three binary classification models (COVID-19 CXR, non-COVID-19 CXR, COVID-19 cough) were trained. The COVID-19 CXR model classifies between healthy lungs and the COVID-19 model meanwhile the non-COVID-19 CXR model classifies between non-COVID-19 pneumonia and healthy lungs. The COVID-19 CXR model has an accuracy of 95% which was trained using 1681 COVID-19 positive images and 10,895 healthy lungs images, meanwhile, the non-COVID-19 CXR model has an accuracy of 91% which was trained using 7478 non-COVID-19 pneumonia positive images and 10,895 healthy lungs. The reason why all the models are binary classification is due to the lack of available data since medical image datasets are usually highly imbalanced and the cost of obtaining them are very pricey and time-consuming. Therefore, data augmentation was performed on the medical images datasets that were used. Effects of parallel architecture and optimization to improve on design were investigated.Manickam MurugappanJohn Victor Joshua ThomasUgo FioreYesudas Bevish JinilaSubhashini RadhakrishnanMDPI AGarticleembarrassingly parallelhyperparametersoptimizationconvolutional networksInformation technologyT58.5-58.64ENFuture Internet, Vol 13, Iss 269, p 269 (2021)
institution DOAJ
collection DOAJ
language EN
topic embarrassingly parallel
hyperparameters
optimization
convolutional networks
Information technology
T58.5-58.64
spellingShingle embarrassingly parallel
hyperparameters
optimization
convolutional networks
Information technology
T58.5-58.64
Manickam Murugappan
John Victor Joshua Thomas
Ugo Fiore
Yesudas Bevish Jinila
Subhashini Radhakrishnan
COVIDNet: Implementing Parallel Architecture on Sound and Image for High Efficacy
description The present work relates to the implementation of core parallel architecture in a deep learning algorithm. At present, deep learning technology forms the main interdisciplinary basis of healthcare, hospital hygiene, biological and medicine. This work establishes a baseline range by training hyperparameter space, which could be support images, and sound with further develop a parallel architectural model using multiple inputs with and without the patient’s involvement. The chest X-ray images input could form the model architecture include variables for the number of nodes in each layer and dropout rate. Fourier transformation Mel-spectrogram images with the correct pixel range use to covert sound acceptance at the convolutional neural network in embarrassingly parallel sequences. COVIDNet the end user tool has to input a chest X-ray image and a cough audio file which could be a natural cough or a forced cough. Three binary classification models (COVID-19 CXR, non-COVID-19 CXR, COVID-19 cough) were trained. The COVID-19 CXR model classifies between healthy lungs and the COVID-19 model meanwhile the non-COVID-19 CXR model classifies between non-COVID-19 pneumonia and healthy lungs. The COVID-19 CXR model has an accuracy of 95% which was trained using 1681 COVID-19 positive images and 10,895 healthy lungs images, meanwhile, the non-COVID-19 CXR model has an accuracy of 91% which was trained using 7478 non-COVID-19 pneumonia positive images and 10,895 healthy lungs. The reason why all the models are binary classification is due to the lack of available data since medical image datasets are usually highly imbalanced and the cost of obtaining them are very pricey and time-consuming. Therefore, data augmentation was performed on the medical images datasets that were used. Effects of parallel architecture and optimization to improve on design were investigated.
format article
author Manickam Murugappan
John Victor Joshua Thomas
Ugo Fiore
Yesudas Bevish Jinila
Subhashini Radhakrishnan
author_facet Manickam Murugappan
John Victor Joshua Thomas
Ugo Fiore
Yesudas Bevish Jinila
Subhashini Radhakrishnan
author_sort Manickam Murugappan
title COVIDNet: Implementing Parallel Architecture on Sound and Image for High Efficacy
title_short COVIDNet: Implementing Parallel Architecture on Sound and Image for High Efficacy
title_full COVIDNet: Implementing Parallel Architecture on Sound and Image for High Efficacy
title_fullStr COVIDNet: Implementing Parallel Architecture on Sound and Image for High Efficacy
title_full_unstemmed COVIDNet: Implementing Parallel Architecture on Sound and Image for High Efficacy
title_sort covidnet: implementing parallel architecture on sound and image for high efficacy
publisher MDPI AG
publishDate 2021
url https://doaj.org/article/b6606dcd6fc7439da1e766ec723a2c12
work_keys_str_mv AT manickammurugappan covidnetimplementingparallelarchitectureonsoundandimageforhighefficacy
AT johnvictorjoshuathomas covidnetimplementingparallelarchitectureonsoundandimageforhighefficacy
AT ugofiore covidnetimplementingparallelarchitectureonsoundandimageforhighefficacy
AT yesudasbevishjinila covidnetimplementingparallelarchitectureonsoundandimageforhighefficacy
AT subhashiniradhakrishnan covidnetimplementingparallelarchitectureonsoundandimageforhighefficacy
_version_ 1718412127382798336