Audio classification using grasshopper‐ride optimization algorithm‐based support vector machine

Abstract The accurate and robust detection of the audio has been widely grown as the speech technology in the area of audio forensics, speech recognition, and so on. However, in real time, it is a challenge to deal with the massive data arriving from distributed sources. Thus, the study introduces a...

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Main Authors: Suryabhan Pratap Singh, Umesh Chandra Jaiswal
Format: Article
Language:English
Published: Wiley 2021-08-01
Series:IET Circuits, Devices and Systems
Online Access:https://doi.org/10.1049/cds2.12039
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spelling doaj-7b7f730a81ed43999c541e3afc8cb84e2021-07-15T12:27:54ZengWileyIET Circuits, Devices and Systems1751-858X1751-85982021-08-0115543444710.1049/cds2.12039Audio classification using grasshopper‐ride optimization algorithm‐based support vector machineSuryabhan Pratap Singh0Umesh Chandra Jaiswal1Department of Computer Science and Engineering Madan Mohan Malaviya University of Technology Gorakhpur Uttar Pradesh IndiaDepartment of Information Technology and Computer Application Madan Mohan Malaviya University of Technology Gorakhpur Uttar Pradesh IndiaAbstract The accurate and robust detection of the audio has been widely grown as the speech technology in the area of audio forensics, speech recognition, and so on. However, in real time, it is a challenge to deal with the massive data arriving from distributed sources. Thus, the study introduces a method that effectively deals with the data from the distributed sources using the map‐reduce framework (MRF). The map and reduce function in MRF aim at feature extraction and audio classification. The robust classification using the proposed grasshopper‐ride optimization algorithm‐based support vector machine (G‐ROA‐based SVM) uses the features, such as multiple kernel Mel frequency cepstral coefficients, spectral flux, spectral kurtosis, and delta‐amplitude modulation spectrogram. The proposed G‐ROA is the integration of ROA and grasshopper optimization algorithm in tuning the optimal weights of SVM and also, the kernel function in SVM is modified using the Gaussian radial basis function, Gaussian kernel, and polynomial kernels. The experimentation of the proposed method is done using two datasets, namely TUT sound event 2017 dataset and ESC dataset. TUT sound event 2017 dataset consists of eight audio recordings from a single acoustic scene. ESC dataset consists of three parts and 252,400 recordings. The analysis reveals that the proposed audio classification acquired the maximal accuracy of 0.96, minimal false alarm rate, and false rejection rate of 0.022 and 0.0119, respectively.https://doi.org/10.1049/cds2.12039
collection DOAJ
language English
format Article
sources DOAJ
author Suryabhan Pratap Singh
Umesh Chandra Jaiswal
spellingShingle Suryabhan Pratap Singh
Umesh Chandra Jaiswal
Audio classification using grasshopper‐ride optimization algorithm‐based support vector machine
IET Circuits, Devices and Systems
author_facet Suryabhan Pratap Singh
Umesh Chandra Jaiswal
author_sort Suryabhan Pratap Singh
title Audio classification using grasshopper‐ride optimization algorithm‐based support vector machine
title_short Audio classification using grasshopper‐ride optimization algorithm‐based support vector machine
title_full Audio classification using grasshopper‐ride optimization algorithm‐based support vector machine
title_fullStr Audio classification using grasshopper‐ride optimization algorithm‐based support vector machine
title_full_unstemmed Audio classification using grasshopper‐ride optimization algorithm‐based support vector machine
title_sort audio classification using grasshopper‐ride optimization algorithm‐based support vector machine
publisher Wiley
series IET Circuits, Devices and Systems
issn 1751-858X
1751-8598
publishDate 2021-08-01
description Abstract The accurate and robust detection of the audio has been widely grown as the speech technology in the area of audio forensics, speech recognition, and so on. However, in real time, it is a challenge to deal with the massive data arriving from distributed sources. Thus, the study introduces a method that effectively deals with the data from the distributed sources using the map‐reduce framework (MRF). The map and reduce function in MRF aim at feature extraction and audio classification. The robust classification using the proposed grasshopper‐ride optimization algorithm‐based support vector machine (G‐ROA‐based SVM) uses the features, such as multiple kernel Mel frequency cepstral coefficients, spectral flux, spectral kurtosis, and delta‐amplitude modulation spectrogram. The proposed G‐ROA is the integration of ROA and grasshopper optimization algorithm in tuning the optimal weights of SVM and also, the kernel function in SVM is modified using the Gaussian radial basis function, Gaussian kernel, and polynomial kernels. The experimentation of the proposed method is done using two datasets, namely TUT sound event 2017 dataset and ESC dataset. TUT sound event 2017 dataset consists of eight audio recordings from a single acoustic scene. ESC dataset consists of three parts and 252,400 recordings. The analysis reveals that the proposed audio classification acquired the maximal accuracy of 0.96, minimal false alarm rate, and false rejection rate of 0.022 and 0.0119, respectively.
url https://doi.org/10.1049/cds2.12039
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AT umeshchandrajaiswal audioclassificationusinggrasshopperrideoptimizationalgorithmbasedsupportvectormachine
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