Feature extraction for epileptic seizure detection using machine learning

Background: Epilepsy is a common neurological disorder and affects approximately 70 million people worldwide. The traditional approach used by neurologists for the detection of seizure is time consuming. Aim: An automated approach is required that can assist the neurologists in seizure diagnosis in...

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Main Authors: Renuka Mohan Khati, Rajesh Ingle
Format: Article
Language:English
Published: Wolters Kluwer Medknow Publications 2020-01-01
Series:Current Medicine Research and Practice
Subjects:
Online Access:http://www.cmrpjournal.org/article.asp?issn=2352-0817;year=2020;volume=10;issue=6;spage=266;epage=271;aulast=Khati
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author Renuka Mohan Khati
Rajesh Ingle
author_facet Renuka Mohan Khati
Rajesh Ingle
author_sort Renuka Mohan Khati
collection DOAJ
description Background: Epilepsy is a common neurological disorder and affects approximately 70 million people worldwide. The traditional approach used by neurologists for the detection of seizure is time consuming. Aim: An automated approach is required that can assist the neurologists in seizure diagnosis in order to minimise the diagnostic time. Materials and Methods: Electroencephalogram (EEG) signals record the electrical activities of the brain and can be used effectively in seizure diagnosis. We have evaluated our system using Bonn university database. Appropriate feature selection is very important in pattern recognition problems. We used recursive feature elimination (wrapper method), for the selection of best features. In our study, we have used EEG signals to evaluate the performance of seven machine learning algorithms. Results: We obtained a classification accuracy of 99%, which is a significant improvement over the state-of-the-art methods. The classification performance across 10 folds of cross validation of Logistic regression and Adaboost was the highest with an accuracy of 99%. While using naive bayes and random forest, the Area under the ROC curve value obtained was 1. The sensitivity obtained using naive bayes classifier was 100%. Conclusion: Our approach requires minimum feature extraction that makes it an efficient approach. Recursive feature elimination was used to select the features which yield good accuracy results. It was observed that logistic regression and Adaboost performed superior with an accuracy of 99%.
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spelling doaj.art-ee6dc6753d0a4dfca5fba33652ae38a22022-12-22T04:39:22ZengWolters Kluwer Medknow PublicationsCurrent Medicine Research and Practice2352-08172352-08252020-01-0110626627110.4103/cmrp.cmrp_52_20Feature extraction for epileptic seizure detection using machine learningRenuka Mohan KhatiRajesh IngleBackground: Epilepsy is a common neurological disorder and affects approximately 70 million people worldwide. The traditional approach used by neurologists for the detection of seizure is time consuming. Aim: An automated approach is required that can assist the neurologists in seizure diagnosis in order to minimise the diagnostic time. Materials and Methods: Electroencephalogram (EEG) signals record the electrical activities of the brain and can be used effectively in seizure diagnosis. We have evaluated our system using Bonn university database. Appropriate feature selection is very important in pattern recognition problems. We used recursive feature elimination (wrapper method), for the selection of best features. In our study, we have used EEG signals to evaluate the performance of seven machine learning algorithms. Results: We obtained a classification accuracy of 99%, which is a significant improvement over the state-of-the-art methods. The classification performance across 10 folds of cross validation of Logistic regression and Adaboost was the highest with an accuracy of 99%. While using naive bayes and random forest, the Area under the ROC curve value obtained was 1. The sensitivity obtained using naive bayes classifier was 100%. Conclusion: Our approach requires minimum feature extraction that makes it an efficient approach. Recursive feature elimination was used to select the features which yield good accuracy results. It was observed that logistic regression and Adaboost performed superior with an accuracy of 99%.http://www.cmrpjournal.org/article.asp?issn=2352-0817;year=2020;volume=10;issue=6;spage=266;epage=271;aulast=Khatiepilepsyfeature extractionfeature selection
spellingShingle Renuka Mohan Khati
Rajesh Ingle
Feature extraction for epileptic seizure detection using machine learning
Current Medicine Research and Practice
epilepsy
feature extraction
feature selection
title Feature extraction for epileptic seizure detection using machine learning
title_full Feature extraction for epileptic seizure detection using machine learning
title_fullStr Feature extraction for epileptic seizure detection using machine learning
title_full_unstemmed Feature extraction for epileptic seizure detection using machine learning
title_short Feature extraction for epileptic seizure detection using machine learning
title_sort feature extraction for epileptic seizure detection using machine learning
topic epilepsy
feature extraction
feature selection
url http://www.cmrpjournal.org/article.asp?issn=2352-0817;year=2020;volume=10;issue=6;spage=266;epage=271;aulast=Khati
work_keys_str_mv AT renukamohankhati featureextractionforepilepticseizuredetectionusingmachinelearning
AT rajeshingle featureextractionforepilepticseizuredetectionusingmachinelearning