BCI‐control and monitoring system for smart home automation using wavelet classifiers

Abstract Brain Computer Interface (BCI) is a major research field that is based upon Electroencephalography (EEG) brain signals, which are captured using EEG electrodes, amplified and filtered before being converted to the digital form in order to perform thorough pre‐processing and machine‐learning...

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Main Authors: Amer Al‐Canaan, Hicham Chakib, Muhammad Uzair, Shuja‐uRehman Toor, Amer Al‐Khatib, Majid Sultan
Format: Article
Language:English
Published: Hindawi-IET 2022-04-01
Series:IET Signal Processing
Subjects:
Online Access:https://doi.org/10.1049/sil2.12080
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author Amer Al‐Canaan
Hicham Chakib
Muhammad Uzair
Shuja‐uRehman Toor
Amer Al‐Khatib
Majid Sultan
author_facet Amer Al‐Canaan
Hicham Chakib
Muhammad Uzair
Shuja‐uRehman Toor
Amer Al‐Khatib
Majid Sultan
author_sort Amer Al‐Canaan
collection DOAJ
description Abstract Brain Computer Interface (BCI) is a major research field that is based upon Electroencephalography (EEG) brain signals, which are captured using EEG electrodes, amplified and filtered before being converted to the digital form in order to perform thorough pre‐processing and machine‐learning. In this study, the design and implementation of the BCI control and monitoring system for smart home automation using wavelet features, which is based upon a dual‐channel analogue EEG signal acquisition module is reported. The designed analogue EEG module performs EEG signal acquisition, signal amplification and filtering. Although the EEG data set contains thousands of samples and more than 15 different classes, we limit our study on 226 samples grouped into seven classes with 8‐second time duration per sample. With careful settings of deep‐learning classifier model parameters, the training and testing were successful with high accuracy results. The designed BCI system has several advantages including a large bandwidth of 400 Hz, low number of EEG electrodes, easy setup, simple user interface, pre‐processing and digital filtering, fast machine learning, multi‐class identification, monitoring and control models, high classification accuracy and low cost. This research work provided several contributions including the creation of recent and original EEG data set using well‐labelled recordings at an adequate sampling rate of 2 kHz. The EEG signal acquisition module with 400‐Hz bandwidth provides precise and rich EEG signal information needed for feature extraction. Our results are reproducible and have been tested and deployed on Raspberry pi 4 with Python. The designed wavelet‐based BCI system consists of analogue EEG signal acquisition and machine‐learning modules, which consist of deep‐learning Multi‐layer perceptron (MLP) classifiers and linear discriminant analysis (LDA) as well as other classifier models for comparison including convolutional neural networks (CNN). The deep learning and LDA classifiers models produced the best performance with average accuracy of 95.6% and 96% for both training and testing data sets.
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spelling doaj.art-a8928cde68c84cfe959f3cf1ece9bd052024-11-02T04:13:57ZengHindawi-IETIET Signal Processing1751-96751751-96832022-04-0116214115610.1049/sil2.12080BCI‐control and monitoring system for smart home automation using wavelet classifiersAmer Al‐Canaan0Hicham Chakib1Muhammad Uzair2Shuja‐uRehman Toor3Amer Al‐Khatib4Majid Sultan5Department of Electrical Engineering The Islamic University of Madinah Al‐Madinah Al‐Munawarra KSADepartment of Electrical and Computer Engineering University of Sherbrooke Sherbrooke CanadaDepartment of Electrical Engineering The Islamic University of Madinah Al‐Madinah Al‐Munawarra KSADepartment of Electrical Engineering The Islamic University of Madinah Al‐Madinah Al‐Munawarra KSASchool of Electrical Engineering Universiti Technology Malaysia MalaysiaDepartment of Electrical Engineering The Islamic University of Madinah Al‐Madinah Al‐Munawarra KSAAbstract Brain Computer Interface (BCI) is a major research field that is based upon Electroencephalography (EEG) brain signals, which are captured using EEG electrodes, amplified and filtered before being converted to the digital form in order to perform thorough pre‐processing and machine‐learning. In this study, the design and implementation of the BCI control and monitoring system for smart home automation using wavelet features, which is based upon a dual‐channel analogue EEG signal acquisition module is reported. The designed analogue EEG module performs EEG signal acquisition, signal amplification and filtering. Although the EEG data set contains thousands of samples and more than 15 different classes, we limit our study on 226 samples grouped into seven classes with 8‐second time duration per sample. With careful settings of deep‐learning classifier model parameters, the training and testing were successful with high accuracy results. The designed BCI system has several advantages including a large bandwidth of 400 Hz, low number of EEG electrodes, easy setup, simple user interface, pre‐processing and digital filtering, fast machine learning, multi‐class identification, monitoring and control models, high classification accuracy and low cost. This research work provided several contributions including the creation of recent and original EEG data set using well‐labelled recordings at an adequate sampling rate of 2 kHz. The EEG signal acquisition module with 400‐Hz bandwidth provides precise and rich EEG signal information needed for feature extraction. Our results are reproducible and have been tested and deployed on Raspberry pi 4 with Python. The designed wavelet‐based BCI system consists of analogue EEG signal acquisition and machine‐learning modules, which consist of deep‐learning Multi‐layer perceptron (MLP) classifiers and linear discriminant analysis (LDA) as well as other classifier models for comparison including convolutional neural networks (CNN). The deep learning and LDA classifiers models produced the best performance with average accuracy of 95.6% and 96% for both training and testing data sets.https://doi.org/10.1049/sil2.12080brain‐computer interface (BCI)discrete wavelet transform (DWT)EEG signal classificationelectroencephalography (EEG)Machine learning
spellingShingle Amer Al‐Canaan
Hicham Chakib
Muhammad Uzair
Shuja‐uRehman Toor
Amer Al‐Khatib
Majid Sultan
BCI‐control and monitoring system for smart home automation using wavelet classifiers
IET Signal Processing
brain‐computer interface (BCI)
discrete wavelet transform (DWT)
EEG signal classification
electroencephalography (EEG)
Machine learning
title BCI‐control and monitoring system for smart home automation using wavelet classifiers
title_full BCI‐control and monitoring system for smart home automation using wavelet classifiers
title_fullStr BCI‐control and monitoring system for smart home automation using wavelet classifiers
title_full_unstemmed BCI‐control and monitoring system for smart home automation using wavelet classifiers
title_short BCI‐control and monitoring system for smart home automation using wavelet classifiers
title_sort bci control and monitoring system for smart home automation using wavelet classifiers
topic brain‐computer interface (BCI)
discrete wavelet transform (DWT)
EEG signal classification
electroencephalography (EEG)
Machine learning
url https://doi.org/10.1049/sil2.12080
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AT shujaurehmantoor bcicontrolandmonitoringsystemforsmarthomeautomationusingwaveletclassifiers
AT ameralkhatib bcicontrolandmonitoringsystemforsmarthomeautomationusingwaveletclassifiers
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