Biometrics Using Electroencephalograms Stimulated by Personal Ultrasound and Multidimensional Nonlinear Features

Biometrics such as fingerprints and iris scans has been used in authentication. However, conventional biometrics is vulnerable to identity theft, especially in user-management systems. As a new biometrics without this vulnerability, brain waves have been a focus. In this paper, brain waves (electroe...

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Main Authors: Isao Nakanishi, Takehiro Maruoka
Format: Article
Language:English
Published: MDPI AG 2019-12-01
Series:Electronics
Subjects:
eeg
Online Access:https://www.mdpi.com/2079-9292/9/1/24
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spelling doaj-df204b681ffd47d1a109093e7928b79c2020-11-25T02:16:12ZengMDPI AGElectronics2079-92922019-12-01912410.3390/electronics9010024electronics9010024Biometrics Using Electroencephalograms Stimulated by Personal Ultrasound and Multidimensional Nonlinear FeaturesIsao Nakanishi0Takehiro Maruoka1Faculty of Engineering, Tottori University, Tottori 680-8552, JapanGraduate School of Sustainability Sciences, Tottori University, Tottori 680-8552, JapanBiometrics such as fingerprints and iris scans has been used in authentication. However, conventional biometrics is vulnerable to identity theft, especially in user-management systems. As a new biometrics without this vulnerability, brain waves have been a focus. In this paper, brain waves (electroencephalograms (EEGs)) were measured from ten experiment subjects. Individual features were extracted from the log power spectra of the EEGs using principal component analysis, and verification was achieved using a support vector machine. It was found that, for the proposed authentication method, the equal error rate (EER) for a single electrode was about 22−32%, and that, for a multiple electrodes, was 4.4% by using the majority decision rule. Furthermore, nonlinear features based on chaos analysis were introduced for feature extraction and then extended to multidimensional ones. By fusing the results of all electrodes when using the proposed multidimensional nonlinear features and the spectral feature, an EER of 0% was achieved. As a result, it was confirmed that individuals can be authenticated using induced brain waves when they are subjected to ultrasounds.https://www.mdpi.com/2079-9292/9/1/24biometricsbrain waveeegultrasoundevoked potentialmultidimensional nonlinear feature
collection DOAJ
language English
format Article
sources DOAJ
author Isao Nakanishi
Takehiro Maruoka
spellingShingle Isao Nakanishi
Takehiro Maruoka
Biometrics Using Electroencephalograms Stimulated by Personal Ultrasound and Multidimensional Nonlinear Features
Electronics
biometrics
brain wave
eeg
ultrasound
evoked potential
multidimensional nonlinear feature
author_facet Isao Nakanishi
Takehiro Maruoka
author_sort Isao Nakanishi
title Biometrics Using Electroencephalograms Stimulated by Personal Ultrasound and Multidimensional Nonlinear Features
title_short Biometrics Using Electroencephalograms Stimulated by Personal Ultrasound and Multidimensional Nonlinear Features
title_full Biometrics Using Electroencephalograms Stimulated by Personal Ultrasound and Multidimensional Nonlinear Features
title_fullStr Biometrics Using Electroencephalograms Stimulated by Personal Ultrasound and Multidimensional Nonlinear Features
title_full_unstemmed Biometrics Using Electroencephalograms Stimulated by Personal Ultrasound and Multidimensional Nonlinear Features
title_sort biometrics using electroencephalograms stimulated by personal ultrasound and multidimensional nonlinear features
publisher MDPI AG
series Electronics
issn 2079-9292
publishDate 2019-12-01
description Biometrics such as fingerprints and iris scans has been used in authentication. However, conventional biometrics is vulnerable to identity theft, especially in user-management systems. As a new biometrics without this vulnerability, brain waves have been a focus. In this paper, brain waves (electroencephalograms (EEGs)) were measured from ten experiment subjects. Individual features were extracted from the log power spectra of the EEGs using principal component analysis, and verification was achieved using a support vector machine. It was found that, for the proposed authentication method, the equal error rate (EER) for a single electrode was about 22−32%, and that, for a multiple electrodes, was 4.4% by using the majority decision rule. Furthermore, nonlinear features based on chaos analysis were introduced for feature extraction and then extended to multidimensional ones. By fusing the results of all electrodes when using the proposed multidimensional nonlinear features and the spectral feature, an EER of 0% was achieved. As a result, it was confirmed that individuals can be authenticated using induced brain waves when they are subjected to ultrasounds.
topic biometrics
brain wave
eeg
ultrasound
evoked potential
multidimensional nonlinear feature
url https://www.mdpi.com/2079-9292/9/1/24
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