Method based on UWB for user identification during gait periods
Everyone has a different way of walking, and for this reason, gait has been studied in the last few years as an important biometric information source. This study explores a novel approach, based on ultra-wideband (UWB) technology, for user identification via gait analysis. In the proposed method, t...
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doaj-2cc81484d0f140149e8801e9c93135582021-04-02T11:06:22ZengWileyHealthcare Technology Letters2053-37132019-05-0110.1049/htl.2018.5050HTL.2018.5050Method based on UWB for user identification during gait periodsAlessio Vecchio0Guglielmo Cola1Guglielmo Cola2University of Pisa, Largo L. Lazzarino 1University of Pisa, Largo L. Lazzarino 1University of Pisa, Largo L. Lazzarino 1Everyone has a different way of walking, and for this reason, gait has been studied in the last few years as an important biometric information source. This study explores a novel approach, based on ultra-wideband (UWB) technology, for user identification via gait analysis. In the proposed method, the user is supposed to wear two or more devices embedding a UWB transceiver. During gait, the distances between the devices are estimated via UWB and then analysed by means of a machine learning classifier, which provides automatic identification. Experiments were carried out by 12 volunteers, who walked while wearing four UWB boards (placed on the head, wrist, ankle, and in a trouser pocket). The off-line evaluation considered a set of different possible configurations in terms of number and position of the wearable devices. Despite a relatively low sampling frequency of 10 Hz, the results are promising: average identification accuracy is as high as ∼96% with four devices, and above 90% with three devices (wrist, trouser pocket, and ankle). This novel approach may enhance the accuracy of inertial-based systems for continuous user identification.https://digital-library.theiet.org/content/journals/10.1049/htl.2018.5050ultra wideband communicationbiometrics (access control)transceiversgait analysislearning (artificial intelligence)interactive devicesgait periodsultra-wideband technologygait analysisuwb transceivermachine learning classifieruwb boardstrouser pocketwearable devicesinertial-based systemscontinuous user identificationbiometric information sourcefrequency 10.0 hz |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Alessio Vecchio Guglielmo Cola Guglielmo Cola |
spellingShingle |
Alessio Vecchio Guglielmo Cola Guglielmo Cola Method based on UWB for user identification during gait periods Healthcare Technology Letters ultra wideband communication biometrics (access control) transceivers gait analysis learning (artificial intelligence) interactive devices gait periods ultra-wideband technology gait analysis uwb transceiver machine learning classifier uwb boards trouser pocket wearable devices inertial-based systems continuous user identification biometric information source frequency 10.0 hz |
author_facet |
Alessio Vecchio Guglielmo Cola Guglielmo Cola |
author_sort |
Alessio Vecchio |
title |
Method based on UWB for user identification during gait periods |
title_short |
Method based on UWB for user identification during gait periods |
title_full |
Method based on UWB for user identification during gait periods |
title_fullStr |
Method based on UWB for user identification during gait periods |
title_full_unstemmed |
Method based on UWB for user identification during gait periods |
title_sort |
method based on uwb for user identification during gait periods |
publisher |
Wiley |
series |
Healthcare Technology Letters |
issn |
2053-3713 |
publishDate |
2019-05-01 |
description |
Everyone has a different way of walking, and for this reason, gait has been studied in the last few years as an important biometric information source. This study explores a novel approach, based on ultra-wideband (UWB) technology, for user identification via gait analysis. In the proposed method, the user is supposed to wear two or more devices embedding a UWB transceiver. During gait, the distances between the devices are estimated via UWB and then analysed by means of a machine learning classifier, which provides automatic identification. Experiments were carried out by 12 volunteers, who walked while wearing four UWB boards (placed on the head, wrist, ankle, and in a trouser pocket). The off-line evaluation considered a set of different possible configurations in terms of number and position of the wearable devices. Despite a relatively low sampling frequency of 10 Hz, the results are promising: average identification accuracy is as high as ∼96% with four devices, and above 90% with three devices (wrist, trouser pocket, and ankle). This novel approach may enhance the accuracy of inertial-based systems for continuous user identification. |
topic |
ultra wideband communication biometrics (access control) transceivers gait analysis learning (artificial intelligence) interactive devices gait periods ultra-wideband technology gait analysis uwb transceiver machine learning classifier uwb boards trouser pocket wearable devices inertial-based systems continuous user identification biometric information source frequency 10.0 hz |
url |
https://digital-library.theiet.org/content/journals/10.1049/htl.2018.5050 |
work_keys_str_mv |
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