An artificial patient for pure-tone audiometry

Abstract The successful treatment of hearing loss depends on the individual practitioner’s experience and skill. So far, there is no standard available to evaluate the practitioner’s testing skills. To assess every practitioner equally, the paper proposes a first machine, dubbed artificial patient (...

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Main Authors: Alexander Kocian, Guido Cattani, Stefano Chessa, Wilko Grolman
Format: Article
Language:English
Published: SpringerOpen 2018-07-01
Series:EURASIP Journal on Audio, Speech, and Music Processing
Subjects:
Online Access:http://link.springer.com/article/10.1186/s13636-018-0131-y
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spelling doaj-b52c74bb33484dac94a4570d950957032020-11-25T01:52:48ZengSpringerOpenEURASIP Journal on Audio, Speech, and Music Processing1687-47222018-07-012018111110.1186/s13636-018-0131-yAn artificial patient for pure-tone audiometryAlexander Kocian0Guido Cattani1Stefano Chessa2Wilko Grolman3Department of Computer Science, University of PisaBrain Center Rudolf Magnus, University Medical Center Utrecht, University of UtrechtDepartment of Computer Science, University of PisaBrain Center Rudolf Magnus, University Medical Center Utrecht, University of UtrechtAbstract The successful treatment of hearing loss depends on the individual practitioner’s experience and skill. So far, there is no standard available to evaluate the practitioner’s testing skills. To assess every practitioner equally, the paper proposes a first machine, dubbed artificial patient (AP), mimicking a real patient with hearing impairment operating in real time and real environment. Following this approach, we develop a multiple-input multiple-output auditory model that synthesizes various types of hearing loss as well as elements from psychoacoustics such as false response and reaction time. The model is then used to realize a hardware implementation, comprising acoustic and vibration sensors, sound cards, and a fanless personal computer. The AP returns a feedback signal to the practitioner upon perceiving a valid test tone at the hearing threshold analogous to a real patient. The AP is derived within a theoretical framework in contrast to many other solutions. The AP handles masked air-conduction and bone-conduction hearing levels in the range from 5 to 80 dB and from – 20 to 70 dB, respectively, both at 1 kHz. The frequency range is confined within 250 and 8000 Hz. The proposed approach sets a new quality standard for evaluating practitioners.http://link.springer.com/article/10.1186/s13636-018-0131-yPure-tone audiometryReal timeSignal processingNoise injectionOn-off keying
collection DOAJ
language English
format Article
sources DOAJ
author Alexander Kocian
Guido Cattani
Stefano Chessa
Wilko Grolman
spellingShingle Alexander Kocian
Guido Cattani
Stefano Chessa
Wilko Grolman
An artificial patient for pure-tone audiometry
EURASIP Journal on Audio, Speech, and Music Processing
Pure-tone audiometry
Real time
Signal processing
Noise injection
On-off keying
author_facet Alexander Kocian
Guido Cattani
Stefano Chessa
Wilko Grolman
author_sort Alexander Kocian
title An artificial patient for pure-tone audiometry
title_short An artificial patient for pure-tone audiometry
title_full An artificial patient for pure-tone audiometry
title_fullStr An artificial patient for pure-tone audiometry
title_full_unstemmed An artificial patient for pure-tone audiometry
title_sort artificial patient for pure-tone audiometry
publisher SpringerOpen
series EURASIP Journal on Audio, Speech, and Music Processing
issn 1687-4722
publishDate 2018-07-01
description Abstract The successful treatment of hearing loss depends on the individual practitioner’s experience and skill. So far, there is no standard available to evaluate the practitioner’s testing skills. To assess every practitioner equally, the paper proposes a first machine, dubbed artificial patient (AP), mimicking a real patient with hearing impairment operating in real time and real environment. Following this approach, we develop a multiple-input multiple-output auditory model that synthesizes various types of hearing loss as well as elements from psychoacoustics such as false response and reaction time. The model is then used to realize a hardware implementation, comprising acoustic and vibration sensors, sound cards, and a fanless personal computer. The AP returns a feedback signal to the practitioner upon perceiving a valid test tone at the hearing threshold analogous to a real patient. The AP is derived within a theoretical framework in contrast to many other solutions. The AP handles masked air-conduction and bone-conduction hearing levels in the range from 5 to 80 dB and from – 20 to 70 dB, respectively, both at 1 kHz. The frequency range is confined within 250 and 8000 Hz. The proposed approach sets a new quality standard for evaluating practitioners.
topic Pure-tone audiometry
Real time
Signal processing
Noise injection
On-off keying
url http://link.springer.com/article/10.1186/s13636-018-0131-y
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