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Correlation between speech-evoked auditory brainstem responses and transient evoked otoacoustic emissions

Published online by Cambridge University Press:  05 July 2011

B Rana*
Affiliation:
BASLP Student, All India Institute of Speech and Hearing, Manasagangothri, Mysore, India
A Barman
Affiliation:
Department of Audiology, All India Institute of Speech and Hearing, Manasagangothri, Mysore, India
*
Address for correspondence: Baljeet Rana, All India Institute of Speech and Hearing, Manasagangothri, Mysore 570006, India E-mail: baljeetsevenup@gmail.com

Abstract

Objective:

To investigate the correlation between cochlear processing and brainstem processing.

Method:

Transient evoked otoacoustic emissions and speech-evoked auditory brainstem responses were recorded in 40 ears of normal-hearing individuals aged 18 to 23 years. Correlation analyses compared transient evoked otoacoustic emission parameters with speech-evoked auditory brainstem response parameters.

Results:

There was a significant correlation between speech-evoked auditory brainstem response wave V latency and transient evoked otoacoustic emission global emission strength; there were no other significant correlations between the two tests.

Conclusion:

Tests for transient evoked otoacoustic emissions and speech-evoked auditory brainstem responses provide unique and functionally independent information about the integrity and sensitivity of the auditory system. Therefore, combining both tests will provide a more sensitive clinical battery with which to identify the location of different disorders (e.g. language-based learning impairments and hearing impairments).

Type
Main Articles
Copyright
Copyright © JLO (1984) Limited 2011

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References

1Kemp, DT. Stimulated acoustic emissions from within the human auditory system. J Acoust Soc Am 1978;64:1386–91Google Scholar
2Brownell, WE. Cochlear transduction: an integrative model and review. Hear Res 1982;6:335–60CrossRefGoogle ScholarPubMed
3Kemp, DT. Otoacoustic emissions, travelling waves and cochlear mechanisms. Hear Res 1986;22:95104Google Scholar
4Guelke, R, Bunn, A. A mechanism for stimulated acoustic emissions in the cochlea. Hear Res 1985;19:185–9CrossRefGoogle ScholarPubMed
5Banai, K, Kraus, N. Neurobiology of (central) auditory processing disorder and language- based learning disability. In: Chermak, D, Musiek, E. Handbook of Central Auditory Processing Disorder: Volume I: Auditory Neuroscience and Diagnosis. San Diego: Plural, 2006Google Scholar
6Merzenich, M, Reid, D. Representation of the cochlea within the inferior colliculus of the cat. Brain Res 1974;77:397415Google Scholar
7Rose, J, Galambos, R, Hughes, J. Microelectrode studies of the cochlear nuclei of the cat. Bull Johns Hopkins Hosp 1959;104:211–51Google Scholar
8Russo, N, Nicol, T, Musacchia, G, Kraus, N. Brainstem response to speech syllables. Clin Neurophysiol 2004;115:2021–30CrossRefGoogle ScholarPubMed
9Akhoun, I, Gallégo, S, Mouin, A, Ménard, M, Veuillet, E, Berger-Vachon, C et al. The temporal relationship between speech auditory brainstem responses and the acoustic pattern of the phoneme /ba/ in normal-hearing adults. Clin Neurophysiol 2008;119:922–33Google Scholar
10Banai, K, Abrams, D, Kraus, N. Sensory-based learning disability: insights from brainstem processing of speech sounds. Int J Audiol 2007;46:524–32Google Scholar
11Wible, B, Nicol, T, Kraus, N. Correlation between brainstem and cortical auditory processes in normal and language-impaired children. Brain 2005;128:417–23CrossRefGoogle ScholarPubMed
12de Boer, J, Thornton, AR. Neural correlates of perceptual learning in the auditory brainstem: efferent activity predicts and reflects improvement at a speech-in-noise discrimination task. J Neurosci 2008;28:4929–37Google Scholar
13Dhar, S, Abel, R, Hornickel, J, Nicol, T, Skoe, E, Zhao, W et al. Exploring the relationship between physiological measures of cochlear and brainstem function. Clin Neurophysiol 2009;120:959–66Google Scholar
14American National Standards Institute. Maximum Permissible Ambient Noise Levels for Audiometric Test Rooms (ANSI S3.1-1991). New York: J Acous Soc of America, 1991Google Scholar
15American National Standards Institute. American National Standards: Specifications For Audiometers (ANSI S3.6-1996). New York: Acoustical Society of America, 1996Google Scholar
16Carhart, R, Jerger, J. Preferred method of clinical determination of puretone thresholds. J Speech Hearing Dis 1959;24:330–45CrossRefGoogle Scholar
17Klatt, DH. Software for a cascade/parallel formant synthesizer. J Acoust Soc Am 1980;67:971–95CrossRefGoogle Scholar
18Wible, B, Nicol, T, Kraus, N. Atypical brainstem representation of onset and formant structure of speech sounds in children with language-based learning problems. Biol Psychol 2004;67:299317Google Scholar
19Cacace, AT, Pinheiro, JM. Relationships between otoacoustic emissions and auditory brainstem responses in neonates and young children: a correlation and factor analytical study. Laryngoscope 2002;112:156–67CrossRefGoogle Scholar