Literature DB >> 6826891

Measurement of the eardrum impedance of human ears.

H Hudde.   

Abstract

The determination of an acoustical impedance requires measurements of pressure and volume velocity. As no direct method is available for measuring velocity in an ear canal, a technique was developed which is based on pure pressure measurements. The ear canal is used as a measuring tube, the area function of which is also deduced from the pressure measurements. High-frequency measurements in living subjects involve many sources of errors. A criterion for deciding if a good measurement has been made is given. The technique of measurements is described, regarding both the use of probe tube microphones and the computer aided data recording. Finally, the results are presented, and some comments are given. A reliable interpretation of the results seems to be impossible because of lack of our knowledge of the middle ear function at high frequencies.

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Year:  1983        PMID: 6826891     DOI: 10.1121/1.388855

Source DB:  PubMed          Journal:  J Acoust Soc Am        ISSN: 0001-4966            Impact factor:   1.840


  13 in total

1.  Inverse solution of ear-canal area function from reflectance.

Authors:  Daniel M Rasetshwane; Stephen T Neely
Journal:  J Acoust Soc Am       Date:  2011-12       Impact factor: 1.840

2.  Non-invasive estimation of middle-ear input impedance and efficiency.

Authors:  James D Lewis; Stephen T Neely
Journal:  J Acoust Soc Am       Date:  2015-08       Impact factor: 1.840

3.  Wave motion on the surface of the human tympanic membrane: holographic measurement and modeling analysis.

Authors:  Jeffrey Tao Cheng; Mohamad Hamade; Saumil N Merchant; John J Rosowski; Ellery Harrington; Cosme Furlong
Journal:  J Acoust Soc Am       Date:  2013-02       Impact factor: 1.840

4.  Controlled exploration of the effects of conductive hearing loss on wideband acoustic immittance in human cadaveric preparations.

Authors:  Gabrielle R Merchant; Saumil N Merchant; John J Rosowski; Hideko Heidi Nakajima
Journal:  Hear Res       Date:  2016-08-03       Impact factor: 3.208

5.  The effects of varying tympanic-membrane material properties on human middle-ear sound transmission in a three-dimensional finite-element model.

Authors:  Kevin N O'Connor; Hongxue Cai; Sunil Puria
Journal:  J Acoust Soc Am       Date:  2017-11       Impact factor: 1.840

6.  Limitations of present models of blast-induced sound power conduction through the external and middle ear.

Authors:  John J Rosowski; Aaron K Remenschneider; Jeffrey Tao Cheng
Journal:  J Acoust Soc Am       Date:  2019-11       Impact factor: 1.840

7.  The Auditory Mechanics of the Outer Ear of the Bush Cricket: A Numerical Approach.

Authors:  Emine Celiker; Thorin Jonsson; Fernando Montealegre-Z
Journal:  Biophys J       Date:  2019-12-12       Impact factor: 4.033

8.  Motion of the tympanic membrane after cartilage tympanoplasty determined by stroboscopic holography.

Authors:  Antti A Aarnisalo; Jeffrey T Cheng; Michael E Ravicz; Cosme Furlong; Saumil N Merchant; John J Rosowski
Journal:  Hear Res       Date:  2009-11-10       Impact factor: 3.208

9.  Wideband aural acoustic absorbance predicts conductive hearing loss in children.

Authors:  Douglas H Keefe; Chris A Sanford; John C Ellison; Denis F Fitzpatrick; Michael P Gorga
Journal:  Int J Audiol       Date:  2012-10-16       Impact factor: 2.117

10.  Sound-conduction effects on distortion-product otoacoustic emission screening outcomes in newborn infants: test performance of wideband acoustic transfer functions and 1-kHz tympanometry.

Authors:  Chris A Sanford; Douglas H Keefe; Yi-Wen Liu; Denis Fitzpatrick; Ryan W McCreery; Dawna E Lewis; Michael P Gorga
Journal:  Ear Hear       Date:  2009-12       Impact factor: 3.570

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