The mechanism of transmission of low-frequency sound signals otoacoustic emissions
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Abstract
The possible ways to reverse the signal otoacoustic emissions with cochlear inner ear to the canal of outer ear. Based on the energy loss during the passing of sound follows the conclusion about the possibil-ity of passing otoacoustic emissions signal from round window of cochlear at low frequencies.
References 13, figures 2.
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References
Kemp, D. T. (1978). Stimulated acoustic emissions from within the human auditory system. JASA, №64 (5), pp. 1386 - 1391.
Kemp, D. T., Ryan, S., Bray, P. A. (1990). Guide to the effective use of otoacoustic emissions. Ear Hear, №11, pp. 93 - 105.
Robinette, R. M., Glattke, T. (2006). Exploring cochlear status with otoacoustic emissions. In: Otoa-coustic Emissions. Clinical Applications 2nd ed. New York: Thieme, pp. 1 - 47.
Fastl, H., Zwicker, E. (2006). Psycho – Acoustic Fact and Models. Third Edition.
Pasechnik, V. I. (1989). Nature fluctuations in spontaneous otoacoustic emissions. Biophysics, pp. 118 -123.
Altman, Ya. A., Tavartkiladze, G. A. (2003). Hand book on audiology, DMK Press, Moscow, P. 360. (Rus)
Flanagan, D. L. (1968). Analysis, Synthesis and Perception of speech, P. 418. (Rus)
Purcell, D. W. (2003), Estimating bone conduction transfer functions using otoacoustic emissions. JASA, Vol. 114, №2, pp. 907-918.
Gelfand, S. A. (1984). Rumor: an introduction to psychological and physiological acoustics, P. 350. (Rus)
Lependin, L. F. (1978). Acoustics, Moscow, P. 448. (Rus)
Skuchik, E. (1976). Fundamentals of Acoustics, Moscow, P.520.(Rus)
Békésy, J., Rosenblit, V. (1963). Mechanical properties of the ear. WCS.: Experimental Psycholo-gy,Moscow, P. 724.
Bergevin, C., Olson, E. S. (2014). External and middle ear sound pressure distribution and acoustic coupling to the tympanic membrane. JASA, Vol. 135, №3, pр. 1294 – 1312.
