Modelling Cochlear mechanics
Modelling Cochlear mechanics
The cochlea plays a crucial role in mammal hearing. The basic function of the cochlea is to map sounds of different frequencies onto corresponding characteristic positions on the basilar membrane (BM). Sounds enter the fluid-filled cochlea and cause deflection of the BM due to pressure differences between the cochlear fluid chambers. These deflections travel along the cochlea, increasing in amplitude, until a frequency-dependent characteristic position and then decay away rapidly. The hair cells can detect these deflections and encode them as neural signals. Modelling the mechanics of the cochlea is of help in interpreting experimental observations and also can provide predictions of the results of experiments that cannot currently be performed due to technical limitations. This paper focuses on reviewing the numerical modelling of the mechanical and electrical processes in the cochlea, which include fluid coupling, micromechanics, the cochlear amplifier, nonlinearity, and electrical coupling.
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Ni, Guangjian
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Elliott, Stephen J.
721dc55c-8c3e-4895-b9c4-82f62abd3567
Ayat, Mohammad
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Teal, Paul D.
6c6dad3d-5a33-4631-bdbf-93122ad014f1
23 July 2014
Ni, Guangjian
f6ddc112-7d81-403a-b97a-7ecbc8fd4e59
Elliott, Stephen J.
721dc55c-8c3e-4895-b9c4-82f62abd3567
Ayat, Mohammad
d85c0ab7-3e50-4f29-9f32-1c8826c36454
Teal, Paul D.
6c6dad3d-5a33-4631-bdbf-93122ad014f1
Ni, Guangjian, Elliott, Stephen J., Ayat, Mohammad and Teal, Paul D.
(2014)
Modelling Cochlear mechanics.
BioMed Research International, 2014 (150637), .
(doi:10.1155/2014/150637).
Abstract
The cochlea plays a crucial role in mammal hearing. The basic function of the cochlea is to map sounds of different frequencies onto corresponding characteristic positions on the basilar membrane (BM). Sounds enter the fluid-filled cochlea and cause deflection of the BM due to pressure differences between the cochlear fluid chambers. These deflections travel along the cochlea, increasing in amplitude, until a frequency-dependent characteristic position and then decay away rapidly. The hair cells can detect these deflections and encode them as neural signals. Modelling the mechanics of the cochlea is of help in interpreting experimental observations and also can provide predictions of the results of experiments that cannot currently be performed due to technical limitations. This paper focuses on reviewing the numerical modelling of the mechanical and electrical processes in the cochlea, which include fluid coupling, micromechanics, the cochlear amplifier, nonlinearity, and electrical coupling.
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Published date: 23 July 2014
Organisations:
Signal Processing & Control Grp
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Local EPrints ID: 368342
URI: http://eprints.soton.ac.uk/id/eprint/368342
ISSN: 2314-6133
PURE UUID: 5ec114b3-f6f2-4a20-a38b-3c2dfeb8d2fa
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Date deposited: 28 Aug 2014 10:52
Last modified: 14 Mar 2024 17:46
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Author:
Guangjian Ni
Author:
Mohammad Ayat
Author:
Paul D. Teal
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