Results 221 to 230 of about 50,414 (231)
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Hearing Research, 2018
Peterson and Heil [Hear. Res., In Press] have argued that the statistics of spontaneous spiking in auditory nerve fibers (ANFs) can be best explained by a model with a limited number of synaptic vesicle docking (release) sites (∼4) and a relatively-long average redocking time (∼16-17 ms) for each of the sites.
Ian C. Bruce+2 more
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Peterson and Heil [Hear. Res., In Press] have argued that the statistics of spontaneous spiking in auditory nerve fibers (ANFs) can be best explained by a model with a limited number of synaptic vesicle docking (release) sites (∼4) and a relatively-long average redocking time (∼16-17 ms) for each of the sites.
Ian C. Bruce+2 more
openaire +3 more sources
Hearing Research, 1980
Intracellular receptor potentials were recorded from inner hair cells in the basal turn of the guinea pig cochlea in response to low frequency tones. These were compared with the cochlear microphonic (CM) recorded from the scala tympani and sound pressure at the tympanic membrance. The CM is symmetrical and behaves as if it responds to basilar membrane
P.M. Sellick, Ian J. Russell
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Intracellular receptor potentials were recorded from inner hair cells in the basal turn of the guinea pig cochlea in response to low frequency tones. These were compared with the cochlear microphonic (CM) recorded from the scala tympani and sound pressure at the tympanic membrance. The CM is symmetrical and behaves as if it responds to basilar membrane
P.M. Sellick, Ian J. Russell
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Hearing Research, 1997
Current theories assume that the outer hair cells (OHC) are responsible for the sharp tuning and exquisite sensitivity of the ear whereas inner hair cells (IHC) are mainly responsible for transmitting acoustic information to the central nervous system.
Philip Hofstetter+5 more
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Current theories assume that the outer hair cells (OHC) are responsible for the sharp tuning and exquisite sensitivity of the ear whereas inner hair cells (IHC) are mainly responsible for transmitting acoustic information to the central nervous system.
Philip Hofstetter+5 more
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The Journal of the Acoustical Society of America, 2002
Most animal models of sensorineural hearing loss show either selective outer hair cell (OHC) loss, or combined OHC and inner hair cell (IHC) loss. Several years ago, Robert Harrison and colleagues discovered that carboplatin could produce a selective IHC loss in the chinchilla.
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Most animal models of sensorineural hearing loss show either selective outer hair cell (OHC) loss, or combined OHC and inner hair cell (IHC) loss. Several years ago, Robert Harrison and colleagues discovered that carboplatin could produce a selective IHC loss in the chinchilla.
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Implementation details of a computation model of the inner hair-cell auditory-nerve synapse
The Journal of the Acoustical Society of America, 1990Ray Meddis+2 more
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The Ribbon Synapse Between Type I Spiral Ganglion Neurons and Inner Hair Cells
, 2016M. Rutherford, T. Moser
semanticscholar +1 more source