Mouse Models for Pendrin-Associated Loss of Cochlear and Vestibular Function

The human gene SLC26A4 and the mouse ortholog Slc26a4 code for the protein pendrin, which is an anion exchanger expressed in apical membranes of selected epithelia. In the inner ear, pendrin is expressed in the cochlea, the vestibular labyrinth and the endolymphatic sac. Loss-of-function and hypo-fu...

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Veröffentlicht in:Cellular physiology and biochemistry 2013-01, Vol.32 (Suppl 1), p.157-165
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description The human gene SLC26A4 and the mouse ortholog Slc26a4 code for the protein pendrin, which is an anion exchanger expressed in apical membranes of selected epithelia. In the inner ear, pendrin is expressed in the cochlea, the vestibular labyrinth and the endolymphatic sac. Loss-of-function and hypo-functional mutations cause an enlargement of the vestibular aqueduct (EVA) and sensorineural hearing loss. The relatively high prevalence of SLC26A4 mutations provides a strong imperative to develop rational interventions that delay, ameliorate or prevent pendrin-associated loss of cochlear and vestibular function. This review summarizes recent studies in mouse models that have been developed to delineate the role of pendrin in the physiology of hearing and balance and that have brought forward the concept that a temporally and spatially limited therapy may be sufficient to secure a life-time of normal hearing in children bearing mutations of SLC26A4.
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subjects Animals
Anion Transport Proteins - genetics
Anion Transport Proteins - metabolism
Cochlea
Cochlea - metabolism
Cochlea - pathology
Cochlear Diseases - genetics
Cochlear Diseases - metabolism
Cochlear Diseases - pathology
Disease Models, Animal
Endolymphatic sac
Enlarged vestibular aqueduct
Genetic disease model
Hearing
Humans
Mice
Review
Slc26a4
Sulfate Transporters
Vestibular Diseases - genetics
Vestibular Diseases - metabolism
Vestibular Diseases - pathology
Vestibular Function Tests
title Mouse Models for Pendrin-Associated Loss of Cochlear and Vestibular Function
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