The inner ear is our most sensitive sensory organ and can be subdivided into three functional units: organ of Corti, stria vascularis and spiral ganglion. The appropriate stimulus for the organ of hearing is sound, which travels through the external auditory canal to the middle ear where it is transmitted to the inner ear. The inner ear houses the hair cells, the sensory cells of hearing. The inner hair cells are capable of mechanotransduction, the transformation of mechanical force into an electrical signal, which is the basic principle of hearing. The stria vascularis generates the endocochlear potential and maintains the ionic homeostasis of the endolymph. The dendrites of the spiral ganglion form synaptic contacts with the hair cells. T...
We interact with the world around us by sensing a vast array of inputs and translating them into sig...
The identification of genes underlying monogenic, early-onset forms of deafness in humans has provid...
We review the molecular basis of the auditory system development and evolution. The auditory periphe...
The inner ear is our most sensitive sensory organ and can be subdivided into three functional units:...
The inner ear is our most sensitive sensory organ and can be subdivided into three functional units:...
The mammalian auditory sense organ is subdivided into three principle compartments, the outer-, midd...
Research in the genetics of hearing and deafness has evolved rapidly over the past years, providing ...
The mammalian cochlea is a highly intricate organ responsible for hearing. Numerous specialized cell...
Little is known of the molecular basis of normal auditory function. In contrast to the visual or olf...
The recent rapid development of molecular biology techniques applied to the genetics of normal and d...
Research in the genetics of hearing and deafness has evolved rapidly over the past years, providing ...
The sensory epithelium of the mammalian inner ear contains two types of mechanosensory cells:inner (...
Understanding how the cochlea works as a system has become increasingly important. We need to know t...
The inner ear is structurally complex. A molecular description of its architecture is now emerging f...
AbstractThe sensory epithelium of the mammalian inner ear contains two types of mechanosensory cells...
We interact with the world around us by sensing a vast array of inputs and translating them into sig...
The identification of genes underlying monogenic, early-onset forms of deafness in humans has provid...
We review the molecular basis of the auditory system development and evolution. The auditory periphe...
The inner ear is our most sensitive sensory organ and can be subdivided into three functional units:...
The inner ear is our most sensitive sensory organ and can be subdivided into three functional units:...
The mammalian auditory sense organ is subdivided into three principle compartments, the outer-, midd...
Research in the genetics of hearing and deafness has evolved rapidly over the past years, providing ...
The mammalian cochlea is a highly intricate organ responsible for hearing. Numerous specialized cell...
Little is known of the molecular basis of normal auditory function. In contrast to the visual or olf...
The recent rapid development of molecular biology techniques applied to the genetics of normal and d...
Research in the genetics of hearing and deafness has evolved rapidly over the past years, providing ...
The sensory epithelium of the mammalian inner ear contains two types of mechanosensory cells:inner (...
Understanding how the cochlea works as a system has become increasingly important. We need to know t...
The inner ear is structurally complex. A molecular description of its architecture is now emerging f...
AbstractThe sensory epithelium of the mammalian inner ear contains two types of mechanosensory cells...
We interact with the world around us by sensing a vast array of inputs and translating them into sig...
The identification of genes underlying monogenic, early-onset forms of deafness in humans has provid...
We review the molecular basis of the auditory system development and evolution. The auditory periphe...