Neurotransmitters are released via exocytosis of synaptic vesicles involving a fusion complex consisting of a set of highly conserved proteins, which form a multiprotein complex resulting in the docking of synaptic vesicles at the site of release. There are three major differences between cochlear hair cell synapses and CNS synapses: (i) hair cells have a specialized structure, the synaptic ribbon, to which synaptic vesicles are attached; (ii) hair cells can maintain high and sustained release of neurotransmitter; and (iii) hair cells lack synaptophysin and synapsin. These differences suggest that an unconventional mechanism of neurotransmitter release may be involved at ribbon synapses. In this study we used different and complementary app...
The ways in which cell architecture is modelled to meet cell function is a poorly understood facet o...
Summary: Hearing depends on fast and sustained calcium-dependent synaptic vesicle fusion at the ribb...
Cochlear inner hair cells (IHCs) develop from pre‐sensory pacemaker to sound transducer. Here, we re...
SNARE proteins mediate membrane fusion. Neurosecretion depends on neuronal soluble NSF attachment pr...
Hearing relies on faithful synaptic transmission at the ribbon synapse of cochlear inner hair cells ...
In the auditory system, ribbon synapses are vesicle-associated structures located between inner hair...
Cysteine-string protein is a vesicle-associated protein that plays a vital function in neurotransmit...
Protein-Protein Interactions That Regulate Neurotransmitter Release from Retinal Ribbon Synapses Pho...
International audienceCochlear inner hair cells (IHCs), the mammalian auditory sensory cells, encode...
Mammalian cochlear inner hair cells (IHCs) are specialized for the dynamic coding of continuous and ...
The inner ear uses specialized synapses to indefatigably transmit sound information from hair cells ...
High-throughput neurotransmission at ribbon synapses of cochlear inner hair cells (IHCs) requires ti...
The auditory ribbon synapse is highly specialised to regulate the release of glutamate from IHCs and...
Les cellules sensorielles auditives, les cellules ciliées internes (CCI), transforment les ondes so...
Cochlear hair cells are the linchpins in the auditory pathway that convert sound, comprised of mecha...
The ways in which cell architecture is modelled to meet cell function is a poorly understood facet o...
Summary: Hearing depends on fast and sustained calcium-dependent synaptic vesicle fusion at the ribb...
Cochlear inner hair cells (IHCs) develop from pre‐sensory pacemaker to sound transducer. Here, we re...
SNARE proteins mediate membrane fusion. Neurosecretion depends on neuronal soluble NSF attachment pr...
Hearing relies on faithful synaptic transmission at the ribbon synapse of cochlear inner hair cells ...
In the auditory system, ribbon synapses are vesicle-associated structures located between inner hair...
Cysteine-string protein is a vesicle-associated protein that plays a vital function in neurotransmit...
Protein-Protein Interactions That Regulate Neurotransmitter Release from Retinal Ribbon Synapses Pho...
International audienceCochlear inner hair cells (IHCs), the mammalian auditory sensory cells, encode...
Mammalian cochlear inner hair cells (IHCs) are specialized for the dynamic coding of continuous and ...
The inner ear uses specialized synapses to indefatigably transmit sound information from hair cells ...
High-throughput neurotransmission at ribbon synapses of cochlear inner hair cells (IHCs) requires ti...
The auditory ribbon synapse is highly specialised to regulate the release of glutamate from IHCs and...
Les cellules sensorielles auditives, les cellules ciliées internes (CCI), transforment les ondes so...
Cochlear hair cells are the linchpins in the auditory pathway that convert sound, comprised of mecha...
The ways in which cell architecture is modelled to meet cell function is a poorly understood facet o...
Summary: Hearing depends on fast and sustained calcium-dependent synaptic vesicle fusion at the ribb...
Cochlear inner hair cells (IHCs) develop from pre‐sensory pacemaker to sound transducer. Here, we re...