Secretory vesicles dock at the plasma membrane before they undergo fusion. Molecular docking mechanisms are poorly defined but believed to be independent of SNARE proteins. Here, we challenged this hypothesis by acute deletion of the target SNARE, syntaxin, in vertebrate neurons and neuroendocrine cells. Deletion resulted in fusion arrest in both systems. No docking defects were observed in synapses, in line with previous observations. However, a drastic reduction in morphologically docked secretory vesicles was observed in chromaffin cells. Syntaxin-deficient chromaffin cells showed a small reduction in total and plasma membrane staining for the docking factor Munc18-1, which appears insufficient to explain the drastic reduction in docking...
<p>Docking of synaptic vesicles is not impaired after syntaxin proteolysis. (A) Electron micrographs...
Journal ArticleDocking to the plasma membrane prepares vesicles for rapid release. Here, we describe...
Munc18-1 plays pleiotropic roles in neurosecretion by acting as (i) a molecular chaperone of syntaxi...
Secretory vesicles dock at the plasma membrane before they undergo fusion. Molecular docking mechani...
Docking, the stable association of secretory vesicles with the plasma membrane, is considered to be ...
Secretory vesicles dock at their target in preparation for fusion. Using single-vesicle total intern...
SummaryDocking, the initial association of secretory vesicles with the plasma membrane, precedes for...
Synaptic vesicles dock to the plasma membrane at synapses to facilitate rapid exocytosis. Docking wa...
AbstractIn synaptic transmission, vesicles are proposed to dock at presynaptic active zones by the a...
The SNARE complex, involved in vesicular trafficking and exocytosis, is composed of proteins in the ...
Exocytosis of secretory or synaptic vesicles is executed by a mechanism including the SNARE (soluble...
Synaptic vesicles dock to the plasma membrane at synapses to facilitate rapid exocytosis. Docking wa...
Munc 18-1 and syntaxin-1A control SNARE-dependent neuroexocytosis and are organized in nanodomains o...
Exocytosis of secretory or synaptic vesicles is executed by amechanism including the SNARE (solubleN...
MUNC18-1 (also known as STXBP1) is an essential protein for docking and fusion of secretory vesicles...
<p>Docking of synaptic vesicles is not impaired after syntaxin proteolysis. (A) Electron micrographs...
Journal ArticleDocking to the plasma membrane prepares vesicles for rapid release. Here, we describe...
Munc18-1 plays pleiotropic roles in neurosecretion by acting as (i) a molecular chaperone of syntaxi...
Secretory vesicles dock at the plasma membrane before they undergo fusion. Molecular docking mechani...
Docking, the stable association of secretory vesicles with the plasma membrane, is considered to be ...
Secretory vesicles dock at their target in preparation for fusion. Using single-vesicle total intern...
SummaryDocking, the initial association of secretory vesicles with the plasma membrane, precedes for...
Synaptic vesicles dock to the plasma membrane at synapses to facilitate rapid exocytosis. Docking wa...
AbstractIn synaptic transmission, vesicles are proposed to dock at presynaptic active zones by the a...
The SNARE complex, involved in vesicular trafficking and exocytosis, is composed of proteins in the ...
Exocytosis of secretory or synaptic vesicles is executed by a mechanism including the SNARE (soluble...
Synaptic vesicles dock to the plasma membrane at synapses to facilitate rapid exocytosis. Docking wa...
Munc 18-1 and syntaxin-1A control SNARE-dependent neuroexocytosis and are organized in nanodomains o...
Exocytosis of secretory or synaptic vesicles is executed by amechanism including the SNARE (solubleN...
MUNC18-1 (also known as STXBP1) is an essential protein for docking and fusion of secretory vesicles...
<p>Docking of synaptic vesicles is not impaired after syntaxin proteolysis. (A) Electron micrographs...
Journal ArticleDocking to the plasma membrane prepares vesicles for rapid release. Here, we describe...
Munc18-1 plays pleiotropic roles in neurosecretion by acting as (i) a molecular chaperone of syntaxi...