CAPS facilitates filling of the rapidly releasable pool of large dense-core vesicles.
about
Multiple roles for the actin cytoskeleton during regulated exocytosisDistinct initial SNARE configurations underlying the diversity of exocytosisResident CAPS on dense-core vesicles docks and primes vesicles for fusionSnapin facilitates the synchronization of synaptic vesicle fusionIdentification of a Munc13-sensitive step in chromaffin cell large dense-core vesicle exocytosisCAPS and Munc13 utilize distinct PIP2-linked mechanisms to promote vesicle exocytosisCa2+-dependent activator proteins of secretion promote vesicular monoamine uptakeCalcium-dependent activator protein for secretion 2 interacts with the class II ARF small GTPases and regulates dense-core vesicle traffickingNovel interactions of CAPS (Ca2+-dependent activator protein for secretion) with the three neuronal SNARE proteins required for vesicle fusion.A sequential vesicle pool model with a single release sensor and a Ca(2+)-dependent priming catalyst effectively explains Ca(2+)-dependent properties of neurosecretion.Candidate genes in quantitative trait loci associated with absolute and relative kidney weight in rats with Inherited Stress Induced Arterial Hypertension.Munc13-4 reconstitutes calcium-dependent SNARE-mediated membrane fusion.Sustained Exocytosis after Action Potential-Like Stimulation at Low Frequencies in Mouse Chromaffin Cells Depends on a Dynamin-Dependent Fast Endocytotic Process.CAPS activity in priming vesicle exocytosis requires CK2 phosphorylationThe Vesicle Priming Factor CAPS Functions as a Homodimer via C2 Domain Interactions to Promote Regulated Vesicle Exocytosis.CAPS drives trans-SNARE complex formation and membrane fusion through syntaxin interactionsCAPS1 RNA Editing Promotes Dense Core Vesicle ExocytosisCAPS and Munc13: CATCHRs that SNARE VesiclesMunc13 homology domain-1 in CAPS/UNC31 mediates SNARE binding required for priming vesicle exocytosis.Phosphatidylinositol 4,5-bisphosphate regulation of SNARE function in membrane fusion mediated by CAPS.Reconstitution of calcium-mediated exocytosis of dense-core vesicles.Interaction of calcium-dependent activator protein for secretion 1 (CAPS1) with the class II ADP-ribosylation factor small GTPases is required for dense-core vesicle trafficking in the trans-Golgi network.CAPS-1 requires its C2, PH, MHD1 and DCV domains for dense core vesicle exocytosis in mammalian CNS neurons.Calcium-dependent activator protein for secretion 1 (CAPS1) binds to syntaxin-1 in a distinct mode from Munc13-1.Two distinct secretory vesicle-priming steps in adrenal chromaffin cellsHow does the stimulus define exocytosis in adrenal chromaffin cells?The SNARE protein vti1a functions in dense-core vesicle biogenesisVesicle pools: lessons from adrenal chromaffin cellsRemote homology between Munc13 MUN domain and vesicle tethering complexes.Synaptobrevin2 is the v-SNARE required for cytotoxic T-lymphocyte lytic granule fusion.Phosphatidylinositol 4,5-bisphosphate optical uncaging potentiates exocytosis.Doc2B acts as a calcium sensor for vesicle priming requiring synaptotagmin-1, Munc13-2 and SNAREs.Synaptic reliability and temporal precision are achieved via high quantal content and effective replenishment: auditory brainstem versus hippocampus.Paralogs of the Calcium-Dependent Activator Protein for Secretion Differentially Regulate Synaptic Transmission and Peptide Secretion in Sensory Neurons
P2860
Q26824483-75EFD76F-88E9-4BC6-8618-B663A2BF1FB2Q26866150-CD32F6D3-1032-4CC9-A73D-DB7233E868CDQ27305246-03237EE3-3F49-4F98-9828-49D3A236CD38Q28508747-674736AB-6123-4ECD-AA9E-D28CA95544CEQ28564812-258E77B4-0C30-4B96-A705-34A99A4A443EQ28567130-06666A58-32E1-4CB4-AC1A-6D8B32A2A108Q28570841-D880F43B-7111-4F10-B1D1-498EFBAA2F26Q28586030-65965FC7-B537-4065-A1D8-EB1EB61AFA93Q34284996-D5BBF3A9-0768-48BF-B411-CF2F30E7D8A9Q35067169-92800349-C9B3-45EF-8ECE-DA9EB4E99C0CQ35093174-CC63E142-C3CE-43C2-A2F2-2E944FB20206Q35894259-5B7AD0C5-999A-4949-AF44-85AEF3E4F6C9Q37125115-8BBCE3F4-9119-48DA-A233-592B88B77C2AQ37254108-AEB79303-30F3-45ED-9212-D2FB98ABE009Q37361167-42ED301A-82D2-4063-B946-06E4DD313B57Q37394786-F5CB93A3-0169-435C-8CFD-419FDBB68B5DQ37544904-5A5B18EA-4B41-431F-9F26-C4F99EE399ADQ38173360-96790E14-DBD8-4C8A-8D40-E342E448D8D9Q39497953-770DD97C-F5ED-4A3C-A23D-ECAF19149722Q40308075-44CD3A5C-7317-4FF2-97AD-65B6E41A2726Q41059539-987C39B2-B49F-4A97-B0A2-12E1A2E0B62BQ41498910-91AA9F6A-E0B0-49EA-B9E4-01170E23B6A4Q41536357-5FCEF1C7-C1F7-4EC5-ADBB-CBFE2AB3FB33Q41778934-D60B53E1-C192-4AEF-BB3B-21A93DE4EE6FQ41966374-0245F3C2-B768-40EC-9D37-2F263CFF968DQ42514168-24CA3975-99F9-4BE2-9CB8-EE28F6C24552Q42548237-0333998B-7E3E-48B2-8792-1D31CAB36066Q42699533-9D14A5E3-4FC2-4677-B8A2-600B7701E461Q42871383-7D24DE3A-F1DC-454B-A15F-A0FBDEDBB595Q44787122-F9CAC27A-B88D-427A-AF57-68B98C8CD3D9Q47160280-AAAED599-06AE-4660-A083-02B77AB2E51DQ47259015-4C6F64FC-C54C-468E-A447-DF68F5A0268EQ48333377-2F499896-6A40-4C55-918D-DD7A77B9CD89Q58750777-9B27B9A6-16B2-4215-A380-4661F903A00B
P2860
CAPS facilitates filling of the rapidly releasable pool of large dense-core vesicles.
description
2008 nî lūn-bûn
@nan
2008年の論文
@ja
2008年学术文章
@wuu
2008年学术文章
@zh
2008年学术文章
@zh-cn
2008年学术文章
@zh-hans
2008年学术文章
@zh-my
2008年学术文章
@zh-sg
2008年學術文章
@yue
2008年學術文章
@zh-hant
name
CAPS facilitates filling of the rapidly releasable pool of large dense-core vesicles.
@en
CAPS facilitates filling of the rapidly releasable pool of large dense-core vesicles.
@nl
type
label
CAPS facilitates filling of the rapidly releasable pool of large dense-core vesicles.
@en
CAPS facilitates filling of the rapidly releasable pool of large dense-core vesicles.
@nl
prefLabel
CAPS facilitates filling of the rapidly releasable pool of large dense-core vesicles.
@en
CAPS facilitates filling of the rapidly releasable pool of large dense-core vesicles.
@nl
P2093
P50
P1476
CAPS facilitates filling of the rapidly releasable pool of large dense-core vesicles.
@en
P2093
Claudia Schirra
Detlef Hof
Dieter Bruns
Dina Speidel
Nils Brose
Yuanyuan Liu
P304
P356
10.1523/JNEUROSCI.5672-07.2008
P407
P577
2008-05-01T00:00:00Z