Mechanisms of calpain mediated proteolysis of voltage gated sodium channel α-subunits following in vitro dynamic stretch injury
about
Pluripotent stem cell-derived neural stem cells: From basic research to applicationsCellular biomechanics of central nervous system injuryAn update on transcriptional and post-translational regulation of brain voltage-gated sodium channelsForce spectroscopy measurements show that cortical neurons exposed to excitotoxic agonists stiffen before showing evidence of bleb damage.Blockage of the upregulation of voltage-gated sodium channel nav1.3 improves outcomes after experimental traumatic brain injury.Traumatic white matter injury and glial activation: from basic science to clinics.Interaction between calpain-1 and HSP90: new insights into the regulation of localization and activity of the protease.E2F1 in neurons is cleaved by calpain in an NMDA receptor-dependent manner in a model of HIV-induced neurotoxicity.Serum SNTF Increases in Concussed Professional Ice Hockey Players and Relates to the Severity of Postconcussion Symptoms.Brain injury-induced proteolysis is reduced in a novel calpastatin-overexpressing transgenic mouse.Mild traumatic brain injury in the mouse induces axotomy primarily within the axon initial segmentStretch Injury of Human Induced Pluripotent Stem Cell Derived Neurons in a 96 Well Format.Evidence That the Blood Biomarker SNTF Predicts Brain Imaging Changes and Persistent Cognitive Dysfunction in Mild TBI PatientsWhite matter injury: Ischemic and nonischemic.The role of stretch-activated ion channels in acute respiratory distress syndrome: finally a new target?High Ca2+ Influx During Traumatic Brain Injury Leads to Caspase-1-Dependent Neuroinflammation and Cell Death.Do sodium channel proteolytic fragments regulate sodium channel expression?
P2860
Q27009132-9BA96163-D50F-4830-AE09-BA426380A1F8Q28085115-A1F5A0FE-0642-4EEB-BD39-53878378709EQ28087661-F9D8BF86-68BC-4230-9427-29B8D94635BEQ30449539-EB58C526-3D7A-466A-BAA8-33310071EB47Q30710079-B2156B78-327C-48F7-850D-CBE337702C5EQ30816308-0390DB90-77C6-4934-A56D-D3B3BEDF21CFQ34892264-B4FC5EB0-0642-45DE-A078-F88608907A37Q35177482-EA71716B-C226-4435-8729-886AABEA8439Q35977643-4A3FAE4A-A453-444D-AAEA-70D431B1082CQ36912518-C6A31CD2-CDD4-4E06-B1B7-A68D3ECCE941Q36951580-5F6D5EB9-4625-4AEF-97F2-D49375386C1CQ37285544-4D0E3132-7E32-4C40-8504-AC7DA38706D1Q37317257-AE2F5B46-5640-4560-B063-A77CE01B850CQ38231843-069375B8-52A4-4636-BD13-BA80E3AA5D67Q38831674-CE937699-773A-434F-B409-1FA89A26B755Q39690956-B35381B5-4911-47F4-9700-06877E4D3F53Q48109704-4E18AA04-6B05-4BA6-BE5C-B5E19EDE1D95
P2860
Mechanisms of calpain mediated proteolysis of voltage gated sodium channel α-subunits following in vitro dynamic stretch injury
description
article científic
@ca
article scientifique
@fr
articolo scientifico
@it
artigo científico
@pt
bilimsel makale
@tr
scientific article published on 12 April 2012
@en
vedecký článok
@sk
vetenskaplig artikel
@sv
videnskabelig artikel
@da
vědecký článek
@cs
name
Mechanisms of calpain mediated ...... n vitro dynamic stretch injury
@en
Mechanisms of calpain mediated ...... vitro dynamic stretch injury.
@nl
type
label
Mechanisms of calpain mediated ...... n vitro dynamic stretch injury
@en
Mechanisms of calpain mediated ...... vitro dynamic stretch injury.
@nl
prefLabel
Mechanisms of calpain mediated ...... n vitro dynamic stretch injury
@en
Mechanisms of calpain mediated ...... vitro dynamic stretch injury.
@nl
P2093
P2860
P1476
Mechanisms of calpain mediated ...... n vitro dynamic stretch injury
@en
P2093
Catherine R von Reyn
David F Meaney
Douglas H Smith
Robert Siman
Rosalind E Mott
P2860
P304
P356
10.1111/J.1471-4159.2012.07735.X
P407
P577
2012-04-12T00:00:00Z