about
What We Have Learned about Autism Spectrum Disorder from Valproic AcidDesigning tools for assumption-proof brain mappingMaintenance of postmitotic neuronal cell identityA genetic RNAi screen for IP₃/Ca²⁺ coupled GPCRs in Drosophila identifies the PdfR as a regulator of insect flightNovel plasticity rule can explain the development of sensorimotor intelligence.Neuronal connectivity as a convergent target of gene × environment interactions that confer risk for Autism Spectrum DisordersNeurotransmitter map of the asymmetric dorsal habenular nuclei of zebrafishDeletion in the N-terminal half of olfactomedin 1 modifies its interaction with synaptic proteins and causes brain dystrophy and abnormal behavior in mice.Non-cell-autonomous mechanism of activity-dependent neurotransmitter switching.Krüppel mediates the selective rebalancing of ion channel expression.Spontaneous Network Activity and Synaptic Development.Lhx3 and Lhx4 suppress Kolmer-Agduhr interneuron characteristics within zebrafish axial motoneurons.Automating single subunit counting of membrane proteins in mammalian cellsSynaptic activity in serotonergic neurons is required for air-puff stimulated flight in Drosophila melanogaster.GABAρ subunits confer a bicuculline-insensitive component to GFAP+ cells of cerebellum.Prenatal exposure to fenugreek impairs sensorimotor development and the operation of spinal cord networks in miceSequential acquisition of cacophony calcium currents, sodium channels and voltage-dependent potassium currents affects spike shape and dendrite growth during postembryonic maturation of an identified Drosophila motoneuronPatterns of Spontaneous Local Network Activity in Developing Cerebral Cortex: Relationship to Adult Cognitive Function.Maturation of a central brain flight circuit in Drosophila requires Fz2/Ca²⁺ signalingNeural activity and CaMKII protect mitochondria from fragmentation in aging Caenorhabditis elegans neurons.The calcium: an early signal that initiates the formation of the nervous system during embryogenesisGlutamate and GABA as rapid effectors of hypothalamic "peptidergic" neuronsNeuropeptide y gates a stress-induced, long-lasting plasticity in the sympathetic nervous system.Imaging-based chemical screening reveals activity-dependent neural differentiation of pluripotent stem cells.Changes in neurochemicals within the ventrolateral medullary respiratory column in awake goats after carotid body denervation.When norepinephrine becomes a driver of breathing irregularities: how intermittent hypoxia fundamentally alters the modulatory response of the respiratory network.In Vitro Evaluation of Biocompatibility of Uncoated Thermally Reduced Graphene and Carbon Nanotube-Loaded PVDF Membranes with Adult Neural Stem Cell-Derived Neurons and Glia.A pupal transcriptomic screen identifies Ral as a target of store-operated calcium entry in Drosophila neurons.Blurring the boundaries: developmental and activity-dependent determinants of neural circuits.Brain repair after stroke--a novel neurological model.Interplay of environmental signals and progenitor diversity on fate specification of cortical GABAergic neurons.Electrical activity controls area-specific expression of neuronal apoptosis in the developing mouse cerebral cortex.Crosstalk among electrical activity, trophic factors and morphogenetic proteins in the regulation of neurotransmitter phenotype specificationMaking sense out of spinal cord somatosensory development.Effects of Ethanol on Cellular Composition and Network Excitability of Human Pluripotent Stem Cell-Derived Neurons.Lmx1b is required for the glutamatergic fates of a subset of spinal cord neurons.The role of voltage-gated calcium channels in neurotransmitter phenotype specification: Coexpression and functional analysis in Xenopus laevis.Profiles of secreted neuropeptides and catecholamines illustrate similarities and differences in response to stimulation by distinct secretagogues.DCC functions as an accelerator of thalamocortical axonal growth downstream of spontaneous thalamic activity.Termination and initial branch formation of SNAP-25-deficient thalamocortical fibres in heterochronic organotypic co-cultures.
P2860
Q21284783-AAFF11DD-C992-4AD5-89BE-6B09117337E1Q27000345-FF3C397A-6132-4B7F-995A-1490268E9E86Q27010931-5A00D28D-F907-439B-A0F7-F8B7BFABB49CQ27320026-C6E31BBF-027E-476B-A1D8-1B5603C80665Q27322028-A640E738-D2A2-47F2-A1D2-65E8D2A367A7Q28396205-0ECFF383-2A3C-4D3F-806C-F55294342408Q30393734-CDCF1C13-90A6-49EB-919B-9D75D8CEBB9FQ30409264-3EBE0EDE-41BE-4931-8F47-9B67CF9DBD9EQ33810746-613CDAF5-3D5C-45B7-8E6C-1311F52522A8Q33924309-6ECA2BB6-6336-4A87-BCFA-4D74F19638C0Q33954475-90886DE1-A0E0-4703-AAE4-2EF01BA6DECEQ34341831-95EFEB96-6CD1-47C1-A244-EF92B8D9447FQ34397095-700BA4EB-A30D-48B5-BF77-C80B51F0180EQ34431217-72D5B70C-EEAA-48A1-B3E6-1E8B433490FCQ34709384-01B7A718-DC02-4C23-B5B6-2C6EE1953240Q35041583-5B3D7F68-5207-443D-9996-DA285436EE92Q35612885-12C53C0C-C5C8-4C6E-B3EE-EA123C92CB6CQ35670926-B90C3BCB-7621-4472-9ABC-58FAA7A783F1Q35671516-A98393C8-430F-400B-AE69-371C75946D41Q35865632-FD96D9D8-81A9-4A06-832F-C31CCEDA385BQ35955345-49D9074F-8ACA-4DF5-B505-BD9F55B646C0Q36421816-E59892AB-1FD1-4FE7-BA84-CDEE7FC86969Q37058112-A6ABD6B0-71EE-4AED-9980-1F188D130C36Q37166985-B99E18E2-D76D-47D1-85E9-9886F599CBDDQ37235103-3BCD18A5-4D8A-4B39-9AE3-CF1692C68A97Q37399949-AA51104E-1B96-4296-9214-F56B19FD64E0Q37475066-0A9B786A-EE61-4EB4-91AD-8ED9C48C3094Q37640248-2C98311F-D715-46E5-BFCC-A02BD598912AQ38123276-3596ECDD-2B50-4D7B-8F03-8DE06B4A9B74Q38161785-840A2DF3-3615-4E26-B5F7-CFA2D892286FQ38478825-BCA71C57-1C5D-4CB3-A8E5-15315A866AA3Q38615905-D042887C-B907-4CA9-94C8-5EDAD0FEC417Q38674321-D5FFB7C0-F61C-4B8E-A896-CDDDC6A77814Q38972220-2B6E7101-9CF3-4C10-95B8-C9680A97A1F0Q39311628-1DEBE524-4AAD-4FAE-816D-6DB1AD3B8E76Q39462130-A4496168-7390-461C-B267-46346EA5CDFEQ40249338-260C6BD5-0211-46E8-8046-57B80E158E45Q40818285-002A78AE-180C-4B00-9D3B-422FF3807E06Q40969223-564EADF1-E1E3-4183-9347-8189FA1A21F0Q41787854-AD565978-4DEF-4E09-A58E-2B8728C2C13F
P2860
description
2012 nî lūn-bûn
@nan
2012 թուականի Յունուարին հրատարակուած գիտական յօդուած
@hyw
2012 թվականի հունվարին հրատարակված գիտական հոդված
@hy
2012年の論文
@ja
2012年論文
@yue
2012年論文
@zh-hant
2012年論文
@zh-hk
2012年論文
@zh-mo
2012年論文
@zh-tw
2012年论文
@wuu
name
Activity-dependent neurotransmitter respecification.
@ast
Activity-dependent neurotransmitter respecification.
@en
type
label
Activity-dependent neurotransmitter respecification.
@ast
Activity-dependent neurotransmitter respecification.
@en
prefLabel
Activity-dependent neurotransmitter respecification.
@ast
Activity-dependent neurotransmitter respecification.
@en
P2860
P356
P1476
Activity-dependent neurotransmitter respecification.
@en
P2093
Nicholas C Spitzer
P2860
P2888
P304
P356
10.1038/NRN3154
P407
P577
2012-01-18T00:00:00Z