Search results for "auxiliary subunit"

showing 2 items of 2 documents

More than a pore: How voltage-gated calcium channels act on different levels of neuronal communication regulation.

2021

ABSTRACT Voltage-gated calcium channels (VGCCs) represent key regulators of the calcium influx through the plasma membrane of excitable cells, like neurons. Activated by the depolarization of the membrane, the opening of VGCCs induces very transient and local changes in the intracellular calcium concentration, known as calcium nanodomains, that in turn trigger calcium-dependent signaling cascades and the release of chemical neurotransmitters. Based on their central importance as concierges of excitation-secretion coupling and therefore neuronal communication, VGCCs have been studied in multiple aspects of neuronal function and malfunction. However, studies on molecular interaction partners …

0301 basic medicineα2δ subunitsBiophysicschemistry.chemical_elementReviewNeurotransmissionCalciumBiochemistrySynaptic TransmissionCalcium in biology03 medical and health sciencesvoltage-induced calcium releasealternative splicing0302 clinical medicinevoltage-gated calcium channelsCavβ subunitsVGCC auxiliary subunitsCalcium SignalingIon channelNeuronssynaptogenesisVoltage-dependent calcium channelChemistryRyanodine receptorDepolarization030104 developmental biologyIon channelsCalciumgene regulationNeuroscience030217 neurology & neurosurgeryIntracellularResearch ArticleChannels (Austin, Tex.)
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AMPA Receptor Auxiliary Proteins of the CKAMP Family

2019

α-amino-3-hydroxy-5-methyl-4-isoxazolepropionic acid (AMPA) receptors are assembled of four core subunits and several additional interacting proteins. Cystine-knot AMPA receptor-modulating proteins (CKAMPs) constitute a family of four proteins that influence the trafficking, subcellular localization and function of AMPA receptors. The four CKAMP family members CKAMP39/shisa8, CKAMP44/shisa9, CKAMP52/shisa6 and CKAMP59/shisa7 differ in their expression profile and their modulatory influence on AMPA receptor function. In this review, I report about recent findings on the differential roles of CKAMP family members.

glutamate receptorhippocampusGene ExpressionReviewAMPA receptorBiologySynaptic TransmissionCatalysisCell Linelcsh:ChemistryInorganic ChemistryLong term plasticitylateral geniculate nucleusAnimalsHumansAmino Acid SequenceReceptors AMPAAMPA receptorPhysical and Theoretical Chemistrysynaptic functionReceptorlcsh:QH301-705.5Molecular BiologySpectroscopyNeuronal Plasticitymusculoskeletal neural and ocular physiologyOrganic ChemistryGlutamate receptorGeniculate BodiesGeneral MedicineSubcellular localizationlong-term plasticityComputer Science ApplicationsCell biologyProtein TransportSynaptic functionlcsh:Biology (General)lcsh:QD1-999nervous systemauxiliary subunitMultigene FamilySynapsesCarrier ProteinsIon Channel Gatingshort-term plasticityFunction (biology)Protein BindingInternational Journal of Molecular Sciences
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