Excitatory amino acids and synaptic transmission / edited by H.V. Wheal and A.M. Thomson.
Other Authors: | |
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Language: | English |
Published: |
London ; San Diego :
Academic Press,
[1991], ©1991.
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Subjects: | |
Physical Description: | xxi, 482 pages : illustrations ; 25 cm |
Format: | Book |
Contents:
- Excitatory amino acid receptors: multiplicity and structural requirements for activation and blockade
- Excitatory amino acid receptor distribution: quantitative autoradiographic studies
- Heterogeneity and organization of excitatory amino acid receptors and transporters
- Quisqualate/AMPA-Preferring configurations of non-NMDA receptors
- Excitatory amino acid-gated channel types in mammalian neurons and glia
- Molecular properties of non-NMDA excitatory amino acid receptors
- Inhibition of the NMDA response at the glycine site and the intracellular Mg²⁺ channel blocking site
- Desensitization at NMDA and AMPA-kainate receptors
- Recurrent excitatory synapses between CA3 neurons in the hippocampus.
- Excitatory amino acid transmitter function in mammalian central pathways
- Amino acid-mediated EPSCs
- Presynaptic receptors at a central excitatory synapse
- Synaptic transmission at unitary CA3-CA1 connections in the hippocampus
- Patch-clamp studies of electrogenic glutamate uptake: ionic dependence, modulation and failure in anoxia
- Excitatory amino receptor subtypes and their roles in epileptiform synaptic potentials in the hippocampus
- Amino acid-mediated synaptic transmission in temporal lobe structures in vitro: implications for the generation and spread of epileptic activity
- The role of excitatory amino acids in the genesis of bursting
- Postsynaptic events in mediating LTP
- Properties of synapses mediated by excitatory amino acids and their involvement in synaptic plasticity
- The role of NMDA receptors in use-dependent synaptic plasticity of the visual cortex
- Presynaptic mechanisms in the maintenance of long-term potentiation: the role of arachidonic acid
- Control of GABA release by glutamate agonists in neonatal hippocampal neurons.