Excitatory synapses that use the neurotransmitter glutamate are highly dynamic, constantly changing their character in an activity-dependent manner. In this issue of Neuron, Penn et al. (2012) describe a novel mechanism that changes the fidelity of glutamate signaling to maintain homeostatic synaptic plasticity
SummaryGlutamate is the most abundant excitatory neurotransmitter in the brain, and distinct classes...
AbstractNeurotransmitter “spillover” between neighboring synapses challenges the principle of synaps...
AMPA-type glutamate receptors are known to play a critical role in both basal synaptic transmission ...
Excitatory synapses that use the neurotransmitter glutamate are highly dynamic, constantly changing ...
SummaryThe AMPA-type glutamate receptor (AMPAR) subunit composition shapes synaptic transmission and...
The AMPA-type glutamate receptor (AMPAR) subunit composition shapes synaptic transmission and varies...
AbstractCompounds known to disrupt exocytosis or endocytosis were introduced into CA1 pyramidal cell...
SummaryShort-term plasticity of AMPAR currents during high-frequency stimulation depends not only on...
AbstractBoth theoretical and experimental work have suggested that central neurons compensate for ch...
Plasticity models invoke the synaptic delivery of AMPARs, yet we know little about how receptors mov...
Among diverse factors regulating excitatory synaptic transmission, the abundance of postsynaptic glu...
Homeostatic synaptic scaling calibrates neuronal excitability by adjusting synaptic strengths during...
Summary: A major mechanism contributing to synaptic plasticity involves alterations in the number of...
The ability of neurons and circuits to maintain their excitability and activity levels within the ap...
Until now, the atomic details explaining why certain subunits prefer to coassemble has been lacking ...
SummaryGlutamate is the most abundant excitatory neurotransmitter in the brain, and distinct classes...
AbstractNeurotransmitter “spillover” between neighboring synapses challenges the principle of synaps...
AMPA-type glutamate receptors are known to play a critical role in both basal synaptic transmission ...
Excitatory synapses that use the neurotransmitter glutamate are highly dynamic, constantly changing ...
SummaryThe AMPA-type glutamate receptor (AMPAR) subunit composition shapes synaptic transmission and...
The AMPA-type glutamate receptor (AMPAR) subunit composition shapes synaptic transmission and varies...
AbstractCompounds known to disrupt exocytosis or endocytosis were introduced into CA1 pyramidal cell...
SummaryShort-term plasticity of AMPAR currents during high-frequency stimulation depends not only on...
AbstractBoth theoretical and experimental work have suggested that central neurons compensate for ch...
Plasticity models invoke the synaptic delivery of AMPARs, yet we know little about how receptors mov...
Among diverse factors regulating excitatory synaptic transmission, the abundance of postsynaptic glu...
Homeostatic synaptic scaling calibrates neuronal excitability by adjusting synaptic strengths during...
Summary: A major mechanism contributing to synaptic plasticity involves alterations in the number of...
The ability of neurons and circuits to maintain their excitability and activity levels within the ap...
Until now, the atomic details explaining why certain subunits prefer to coassemble has been lacking ...
SummaryGlutamate is the most abundant excitatory neurotransmitter in the brain, and distinct classes...
AbstractNeurotransmitter “spillover” between neighboring synapses challenges the principle of synaps...
AMPA-type glutamate receptors are known to play a critical role in both basal synaptic transmission ...