Ultrastructure of electrophysiologically-characterized synapses formed by serotonergic raphe neurons in culture
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Section V. Serotonin System
2005, International Review of NeurobiologyCitation Excerpt :Interactions between these two receptors modulate the excitability of NTS neurons both at the presynaptic and postsynaptic levels (Huang and Pickel, 2003). Single 5‐HT neurons in culture can release both 5‐HT and glu at the synapses they form with other neurons in the culture and may do so in vivo (Johnson and Yee, 1995). In rat cerebral cortex, 5‐HT modulates plasticity by regulating the density of AMPAR subtypes (R1 up; R2/3 down) (Shutoh et al., 2000).
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2002, Journal of Biological ChemistryCitation Excerpt :Glutamatergic co-transmission with classical transmitters may provide unique control of the synaptic response generated in the postsynaptic neuron. If VGLUT3 is expressed on small clear vesicles known to be present besides large dense core vesicles storing and releasing serotonin (69, 84, 85), classic transmission could be sequential rather than co-temporal depending on the frequency or intensity-dependent release properties of the two vesicle populations (86). Co-release from the same or different synaptic vesicles may provide co-temporal release with glutamate as the fast excitatory part and serotonin the postexcitatory “brake.”
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