
The synaptic plasticity is a background for learning and memory. Identifiable synapses that are the synapses between individually identifiable neurons are a very convenient model for studying plasticity. Synapses between the interoceptive mechanosensory neurons and the command neurons of the withdrawal behavior were identified in the Helix lucorum brain. It was shown that synaptic plasticity estimated by the dynamics of the elementary postsynaptic potentials elicited by single presynaptic spikes differed from the synaptic plasticity estimated by the dynamics of compound synaptic responses of the same neurons to sensory stimulation. Habituation and heterosynaptic facilitation phenomena are discussed in terms of the dynamics of the elementary postsynaptic potentials.
Electrophysiology, Neurons, Neuronal Plasticity, Helix, Snails, Physical Stimulation, Synapses, Animals, In Vitro Techniques, Synaptic Transmission, Ganglia, Invertebrate
Electrophysiology, Neurons, Neuronal Plasticity, Helix, Snails, Physical Stimulation, Synapses, Animals, In Vitro Techniques, Synaptic Transmission, Ganglia, Invertebrate
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