Lectures related to Biopotential Generation: Synaptic Transmission

Explores synaptic transmission, neurotransmitters, and neural plasticity principles.

Compares electrical and chemical synapses, emphasizing their properties and behavior, including the neuromuscular junction and synapses in the CNS.

Explores the structure and function of synapses, including neurotransmitter diversity and the role of AMPA and NMDA receptors.

Explores the differences between electrical and chemical synapses, synaptic plasticity, and receptor behavior.

Explores the modeling of synaptic potentials and the factors influencing their amplitude.

Explores neurotransmitters, fast synaptic transmission, ion channels, and synaptic structure in brain function.

Explores the role of synapses in computational neuroscience and the models of excitatory and inhibitory synapses.

Explores stochastic synaptic transmission modeling, parameters, inhibitory effects, and synaptic reliability.

Explores neural network simulation, activity dynamics, and validation processes to ensure accurate predictions.

Explores synaptic data analysis, mapping connections, and dynamics, emphasizing the variability in synaptic responses.

Explores major neurotransmitters, their effects, drug therapy, and receptor mechanisms in brain function.

Explores assembling in silico neuroscience networks, defining space, and dealing with sparse data to reconstruct brain regions.

Explores data strategies for building neural circuits in simulation neuroscience.

Covers the structure of a neuroscience course, focusing on cell membrane, ion channels, synaptic transmission, and brain function.

Series explores the biophysics of neurons and synapses, synaptic transmission, and brain function.

Explores the diffusive component of synaptic transmission and its impact on brain function.