Lectures related to Inhibitory synaptic conductances

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

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

Explores the cellular mechanisms of GABAergic inhibition in the brain and the role of GABA receptors.

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

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

Explores the modeling of neuron electrical activity, including ion channels and concentrations, Nernst equation, and resting potential.

Covers modern neuroscience synthesis, biophysical modeling, and brain building blocks with practical applications.

Explores cellular mechanisms of excitatory postsynaptic potentials, emphasizing synaptic summation for action potential threshold.

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

Explores the engineering of neurons using light, chemicals, and sound to modulate neural activity and behavior.

Introduces nerve cells' electrical activity, focusing on spikes and synaptic potentials.

Explores Rall's cable model, synaptic potential spread in dendrites, and compartmental modeling for neural simulations.

Covers the terminology, generation, and conduction of action potentials in neuronal signaling, along with bioelectric signals and synaptic currents.