Biological Electricity: Action Potential Propagation and Modeling

Related lectures (32)

Explores cellular mechanisms of brain function, focusing on ion channels and action potentials.

Explains the mechanisms of action potentials and their propagation in neurons, focusing on ion channels and the role of myelination.

Covers the Hodgkin and Huxley model for ion conductance and the ionic basis of the action potential.

Covers the role of ion channels in biological processes, from bacterial resistance to neuronal signaling and pain modulation.

Explores membrane equilibrium potential, circuit models, graded response, and nervous system organization.

Explores the cellular mechanisms of brain function through voltage-gated ion channels and their role in regulating membrane potential.

Explores the dynamics of membrane potential in neurons and the cable equation at steady state.

Explores the Hodgkin & Huxley model, focusing on spike dynamics and membrane currents in excitable cells.

Explores the optimization of neuroprosthetic systems, including sensory feedback restoration and neural stimulation strategies.

Explores in vivo electrophysiology techniques for studying brain function through extracellular potentials and whole-cell recordings.

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

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