Lectures related to Membrane transport

Studies circular plates under loads, focusing on bending and membrane responses.

Explains the passive membrane model in computational neuroscience and its mathematical aspects.

Explores the structure and function of proteins, essential for life.

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

Explores the structure, function, and mechanisms of proteins, enzymes, motor proteins, transport proteins, and ion channels in cellular processes.

Covers osmosis and osmotic pressure, deriving Van't Hoff's law for practical applications in biological systems.

Covers colligative properties of solutions, osmosis, osmotic pressure, and liquid-liquid separation.

Discusses Ussing's model for epithelial transport and its experimental investigation.

Delves into the role of phase transitions in cell biology, focusing on stress granules, RNA impact, and stress adaptation mechanisms.

Explores membrane deformation modes, shape changes, and transport mechanisms in cells.

Explores Gaussian solutions for the diffusion equation, ecological models, and morphogen gradients in biological systems.

Covers the electrical properties of neurons, focusing on ion transport mechanisms and their role in generating electrical signals.

Explores cell wall structures, membrane proteins, transport mechanisms, motility, and chemotaxis in prokaryotic cells.

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

Explores potentiometric sensors, glass electrodes, ion-selective membranes, and ISFET sensors.

Covers membrane potential, its measurement, and the equations governing ionic movement in neurons.