Lectures in course CH-341: Physical chemistry of interfaces

Covers the basics of interfacial chemistry, including emulsions, surface tension, and the importance of interfaces in various applications.

Covers forces, pressure, and curvature at the gas-liquid interface, including vapor pressure, wetting, and surface tension measurements.

Explores the electric double layer around charged surfaces in solution and its theoretical models.

Covers the fundamentals of gas-liquid interfaces, including surface tension and capillary action.

Explains the electric double layer on charged surfaces in solution, focusing on the Helmholtz model and its limitations.

Delves into the fundamentals of interfacial chemistry, covering topics such as the Gibbs dividing plane and surface excess quantities.

Explores electrokinetic phenomena, including colloidal particle motion and the diffuse double layer model in chemical separations.

Explores the DLVO theory and membrane potential to understand colloid stability and forces between charged surfaces.

Explores the Gibbs model of interfaces and micelle formation in surfactant solutions.

Explains the electrical potential difference across cell membranes and the excitation of neurons.

Covers adsorption at gas/solid interface, including physisorption, chemisorption, and Xenon atom manipulation using STM.

Explores chemisorption, catalysis, and adsorption on solid surfaces, including energy differences and bond formation.

Explores dynamic electrochemistry, emphasizing charge transfer processes and interfacial reactions in solutions.

Explores the Butler-Volmer equation and its role in electrochemistry applications.

Covers Langmuir, Fowler-Guggenheim, and BET adsorption isotherms, capillary condensation, and chemisorption concepts.

Explores adsorption at the gas/solid interface, focusing on molecular beam techniques and chemisorption processes.

Explores the Cottrell equation and voltammetry methods in electrochemistry.

Explores surface tension, contact angles, and interfacial forces in drops on different surfaces.

Explores electrochemical processes, including sedimentation current and surface tension work, with a focus on theory and applications.

Covers surface tension, adsorption, and electrokinetics, including gas/liquid interface, Langmuir isotherm, and electro-osmosis.