Lectures related to Surface Tension: Cohesive and Adhesion Forces

Explores the production of ceramic pastes, dispersion, wetting, surface tension, and the lotus leaf effect.

Explores surface tension, adhesion, cohesion, intermolecular forces, and the Young equation in relation to various materials and liquids.

Explores surface tension's microscopic interpretation and its impact on creating interfaces between immiscible fluids.

Explores wettability, force balance, wetting behavior, and capillary length in liquids.

Covers the fundamentals of surface tension, adhesion forces, and laser manufacturing technologies.

Explores electrostatic and van der Waals forces, adhesion in geckos, and methods to prevent stiction in microsystems.

Covers intermolecular potentials, surface forces, surface tension, and hydrophobic surfaces in liquids.

Explores adsorption, isotherms, and surface tension phenomena in nanoscale materials.

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

Explores surface tension, contact angle, wetting phenomena, and nanoparticle behaviors at different scales.

Explores fluid mechanics, emphasizing hydrodynamics and surface tension in various fluid systems and practical applications.

Covers mechanical joints, focusing on snap fits and adhesive bonding principles.

Explores intermolecular forces, surface tension, liquid films, and soap bubble behavior.

Explores polymer collapse, emphasizing covolume and free energy in the process.

Covers the principles of fluid mechanics, focusing on hydrodynamics and forces in liquids.

Covers electrons in periodic potential, band structure, intermolecular forces, and Van der Waals interactions in nanotechnology and surface science.

Explores surface energy, crystal growth, adhesion, and nucleation theories in thermodynamics and materials science.

Covers kinetic energy of gases, pressure, fluid mechanics, thermal properties, heat transfer, dilatation, and energy transfer.

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