Explores the physics of condensation, covering nucleation, droplet formation, heat transfer, and droplet footprint distribution.
Covers the fundamentals of boiling, including heat transfer mechanisms and complexities of the boiling phenomenon.
Covers the fundamentals of heat transfer, focusing on radiation, conduction, and convection, including boundary layers and Nusselt number.
Explores pool boiling fundamentals, including heat transfer mechanisms, boiling regimes, and critical heat flux.
Explores the fundamentals of heat transfer, including radiation, convection, and conduction, emphasizing boundary layers and Nusselt numbers.
Covers the fundamentals of heat transfer, including radiative properties, boundary layer theory, and Prandtl number.
Explores the historical development and instabilities in flow boiling, including heat transfer mechanisms and flow patterns in microchannels.
Explores evaporation physics, covering contact angles, wetting states, diffusion, Fick's Law, and heat-mass transfer analogy.
Covers heat transfer through conduction and convection, focusing on energy carriers and fluid motion.
Explores the fundamentals of heat transfer, including radiation properties, energy conservation, and thermal conductivity, covering conduction, convection, and participating media.
Covers the fundamentals of heat transfer processes, including convection, conduction, and radiation.
Explores heat conduction in solids, covering energy carriers, transient conduction, and effective conductivity in heterogeneous media.
Explores pool boiling heat transfer, covering differences between boiling and evaporation, boiling heat transfer coefficient, various boiling regimes, and transition boiling stability.
Explores internal forced convection, covering correlations, laminar and turbulent flow, and practical exercises using Jupyter Notebooks.
Explores pool boiling regimes, convective heat transfer, and homogeneous equilibrated models in heat transfer studies.
