Lectures related to Stream function

Explores vorticity equations, advection-diffusion, solid body rotation, and Stokes formula in spherical geometry.

Explores the spatial development of shear flows and various flow instabilities, focusing on the Kelvin-Helmholtz instability and related phenomena.

Explores types of motion and deformation in fluid elements, velocity fields, rotation, vorticity, conservation of mass, and stream functions.

Discusses membrane deformation, flow in planes, and heat transfer by conduction.

Covers potential flows, doublet, cylinder surface, stagnation points, pressure calculations, and lift creation.

Explores Stokes formula in hydrodynamics, emphasizing flow along a sphere and boundary conditions.

Explores solving Navier-Stokes equations through approximations and special cases in fluid dynamics.

Explores Kelvin-Helmholtz and Rayleigh Taylor instabilities, kinematic conditions, linearized equations, and normal mode expansion.

Covers vorticity conservation, diffusion, potential flow, and vortex dynamics.

Introduces potential flows, stagnation points, superposition techniques, and flow around a cylinder.

Explores numerical simulation of fluid flow with Navier-Stokes equations, focusing on pressure role and divergence-free velocity fields.

Explores laminar and turbulent flows in developing a Formula Student race car rear wing.

Covers conservation of linear momentum, forces, equations of motion, and potential flow in fluid dynamics.

Explores 2D potential flows in fluid dynamics, focusing on stream function and velocity potential relationships and visualization techniques.

Discusses forces on solid objects in potential flow, including lift and drag calculations and the analysis of flow around 2D bodies.

Covers a numerical study on lab-scale latent heat energy storage and simulations of thermal energy storage.

Covers the fundamentals of 2D potential flows, focusing on streamlines and equipotential lines.