Lectures related to Boomerang: Theoretical and Practical Design

Covers a viscosity experiment using a falling sphere viscometer to determine fluid viscosity and understand the forces involved.

Explores the Magnus effect, lift force, and iterative solutions in digital physics.

Explores Bernoulli's equation, viscosity effects, shear stress, Poiseuille's law, Reynolds number, flow types, and lift/drag forces.

Explores viscous fluid dynamics, including drag force, lift force, turbulence, viscosity, and the Magnus effect.

Explores fluid instabilities, focusing on Rayleigh-Benard analysis and key concepts like buoyancy and temperature gradients.

Explores the design of a frontwing for an electric race car to enhance performance through aerodynamics.

Explores lift and drag forces, supersonic flow, and wave drag in Prandtl-Meyer flows.

Introduces mechanics, differential and vector calculus, and historical perspectives from Aristotle to Newton.

Covers the foundations of fluid mechanics, focusing on flow problem descriptions and solutions.

Covers the analysis of drag on a sphere in Newtonian fluid mechanics, focusing on key parameters and the significance of Reynolds number.

Explores sailboat keel design and its impact on performance, emphasizing the importance of reducing induced drag.

Explores orbit insertion, losses during ascent, shuttle missions, re-entry, and final approach.

Explores solid and air friction, viscosity, and frictional forces in Physics 1.

Covers the importance of boundary layers, viscosity effects on drag and lift.

Covers 2D potential flows, lift, drag, and motivation in Fluid Mechanics.

Explores boundary layer concepts, viscosity impact, drag and lift forces, and dimensional pipe flow analysis.

Covers the theory behind sailing and practical applications for sailboat performance optimization.

Explores 3D elasticity, beam bending, and buckling phenomena in slender structures.