When Air Stops Following the Wing – Flow Separation Explained

How do engineers know if a computer simulation or wind tunnel test is actually accurate?In this episode of Aerodynamics Explained, we look at the limits of CFD and wind tunnels, why scale and Mach number matter, how engineers validate simulations, and why real flight testing is still necessary.From Reynolds number to supersonic testing, this episode explores how engineers try to recreate real flight before an aircraft ever takes off.

In this episode of Aerodynamics Explained, we explore flow separation: the moment airflow stops following a wing's surface.We'll examine why it happens, how it affects lift and drag, and why it lies at the heart of aerodynamic stalls.

This episode marks the start of Season 2 of Aerodynamics Explained.We explore the boundary layer: a thin, invisible layer of air that controls drag, efficiency, and even whether a wing stalls.Though it’s easy to miss, this tiny detail plays a massive role in how aircraft fly and why modern airplanes are so safe.

Most people think a stall means the engines shut down, but that’s not true at all.In this season finale, we will break down the real reason wings lose lift, how pilots can sense a stall before it happens, and why a stall is actually a limit, not a failure.A simple, surprising look at one of aviation’s most misunderstood dangers, and a perfect ending to Season 1 of Aerodynamics Explained.

Planes without fuel? Planes without pilots? In this episode of Aerodynamics Explained, we will explore the rise of electric aircraft and the push toward self-flying planes. From the first battery-powered test flights to cargo drones that fly themselves, we’ll look at how close we really are to a future of cleaner, smarter aviation, and what challenges still stand in the way.

Turbulence is the part of flying that makes passengers most nervous — those sudden bumps, rattles, and drops. But what’s really happening when the plane shakes? In this episode, we will break down the different types of turbulence, why planes are built to handle it, and why pilots treat it as a routine part of flying. It feels scary, but turbulence is much safer than most people realize.

The weather is one of the biggest factors in aviation. From headwinds that slow you down to tailwinds that help you fly faster, storms that cause turbulence, and even hot days that make it harder to take off, the sky is always influencing how planes perform. In this episode, we break down how wind, temperature, storms, and icing affect flight, and why pilots train constantly to handle whatever the atmosphere throws their way.

What is the sound barrier, and what happens when you break it? In this episode, we explore the physics behind shockwaves, sonic booms, and the first supersonic flight.

Step inside the wind tunnel — the place where flight gets tested before takeoff. In this episode, we explore how engineers use controlled air to shape planes, cars, and more.

Why does a soccer ball curve mid-air? How does topspin make a tennis ball dive? What makes a baseball pitch float, drop, or dance?In this episode, we dive into the aerodynamic tricks behind your favorite sports. From the Magnus effect to golf ball dimples — it’s all physics, and it’s everywhere.