article thumbnail

Wingtip Vortices and Wake Turbulence

Pilot Institute

By far the strongest component of wake turbulence is the swirling air generated at the tips of the aircrafts wings. Key Takeaways Wingtip vortices, not engine exhaust, create the strongest wake turbulence. Wake turbulence can cause severe roll and structural damage to smaller aircraft. This is called lift.

article thumbnail

Turbulence Shuts Down Engine On SAS A330

AV Web

Some boisterous turbulence turned into an emergency on Thursday for the crew of an SAS A330. Video shows passengers being lifted in their seats to the limits of their belts and service items hitting the ceiling. The post Turbulence Shuts Down Engine On SAS A330 appeared first on AVweb.

Insiders

Sign Up for our Newsletter

This site is protected by reCAPTCHA and the Google Privacy Policy and Terms of Service apply.

Trending Sources

article thumbnail

How to avoid wake turbulence from large airplanes (video tip)

Flight Training Central

A hazardous phenomenon that all pilots learn to avoid when operating at airports is wake turbulence. This invisible turbulence is caused by a pair of counterrotating vortices behind an airplane’s wingtips, generated whenever a wing develops lift.

article thumbnail

What is a Stall? – When Wings Stop Working

Pilot Institute

Stalls Cause a Loss of Lift A stall is not related to engine failure. This misunderstanding can lead to confusion and, in some cases, accidents, as some pilots concentrate on engine performance instead of addressing the actual problem, a loss of lift. Now, the wings have to produce more lift to support this weight.

Lift 98
article thumbnail

What Is a Flat Spin?

Pilot Institute

In this situation, the wings aren’t producing enough lift, and the aircraft essentially falls out of the sky while spinning. A stall occurs when the angle of attack (the angle between the wings and the airflow) becomes too high, causing the wings to lose lift.

article thumbnail

Turbulence

Air Facts

Turbulence Air Facts Journal Space is infinite in its complexity. And tampering our mental reserves with turbulent mischief. Turbulence is unpredictable. All three axis of an aircraft are subject to the vagaries of turbulence. Space is also infinite in its potential. And there in lurks the adventure.

article thumbnail

Learning Aeronautical Engineering From Historic Aircraft Designs

Vintage Aviation News

Studying historical aircraft helps students understand the development of flight and learn from early engineers about problems of lift, propulsion, stability, and material constraints. Often touted as the first successful powered aircraft, the Wright Flyer (1903) clearly shows lift, propulsion, and control.

Drag 52