To understand why no production car has ever hit 300 mph, we need to understand aerodynamic drag, rolling resistance, cooling systems, parasitic losses, and tires. This video does not make you a master on any of these subject, but hey, it is interesting. | Engineering Explained

🏎️🏁Why F1 Drivers React in Milliseconds! | Explained Scientifically" | Let's Make Education Simple

Gyroscopes counteract shifts in orientation, making them highly effective for stabilizing boats. When waves cause a vessel to roll, the rapidly spinning rotor inside the gyroscope produces torque that resists the motion. This reaction, called gyroscopic precession, occurs at a right angle to the tilt, helping to minimize rolling. In today’s marine technology, sophisticated control systems fine-tune rotor speed on the fly, optimizing stability and keeping vessels steady even in turbulent waters.

The stigma that lowered cars don’t drive well is debunked by the following ITC racing footage with Alfa Romeo 155s and Mercedes C Classes throwing sparks like a light show. ITC, often mistaken for DTM, ran from 1995 to 1996 and featured the Alfa 155 V6 Ti and Mercedes C Class. With lower setups and wilder aero than DTM, the cars looked like UFOs and delivered some of the most spectacular touring car battles ever. | Patina Research

Argument in drive thru #reaction | Rambling Reactions