Tech & Explained

No clutch pedal, no H-pattern, no synchromesh — just dog rings and a paddle. Here is how sequential gearboxes let racing cars change gear in a few thousandths of a second.

MGU-H is gone, MGU-K output has nearly tripled, and drivers now have a manual override button instead of DRS. Here is how F1’s 2026 hybrid power units actually work.

Before a race car ever turns a wheel, its shape has already been tested thousands of times in wind tunnels and simulations. Here is how that process works.

Springs support the car’s weight, but dampers control how it moves. Here is what suspension dampers actually do and why tuning them is so difficult.

Grip, degradation, graining, blistering — racing tire compounds are a science of their own. Here is what actually determines how a tire performs and wears.

Turbo lag, throttle response, power delivery, sound — the turbo vs naturally aspirated debate comes down to real engineering trade-offs. Here they are.

Carbon-ceramic brakes cost far more than steel ones for a reason. Here is how they actually work, and why racing and high-performance cars rely on them.

How F1 cars are built is one of the most fascinating questions in all of motorsport. A Formula 1 car is not assembled. It is grown — component by component, layer by layer, with a level of precision that makes aerospace engineering look casual. Every part is designed, manufactured, tested, and refined in a cycle

Oversteer vs understeer explained — two terms you’ll hear in every motorsport broadcast, every car review, and every track day debrief. But what do they actually mean? If you’ve ever watched an F1 car slide sideways out of a corner, or seen a front-wheel-drive hatchback plow straight on when the driver turns in — you’ve