Aerodynamics might not be the first thing you consider when looking at a car, but it’s a crucial aspect of automotive design – an invisible force that turns a vehicle from a simple machine into something exceptional.
At its core, automotive aerodynamic design seeks to minimise drag, the resistant force created when an object moves through air. It can also improve performance, handling and efficiency on the road.
Mercedes-Benz has long been at the forefront of vehicle aerodynamics, employing state-of-the-art wind tunnel testing and computational fluid dynamics (CFD) to better understand this important aspect of vehicle design. These advanced techniques allow engineers to visualise and manipulate airflow with unprecedented precision, creating vehicles that are not just aesthetically pleasing, but aerodynamically optimised.
For all-electric vehicles like the Mercedes-Benz EQS SUV, aerodynamic styling directly impacts efficiency and battery range. In performance models like the Mercedes-AMG GT 63 Coupé, it enhances handling, stability and high-speed performance.
Performance unleashed: Mercedes-AMG GT 63 Coupé
The AMG GT 63 Coupé represents our contemporary approach to aerodynamic design, using several groundbreaking technologies to optimise airflow and performance.
The AIRPANEL air control system regulates air intake through vertical slats and horizontal louvres hidden in the front apron, which ensure optimal cooling, reduce drag and provide more downforce at high speeds. When the slats are closed, they reduce the car’s air resistance and direct air towards the underbody, further reducing the front lift. An automatically operable rear spoiler adapts in real-time, providing additional downforce at higher speeds.
One of the AMG GT 63 Coupé’s most innovative features is its patented underbody element that leverages the ‘Venturi effect’ —a principle where narrowed spaces accelerate fluid flow. This ingenious design literally ‘sucks’ the car closer to the road in curves, dramatically improving stability and handling even at high speeds.