Electronically adjustable ribbon side skirts block lateral airflow under road cars, preserving downforce while avoiding drag, damage, and clearance issues.
Elastic bodywork panels replace hinged aero parts, enabling continuous shape change without interrupting the vehicle profile.
Electronically adjustable side skirts preserve underbody downforce while avoiding road damage and meeting ground-clearance limits.
Dynamically adjustable side skirts preserve underbody downforce, avoid road-impact damage, and meet ground-clearance rules with low drag.
Vertically adjustable underbody skirts balance downforce and drag while avoiding road impacts and meeting ground-clearance limits.
Hydraulic ride-height and angle actuators coordinate underbody aero deployment without extra sensors, preserving stow position across comfort and sport modes.
Raisable sidewall panels let a truck bed cover shift from flat to angled, improving aerodynamics without blocking cargo box use.
Accelerated airflow from a passive duct disrupts the front-wheel boundary layer, cutting wheel drag without adding deflector surfaces.
Actuated canards rotate to discrete angles based on vehicle conditions, balancing drag reduction with real-time stability control.
A speed-actuated spare tire shifts between stowed and deployed positions to improve underbody airflow, wake closure, and vehicle range.
A variable support and spring-clutch mechanism lets a vehicle spat retreat under external force, reducing impact damage without losing aerodynamic function.
Movable linked air-guiding elements let vehicles tune drag and downforce across driving modes without separate aerodynamic assemblies.
Linked movable air-guiding elements tune drag and downforce across driving scenarios while reducing weight and fuel consumption.
Rotatable segmented side spoilers adjust to road and driving conditions to cut drag, preserve ground clearance, and avoid damage.
Coordinated control of grille shutters and movable aero units maintains tire contact pressure and lift balance for steadier vehicle handling.
Compressed-air channels deform a vehicle air deflector, while an internal stiffening member resists airflow and impacts with lower deployment power.
Alternating edge elevations and depressions guide airflow around the wheel to cut turbulence, wheel-arch drag, and fuel use.
Guided airflow through aligned fender and duct vanes lowers wheel-house pressure to raise downforce while redirecting pebbles and reducing noise.