Vehicle Body Stabilisation TRIZ Cases

A redirecting means guides airflow along the vehicle side to counter spray and dirt particles while maintaining engine cooling.

A straightening plate below the rear cowl directs airflow to reduce running resistance.

Nested articulated mechanism deploys aerodynamic elements while eliminating bulky sliding seals and environmental vulnerabilities.

An active rear airfoil arrangement moves to create adjustable flow passages across the vehicle liftgate.

Rotating flow rollers reduce air and water resistance, conserving fuel and lowering emissions in automotive applications.

Pivotable trapezoidal rocker arms adjust support roller positions dynamically, resolving static overdetermination and maintaining road grip during cornering.

Direct motor-to-wheel frictional engagement eliminates gear backlash, enabling larger wheels to maintain balance while traversing uneven terrain.

A segmented roof ledge reduces resonance noise by utilizing overlapping spoiler panels.

A retractable running board moves between stretched and retracted positions to balance vehicle access and ground clearance.

A dump vehicle safety system monitors forward wheel ground contact to prevent uncontrolled rotation during container tilting operations.

Relocating the antenna ground plane from the roof to the rear window resolves compatibility issues with composite body panels and sunroof openings.

Segmented spoiler apertures maintain lamp visibility while preventing fluid intrusion into the cabin during installation.

A two-part air guide device with a lever drive mechanism optimizes vehicle airflow at high speeds while preserving ground clearance at low speeds.

Pivotable trailer coupling mount extends behind adjustable air-guiding element to resolve aerodynamic interference and operational accessibility trade-off.

An air-guiding element uses a gearwheel transmission to drive longitudinal displacement of its carrier element.

Conductive sheets discharge static electricity via corona effects to eliminate airflow separation and improve aerodynamic stability.

Sensors detect parameters indicating likely vehicle lift, prompting the processor to adjust braking and torque to maintain stability.

Sensor-based geometric profiling determines trailer air resistance, resolving driving range inaccuracies caused by varying aerodynamic loads.

Integrating a charge air cooler into a rear spoiler directs horizontal ram air flow, eliminating pressure losses from separate air guides.

An airfoil design redirects airflow from under a vehicle upward to merge with upper flow, generating downforce.

Relocating the driving unit above the lower framework member shields it from road debris, resolving reliability trade-offs.

A retractable pliable undercarriage skirt reduces aerodynamic drag on vehicle trailers.

An active aerodynamic system detects road load and adjusts a movable member position to improve fuel economy without wind tunnel calibration.

A movable transverse aerodynamic member directs airflow downwardly to reduce drag while managing device complexity through dynamic deployment.

Longitudinal distribution of gear elements reduces vertical thickness, enabling faster blade deployment without increasing cavity volume.

A deflectable active air dam pivots on a spring-loaded mechanism to rebound after debris impact.

Resilient struts secure trailer skirts to varying I-beam dimensions by elastically buckling under impact forces to prevent permanent damage.