Vehicle Body Stabilisation TRIZ Cases

Radial folding of a motorized deflector adjusts tire alignment against bumper curvature, improving aerodynamic drag by 20 percent.

Integrating the spoiler into the body panel eliminates discrete edge disruptions that increase drag while maintaining adjustable aerodynamic effects.

A side sill protrusion and plate-shaped tire deflector redirect vehicle-side airflow outwardly to prevent wheel house entry.

An adaptive aerofin on a vehicle undercover retracts to prevent damage from road irregularities while protruding to reduce drag during high-speed travel.

A movable air guide element extends along a vehicle body to direct airflow while a protection element closes the structural gap between components.

Dynamic support block translates and rotates to prevent gaps between the second skirt and control unit, preserving headwind blocking performance.

Four-bar kinematic linkages replace linear actuators to articulate liftgate spoilers, reducing package space and component wear.

Airflow duct channels fascia air to exit orthogonal to the underbody section, guiding flow around deflectors.

An integral hinge connects two air duct segments into one molded part, eliminating separate connections to lower production and assembly costs.

Replacing metallic panels with gas-filled chambers reduces vehicle weight and fuel consumption while absorbing impact shocks during collisions.

A front spoiler flow guide uses a detent coupling to enable controlled deviation upon impact.

Inelastic magnetic holder decouples from the spring to lock the spoiler lip, eliminating aerodynamic noise and preventing plastic deformation.

Sensors detect instability and lock the articulation joint to prevent rollover while allowing rear section tipping.

A vehicle rear bottom cover directs airflow outward and downward through a dedicated air outlet.

Circumferential grooves and ridges on the shaft interface replace complex flange bearings, reducing volume while supporting axial and radial forces.

Feedforward signals from driver inputs regulate active aerodynamic elements to increase downforce without adding drag.

Movable doors in a deployable air dam route airflow through NACA ducts to cool under-hood components while maintaining drag reduction.

A suspension bladder pumps fluid to adjust vehicle ride height using passive hydraulic forces.

A pivoting spoiler device dynamically adjusts its position to optimize vehicle airflow under varying environmental conditions.

Positioning a resonant membrane at half-wavelength intervals absorbs high-frequency rolling noise without compromising tire adhesion.

Segmented shaft end supports enable independent airfoil rotation, resolving rigidity versus repair complexity while enhancing vehicle stability.

A vortex generator converts airflow into a protective stream that clings to the vehicle side.

Rotatable airflow deflector uses independent magnetic sensing to track position without relying on the driving motor.

A deployable aerodynamic element uses an elastic sheeting system to expand its surface area for improved vehicle drag reduction.

Elastic fixing hook secures rear spoiler to muffler, reducing flow loss and turbulence between components.

A motorized toy vehicle uses battery-powered fans to draw air through a shaped duct, creating high-velocity flow for wall adhesion.

Multi-layered flexible closure device stretches to seal gaps in vehicle air-guiding systems.

A reversibly deformable coupling member displaces a wheel spoiler between active and inactive positions.

Retrofit air suspension kit adjusts trailer stiffness via inflatable bladders, preventing vibration-induced loosening of axle connections.

A vehicle body panel positioning structure integrates clamping seats and position-limiting ribs to align outer and inner panels during assembly.

Aerodynamic elements generate vortices to increase downforce on a vehicle rear spoiler.

Segmented rear gate surfaces resolve the conflict between driver visibility and air resistance by stabilizing flow separation without adding a spoiler.

A master actuator controls energy supply to remote units for synchronized motion.

A vehicle air dam control system dynamically adjusts deployment position using real-time sensor data to optimize aerodynamic airflow.

Negatively charged ionizing material reduces positive potential at vehicle separation points to maintain airflow attachment.

Fixing pneumatic supply lines to the carrier prevents damage during final assembly, ensuring reliable actuation of front spoilers.

Adjustable rear diffusers and spoilers optimize airflow configurations to resolve fuel efficiency versus downforce trade-offs.

Adjustable air-guiding elements dynamically shift the dividing ratio between wing underflow and charge air cooling to resolve downforce trade-offs.

Mechanical decoupling prevents partial vacuum formation in traction cylinders, extending seal service life and reducing hydraulic system overhaul frequency.

Dynamic aerodynamic device adjusts position to minimize drag under crosswind conditions, improving vehicle energy efficiency.

A rear-mounted strake with a displacement part guides airflow near tires to minimize drag.

Automated actuators reposition weights to optimize traction force without stopping the vehicle, eliminating manual counterweight adjustments.

Repositionable frames with jacks wedge under trailers to distribute weight and prevent tipping during cargo operations.

Front bumper with flow-straightening protrusions restricts turbulent airflows around front wheels to enhance vehicle stability.

A weight distribution assembly with adjustable preload mechanisms connects caster assemblies to the vehicle frame.

A rear spoiler system uses a variable shutter to adjust opening area based on vehicle speed.

A variable spoiler device adjusts protrusion length via a link mechanism to maintain aerodynamic performance.

Dynamic fascia splitter resolves lift versus damage trade-off by retracting during jounce to prevent impact while extending for cornering force.