Vehicle Body Stabilisation TRIZ Cases

See how EVA foam traction pads with protuberances resolve the grip-versus-comfort contradiction

See how a suspended harness assembly enables weight-shift control on a self-balancing vehicle,

Dual support from an actuator and stopper holds the vehicle air flap steady, cutting wind-driven vibration, noise, and drag.

A tilting spoiler cover and vertically deployable trunk assembly improve aerodynamics while preserving luggage access in short-rear convertible designs.

Adjustable sensor sleds and real-time mapping help inspect hazardous industrial surfaces with complete coverage and less manual exposure.

A retractable spoiler with integrated lighting resolves rear lamp interference while reducing drag through mode-based air-current adjustment.

A movable aerofoil on a vehicle side mirror changes angle of attack to guide airflow, cut turbulence, and reduce drag.

Separate short- and long-term models predict steering and longitudinal motion to trigger early alerts and preventive action for yaw instability.

An aerodynamic body splits wheel-cavity airflow into guided passages to cut turbulence and drag while supporting brake cooling.

A rotatable aerofoil on the side mirror adapts its angle of attack to guide airflow, reduce turbulence, and lower drag.

A lowered roof center with raised side sections cuts drag and wind noise while preserving luggage space and a high seating position.

A winding unit deploys the vehicle air skirt longitudinally to avoid bumper collisions, speed actuation, and improve aerodynamic efficiency.

A controller detects out-of-phase driver and aero-actuator inputs, then adjusts downforce to improve traction, acceleration, and braking.

Multiple bumper air channels converge flow toward the wheel exterior, cutting tire turbulence and front-end aerodynamic drag.

A two-piece non-rotating wheel cover cuts aerodynamic drag while allowing quick axle hub oil checks and adding theft resistance.

A rotatable wheel arch flap redirects front-side airflow around pickup tires to preserve bold styling while improving aerodynamics and fuel efficiency.

Encounter-time prediction guides vehicle overtaking by adjusting speed and powertrain control to avoid unsafe passes and traffic backup.

Sensors and actuators shift the vehicle battery to rebalance weight distribution, improving traction and stability across changing terrain.

A retractable spoiler-lamp assembly cuts drag while preserving rear lighting functions and avoiding interference with rear lamp packaging.

A front and rear duct in the rear pillar and side spoiler redirects side airflow rearward to cut drag and reduce wing-like portion load.

A vertical door-edge trim with rear electrostatic tape improves window-area styling while reducing static-induced airflow separation.

A movable air dam doubles as an automatic step when the front hood opens, improving front compartment access without sacrificing aerodynamics.

An elastic front air guide uses airflow-driven deformation to add downforce at speed while preserving ground clearance for everyday driving.

A top module and biasing members shift load onto driven wheels, improving mobile robot traction and stability under heavy loads.

Fused feedforward and feedback control uses sensor data and aerodynamic actuators to adjust tire grip for stable handling with lower drag.

A movable rear-side strip shifts with lateral acceleration to attract airflow in turns while avoiding rearward aerodynamic center shift in straight travel.

A chassis-mounted thruster boosts tire normal force on demand, improving traction without adding vehicle mass or relying on speed.

Retractable rear bumper diffusers combine tilting and sliding motion under one driver to improve airflow control, stability, and design freedom.

A pivoting rear diffuser covers the tow coupling at rest and enables vertical deployment, cutting rear turbulence and simplifying operation.

Different wheel radii and a movable battery pack cut axial friction losses, improve stability, and extend EV travel per unit energy.

Pressure-controlled elastic bladders reshape a vehicle outer surface to balance drag, lift, downforce, and handling across driving conditions.

A controller checks lane traffic direction, overtake timing, and speed conditions to execute safer passing without traffic backups.

A movable flap and link mechanism adjusts underbody airflow by travel state, improving aerodynamics while avoiding road-contact damage.

A dual rotational and limiting mechanism lets a vehicle flow deflector retract under external force while reducing disengagement load, rattling, and drag.

Exhaust jet reaction force is directed during turns to offset centrifugal load and improve motorcycle stability on curved roads.

A hub-carrier-fixed split fairing covers the tyre to cut wheel drag while preserving downforce for higher-speed electric vehicle travel.

Real-time coordination of the rear wing, grille, air dam, and diffuser cuts drag, improves stability, and supports heat dissipation.

A linked rear lamp and spoiler use rail-guided motion and light patterns to improve night visibility while reducing drag and supporting driving range.

A shared drive link moves the air skirt and lamp selectively, improving vehicle aerodynamics, fuel efficiency, and driving stability.

A movable rear lamp and spoiler assembly improves night visibility while adjusting tilt and position to reduce drag across driving modes.

Upward ducted airflow disrupts rearward wake air so lower-energy interior air can exit more easily, improving vehicle cooling.

A movable tailgate trailing edge follows a curved path to cut aerodynamic drag and improve road holding without increasing vehicle length.

Upward outlet airflow disrupts rearward flow at a second outlet, helping low-energy interior air escape and preventing component overheating.

A clutch link lets the drive shaft over-rotate after a set angle to offset flap twist, seal gaps, and reduce aerodynamic loss.

A movable battery shifts its center of mass during left and right turns to cut tilt angle and improve electric two-wheeler stability.

A link and loader mechanism holds the vehicle air flap closed against high-speed wind, cutting drag and protecting the driving unit from overload.

An inflatable plenum skirt uses actuators and compressor control to hold a precise road gap, boosting tire adhesion while reducing skirt damage risk.

Mounting the spoiler drive on a beam connecting plate protects it from rear impact loads and helps block foreign object intrusion.

A link-guided wire harness layout lets a movable spoiler unfold without wiring interference while maintaining stable electrical connection.

Paired wheel units tilt about a virtual axis to keep four-point ground contact, improving mobile robot balance and grip without costly suspension.

An obliquely mounted air skirt deploys forward under the bumper cover to block underbody airflow more effectively than vertical designs.

Movable racks on floor guide rails let commercial vehicles rebalance cargo laterally, use storage space better, and reduce handling issues.

Guide-hole actuation enables sequential or simultaneous vehicle grille flap motion while reducing linkage complexity, weight, and jams.

A detachable cover shields the EV jack-up flange or pad to preserve underbody aerodynamics, protect the battery, and allow easy lifting.

A roof-mounted movable deflector shields vehicle LiDAR or camera sensors from rain and debris while lowering drag when protection is not needed.

Integrated lighting in a movable aerodynamic component preserves driver view, supports drag and downforce control, and uses a flexible supply line.

Position-aware robotic sensing maps industrial surfaces with laser and ultrasonic data, improving coverage in hazardous inspections.

A single motor coordinates grille flaps and wheel deflectors to cut aerodynamic losses while preserving obstacle clearance.

An active air dam notification system provides audible and tactile alerts to signal component transitions between raised and lowered positions.