Race Vehicles TRIZ Cases

Movable overlapping radiators vary heat-exchange area by speed, maintaining cooling at low speed while reducing aerodynamic drag at high speed.

A variable cross-vehicle linkage switches spring constraint on or off, balancing wheel control, ride comfort, and race-mode handling.

Switchable active links let a cross-vehicle spring disengage for comfort or constrain wheel motion for race-oriented handling.

A cross-vehicle spring and active link switch between compliant and fixed modes to balance ride comfort, handling, and packaging limits.

A switchable active link changes cross-vehicle spring rate to balance wheel compliance for comfort mode and stiffer constraint for performance driving.

Tyre and vehicle sensor data identify lap-specific braking, steering, and throttle interventions to improve track driving without instructor coaching.

Defines a maximum recoverable phase envelope so vehicles can drift more aggressively while stability control intervenes only near unsafe states.

An uneven dual-tank layout around the engine cuts vehicle width while preserving fuel capacity and auxiliary component packaging.

Infrared tire temperature sensing is combined with racing metrics and live display feedback to guide steering and speed for faster laps.

Continuous feedback compares predicted and actual vehicle position to update steering, braking, and throttle for faster, more stable race-line tracking.

Biometric and driving data are used to model driver style, enabling vehicle setups and race strategies that better match comfort and lap-time needs.

Mechanical steering-wheel controls and a rotatable central screen improve lap-time visibility and operation without distracting the driver.

Real-time error feedback helps an autonomous race car detect instability, adjust control actions, and cut lap time without human input.

A rotatable dashboard support hides the display behind an aesthetic surface, preserving cabin styling while enabling a larger central screen.

A sear-and-trigger linkage with an industrial micro switch cuts transbrake release variability and improves drag racing reaction consistency.

Decision and execution zones let autonomous race cars pre-validate overtaking trajectories, reducing collision risk and timing delays.

A two-stage elastic suspension mount uses an intermediate body and series bushings to cut high-frequency cabin vibration in sports cars.

Roadway data and automated control of braking, propulsion, steering, and suspension cut travel time on raceways and private roads.

A flexible wheel membrane cuts bicycle drag while deforming in crosswinds to preserve stability and low rider energy use.

Real-time sensors and an optimization module detect control-execution errors and adjust autonomous race car commands for faster laps.

Mapped trajectory and velocity feedback let an autonomous race car coach drivers toward faster lap times while preserving human takeover for hazards.

Guide rods and dual dampers separate vertical and roll motion, keeping suspension damping consistent in both turning directions.

A pivoting dashboard display hides the screen behind a matching surface, preserving cabin aesthetics while showing content only when needed.

Dynamic camber links and reactive springing keep full tire contact, control roll, and reduce inside tire overheating in fast turns.

Automatic motor power correction compensates for driver weight and mechanical variation to keep race vehicles at a predetermined performance level.

An active rear inner wheel support presses the front wheels onto the road during acceleration, preventing lift without added weight or wheely bars.

Real-time suspension control lowers the vehicle center of gravity during cornering, braking, and acceleration to improve grip and stability.

Fiber-reinforced plastic cover caps shield protruding spoke nipples on bicycle rims, reducing air turbulence and drag while maintaining low weight.

Dynamic cable tension control resolves delayed accelerator response and unpleasant steering caused by rigid power limitation systems.

Nesting the second chamber inside the first reduces overall length below twice maximum travel, solving space constraints in low-profile vehicle suspensions.

A sports car suspension system uses a locking connecting rod to adjust effective arm length and alter vehicle geometry.