Cycles TRIZ Cases

Directional beam shaping keeps V2X transmission and reception stable on a leaning vehicle during turns and across antenna mounting positions.

Independent in-wheel motors replace axles and differentials to cut ATV weight, improve traction, and increase ground clearance on rough terrain.

A seat-integrated socket and targeted rear wire harness deliver power to rear components while limiting added weight and complexity in muddy off-road use.

Symmetric spring and hydraulic dampers curb tilt-frame pendulum oscillation around vertical, improving high-speed driving stability.

A single lean actuator handles turning and rider boarding or exit, reducing actuator count and installation space while keeping the vehicle body stable.

A hand lever reorients rear caster wheels so a front-drive kart can induce and hold controlled drift through turns without a rear differential.

Real-time sensor fusion and haptic cues help power wheelchair users navigate safely while adapting control to changing abilities.

Independent left-right wheel control uses steering input feedback to tighten turns and prevent understeer or oversteer in mobility vehicles.

Mounting the ATV battery inside opposing frame rails lowers center of gravity, improves weight balance, and supports longer electric travel.

A closed jacket and externalized shock absorber packaging keep dirt away from the cylinder-piston coupling while improving wheel control and reducing weight.

Motor-driven chassis leaning aligns a three-wheel vehicle with turn forces to improve cornering stability and reduce wheel lift-off.

A structural battery housing frees dry storage space, improves frame stiffness, and secures charging access for urban electric motorcycles.

Telescopic front forks vary wheel spacing under lateral load, improving straight-line stability while preserving cornering ability in leaning vehicles.

A detection cancel area and lower-side sensor let facility mobility vehicles ignore user limbs and belongings while still detecting obstacles.

An elastic membrane coupling absorbs shaft misalignment in ATV steering, reducing heavy steering, wear, and safety risk.

A ball-joint steering coupling compensates for ATV shaft misalignment, easing steering effort and reducing wear from assembly errors.

A ball-joint steering linkage accommodates assembly misalignment, reducing wear at shaft fixing parts and keeping ATV steering smooth.

A dual transmission-wheel gear motor raises shaft friction to keep leaning vehicles stable while cutting lock size and component cost.

A cam-driven latch with spring-biased head enables tool-free off-road accessory mounting while increasing clamping force and reducing water ingress.