Steering Device TRIZ Cases

A rear handlebar assembly positions a crossbar behind the seat to support rider arms, reducing neck and back strain during upright exercise.

An additional handlebar grip with flattened surfaces sits between the main grip and fitting to resolve unused space and provide ergonomic wrist support.

A tubular axis connection system uses a clamping screw with a central cylindrical section to align and secure a handlebar clamp.

A processor estimates steering torque using bank angle changes and front wheel rotational speed data.

Segmented clamping shell webs enable a holder to attach accessories centrally, overcoming handlebar obstruction.

Rotating bracket ends resolve the contradiction between structural simplicity and adaptability, ensuring comfortable riding posture as children grow.

A bicycle handlebar integrates form memory gel into recesses to dampen impacts and attenuate manual forces.

Multiple parallel rods with spring-loaded bearings adjust handlebar height without altering the steering angle, reducing wear on locking surfaces.

A cycle suspension assembly uses gas pistons with unequal areas to balance force distribution across the steering fork arms.

Integrating the display unit into the stem reduces assembly weight and clutter.

An inclined rotatable front wheel axle allows a scooter to steer by shifting the center of gravity, removing the need for manual handle operation.

Tiltable portable terminal holder adjusts meter unit inclination to block sunlight glare while foldable handle posts enable compact storage.

Relocating dimension control to the seal member simplifies head pipe manufacturing while maintaining effective sealing.

A scooter uses rounded wheels and forward-facing pedals to let riders shift their center of gravity for self-propulsion.

Hinged concaved frame segments fold to reduce bulk, enabling convenient urban handling and storage.

An auxiliary handle assembly uses clamps and positioning units to mount an extension grip securely on exercise bike handlebars.

Segmented damping mechanism absorbs transverse shocks and vibrations through linear handlebar movement within an oblong bore, reducing rider fatigue.

Continuous fiber laminates extend through the crown to resolve strength versus weight contradictions while eliminating metal component complexity.

A bicycle front fork uses a linkage assembly to move lower legs relative to upper legs for shock absorption.

A cycle wheel suspension assembly uses unequal gas piston areas to balance force outputs across a multi-bar linkage configuration.

A bicycle stem houses a power storage device within its body using nested apertures for electrical connections and device access.

An adaptive steering damper adjusts damping force to counteract steering torque disturbances during curve negotiation.

Sliding blocks transfer rotary motion to cranks via guide rods, resolving structural complexity and maintenance costs in elliptical velocipedes.

Rotatable fork legs extend vertically from the steering column to support split couplers, eliminating heavy high-rise handle bars while maintaining rigidity.

A folding electric bicycle design shortens the wheelbase using a greater head tube angle and reduced fork offset to achieve compact storage.

Elastic components absorb road vibrations between the handlebar and stem, reducing rider discomfort from hard material transmission.

Segmented fork legs and a detachable brace allow precise alignment, reducing friction caused by residual stress in cast components.

Forward extended fork legs provide clearance for rider knees and legs by positioning top portions ahead of the steering column axis.

A scooter folding mechanism uses a lever-operated locking clamp and sliding sleeve to secure the steering tube.

A bicycle handle grip integrates exposed electrodes and an electronic module to measure user body composition via bioelectrical impedance analysis.

A rotatable front guiding element adjusts to motorcycle fork steering angles while maintaining rigid rear attachment.