Cycle Springs TRIZ Cases

Low-power wireless switching with periodic wake-up and energy harvesting cuts vehicle wiring while enabling remote control of active valves and actuators.

Sensors and solenoid valves adapt suspension damping to terrain in real time, improving ride comfort while preventing rim, frame, and damper damage.

A trailing-link dual-sided front suspension replaces telescopic forks to cut stiction, preserve wheel clearance, and increase trail during compression.

Dual rebound circuits housed in the shock shaft enable manual or electronic damping adjustment without rebuilding internal valving.

A Roberts four-bar linkage keeps the front wheel axis moving nearly straight, avoiding transverse sliding and skipping in saddle-riding vehicles.

Sensor-driven damping shifts between low, intermediate, and high states to match pedaling, vibration, and pitch changes without manual tuning.

A flexible cover shields the seat height rotation link from dust, dirt, and water while adapting to vertical seat movement.

A smartphone app swaps terrain-specific active valve suspension tunes while sensor feedback keeps damping within safe ranges.

Three hub-driven wheels, independent suspension, and passive tilting improve stability on uneven roads without demanding rider balance.

An elastic annular gap and thermally matched materials keep hydraulic shock absorber damping more consistent under load, speed, and temperature changes.

Real-time sensor input shifts bicycle suspension between damping states to absorb shocks and reduce power loss during pedaling.

A crown air chamber adds fork spring volume without lengthening the upper tube, enabling on-the-fly suspension tuning for changing riding conditions.

A single mount block combines the tank and compressor to cut installation space, machining steps, and part count in motorcycle air suspension.

A trailing-link front suspension uses dual-sided arms and linkage geometry to cut fork stiction while maintaining trail and braking stability.

Curved elastic members interlocked between the rim and multi-layer hub absorb shocks and vibrations while cutting wheel weight and complexity.

A shared floating bracket mounts the ABS unit and inertial sensor to suppress frame vibration, improve layout flexibility, and cut parts.

A high-mounted rear shock absorber uses the drive source as the upper mount to absorb stronger impacts and avoid ground obstacles.

Automatic venting and retaining elements depressurize a bicycle fork air spring during disassembly to prevent dangerous part ejection.

An elastic member mounted through existing holes uses arm-member flexure to suppress vibration in a non-fastened motorcycle part.

A vent port and seal gap let the pressure chamber self-depressurize before sealhead removal, preventing part ejection during service.

A low-cracking-pressure bypass valve opens early in compression, reducing stick-slip and improving high-frequency vibration damping.

A variable cylinder gap shifts damping from velocity-based to displacement-based, preserving central spring motion and improving ride comfort.

Offset pivot levers let a motorcycle leaf spring suspension save installation space, preserve ground clearance, and improve durability.

Independent flow control elements and bypass adjustment let one fork switch between lockout, firm, and soft compression damping for varied terrain.

A piston-guided valve switches fluid injection and evacuation to set bicycle suspension preload quickly and accurately by rider weight.

A hydraulic-gas spring linkage varies connecting rod length on the fly to adjust wheel attitude, ride height, comfort, and road grip.

A tuned counterweight and spring assembly helps front fork suspension absorb bumps, improving bike handling and rider comfort on rough terrain.

Elastomeric isolators decouple fork tube movement from seal friction, absorbing impacts faster and cutting high-frequency handlebar vibration.

Adjustable spacers shorten shock stroke without rebleeding, helping tune ride height, firmness, and handling for different rider weights.

Unequal gas piston areas in a trailing link cycle suspension increase mechanical trail during compression, reducing stiction and improving handling.

A motorized flow control member replaces manual cables, enabling instant wireless damping adjustment while riding with less bulk and damage risk.

A slidable piston and shaft in a bicycle air spring absorb shocks before breakaway force, reducing handlebar vibration and rider discomfort.

A piston-controlled fluid path sets bicycle suspension preload to rider weight quickly and precisely without repeated air pump trial and error.

A removable shock travel spacer adjusts stroke length for different rider weights while preserving ride height, steering geometry, and fitment.

A tuned counterweight, spring, and guide assembly stabilizes bike front fork suspension to reduce oscillations, rider fatigue, and rough-terrain handling loss.

A sliding piston and shaft reduce breakaway delay in bicycle suspension, improving high-frequency vibration absorption, comfort, and traction.

An elastic membrane links main and secondary gas chambers to tune spring rate without extra seals, reducing friction, heat, and hysteresis.

A motor-driven flow control member enables wireless damping adjustment while riding, reducing bulky manual hardware on bicycle suspension.

Independent orifices and fluid pathways let a shock absorber tune high- and low-speed compression and rebound without compromising ride consistency.

Wall-guided push rod positioning prevents adjuster rotation, cutting guide bolts and simplifying damping force adjustment.

Inserts placed between adjacent coils deactivate active turns, letting riders tune rear shock spring rate without replacing the spring.

Elastomeric isolators let bicycle suspension move before breakaway force, absorbing shocks and handlebar vibrations for better comfort and control.

A corrugated outer cartridge tube spreads radial loads through controlled bending, enabling compact motocross fork damping without sacrificing durability.

A biasing member holds the brake pad against the caliper housing to limit vibration-driven movement and reduce rattling on rough terrain.

Separate flow paths, adjustable orifices, and annular shims let shock absorbers tune high- and low-speed compression and rebound independently.

A remotely positioned compensator prevents vacuum formation, fluid mixing, and cavitation in bicycle shock absorbers while easing assembly.

A motor-driven flow control member enables wireless on-the-fly bicycle damper adjustment without bulky cables, reducing weight and damage risk.

An internal partition creates a dedicated cavity for a removable damping blade, improving bicycle vibration absorption without weakening the fork.

A gas-filled chamber and adjustable blocker create progressive compression resistance in a bicycle fork, reducing bottoming out and maintenance.

An impact-absorbing isolator between the handlebar and steering clamp cuts shock transfer while preserving secure mounting on rough terrain.

An integrated fluid-and-elastic shock absorber cuts residual vibration in mobility devices while simplifying suspension structure and improving durability.