A copolyetherester jounce bumper maximizes energy absorption through optimized bellows wall thickness ratios.
Resilient suspension modules support vehicle weight under normal loads while idlers engage to rigidify the track during dynamic conditions.
A vehicle suspension system segments actuators into primary and responsive units to distribute control amounts.
A single-shell spring control arm uses a U-shaped constriction to enhance bending stiffness in the base and side limbs.
Replacing suspension with a rigid roller near the drive sprocket eliminates redundant complexity while protecting the sprocket from shock loads.
A vehicle suspension hub carrier connects to a support arm and trailing link for compact packaging.
Actuator shifts pendulum link attachment point to recenter mobile frame, correcting lateral displacement on slopes.
A composite coil spring uses fiber layers with integer multiples of a base count to create tailored strength profiles.
A valve fastening device combines a screwable unit with a form-fitted unit to secure the housing against rotation.
An integrated resilient flex-element in the control arm eliminates separate springs, reducing vehicle weight and component complexity.
Central receptacle positions swing arm bearing to transmit forces through the I-profile web, eliminating bending stress from lateral load introduction.
A four-point link integrates a torsionable central cavity to store fluid for lateral stabilization.
Flexible elastomer bearings in the single wheel control arm allow dynamic toe-in adjustment, improving lateral stiffness and cornering stability.
A controller adjusts active suspension damping based on wheel vertical velocity to manage impact forces.
Diverging control arms adjust geometry to reduce wheel wobble and tire wear, enabling higher speeds without sacrificing articulation.
A suspension control system adjusts damping forces based on vehicle speed to synchronize roll and pitch behaviors.
Delaying front wheel speed signals estimates rear wheel dynamics, resolving low precision in vibrational state measurement during axle tilting.
Hydraulic cylinder adjusts ride height automatically, eliminating manual shim adjustments and preventing damage from payload changes.
Parallel strut coupling eliminates stick-slip bearing compression, restoring consistent spring response.
Control valves lock suspension pressure during hard braking events to prevent dynamic load transfer and improve stopping distance.
A parabolic link incorporates a forged groove at the end area to increase contact surface and structural strength.
A U-shaped fiber composite spring-link structure with a longitudinal recess provides resilient wheel guidance and acoustic decoupling.
Cellular polyurethane elastomeric springs provide progressive damping and load support through high compression resilience.
Underslung trailing arm suspension beam provides lateral clearance for transversely mounted air brake actuators on heavy duty trailers.
An automatic axle lifting system raises truck axles via CAN network sensors to maintain vehicle balance during tire pressure loss.