IMU-based chassis and suspension sensing replaces electromechanical ride height sensors for easier installation, calibration, and dynamic air suspension control.
Differently oriented bush shafts let a rear suspension balance lateral stiffness and torsional wheel movement without a dedicated torsion beam.
A pivoting front wing and folding fore-aft surfaces let a roadable aircraft keep stable handling on roads while generating lift for takeoff.
A reinforced sway bar bushing bracket adds a strong rear tow hook mounting point while preserving chassis stability for vehicle recovery.
Valve-controlled hydraulic cylinders and accumulators let one suspension switch bounce, pitch, roll, and warp stiffness for changing driving conditions.
A pump-linked hydraulic gallery connects suspension actuators to control roll and pitch with less complexity, cost, and packaging burden.
Elastic-mounted connection members let paired Watt's linkages swing and absorb length differences, preventing rod interference and stabilizing ride.
Separate left and right beams with bushing couplings balance trailing arm displacement and torsion, improving rear suspension stability and durability.
Conical torsion cords shift camber under load to spread stress more evenly, reducing fatigue in compact vehicle and trailer suspensions.
Hydraulic pressurizing circuits replace reactive stabilizer bars, cutting packaging limits and reducing vehicle roll during cornering.
Sensor-guided suspension actuators adjust ride height and compressive force to limit wheel penetration, reduce jarring, and keep the vehicle stable.
A crossbar with vertically mounted actuators decouples load paths to reduce bump steer, vibration, and wheel hop in vehicle suspension.
A drop-link motion transfer geometry lets higher anti-roll bar stiffness improve roll control without sacrificing understeer gradient or yaw stability.
Hydraulic cylinders, valves, and accumulators separate pitch and roll stiffness tuning while preserving low weight, package space, and service cost.
Wheel-load feedback replaces delayed oversteer signals to adapt roll moment distribution from rear axle grip reserve during cornering.
A collar passage joins the reinforcing plate inside a semi-open torsion tube, simplifying axle assembly while improving corrosion resistance.
A sliding torque tube and pivoting forward torque rod curb solid front axle shake and shimmy while preserving suspension travel.
A clutch piston, screw assembly, and planetary gearset let a stabilizer bar disconnect on demand, improving wheel articulation over obstacles.
Proportional relief valves vary damper pressure to counter vehicle roll and pitch, improving stability and comfort on uneven terrain.
Adjustable pendulum arms and gas-hydraulic damping let a tracked vehicle keep the body level on rough terrain while absorbing shocks.
Comfort valves open on rough roads or saved road events to disable passive pitch stiffness and improve ride comfort without losing handling.
A tubular trailing arm with a shaft insertion hole and local reinforcements fits motor-driven 4WD layouts while preserving rear suspension stiffness.