Balanced compression and extension forces across four wheels keep static equilibrium, reducing perceived imbalance and wear during maneuvers.
Real-time brake temperature feedback adjusts brake-to-steer pressure to keep lateral response consistent and prevent brake overheating.
Independent wheel torque and rear-wheel resistance let a vehicle pivot more tightly at low speed, reducing turn radius in confined spaces.
An elevating towing tongue lets an ATV switch from riding to road towing without a trailer, cutting loading effort, fuel use, and theft risk.
Differential wheel speed control cuts turning radius in off-road utility vehicles, helping them clear obstacles with fewer back-and-forth moves.
Coordinated wheel braking and drive torque maintain vehicle direction after steering failure, avoiding heavy redundant steering hardware.
Sensors track occupant position and activity to adjust suspension and steering, minimizing head acceleration and motion sickness.
Independent wheel torque and rear-wheel braking cut vehicle turn radius in tight corners without major steering hardware changes.
System characterizes steering torques via test braking to update control values, ensuring precise trajectory control without slow dynamic corrections.
A four wheel drive system uses independent hydraulic steering and propulsion to rotate rear wheels for zero turning radius capability.
Differential wheel drive torques adjust steerable wheel angles to reduce steering error, replacing complex mechanical superimposed systems.
Aircraft steering control apparatus adjusts target angles to match actual wheel positions during state transitions.
Dynamic frame positioning via actuating cylinders increases steering range while maintaining operator visibility in work vehicles.
A steerable wheel assembly integrates a lean-to-steer mechanism into a roller bearing inner race to control steering response.
A four wheel roll steering chassis pivots the driver laterally into turns using a mechanically integrated shock mount.
Stoppers and shock absorbers limit frame pivoting to control leaning angle without electronic complexity.
A segmented three-wheel vehicle uses a rotating rear coupling to lean the operator into turns.
A multi-track vehicle uses a lever and actuator to pivot the support structure for dynamic body orientation.
Resilient prongs on a truck rear edge reduce aerodynamic drag while maintaining full access to cargo doors for loading operations.
Propulsion torque requests compensate for braking deceleration to maintain target speed and steering capability without driver-intended slowing.
Active chassis actuators shift the roll axis spatial position to compensate lateral accelerations during cornering maneuvers.
System compensates for steering torque generated by braking to eliminate slow iterative corrections and improve dynamic response speed.