Independent actuator setpoints tune driver influence in steer-by-wire steering.
A steering control device combines angle-based torque and motor-speed hysteresis to tune on-center feel while preserving steering feel.
This case separates trajectory planning from actuator dynamics to maintain path adherence with lower computing effort.
A noise signal matched to the vehicle control clock masks power variation and electronic noise, stabilizing electric steering feel.
Feedback steering is fixed during yaw-rate disturbances to suppress periodic steering motion.
A processor assesses vehicle stabilization and driver hand position to determine steering intent during autonomous mode transitions.
A controller determines target setpoint torque using average motor torque from previous instants to maintain precise steering control.
Calculating joint angle variables from steering and output shaft data estimates Cardan joint bending angles without tilt sensors, improving torque accuracy.
A steering angle sensor uses a slotted magnet encoder to measure rotation angles with high precision.
Controller reduces feedback gain when detected steering torque is held, preventing rigid assist force and driver discomfort.