A vehicle telematics unit records a forward trajectory and generates a return path to autonomously navigate the car back to its starting position.
Integrating longitudinal guidance into a distance warning system reduces driver distraction during complex maneuvers.
A parking intention probability value combines area data with steering inputs to trigger driver assistance automatically.
Test vehicles execute autonomous route navigation to detect incompatibilities between internal and external systems, ensuring safe parking operations.
A vehicle periphery display device adjusts contour guide lines to maintain road surface alignment during turns.
A vehicle camera system generates an overhead view of a parking area using homography transformations on captured images.
A sensor-based detection system identifies turning objects to determine collision risks and execute evasive driving maneuvers.
A parking assistance system adjusts the rear boundary position based on detected obstacles to enable diagonal parking.
Predictive steering control redirects host vehicle trajectory during unavoidable intersection collisions, reducing damage to pedestrians and other vehicles.
Electronic control unit defines virtual no-entry zone via imaginary line to prevent curb collisions without adding physical sensors.
A driver assistance system calculates optimal paths using environment sensors to execute straight reverse and circular arc forward movements.
Parking assistance system assesses remaining distance and obstacles to prevent unplausible short starts during automated parking maneuvers.
A hitch assist system uses an imager and controller to capture images of the hitch assembly for intuitive alignment guidance.
A driver assistance system switches lateral guidance between lane tracking and object following to maintain support availability.
A driving support apparatus adjusts warning thresholds based on road curvature to keep vehicles within lane boundaries.
A vehicle vision system compares camera-detected traffic light status with V2I data to verify signal accuracy.
A vehicle unparking control system determines the initial direction and generates steering signals to adjust the wheel angle.
Parking control unit manages vehicle exit maneuvers using dynamic angle thresholds to resolve conflicts between parking efficiency and obstacle contact risks.
A parking steering assistance system aligns steerable wheels to optimize space utilization during vehicle exit maneuvers.
Controller adjusts deceleration using accelerator input during towing to fix insufficient front sinking and improve turning stability.
A vehicle speed control system calculates maximum travel speeds based on real-time roadway grade, curvature, and friction coefficients.
Autonomous vehicle path planning generates forward and backward turning segments using maximum steering angles and perception data.
Decoupling the steering wheel from automatic angle adjustments prevents jerky rotational movements that reduce driver acceptance and safety.
Electronic control unit sets target position between stopped vehicles based on detected distance.
Controller processes turn signal stalk inputs to manage vehicle turning directions, eliminating touchscreen delays during autonomous guidance.
A steering control apparatus executes lane keeping using shape data when only one lane line is detected.
A vehicle control system calculates a driving trajectory that guides the motor vehicle over a curb at a specific angle to enable semi-autonomous parking.
A vehicle travel envelope adapts dynamically to obstacle position and trajectory data.
A housing-fixed incremental sensor unit employs a moving shielding element to decouple torque sensor crosstalk and ensure accurate steering angle detection.
Multiple detection modules assess intermediate values to determine a reliable reference point for incremental sensors.
An open sensor chamber allows dust to escape during rotation, resolving harsh environment contamination issues without complex encapsulation.
A laser alignment rack couples optical targets to a vehicle frame to orient wheels relative to the chassis structure.
A controller uses steering angle and lane data to automatically activate turn signals without manual switch operation.
A steering actuator applies a pretorque to bias the mechanism before critical thresholds are reached.
A vehicle control device calculates avoidance trajectories using sensor data to support driver evasive maneuvers.
Adjusting wheel parameters via preliminary action prevents lane departure during peripheral collisions.
A multi-turn encoder uses redundant sensing devices to discard faulty readings and maintain absolute position indication.
A steering assist device executes lateral speed zero control to maintain vehicle position during lane change maneuvers.
A parking assistance module calculates a look-ahead speed setpoint to regulate vehicle motion during automated maneuvers.
A driver assistance system updates vehicle position using odometry and corrects the value upon detecting wheel contact with surrounding objects.
A parking device determines two movement paths for vehicle positioning.
Gradient angle calculation unit determines sequential turning paths for reverse perpendicular parking maneuvers.
System evaluates curb characteristics to allow controlled wheel overlap, resolving the conflict between collision avoidance and legal parking alignment.
An autonomous vehicle locates parking spaces using internal sensors and processing, eliminating reliance on external infrastructure.
Repetitive signal verification enables secure remote parking without additional hardware.
A parking support apparatus calculates an obliqueness correction path to reposition a vehicle before centering it within the target space.
Sensors detect objects in the travel path while a controller guides steering via visual zones and haptic feedback to prevent collisions.
Five directional buttons and voice recognition let users adjust routes without complex destination reconfiguration.
Dual magnetic tracks segment the detection stroke, allowing precise position sensing without increasing sensor volume or requiring larger magnets.