A vehicle speed determination method segments wheel sensor data into high and low speed ranges to calculate precise provisional values.
A system that indexes failure messages by occurrence frequency and correlation to prioritize diagnostic analysis.
Ground speed signals adjust the motor and engine to match load demands, reducing power losses at low travel speeds.
A control system defines dipper position via second-order polynomial parameters to improve motor reliability.
A retarding system controller manages transmission downshifting based on deceleration thresholds.
Automated locking sensors verify pin engagement and lock position, eliminating difficult visual inspections from the driver cabin.
A guidance controller detects attached implements to determine specific characteristics for automatic calibration.
Processing unit calculates blade edge position relative to target surface and displays only the trajectory segment within a predetermined range.
A vehicle control system calculates target speeds to adjust acceleration or deceleration along road curves.
A construction vehicle blade control system scales hydraulic pressure to adjust movement speed between manual and automatic modes.
A traffic reporting system calculates congestion probabilities for road segments to prioritize real-time updates.
A wireless sensor system eliminates cable damage risks by transmitting material level data via radio links to a master controller for real-time flow regulation.
A wheel ground-contact judging device detects lateral forces and calculates cornering forces to determine tire contact conditions.
A brake control unit activates a pump motor to generate hydraulic pressure before driver braking occurs.
Perimeter sensors measure following distance while a controller activates the brake actuator to prevent collisions caused by distracted driving.
Vehicle control apparatus manages electronic parking brake engagement using wheel speed and acceleration signals to determine vehicle state.
Asymmetric cryptography with elliptic curve keys resolves the trade-off between system security and computation complexity in tachograph systems.
A rollover prediction system calculates actual lateral acceleration against maximum limits to issue timely driver warnings.
A docking assistance system provides real-time visual guidance to truck operators for precise loading location alignment.
Motorized vertical and horizontal adjustment assemblies replace manual mechanisms, resolving ergonomic trade-offs in heavy machinery operator consoles.
A normalized performance index consolidates sensor data into a single metric for tractor operators.
A remote locomotive control system calculates total train energy to adjust velocity and maintain safe stopping distances.
Control unit generates braking signals to counteract understeering and oversteering driving conditions simultaneously.
A control module processes motion and height signals to selectively disengage a milling rotor.
An excavation system detects pile edge location and repose angle using distance sensors to enable accurate tool engagement.
A braking assistant control method monitors hydraulic pressure decay to prevent false reactivation after braking force termination.
Segmented avionics data files paired with timeline pointers enable precise random access playback across multiple channels.
A braking control unit holds integral signals during skid cycles to stabilize deceleration feedback restarts.
Processing electronics estimate vertical loading from radar return data to detect atmospheric turbulence without aircraft-specific inputs.
A flight management system generates tactical flight plans by incorporating predefined parameter variations for aerial drops and refueling.
A traction steer detection system compares driven wheel speeds to identify slip conditions and applies selective brake pressure for compensation.
A brake control apparatus uses two parallel communication lines to transmit signals from a booster state detection unit to a hydraulic controller.
A vehicle tilt angle determination method calculates orientation using accelerometer data and gyroscope inputs for real-time tracking.
Automated feedback adjusts the lifting mechanism during blade pitch changes to resolve manual adjustment inefficiencies across varying soil types.