Distributed health scoring lets vehicle subsystems switch to the healthiest controller without a central arbitrator, improving failover safety.
Wheel speed jerk and ride height are used to detect powerhop in real time, then modulate torque to preserve traction and stability.
By showing each nearby vehicle's position and drag-reduction effect index, drivers can choose the best vehicle to follow for lower fuel or power use.
Uses torque, wheel speed, fuel level, and seat occupancy to update vehicle load, center of gravity, and inertia without extra sensors.
A vehicle motion control system adjusts longitudinal force to maintain the intended travel trajectory during curve navigation.
Partial wheel height sensors combined with passenger location data enable accurate vehicle mass calculation without full sensor coverage.
A vehicle control unit adjusts acceleration based on load center of mass measurements.
A vehicle range extending system alters operating parameters of engine, transmission, and climate control subsystems to reduce fuel consumption.
A vehicle controller estimates remaining range and distance to fuel stations to automatically enter economy mode when thresholds are met.
A vehicle height adjusting device measures actuation time to calculate expected weight values.
A controller adjusts vehicle power plant torque and speed to extend operational range based on real-time energy consumption data.
A segmented display method shows alternative energy range in a separate flowchart distinct from fossil fuel indicators.
Automated system maintains precise reverse speed on uneven terrain by dynamically adjusting engine torque and brake application.
A vehicle control device uses door lock state and occupant exit detection to trigger automated departure.
Inertial sensors detect vertical acceleration and pitch angular speed to estimate vehicle load parameters through spectral analysis.