Combining rule-based and learned fusion paths improves autonomous sensing accuracy while limiting common cause failures for higher safety integrity.
Ultrasonic sensing maps mobile devices to seat positions, helping identify the driver accurately when multiple devices are present.
Context-aware AI uses vehicle sensor data to recommend relevant ADAS functions, improving driver awareness, safety, and usability.
Telematics and map data are combined to rate individual intersections and predict collision probability for safer route planning.
Predictive control uses driving data to adjust ammonia supply and cracker conditions, stabilizing hydrogen output and reducing residual ammonia.
Outlier filtering, battery clustering, and temperature-corrected ΔOCV dispersion improve low-voltage defect screening reliability.
Ensemble discrepancy checks flag out-of-distribution driving scenarios and generate annotations to improve neural network robustness.
RF radar with Golay-sequence channel responses and a random forest model enables facial recognition with lower power use and no lighting dependence.
Machine learning uses discharge duration and driving position data to predict commercial EV energy use more accurately under real driving conditions.
GAN-generated moral-island scenarios train ETHNET to help autonomous vehicles make ethical driving decisions in rare complex situations.
Combining breaker-level and mains power signals helps identify connected devices and state changes without deploying many smart plugs.
Balances local accuracy and global prediction reliability in deposition by switching between linear and nonlinear models using confidence intervals.
A trained model predicts near-curb behavior for vehicles, cyclists, and pedestrians across future time points to improve path planning and safety.
Multiple mobile devices align time, location, and impact data to verify vehicle crash points and reduce false alarms.