Fleet parking positions are classified by road distance to estimate roadside space occupancy, helping drivers cut parking search time and distance.
User walking and at-charger states are correlated with position data to locate working charging units and guide other autonomous vehicles.
Machine learning predicts safe vehicle trajectories from sensor and image data when road markings, work zones, or obstacles disrupt normal driving.
Uses image, inertial, and trajectory data to train models that detect adversity conditions and guide autonomous vehicles along safer paths.
Shared vehicle feature maps are aligned using relative and absolute pose correction to improve perception, prediction, and motion planning.
Bayesian and evolutionary tuning refines motion planner hyperparameters against truth data to improve realistic driving decisions in new scenarios.
Dynamic queueing based on service complexity dispatches vehicles at the right time to cut wait times and keep service stations flowing.
Probabilistic graphical models combine with ML to predict pedestrian behavior with uncertainty estimates, reducing black-box risk and retraining effort.
A trained classifier selects operating procedures from pathway data so aircraft control can handle unforeseen scenarios with less rule coding.
Pre-characterized PCIe/CXL slot locations guide workload placement to cut latency, improve accelerator use, and manage power.
Curated difficult driving tasks, synthetic data, and memory-augmented imitation learning improve autonomous driving validation at scale.
Future-state uncertainty is checked against a vehicle control envelope to curb heavy-duty motion before skid, jack-knifing, or trailer swing.
A second neural network checks controller outputs against fixed boundary conditions, blocking unsafe actions and triggering targeted retraining.
Local and backend model outputs are compared to tune vehicle safety event detection in real time, improving alert accuracy without retraining.
A deep neural PHA model tracks changing maneuver intent and prunes trajectory samples to improve prediction accuracy and coverage.
Hot spot analysis predicts lithography defects from process parameter ranges, enabling targeted wafer inspection and fewer random checks.