A learned model varies decision-tree time steps to focus computation on early vehicle interactions and improve real-time trajectory prediction.
When autonomous driving becomes impossible, asymmetric left-right wheel braking guides a minimal risk maneuver to avoid lane departure and collisions.
Latent-space audio encoding with contextual data avoids homophone token errors and improves in-vehicle recognition of idioms, slang, and natural commands.
A two-stage GPT control flow improves vehicle function predictability and decision clarity without losing AI versatility.
A two-stage GPT control flow refines goal-based vehicle commands to improve decision predictability and reliability across functions.
Basis trajectories derived from map data constrain neural network outputs, producing safer, more predictable paths for mobile agents.
Reinforcement learning adjusts speed, obstacle-avoidance, and path-following hyperparameters to cut manual tuning and stabilize autonomous driving.
Occupancy grid prediction is compared with live sensor data to map uncertainty and guide safer automated vehicle trajectories.
Pressure and capacitive sensing on steering wheel zones recognizes hand gestures, letting drivers control vehicle functions without loosening grip.
A fin-shaped electrochemical channel and ion-control interface layer preserve fast switching and resistance accuracy as memory cells shrink.