Low-confidence perception outputs are filtered, while contextual cues replace raw confidence scores so non-technical users can judge result reliability.
Uses stationary probability distributions instead of finite-horizon predictions to tune actuator control parameters for more reliable long-term adaptation.
Deep reinforcement learning improves virtual network allocation accuracy by handling continuous, high-dimensional network states and user demand.
A globally additive model predicts microalloyed steel properties from carbonitride precipitation, cutting physical tests and R&D time.
Climate sensors and workload prediction adjust cooling flow and device placement to cut data center energy use while maintaining safe temperatures.
Polynomial chaos expansions quantify aircraft trajectory uncertainty and sensitivity faster than Monte Carlo for real-time air traffic support.
Optimal stratified sampling and mixed-fidelity models quantify component robustness across multidimensional design spaces with lower computation.
A high-level RL policy switches among imitative driving modes to handle near-accident phase transitions with less state-space exploration.
Machine learning combines sensor signals with expert audio, video, and notes to preserve tacit knowledge and improve fault diagnosis.
Hierarchical memory and temporal pattern learning filter sensor data to predict operator commands in real time during dynamic machine operation.