SHIELD-VIO
Active research repository connected to robust perception, uncertainty-aware estimation, or safe decision making.
Research vision
My research direction studies how robots can detect degraded sensing, represent uncertainty, adapt estimation and fusion, and make safer navigation decisions before failures become safety-critical.
Current projects
Active research repository connected to robust perception, uncertainty-aware estimation, or safe decision making.
Active research repository connected to robust perception, uncertainty-aware estimation, or safe decision making.
Active research repository connected to robust perception, uncertainty-aware estimation, or safe decision making.
Active research repository connected to robust perception, uncertainty-aware estimation, or safe decision making.
Themes
Robust mapping and localization under perceptual degradation and incomplete sensing.
Health-aware VIO with degradation monitoring, diagnosis, and recovery policies.
Adaptive weighting of visual, inertial, event-based, and semantic signals under uncertainty.
Prediction and safety reasoning for vulnerable road users at intelligent intersections.
Planning methods that consider collision risk, returnability, and uncertainty propagation.
Future extension of robust perception and VIO methods to aerial platforms.
Perception modules that expose reliability, calibration, and failure modes.
Learning systems evaluated by decision utility, robustness, and reproducibility.
Future Work: communication-constrained autonomy and sensor-network reliability.
Future directions