Reflection-Robust Stereo Visual-Inertial Odometry via Kalman-Filtered Ground-Height Estimation
Overview
This research presents a method for stereo visual-inertial odometry that addresses unreliable feature associations caused by specular reflections on indoor floors. Instead of suppressing all floor-region features, the proposed approach estimates ground height in real time using a scalar Kalman filter with Normalized Innovation Squared (NIS) gating and rejects only feature candidates whose inferred 3D positions fall below the estimated ground height within reflection-prone regions. Experiments on real reflective-floor indoor sequences demonstrate improved trajectory accuracy in reflection-dominant environments while maintaining accurate ground-height estimates and recovering from actual ground-height changes.
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- arXiv Robotics — research abstractsSignalReflection-Robust Stereo Visual-Inertial Odometry via Kalman-Filtered Ground-Height Estimation
This research presents a method for stereo visual-inertial odometry that addresses unreliable feature associations caused by specular reflections on indoor floors. Instead of suppressing all floor-region features, the proposed approach estimates ground height in real time using a scalar Kalman filter with Normalized Innovation Squared (NIS) gating and rejects only feature candidates whose inferred 3D positions fall below the estimated ground height within reflection-prone regions. Experiments on real reflective-floor indoor sequences demonstrate improved trajectory accuracy in reflection-dominant environments while maintaining accurate ground-height estimates and recovering from actual ground-height changes.
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