A robot can keep its local obstacle map certified-correct under odometry drift by deflating the claimed-free region using the incremental pose covariance, proven for SFC polytopes and ESDFs.
Online and Certifiably Correct Visual Odometry and Mapping
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abstract
This paper proposes two new algorithms for certified perception in safety-critical robotic applications. The first is a Certified Visual Odometry algorithm, which uses a RGBD camera with bounded sensor noise to construct a visual odometry estimate with provable error bounds. The second is a Certified Mapping algorithm which, using the same RGBD images, constructs a Signed Distance Field of the obstacle environment, always safely underestimating the distance to the nearest obstacle. This is required to avoid errors due to VO drift. The algorithms are demonstrated in hardware experiments, where we demonstrate both running online at 30FPS. The methods are also compared to state-of-the-art techniques for odometry and mapping.
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cs.RO 1years
2025 1verdicts
CONDITIONAL 1representative citing papers
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Certifiably-Correct Mapping for Safe Navigation Despite Odometry Drift
A robot can keep its local obstacle map certified-correct under odometry drift by deflating the claimed-free region using the incremental pose covariance, proven for SFC polytopes and ESDFs.