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This research presents the Good Weights algorithm, which adaptively fuses dead reckoning odometry with visual SLAM to maintain robust localization in texture-poor or low-light environments where traditional appearance-based methods fail. By dynamically adjusting reliance on inertial sensors based on current visual feature quality, this approach addresses a critical bottleneck for autonomous mobile robots operating under degraded sensing conditions. The study details necessary architectural modifications across all system modules to seamlessly integrate these complementary data sources without over-relying on short-term odometry drift.
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Good Weights: Proactive, Adaptive Dead Reckoning Fusion for Continuous and Robust Visual SLAM

arXiv2 min read

arXiv:2509.22910v2 Announce Type: replace Abstract: Given that Visual SLAM relies on appearance cues for localization and scene understanding, texture-less or visually degraded environments (e.g., plain walls or low lighting) lead to poor pose estimation and track loss. However, robots are typically equipped with sensors that provide some form of dead reckoning odometry with reasonable short-time performance but unreliable long-time performance. The Good Weights (GW) algorithm described here provides a framework to adaptively integrate dead reckoning (DR) with passive visual SLAM for continuous and accurate frame-level pose estimation. Importantly, it describes how all modules in a comprehensive SLAM system must be modified to incorporate DR into its design. Adaptive weighting increases DR influence when visual tracking is unreliable and reduces when visual feature information is strong, maintaining pose track without overreliance on DR. Good Weights yields a practical solution for mobile navigation that improves visual SLAM performance and robustness. Experiments on collected datasets and in real-world deployment demonstrate the benefits of Good Weights.

Abstract:Given that Visual SLAM relies on appearance cues for localization and scene understanding, texture-less or visually degraded environments (e.g., plain walls or low lighting) lead to poor pose estimation and track loss. However, robots are typically equipped with sensors that provide some form of dead reckoning odometry with reasonable short-time performance but unreliable long-time performance. The Good Weights (GW) algorithm described here provides a framework to adaptively integrate dead reckoning (DR) with passive visual SLAM for continuous and accurate frame-level pose estimation. Importantly, it describes how all modules in a comprehensive SLAM system must be modified to incorporate DR into its design. Adaptive weighting increases DR influence when visual tracking is unreliable and reduces when visual feature information is strong, maintaining pose track without overreliance on DR. Good Weights yields a practical solution for mobile navigation that improves visual SLAM performance and robustness. Experiments on collected datasets and in real-world deployment demonstrate the benefits of Good Weights.

8 pages, 9 figures, 1 table. Accepted to ICRA 2026

Robotics (cs.RO)

arXiv:2509.22910 [cs.RO]

(or arXiv:2509.22910v2 [cs.RO] for this version)

https://doi.org/10.48550/arXiv.2509.22910 Focus to learn more arXiv-issued DOI via DataCite

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Full text under the publisher's open licence · 258 words

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