AIDE-SLAM: Anomaly-Handling and IMU-Enhanced SLAM

This paper presents AIDE-SLAM, a robust visual-inertial SLAM framework integrating hierarchical anomaly handling and IMU-enhanced optimization for dynamic environments. Addressing traditional VSLAM vulnerabilities to illumination changes, motion blur, and sensor anomalies, we propose a cascaded anomaly detector combining photometric screening (KL divergence, Laplacian sharpness) with a bidirectional LSTM network, achieving 97.2% precision in 5 ms. A confidence-driven optimizer dynamically adjusts sensor fusion weights (λ=0.5(1-α)e^(-γΔt)) across three modes: IMU-dominant (α≥0.7), hybrid (0.4≤α<0.7), and vision-priority (α<0.4), reducing IMU-only error by 25% on EuRoC datasets. Experiments show 37.5% lower ATE RMSE (0.049m vs. 0.075m) in high-dynamic sequences and 81.6% improvement under synthetic anomalies (e.g., 40% occlusion). Keyframe spatial consistency enables rapid recovery, achieving 5.2× faster mode transitions. The system maintains sub-decimeter accuracy (0.033m avg. ATE) in degraded conditions, demonstrating practicality for real-world robotics and AR applications.

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Publication Details

Published
2025-06-20
DOI
https://doi.org/10.1145/3757940.3757942
Primary Topic
Robotics and Sensor-Based Localization
Type
article
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article

AIDE-SLAM: Anomaly-Handling and IMU-Enhanced SLAM

Weihang Shi, Ruijuan Wang, Chao Wang, X. Tian
Robotics and Sensor-Based Localization
article

AIDE-SLAM: Anomaly-Handling and IMU-Enhanced SLAM

Weihang Shi, Ruijuan Wang, Chao Wang, X. Tian
article en

Abstract

This paper presents AIDE-SLAM, a robust visual-inertial SLAM framework integrating hierarchical anomaly handling and IMU-enhanced optimization for dynamic environments. Addressing traditional VSLAM vulnerabilities to illumination changes, motion blur, and sensor anomalies, we propose a cascaded anomaly detector combining photometric screening (KL divergence, Laplacian sharpness) with a bidirectional LSTM network, achieving 97.2% precision in 5 ms. A confidence-driven optimizer dynamically adjusts sensor fusion weights (λ=0.5(1-α)e^(-γΔt)) across three modes: IMU-dominant (α≥0.7), hybrid (0.4≤α<0.7), and vision-priority (α<0.4), reducing IMU-only error by 25% on EuRoC datasets. Experiments show 37.5% lower ATE RMSE (0.049m vs. 0.075m) in high-dynamic sequences and 81.6% improvement under synthetic anomalies (e.g., 40% occlusion). Keyframe spatial consistency enables rapid recovery, achieving 5.2× faster mode transitions. The system maintains sub-decimeter accuracy (0.033m avg. ATE) in degraded conditions, demonstrating practicality for real-world robotics and AR applications.

Zhengzhou University (CN)
Openalex Percentile: Top 67%
Robotics and Sensor-Based Localization
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