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Xiaoxiang Wang

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2

AAAI Conference 2025 Conference Paper

Leveraging Consistent Spatio-Temporal Correspondence for Robust Visual Odometry

  • Zhaoxing Zhang
  • Junda Cheng
  • Gangwei Xu
  • Xiaoxiang Wang
  • Can Zhang
  • Xin Yang

Recent approaches to VO have significantly improved performance by using deep networks to predict optical flow between video frames. However, existing methods still suffer from noisy and inconsistent flow matching, making it difficult to handle challenging scenarios and long-sequence estimation.To overcome these challenges, we introduce Spatio-Temporal Visual Odometry (STVO), a novel deep network architecture that effectively leverages inherent spatio-temporal cues to enhance the accuracy and consistency of multi-frame flow matching. With more accurate and consistent flow matching, STVO can achieve better pose estimation through the bundle adjustment (BA).Specifically, STVO introduces two innovative components: 1) the Temporal Propagation Module that utilizes multi-frame information to extract and propagate temporal cues across adjacent frames, maintaining temporal consistency; 2) the Spatial Activation Module that utilizes geometric priors from the depth maps to enhance spatial consistency while filtering out excessive noise and incorrect matches.Our STVO achieves state-of-the-art performance on TUM-RGBD, EuRoc MAV, ETH3D and KITTI Odometry benchmarks. Notably, it improves accuracy by 77.8% on ETH3D benchmark and 38.9% on KITTI Odometry benchmark over the previous best methods.

IROS Conference 2025 Conference Paper

LiDAR-Inertial Odometry in Dynamic Driving Scenarios using Label Consistency Detection

  • Zikang Yuan
  • Xiaoxiang Wang
  • Jingying Wu
  • Junda Cheng
  • Xin Yang

In this paper, a LiDAR-inertial odometry (LIO) method that eliminates the influence of moving objects in dynamic driving scenarios is proposed. This method constructs binarized labels for 3D points of current sweep, and utilizes the label difference between each point and its surrounding points in global map to identify moving objects. The surrounding points in global map are localized by voxel-location-based nearest neighbor search, without involving any massive computations. In addition, the proposed method is embeded into a LIO system (i. e. , Dynamic-LIO), and achieves state-of-the-art performance on public datasets with extremlely low computational overhead (i. e. , 1~9ms/sweep). We have released the source code of this work for the development of the community.

v2026.09.13