EM-Fusion: Dynamic Object-Level SLAM with Probabilistic Data Association
arXiv:1904.11781 · doi:10.1109/ICCV.2019.00596
Abstract
The majority of approaches for acquiring dense 3D environment maps with RGB-D cameras assumes static environments or rejects moving objects as outliers. The representation and tracking of moving objects, however, has significant potential for applications in robotics or augmented reality. In this paper, we propose a novel approach to dynamic SLAM with dense object-level representations. We represent rigid objects in local volumetric signed distance function (SDF) maps, and formulate multi-object tracking as direct alignment of RGB-D images with the SDF representations. Our main novelty is a probabilistic formulation which naturally leads to strategies for data association and occlusion handling. We analyze our approach in experiments and demonstrate that our approach compares favorably with the state-of-the-art methods in terms of robustness and accuracy.
arXiv commentIEEE/CVF International Conference on Computer Vision (ICCV) 2019, Project page: https://emfusion.is.tue.mpg.de/, Source code: https://github.com/EmbodiedVision/emfusion
References in corpus (1)
Cited by in corpus (10)
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- Towards Real-time Semantic RGB-D SLAM in Dynamic Environments
- Panoptic Multi-TSDFs: a Flexible Representation for Online Multi-resolution Volumetric Mapping and Long-term Dynamic Scene Consistency
- An Object SLAM Framework for Association, Mapping, and High-Level Tasks
- RGB-D SLAM in Indoor Planar Environments with Multiple Large Dynamic Objects
- Efficient 3D Reconstruction, Streaming and Visualization of Static and Dynamic Scene Parts for Multi-client Live-telepresence in Large-scale Environments
- Where Does It End? -- Reasoning About Hidden Surfaces by Object Intersection Constraints
- RigidFusion: Robot Localisation and Mapping in Environments with Large Dynamic Rigid Objects
- Physics-Based Rigid Body Object Tracking and Friction Filtering From RGB-D Videos
- TivNe-SLAM: Dynamic Mapping and Tracking via Time-Varying Neural Radiance Fields