DuInNet: Dual-Modality Feature Interaction for Point Cloud Completion
Xinpu Liu, Baolin Hou, Hanyun Wang, Ke Xu, Jianwei Wan, Yulan Guo

TL;DR
This paper introduces DuInNet, a dual-modality network for point cloud completion that interacts features from images and point clouds, along with a large benchmark dataset for various completion tasks.
Contribution
The paper proposes DuInNet with dual feature interaction and an adaptive point generator, and introduces ModelNet-MPC, a large-scale multimodal point cloud completion benchmark.
Findings
DuInNet outperforms state-of-the-art methods in all tasks.
The benchmark ModelNet-MPC covers diverse categories and scenarios.
DuInNet demonstrates robustness and transferability across tasks.
Abstract
To further promote the development of multimodal point cloud completion, we contribute a large-scale multimodal point cloud completion benchmark ModelNet-MPC with richer shape categories and more diverse test data, which contains nearly 400,000 pairs of high-quality point clouds and rendered images of 40 categories. Besides the fully supervised point cloud completion task, two additional tasks including denoising completion and zero-shot learning completion are proposed in ModelNet-MPC, to simulate real-world scenarios and verify the robustness to noise and the transfer ability across categories of current methods. Meanwhile, considering that existing multimodal completion pipelines usually adopt a unidirectional fusion mechanism and ignore the shape prior contained in the image modality, we propose a Dual-Modality Feature Interaction Network (DuInNet) in this paper. DuInNet iteratively…
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Taxonomy
Topics3D Surveying and Cultural Heritage · Remote Sensing and LiDAR Applications · 3D Shape Modeling and Analysis
