[1]WANG Xingtao,DAI Mengli,YU Jiakuo,et al.A review of deep learning-based point cloud denoising methods[J].CAAI Transactions on Intelligent Systems,2026,21(4):849-863.[doi:10.11992/tis.202511005]
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CAAI Transactions on Intelligent Systems[ISSN 1673-4785/CN 23-1538/TP] Volume:
21
Number of periods:
2026 4
Page number:
849-863
Column:
综述
Public date:
2026-07-05
- Title:
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A review of deep learning-based point cloud denoising methods
- Author(s):
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WANG Xingtao1; 2; DAI Mengli1; YU Jiakuo1; LI Wenrui1; MAN Hengyu1; FAN Xiaopeng1; 2
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1. Faculty of Computing, Harbin Institute of Technology, Harbin 150001, China;
2. Suzhou Research Institute, Harbin Institute of Technology, Suzhou 215000, China
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- Keywords:
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3D data; point clouds; denoising; deep learning; neural networks; feature extraction; supervised learning; graph neural networks
- CLC:
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TP391
- DOI:
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10.11992/tis.202511005
- Abstract:
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Point clouds, as an important carrier of 3D data, are widely applied in autonomous driving, embodied intelligence, virtual reality, and other fields. However, raw point clouds are often corrupted by sensor errors, environmental interference, and reconstruction algorithm defects, resulting in noise, geometric structure distortion, and degraded performance in downstream tasks. To address these issues, numerous deep learning-based point cloud denoising methods have been proposed. This paper systematically reviews developments in this field over the past eight years. First, a five-category taxonomy for deep learning-based point cloud denoising is established, encompassing PointNet-based backbones, convolutional neural network(CNN), Transformer networks, nontraditional networks, and unsupervised learning strategies. The core mechanisms and evolutionary trajectories of these algorithms are analyzed in depth. Second, the performance of mainstream algorithms is evaluated and compared on both synthetic and real-world datasets. Finally, current challenges, such as limited generalization ability and data scarcity, are summarized, and future research directions, including the development of all-in-one models and adaptive noise modeling, are discussed. The analysis presented in this paper provides a reference for the taxonomy, performance evaluation, and future improvement of deep learning-based point cloud denoising methods.