Publication | Closed Access
Tangent Convolutions for Dense Prediction in 3D
600
Citations
50
References
2018
Year
Unknown Venue
Geometric LearningEngineeringMachine LearningPoint Cloud ProcessingPoint CloudDense Prediction3D Computer VisionImage AnalysisData ScienceSemantic SegmentationDeep Convolutional NetworksConvolutional NetworksMachine VisionSemantic Scene AnalysisDeep Learning3D Object Recognition3D Data ProcessingComputer Vision3D VisionScene UnderstandingScene Modeling
The authors develop a deep fully‑convolutional network based on tangent convolutions to perform semantic segmentation of 3D point clouds in indoor and outdoor scenes. Tangent convolutions, a novel construction that operates directly on surface geometry and handles unstructured, noisy point clouds, form the core of the network’s architecture. Experiments on large‑scale point clouds demonstrate that the method evaluates efficiently and outperforms recent deep network constructions in detailed 3D scene analysis.
We present an approach to semantic scene analysis using deep convolutional networks. Our approach is based on tangent convolutions - a new construction for convolutional networks on 3D data. In contrast to volumetric approaches, our method operates directly on surface geometry. Crucially, the construction is applicable to unstructured point clouds and other noisy real-world data. We show that tangent convolutions can be evaluated efficiently on large-scale point clouds with millions of points. Using tangent convolutions, we design a deep fully-convolutional network for semantic segmentation of 3D point clouds, and apply it to challenging real-world datasets of indoor and outdoor 3D environments. Experimental results show that the presented approach outperforms other recent deep network constructions in detailed analysis of large 3D scenes.
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