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Papers/Voxel R-CNN: Towards High Performance Voxel-based 3D Objec...

Voxel R-CNN: Towards High Performance Voxel-based 3D Object Detection

Jiajun Deng, Shaoshuai Shi, Peiwei Li, Wengang Zhou, Yanyong Zhang, Houqiang Li

2020-12-31Vocal Bursts Intensity PredictionRegion Proposalobject-detection3D Object DetectionObject Detection
PaperPDFCode(official)CodeCodeCodeCode(official)

Abstract

Recent advances on 3D object detection heavily rely on how the 3D data are represented, \emph{i.e.}, voxel-based or point-based representation. Many existing high performance 3D detectors are point-based because this structure can better retain precise point positions. Nevertheless, point-level features lead to high computation overheads due to unordered storage. In contrast, the voxel-based structure is better suited for feature extraction but often yields lower accuracy because the input data are divided into grids. In this paper, we take a slightly different viewpoint -- we find that precise positioning of raw points is not essential for high performance 3D object detection and that the coarse voxel granularity can also offer sufficient detection accuracy. Bearing this view in mind, we devise a simple but effective voxel-based framework, named Voxel R-CNN. By taking full advantage of voxel features in a two stage approach, our method achieves comparable detection accuracy with state-of-the-art point-based models, but at a fraction of the computation cost. Voxel R-CNN consists of a 3D backbone network, a 2D bird-eye-view (BEV) Region Proposal Network and a detect head. A voxel RoI pooling is devised to extract RoI features directly from voxel features for further refinement. Extensive experiments are conducted on the widely used KITTI Dataset and the more recent Waymo Open Dataset. Our results show that compared to existing voxel-based methods, Voxel R-CNN delivers a higher detection accuracy while maintaining a real-time frame processing rate, \emph{i.e}., at a speed of 25 FPS on an NVIDIA RTX 2080 Ti GPU. The code is available at \url{https://github.com/djiajunustc/Voxel-R-CNN}.

Results

TaskDatasetMetricValueModel
Object DetectionKITTI Cars Hard valAP78.93Voxel R-CNN
Object DetectionKITTI Cars HardAP77.06Voxel R-CNN
Object DetectionKITTI Cars Moderate valAP84.52Voxel R-CNN
Object DetectionKITTI Cars Easy valAP89.41Voxel R-CNN
3DKITTI Cars Hard valAP78.93Voxel R-CNN
3DKITTI Cars HardAP77.06Voxel R-CNN
3DKITTI Cars Moderate valAP84.52Voxel R-CNN
3DKITTI Cars Easy valAP89.41Voxel R-CNN
3D Object DetectionKITTI Cars Hard valAP78.93Voxel R-CNN
3D Object DetectionKITTI Cars HardAP77.06Voxel R-CNN
3D Object DetectionKITTI Cars Moderate valAP84.52Voxel R-CNN
3D Object DetectionKITTI Cars Easy valAP89.41Voxel R-CNN
2D ClassificationKITTI Cars Hard valAP78.93Voxel R-CNN
2D ClassificationKITTI Cars HardAP77.06Voxel R-CNN
2D ClassificationKITTI Cars Moderate valAP84.52Voxel R-CNN
2D ClassificationKITTI Cars Easy valAP89.41Voxel R-CNN
2D Object DetectionKITTI Cars Hard valAP78.93Voxel R-CNN
2D Object DetectionKITTI Cars HardAP77.06Voxel R-CNN
2D Object DetectionKITTI Cars Moderate valAP84.52Voxel R-CNN
2D Object DetectionKITTI Cars Easy valAP89.41Voxel R-CNN
16kKITTI Cars Hard valAP78.93Voxel R-CNN
16kKITTI Cars HardAP77.06Voxel R-CNN
16kKITTI Cars Moderate valAP84.52Voxel R-CNN
16kKITTI Cars Easy valAP89.41Voxel R-CNN

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