SDCM: Simulated Densifying and Compensatory Modeling Fusion for Radar-Vision 3-D Object Detection in Internet of Vehicles
Shucong Li, Xiaoluo Zhou, Yuqian He, Zhenyu Liu

TL;DR
The paper introduces SDCM, a novel radar-vision fusion framework that densifies radar data, compensates vision degradation, and enhances 3-D object detection in IoV, achieving superior performance with efficiency.
Contribution
The paper proposes a new fusion framework with modules for radar densification, vision data compensation, and interactive feature fusion, improving 3-D detection in challenging IoV scenarios.
Findings
SDCM outperforms existing methods on multiple datasets.
Achieves higher detection accuracy with fewer parameters.
Faster inference speed compared to prior approaches.
Abstract
3-D object detection based on 4-D radar-vision is an important part in Internet of Vehicles (IoV). However, there are two challenges which need to be faced. First, the 4-D radar point clouds are sparse, leading to poor 3-D representation. Second, vision datas exhibit representation degradation under low-light, long distance detection and dense occlusion scenes, which provides unreliable texture information during fusion stage. To address these issues, a framework named SDCM is proposed, which contains Simulated Densifying and Compensatory Modeling Fusion for radar-vision 3-D object detection in IoV. Firstly, considering point generation based on Gaussian simulation of key points obtained from 3-D Kernel Density Estimation (3-D KDE), and outline generation based on curvature simulation, Simulated Densifying (SimDen) module is designed to generate dense radar point clouds. Secondly,…
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Taxonomy
TopicsAdvanced Neural Network Applications · Advanced Image Fusion Techniques · Autonomous Vehicle Technology and Safety
