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ADCNet: Learning from Raw Radar Data via Distillation
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As autonomous vehicles and advanced driving assistance systems have entered wider deployment, there is an increased interest in building robust perception systems using radars. Radar-based systems are lower cost and more robust to adverse weather conditions than their LiDAR-based counterparts; however the point clouds produced are typically noisy and sparse by comparison. In order to combat these challenges, recent research has focused on consuming the raw radar data, instead of the final radar point cloud. We build on this line of work and demonstrate that by bringing elements of the signal processing pipeline into our network and then pre-training on the signal processing task, we are able to achieve state of the art detection performance on the RADIal dataset. Our method uses expensive offline signal processing algorithms to pseudo-label data and trains a network to distill this information into a fast convolutional backbone, which can then be finetuned for perception tasks. Extensive experiment results corroborate the effectiveness of the proposed techniques.
Forward citations
Cited by 2 Pith papers
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DeeperRadar: End-to-End MIMO Radar Design and Multi-Modal Fusion for Autonomous Vehicle Perception
Learning which MIMO radar receivers to activate jointly with camera–LiDAR fusion lets fewer receivers match or exceed full-array 3D detection on RADIal, with the best budget depending on the sensor stack.
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Enhanced 3D Object Detection via Diverse Feature Representations of 4D Radar Tensor
A sparse-input 4D radar object detector that distills knowledge from multiple teachers trained on diverse radar preprocessings raises K-Radar sedan AP3D from 36.84 to 44.16 with a 90x smaller input.
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