Real-Time 3D Object Detection with Distance-Aware Hybrid Point Cloud Representation toward Long Range Detection

3D object detection is a crucial technology for enabling automated driving. Methods with LiDAR employing Bird’s-Eye View (BEV) representations of point cloud in a Cartesian coordinate system have become mainstream. This technology requires recognizing objects at long distances, exceeding 100 m. In autonomous driving scenarios, such as when monitoring oncoming lanes for a lane change across opposing traffic, long-range perception is essential. However, methods using BEV representations of point cloud face a significant challenge: the computational resources required increase enormously when attempting to recognize objects at long distances. To address this, we propose a novel approach that combines Cartesian and polar coordinate systems. This method efficiently enables perception of objects up to approximately 140 m away, all while maintaining high detection accuracy for small objects at short-range. Furthermore, with real-time operation in mind, we focused on accelerating our method and achieved an inference time of 83.30 ms per frame.

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Publication Details

Journal
International Journal of Intelligent Transportation Systems Research
Published
2025-12-26
DOI
https://doi.org/10.1007/s13177-025-00598-2
Primary Topic
Advanced Neural Network Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

Real-Time 3D Object Detection with Distance-Aware Hybrid Point Cloud Representation toward Long Range Detection

Keisuke YONEDA, Yukiya Fukuda, Keigo Hariya, Hiroki Inoshita et al.
International Journal of Intelligent Transportation Systems Research
Advanced Neural Network Applications
article

Real-Time 3D Object Detection with Distance-Aware Hybrid Point Cloud Representation toward Long Range Detection

Keisuke YONEDA, Yukiya Fukuda, Keigo Hariya, Hiroki Inoshita, Naoki Suganuma
article en

Abstract

3D object detection is a crucial technology for enabling automated driving. Methods with LiDAR employing Bird’s-Eye View (BEV) representations of point cloud in a Cartesian coordinate system have become mainstream. This technology requires recognizing objects at long distances, exceeding 100 m. In autonomous driving scenarios, such as when monitoring oncoming lanes for a lane change across opposing traffic, long-range perception is essential. However, methods using BEV representations of point cloud face a significant challenge: the computational resources required increase enormously when attempting to recognize objects at long distances. To address this, we propose a novel approach that combines Cartesian and polar coordinate systems. This method efficiently enables perception of objects up to approximately 140 m away, all while maintaining high detection accuracy for small objects at short-range. Furthermore, with real-time operation in mind, we focused on accelerating our method and achieved an inference time of 83.30 ms per frame.

International Journal of Intelligent Transportation Systems Research
Kanazawa University (JP)
Kanazawa University, Council for Science, Technology and Innovation
Openalex Percentile: Top 36%
Advanced Neural Network Applications
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