弱点云下车载激光雷达多目标检测与跟踪

IF 4.3 2区 综合性期刊 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC
Weihe Liang;Yihang Yang;Wanzhong Zhao;Chunyan Wang;Ziyu Zhang
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引用次数: 0

摘要

激光雷达是高级自动驾驶汽车感知道路环境的关键传感器。然而,在雨雪天气条件下,由于雨雪粒子的吸收和衍射,激光雷达传感器受到薄点云的影响,降低了目标检测和跟踪的准确性和可靠性。针对激光雷达传感器在弱点云场景中的不足,本文提出了一种基于区域特征增强的多目标检测与跟踪策略,该策略通过重建弱点云场景感知,并对场景从体素到关键点的编码进行优化,获得更详细的局部特征。针对弱点云特征下的目标跟踪不稳定问题,提出了一种多目标跟踪方法。该方法将多类别跟踪模块与无气味卡尔曼滤波(UKF)相结合,优化运动预测和更新过程。此外,在噪声更新过程中引入自适应弱点云因子,使得弱点云特征工况下的MOT更加准确稳定。仿真结果表明,该方法的AMOTA达到74.40%,超过了主流的Poly-MOT和Fast-Poly方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Vehicle-Mounted LiDAR Multiobject Detection and Tracking Under Weak Point Cloud
LiDAR is a key sensor for high-level self-driving cars to sense the road environment. However, LiDAR sensors suffer from weak point clouds due to the absorption and diffraction of rain and snow particles in rainy and snowy weather conditions, which reduces the accuracy and reliability of object detection and tracking. To address the shortcomings of LiDAR sensors in weak point cloud scenarios, this article proposes a multiobject detection and tracking strategy based on regional feature enhancement, in which more detailed local features are obtained by reconstructing the perception of weak point cloud scenes and optimizing the scene coding from voxels to key points. To address the issue of unstable tracking under weak point cloud features, a multiobject tracking (MOT) method is proposed. This method integrates a multicategory tracking module with an unscented Kalman filter (UKF) to optimize motion prediction and updating processes. Additionally, an adaptive weak point cloud factor is introduced during the noise update, resulting in more accurate and stable MOT under weak point cloud features working conditions. Simulation results demonstrate that the AMOTA of the proposed method reaches 74.40%, which exceeds the mainstream methods, Poly-MOT and Fast-Poly.
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来源期刊
IEEE Sensors Journal
IEEE Sensors Journal 工程技术-工程:电子与电气
CiteScore
7.70
自引率
14.00%
发文量
2058
审稿时长
5.2 months
期刊介绍: The fields of interest of the IEEE Sensors Journal are the theory, design , fabrication, manufacturing and applications of devices for sensing and transducing physical, chemical and biological phenomena, with emphasis on the electronics and physics aspect of sensors and integrated sensors-actuators. IEEE Sensors Journal deals with the following: -Sensor Phenomenology, Modelling, and Evaluation -Sensor Materials, Processing, and Fabrication -Chemical and Gas Sensors -Microfluidics and Biosensors -Optical Sensors -Physical Sensors: Temperature, Mechanical, Magnetic, and others -Acoustic and Ultrasonic Sensors -Sensor Packaging -Sensor Networks -Sensor Applications -Sensor Systems: Signals, Processing, and Interfaces -Actuators and Sensor Power Systems -Sensor Signal Processing for high precision and stability (amplification, filtering, linearization, modulation/demodulation) and under harsh conditions (EMC, radiation, humidity, temperature); energy consumption/harvesting -Sensor Data Processing (soft computing with sensor data, e.g., pattern recognition, machine learning, evolutionary computation; sensor data fusion, processing of wave e.g., electromagnetic and acoustic; and non-wave, e.g., chemical, gravity, particle, thermal, radiative and non-radiative sensor data, detection, estimation and classification based on sensor data) -Sensors in Industrial Practice
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