Enhance Road Detection Data Processing of LiDAR Point Clouds to Specifically Identify Unmarked Gravel Rural Roads

Rhett Huston, Jay Wilhelm
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Abstract

Gravel roads lack standardized features such as curbs or painted lines, presenting detection challenges to autonomous vehicles. Global Positioning Service (GPS) and high resolution maps may not be reliable for navigation of gravel roads, as some roads may only be width of the vehicle and GPS may not be accurate enough. Normal Distribution Transform (NDT) LiDAR scan matching may be insufficient for navigating on gravel roads as there may not be enough geometrically distinct features for reliable scan matching. This paper examined a method of classifying scanning LiDAR spatial and remission data features for explicit detection of unmarked gravel road surfaces. Exploration of terrain classification using high resolution scanning LiDAR data of specific road surfaces may allow for predicting gravel road boundary locations potentially enabling confident autonomous operations on gravel roads. The principal outcome of this work was a method for gravel road terrain detection using LiDAR data for the purpose of predicting potential road boundary locations. Random Decision Forests were trained using scanning LiDAR data terrain classification to detect unmarked gravel and asphalt surfaces. It was found that a true-positive accuracy for gravel and asphalt surfaces was 75% and 87% respectively at an estimated rate of 13 ms per 360 degree scan. Overlapping results between manually projected and actual road surface areas resulted in 93% intersecting gravel road detection accuracy. Automated post-process examination of classification results yielded an true-positive gravel road detection rate of 72%.
加强对激光雷达点云的道路检测数据处理,以具体识别无标记的乡村砾石路
砾石路缺乏路缘石或画线等标准化特征,给自动驾驶车辆的探测带来了挑战。全球定位系统(GPS)和高分辨率地图对于砾石路的导航可能并不可靠,因为有些道路可能只有车辆的宽度,GPS 可能不够精确。正态分布变换 (NDT) 激光雷达扫描匹配可能不足以在砾石路上导航,因为可能没有足够的几何特征来进行可靠的扫描匹配。本文研究了一种对扫描 LiDAR 空间和偏移数据特征进行分类的方法,以明确检测无标记的砾石路面。利用特定路面的高分辨率扫描激光雷达数据进行地形分类探索,可以预测砾石路的边界位置,从而有可能在砾石路面上进行可靠的自主操作。这项工作的主要成果是利用激光雷达数据进行砾石路地形检测的方法,目的是预测潜在的道路边界位置。使用扫描激光雷达数据地形分类训练随机决策森林,以检测未标记的砾石和沥青表面。结果发现,以每次 360 度扫描 13 毫秒的估计速率计算,砾石和沥青表面的真实阳性准确率分别为 75% 和 87%。人工投影和实际路面区域的重叠结果使相交砾石路的检测准确率达到 93%。对分类结果进行自动后处理检查后,砾石路的真实检测率为 72%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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