SAMI: A Shape-Aware Cycling Map Inference Framework for Designated Driving Service

Wenyi Shen, Wen-Jie Wu, Jiali Mao, Jie Chen, Shaosheng Cao, Lisheng Zhao, Aoying Zhou, Lin Zhou
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Abstract

Along with the increase in strict regulation of drunk driving behavior in China, the demands for designated driving services have risen in popularity. In the absence of specialized cycling map for the designated drivers who use foldable electric bicycles, they tend to take a detour or are lost on the way to the car owners’ appointed parking places. With gradual popularization of chauffeur services, cycling trajectories generated by designated drivers almost spread all over the city. It provides a chance for inferring the cycling map dedicated to the designated drivers. However, to infer an accurate map using trajectories faces severe challenges stemming from random cycling behaviors of designated drivers, including (i) trajectories contain a lot of noises and incomplete segments, (ii) turning trajectories at minor intersections are very sparse and (iii) trajectories on the roads of distinct shapes are obviously different. To address the above challenges, we propose a three-phase map inference framework, called SAMI, consisting of trajectory refinement, intersection pinpointing, and road curve interlinking. Specifically, cycling behavioral differences from neighbor regions are incorporated into intersection identification process to ensure obtaining high detection precision even when trajectory data is sparse. Further, shape-aware based centerline fitting strategy is put forward to guarantee that inferred road curves are consistent with real road shape as possible. Finally, extensive comparative experiments on two real data sets demonstrate that SAMI significantly outperforms state-of-the-art methods by 13.31% in F1-score of map inference and by 44.88% in recall rate of minor intersection detection.
SAMI:用于指定驾驶服务的形状感知自行车地图推理框架
随着中国对酒驾行为的监管越来越严格,对指定驾驶服务的需求也越来越受欢迎。使用可折叠电动自行车的指定司机在没有专门的骑行地图的情况下,往往会绕道而行,或者在前往车主指定停车位的途中迷路。随着专车服务的逐步普及,由指定司机生成的骑行轨迹几乎遍布整个城市。它提供了一个机会来推断专用于指定司机的自行车地图。然而,由于指定驾驶员的随机骑行行为,使用轨迹来推断准确的地图面临着严峻的挑战,包括:(1)轨迹包含大量噪声和不完整的路段,(2)小十字路口的转弯轨迹非常稀疏,(3)不同形状道路上的轨迹明显不同。为了解决上述挑战,我们提出了一个称为SAMI的三相地图推理框架,由轨迹细化、交叉口精确定位和道路曲线互连组成。具体而言,将相邻区域的骑行行为差异纳入交叉口识别过程,确保在轨迹数据稀疏的情况下也能获得较高的检测精度。进一步,提出了基于形状感知的中心线拟合策略,以保证推断的道路曲线与真实道路形状尽可能一致。最后,在两个真实数据集上进行了大量的对比实验,结果表明SAMI在地图推理的f1得分和小交集检测的召回率上均显著优于现有方法13.31%和44.88%。
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