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SDVRP-Based Reposition Routing in Bike-Sharing System

机译:自行车共享系统中基于SDVRP的重置路由

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摘要

Bike-sharing systems have recently been widely implemented. Despite providing green transportation method and a healthy lifestyle, bike-sharing systems also poses problems for system operators: In order to meet the public's demand as much as possible, operators must use multiple trucks to relocate new bikes and repaired bikes from the depot to different stations. Then, the route to minimize the cost for the delivery trucks becomes a serious problem. To address this issue, we first formulate the problem into a split delivery vehicle routing problem (SDVRP) since every station's demand can satisfied by multiple trucks, and use the K-means algorithm to cluster stations. In general, K-means is used to cluster the nearest points without constraint. In this real-world constraint problem, the sum of zones' demands must be smaller than total truck capacity. Therefore, we transform the SDVRP into a traveling salesman problem (TSP) by using a constrainted K-means algorithm to cluster stations with the demand constraint. Finally, according to the context, we use a genetic algorithm to solve the TSP. The Evaluation considers four real-world open datasets from bike-sharing systems and shows that our method can solve this problem effectively.
机译:自行车共享系统最近被广泛实施。尽管提供绿色交通方式和健康的生活方式,自行车共享系统也带来了问题,对系统操作人员:为了满足公众的需求,尽可能,运营商必须使用多辆卡车从仓库到不同的搬迁新自行车,修理自行车站。然后,以尽量减少对送货卡车的成本路径成为一个严重的问题。为了解决这个问题,我们首先制定问题陷入分裂物流配送车辆路径问题(SDVRP),因为每一个站的需求可以由多个卡车满意,并使用K-means算法集群电台。一般情况下,K-装置用于无约束到簇最近的点。在这个现实世界的约束问题,的区的需求总和必须大于总卡车容量小。因此,我们通过使用constrainted K-means算法与需求约束型集群站改造SDVRP成旅行商问题(TSP)。最后,根据上下文,我们使用遗传算法解决TSP。评价认为,从自行车共享系统和显示四个真实世界的开放的数据集,我们的方法可以有效地解决这一问题。

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