Journal of Jilin University(Engineering and Technology Edition) ›› 2025, Vol. 55 ›› Issue (7): 2233-2242.doi: 10.13229/j.cnki.jdxbgxb.20231050

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Nonlinear influence of built environment on temporal aggregation modes of shared bicycles

Xiao-feng JI(),Ruo-fan DENG,Xin QIAO,Hao-tian GUAN   

  1. College of Transportation Engineering,Kunming University of Science and Technology,Kunming 650500,China
  • Received:2023-10-05 Online:2025-07-01 Published:2025-09-12

Abstract:

Aiming at the problem of tidal supply-demand imbalance of shared bicycles, a built environment indicator system was constructed from the three dimensions of socio-demographic, transportation design, and land use. Based on the Agglomerative Hierarchical Clustering model, typical time-aggregation patterns of shared bicycles were obtained from clustering. The nonlinear relationship and the threshold effect between them were revealed by using the Random Forest and SHapley Additive exPlanations models. Ultimately, Kunming was an example to prove that. The results show that the temporal aggregation modes of shared bicycles mainly show the first-in-last-out mode and the first-out-last-in mode, accounting for 91.4% of the sum of all modes. There is a significant nonlinear relationship between the built environment and the temporal aggregation modes of shared bicycles. The temporal aggregation modes of shared bicycles are primarily influenced by the density of the bus line network, proximity of parks and attractions, proximity of metro stations, and POI density of companies. When the proximity of metro stations is less than 0.5 km, there is an elevating effect on the probability of showing the first-in-last-out mode. When the POI density of companies is less than 25 per cell, there is a depressing effect on the probability of showing the first-in-last-out mode.

Key words: engineering of communication and transportation system, shared bicycle, temporal aggregation modes, random forest classifier, nonlinear influence, built environment

CLC Number: 

  • U491.225

Table 1

Index information on built environment indicators"

维度指标名称指标释义单位

社会

人口

居住密度栅格内居住POI数量个/栅格

交通

设计

公交站点密度栅格内公交站点数量个/栅格
交叉口密度栅格内交叉口数量个/栅格
路网密度栅格内道路总长度m/栅格
公交线网密度栅格内公交线路总长度km/栅格
地铁站点邻近度栅格中心到最近地铁站的直线距离km
公交站点邻近度栅格中心到最近公交站的直线距离m

土地

利用

体育休闲POI密度栅格内体育休闲POI数量个/栅格
公司企业POI密度栅格内公司企业POI数量个/栅格
公园景点POI密度栅格内公园景点POI数量个/栅格
购物服务POI密度栅格内购物服务POI数量个/栅格
餐饮服务POI密度栅格内餐饮服务POI数量个/栅格
商圈邻近度栅格中心到最近商场或超级市场距离m
公园景点邻近度栅格中心到最近公园景点距离m
土地利用混合度栅格内5类POI的熵指数

Fig.1

Schematic diagram of research scope"

Table 2

Descriptive statistics of the independent variables"

自变量VIF均值标准差
交叉口密度/(个·栅格-12.254.244.72
公交站点密度/(个·栅格-11.191.801.66
体育休闲POI密度/(个·栅格-12.216.628.95
公司企业POI密度/(个·栅格-11.5528.0930.62
公园景点POI密度/(个·栅格-11.160.952.76
居住密度/(个·栅格-12.456.986.29
购物服务POI密度/(个·栅格-12.28111.14150.64
餐饮服务POI密度/(个·栅格-12.5556.6952.70
公交站点邻近度/m2.60201.81199.92
公园景点邻近度/m2.71393.68436.48
公交线网密度/(km·栅格-11.324.203.52
路网密度/(km·栅格-11.491 661.041 155.09
商圈邻近度/m1.12189.53125.54
地铁站点邻近度/km1.220.850.57
土地利用混合度1.960.640.12

Fig.2

Hierarchical clustering tree diagram"

Fig.3

Time series curve clustering results"

Fig.4

Classifier P-R curve"

Fig.5

Importance ranking of independent variables"

Fig.6

Positive and negative effects of independent variables"

Fig.7

Key factors partial dependency"

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