Green Wave Control Model Simultaneously Considering Passenger Cars and Buses in Closed Road Networks

被引:1
作者
Jing, Binbin [1 ]
Huang, Zhengjie [1 ]
机构
[1] Nantong Univ, Sch Transportat & Civil Engn, Nantong 226019, Peoples R China
来源
APPLIED SCIENCES-BASEL | 2024年 / 14卷 / 13期
基金
中国国家自然科学基金;
关键词
green wave control; closed road network; passenger car; bus; time-space diagram; PROGRESSION MODEL; ARTERIAL; OPTIMIZATION;
D O I
10.3390/app14135772
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
Existing green wave control methods for passenger cars and buses mainly focus on maximizing bandwidths at the arterial level. There is little research on green wave control for both at the closed road network level, which makes it difficult to improve the efficiency of the entire area. To address this, a green wave control model that considers both passenger cars and buses in closed road networks is presented in this paper. The objective function of the model is to maximize the sum of the weighted bandwidths of passenger cars and buses on each segment of the road network. The relationships between car green bands, bus green bands, offsets, phase sequences, red time, green time, etc. are analyzed on the level of arterials and road networks, respectively, using time-space diagrams. Based on these analyses, the key constraints of the model are constructed accordingly. In addition, 0/1 variables and a sufficiently large positive number M are introduced to relax some of the constraints to ensure that the presented model has feasible solutions. The results of the numerical example demonstrate that compared with the fixed phase sequence schemes 1, 2, and 3, the total weighted bandwidth generated by the presented model increased by 9.5%, 16.4%, and 17%, respectively. Compared with the model without constraint relaxation, the presented model can still find a global, optimal solution when the common cycle time is fixed, while the model without constraint relaxation has no feasible solution.
引用
收藏
页数:18
相关论文
共 20 条
  • [1] Chang E.C., 1988, TRANSPORTATION RES R, P61
  • [2] Concurrent Optimization of Signal Progression and Crossover Spacing for Diverging Diamond Interchanges
    Cheng, Yao
    Chang, Gang-Len
    Rahwanji, Saed
    [J]. JOURNAL OF TRANSPORTATION ENGINEERING PART A-SYSTEMS, 2018, 144 (03)
  • [3] A bandwidth approach to arterial signal optimisation with bus priority
    Dai, Guangyuan
    Wang, Hao
    Wang, Wei
    [J]. TRANSPORTMETRICA A-TRANSPORT SCIENCE, 2015, 11 (07) : 579 - 602
  • [4] Arterial Traffic Signal Coordination for General and Public Transport Vehicles Using Dedicated Lanes
    Florek, Krzysztof
    [J]. JOURNAL OF TRANSPORTATION ENGINEERING PART A-SYSTEMS, 2020, 146 (07)
  • [5] Gartner N.H., 1990, Transportation Research Record: journal of the Transportation Research Board, V1287, P212
  • [6] Method of Bidirectional Green Wave Coordinated Control for Arterials under Asymmetric Release Mode
    Ji, Lina
    Cheng, Wei
    [J]. ELECTRONICS, 2022, 11 (18)
  • [7] [荆彬彬 Jing Binbin], 2023, [交通运输系统工程与信息, Journal of Transporation Systems Engineering & Information Technology], V23, P51
  • [8] Pband: A General Signal Progression Model With Phase Optimization Along Urban Arterial
    Jing, Binbin
    Lin, Yongjie
    Shou, Yanfang
    Lu, Kai
    Xu, Jianmin
    [J]. IEEE TRANSACTIONS ON INTELLIGENT TRANSPORTATION SYSTEMS, 2022, 23 (01) : 344 - 354
  • [9] Dynamic Bandwidth Analysis for Coordinated Arterial Streets
    Kim, Sangkey
    Hajbabaie, Ali
    Williams, Billy M.
    Rouphail, Nagui M.
    [J]. JOURNAL OF INTELLIGENT TRANSPORTATION SYSTEMS, 2016, 20 (03) : 294 - 310
  • [10] [李昌泽 Li Changze], 2023, [中国公路学报, China Journal of Highway and Transport], V36, P197