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Theoretical Paper

The Feeder-bus Network-design Problem

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Pages 751-767 | Published online: 20 Dec 2017

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Mohammad Hadi Almasi, Yoonseok Oh, Ali Sadollah, Young-Ji Byon & Seungmo Kang. (2021) Urban transit network optimization under variable demand with single and multi-objective approaches using metaheuristics: The case of Daejeon, Korea. International Journal of Sustainable Transportation 15:5, pages 386-406.
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Jen-Jia Lin & Huei-In Wong. (2014) Optimization of a feeder-bus route design by using a multiobjective programming approach. Transportation Planning and Technology 37:5, pages 430-449.
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Ali Gholami & Afshin Shariat Mohaymany. (2011) Economic conditions for minibus usage in a multimodal feeder network. Transportation Planning and Technology 34:8, pages 839-856.
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Miaoqing Hu, W. Y. Szeto & Yue Wang. Cooperative design of feeder bus and bike-sharing systems. Transportmetrica A: Transport Science 0:0, pages 1-34.
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Amirreza Nickkar & Young-Jae Lee. (2023) Dynamic Demand-Responsive Feeder Bus Network Design for a Short Headway Trunk Line. Algorithms 16:11, pages 506.
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Zilong Zhao, Mengyuan Fang, Luliang Tang, Xue Yang, Zihan Kan & Qingquan Li. (2022) The Impact of Community Shuttle Services on Traffic and Traffic-Related Air Pollution. International Journal of Environmental Research and Public Health 19:22, pages 15128.
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Liya Yang, Pan Shang, Yu Yao & Ziling Zeng. (2022) A dynamic scheduling process and methodology using route deviations and synchronized passenger transfers for flexible feeder transit services. Computers & Operations Research 146, pages 105917.
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Yi Cao, Dandan Jiang & Shan Wang. (2022) Optimization for Feeder Bus Route Model Design with Station Transfer. Sustainability 14:5, pages 2780.
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Hongqi Li, Jun Chen & Shaokai He. (2021) The feeder-vehicle routing and high-speed-train assignment problem with time windows. Research in Transportation Business & Management 38, pages 100521.
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Hassan Shuaibu ABDULRAHMAN & Mustafa ÖZUYSAL. (2020) A BI-LEVEL ALGORITHM PROPOSAL FOR THE INITIAL PLANNING OF FEEDER BUS ROUTESBESLEYİCİ OTOBÜS ROTALARININ ÖN PLANLAMASI İÇİN İKİ DÜZEYLİ BİR ALGORİTMA ÖNERİSİ. Mühendislik Bilimleri ve Tasarım Dergisi 8:3, pages 766-776.
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Lian-bo DengYuan HeNing-xin ZengJun-hao Zeng. (2020) Optimal Design of Feeder-Bus Network with Split Delivery. Journal of Transportation Engineering, Part A: Systems 146:3.
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Gang Ren & Yingshuang Ouyang. (2020) Coordinated Passenger Flow Control and Bus Connection Setting during Peak Hour of Urban Rail Transit. Coordinated Passenger Flow Control and Bus Connection Setting during Peak Hour of Urban Rail Transit.
Gang Chen, Dawei Hu & Steven Chien. (2020) Optimizing Battery-Electric-Feeder Service and Wireless Charging Locations With Nested Genetic Algorithm. IEEE Access 8, pages 67166-67178.
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Giovanni Calabrò, Giuseppe Inturri, Michela Le Pira, Alessandro Pluchino & Matteo Ignaccolo. (2020) Bridging the gap between weak-demand areas and public transport using an ant-colony simulation-based optimization. Transportation Research Procedia 45, pages 234-241.
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Bo Sun, Ming Wei, Chungfeng Yang & A. Ceder. (2019) Solving demand-responsive feeder transit service design with fuzzy travel demand: A collaborative ant colony algorithm approach. Journal of Intelligent & Fuzzy Systems 37:3, pages 3555-3563.
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Young-Jae Lee, Mana Meskar, Amirreza Nickkar & Sina Sahebi. (2019) Development of an Algorithm for Optimal Demand Responsive Relocatable Feeder Transit Networks Serving Multiple Trains and Stations. Urban Rail Transit 5:3, pages 186-201.
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Jinpeng Liang, Jianjun Wu, Ziyou Gao, Huijun Sun, Xin Yang & Hong K. Lo. (2019) Bus transit network design with uncertainties on the basis of a metro network: A two-step model framework. Transportation Research Part B: Methodological 126, pages 115-138.
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Bo Sun, Ming Wei, Chunfeng Yang, Zhihuo Xu & Han Wang. (2018) Personalised and Coordinated Demand-Responsive Feeder Transit Service Design: A Genetic Algorithms Approach. Future Internet 10:7, pages 61.
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Kai Lu, Baoming Han & Xuesong Zhou. (2018) Smart Urban Transit Systems: From Integrated Framework to Interdisciplinary Perspective. Urban Rail Transit 4:2, pages 49-67.
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Xin Li, Ming Wei, Jia Hu, Yun Yuan & Huifu Jiang. (2018) An Agent-Based Model for Dispatching Real-Time Demand-Responsive Feeder Bus. Mathematical Problems in Engineering 2018, pages 1-11.
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Jingfeng Yang, Jian Gang Jin, Jianjun Wu & Xi Jiang. (2017) Optimizing Passenger Flow Control and Bus‐Bridging Service for Commuting Metro Lines. Computer-Aided Civil and Infrastructure Engineering 32:6, pages 458-473.
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Gorkem Gulhan, Huseyin Ceylan & Halim Ceylan. (2017) Using accessibility measures in transit network design. Transport 33:2, pages 510-519.
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Yun Wang, Xuedong Yan, Yu Zhou & Wenyi Zhang. (2016) A Feeder-Bus Dispatch Planning Model for Emergency Evacuation in Urban Rail Transit Corridors. PLOS ONE 11:9, pages e0161644.
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Mohammad Almasi, Ali Sadollah, Seungmo Kang & Mohamed Karim. (2016) Optimization of an Improved Intermodal Transit Model Equipped with Feeder Bus and Railway Systems Using Metaheuristics Approaches. Sustainability 8:6, pages 537.
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Mohammad Hadi Almasi, Ali Sadollah, Sina Mirzapour Mounes & Mohamed Rehan Karim. (2015) Optimization of a Transit Services Model with a Feeder Bus and Rail System Using Metaheuristic Algorithms. Journal of Computing in Civil Engineering 29:6.
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Shuliang PanJie YuXianfeng YangYue LiuNan Zou. (2015) Designing a Flexible Feeder Transit System Serving Irregularly Shaped and Gated Communities: Determining Service Area and Feeder Route Planning. Journal of Urban Planning and Development 141:3.
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John Zhen Fu Pang, Nasri Bin Othman, Keng Meng Ng & Christopher Monterola. (2015) Efficiency and robustness of different bus network designs. International Journal of Modern Physics C 26:03, pages 1550024.
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Jiaqing Wu, Rui Song, Youan Wang, Feng Chen & Shubin Li. (2015) Modeling the Coordinated Operation between Bus Rapid Transit and Bus. Mathematical Problems in Engineering 2015, pages 1-7.
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Jielin Zhang & Tiezhu Li. (2014) Model of Bus and Urban Rail Transfer Behavior Based on General Cost Function. Advances in Mechanical Engineering 7:2, pages 925271.
Crossref
Yanfeng Ouyang, Seyed Mohammad Nourbakhsh & Michael J. Cassidy. (2014) Continuum approximation approach to bus network design under spatially heterogeneous demand. Transportation Research Part B: Methodological 68, pages 333-344.
Crossref
Jian Gang Jin, Loon Ching Tang, Lijun Sun & Der-Horng Lee. (2014) Enhancing metro network resilience via localized integration with bus services. Transportation Research Part E: Logistics and Transportation Review 63, pages 17-30.
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Mohammad Hadi Almasi, Sina Mirzapour Mounes, Suhana Koting & Mohamed Rehan Karim. (2014) Analysis of Feeder Bus Network Design and Scheduling Problems. The Scientific World Journal 2014, pages 1-10.
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Mohammad Mahdi Tahoorinia, Afshin Shariat Mohaymany & Ali Gholami. (2014) Designing a multimodal feeder network by covering stops with different modes. Canadian Journal of Civil Engineering 41:1, pages 87-96.
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Karthik Sivakumaran, Yuwei Li, Michael Cassidy & Samer Madanat. (2014) Access and the choice of transit technology. Transportation Research Part A: Policy and Practice 59, pages 204-221.
Crossref
Lian-bo Deng, Wei Gao, Wen-liang Zhou & Tian-zhen Lai. (2013) Optimal Design of Feeder-bus Network Related to Urban Rail Line based on Transfer System. Procedia - Social and Behavioral Sciences 96, pages 2383-2394.
Crossref
Lianbo Deng, Wei Gao, Yanbing Fu & Wenliang Zhou. (2013) Optimal Design of the Feeder-Bus Network Based on the Transfer System. Discrete Dynamics in Nature and Society 2013, pages 1-10.
Crossref
Biju K. Thapalia, Stein W. Wallace, Michal Kaut & Teodor Gabriel Crainic. (2011) Single source single-commodity stochastic network design. Computational Management Science 9:1, pages 139-160.
Crossref
Gao Jian, Zhao Peng, Zhuge Chengxiang & Zhang Hui. (2012) Research on Public Transit Network Hierarchy Based on Residential Transit Trip Distance. Discrete Dynamics in Nature and Society 2012, pages 1-14.
Crossref
Karthikgeyan Sivakumaran, Yuwei Li, Michael J. Cassidy & Samer Madanat. (2012) Cost-saving properties of schedule coordination in a simple trunk-and-feeder transit system. Transportation Research Part A: Policy and Practice 46:1, pages 131-139.
Crossref
Shwu-Ping Guo & Ching-Kwai Chen. (2010) Evaluation of shuttle bus lines for the high-speed rail by using analytic hierarchy process. Evaluation of shuttle bus lines for the high-speed rail by using analytic hierarchy process.
Afshin Shariat MohaymanyAli Gholami. (2010) Multimodal Feeder Network Design Problem: Ant Colony Optimization Approach. Journal of Transportation Engineering 136:4, pages 323-331.
Crossref
Zhi-Chun Li, William H.K. Lam & S.C. Wong. 2009. Transportation and Traffic Theory 2009: Golden Jubilee. Transportation and Traffic Theory 2009: Golden Jubilee 495 516 .
Dušan Teodorović. (2008) Swarm intelligence systems for transportation engineering: Principles and applications. Transportation Research Part C: Emerging Technologies 16:6, pages 651-667.
Crossref
S.N. Kuan, H.L. Ong & K.M. Ng. (2006) Solving the feeder bus network design problem by genetic algorithms and ant colony optimization. Advances in Engineering Software 37:6, pages 351-359.
Crossref
S. N. KUAN, H. L. ONG & K. M. NG. (2012) APPLYING METAHEURISTICS TO FEEDER BUS NETWORK DESIGN PROBLEM. Asia-Pacific Journal of Operational Research 21:04, pages 543-560.
Crossref
Carlos Lúcio Martins & Margarida Vaz Pato. (1998) Search strategies for the feeder bus network design problem. European Journal of Operational Research 106:2-3, pages 425-440.
Crossref
Andrzej Adamski. 1995. Computer-Aided Transit Scheduling. Computer-Aided Transit Scheduling 23 38 .
Stefan Voß. 1992. Computer-Aided Transit Scheduling. Computer-Aided Transit Scheduling 137 152 .
Hassan Abdulrahman. (2022) A Sustainable Feeder Bus Route Design Procedure with Big Data. SSRN Electronic Journal.
Crossref

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