Strategic Optimization of Bus Systems with Stochastic Ridership
Haoran Zhao, Andres Fielbaum
Abstract
In global metropolitan areas, public transport benefits from bus systems. Bus design widely applies theoretical models, which typically assume static ridership. However, ridership randomness exists, and lack of attention to it might lead to wrong design decisions. Moving beyond static ridership, we extend the traditional single-line model with stochastic ridership. Further, to optimize the bus system under various ridership randomness, we introduce a hybrid model that combines conventional buses (CBs) and flexible buses (FBs). In both models, we apply a continuous approximation approach and find that: 1) Bus capacity increases with ridership randomness in the extended single-line model; 2) The hybrid model exhibits a binary state: either CBs serve the ridership with rejections under low ridership randomness, or CBs serve the majority while FBs serve the minority with rejections under high ridership randomness. Our findings establish a link between bus system design and ridership randomness, contributing to a more adaptive and efficient public transport framework.
Create a lesson
Related papers
Shared Models, Selective Trading, and Order Flow
Victoria Ruojie Li, Arka Prava Bandyopadhyay
Modeling Shipping Emissions: Machine Learning, Engineering, and Policy Counterfactuals
Hiroyuki Kasahara, Allen Peters, Oliver Xu
Food Insecurity Among Military Veterans
Senan Hogan-Hennessy, Seungmin Lee, Christopher B. Barrett et al.
Maintaining Human Verification Capacity under Automation
Li Gan, Eric Gan
Classification as Search Infrastructure: How Category Creation, Addition and Cleanup Shape Knowledge Retrieval
Kerstin Hötte, Nicolò Barbieri, Su Jung Jee
Beyond the Coast: an Empirical Assessment of the Kaldor-Verdoorn Law in Chinese Provinces
Maria Cristina Barbieri Góes, Saverio Barabuffi