4.7 Article

Strategy-based transit stochastic user equilibrium model with capacity and number-of-transfers constraints

Journal

EUROPEAN JOURNAL OF OPERATIONAL RESEARCH
Volume 305, Issue 1, Pages 164-183

Publisher

ELSEVIER
DOI: 10.1016/j.ejor.2022.05.040

Keywords

Transportation; Transit assignment; Stochastic user equilibrium; Capacity constraint; Number -of -transfers constraint

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This paper proposes a strategy-based transit stochastic user equilibrium (SUE) model that considers capacity and number-of-transfers constraints in an urban congested transit network. The model uses a route-section-based method for network representation and assumes passengers' route choice behavior obeys the logit model. The transit line capacity and maximum number-of-transfers constraints are considered, and the problem is formulated as a variational inequality (VI) problem. A transit path-set generation procedure is proposed, and the asymmetric cost function is solved using the diagonalization method.
Vehicle capacity and number-of-transfers constraints are critical in transit network equilibrium because (1) transit vehicles cannot carry passengers over their capacity and (2) transit passengers typically avoid paths with numerous transfers. In this paper, we propose a strategy-based transit stochastic user equi-librium (SUE) model that considers capacity and number-of-transfers constraints for an urban congested transit network. A route-section-based method is used for the transit network representation. The transit passengers' route choice behavior is assumed to obey the logit model, and a route-section-based path size correction factor is developed to handle the route overlapping issue. The transit line capacity and maxi-mum number-of-transfers constraints are considered in the model. We then formulate the strategy-based transit SUE problem as a variational inequality (VI) problem. A transit path-set generation procedure is proposed to identify a transit path with a limited number of transfers using the route-section-based network representation. The diagonalization method is chosen to solve the VI problem due to the asym-metric cost function, and the diagonalized problem can be solved using a path-based partial linearization algorithm embedded with an iterative balancing scheme, which is used here to handle the numerous ca-pacity constraints. Numerical examples are conducted to demonstrate the features of the proposed model and performance of the developed algorithm. The results show that the vehicle capacity and number of transfers would strongly impact the passenger flow patterns. (c) 2022 Elsevier B.V. All rights reserved.

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