Long-term Joint Scheduling for Urban Traffic
Xianfeng Liang, Likang Wu, Joya Chen, Yang Liu, Runlong Yu, Min Hou,, Han Wu, Yuyang Ye, Qi Liu, Enhong Chen

TL;DR
This paper introduces JLRLS, a reinforcement learning-based multi-modal traffic scheduling system that optimizes long-term urban transportation efficiency by considering layout changes and multiple transport modes.
Contribution
It proposes a novel multi-modal, long-term joint scheduling scheme using reinforcement learning, addressing previous limitations of short-term, single-mode approaches.
Findings
Improved traffic flow and reduced congestion in simulations.
Effective long-term planning considering layout adjustments.
Enhanced multi-modal transportation coordination.
Abstract
Recently, the traffic congestion in modern cities has become a growing worry for the residents. As presented in Baidu traffic report, the commuting stress index has reached surprising 1.973 in Beijing during rush hours, which results in longer trip time and increased vehicular queueing. Previous works have demonstrated that by reasonable scheduling, e.g, rebalancing bike-sharing systems and optimized bus transportation, the traffic efficiency could be significantly improved with little resource consumption. However, there are still two disadvantages that restrict their performance: (1) they only consider single scheduling in a short time, but ignoring the layout after first reposition, and (2) they only focus on the single transport. However, the multi-modal characteristics of urban public transportation are largely under-exploited. In this paper, we propose an efficient and economical…
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Taxonomy
TopicsTransportation and Mobility Innovations · Transportation Planning and Optimization · Smart Parking Systems Research
