用回归最小化学习法模拟错开上班时间的高峰期公交通勤行为

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS
Shengjie Qiang, Qingxia Huang
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引用次数: 0

摘要

错时上下班(SWH)政策是一种管理出行需求的实用策略,旨在通过调整乘客的活动时间表来分散出行量的时间分布。目前尚不清楚错时上下班政策对公交乘客通勤模式的影响。我们在多对一公交线路中解决了这一问题,将乘客视为 Q 学习代理,学习如何通过选择合适的公交车运行来尽量减少遗憾。学习结果显示了 SWH 诱导的均衡,即无论选择哪路公交车,从同一车站、同一上班时间出发的乘客都会经历相同的最小通勤成本。随后,我们通过操纵两个关键控制变量(两类乘客出行需求的划分和错开的时间间隔)来研究 SWH 政策的有效性。结果证实,通过仔细选择上述两个关键参数,有可能缓解高峰时段的拥堵问题。相应地,我们为这两个参数提供了最佳控制边界,从而设计出有效的 SWH 政策。此外,我们还探讨了在流行病爆发期间,物理距离和 SWH 政策对交通流模式的综合影响。同时,我们还通过代用指数评估了感染风险,结果表明 SWH 政策在降低接触风险方面具有积极作用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Modeling the Peak-Period Bus Commuting Behavior with Staggered Work Hours Using a Regret-Minimizing Learning Method

The staggered work hours (SWH) policy is a practical strategy for managing travel demand, aiming to spread out the temporal distribution of travel volume by adjusting the schedules of travelers’ activities. The influence of the SWH policy on the commuting patterns of passengers using bus transit is not yet clear. We addressed this issue in a many-to-one bus line, treating commuters as Q-learning agents learning to minimize regrets by selecting appropriate bus runs. The learning outcomes reveal a SWH-induced equilibrium, where commuters departing from the same station with the same work start time experience identical minimal commuting costs, regardless of the chosen bus. Subsequently, we investigate the effectiveness of SWH policy by manipulating two key control variables: the division of travel demand between two categories of travelers and the staggered time interval. The results confirm that congestion during peak hours can potentially be mitigated by carefully selecting the above two key parameters. Correspondingly, we provide optimal control boundaries for these two parameters to design an effective SWH policy. Furthermore, we explore the combined impact of physical distancing and SWH policy on traffic flow patterns during an epidemic outbreak. Concurrently, we assess the infection risk through a surrogate index, revealing that the SWH policy has a positive effect in mitigating the risk of contact exposure.

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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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