Introducing the vehicle-infrastructure cooperative control system by quantifying the benefits for the scenario of signalized intersections

IF 6.8 1区 工程技术 Q1 ECONOMICS Transportation Research Part A-Policy and Practice Pub Date : 2025-02-01 Epub Date: 2025-01-22 DOI:10.1016/j.tra.2025.104378
Xianing Wang , Linjun Lu , Zhan Zhang , Ying Wang , Haoming Li
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Abstract

The vehicle-infrastructure cooperative control system (VICCS) leverages autonomous driving technology and interactive communication between vehicles and infrastructure to maximize system-wide benefits. As this technology emerges, a thorough socio-economic evaluation is essential to substantiate its utility. Analyzing comparisons with traditional systems will assist in adopting this innovative technology. This paper quantifies the potential benefits of the VICCS through several steps: defines the application scenarios of VICCS, models the behavioral control of vehicles and traffic signals, simulates the system in mixed-autonomy traffic environments at signalized intersections, analyzes the operational performance and service levels of VICCS, and evaluates the costs and benefits for the private and public sectors. This study employs a technical framework for VICCS that integrates deep reinforcement learning (DRL) methods to optimize vehicle speed and dynamic traffic signal control. The DRL approach is crafted to forecast the system’s performance and level of intelligence in prospective settings more accurately. The findings reveal that the anticipated VICCS will confer considerable benefits, including enhanced safety, operational efficiency, and environmental sustainability, at a cost to be incurred compared to existing systems. This will result in an annual economic gain of at least CNY10,000 (the difference between the expenditure and the gain) for the private and public sectors. This paper provides policy recommendations to support the strategic deployment of VICCS, informing stakeholders of the practical implications and facilitating the traffic system’s integration into advanced mechanisms.
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通过量化信号交叉口场景下的效益,介绍了车辆-基础设施协同控制系统
车辆-基础设施协同控制系统(VICCS)利用自动驾驶技术和车辆与基础设施之间的交互通信来最大化整个系统的效益。随着这项技术的出现,对其效用进行彻底的社会经济评价是必不可少的。分析与传统系统的比较将有助于采用这项创新技术。本文通过以下几个步骤量化VICCS的潜在效益:定义VICCS的应用场景,建立车辆和交通信号的行为控制模型,模拟信号交叉口混合自主交通环境下的系统,分析VICCS的运行性能和服务水平,评估私营部门和公共部门的成本和效益。本研究采用了一种集成了深度强化学习(DRL)方法的VICCS技术框架来优化车速和动态交通信号控制。DRL方法旨在更准确地预测系统在未来环境中的性能和智能水平。研究结果表明,与现有系统相比,预期的VICCS将带来相当大的好处,包括提高安全性、操作效率和环境可持续性,但成本要低。这将为私营和公共部门带来每年至少人民币10,000元的经济收益(支出与收益之间的差额)。本文提供了政策建议,以支持VICCS的战略部署,告知利益相关者实际影响,并促进交通系统与先进机制的整合。
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来源期刊
CiteScore
13.20
自引率
7.80%
发文量
257
审稿时长
9.8 months
期刊介绍: Transportation Research: Part A contains papers of general interest in all passenger and freight transportation modes: policy analysis, formulation and evaluation; planning; interaction with the political, socioeconomic and physical environment; design, management and evaluation of transportation systems. Topics are approached from any discipline or perspective: economics, engineering, sociology, psychology, etc. Case studies, survey and expository papers are included, as are articles which contribute to unification of the field, or to an understanding of the comparative aspects of different systems. Papers which assess the scope for technological innovation within a social or political framework are also published. The journal is international, and places equal emphasis on the problems of industrialized and non-industrialized regions. Part A''s aims and scope are complementary to Transportation Research Part B: Methodological, Part C: Emerging Technologies and Part D: Transport and Environment. Part E: Logistics and Transportation Review. Part F: Traffic Psychology and Behaviour. The complete set forms the most cohesive and comprehensive reference of current research in transportation science.
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