Does the minimization of the average vehicle delay and the minimization of the average number of stops mean the same at the signalized intersections?

IF 4.3 Q2 TRANSPORTATION
Ziya Cakici , Goker Aksoy
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引用次数: 0

Abstract

Signal timings at signalized intersections are frequently optimized by considering commonly used vehicle delay models. It is generally believed that reducing the average number of stops can also decrease the average vehicle delay. Therefore, the aim of this research is to address the question: “Can similar performance outcomes be achieved through the Minimization of Average Vehicle Delay (MAVD) and the Minimization of Average Number of Stops (MANS)?” The first phase of the study entails the creation of two distinct signal timing optimization models based on the Akcelik average vehicle delay and average number of stops models. Subsequently, scripts were developed in MATLAB to identify the optimal signal timings for both approaches utilizing the Differential Evolution Algorithm. In the third phase, 30 traffic scenarios were generated, each varying in overall traffic volumes at the intersection. Subsequently, the signal timings derived from the MAVD and MANS approaches were applied independently to these scenarios, and performance indicators (average vehicle delay and average number of stops) were compared. The results reveal that the utilization of MANS-based signal timings instead of MAVD may lead to an increase in average vehicle delays of up to 113.55%. Additionally, it is demonstrated that when MAVD-based signal timings are applied instead of MANS, the average number of stops can increase by up to 16.28%. Finally, it is concluded that as the overall traffic volume at the intersection increases, these growth rates tend to decrease.

在信号灯控制的交叉路口,尽量减少平均车辆延误时间和尽量减少平均停车次数的含义是否相同?
信号交叉口的信号配时经常通过考虑常用的车辆延误模型进行优化。一般认为,减少平均停车次数也能减少平均车辆延误。因此,本研究旨在解决以下问题:"通过最大限度地减少平均车辆延误(MAVD)和最大限度地减少平均停车次数(MANS),能否实现类似的性能结果?研究的第一阶段需要在 Akcelik 平均车辆延误和平均停车次数模型的基础上创建两个不同的信号配时优化模型。随后,在 MATLAB 中开发脚本,利用差分进化算法确定两种方法的最佳信号配时。在第三阶段,生成了 30 种交通情景,每种情景下交叉口的总体交通流量各不相同。随后,将 MAVD 方法和 MANS 方法得出的信号配时分别应用于这些场景,并对性能指标(平均车辆延误时间和平均停车次数)进行比较。结果表明,使用基于 MANS 的信号配时代替 MAVD 可使平均车辆延误时间增加高达 113.55%。此外,结果表明,当使用基于 MAVD 的信号配时代替 MANS 时,平均停车次数最多可增加 16.28%。最后,得出的结论是,随着交叉口总体交通流量的增加,这些增长率趋于下降。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
International Journal of Transportation Science and Technology
International Journal of Transportation Science and Technology Engineering-Civil and Structural Engineering
CiteScore
7.20
自引率
0.00%
发文量
105
审稿时长
88 days
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