Modeling Microscopic Car-Following Strategy of Mixed Traffic to Identify Optimal Platoon Configurations for Multiobjective Decision-Making

Microscopic detail of complex vehicle interactions in mixed traffic, involving manual driving system (MDS) and automated driving system (ADS), is imperative in determining the extent of response by ADS vehicles in the connected automated vehicle (CAV) environment. In this context, this paper propose...

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Main Authors: Mudasser Seraj, Jiangchen Li, Zhijun Qiu
Format: Article
Language:English
Published: Wiley 2018-01-01
Series:Journal of Advanced Transportation
Online Access:http://dx.doi.org/10.1155/2018/7835010
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author Mudasser Seraj
Jiangchen Li
Zhijun Qiu
author_facet Mudasser Seraj
Jiangchen Li
Zhijun Qiu
author_sort Mudasser Seraj
collection DOAJ
description Microscopic detail of complex vehicle interactions in mixed traffic, involving manual driving system (MDS) and automated driving system (ADS), is imperative in determining the extent of response by ADS vehicles in the connected automated vehicle (CAV) environment. In this context, this paper proposes a naïve microscopic car-following strategy for a mixed traffic stream in CAV settings and specified shifts in traffic mobility, safety, and environmental features. Additionally, this study explores the influences of platoon properties (i.e., intra-platoon headway, inter-platoon headway, and maximum platoon length) on traffic stream characteristics. Different combinations of MDS and ADS vehicles are simulated in order to understand the variations of improvements induced by ADS vehicles in a traffic stream. Simulation results reveal that grouping ADS vehicles at the front of traffic stream to apply Cooperative Adaptive Cruise Control (CACC) based car-following model will generate maximum mobility benefits for upstream vehicles. Both mobility and environmental improvements can be realized by forming long, closely spaced ADS vehicles at the cost of reduced safety. To achieve balanced mobility, safety, and environmental advantages from mixed traffic environment, dynamically optimized platoon configurations should be determined at varying traffic conditions and ADS market penetrations.
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spelling doaj-art-09fda489a95e466cbba99dd5fa7f7cbc2025-02-03T01:25:59ZengWileyJournal of Advanced Transportation0197-67292042-31952018-01-01201810.1155/2018/78350107835010Modeling Microscopic Car-Following Strategy of Mixed Traffic to Identify Optimal Platoon Configurations for Multiobjective Decision-MakingMudasser Seraj0Jiangchen Li1Zhijun Qiu2Department of Civil and Environmental Engineering, University of Alberta, Edmonton, Alberta, CanadaDepartment of Civil and Environmental Engineering, University of Alberta, Edmonton, Alberta, CanadaDepartment of Civil and Environmental Engineering, University of Alberta, Edmonton, Alberta, CanadaMicroscopic detail of complex vehicle interactions in mixed traffic, involving manual driving system (MDS) and automated driving system (ADS), is imperative in determining the extent of response by ADS vehicles in the connected automated vehicle (CAV) environment. In this context, this paper proposes a naïve microscopic car-following strategy for a mixed traffic stream in CAV settings and specified shifts in traffic mobility, safety, and environmental features. Additionally, this study explores the influences of platoon properties (i.e., intra-platoon headway, inter-platoon headway, and maximum platoon length) on traffic stream characteristics. Different combinations of MDS and ADS vehicles are simulated in order to understand the variations of improvements induced by ADS vehicles in a traffic stream. Simulation results reveal that grouping ADS vehicles at the front of traffic stream to apply Cooperative Adaptive Cruise Control (CACC) based car-following model will generate maximum mobility benefits for upstream vehicles. Both mobility and environmental improvements can be realized by forming long, closely spaced ADS vehicles at the cost of reduced safety. To achieve balanced mobility, safety, and environmental advantages from mixed traffic environment, dynamically optimized platoon configurations should be determined at varying traffic conditions and ADS market penetrations.http://dx.doi.org/10.1155/2018/7835010
spellingShingle Mudasser Seraj
Jiangchen Li
Zhijun Qiu
Modeling Microscopic Car-Following Strategy of Mixed Traffic to Identify Optimal Platoon Configurations for Multiobjective Decision-Making
Journal of Advanced Transportation
title Modeling Microscopic Car-Following Strategy of Mixed Traffic to Identify Optimal Platoon Configurations for Multiobjective Decision-Making
title_full Modeling Microscopic Car-Following Strategy of Mixed Traffic to Identify Optimal Platoon Configurations for Multiobjective Decision-Making
title_fullStr Modeling Microscopic Car-Following Strategy of Mixed Traffic to Identify Optimal Platoon Configurations for Multiobjective Decision-Making
title_full_unstemmed Modeling Microscopic Car-Following Strategy of Mixed Traffic to Identify Optimal Platoon Configurations for Multiobjective Decision-Making
title_short Modeling Microscopic Car-Following Strategy of Mixed Traffic to Identify Optimal Platoon Configurations for Multiobjective Decision-Making
title_sort modeling microscopic car following strategy of mixed traffic to identify optimal platoon configurations for multiobjective decision making
url http://dx.doi.org/10.1155/2018/7835010
work_keys_str_mv AT mudasserseraj modelingmicroscopiccarfollowingstrategyofmixedtraffictoidentifyoptimalplatoonconfigurationsformultiobjectivedecisionmaking
AT jiangchenli modelingmicroscopiccarfollowingstrategyofmixedtraffictoidentifyoptimalplatoonconfigurationsformultiobjectivedecisionmaking
AT zhijunqiu modelingmicroscopiccarfollowingstrategyofmixedtraffictoidentifyoptimalplatoonconfigurationsformultiobjectivedecisionmaking