Green Wave Arterial Cooperative Control Strategy Based on Through-Traffic Priority

Mainline coordinated control is usually based on fixed speed and statistical traffic flow by period. However, in actual operation, the vehicles parked in front of the intersection and the arriving vehicles often fluctuate, and the through-traffic green time is wasted due to phase transition, which l...

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Veröffentlicht in:Electronics (Basel) 2024-08, Vol.13 (15), p.2939
Hauptverfasser: Bao, Riyong, Huang, Wei, Lin, Yi, Lian, Peikun, Easa, Said M., Chen, Ning
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container_end_page
container_issue 15
container_start_page 2939
container_title Electronics (Basel)
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creator Bao, Riyong
Huang, Wei
Lin, Yi
Lian, Peikun
Easa, Said M.
Chen, Ning
description Mainline coordinated control is usually based on fixed speed and statistical traffic flow by period. However, in actual operation, the vehicles parked in front of the intersection and the arriving vehicles often fluctuate, and the through-traffic green time is wasted due to phase transition, which leads to mismatches between the signal plans and actual traffic flow requirements, affecting the traffic efficiency of the intersection. To address the above issues, using vehicle–road collaborative control (VRCC), by calculating the phase difference lead time and phase difference of adjacent intersections, the green extension time for the green wave through-traffic phase, and the guiding vehicle speed, the goal of reducing the detention volume of through traffic, reducing the waste of through-traffic green time caused by phase transitions and improving the throughput of through traffic can be achieved. The speed of the green wave traffic flow is increased by guiding vehicles to form saturated platoons during green periods. Finally, PTV VISSIM 4.3 was used for simulation verification, and the results showed that compared to not implementing the control strategy, the average delay on the arterial road was reduced by 85.1%, the average number of stops was reduced by 84.3%, the average travel time was reduced by 34%, and the average queue length was reduced by 62.6%. This significantly improved the efficiency of traffic on the arterial road and effectively reduced congestion.
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Finally, PTV VISSIM 4.3 was used for simulation verification, and the results showed that compared to not implementing the control strategy, the average delay on the arterial road was reduced by 85.1%, the average number of stops was reduced by 84.3%, the average travel time was reduced by 34%, and the average queue length was reduced by 62.6%. 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source Elektronische Zeitschriftenbibliothek - Frei zugängliche E-Journals; MDPI - Multidisciplinary Digital Publishing Institute
subjects Cooperative control
Efficiency
Energy consumption
Genetic algorithms
Lead time
Optimization
Phase shift
Phase transitions
Queuing theory
Roads & highways
Traffic congestion
Traffic control
Traffic flow
Traffic intersections
Traffic speed
Transportation planning
Travel time
Vehicles
title Green Wave Arterial Cooperative Control Strategy Based on Through-Traffic Priority
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