Traffic organization method for super-long tunnels adjacent to interchanges
|更新时间:2026-10-22
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Traffic organization method for super-long tunnels adjacent to interchanges
Vol. 53, Issue 3, Pages: 51-57(2021)
作者机构:
1. 1.道路与交通工程教育部重点实验室(同济大学),上海,201804
2. .道路交通安全公安部重点实验室 (公安部交通管理科学研究所),江苏,无锡,214151
3. Key Laboratory of Road Traffic Safety of the Ministry of Public Security (Traffic Management Research Institute of the Ministry of Public Security),Jiangsu,Wuxi,China,214151
MA Zhaoyou, FANG Shouen, LIU Shuo, et al. Traffic organization method for super-long tunnels adjacent to interchanges[J]. 2021, 53(3): 51-57.
DOI:
MA Zhaoyou, FANG Shouen, LIU Shuo, et al. Traffic organization method for super-long tunnels adjacent to interchanges[J]. 2021, 53(3): 51-57.DOI: 10.11918/202005091.
Traffic organization method for super-long tunnels adjacent to interchanges
To meet the objective demands of changing lanes in super-long tunnels adjacent to interchanges
and to solve the problems of lane control and length control in traffic organization
through the analysis of the critical safety status of anti-sideslip and anti-overturning
a model was established based on the minimum headway to calculate the minimum safe distance for lane changes in super-long tunnels or connection sections. Aiming at the requirement of double lane changes for three-lane one-way tunnels and above
in order to ensure a safe distance between front and rear vehicles for lane changes
a probability model was constructed for single and double lane changes to measure the success probability of safe lane changes in connection sections. Aided by the Vissim simulation technology
the analogy analysis of traffic organization methods and lane control methods of super-long tunnels was carried out. Considering the operating safety and traffic efficiency of super-long tunnels
the traffic organization methods could be selected based on the indicators of vehicle delay
lost time
average speed
and the number of lane changes
and the lane control methods could be selected based on the average delay per vehicle
the number of parking times per vehicle
vehicle density
delay ratio
and driving speed. Results show that the minimum distance of connection sections of super-long tunnels adjacent to interchanges should be checked for the minimum distance of safe lane changes
and the success probability of single and double lane changes should be measured based on the safe distance. For the connection sections which cannot meet the length requirements
the traffic organization method that the off-ramp vehicles complete the lane changes in the super-long tunnels is suggested.