Dynamic Time-Division Multiplexing Control Method for Emergency Lane Opening on Freeways

To address the issue that static strategies, such as frequent closure or fixed-time opening, in emergency lane management on freeways struggle to adapt to dynamic traffic demands, a control method for Dynamic Time-Division Multiplexing of Emergency Lanes (DTMEL) is proposed. Based on real-time changes in the traffic status of social vehicles and emergency vehicles, the method designs a dynamic time slice division strategy to achieve dynamic response in road right allocation and ensure the priority of emergency vehicle. By constructing a dynamic spatial slice model that integrates driver decision-making behavior and different car-truck ratios, it provides a quantitative design basis for lane usage under the heterogeneity of social vehicles. Simulation experimental results show that in different car-truck ratios, the average speed of social vehicles under the DTMEL control method is 8.16–15.02% higher than that under the frequent closure strategy of emergency lanes and 2.15–3.29% higher than that under the fully open strategy control. In addition, compared to the fully opening strategy, the traffic capacity under DTMEL strategy control has increased by about 6.59–8.08%. The proposed method reduced the delay rate of emergency vehicles, verifying its feasibility in improving freeway operation efficiency and ensuring the priority of emergency vehicles.

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Publication Details

Journal
Applied Sciences
Published
2026-05-01
DOI
https://doi.org/10.3390/app16094441
Primary Topic
Traffic control and management
Type
article
Field-Weighted Citation Impact
0.00

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article

Dynamic Time-Division Multiplexing Control Method for Emergency Lane Opening on Freeways

Yini She, Yibing Wang, Linning Zhong, Pengjun Zheng et al.
Applied Sciences
Traffic control and management
article

Dynamic Time-Division Multiplexing Control Method for Emergency Lane Opening on Freeways

Yini She, Yibing Wang, Linning Zhong, Pengjun Zheng, Hongzhao Dong
article en

Abstract

To address the issue that static strategies, such as frequent closure or fixed-time opening, in emergency lane management on freeways struggle to adapt to dynamic traffic demands, a control method for Dynamic Time-Division Multiplexing of Emergency Lanes (DTMEL) is proposed. Based on real-time changes in the traffic status of social vehicles and emergency vehicles, the method designs a dynamic time slice division strategy to achieve dynamic response in road right allocation and ensure the priority of emergency vehicle. By constructing a dynamic spatial slice model that integrates driver decision-making behavior and different car-truck ratios, it provides a quantitative design basis for lane usage under the heterogeneity of social vehicles. Simulation experimental results show that in different car-truck ratios, the average speed of social vehicles under the DTMEL control method is 8.16–15.02% higher than that under the frequent closure strategy of emergency lanes and 2.15–3.29% higher than that under the fully open strategy control. In addition, compared to the fully opening strategy, the traffic capacity under DTMEL strategy control has increased by about 6.59–8.08%. The proposed method reduced the delay rate of emergency vehicles, verifying its feasibility in improving freeway operation efficiency and ensuring the priority of emergency vehicles.

Applied SciencesVol. 16(9)
Ningbo University (CN), Zhejiang University of Technology (CN), Zhejiang University (CN)
National Natural Science Foundation of China, Natural Science Foundation of Zhejiang Province
Peace, Justice and strong institutions
Openalex Percentile: Top 7%
Traffic control and management
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