Author:
Liu Minglei,Zhang Huizhen,Chen Youqing,Xie Hui,Pan Yubiao
Abstract
AbstractWith the increasing traffic congestion in cities, the priority of public transit has become a consensus for the development and management of urban transportation. The traffic pre-signal mechanism, which gives priority in time and space to buses by optimizing road right-of-way allocation, has gained wide attention and application. In order to broaden the action exploration range of the agent and avoid the pre-signal decision from falling into suboptimal strategy or local optimal strategy. For the exploration strategy of the DDQN algorithm, this paper reduces the probability of directly selecting the local optimal action and increases the probability of selecting non-greedy actions based on the principle that “the action with a larger value function is more likely to be selected.” This paper addresses the problem that the existing urban traffic pre-signal mechanism cannot adaptively adjust the advance time, and proposes a traffic pre-signal adaptive timing mechanism based on a Hybrid Exploration Strategy Double Deep Q Network (HES-DDQN) by combining the $$\epsilon $$
ϵ
-greedy strategy and Boltzmann strategy. We have used the traffic simulation software VISSIM to conduct simulation experiments on an intersection. The experimental results show that, compared with the method of setting no pre-signal and the formula method of setting pre-signal, the HES-DDQN pre-signal mechanism can significantly reduce the average delay of buses, the waiting queue length, and the number of stops of social vehicles.
Funder
Fujian Province Science and Technology Plan
National Natural Science Foundation of China
Publisher
Springer Science and Business Media LLC
Subject
Computational Mathematics,Engineering (miscellaneous),Information Systems,Artificial Intelligence
Reference41 articles.
1. Seredynski M, Laskaris G, Viti F (2019) Analysis of cooperative bus priority at traffic signals. IEEE Trans Intell Transp Syst 21(5):1929–1940
2. Gu W, Mei Y, Chen H, Xuan Y, Luo X (2021) An integrated intersection design for promoting bus and car traffic. Transp Res Part C: Emerg Technol 128:103211
3. Anderson P, Daganzo CF (2020) Effect of transit signal priority on bus service reliability. Transp Res Part B: Methodol 132:2–14
4. Russo A, Adler MW, van Ommeren JN (2022) Dedicated bus lanes, bus speed and traffic congestion in rome. Transp Res Part A: Policy Pract 160:298–310
5. Seman LO, Koehler LA, Camponogara E, Kraus W Jr (2020) Integrated headway and bus priority control in transit corridors with bidirectional lane segments. Transp Res Part C: Emerg Technol 111:114–134
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