Aug 2026· Mathematical and Computational Applications· Vol 31, pp. 151· 0 citations· 21 references
TL;DR
A hybrid reinforcement learning approach for traffic signal control that combines the complementary learning mechanisms of Q-learning, SARSA, and Monte Carlo algorithms to improve both learning efficiency and control performance is proposed.
Abstract
Urban traffic congestion remains a major challenge for modern cities, requiring intelligent traffic signal control (TSC) strategies capable of adapting to dynamic traffic conditions. This paper proposes a hybrid reinforcement learning approach for traffic signal control that combines the complementary learning mechanisms of Q-learning, SARSA, and Monte Carlo algorithms to improve both learning efficiency and control performance. The proposed approach is implemented and evaluated using the Simulation of Urban MObility (SUMO) simulator on a realistic road network corresponding to the “Route de Sefrou” in Fez, Morocco. The traffic signal controller is trained through continuous interaction with the simulated environment and compared with the three individual reinforcement learning algorithms under identical experimental conditions. The experimental results demonstrate that the proposed hybrid approach provides more efficient traffic management, faster convergence, and greater learning stability than the individual algorithms. These findings demonstrate the potential of hybrid reinforcement learning as an effective solution for adaptive traffic signal control in realistic urban environments.
This study proposes a distributed traffic signal control framework built upon a Machine Learning (ML) paradigm utilizing Reinforcement Learning (RL), and demonstrates the effectiveness of the proposed approach, with vehicle queue lengths and average waiting times reduced by 35% on roads leading to the junctions, compar...
Results demonstrate the usefulness of deep reinforcement learning in the creation of intelligent and adaptive traffic signal control services in the city and prove the usefulness of computational feasibility and robustness even when the size of the network grows.
Manisha Aeri, K. Purohit, Lata Nautiyal et al.· Service Oriented Computing a...· 0 citations
A novel cooperative MARL-based approach for adaptive traffic signal control in multi-intersection networks that significantly outperforms existing methods in relation to average pheromone intensity, average noise emission, and average waiting time is proposed.
T. Haddad· Transportation Research Reco...· 0 citations
Traffic congestion in urban areas has become a significant challenge, particularly in developing countries such as Sri Lanka, where conventional fixed-time traffic signal systems are unable to adapt to dynamic traffic conditions. This research aimed to develop an adaptive traffic signal control system using reinforceme...
Ishini Charindi Dewamiththa, Kasun Chamika Priyadarshana, Sajan Hirusha Gunasekara et al.· Moratuwa Engineering Researc...· 0 citations
WMFLight (Weighted Mean Field multi-agent reinforcement learning-based traffic Light control method), a method that combines dynamic clustering and multi-agent mean field reinforcement learning to adapt to the dynamic changes of traffic flow is proposed.
Traffic signal control plays a critical role in mitigating congestion and improving urban mobility, particularly in multi-intersection networks where fixed-time strategies cannot adapt to fluctuating demand. Although reinforcement learning has shown strong potential for adaptive signal optimization, purely learning-bas...
Mohammed El Kaim Billah, Mohammed-Alamine El Houssaini, Abedelfettah Mabrouk et al.· Future Transportation· 0 citations
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