In modern transportation systems, eco-driving aims to reduce fuel consumption and emissions while maintaining traffic efficiency and safety. Existing eco-driving methods at signalized intersections often rely on accurately prescribed arrival times, which are difficult to obtain in mixed traffic due to the motion uncertainty of human-driven vehicles (HVs) and the variability of traffic-light phases. Moreover, the interaction between connected and automated vehicles (CAVs) and surrounding HVs is often insufficiently modeled in existing approaches. To address these challenges, this paper proposes a potential-game-based eco-driving framework for mixed platoons at signalized intersections. The proposed method employs an artificial potential field (APF) within a recedinghorizon control architecture to optimize the trajectories of CAVs online, while incorporating predicted HV motion as interactive information. The resulting multi-CAV coordination problem is reformulated as an exact potential game, for which the existence of a pure-strategy Nash equilibrium is established, and local minimizers of the induced potential function correspond to local Nash equilibria. Extensive simulation results demonstrate that the proposed framework effectively reduces delay, idling time, and fuel consumption, while enabling smooth and adaptive intersection crossing under dynamic traffic-light conditions.
Simulation experiments demonstrate that the proposed joint optimization model effectively reduces delays across most movements even at low CAV penetration rates, and as the CAV penetration rate increases, consistent and more pronounced reductions in both delay and energy consumption are observed for all movements.
Results indicate that the proposed V2I2V cooperative system provides robust and scalable performance at smart intersections by using digital twins deployed on roadside units to eliminate blind spots and centrally coordinate connected and automated vehicles in smart intersections.
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Cooperative traffic control at signalized intersections must accommodate human-driven vehicles (HDVs) and connected and automated vehicles (CAVs) with heterogeneous cooperation capabilities while meeting roadside real-time constraints. This study develops a prediction-guided, distributed signal–trajectory coordination...
Adaptive signal control is developed that embeds pedestrian conflict risk directly in the optimization objective rather than through heuristic constraints or phase restrictions and achieves competitive travel times and a more favorable efficiency–safety trade-off than fixed-time control.
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At autonomous intersections in mixed traffic, where Connected and Autonomous Vehicles (CAVs) coexist with Human-Driven Vehicles (HDVs), scheduling must remain effective even when a reliable explicit HDV turning intention is not available sufficiently early for the scheduling decision. This paper proposes a learning-bas...
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This paper proposes integrating a Large Language Model (LLM) into signal control: roadside devices perceive traffic states, prompt engineering is constructed, and the LLM is driven to reason and generate control signals, on this basis, a CAV speed guidance algorithm is proposed.
Jun-Yao Lin, Yi-Cai Zhang, Tao Wang· Systems· 0 citations
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