Analysis of the Impact for Mixed Traffic Flow Based on the Time-Varying Model Predictive Control

The connected and automated vehicles (CAV) smoothing mixed traffic flow has gained attention, and a thorough assessment of these control algorithms is necessary. Our previous research proposed the time-varying model predictive control (TV-MPC) strategy, which considers the time-varying driving style of human driven vehicles (HDV), performing better than current baseline models. Due TV-MPC can be applied to any traffic congestion scenario and the dynamic modeling that considers driving style, can be easily transferred to other control algorithms. Thus, TV-MPC enable to represent typical control algorithms in mixed traffic flow. This study investigates the performance of TV-MPC under diverse disturbance characteristics and mixed platoons. Firstly, quantifying mixed traffic flow with different CAV penetration rates and platooning intensities by a Markov chain model. Secondly, by constructing evaluation indicators for micro-level operation of mixed traffic flow, this paper analyzed the impact of TV-MPC on the operation of mixed traffic flow through simulation. The results demonstrate that (1) CAV achieve optimal control at specific positions within mixed traffic flow; (2) higher CAV penetration enhances TV-MPC performance; (3) dispersed CAV distributions improve control effectiveness; and (4) TV-MPC excels in scenarios with significant disturbances.

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Institutions

Publication Details

Journal
Systems
Published
2025-06-17
DOI
https://doi.org/10.3390/systems13060481
Citations
3
Primary Topic
Traffic control and management
Type
article
Field-Weighted Citation Impact
3.64

Funders

Controls
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article

Analysis of the Impact for Mixed Traffic Flow Based on the Time-Varying Model Predictive Control

Rongjun Cheng, Qi Wei, Haoli Lou
3 citations
Systems
Traffic control and management
3.64
article

Analysis of the Impact for Mixed Traffic Flow Based on the Time-Varying Model Predictive Control

Rongjun Cheng, Qi Wei, Haoli Lou
article en
3 citations

Abstract

The connected and automated vehicles (CAV) smoothing mixed traffic flow has gained attention, and a thorough assessment of these control algorithms is necessary. Our previous research proposed the time-varying model predictive control (TV-MPC) strategy, which considers the time-varying driving style of human driven vehicles (HDV), performing better than current baseline models. Due TV-MPC can be applied to any traffic congestion scenario and the dynamic modeling that considers driving style, can be easily transferred to other control algorithms. Thus, TV-MPC enable to represent typical control algorithms in mixed traffic flow. This study investigates the performance of TV-MPC under diverse disturbance characteristics and mixed platoons. Firstly, quantifying mixed traffic flow with different CAV penetration rates and platooning intensities by a Markov chain model. Secondly, by constructing evaluation indicators for micro-level operation of mixed traffic flow, this paper analyzed the impact of TV-MPC on the operation of mixed traffic flow through simulation. The results demonstrate that (1) CAV achieve optimal control at specific positions within mixed traffic flow; (2) higher CAV penetration enhances TV-MPC performance; (3) dispersed CAV distributions improve control effectiveness; and (4) TV-MPC excels in scenarios with significant disturbances.

SystemsVol. 13(6)
Ningbo University (CN)
National Natural Science Foundation of China, Natural Science Foundation of Ningbo
Openalex Percentile: Top 7%
Traffic control and management
3.64
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