Preemptive-Level-Based Cooperative Autonomous Vehicle Trajectory Optimization for Unsignalized Intersection with Mixed Traffic DOI Open Access

Pengrui Li,

Miaomiao Liu,

Mingyue Zhu

et al.

Electronics, Journal Year: 2024, Volume and Issue: 14(1), P. 71 - 71

Published: Dec. 27, 2024

Buses constitute a crucial component of public transportation systems in numerous urban centers. Integrating autonomous driving technology into the bus ecosystem has potential to enhance overall mobility. The management mixed traffic at intersections, involving both private vehicles and buses, particularly presence lanes, presents several formidable challenges. This study proposes preemptive-level-based cooperative vehicle (AV) trajectory optimization for intersections with traffic. It takes account dynamic changes intersection’s passing sequence, selection, adherence regulations, including different status lanes. Based on spatio–temporal coupling constraints each AV order method is proposed. Subsequently, speed control mechanism introduced decouple these constraints, thereby preventing conflicts reducing unnecessary braking. Ultimately, routes multi-exit roads are selected, prioritizing efficiency. In simulated validations, two representative types from actual road network were eight typical scenarios established, operation lanes percentages buses. results indicate that proposed improves intersection efficiency by minimum 12.55%, accompanied significantly reduction fuel consumption 8.93%. verified enhances reduces energy while ensuring safety.

Language: Английский

How would autonomous vehicles behave in real-world crash scenarios? DOI
Rui Zhou, Guoqing Zhang, Helai Huang

et al.

Accident Analysis & Prevention, Journal Year: 2024, Volume and Issue: 202, P. 107572 - 107572

Published: April 23, 2024

Language: Английский

Citations

11

“It’s just another car driving” − Perceptions of U.S. residents interacting with driverless automated vehicles on public roads DOI Creative Commons
Sina Nordhoff, Marjan Hagenzieker, Yee Mun Lee

et al.

Transportation Research Part F Traffic Psychology and Behaviour, Journal Year: 2025, Volume and Issue: 111, P. 188 - 210

Published: March 11, 2025

Language: Английский

Citations

1

A Survey on Recent Advancements in Autonomous Driving Using Deep Reinforcement Learning: Applications, Challenges, and Solutions DOI
Rui Zhao, Yun Li, Yuze Fan

et al.

IEEE Transactions on Intelligent Transportation Systems, Journal Year: 2024, Volume and Issue: 25(12), P. 19365 - 19398

Published: Sept. 18, 2024

Language: Английский

Citations

6

Ar2g-Airl: A Context-Adaptive Game-Inverse Reinforcement Learning Algorithm for Modeling Pedestrian-Vehicle Interaction Considering Group Behaviors DOI
Hao He, Enjian Yao, Rongsheng Chen

et al.

Published: Jan. 1, 2025

Language: Английский

Citations

0

Modelling the impact of risky cut-in and cut-out manoeuvers on traffic platooning safety with predictability and explainability DOI
Qiangqiang Shangguan, Junhua Wang, Cailin Lei

et al.

Transportmetrica A Transport Science, Journal Year: 2025, Volume and Issue: unknown, P. 1 - 26

Published: March 14, 2025

Language: Английский

Citations

0

Advances and applications in inverse reinforcement learning: a comprehensive review DOI Creative Commons
Saurabh Deshpande, Rahee Walambe, Ketan Kotecha

et al.

Neural Computing and Applications, Journal Year: 2025, Volume and Issue: unknown

Published: March 26, 2025

Language: Английский

Citations

0

Generating risky and realistic scenarios for autonomous vehicle tests involving powered two-wheelers: A novel reinforcement learning framework DOI
Zhiyuan Wei, Jiang Bian, Helai Huang

et al.

Accident Analysis & Prevention, Journal Year: 2025, Volume and Issue: 218, P. 108038 - 108038

Published: May 9, 2025

Language: Английский

Citations

0

Social interactions between automated vehicles and human drivers: a narrative review DOI
Peng Liu

Ergonomics, Journal Year: 2024, Volume and Issue: unknown, P. 1 - 20

Published: Dec. 3, 2024

Roads are social spaces where human road users engage in communication, cooperation, and competition. With the introduction of automated vehicles (AVs) into this space, it becomes crucial to understand human-AV interactions. This narrative review examines current research emerging field, synthesising insights from empirical studies that compare human-human interactions (regular traffic) with (mixed traffic). We reviewed using survey experiments, simulator test-track on-road observations, AV accident analysis. They present mixed evidence on influences traffic, an overall negative trend. Negative bi-directional: humans may interact AVs less cautiously, such as driving more aggressively or exploiting AVs, while can induce changes driver behaviours, including exerting peer creating challenges for drivers. develop a typology problematic highlight outstanding opportunities.

Language: Английский

Citations

2

How do Automated Vehicles Influence Other Road Users and Sometimes Elicit Uncivil Behaviors? DOI
Jean-Baptiste Haué, Gaëtan Merlhiot

Published: Sept. 11, 2024

Language: Английский

Citations

1

Autonomous road hazard detection and avoidance system using deep reinforcement learning for intelligent vehicles DOI

S Swathi,

Saranya Vinayagam,

J. S. Sujin

et al.

E-Learning and Digital Media, Journal Year: 2024, Volume and Issue: unknown

Published: Oct. 17, 2024

Road hazards significantly contribute to fatalities in traffic accidents. As the number of vehicles on road increases, risk accidents rises, especially under adverse weather conditions that impair visibility and conditions. In such scenarios, it is crucial alert approaching prevent further collisions. Detecting humans or animals essential minimize Accurate detection estimation are vital for ensuring safety enhancing driving experience. Current deep learning methods condition monitoring often time-consuming, costly, inefficient, labor-intensive, require frequent updates. Therefore, there pressing need more flexible, cost-effective, efficient process detect conditions, particularly hazards. this work, we present a hazard avoidance system autonomous using reinforcement (DRL) address congestion issues complex We utilize GoogLeNet feature extraction, which extracts features from given images. Subsequently, design modified compact snake optimization (MCSO) algorithm optimization, addressing data dimensionality issues. Additionally, introduce geometric (GDRL) tracking environments, improving accuracy robustness visual detection. The proposed MCSO + GDRL model validated self-made open access dataset with 5607 samples car recorders KITTI training.

Language: Английский

Citations

0