ATHENA - Autonomous Vehicle Trajectory Planning Considered Human Action Awareness

Large language models have brought revolutionary changes to autonomous driving algorithms, ushering them into the era of multimodality. However, existing vehicle trajectory planning methods primarily focus on obstacle avoidance in autonomous driving scenarios, overlooking interactions with entities within the scene, such as humans. In this letter, we propose a new research direction: vehicle trajectory planning that takes into account human actions. We establish ATHENA, the first autonomous driving dataset that integrates multimodal human actions, comprising 33,855 scenarios. Each scenario contains status information about ego vehicle, as well as pedestrian actions that actively or passively interact with the vehicle, such as signaling the vehicle to proceed by waving and the unexpected falls by pedestrians that force the vehicle to stop. Based on each type of interaction, ATHENA also provides the corresponding driving suggestions and the reasons behind them. Moreover, we present an LLM-based baseline that consists of two agents: the Action Understanding Agent and the Vehicle Control Agent. Our baseline implements the generation of driving recommendations and vehicle control functions, which are guided by pedestrian actions. Experiments demonstrate the effectiveness and strong performance of our method. Our dataset and code will be publicly available at https://github.com/dogooooo/ATHENA.

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Publication Details

Journal
IEEE Signal Processing Letters
Published
2025-01-01
DOI
https://doi.org/10.1109/lsp.2025.3559832
Citations
1
Primary Topic
Autonomous Vehicle Technology and Safety
Type
article
Field-Weighted Citation Impact
0.68
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ATHENA - Autonomous Vehicle Trajectory Planning Considered Human Action Awareness

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IEEE Signal Processing Letters
Autonomous Vehicle Technology and Safety
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article

ATHENA - Autonomous Vehicle Trajectory Planning Considered Human Action Awareness

Jinghao Cao, Sidan Du, Yang Li, Sheng Liu, Chaofan Wu
article en
1 citations

Abstract

Large language models have brought revolutionary changes to autonomous driving algorithms, ushering them into the era of multimodality. However, existing vehicle trajectory planning methods primarily focus on obstacle avoidance in autonomous driving scenarios, overlooking interactions with entities within the scene, such as humans. In this letter, we propose a new research direction: vehicle trajectory planning that takes into account human actions. We establish ATHENA, the first autonomous driving dataset that integrates multimodal human actions, comprising 33,855 scenarios. Each scenario contains status information about ego vehicle, as well as pedestrian actions that actively or passively interact with the vehicle, such as signaling the vehicle to proceed by waving and the unexpected falls by pedestrians that force the vehicle to stop. Based on each type of interaction, ATHENA also provides the corresponding driving suggestions and the reasons behind them. Moreover, we present an LLM-based baseline that consists of two agents: the Action Understanding Agent and the Vehicle Control Agent. Our baseline implements the generation of driving recommendations and vehicle control functions, which are guided by pedestrian actions. Experiments demonstrate the effectiveness and strong performance of our method. Our dataset and code will be publicly available at https://github.com/dogooooo/ATHENA.

IEEE Signal Processing LettersVol. 32
Nanjing University (CN)
Openalex Percentile: Top 32%
Autonomous Vehicle Technology and Safety
0.68
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