Human-guided continual learning for multifaceted improvement of self-driving vehicles

Today’s self-driving vehicles have achieved impressive driving capabilities, nonetheless, safety concerns arising from ambiguous traffic laws, rare long-tail events, etc., still pose a significant challenge to their practical deployment. Therefore, human drivers are necessitated to take over in certain cases. Here, we present a human-guided continual learning method that leverages these human guidance data to continually improve self-driving performance, thereby enabling better handling of similar cases in the future. Our technique facilitates performance improvement by merely using the new data collected during driving, without requiring lengthy re-training from scratch. We evaluate the proposed technology through both simulations and real-world experiments, showing that it enables continual improvement by incrementally acquiring small amounts of human guidance. After each learning stage, the updated policy matches or outperforms the previous self-driving policy in terms of social compliance, rare case handling, etc. These findings highlight the potential of this technology to continually improve self-driving vehicles across multiple dimensions and to support broader human-in-the-loop autonomous systems. This study presents a human-guided continual learning method that leverages small amounts of driving guidance to incrementally improve self-driving performance across multiple dimensions, such as social compliance and rare case handling.

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Publication Details

Journal
Nature Communications
Published
2026-09-05
DOI
https://doi.org/10.1038/s41467-026-77370-x
Primary Topic
Autonomous Vehicle Technology and Safety
Type
article
Field-Weighted Citation Impact
0.00

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article

Human-guided continual learning for multifaceted improvement of self-driving vehicles

Chaoyue Chen, Haohan Yang, Yi Zhou, Chen Lv et al.
Nature Communications
Autonomous Vehicle Technology and Safety
article

Human-guided continual learning for multifaceted improvement of self-driving vehicles

Chaoyue Chen, Haohan Yang, Yi Zhou, Chen Lv, Haochen Liu, Xiaosong Hu
article en

Abstract

Today’s self-driving vehicles have achieved impressive driving capabilities, nonetheless, safety concerns arising from ambiguous traffic laws, rare long-tail events, etc., still pose a significant challenge to their practical deployment. Therefore, human drivers are necessitated to take over in certain cases. Here, we present a human-guided continual learning method that leverages these human guidance data to continually improve self-driving performance, thereby enabling better handling of similar cases in the future. Our technique facilitates performance improvement by merely using the new data collected during driving, without requiring lengthy re-training from scratch. We evaluate the proposed technology through both simulations and real-world experiments, showing that it enables continual improvement by incrementally acquiring small amounts of human guidance. After each learning stage, the updated policy matches or outperforms the previous self-driving policy in terms of social compliance, rare case handling, etc. These findings highlight the potential of this technology to continually improve self-driving vehicles across multiple dimensions and to support broader human-in-the-loop autonomous systems. This study presents a human-guided continual learning method that leverages small amounts of driving guidance to incrementally improve self-driving performance across multiple dimensions, such as social compliance and rare case handling.

Nature Communications
Chongqing University (CN), Nanyang Technological University (SG)
Agency for Science, Technology and Research, National Natural Science Foundation of China, Ministry of Education, India
Peace, Justice and strong institutions
Openalex Percentile: Top 18%
Autonomous Vehicle Technology and Safety
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