| Citation: | LIU Xiaobo, DONG Ni, YAN Xuedong. Evolutionary Pathways, Key Challenges, and Future Prospects of Human-Centered Collaborative Autonomous Driving Systems[J]. Journal of Southwest Jiaotong University, 2026, 61(3): 656-672. doi: 10.3969/j.issn.0258-2724.20260022 |
With the development of autonomous driving systems, the increasingly prominent bottleneck of “long-tail scenarios” demonstrates that the technology-driven “automation substitution” approach lacks a complete definition of human roles, human-machine relationships, and system ethics. First, the evolutionary pathways of autonomous driving systems from “tool-based assistance” to “automation-led” and ultimately to “collaborative control” were traced, and the fundamental transformation of the human-machine relationship from one-way control to two-way collaboration was elucidated. Secondly, to address key challenges that restrict the improvement of collaborative efficiency, such as the establishment and maintenance of dynamic trust mechanisms, the real-time optimal allocation of control permissions, and the construction of two-way collaborative interaction paradigms, their inherent logic, influencing factors, and existing bottlenecks at the levels of cognitive mechanisms, control theory, and interaction design were expounded on. Finally, developing human state perception and modeling technologies based on multi-source fusion, exploring adaptive collaborative control architectures based on real-time evaluation, and realizing the interaction paradigm shift from “one-way notification” to “two-way collaboration” were systematically proposed, which refined the future development pathways of autonomous driving systems. Through a review of existing theories, technical routes, and application cases, systematic theoretical support and practical references are provided for promoting the development of understandable, trustworthy, and widely acceptable “human-centered collaborative” autonomous driving systems.
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