Aug 2026· IEEE transactions on intelligent transportation systems (Print)· Vol 27, pp. 10353-10360· 0 citations· 52 references
Computer Science
Abstract
As autonomous driving systems advance beyond Level 3, traditional unidimensional evaluation methodologies are proving insufficient. A critical need exists for a reliable and trustworthy evaluation framework that aligns with human subjective judgment. Current approaches, however, often lack consensus on the relative importance of key performance dimensions and fail to capture how these evaluation priorities shift under varying scenario complexities. To address these gaps, a novel human-centered autonomous driving intelligence evaluation model, termed the Subjective-Objective Mapping Model (SOMM), is proposed. An evaluation index system is first established through the Delphi method, comprising five performance dimensions (safety, efficiency, comfort, regulatory compliance, traffic coordination) and one scenario dimension (scenario complexity). The SOMM is developed to map objective vehicle metrics onto subjective evaluation scores, demonstrating high predictive accuracy. Weight analysis quantifies the relative importance of performance dimensions, identifying safety and efficiency as the dominant factors in overall intelligence. Furthermore, a sensitivity analysis confirms that evaluation priorities are highly dynamic and scenario-dependent, shifting from traffic coordination and compliance in simple scenarios to safety and efficiency in complex environments. The proposed SOMM provides an accurate, interpretable, and dynamic evaluation framework that effectively quantifies autonomous driving intelligence by aligning it with human-centered criteria.
Autonomous vehicles (AVs) have significantly advanced in real-world deployment in recent years, yet safety continues to be a critical barrier to widespread adoption. Traditional functional safety approaches, which primarily verify the reliability, robustness, and adequacy of AV hardware and software systems from a vehi...
Henry X. Liu, Xin-Tao Yan, Hao-Wei Sun et al.· arXiv.org· 6 citations
The Proxy-to-Decision Transfer (PDT) Framework is proposed, an analysis framework that evaluates when learned future information supports a reliable driving-performance improvement claim, and identifies where decision transfer fails or remains indeterminate across proxy, subset, aggregate, and selection evidence.
Advanced Driver Assistance Systems (ADAS) play an increasingly important role in intelligent transportation systems. However, under partial automation conditions, the safety of human–vehicle collaboration is jointly influenced by system perception, driver behavior, vehicle execution, and road environment. Traditional A...
This review examines factors, methodologies, and evaluation techniques for passenger comfort in autonomous vehicles (AVs). Current research in this area is often fragmented and inappropriately extrapolates methodologies from traditional vehicle studies without accounting for the unique constraints of driverless travel,...
Liu Yang, Xin Zhang, Hui Zhang et al.· Ergonomics· 0 citations
Before autonomous driving systems can be deployed on public roads, it is vital that these systems comply with safety standards, traffic rules, and social norms. Although neural networks trained on large amounts of driving data perform well in routine driving tasks, these models often struggle in novel situations that a...
Simon Janssen, Michiel Braat, C. van der Ploeg et al.· 0 citations
As automated vehicles (AVs) transition towards Levels 3 and 4 of automation, their Operational Design Domain (ODD) inevitably expands. Consequently, the assessment of scenario complexity has emerged as a critical prerequisite for delineating the performance boundaries of AVs, facilitating critical functions such as eme...
Zi-Yang Wang, Chen Chen· 2026 14th International Conf...· 0 citations
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