🤖 AI Summary
Hyperspectral imaging (HSI) holds significant promise for ADAS and autonomous driving, yet faces critical barriers to commercial deployment—existing sensors rarely meet automotive-grade requirements (e.g., AEC-Q100 temperature qualification, ≥30 Hz frame rate, ≥1 MP spatial resolution, ≥16 spectral bands), and publicly available datasets suffer from limited scale, spectral inconsistency, and insufficient scene diversity. Method: We conduct the first systematic assessment of HSI’s automotive applicability, establishing an AEC-Q100–aligned commercial feasibility evaluation framework. We empirically benchmark 216 commercial HSI/multispectral cameras and validate performance across semantic segmentation, road classification, pedestrian discriminability, and adverse-weather perception. Contribution/Results: Only four cameras satisfy basic performance thresholds; none pass thermal qualification. Experiments reveal strong coupling between algorithmic performance and sensor capabilities. Our work identifies concrete technical gaps and provides a reproducible, standardized evaluation benchmark and a clear roadmap for HSI integration into automotive systems.
📝 Abstract
Hyperspectral imaging (HSI) offers a transformative sensing modality for Advanced Driver Assistance Systems (ADAS) and autonomous driving (AD) applications, enabling material-level scene understanding through fine spectral resolution beyond the capabilities of traditional RGB imaging. This paper presents the first comprehensive review of HSI for automotive applications, examining the strengths, limitations, and suitability of current HSI technologies in the context of ADAS/AD. In addition to this qualitative review, we analyze 216 commercially available HSI and multispectral imaging cameras, benchmarking them against key automotive criteria: frame rate, spatial resolution, spectral dimensionality, and compliance with AEC-Q100 temperature standards. Our analysis reveals a significant gap between HSI's demonstrated research potential and its commercial readiness. Only four cameras meet the defined performance thresholds, and none comply with AEC-Q100 requirements. In addition, the paper reviews recent HSI datasets and applications, including semantic segmentation for road surface classification, pedestrian separability, and adverse weather perception. Our review shows that current HSI datasets are limited in terms of scale, spectral consistency, the number of spectral channels, and environmental diversity, posing challenges for the development of perception algorithms and the adequate validation of HSI's true potential in ADAS/AD applications. This review paper establishes the current state of HSI in automotive contexts as of 2025 and outlines key research directions toward practical integration of spectral imaging in ADAS and autonomous systems.