Quantifying Automotive Lidar System Uncertainty in Adverse Weather: Mathematical Models and Validation
Source abstract
Abstract
Lidar technology is a key sensor for autonomous driving due to its precise environmental perception. However, adverse weather and atmospheric conditions involving fog, rain, snow, dust, and smog can impair lidar performance, leading to potential safety risks. This paper introduces a comprehensive methodology to simulate lidar systems under such conditions and validate the results against real-world experiments. Existing empirical models for the extinction and backscattering of laser beams are analyzed, and new models are proposed for dust storms and smog, derived using Mie theory. These models are implemented in the CARLA simulator and evaluated using Robot Operating System 2 (ROS 2). The simulation methodology introduced allowed the authors to set up test experiments replicating real-world conditions, to validate the models against real-world data available in the literature, and to predict the performance of the lidar system in all weather conditions. This approach enables the development of virtual test scenarios for corner cases representing rare weather conditions to improve robustness and safety in autonomous systems.
Source: crossref · Quality: baseline
Research context
OpenAlex topics: Vehicle emissions and performance · Surface Roughness and Optical Measurements · Air Traffic Management and Optimization
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
Affiliations
School of Engineering, Faculty of Engineering and Digital Technologies, University of Bradford, Bradford BD7 1DP, UK
Valeo Schalter und Sensoren GmbH, D-74321 Bissingen, Germany
References (53)
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1. Fayyad, J., Jaradat, M.A., Gruyer, D., and Najjaran, H. (2020). Deep learning sensor fusion for autonomous vehicle perception and localization: A review. Sensors, 20.10.3390/s20154220 ↗
2. Favelli, S., Xie, M., and Tonoli, A. (2024). Sensor Fusion Method for Object Detection and Distance Estimation in Assisted Driving Applications. Sensors, 24.10.3390/s24247895 ↗
3. Volkswagen, A.G. (2021). VW 80000—Electrical and Electronic Units in Motor Vehicles Up to 3.5 t. General Requirements, Test Conditions and Tests, Volkswagen AG.
4. (2013). International Electrotechnical Commission. Environmental Testing-Part 1: General and Guidance (Standard No. IEC 60068-1).
5. (2018). Road vehicles—Functional safety—Part 1: Vocabulary (Standard No. ISO 26262-1:2018).
6. Bolte, J.A., Bar, A., Lipinski, D., and Fingscheidt, T. (2019, January 9–12). Towards corner case detection for autonomous driving. Proceedings of the IEEE Intelligent Vehicles Symposium, Proceedings, Paris, France.10.1109/IVS.2019.8813817 ↗
7. Bogdoll, D., Breitenstein, J., Heidecker, F., Bieshaar, M., Sick, B., Fingscheidt, T., and Zöllner, J.M. (2021, January 11–17). Description of Corner Cases in Automated Driving: Goals and Challenges. Proceedings of the 2021 IEEE/CVF International Conference on Computer Vision Workshops (ICCVW), Montreal, BC, Canada.10.1109/ICCVW54120.2021.00119 ↗
8. Heidecker, F., Breitenstein, J., Rösch, K., Löhdefink, J., Bieshaar, M., Stiller, C., Fingscheidt, T., and Sick, B. (2021, January 11–17). An Application-Driven Conceptualization of Corner Cases for Perception in Highly Automated Driving. Proceedings of the 2021 IEEE Intelligent Vehicles Symposium (IV), Nagoya, Japan.10.1109/IV48863.2021.9575933 ↗
9. Influences of weather phenomena on automotive laser radar systems10.5194/ars-9-49-2011 ↗
10. Hahner, M., Sakaridis, C., Dai, D., Gool, L.V., Be, L.V., and Zürich, E. (2021, January 10–17). Fog Simulation on Real LiDAR Point Clouds for 3D Object Detection in Adverse Weather. Proceedings of the 2021 IEEE/CVF International Conference on Computer Vision (ICCV), Montreal, QC, Canada. Technical Report.10.1109/ICCV48922.2021.01500 ↗
11. Heinzler, R., Schindler, P., Seekircher, J., Ritter, W., and Stork, W. (2019, January 9–12). Weather Influence and Classification with Automotive Lidar Sensors. Proceedings of the 2019 IEEE Intelligent Vehicles Symposium (IV), Paris, France.10.1109/IVS.2019.8814205 ↗
12. Montalban, K., Reymann, C., Atchuthan, D., Dupouy, P.E., Riviere, N., and Lacroix, S. (2021). A quantitative analysis of point clouds from automotive lidars exposed to artificial rain and fog. Atmosphere, 12.10.3390/atmos12060738 ↗
13. Evans, B. (1984). On the Inversion of the Lidar Equation.
14. Tonvall, D. (2020). Study of Reflective and Polarization Properties of Objects Found in Automotive LiDAR Applications. [Ph.D. Thesis, Umea University].
15. Seubert, C.M. (2018). IR Reflectivity of Paint: Autonomy and CO2 Emissions, Ford Motor Company. Technical Report.
16. Shung, J.L.W., Hibbard, P., Vijay, R., Kin, L.A.H., and de Boer, N. (2023). White paper on LiDAR performance against selected Automotive Paints. arXiv.
17. Hulst, H.C.V.D. (1957). Light Scattering by Small Particles, Dover Publications. [1st ed.].
18. Measurement of Light attenuation in dense fog conditions for FSO applications10.1117/12.614830 ↗
19. Measured and predicted light attenuation in dense coastal upslope fog at 650, 850, and 950 nm for free-space optics applications10.1117/1.2899023 ↗
20. Kim, I.I., Mcarthur, B., and Korevaar, E. (2001). Comparison of Laser Beam Propagation at 785 nm and 1550 nm in Fog and Haze for Optical Wireless Communications, SPIE. Technical Report.10.1117/12.417512 ↗
21. Kruse, P.W., McGlauchlin, L.D., and McQuistan, R.B. (1962). Elements of Infrared Technology: Generation, Transmission and Detection, Wiley.
22. Carbonneau, T.H., and Wisely, D.R. (1998). Opportunities and Challenges for Optical Wireless: The Competitive Advantage of Free Space Telecommunications Links in Today’s Crowded Marketplace, SPIE.10.1117/12.301022 ↗
23. Measurement of Rainfall Rates by Lidar10.1175/1520-0450(1974)013<0800:MORRBL>2.0.CO;2 ↗
24. Analysis Study of Rain Attenuation on Optical Communications Link
25. Warren, S.G. (2019). Optical Properties of Ice and Snow, Royal Society.10.1098/rsta.2018.0161 ↗
26. ITU Radiocommunication Assembly (2007). Prediction Methods Required for the Design of Terrestrial Free-Space Optical Links, ITU.
27. Nebuloni, R., and Capsoni, C. (2008, January 23–25). Laser Attenuation by Falling Snow. Proceedings of the 6th International Symposium on Communication Systems, Networks and Digital Signal Processing, Graz, Austria.10.1109/CSNDSP.2008.4610768 ↗
28. Tu, A., Wang, Z., Wang, Z., Zhang, W., Liu, C., Zhu, X., Li, J., Zhang, Y., Liu, D., and Weng, N. (2022). Characterizing a Heavy Dust Storm Event in 2021: Transport, Optical Properties and Impact, Using Multi-Sensor Data Observed in Jinan, China. Remote Sensing, 14.10.3390/rs14153593 ↗
29. Hadj-Bachir, M., Souza, P.D., Nordqvist, P., and Roy, N. (2021). Modelling of LIDAR sensor disturbances by solid airborne particles. arXiv.
30. Mahmood, H.N., and Ismail, W. (2020). Visibility parameter in sand/dust storms’ radio wave attenuation equations: An approach for reliable visibility estimation based on existing empirical equations to minimize potential biases in calculations. Appl. Sci., 10.10.3390/app10217530 ↗
31. Tews, K. (1996). Wind Erosion Rates from Meteorological Records in Eastern Australia 1960-92. [Ph.D. Thesis, Griffith University].
32. Shao, Y., Yang, Y., Wang, J., Song, Z., Leslie, L.M., Dong, C., Zhang, Z., Lin, Z., Kanai, Y., and Yabuki, S. (2003). Northeast Asian dust storms: Real-time numerical prediction and validation. J. Geophys. Res. Atmos., 108.10.1029/2003JD003667 ↗
33. A visibility and total suspended dust relationship10.1016/j.atmosenv.2014.02.038 ↗
34. Attiya, A.A., and Jones, B.G. (2020). Assessment of mineralogical and chemical properties of airborne dust in Iraq. SN Appl. Sci., 2.10.1007/s42452-020-03326-5 ↗
35. IQAir North America, Inc (2022). 2022 World Air Quality Report, IQAir. Technical Report.
36. Aerosol optical depth, aerosol composition and air pollution during summer and winter conditions in Budapest10.1016/j.scitotenv.2007.04.037 ↗
37. Optical properties of atmospheric fine particles near Beijing during the HOPE-J3A campaign10.5194/acp-16-6421-2016 ↗
38. (2023). Road Vehicles-Test Contaminants for Filter Evaluation-Part 3: Soot Contaminant (Standard No. ISO 12103-3). Technical Report.
39. Dosovitskiy, A., Ros, G., Codevilla, F., López, A., and Koltun, V. (2017). CARLA: An Open Urban Driving Simulator. arXiv.
40. Robot Operating System 2: Design, architecture, and uses in the wild10.1126/scirobotics.abm6074 ↗
41. Remote sensing of raindrop size distribution using the coherent Doppler lidar10.1364/OE.426326 ↗
42. The Estimation of Snowfall Rate Using Visibility10.1175/1520-0450(1999)038<1542:TEOSRU>2.0.CO;2 ↗
43. International Civil Aviation Organization (2011). Manual on Automatic Meteorological Observing Systems at Aerodromes, International Civil Aviation Organization. Technical Report.
44. Warren, S.G., and Brandt, R.E. (2008). Optical constants of ice from the ultraviolet to the microwave: A revised compilation. J. Geophys. Res. Atmos., 113.10.1029/2007JD009744 ↗
45. Snow particle characteristics in the saltation layer10.3189/2014JoG13J079 ↗
46. Ebrahim, K.J., and Al-Omary, A. (2017, January 8–11). Sandstorm effect on Visible Light Communication. Proceedings of the 2017 9th IEEE-GCC Conference and Exhibition (GCCCE), Manama, Bahrain.10.1109/IEEEGCC.2017.8448035 ↗
47. (2016). ISO 12103-1-2016 Road Vehicles-Test Contaminants for Filter Evaluation-Part 1: Arizona Test Dust (Standard No. ISO 12103-1). Technical Report.
48. Querry, M.R. (1987). Optical Constants of Minerals and Other Materials from the Millimeter to the Ultraviolet. [Ph.D. Thesis, University of Missouri-Kansas City].
49. Theron, W. (2025, June 30). First and Second Generation Valeo Scala LiDARs: The Technology Gap, Revealed. Available online: https://www.edge-ai-vision.com/2022/09/first-and-second-generation-valeo-scala-lidars-the-technology-gap-revealed/.
50. Valeo (2025, June 30). Valeo Mobility Kit SCALA 3D Laser Scanner Gen 2 Data Sheet. Available online: https://levelfivesupplies.com/wp-content/uploads/2021/09/Valeo-Mobility-Kit-SCALA-3D-laser-scanner-gen-2-data-sheet.pdf.
51. A one-year study on black carbon in urban Beijing: Concentrations, sources and implications on visibility10.1016/j.apr.2021.101307 ↗
52. Kutila, M., Pyykonen, P., Holzhuter, H., Colomb, M., and Duthon, P. (2018, January 4–7). Automotive LiDAR performance verification in fog and rain; Automotive LiDAR performance verification in fog and rain. Proceedings of the 2018 21st International Conference on Intelligent Transportation Systems (ITSC), Maui, HI, USA.10.1109/ITSC.2018.8569624 ↗
53. Cerema (2025, June 30). Plateforme de Simulation de Conditions Climatiques Dégradées. Available online: https://www.cerema.fr/en/innovation-recherche/innovation/offres-technologie/simulation-platform-adverse-climate-conditions.