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IJBAS International Journal of Basic and Applied Sciences E-ISSN 2227-5053

Enhanced Black Ice Detection in Road Environments Using LiDAR and Angle-Thermal Modulation

Authors and Affiliations

  • Seung-Beom Hong Department of Avionics, Hanseo University
  • Won Hyuk Choi Department of Avionics, Hanseo University

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Abstract

This paper explores a LiDAR-based approach for identifying black ice on road surfaces by analyzing variations in distance measurements under controlled changes in temperature and sensor orientation. Utilizing the compact and economical Lidar Lite v3, we observed how sub-tle differences in reflectivity and surface angle can distinguish black ice from asphalt. Despite the sensor's ±1 cm error margin, experimental outcomes suggest it is feasible to detect black ice through this method. The proposed approach offers a potential solution for real-time road hazard monitoring and sets the foundation for further enhancements aimed at improving robustness in dynamic environments.

Keywords

  • Black Ice Detection
  • LiDAR Lite v3 Sensor
  • Surface Reflectivity Analysis

References

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[1] A. S. Author et al., “Fuzzy logic based slipperiness detection integrating LiDAR intensity with environmental parameters,” Frontiers in Artificial In-telligence, 2025, testing accuracy 87 % under Arctic conditions.


How to Cite

Hong, S.-B., & Choi, W. H. (2025). Enhanced Black Ice Detection in Road Environments Using LiDAR and Angle-Thermal Modulation. International Journal of Basic and Applied Sciences, 14(8), 136-141. https://doi.org/10.14419/bwb02d23