Abstract
This study investigates a method to enhance the functionality of conventional road marking materials by enabling them to carry encoded information. A technique is proposed for encoding thermoplastic lane markings by modulating their surface retroreflectivity. This is achieved by controlling the surface distribution of glass beads to create a binary signal readable by LiDAR sensors. Laboratory experiments determined that a glass bead surface distribution between 1.6% and 2.0% yields a stable and distinguishable high-reflectivity signal. This finding allowed for the design of a minimum encoding unit length of 2 cm, balancing information density with material performance. The reliability of this infrastructure-based encoding method was successfully validated on a full-scale prototype using a custom information parsing algorithm. This research demonstrates the feasibility of enhancing the functionality of conventional pavement materials, offering a low-cost and non-disruptive design approach for future intelligent road infrastructure.
| Original language | English |
|---|---|
| Journal | Road Materials and Pavement Design |
| DOIs |
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| State | Accepted/In press - 2025 |
Keywords
- LiDAR
- encoding
- intelligent road
- lane marking
- point cloud
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