# Novel Inlay Methodology with Thermoplastic and Heating System for Durable Road Markings

## TL;DR

A new road marking system using thermoplastic sheets and a portable heating system improves durability and visibility for safer roads.

## Contribution

A novel thermoplastic road marking system with a portable heating method is introduced for enhanced durability and safety.

## Key findings

- The system demonstrated robust adhesion and seamless bonding during field trials on asphalt surfaces.
- It showed consistent visibility and durability under traffic loads.
- The methodology offers a scalable solution for modern infrastructure needs.

## Abstract

Road markings, such as lane dividers and pedestrian crossings, are integral in ensuring the safety of road users. However, traditional markings frequently exhibit limitations, including short lifespans, diminished visibility, and significant maintenance costs, particularly as traffic volumes increase. To address these persistent challenges, this study presents a thermoplastic road marking system that combines material innovation and advanced application techniques. Central to this approach is the portable heating system, equipped with ceramic heaters and precise temperature controls, which facilitates uniform heating while mitigating fire risks. The thermoplastic blend, processed into pre-formed sheets, was integrated with this heating technology. Together, these components enabled a two-phase process, engraving asphalt surfaces followed by sheet integration, that ensured robust adhesion and seamless bonding. Field trials conducted on various asphalt types validated the system’s reliability, demonstrating its durability under traffic loads and consistent visibility. By integrating durable materials with advanced application methods, this methodology significantly enhances the efficiency, longevity, and safety of road markings. It presents a practical and scalable solution for modern infrastructure needs. Future research will focus on evaluating the system’s long-term performance under extreme weather conditions to further optimize its applicability.