Skip to main content

Glaringly good glare panels from Korean manufacturer ETI

Unbreakable glare panels from Korean company ETI literally bounce back from an accident, according to the manufacturer. The panels are made from EVA, an elastomeric polymer that is soft to the touch and extremely flexible, akin to rubber. It is popularly known as an expanded rubber or foam rubber and is extremely resilient with good clarity and gloss and stress-crack resistance. Products using EVA include ski boots, bicycle saddles, wakeboards and water skis. These properties make ETI’s glare panels suit
April 4, 2018 Read time: 2 mins
Unbreakable glare panels from Korean company 2366 ETI literally bounce back from an accident, according to the manufacturer.


The panels are made from EVA, an elastomeric polymer that is soft to the touch and extremely flexible, akin to rubber. It is popularly known as an expanded rubber or foam rubber and is extremely resilient with good clarity and gloss and stress-crack resistance. Products using EVA include ski boots, bicycle saddles, wakeboards and water skis.

These properties make ETI’s glare panels suitable for mounting on crash barriers in the medians of divided highways, for example, explained Rich Choi, a director of ETI – Evolution in Traffic Innovation. The panels are spaced along the barrier to stop headlamp glare from oncoming vehicles blinding or annoying drivers.

“The panels have also been tested to withstand extremely high temperatures, such as 70°C for 200 hours. This makes them suitable for countries with extremely hot temperatures.”

The tapered panels stand around 650mm high, about 300mm wide and 70mm thick at the bottom where they can be quickly bolted onto the top of the barrier. Various bracket types are available for the different barrier types, such as concrete, w-beam and roller.

Importantly, the panels have wind holes to make them stable in high winds.

For more information on companies in this article

Related Content

  • New bitumen technologies and developments around the world
    May 16, 2016
    From expanding bitumen operations in India to groundbreaking mixes in Italy, stronger roads in South Africa to high RAP content in Germany, this month we bring you stories of advancing technology from around the world - Kristina Smith reports Technology from Austrian engineering company Pörner will soon be responsible for almost two-thirds of India’s bitumen production. In December last year Pörner signed the deal with HPCL-Mittal Energy, a joint venture of Hindustan Petroleum Corporation and Mittal Energy
  • Evonik’s VESTENAMER, part of the rubber road revolution
    February 21, 2019
    Rubber modified bitumen is gaining ground, according to speciality chemicals business Evonik The intensified search for better road durability and lower traffic noise - both environmental concerns - has meant an increasing market for rubber-modified bitumen. At the same time, raw material costs for asphalt and specifically for asphalt modification compounds have increased considerably, creating another obstacle to cost-effective road construction. The stakes are high for getting roads more durable
  • World Road Meeting 2017
    April 16, 2018
    The IRF World Road Meeting 2017 was held recently – World Highways’ India correspondent Partha Pratim Basistha reports The 18th World Road Meeting of the International Road Federation took place between 14-17 November 2017 in the North Indian state of Uttar Pradesh at Greater Noida near India’s capital New Delhi. Close to 1500 delegates and visitors across the world - including India - from the road infrastructure fraternity participated at the global event. The Cross Roads meeting, coinciding with an ex
  • Iterchimica’s cross-linking agents boost PMB performance
    August 1, 2019
    Cross-linking agents can vastly improve the stability and performance of polymer-modified bitumen (PMB), according to additive specialist Iterchimica. Modified bitumen can become unstable when it is stored inside a tank because the polymer rises to the top, meaning that the rheological behaviour of the bitumen varies through the tank. Cross-linking agents modify bitumen through a chemical action that stabilises the bitumen inside the tank to create a homogenous PMB and, hence, a homogeneous asphalt conc