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2023
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06
The EU achieves a major breakthrough in innovative super-surface coating technology.
It is understood that the breakthrough in innovative technology lies in harnessing an incredibly thin layer of polysaccharides—carbohydrates that bind a specific number of sugar molecules. Depending on the demands of particular applications, these polysaccharides are either bonded to or embedded within a variety of distinct biological and mineral-based nanomaterials, giving rise to a new class of polymer composite materials.
Recently, the Surfuncell research team—led by Professor Riebeschleger from the University of Graz in Austria and involving 13 research institutions, universities, and industrial partners from six EU member countries: Austria, France, Germany, the Netherlands, Slovenia, and the United Kingdom—achieved a significant, groundbreaking technological breakthrough in the development of super-surface coatings.
It is understood that the breakthrough in innovative technology lies in harnessing an incredibly thin layer of polysaccharides—carbohydrates that bind a specific number of sugar molecules. Depending on the demands of particular applications, these polysaccharides are either bonded to or embedded within a variety of distinct biological and mineral-based nanomaterials, giving rise to a new class of polymeric composite materials. These novel materials are ideally suited for use—or as surface coatings—for a wide range of substances. They can be engineered into advanced composites boasting specialized properties such as antimicrobial capabilities, selective absorption, flame retardancy, exceptional resistance to extreme heat and cold, electrical conductivity, and superior insulating performance. With their vast potential applications and limitless future prospects, these materials promise to revolutionize multiple industries.
The pilot demonstration project for innovative super-surface coating technology has been successfully implemented in advanced manufacturing sectors such as pulp and paper, fiber spinning, cellulose films, and filtration membranes. Additionally, the safety benefits of the new material—including fiber degradation, nanostructures, and irreversible coatings—have been verified.
Currently, the R&D team is actively developing commercial applications for the new material in fields such as medical and healthcare devices, water purification systems, fire protection systems, the electronics industry, and national security and defense. For instance, fire-resistant, high-temperature protective clothing coated with the innovative material enables firefighters to confront the "hellish" reality of fires more directly.
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2023
06-27
2023
06-27