BLUECOAT – Bio-based long lasting safe and sustainable by design surface coatings for demanding and extreme conditions
KEY POINTS- A portfolio of low-carbon emission, bio-based coating formulations using various bio-based feedstock categories
Project overview
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Short summary
The aim of the BLUECOAT project is to develop a suite of bio-based and low-carbon emission coatings tailored for applications in marine, textile, and construction sectors, alongside versatility studies for three additional end-applications, implementing and surpassing the most advanced SSbD guidance
Surface coatings are essential for protecting materials and enhancing their functionality, but the reliance on fossil resources necessitates safer, sustainable alternatives that maintain high performance while reducing environmental impact. To address these challenges, BLUECOAT will develop 12 safe, sustainable, bio-based, and low-carbon emission coating formulations for the marine, textile, and construction sectors that are challenging and demanding conditions for coatings. The project will explore 4 bio-based feedstocks: bio-derived polymers, natural fibres, bioplastics, and plant-based proteins, to develop 6 optimized coatings consisting of bio-based PU, bio-based silicone, PLA, natural fibres with antimicrobial agents (such as chitosan and curcumin), and encapsulates with Phase Change Materials (PCM). BLUECOAT formulations will cut GHG emissions by 45% and minimize Volatile Organic Compounds (VOC) while delivering superior performance under industrially relevant conditions (TRL5). BLUECOAT solutions will provide antifouling and anti-corrosion protection for ship hulls, weatherproof, antimicrobial, and durable features for outdoor technical garments, and flame-retardant and antifungal for insulation boards in marine, textile, and construction sectors, respectively. The BLUECOAT’s vision is to establish a suite of comprehensive Safe-and-Sustainable-by-Design criteria guiding the development of bio-based coatings throughout their lifecycle, emphasizing circularity, energy and resource efficiency. The project will conduct the expost environmental assessment, techno-economic feasibility of scaling potential products, socioeconomic impact analysis for ensuring sustainable market adoption and long-term viability of the developed coatings. It will also explore End-of-Life strategies like biodegradability and recycling to extend material utility and support sustainable practices.
Cooperators: THE UNIVERSITY OF BIRMINGHAM (COORDINATOR), STIFTELSEN NILU, ADVANCED MINERALS AND RECYCLING INDUSTRIAL SOLUEL, THE GOVERNORS OF THE UNIVERSITY OF ALBERTA, SVERIGES LANTBRUKSUNIVERSITET, NEXT TECHNOLOGY TECNOTESSILE SOCIETA NAZIONALE, KATHOLIEKE UNIVERSITEIT LEUVEN, FIBERLEAN TECHNOLOGIES LIMITED, SOPREMA, INNOVATION IN DISSEMINATING MATERIALS TECHNOLOG, ZIRKULU LIMITED, KONLECHNER DAVID, SKULTUNA FLEXIBLE AKTIEBOLAG, TEMAS SOLUTIONS GMBH, ECOLE POLYTECHNIQUE FEDERALE DE LAUSANNE, INTERNATIONAL PAINT LIMITED, PROCTER & GAMBLE TECHNICAL CENTRES LIMITED