The FOREST project brings several groundbreaking results that extend beyond the current state of the art, with significant potential impacts across various industries. Key achievements include the development of sustainable flame retardants, bio-based resins, and innovative manufacturing processes, each offering distinct advantages in terms of performance, sustainability, and market competitiveness.
One of the primary results is the development, improvement, and validation of sustainable flame retardants. These biocomposites and flame retardants present a competitive alternative to traditional products, reducing reliance on petrochemical-based materials. The potential impact lies in creating eco-friendly, high-performance materials suitable for a wide range of applications. Market uptake will require further research, testing in real environments, and direct commercialization efforts.
The project also advanced the development and industrial production of a bio-acrylic Elium resin, a bio-based, recyclable liquid thermoplastic resin. This innovation offers a sustainable alternative to conventional resins, with significant implications for reducing environmental impact. To ensure market uptake, further research and process adaptations for various customer groups are necessary.
Another notable achievement is the development of basis resin formulations to enhance property profiles and meet industry processing requirements for continuous carbon fiber-reinforced PA pultrudates. This non-reactive, partially crystalline thermoplastic with bio content is tailored for continuous composite production. Successful market adoption will involve developing products, engaging with existing customers, and proving the resin's processability and performance.
The project has also made significant strides in bio-based benzoxazine formulations and their scalability. This new matrix system offers enhanced performance compared to current systems while reducing reliance on petrochemicals. Its potential impact includes providing a sustainable, high-performance material for composite parts. Further research and additional project applications will be necessary for market uptake.
Finally, the manufacture and development of flame retardant formulations using biobased materials represent a pioneering advancement. The project developed the first FR technology based on bio-based phosphorus, offering a fully renewable solution. This technology is ready for commercialization, with the potential to revolutionize the flame retardant market.
