Waste Wood Bioplastics Breakthrough Brings 99% Efficiency Gains
A new technology converts waste wood into high-yield bioplastic materials, offering a sustainable alternative to petroleum-based plastics while supporting carbon neutrality goals.
A new technology converts waste wood into high-yield bioplastic materials, offering a sustainable alternative to petroleum-based plastics while supporting carbon neutrality goals.
Biobased fibers Europe strategy gains momentum as Lenzing pushes policymakers toward clearer rules, stronger investment signals, and a fossil-free materials transition.
Greendot Biopak accelerates innovation in bio-based compostable packaging, responding to global regulatory pressure and rising demand for sustainable foodservice solutions.
Selenis and Kintra Fibers join forces to scale bio-based synthetic fiber production, offering a viable, sustainable alternative to petroleum-based textiles.
A new embossed, label-free PLA water bottle simplifies recycling, strengthens circular packaging systems, and lowers carbon impact through closed-loop PLA recovery and reuse.
Solinatra Europe and Paques Biomaterials join forces to accelerate fully biodegradable biopolymer materials, offering scalable, high-performance alternatives to fossil-based single-use plastics.
Researchers have developed a plant-based biodegradable film that matches plastic’s moisture and oxygen barrier performance, opening new possibilities for sustainable packaging at scale.
Solinatra Europe and Paques Biomaterials join forces to accelerate biodegradable single-use plastics using PHBV biopolymers, cutting time-to-market and enabling scalable circular solutions.
Scientists at the University of Oldenburg have developed a breakthrough process that turns garden waste, hay, and algae into fully biodegradable plastics. Using polybutylene succinate (PBS) as the base, this innovation offers a sustainable alternative to conventional plastics in packaging, medical products, automotive components, and insulation. The EcoPBS project focuses on transforming organic residues into high-performance, recyclable plastics through advanced fermentation techniques, purification processes, and energy-efficient production. By leveraging machine learning, 3D modeling, and renewable energy strategies, the research team is not only producing eco-friendly materials but also closing the loop in the circular economy. With funding from Germany’s Federal Ministry of Research, this technology could pave the way for widespread industrial adoption, reduce plastic pollution, and turn everyday organic waste into a valuable resource.