Imagine a giant digestive system that can eat mixed plastic trash that usually ends up in landfills. This system breaks that waste down into basic building blocks and rebuilds them into new, eco-friendly packaging. It's like turning old, mixed-up Lego sets into a brand new, high-quality model that can safely dissolve in nature when you're done with it.
Current mixed plastic waste is often non-recyclable, leading to landfilling and high carbon emissions. Existing biodegradable alternatives are often too expensive or lack the technical performance required for commercial packaging.
A scalable plastic biorefinery process and a set of PHA-, PLA-, and Furan-based packaging formulations with tunable biodegradability.
If you are a packaging producer dealing with high costs of sustainable materials — this project developed ecopolymers that aim for a selling price less than 40% of current options. This allows you to switch to biodegradable PHA, PLA, and Furan-based materials without losing technical performance.
If you are a recycler dealing with mixed plastic waste that is currently non-recyclable — this project developed a biorefinery process that transforms these streams into valuable raw materials. This creates a new revenue stream from waste that was previously a cost burden.
If you are a compounder dealing with the struggle to balance biodegradability and strength — this project developed a smart formulation strategy using bio-based additives. This lets you tune the degradation speed and technical performance for four specific packaging use cases.
The project aims for an economic viability where the selling price is less than 40% of current alternatives.
Yes, the project specifically addresses scalability hotspots to move from previous results to an economically viable industrial biorefinery.
Based on available project data, specific licensing terms are not mentioned, but the project involves 5 industry partners and 5 SMEs to ensure commercial viability.
The project targets a reduction in greenhouse gas emissions of 30%.
The project runs from September 2025 to August 2029, suggesting that industrial-scale results will be finalized by late 2029.
The consortium is well-balanced for commercialization, featuring 19 partners across 10 countries. With a 26% industry ratio (including 5 SMEs and 5 larger industrial players), there is a strong bridge between the 6 universities and 4 research centers and the actual market. This structure suggests the technology is being developed with direct input from the recyclers and producers who will eventually buy the product.
Contact Aalborg Universitet in Denmark
Contact us to connect with the UPCYCLE consortium for early adoption of ecopolymers.
