SciTransfer
FURIOUS · Project

High-Performance Bio-Plastics for Automotive, Medical Packaging and Underwater Technology

manufacturingTestedTRL 4

Imagine making plastic from agricultural waste instead of oil, but without losing the strength and durability of the original. This work creates a special building block from plant sugars to make plastics that can block gases, resist sunlight, and even dissolve safely in the ocean. It is like upgrading a biodegradable bag to be as tough as a car dashboard or a medical sterile pack.

By the numbers
16
total partners
8
industrial partners
50%
industry ratio
The business problem

What needed solving

Traditional plastics are fossil-based and pollute the environment, but existing bio-plastics often lack the durability, UV resistance, and gas-barrier properties required for high-end automotive and medical applications.

The solution

What was built

A new class of 2,5-FDCA-based biopolymers (PXF) and specific prototypes including antibacterial filters, automotive screens, and biodegradable underwater optical cables.

Audience

Who needs this

Medical device packaging firmsAutomotive interior component manufacturersMarine sensor and equipment developersSustainable plastic converters
Business applications

Who can put this to work

Medical Packaging
any
Target: Sterile packaging manufacturer

If you are a packaging manufacturer dealing with the need for high gas barriers and sterilization resistance—this project developed furan-based polyesters that provide these protective properties while remaining bio-based.

Automotive
mid-size
Target: Car interior components supplier

If you are a supplier dealing with UV weathering and hygiene in cabins—this project developed materials for automotive screens and antibacterial car filters that resist sun damage.

Marine Technology
SME
Target: Underwater sensor manufacturer

If you are a tech company dealing with plastic pollution from lost sensors—this project developed a biodegradable scaffold and optical cables that break down in seawater.

Frequently asked

Quick answers

What is the estimated production cost of these polymers?

Based on available project data, the project aims to minimize production costs through green processes, but specific price points are not provided.

Has this been tested at an industrial scale?

The project is currently establishing protocols for laboratory-scale characterization to provide a basis for future scale-up, including validation via injection molding and extrusion.

How is the IP and licensing handled for these new materials?

Based on available project data, there is no specific mention of licensing terms, though the project involves 8 industrial partners who may hold joint IP.

Does this comply with environmental regulations?

Yes, the project focuses on a circular economy with zero waste perspectives, including compostability for packaging and marine biodegradability for sensors.

When will these materials be available for commercial use?

The project period runs until 2027-05-31, suggesting that commercial readiness will follow the validation of these materials in the target applications.

Consortium

Who built it

The consortium is heavily weighted toward commercialization, with a 50% industry ratio consisting of 8 companies (6 of which are SMEs). This balance between 7 universities and 8 industrial partners suggests a strong pipeline from lab synthesis to market validation across 8 different European countries.

How to reach the team

Contact Universita degli Studi di Perugia

Next steps

Talk to the team behind this work.

Contact us to connect with the FURIOUS consortium for bio-polymer licensing.

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