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EFFECTIVE

Advanced Eco-designed Fibres and Films for large consumer products from biobased polyamides and polyesters in a circular EConomy perspecTIVE

Project details

Type of project
Innovation Action - Demonstration
Project focus
Textile
Feedstock origin
Agri-food waste
Forestry waste
Feedstock type
Food industry sidestreams
Lignin & wood residues
Project period
1 June 2018 - 28 February 2023
Status
Completed
CBE JU Contribution
€ 7 171 906,64
Call identifier
H2020-BBI-JTI-2017

Summary

Polyamides (nylon) and polyesters are two of the most widespread families of polymers, with applications spanning from garments, carpets and sportswear to automotive parts, packaging materials, fishing products, and electric and electronic components. In recent years, many producers have been striving to increase the sustainability of such products at affordable prices, which implies not only the use of bio-based materials but also a sustainable end-of-life of the products.

The EFFECTIVE project demonstrated first-of-their-kind and economically viable routes to produce bio-based polyamides and polyesters from sustainable renewable feedstock. The project produced bio-based fibres and films with enhanced properties, market competitiveness and increased sustainability.

EFFECTIVE used these materials to produce consumer products for different markets, such as textiles, construction, automotive, and packaging. The project’s team also proved their replication potential in fishing, engineering plastics, agriculture, hygiene, and personal care sectors. 

EFFECTIVE carpet made from sugar, wood & straw waste

The overarching objective of the EFFECTIVE project was to demonstrate innovative and economically viable routes to produce bio-based polyamides and polyesters from renewable feedstocks.

Key scientific and technological, scale-up and product objectives included:

  • Validate the production of sustainable feedstock for the subsequent conversion processes.
  • Demonstrate innovative and sustainable processes to produce bio-based building blocks for the synthesis of bio-based polyamides and polyesters.
  • Demonstrate the production of recyclable bio-based nylons.
  • Demonstrate the production of bio-based and biodegradable polyesters.
  • Validate the demonstrated bio-based nylons into fibres for garment and carpet products, and into films for primary packaging applications.
  • Validate the demonstrated bio-based polyesters into films for secondary food applications.

Specific environmental objectives included:

  • Eco-design of a new enhanced structure of products to enable the recycling of the different polymers at the end of the product’s life.
  • Demonstrate the recyclability of bio-based nylons.
  • Valorise the biodegradable plastic products at the end of their life through the production of compost and energy. Improve the environmental profile of the targeted biopolymers.
  • Define a strategy and measures for standardising and certifying the developed bio-based processes and products.
  • Assess the environmental and economic impacts of the whole process. 

  • Developed sustainable bio-based fibres and plastics from renewable feedstocks, reducing reliance on fossil fuels and supporting the transition towards a circular economy. 
  • Improved the entire bio-based polymer value chain, from sustainable feedstock production to end-of-life management, ensuring lower environmental impact across all stages. 
  • Leveraged innovative biotechnological processes to convert sustainable sugars and vegetable oils into bio-based building blocks, which were further processed into high-performance polymers. 
  • Optimised production processes up to TRL 7/8, successfully producing large-scale samples of renewable polymers suitable for industrial applications. 
  • Demonstrated the use of bio-based nylons in multiple sectors, including textiles (fabrics, sportswear, carpets), engineering plastics and packaging, confirming their commercial feasibility. 
  • Implemented circular end-of-life solutions, including chemical depolymerisation, mechanical recycling, and composting technologies, ensuring materials remain within sustainable loops. 
  • Confirmed through sustainability assessments that bio-based polymers significantly reduce environmental footprint compared to fossil-based equivalents.
  • Prepared pathways for market entry by aligning product performance with industrial and consumer requirements through ongoing R&D. 

  • Achieved high replicability of materials and tested additional applications for the demonstrated bio-based materials.
  • Novel bio-based materials with better performance and improved sustainability are brought to the market.
  • Eco-design measures made more efficient through recycling trials, advancing sustainability practices. 

Consortium map

Project coordination

  • AQUAFILSLO PROIZVODNJA POLIAMIDNIH FILAMENTOV IN GRANULATOV DOO Ljubljana, Slovenia

Consortium

  • CARVICO SPA Carvico, Italy
  • NOVAMONT SPA NOVARA, Italy
  • FUNDACION CIRCE CENTRO DE INVESTIGACION DE RECURSOS Y CONSUMOS ENERGETICOS ZARAGOZA, Spain
  • GENOMATICA INC San Diego Ca, United States
  • VAUDE SPORT GMBH & CO KG Tettnang, Germany
  • AQUAFIL SPA Arco Tn, Italy
  • BALSAN SAS Arthon, France
  • LIFE CYCLE ENGINEERING SPA CASTELLAMONTE TO, Italy
  • SUDZUCKER AG Mannheim, Germany
  • CIRCULAR CHANGE, INSTITUT ZA KROZNO GOSPODARSTVO Ljubljana, Slovenia
  • AQUAFILCRO DOO Oroslavje, Croatia
  • HENNES & MAURITZ GBC AB STOCKHOLM, Sweden
  • BIO-MI DRUSTVO S OGRANICENOM ODGOVORNOSCU ZA PROIZVODNJU, ISTRAZIVANJEI RAZVOJ MATULJI, Croatia
  • TESSILQUATTRO S.P.A. Arco, Italy