Advancing Circularity in Multilayer Film Recycling: Balancing Quality and Sustainability

Recycling multilayer films (MLFs) presents significant challenges to achieving circularity. Mechanical recycling, solvolysis (chemical recycling), and dissolution (physical recycling) have been introduced in the past with their strengths and weaknesses. This study uses a series of advanced, pilot-scale processes to improve the quality of recyclates. These include Near Infrared/Digital Watermarking (NIR/DW), super-critical CO<sub>2</sub> decontamination, dissolution, and innovative mechanical recycling techniques (METEOR and multi-nano layering, MNL). Findings from TRL 5-8 pilots show that recycling different MLF compositions with two routes (dissolution-based and METEOR/MNL-based) can improve the overall quality but this comes with a trade-off. Using 10% recycled content from PET/PE and metalized PP films in 2050 could even increase greenhouse gas (GHG) emissions by 21% and 85%, respectively, compared to landfill incineration. However, PE/PA and PE/EVOH films showed GHG reductions of 0.5% and 4%, respectively. Raising recycled content from 0% to 50% can cut GHG emissions by 36%. These results challenge the current 10% recycled content target, advocating for a more ambitious goal of exceeding 25% by 2050 to enhance sustainability.

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Publication Details

Journal
Polymers
Published
2025-10-28
DOI
https://doi.org/10.3390/polym17212868
Primary Topic
Fiber-reinforced polymer composites
Type
article
Field-Weighted Citation Impact
0.00
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article

Advancing Circularity in Multilayer Film Recycling: Balancing Quality and Sustainability

S. A. Zakarya, Leonard J. Prins, Milad Golkaram, Rajesh Mehta et al.
Polymers
Fiber-reinforced polymer composites
article

Advancing Circularity in Multilayer Film Recycling: Balancing Quality and Sustainability

S. A. Zakarya, Leonard J. Prins, Milad Golkaram, Rajesh Mehta, Ilkka Rytöluoto, Milena Brouwer-Milovanovic
article en

Abstract

Recycling multilayer films (MLFs) presents significant challenges to achieving circularity. Mechanical recycling, solvolysis (chemical recycling), and dissolution (physical recycling) have been introduced in the past with their strengths and weaknesses. This study uses a series of advanced, pilot-scale processes to improve the quality of recyclates. These include Near Infrared/Digital Watermarking (NIR/DW), super-critical CO<sub>2</sub> decontamination, dissolution, and innovative mechanical recycling techniques (METEOR and multi-nano layering, MNL). Findings from TRL 5-8 pilots show that recycling different MLF compositions with two routes (dissolution-based and METEOR/MNL-based) can improve the overall quality but this comes with a trade-off. Using 10% recycled content from PET/PE and metalized PP films in 2050 could even increase greenhouse gas (GHG) emissions by 21% and 85%, respectively, compared to landfill incineration. However, PE/PA and PE/EVOH films showed GHG reductions of 0.5% and 4%, respectively. Raising recycled content from 0% to 50% can cut GHG emissions by 36%. These results challenge the current 10% recycled content target, advocating for a more ambitious goal of exceeding 25% by 2050 to enhance sustainability.

PolymersVol. 17(21)
Netherlands Organisation for Applied Scientific Research (NL), École Nationale Supérieure de Techniques Avancées (FR), VTT Technical Research Centre of Finland (FI)
Openalex Percentile: Top 68%
Fiber-reinforced polymer composites
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