A Study on the Effect of an Oxidizing Atmosphere During the Recycling of CFRP by Pyrolysis

Composite materials are increasingly in demand. However, challenges such as high raw-material costs and complicated waste management impede their adoption. Overcoming these obstacles requires efficient recycling methods. Pyrolysis effectively recycles carbon fiber-reinforced polymers (CFRPs). This study proposes a cost-effective CFRP recovery approach utilizing conventional ovens to minimize recycling expenses and maximize reclaimed-product value. Pyrolysis was conducted under atmospheric conditions at 450–600 °C, lasting 1–6 h at each temperature. It was optimal at 2.5 h and 500 °C. Higher temperatures caused fiber degradation, and lower temperatures excessively prolonged duration. After determining the optimal conditions, composite plates were produced using recycled carbon fibers and a vacuum-assisted resin infusion process. Subsequent physical characterization and mechanical tests were conducted on these plates to assess the recycled-CFRP properties. The recovered tensile strength and tensile modulus were 88% and 97% that of virgin carbon fibers (vCF), respectively.

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Publication Details

Journal
Fibers
Published
2025-05-07
DOI
https://doi.org/10.3390/fib13050058
Citations
3
Primary Topic
Fiber-reinforced polymer composites
Type
article
Field-Weighted Citation Impact
2.14

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article

A Study on the Effect of an Oxidizing Atmosphere During the Recycling of CFRP by Pyrolysis

Rachid Boukhili, Cynthie Dega, Ali Jadidinia
3 citations
Fibers
Fiber-reinforced polymer composites
2.14
article

A Study on the Effect of an Oxidizing Atmosphere During the Recycling of CFRP by Pyrolysis

Rachid Boukhili, Cynthie Dega, Ali Jadidinia
article en
3 citations

Abstract

Composite materials are increasingly in demand. However, challenges such as high raw-material costs and complicated waste management impede their adoption. Overcoming these obstacles requires efficient recycling methods. Pyrolysis effectively recycles carbon fiber-reinforced polymers (CFRPs). This study proposes a cost-effective CFRP recovery approach utilizing conventional ovens to minimize recycling expenses and maximize reclaimed-product value. Pyrolysis was conducted under atmospheric conditions at 450–600 °C, lasting 1–6 h at each temperature. It was optimal at 2.5 h and 500 °C. Higher temperatures caused fiber degradation, and lower temperatures excessively prolonged duration. After determining the optimal conditions, composite plates were produced using recycled carbon fibers and a vacuum-assisted resin infusion process. Subsequent physical characterization and mechanical tests were conducted on these plates to assess the recycled-CFRP properties. The recovered tensile strength and tensile modulus were 88% and 97% that of virgin carbon fibers (vCF), respectively.

FibersVol. 13(5)
CTT Group (Canada) (CA), Polytechnique Montréal (CA)
Natural Sciences and Engineering Research Council of Canada
Openalex Percentile: Top 14%
Fiber-reinforced polymer composites
2.14
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