Eco-innovative approaches for recycling non-polyester/cotton blended textiles

• AI in Sorting: AI and ML improve textile waste sorting efficiency and accuracy significantly. • Innovative Recycling: Green chemistry and enzymatic treatments are highly effective in recycling non polyester/cotton blended textiles. • Environmental Benefits: Recycling textile waste can reduce environmental impacts by up to 60%. • Safety Concerns: Recycling processes release hazardous additives and pollutants, posing ecological and health risks. • Need for LCA: Comprehensive life cycle assessment (LCA) studies are necessary for reliable environmental impact assessments. Blended textile waste constitutes a substantial portion of the global textile waste stream, making recycling essential for minimizing the industry’s environmental impact. Although polyester/cotton recycling is well developed, many other blended textiles are routinely landfilled owing to a lack of effective recycling technologies. This review critically assesses existing strategies for recycling non-polyester/cotton blends, highlighting the key challenges and opportunities for innovation. In the sorting stage, integrating artificial intelligence (AI) and machine learning (ML) enhances efficiency and accuracy. Advanced methods, such as green chemistry, mechanical recycling, and enzymatic treatments, have proven effective for most blended textiles; however, fibers, such as polypropylene, still lack defined closed-loop recycling routes. Life cycle assessment (LCA) indicates that recycling textile waste can reduce environmental impacts by 60%, but the absence of comprehensive LCA studies on diverse recycling approaches limits reliability. Furthermore, while textile recycling is sustainable, concerns regarding the emission of hazardous additives and organic pollutants pose ecological and health risks. Therefore, advanced recycling technologies for non-polyester/cotton blends are crucial for achieving sustainability. Future research should focus on developing efficient recycling methods for complex blends, addressing the environmental impact of hazardous substances, and standardizing LCA methodologies to ensure economic and environmental viability.

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Publication Details

Journal
Waste Management Bulletin
Published
2025-02-04
DOI
https://doi.org/10.1016/j.wmb.2025.02.001
Citations
8
Primary Topic
Sustainable Design and Development
Type
article
Field-Weighted Citation Impact
8.05

Funders

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article

Eco-innovative approaches for recycling non-polyester/cotton blended textiles

Logeshwaran Panneerselvan, Palanisami Thavamani, C.M. Arun, Gunasekhar Nachimuthu et al.
8 citations
Waste Management Bulletin
Sustainable Design and Development
8.05
article

Eco-innovative approaches for recycling non-polyester/cotton blended textiles

Logeshwaran Panneerselvan, Palanisami Thavamani, C.M. Arun, Gunasekhar Nachimuthu, Meredith Conaty
article en
8 citations

Abstract

• AI in Sorting: AI and ML improve textile waste sorting efficiency and accuracy significantly. • Innovative Recycling: Green chemistry and enzymatic treatments are highly effective in recycling non polyester/cotton blended textiles. • Environmental Benefits: Recycling textile waste can reduce environmental impacts by up to 60%. • Safety Concerns: Recycling processes release hazardous additives and pollutants, posing ecological and health risks. • Need for LCA: Comprehensive life cycle assessment (LCA) studies are necessary for reliable environmental impact assessments. Blended textile waste constitutes a substantial portion of the global textile waste stream, making recycling essential for minimizing the industry’s environmental impact. Although polyester/cotton recycling is well developed, many other blended textiles are routinely landfilled owing to a lack of effective recycling technologies. This review critically assesses existing strategies for recycling non-polyester/cotton blends, highlighting the key challenges and opportunities for innovation. In the sorting stage, integrating artificial intelligence (AI) and machine learning (ML) enhances efficiency and accuracy. Advanced methods, such as green chemistry, mechanical recycling, and enzymatic treatments, have proven effective for most blended textiles; however, fibers, such as polypropylene, still lack defined closed-loop recycling routes. Life cycle assessment (LCA) indicates that recycling textile waste can reduce environmental impacts by 60%, but the absence of comprehensive LCA studies on diverse recycling approaches limits reliability. Furthermore, while textile recycling is sustainable, concerns regarding the emission of hazardous additives and organic pollutants pose ecological and health risks. Therefore, advanced recycling technologies for non-polyester/cotton blends are crucial for achieving sustainability. Future research should focus on developing efficient recycling methods for complex blends, addressing the environmental impact of hazardous substances, and standardizing LCA methodologies to ensure economic and environmental viability.

Waste Management BulletinVol. 3(1)
Cotton Research and Development Corporation (AU), University of Newcastle Australia (AU)
Cotton Research and Development Corporation
Openalex Percentile: Top 3%
Sustainable Design and Development
8.05
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