The growing environmental impact of textile waste, fueled by the rapid rise in global fiber production, underscores the urgent need for sustainable end-of-life solutions. This review explores cutting-edge pathways for textile waste management, spotlighting innovations that reduce reliance on incineration and landfilling while driving material circularity. It highlights advancements in collection, sorting, and pretreatment technologies, as well as both established and emerging recycling methods. Smart collection systems utilizing tags and sensors show great promise in streamlining logistics by automating pick-up routes and transactions. For sorting, automated technologies like near-infrared and hyperspectral imaging lead the way in accurate and scalable fiber separation. Automated disassembly techniques are effective at removing problematic elements, though other pretreatments, such as color and finish removal, still need to be customized for specific waste streams. Mechanical fiber recycling is ideal for textiles with strong mechanical properties but has limitations, particularly with blended fabrics, and cannot be repeated endlessly. Polymer recycling-through melting or dissolving waste polymers-produces higher-quality recycled materials but comes with high energy and solvent demands. Chemical recycling, especially solvolysis and pyrolysis, excels at breaking down synthetic polymers like polyester, with the potential to yield virgin-quality monomers. Meanwhile, biological methods, though still in their infancy, show promise for recycling natural fibers like cotton and wool. When other methods are not viable, gasification can be used to convert waste into synthesis gas. The review concludes that the future of sustainable textile recycling hinges on integrating automated sorting systems and advancing solvent-based and chemical recycling technologies. These innovations, supported by eco-design principles, progressive policies, and industry collaboration, are essential to building a resilient, circular textile economy.
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http://dx.doi.org/10.3390/polym17050628 | DOI Listing |
Polymers (Basel)
February 2025
Laboratory for Chemical Technology, Department of Materials, Textiles, and Chemical Engineering, Faculty of Engineering and Architecture, Ghent University, Technologiepark 121, 9052 Zwijnaarde, Belgium.
The growing environmental impact of textile waste, fueled by the rapid rise in global fiber production, underscores the urgent need for sustainable end-of-life solutions. This review explores cutting-edge pathways for textile waste management, spotlighting innovations that reduce reliance on incineration and landfilling while driving material circularity. It highlights advancements in collection, sorting, and pretreatment technologies, as well as both established and emerging recycling methods.
View Article and Find Full Text PDFJ Colloid Interface Sci
March 2025
Laboratory of Pollution Exposure and Health Intervention of Zhejiang Province, Interdisciplinary Research Academy (IRA), Zhejiang Shuren University, Hangzhou 310015, PR China. Electronic address:
Catalysts with S-scheme semiconductor junctions offers an enhanced redox capacity. Herein, BiOBr/Ag/AgS composites with a three-dimensional structure were prepared by hydrothermal reaction. The growth of AgS nanoparticles on the surface of BiOBr nanoflowers was successfully achieved, leading to strong light absorption and surface plasmon resonance (SPR) effect, together with improved rates of light-induced carriers.
View Article and Find Full Text PDFSci Total Environ
March 2025
Department of Water, Atmosphere and Environment, Institute of Waste Management and Circularity, University of Natural Resources and Life Sciences, Vienna, Austria.
The objective of the study is to evaluate the environmental impacts of textiles produced in Peru using Life Cycle Assessment (LCA) methodology. For this, a T-shirt made from cotton is chosen, where the cotton production and the manufacturing take place in Peru, while the use and end-of-life phase is located in the US as the main market. Five impact categories were assessed using the Sphera software, the Ecoinvent database, primary data obtained from each participating company, and relevant information from the literature.
View Article and Find Full Text PDFWaste Manag
May 2025
Materials Science & Technology Division, CSIR-National Institute for Interdisciplinary Science and Technology, Thiruvananthapuram 695019, India; Academy of Scientific and Innovative Research (AcSIR), Ghaziabad 201002, India. Electronic address:
Printed Circuit Boards (PCBs), a primary component of electronic waste (E-waste), contain silica fabric as a major non-metallic material, which needs to be reutilized for high-performance applications. This study focuses on the separation and recovery of silica fabrics through pyrolysis and their subsequent use in developing silica fabric-epoxy composites (SFR). Extracted silica fabric was characterized through FTIR, XRD, XPS, and SEM for morphology analysis.
View Article and Find Full Text PDFJ Environ Manage
March 2025
College of Environmental Sciences, Sichuan Agricultural University, Chengdu, Sichuan 611130, PR China. Electronic address:
Although multiphase catalysts with large sizes exhibit excellent recyclability and low toxicity in heterogeneous Fenton reactions, their reactivity, reusability and storage stability for degradation of organic contaminants still need improvement, which is essential for treating complex wastewater and ensuring environmental sustainability. In this study, the waste cotton textiles were firstly used as the carbon source to generate a novel millimeter-sized catalyst (Fe/FeC@HBC) with a honeycomb-like structure, which could effectively activate HO to realize rapid removal of ofloxacin (OFL) (100% in 10 min). It achieved remarkable removal performance across a broad temperature range (4-40 °C) and high-concentration OFL.
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