Sep 2026· Biotechnology and applied biochemistry· 0 citations· 31 references
Medicine
Abstract
The rapid expansion of the global textile industry, driven by the fast-fashion paradigm, which is characterized by low-cost, short-lived garments made from inexpensive synthetic fibers, has intensified environmental pressures through increased waste generation, resource depletion, microplastic pollution, and greenhouse gas emissions. Conventional polyethylene terephthalate (PET) recycling remains limited by high energy demands, harsh processing conditions, and the generation of low-value products. This review examines emerging upcycling strategies targeting PET-derived monomers, including terephthalic acid (TPA) and ethylene glycol, with particular emphasis on converting TPA into high-value chemicals, functional materials, and specialty polymers. By integrating biological and materials engineering approaches, these strategies offer a transformative pathway for converting textile waste into value-added products, thereby supporting the development of a circular and sustainable PET economy. Unlike previous surveys, this work focuses on the upcycling of TPA, providing a critical evaluation of how advanced protein engineering is driving improvements in enzymatic depolymerization and bioconversion pathways toward high-value products, thereby filling a key gap in existing research, which is predominantly centered on primary recycling approaches.
The rapid growth of the polymer industry has driven the widespread application of polyester plastics, especially polyethylene terephthalate (PET). However, the nonbiodegradability of waste PET poses persistent threats to ecosystems. Conventional mechanical recycling struggles to achieve closed-loop material circulation...
The global textile industry generates substantial amounts of waste, much of which originates from polyethylene terephthalate (PET). Due to its resistance to natural degradation, PET accumulates in the environment and contributes to pollution and landfill growth. Chemical depolymerization offers a sustainable strategy f...
Meysera Bakırcı, Beril S. Kaya, Abdullah Al Faysal et al.· Electrophoresis· 0 citations
Polyethylene terephthalate (PET) is a common plastic widely used in food packaging, especially plastic bottles, and in fibers and textiles. The widespread use of PET and its intentional and unintentional release and disposal over the past few decades have placed significant pressure on the environment, necessitating th...
Xin-Huan Deng, Joaquim I. Goes, Yu-Jin Jung et al.· Microplastics· 0 citations
The global textile industry’s rapid growth has accumulated vast, heterogeneous textile waste, posing environmental challenges while offering abundant, underutilized, carbon‐rich resources. This review comprehensively assesses recent advances in textile‐waste valorization for sustainable bioenergy production and synth...
Selim Reza, Майкл Э. Имон, Md. Tanvir Hossain et al.· cScience· 0 citations
The urgent need for bio-based functional materials has driven a shift away from fossil-fuel-sourced materials toward renewable lignocellulosic biomass (LCB). This comprehensive review explores the advancements in LCB carbonization between 2020 and 2026, marking a shift from traditional, low-yield combustion processes t...
H. Appiah, Sang Hyeok Park, J. V. Tongco· C++ Conference· 1 citation
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