We can't find the internet
Attempting to reconnect
Something went wrong!
Hang in there while we get back on track
Recycled Synthetic Polymer-Based Electrospun Membranes for Filtering Applications
Summary
This review examines electrospun nanofibrous membranes fabricated from recycled synthetic plastic waste -- including PET, polystyrene, and nylon -- as filtration materials, summarizing their filtration performance across air and water applications and discussing future development directions for high-value upcycling of plastic waste.
Synthetic polymers have been widely applied in various commercial and household applications owing to their fascinating properties of low-cost, lightweight, and processability. However, increasing population and living standards and rising demand for non-biodegradable polymers have led to the accumulation of plastic pollution resulting in the current environmental crisis. Current waste management methods such as landfilling or incineration do not solve these environmental issues. On the other hand, recycling plastic waste is the most valuable strategy for dealing with waste as raw material for high-value products. One of such products is filter membranes. Polymer fiber membranes as masks in pandemics have been one of the most sought-after products in recent years. Some types of plastic waste became a material source for the development of filter materials, which could contribute to the protection of human health. Utilizing the simple, cheap, and industrially available technological solution is also needed. Given the number of advantages, electrospinning is such a beneficial solution. The electrospun polymer waste-based membranes show excellent filtration performance and can carry many other functionalities. Therefore, this review article presents a brief overview of electrospun nanofibrous membranes based on synthetic plastic waste and summarizes the filtration performance of such membranes. This review will discuss the future perspectives of electrospun membranes as well.
Sign in to start a discussion.
More Papers Like This
Electrospun nanofiber membranes for the control of micro/nanoplastics in the environment
This review examines electrospun nanofiber membranes as next-generation filtration materials for removing micro- and nanoplastics from water, analyzing their performance advantages over conventional membranes and identifying remaining challenges for practical environmental application.
Circulatory Management of Polymer Waste: Recycling into Fine Fibers and Their Applications
This review examined technologies for recycling polymer waste into fine, nano-, and microscale fibers via electrospinning and melt blowing, demonstrating that circular management of plastic waste can produce functional materials for filtration, biomedical, and textile applications.
Research technology of the core nanoyarn for Filtration Application
This paper describes the development of composite nanofiber yarn — using electrospinning technology — as a filter material for removing contaminants from water and air. Nanofibrous filters could be effective tools for capturing microplastic particles from drinking water and wastewater.
Bio-based electrospun polyamide membrane – sustainable multipurpose filter membranes for microplastic filtration
Researchers created electrospun membranes from bio-based polyamide that can effectively filter microplastics from both water and air. The study found that these nonwoven membranes also work well for cleaning up oily wastewater. The findings suggest a sustainable, multipurpose filtration solution made from renewable materials.
Electrospun Nanofibrous Membranes for Air Filtration: A Critical Review
This review examines how electrospun nanofiber membranes can be used for air filtration, offering high surface area and tunable pore sizes to capture fine particulate matter. Researchers compared materials ranging from pure polymers to organic-inorganic composites and bio-based alternatives. The study highlights recent innovations in layered filter designs that aim to overcome the inherent fragility of nanofiber membranes while maintaining excellent filtration performance.