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An assessment of the impact of structure and type of microplastics on ultrafiltration technology for microplastic remediation
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Researchers assessed ultrafiltration technology for microplastic removal from water, finding that membrane performance varied based on microplastic structure, size, and polymer type, with implications for optimizing tertiary treatment in water purification systems.
Microplastic, which is of size less than 5 mm, is gaining a lot of attention as it has become a new arising contaminant because of its ecophysiology impact on the aquatic environment. These microplastics are found in freshwater or drinking water and are the major carriers of pollutants. Removal of this microplastic can be done through the primary treatment process, secondary treatment process, and tertiary treatment process. One approach for microplastic remediation is ultrafiltration technology, which involves passing water through a membrane with small pores to filter out the microplastics. However, the efficiency of this technology can be affected by the structure and type of microplastics present in the water. New strategies can be created to improve the technology and increase its efficacy in removing microplastics from water by knowing how various types and shapes of microplastics react during ultrafiltration. The filter-based technique, that is, ultrafiltration has achieved the best performance for the removal of microplastic. But with the ultrafiltration, too some microplastic that are of sizes less than of ultrafiltration membrane passes through the filter and enters the food chain. Accumulation of this microplastic on the membrane also leads to membrane fouling. Through this review article, we have assessed the impact of the structure, size, and type of MPs on ultrafiltration technology for microplastic remediation, with that how these factors affect the efficiency of the filtration process and challenges occur during filtration.
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Removal of microplastic particles in water by ultrafiltration: assessment of process performances using a new characterization and quantification analytical technique
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Researchers assessed the performance of ultrafiltration membranes for removing microplastic particles from water, developing a new characterization and quantification technique to evaluate removal efficiency. The study provides a methodological framework for filtration-based microplastic removal.
[Effects of Microplastics on Membrane Fouling During a Shortened Ultrafiltration Membrane Process].
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This study investigated how microplastics in freshwater affect membrane fouling during ultrafiltration — a common drinking water treatment step — finding that their presence can compromise filter performance and potentially allows microplastics to pass into treated water supplies.
Effectiveness of Microplastic Removal from River Water Using Conventional and Ultrafiltration Techniques: Correlation with Physicochemical Parameters
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This study compared conventional and ultrafiltration water treatment methods for removing microplastics from river water in Indonesia, finding that ultrafiltration achieved significantly higher MP removal efficiencies, suggesting it as a more effective option for addressing MP contamination in drinking water.
Membrane fouling characteristics and mechanisms in coagulation-ultrafiltration process for treating microplastic-containing water
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This study investigated how microplastics affect membrane fouling during a common water treatment process that combines coagulation with ultrafiltration. Researchers found that while microplastics initially worsen membrane fouling, adding the right amount of coagulant can actually turn the plastics into an advantage by creating a looser filter cake that improves water flow.
Fate and Behavior of Microplastics in Ultrafiltration Membrane Systems for Water Treatment: Fouling, Releasing, and Organic Leaching
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Researchers investigated the fate and behavior of microplastics in ultrafiltration membrane systems used for water treatment, examining three key phenomena: membrane fouling caused by microplastic deposition, release of microplastics through membrane failure or bypass, and leaching of organic additives from microplastics. The work provides mechanistic understanding of how microplastics interact with ultrafiltration systems in drinking water treatment contexts.
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When a large batch of papers lands in the Atlas, we read through it and send a short write-up of what stood out.