A Review of Materials for the Removal of Micro- and Nanoplastics from Different Environments
Micro2025
16 citations
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Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count.
Score: 68
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0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Qingyue Wang,
Qingyue Wang,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Lavista Tyagi,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Arti Devi,
Lavista Tyagi,
Arti Devi,
Tochukwu Oluwatosin Maduka
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Arti Devi,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Arti Devi,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Arti Devi,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Arti Devi,
Christian Ebere Enyoh,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Christian Ebere Enyoh,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Qingyue Wang,
Christian Ebere Enyoh,
Qingyue Wang,
Lavista Tyagi,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Tochukwu Oluwatosin Maduka
Lavista Tyagi,
Qingyue Wang,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Qingyue Wang,
Tochukwu Oluwatosin Maduka
Christian Ebere Enyoh,
Qingyue Wang,
Qingyue Wang,
Lavista Tyagi,
Lavista Tyagi,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Qingyue Wang,
Qingyue Wang,
Sohel Rana,
Qingyue Wang,
Qingyue Wang,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Christian Ebere Enyoh,
Ifunanya Scholastica Akuwudike,
Sohel Rana,
Ifunanya Scholastica Akuwudike,
Tochukwu Oluwatosin Maduka
Qingyue Wang,
Christian Ebere Enyoh,
Qingyue Wang,
Tochukwu Oluwatosin Maduka
Summary
This review evaluates methods for removing microplastics and nanoplastics from water, soil, and air, finding that traditional approaches like filtration work for larger particles but struggle with nanoscale plastics. Newer technologies like magnetic nanoparticles and photocatalysis show promise, but challenges remain in making these solutions affordable and scalable for real-world cleanup.
Microplastics (MPs) and nanoplastics (NPs) have emerged as persistent environmental pollutants, posing significant ecological and human health risks. Their widespread presence in aquatic, terrestrial, and atmospheric ecosystems necessitates effective removal strategies. Traditional removal methods, including filtration, coagulation, and sedimentation, have demonstrated efficacy for larger MPs but struggle with nanoscale plastics. Advanced techniques, such as adsorption, membrane filtration, photocatalysis, and electrochemical methods, have shown promising results, yet challenges remain in scalability, cost-effectiveness, and environmental impact. Emerging approaches, including functionalized magnetic nanoparticles, AI-driven detection, and laser-based remediation, present innovative solutions for tackling MP and NP contamination. This review provides a comprehensive analysis of current and emerging strategies, evaluating their efficiency, limitations, and future prospects. By identifying key research gaps, this study aims to guide advancements in sustainable and scalable microplastic removal technologies, essential for mitigating their environmental and health implications.