Shahad Alkhair , Nabil Zouari , Mohammad Ibrahim Ahmad Ibrahim , Mohammad A. Al-Ghouti
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However, Adsorption is considered a significant technique for BPA removal due to its considerable influence on toxicity, bioavailability, and transport of heavy metals. The adsorption technique achieves 99 % removal efficiency for BPA. Meanwhile, green nanoparticle characteristics offer the best possibility to eliminate persistent contaminants, including BPA, via an adsorption mechanism due to their excellent adsorptive capabilities. Plants, bacteria, algae, and fungi can all be used for the green synthesis of NPs. Plant extracts offer a cheap and environmentally friendly solution to synthesizing without using intermediates. A comprehensive review of bisphenol A sources, occurrence, effects, and treatment methodologies is presented in this review article. In addition, the utilization of nanoparticles for BPA elimination is also discussed. The literature indicates that synthesizing green nanoparticles is a simple yet highly efficient technique to enhance nanoparticle properties for BPA removal, which can reach up to 96 % efficiency. Applying green nanoparticles in water treatment to remove BPA reduces energy consumption, eliminates chemical use, and generates environmentally friendly products.</p></div>","PeriodicalId":11716,"journal":{"name":"Environmental Nanotechnology, Monitoring and Management","volume":"22 ","pages":"Article 100963"},"PeriodicalIF":0.0000,"publicationDate":"2024-05-18","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Efficacy of adsorption processes employing green nanoparticles for bisphenol A decontamination in water: A review\",\"authors\":\"Shahad Alkhair , Nabil Zouari , Mohammad Ibrahim Ahmad Ibrahim , Mohammad A. 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However, Adsorption is considered a significant technique for BPA removal due to its considerable influence on toxicity, bioavailability, and transport of heavy metals. The adsorption technique achieves 99 % removal efficiency for BPA. Meanwhile, green nanoparticle characteristics offer the best possibility to eliminate persistent contaminants, including BPA, via an adsorption mechanism due to their excellent adsorptive capabilities. Plants, bacteria, algae, and fungi can all be used for the green synthesis of NPs. Plant extracts offer a cheap and environmentally friendly solution to synthesizing without using intermediates. A comprehensive review of bisphenol A sources, occurrence, effects, and treatment methodologies is presented in this review article. In addition, the utilization of nanoparticles for BPA elimination is also discussed. The literature indicates that synthesizing green nanoparticles is a simple yet highly efficient technique to enhance nanoparticle properties for BPA removal, which can reach up to 96 % efficiency. 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引用次数: 0
摘要
环境中最常见的内分泌干扰化合物 (EDC) 之一是双酚 A (BPA)。基于双酚 A 的产品在全球范围内越来越普遍。食物、饮料、土壤、灰尘、空气、土壤和废水中都可能存在双酚 A 污染。双酚 A 可通过各种途径进入人体,包括呼吸道、消化道和皮肤道。接触双酚 A 与肥胖、糖尿病、心血管疾病和肝脏疾病等慢性疾病有关。虽然不同地区饮用水中的双酚 A 最大浓度分别为 0.014 μg/L 和 6.4 μg/L,地下水和地表水中的浓度分别为 1.9 μg/L 和 5.1 μg/L,但由于处理厂的高效处理,有助于降低饮用水中的双酚 A 含量。不过,由于吸附技术对重金属的毒性、生物利用率和迁移具有相当大的影响,因此被认为是去除双酚 A 的重要技术。吸附技术对双酚 A 的去除率达到 99%。同时,由于绿色纳米粒子具有出色的吸附能力,其特性为通过吸附机制去除包括双酚 A 在内的持久性污染物提供了最佳可能性。植物、细菌、藻类和真菌都可用于绿色合成纳米粒子。植物提取物为不使用中间体的合成提供了一种廉价、环保的解决方案。本综述文章全面回顾了双酚 A 的来源、发生、影响和处理方法。此外,还讨论了利用纳米粒子消除双酚 A 的问题。文献表明,合成绿色纳米粒子是一种简单而高效的技术,可增强纳米粒子的特性,从而去除双酚 A,效率可达 96%。在水处理中应用绿色纳米粒子去除双酚 A,可降低能耗,减少化学品的使用,并产生环保产品。
Efficacy of adsorption processes employing green nanoparticles for bisphenol A decontamination in water: A review
One of the most common endocrine-disrupting compounds (EDCs) in the environment is bisphenol A (BPA). BPA-based products are becoming more prevalent worldwide. The contamination of BPA can exist in food, drinks, soil, dust, air, soil, and wastewater. BPA can enter the body through various including the respiratory, digestive, and dermal tract routes. Exposure to BPA has been linked to chronic diseases, including obesity, diabetes, and cardiovascular and liver diseases. Although maximum concentrations of BPA in drinking water varied across regions between 0.014 μg/L, 6.4 μg/L, and 1.9 μg/L and 5.1 μg/L in groundwater and surface water, respectively, due to the efficiency of the treatment plants helped in reducing BPA levels in drinking water. However, Adsorption is considered a significant technique for BPA removal due to its considerable influence on toxicity, bioavailability, and transport of heavy metals. The adsorption technique achieves 99 % removal efficiency for BPA. Meanwhile, green nanoparticle characteristics offer the best possibility to eliminate persistent contaminants, including BPA, via an adsorption mechanism due to their excellent adsorptive capabilities. Plants, bacteria, algae, and fungi can all be used for the green synthesis of NPs. Plant extracts offer a cheap and environmentally friendly solution to synthesizing without using intermediates. A comprehensive review of bisphenol A sources, occurrence, effects, and treatment methodologies is presented in this review article. In addition, the utilization of nanoparticles for BPA elimination is also discussed. The literature indicates that synthesizing green nanoparticles is a simple yet highly efficient technique to enhance nanoparticle properties for BPA removal, which can reach up to 96 % efficiency. Applying green nanoparticles in water treatment to remove BPA reduces energy consumption, eliminates chemical use, and generates environmentally friendly products.
期刊介绍:
Environmental Nanotechnology, Monitoring and Management is a journal devoted to the publication of peer reviewed original research on environmental nanotechnologies, monitoring studies and management for water, soil , waste and human health samples. Critical review articles, short communications and scientific policy briefs are also welcome. The journal will include all environmental matrices except air. Nanomaterials were suggested as efficient cost-effective and environmental friendly alternative to existing treatment materials, from the standpoints of both resource conservation and environmental remediation. The journal aims to receive papers in the field of nanotechnology covering; Developments of new nanosorbents for: •Groundwater, drinking water and wastewater treatment •Remediation of contaminated sites •Assessment of novel nanotechnologies including sustainability and life cycle implications Monitoring and Management papers should cover the fields of: •Novel analytical methods applied to environmental and health samples •Fate and transport of pollutants in the environment •Case studies covering environmental monitoring and public health •Water and soil prevention and legislation •Industrial and hazardous waste- legislation, characterisation, management practices, minimization, treatment and disposal •Environmental management and remediation