A short review of immobilized nanostructured systems for arsenic removal in water purification

IF 7.7 2区 环境科学与生态学 Q1 ENVIRONMENTAL SCIENCES
C.G. Morales-Amaya , P.D. Astudillo-Sánchez , L. Reynoso-Cuevas , R. Herrera-Mendoza , S.A. Lozano-Morales
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引用次数: 0

Abstract

Anthropogenic activities such as industrial waste, municipal waste incineration, pesticide production, as well as wood preservation can discharge arsenic into the environment. There are soluble arsenic species that enter surface waters and can even leach into groundwater. It is estimated that more than fifty million people around the world consume water with arsenic levels above the maximum level allowed by the World Health Organization (0.01 mg/L). Among the soluble species of arsenic is inorganic arsenic (As+3), this species is highly harmful, causing acute or chronic hydroarsenicism. It has been proven that As+3 has impacts on the dermatological, cardiovascular, immunological, neurological, hepatic, renal and respiratory systems, with influence on embryonic development and with important carcinogenic properties. The inorganic As species (As+5), which unlike As+3 ions, is less toxic and is excreted in the urine, can bioaccumulate in various organs of the body. This review summarizes the adsorption capacity of both As species on various nanostructured systems and their regeneration/reuse for As removal for water potabilization as well as stabilization of nanomaterials. Focused on different nanostructured systems immobilized in different matrices such as iron, aluminum, natural and biological nano adsorbents. Its objective is to increase our fundamental understanding of this developing research topic and to identify future research and development strategies for a sustainable and cost-effective arsenic adsorption technology.
固定化纳米结构系统在水净化中的除砷研究进展
工业废物、城市垃圾焚烧、农药生产以及木材保存等人为活动都会将砷排放到环境中。有可溶性砷进入地表水,甚至可以渗入地下水。据估计,全世界有5000多万人饮用的水砷含量超过世界卫生组织允许的最高水平(0.01毫克/升)。在砷的可溶性种类中,无机砷(As+3)是高度有害的,可引起急性或慢性氢砷中毒。已经证明,As+3对皮肤、心血管、免疫、神经、肝脏、肾脏和呼吸系统有影响,对胚胎发育有影响,并具有重要的致癌特性。无机As (As+5)与As+3离子不同,毒性较小,可随尿液排出,可在人体各器官内生物积累。本文综述了这两种As在不同纳米结构体系上的吸附能力,以及它们的再生/再利用,用于除砷、水化和稳定纳米材料。重点研究了不同纳米结构体系在不同基质上的固定,如铁、铝、天然和生物纳米吸附剂。其目的是增加我们对这一发展中的研究课题的基本理解,并确定可持续和具有成本效益的砷吸附技术的未来研究和发展战略。
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来源期刊
Environmental Research
Environmental Research 环境科学-公共卫生、环境卫生与职业卫生
CiteScore
12.60
自引率
8.40%
发文量
2480
审稿时长
4.7 months
期刊介绍: The Environmental Research journal presents a broad range of interdisciplinary research, focused on addressing worldwide environmental concerns and featuring innovative findings. Our publication strives to explore relevant anthropogenic issues across various environmental sectors, showcasing practical applications in real-life settings.
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