Removal of Cadmium From Contaminated Soil Using Iron (Iii) Oxide Nanoparticles Stabilized With Polyacrylic Acid

Mohamadiun, Malihe; Dahrazma, Behnaz; Saghravani, Seyed Fazlolah; Darban, Ahmad Khodadadi

doi:10.3846/16486897.2017.1364645

Cited by 22 publications

(4 citation statements)

References 62 publications

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“…The significant origins of HMs in animal systems are (1) consumption of polluted water and feed, (2) polluted air, (3) soil, (4) contaminated types of equipment, and (5) improper manufacturing practices (Caggiano et al, 2005). Also, levels of metal in milk increased with increasing the animal age (Mohamadiun et al, 2018). They added that the animal body acts as an effective biological filter and accumulates the metals brought by the feed into the bone tissue rather than the milk.…”

Section: Milk and Milk Productsmentioning

confidence: 99%

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Heavy Metal Toxicity and Remediation in Human and Agricultural Systems: An Updated Review

Melebary¹

2023

AAVS

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Heavy metals (HMs) are harmful and lethal at negligible levels and non-biodegradable in the typical ecosystem and constitutes animal, human and environmental hazards. They are divided into toxic metals like Lead, Cadmium, Arsenic, etc. and essential elements like copper, zinc, manganese, iron, nickel and chromium. Additionally, could be categorized into two groups based on the natural and anthropogenic sources releasing origins. Population and industrial expansion led to food contamination with HMs. Poisonous metals can be transferred from irrigation water to agricultural soils, agricultural operations, air pollution, animal feed, and packaging materials. Toxic metals are non-biodegradable, non-thermos degradable, and exceedingly stable in the ecosystem; as a result, they quickly build in various foods. Metal pollution of many foods, including agricultural commodities, and animal protein sources such as fish, milk, meat, and eggs, poses a hazard to food safety and security. Toxic metal pollution of irrigation water, agricultural soils, plants, and animals result in their integration into the food chain, posing a health hazard to humans. Most metals are harmful to animals and humans and accumulate in several organs like the skeleton, hepatic tissue, spleen, and renal tissues. Metals have a deleterious impact on the production of plants and animals. As a result, several remediation strategies have become necessary to limit the hazardous HMs pathway into the food chain and the human body. Metal nanoparticles are employed in beneficial applications, although they are associated with specific hazards.

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Section: Milk and Milk Productsmentioning

confidence: 99%

“…(Al-Rikaby, 2021; Al Olayan et al, 2020;Banerjee et al, 2020;Camps et al, 2020;Cherkasova et al, 2021;Coetzee et al, 2020;Genchi et al, 2020;Gong et al, 2021;Gudkov et al, 2021a;Hosseini et al, 2019;Islam et al, 2022b;Maksimiuk et al, 2021;Mohamadiun et al, 2018;Rajakumar et al, 2021;Shen et al, 2023).…”

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Heavy Metal Toxicity and Remediation in Human and Agricultural Systems: An Updated Review

Melebary¹

2023

AAVS

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“…For the last decades, there has been a renewed, continuous, ever-increasing interest in nanostructured materials, especially in magnetic nanoparticles (NP), 1 as they provide the critical building blocks for the booming of nanoscience and nanotechnology. This basic research has been triggered by the potential applications of magnetic NP in both health [2][3][4][5] (e.g., diagnosis and therapy) and ultra-high density magnetic recording 6 (e.g., bit patterned media 7,8 and pre-patterned substrates for thin film deposition 9,10 ), and lately in environmental applications, [11][12][13][14] for example, in water remediation. [15][16][17] On the one hand, this outburst has been fueled by the development and optimization of synthesis methods that allow obtaining magnetic NP of high crystalline quality, with shape and size control, together with the ability of binding them to a variety of linkers for drug delivery, [18][19][20][21][22][23] magnetic hyperthermia, 2,[24][25][26][27] cell internalization, 28 cell separation and purification, 29,30 or magnetic resonance imaging (MRI) contrast agents.…”

Section: Introductionmentioning

confidence: 99%

Magnetic Nanoparticles: from the Nanostructure to the Physical Properties

Batlle,

Moya,

Escoda-Torroella

et al. 2023

2023 IEEE International Magnetic Conference - Short Papers (INTERMAG Short Papers)

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Some of the synthesis methods and physical properties of iron oxide-based magnetic nanoparticles such as Fe3-xO4 and CoxFe3-xO4 are reviewed because of their interest in health, environmental applications, and ultra-high density magnetic recording. Unlike high crystalline quality nanoparticles larger than a few nanometers that show bulk-like magnetic and electronic properties, nanostructures with increasing structural defects yield a progressive worsening of their general performance due to frozen magnetic disorder and local breaking of their crystalline symmetry. Thus, it is shown that single-crystal, monophasic nanoparticles do not exhibit significant surface or finite-size effects, such as spin canting, reduced saturation magnetization, high closure magnetic fields, hysteresis-loop shift or dead magnetic layer, features which are mostly associated with crystallographic-defective systems. Besides, the key role of the nanoparticle coating, surface anisotropy, and inter-particle interactions are discussed. Finally, the results of some single particle techniques -magnetic force microscopy, Xray photoemission electron microscopy, and electron magnetic chiral dichroism-that allow studying individual nanoparticles down to sub-nanometer resolution with element, valence and magnetic selectivity, are presented. All in all, the intimate, fundamental correlation of the nanostructure (crystalline, chemical, magnetic…) to the physical properties of the nanoparticles is ascertained.

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“…Children are at danger for impaired growth, inferior intelligent quotient, reduced responsiveness duration, hyperactivity, and mental depreciation while adults more often than not encounter decreased reaction period, deficiency of memory, nausea, insomnia, anorexia, and fragility of the joints due to Pb exposure (Bakshi et al, 2018;Proshad et al, 2019). Cadmium (Cd) in the body is understood to impinge on a number of enzymes and it is responsible for itai itai disease, whose warning sign are excruciating osteomalacia (bone disease) linked with kidney failure (Proshad et al, 2019;Mohamadiun et al, 2018). Elevated concentration of Pb and Cd in the soil poses threats to human and animal health by leaching these metals from the soil into water and consumption of edible plants grown in the contaminated soil.…”

Section: Introductionmentioning

confidence: 99%

Use of Surface Modified Calcium Oxide Nanoparticle in Immobilizing of Lead and Cadmium Contaminated Soil

Moses

Agbonsalo²

2022

Walisongo J. Chem.

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Remediation is vital in advancing the agriculture yield and decreasing the hazard of food poisoning in contaminated soil. The aim of this study was to remediate lead and cadmium contaminated soil from Evbareke spare parts market using surface modified calcium oxide nanoparticle (SMCON). Soil samples were collected from Evbareke spare parts market, Benin City, Edo state Nigeria, using quadrant sampling method at the depth of 0-15cm using soil auger. The soil samples obtained were physicochemically and geochemically characterized. The SMCON was synthesized and characterized using Fourier Transform-Infra Red, Scanning electron spectroscopy and x-ray diffraction. A leaching experiment was carried out to authenticate the immobilization efficiency and capacity of SMCON on the lead and cadmium in the contaminated soil. The SMCON efficiency for lead and cadmium immobilization in the contaminated soil increased with increase in immobilizer up to the optimum 4% of SMCON in contaminated soil for lead and ≤1% of SMCON for cadmium. Likewise, the immobilization capacity of SMCON in the contaminated soil also revealed that more of lead and cadmium were immobilized as SMCON content in the contaminated soil mixture increased, thereby disallowing leaching of lead and cadmium from the contaminated soil. The SMCON effectively decreased the lead and cadmium in the soil by in situ adsorption, ion exchange and complexation mechanism thus reducing its accessibility for uptake by plants and its transmission to man and animals.

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Removal of Cadmium From Contaminated Soil Using Iron (Iii) Oxide Nanoparticles Stabilized With Polyacrylic Acid

Cited by 22 publications

References 62 publications

Heavy Metal Toxicity and Remediation in Human and Agricultural Systems: An Updated Review

Heavy Metal Toxicity and Remediation in Human and Agricultural Systems: An Updated Review

Magnetic Nanoparticles: from the Nanostructure to the Physical Properties

Use of Surface Modified Calcium Oxide Nanoparticle in Immobilizing of Lead and Cadmium Contaminated Soil

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