Soil amendment with nanoresidues from water treatment increases P adsorption in saline soils

Mahmoud, Esawy; Baroudy, Ahmed A. El; Ali, Nehal; Sleem, Mahmoud

doi:10.1007/s10311-019-00917-6

Cited by 12 publications

(10 citation statements)

References 40 publications

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“…Arsenic sorption on metal hydroxide surfaces replaces singly coordinated OH − groups, and then undergoes a re-arrangement into a more stable binuclear bridge-type bond between cations [34]. The results from our study (desorption rate was about 1%-5% at all treatments for 800 mg As(III)/L-treated soil) generally agree with those of Mahmoud et al [35] and Elkhatib et al [24], showing that nWTR-adsorbed As are stable or immobilized over a long time period [26,36]. The amount of sorbed As in the biosolids-amended (3%) soil was 8000, 66,100, 68,200, and 76,700 mg As/kg or 8, 66.1, 68.2, and 76.7 mg As/g soil when the soil was treated with nWTRs of 0%, 0.25%, 0.5%, and 1% (w), respectively (Figure 1).…”

Section: Sorption Isotherms and Sorption Efficiency Of Arsenicsupporting

confidence: 91%

Section: Sorption Isotherms and Sorption Efficiency Of Arsenicsupporting

confidence: 91%

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Nano-Scale Drinking Water Treatment Residuals Affect Arsenic Fractionation and Speciation in Biosolids-Amended Agricultural Soil

et al. 2020

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An incubation experiment was conducted to determine the effects of nanoscale drinking water treatment residuals (nWTRs) on arsenic (As) fractionation and speciation in agricultural soil amended with biosolids. The soils were treated with biosolids of 3% (w/w), along with nWTR application rates of 0, 0.25, 0.50, or 1.00% (w/w). The results revealed that the As adsorption rate increased with increasing the As treatment level from 50 to 800 mg/L. The maximum efficiency of As adsorption was 95%–98% in the soil treated with nWTRs of 1%, while the least As adsorption was 53%–91% in the soil treated with nWTRs of 0.25%. The overall As bioavailability in the biosolids-amended soil followed a descending order of nWTRs treatment: (0%) > 0.25% nWTRs, >0.50% nWTRs, and >1% nWTRs. The addition of nWTRs significantly changed As speciation in biosolids-amended soil. The X-ray absorption near-edge structure spectroscopy (XANES) and MINEQL+4.6 analyses showed that most of As was in a oxidized form of As5+ that likely incorporated in As pentoxide, and thus, with low mobility, bioavailability, and toxicity. This study demonstrated that nWTRs were effective in adsorbing and immobilizing As in biosolids-amended agricultural soils by forming stable As-nWTR surface complexes.

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Section: Sorption Isotherms and Sorption Efficiency Of Arsenicsupporting

confidence: 91%

Section: Sorption Isotherms and Sorption Efficiency Of Arsenicsupporting

confidence: 91%

Nano-Scale Drinking Water Treatment Residuals Affect Arsenic Fractionation and Speciation in Biosolids-Amended Agricultural Soil

et al. 2020

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“…Heavy metals and organic pollutants, which are defined by their toxicity, stability, non-degradability, and bioaccumulation, pollute the areas close to the factories. Since these places have an impact on output, soil quality, and public health, managing them may be one of the biggest problems [ 1 ]. The utilization of nanomaterials in agriculture is vital due to the recent increase in population and the loss of natural resources.…”

Section: Introductionmentioning

confidence: 99%

“…Nanomaterials have been applied to agriculture in recent years to boost crop yields and adsorb hazardous chemicals, including pesticides and heavy metals [ 3 ]. High surface area, high porosity, and more surface-active sites are characteristics of nanobiochar (nB) or nano-water treatment residue (nWTR), which promote improved nutrient retention and increased pollutant adsorption [ 1 , 4 , 5 ]. Enhancing the production of crops and effectively removing dangerous pollutants are two benefits of using nanobiochar.…”

Section: Introductionmentioning

confidence: 99%

Enhancing Maize Yield and Soil Health through the Residual Impact of Nanomaterials in Contaminated Soils to Sustain Food

Mahmoud,

El-shahawy,

Ibrahim

et al. 2024

Nanomaterials

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Studying the impact of residual soil nanomaterials is a promising challenge for sustainable agricultural development to improve soil health and crop productivity. The objective of this study is to assess the long-term impacts of 50, 100, and 250 mg kg−1 soil of nanobiochar (nB) and nano-water treatment residues (nWTR) on the fertility, biological activity, and yield of maize (Zea mays L.) growing in heavy metal-contaminated soils. The results showed that when nB and nWTR were added in larger quantities, the concentrations of lead (Pb), nickel (Ni), cadmium (Cd), and cobalt (Co) extracted with DTPA decreased. With the addition of nB or nWTR, it also showed a significant increase in exchangeable cations, cation exchange capacity (CEC), soil fertility, soil organic matter (OM), microbial biomass carbon (MBC), and a decrease in soil salinity and sodicity. Catalase and dehydrogenase activities rose as nB addition increased, while they decreased when nWTR addition increased. In comparison to the control, the addition of nB and nWTR greatly boosted maize yield by 54.5–61.4% and 61.9–71.4%, respectively. These findings suggest that the researched nanomaterials’ residual effect provides an eco-friendly farming method to enhance the qualities of damaged soils and boost maize production. Our research suggested that adding recycling waste in the form of nanoparticles could immobilize heavy metals, improve soil characteristics, and increase the soil’s capacity for productivity.

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“…In addition, salt uptake can influence the physiology of higher organisms in many ways [12][13][14]. In particular, the lower organisms are mostly affected by the changing salinity; hence, studies on salinity in environmental chemistry have gained more attention [15][16][17][18] (Figure 2).…”

Section: Introductionmentioning

confidence: 99%

Influence of Anthropogenic Activities on Redox Regulation and Oxidative Stress Responses in Different Phyla of Animals in Coastal Water via Changing in Salinity

Bal

Panda

Pati

et al. 2022

Water

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Salinity is a decisive abiotic factor that modulates the physiology of aquatic organisms. Salinity itself is modulated by various factors—most notably by anthropogenic factors. In coastal regions, increasing salinity is observed mostly due to the elevated rate of evaporation under high temperatures, especially under global warming. In addition, many other anthropogenic factors, climatic factors, chemicals, etc., also contribute to the changes in salinity in coastal water. Some of these include rainfall, regional warming, precipitation, moisture, thermohaline circulation, gaseous pollutants, dissolved chemicals, wind flow, and biocrusts. Salinity has been found to regulate the osmotic balance and, thus, can directly or indirectly influence the biomarkers of oxidative stress (OS) in aquatic organisms. Imbalances in OS potentially affect the growth, production, and reproduction of organisms; therefore, they are being studied in organisms of economic or aquacultural importance. Salinity-modulated OS and redox regulation as a function of phylum are covered in this review. The literature from 1960 to 2021 indicates that the altered OS physiology under changing salinity or in combination with other (anthropogenic) factors is species-specific, even within a particular phylum. Thus, knowing the response mechanisms of such organisms to salinity may be useful for the management of specific aquatic animals or their habitats.

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Soil amendment with nanoresidues from water treatment increases P adsorption in saline soils

Cited by 12 publications

References 40 publications

Nano-Scale Drinking Water Treatment Residuals Affect Arsenic Fractionation and Speciation in Biosolids-Amended Agricultural Soil

Nano-Scale Drinking Water Treatment Residuals Affect Arsenic Fractionation and Speciation in Biosolids-Amended Agricultural Soil

Enhancing Maize Yield and Soil Health through the Residual Impact of Nanomaterials in Contaminated Soils to Sustain Food

Influence of Anthropogenic Activities on Redox Regulation and Oxidative Stress Responses in Different Phyla of Animals in Coastal Water via Changing in Salinity

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