The paper present the possibilities of arsenic removal from aqueous solutions using as adsorbent MFe2O4 (M=Cd2+, Ni2+) ferrite nanoparticles due to the affinity of arsenic towards iron ions. The ferrites were obtained after a heating treatment of the cadmium respectively nickel ferrioxalate coordination compounds, as precursors, at 500oC. From the two studied adsorbent material the nickel ferrite developed a higher maximum adsorption capacity (132 µg As(V)/g of ferrite) than the cadmium ferrite (109 µg As(V)/g of ferrite) in the removal process of As(V) from aqueous solutions. In both cases the equilibrium between the adsorbent and adsorbate was achieved in 60 minutes
Arsenic in water is currently a global concern due to the long-term exposure that could affect human...
Iron oxides/oxyhydroxides, namely maghemite, iron oxide-silica composite, akaganeite, and ferrihydri...
The presence of elevated concentration of arsenic in water sources is considered to be health hazard...
In this study a novel adsorbent, iron oxide, is used for As (V) or As (III) removal. Some ferric oxi...
Arsenic, is one of the most harmful elements to human health that continuously causes a threat to th...
The present study focuses on the application of iron oxide nanomaterial for the abetment of arsenic...
Higher environmental standards have made the removal of arsenic from water an important problem for ...
374-383Nickel ferrite-polyaniline nanocomposite has been prepared and characterized using different ...
The interaction of arsenate species in aqueous media with the surface of nanomagnetic particles with...
The removal of arsenic contamination from the aqueous environment is of great importance in the cons...
The removal of arsenic(III) and arsenic(V) from an aqueous solution through adsorption on to Fe3O4, ...
Arsenic contaminations of groundwater in several parts of the world are the results of natural and/o...
International audienceThe aim of this study was to develop synthetic magnetite nanoparticles (nFe3O4...
For many developing countries, groundwater is the main source for water consumption in rural and urb...
Nanomaterials (typically 1~100nm in diameter) have been of considerable environmental attention due ...
Arsenic in water is currently a global concern due to the long-term exposure that could affect human...
Iron oxides/oxyhydroxides, namely maghemite, iron oxide-silica composite, akaganeite, and ferrihydri...
The presence of elevated concentration of arsenic in water sources is considered to be health hazard...
In this study a novel adsorbent, iron oxide, is used for As (V) or As (III) removal. Some ferric oxi...
Arsenic, is one of the most harmful elements to human health that continuously causes a threat to th...
The present study focuses on the application of iron oxide nanomaterial for the abetment of arsenic...
Higher environmental standards have made the removal of arsenic from water an important problem for ...
374-383Nickel ferrite-polyaniline nanocomposite has been prepared and characterized using different ...
The interaction of arsenate species in aqueous media with the surface of nanomagnetic particles with...
The removal of arsenic contamination from the aqueous environment is of great importance in the cons...
The removal of arsenic(III) and arsenic(V) from an aqueous solution through adsorption on to Fe3O4, ...
Arsenic contaminations of groundwater in several parts of the world are the results of natural and/o...
International audienceThe aim of this study was to develop synthetic magnetite nanoparticles (nFe3O4...
For many developing countries, groundwater is the main source for water consumption in rural and urb...
Nanomaterials (typically 1~100nm in diameter) have been of considerable environmental attention due ...
Arsenic in water is currently a global concern due to the long-term exposure that could affect human...
Iron oxides/oxyhydroxides, namely maghemite, iron oxide-silica composite, akaganeite, and ferrihydri...
The presence of elevated concentration of arsenic in water sources is considered to be health hazard...