Efficient sorption and secure immobilization of strontium ions onto nanoporous alumino-borosilicate as a new matrix

The objective behind developing the nanoporous alumino-borosilicate (AlBS) was to remove strontium ion (Sr<sup>2+</sup>) from liquid waste and subsequently stabilize it. The sorption capacity of the nanoporous AlBS was assessed in relation to various experimental factors, including contact time, temperature, initial pH solution, and initial concentration of Sr ions. According to the obtained results, nanoporous AlBS shows a maximum Sr<sup>2+</sup> sorption capacity of 163.08 mg/g. In order to achieve stable immobilization of the sorbed Sr ions, heat treatments at different temperatures were applied to the Sr-containing nanoporous AlBS. Various eluents were used in the leach tests to examine the Sr ions leaching from heat-treated materials. Only 3.43% of the Sr ions initially adsorbed in the nanoporous AlBS matrix was washed out with 1 M sodium chloride eluent, showing that heating the sample to around 1100 °C successfully trapped Sr ions in the nanoporous AlBS matrix.

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Publication Details

Journal
Scientific Reports
Published
2024-09-16
DOI
https://doi.org/10.1038/s41598-024-72126-3
Citations
6
Primary Topic
Chemical Synthesis and Characterization
Type
article
Field-Weighted Citation Impact
1.76
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article

Efficient sorption and secure immobilization of strontium ions onto nanoporous alumino-borosilicate as a new matrix

Ali Abbasi, Ali Yadollahi, Hamid Sepehrian, Reza Davarkhah et al.
6 citations
Scientific Reports
Chemical Synthesis and Characterization
1.76
article

Efficient sorption and secure immobilization of strontium ions onto nanoporous alumino-borosilicate as a new matrix

Ali Abbasi, Ali Yadollahi, Hamid Sepehrian, Reza Davarkhah, Armen Avanes
article en
6 citations

Abstract

The objective behind developing the nanoporous alumino-borosilicate (AlBS) was to remove strontium ion (Sr<sup>2+</sup>) from liquid waste and subsequently stabilize it. The sorption capacity of the nanoporous AlBS was assessed in relation to various experimental factors, including contact time, temperature, initial pH solution, and initial concentration of Sr ions. According to the obtained results, nanoporous AlBS shows a maximum Sr<sup>2+</sup> sorption capacity of 163.08 mg/g. In order to achieve stable immobilization of the sorbed Sr ions, heat treatments at different temperatures were applied to the Sr-containing nanoporous AlBS. Various eluents were used in the leach tests to examine the Sr ions leaching from heat-treated materials. Only 3.43% of the Sr ions initially adsorbed in the nanoporous AlBS matrix was washed out with 1 M sodium chloride eluent, showing that heating the sample to around 1100 °C successfully trapped Sr ions in the nanoporous AlBS matrix.

Scientific ReportsVol. 14(1)
Atomic Energy Organization of Iran (IR), University of Maragheh (IR), Nuclear Science and Technology Research Institute
Openalex Percentile: Top 17%
Chemical Synthesis and Characterization
1.76
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