Fe3O4@titanate nanocomposites: novel reclaimable adsorbents for removing radioactive ions from wastewater

Liang Zhou; Mingze Xu; Guodong Wei; La Li; M. V. Chubik; M. P. Chubik; A. A. Gromov; Wei Han

doi:10.1007/s10854-015-2753-5

Fe₃O₄@titanate nanocomposites: novel reclaimable adsorbents for removing radioactive ions from wastewater

Liang Zhou, Mingze Xu, Guodong Wei, La Li, M. V. Chubik, M. P. Chubik, A. A. Gromov, Wei Han^*

^*Corresponding author for this work

Research output: Contribution to journal › Article › peer-review

8 Citations (Scopus)

Abstract

Fabrication of reclaimable adsorbents without secondary pollution caused by dust pollution is a challenge in the field of nuclear wastewater purification and emergency treatment. In this study, novel core–shell Fe₃O₄@titanate nanocomposites were successfully developed to meet the demanding requirements for quickly removing the radioactive ions within only a few hours from the simulation nuclear leakage water. Adsorption experiments demonstrate that the Fe₃O₄@titanate nanomaterials can be regarded as efficient adsorbents with the saturated sorption capacity as high as 118.4 mg/g for Ba²⁺ ions. And the fast adsorption process can guarantee that the radioactive polluted water can be recovered within only few hours after a nuclear leakage. Moreover, the novel materials could be fully reclaimed by virtue of the magnetic recycling equipment because of their magnetic nature. The results demonstrate the Fe₃O₄@titanate nanomaterials can be used as a promising emergency radioactive adsorbent after a nuclear leakage.

Original language	English
Pages (from-to)	2742-2747
Number of pages	6
Journal	Journal of Materials Science: Materials in Electronics
Volume	26
Issue number	5
DOIs	https://doi.org/10.1007/s10854-015-2753-5
Publication status	Published - 1 May 2015
Externally published	Yes

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Zhou, L., Xu, M., Wei, G., Li, L., Chubik, M. V., Chubik, M. P., Gromov, A. A., & Han, W. (2015). Fe₃O₄@titanate nanocomposites: novel reclaimable adsorbents for removing radioactive ions from wastewater. Journal of Materials Science: Materials in Electronics, 26(5), 2742-2747. https://doi.org/10.1007/s10854-015-2753-5

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title = "Fe3O4@titanate nanocomposites: novel reclaimable adsorbents for removing radioactive ions from wastewater",

abstract = "Fabrication of reclaimable adsorbents without secondary pollution caused by dust pollution is a challenge in the field of nuclear wastewater purification and emergency treatment. In this study, novel core–shell Fe3O4@titanate nanocomposites were successfully developed to meet the demanding requirements for quickly removing the radioactive ions within only a few hours from the simulation nuclear leakage water. Adsorption experiments demonstrate that the Fe3O4@titanate nanomaterials can be regarded as efficient adsorbents with the saturated sorption capacity as high as 118.4 mg/g for Ba2+ ions. And the fast adsorption process can guarantee that the radioactive polluted water can be recovered within only few hours after a nuclear leakage. Moreover, the novel materials could be fully reclaimed by virtue of the magnetic recycling equipment because of their magnetic nature. The results demonstrate the Fe3O4@titanate nanomaterials can be used as a promising emergency radioactive adsorbent after a nuclear leakage.",

author = "Liang Zhou and Mingze Xu and Guodong Wei and La Li and Chubik, {M. V.} and Chubik, {M. P.} and Gromov, {A. A.} and Wei Han",

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doi = "10.1007/s10854-015-2753-5",

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T2 - novel reclaimable adsorbents for removing radioactive ions from wastewater

AU - Zhou, Liang

AU - Xu, Mingze

AU - Wei, Guodong

AU - Li, La

AU - Chubik, M. V.

AU - Chubik, M. P.

AU - Gromov, A. A.

AU - Han, Wei

PY - 2015/5/1

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N2 - Fabrication of reclaimable adsorbents without secondary pollution caused by dust pollution is a challenge in the field of nuclear wastewater purification and emergency treatment. In this study, novel core–shell Fe3O4@titanate nanocomposites were successfully developed to meet the demanding requirements for quickly removing the radioactive ions within only a few hours from the simulation nuclear leakage water. Adsorption experiments demonstrate that the Fe3O4@titanate nanomaterials can be regarded as efficient adsorbents with the saturated sorption capacity as high as 118.4 mg/g for Ba2+ ions. And the fast adsorption process can guarantee that the radioactive polluted water can be recovered within only few hours after a nuclear leakage. Moreover, the novel materials could be fully reclaimed by virtue of the magnetic recycling equipment because of their magnetic nature. The results demonstrate the Fe3O4@titanate nanomaterials can be used as a promising emergency radioactive adsorbent after a nuclear leakage.

AB - Fabrication of reclaimable adsorbents without secondary pollution caused by dust pollution is a challenge in the field of nuclear wastewater purification and emergency treatment. In this study, novel core–shell Fe3O4@titanate nanocomposites were successfully developed to meet the demanding requirements for quickly removing the radioactive ions within only a few hours from the simulation nuclear leakage water. Adsorption experiments demonstrate that the Fe3O4@titanate nanomaterials can be regarded as efficient adsorbents with the saturated sorption capacity as high as 118.4 mg/g for Ba2+ ions. And the fast adsorption process can guarantee that the radioactive polluted water can be recovered within only few hours after a nuclear leakage. Moreover, the novel materials could be fully reclaimed by virtue of the magnetic recycling equipment because of their magnetic nature. The results demonstrate the Fe3O4@titanate nanomaterials can be used as a promising emergency radioactive adsorbent after a nuclear leakage.

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ER -

Fe₃O₄@titanate nanocomposites: novel reclaimable adsorbents for removing radioactive ions from wastewater

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