Huge block adsorbent with super-sized water transport channels for ultrafast and high-capacity recovery of dispersed uranium

<p indent="0mm">Efficient recovery of dispersed uranium is critical for the sustainable development of nuclear energy. Designing an adsorbent with water transport channel structure is a promising approach for boosting uranium recovery performance, while balancing the demands of high stability and high adsorption capacity using currently available structural design methods is challenging. Herein, a novel structurally stable huge block sponge with super-sized water transport channels (SWTC-PAO sponge) is fabricated to recover dispersed uranium. In natural seawater, SWTC-PAO sponge realizes a high uranium extraction capacity of <sc>9.1 mg g<sup>−1</sup></sc> with a rapid extraction rate. Moreover, the SWTC-PAO sponge can efficiently remove 99.59% of uranium within <sc>24 h</sc> from uranium-containing wastewater. The concentrations of metal ions in the treated wastewater are lower than the drinking water standard set by the WHO. The broad application potential in natural seawater and wastewater makes the SWTC-PAO sponge a highly promising adsorbent for recovering dispersed uranium resources and for treating environmental uranium pollution.

Authors

Publication Details

Journal
National Science Open
Published
2024-09-27
DOI
https://doi.org/10.1360/nso/20240020
Citations
3
Primary Topic
Radioactive element chemistry and processing
Type
article
Field-Weighted Citation Impact
0.48
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article

Huge block adsorbent with super-sized water transport channels for ultrafast and high-capacity recovery of dispersed uranium

Yaping Jian, Yihui Yuan, Yue Ma, Lijuan Feng et al.
3 citations
National Science Open
Radioactive element chemistry and processing
0.48
article

Huge block adsorbent with super-sized water transport channels for ultrafast and high-capacity recovery of dispersed uranium

Yaping Jian, Yihui Yuan, Yue Ma, Lijuan Feng, Meng Cao, Ning Wang, Hui Wang, Jiacheng Zhang, Shilei Zhao
article en
3 citations

Abstract

<p indent="0mm">Efficient recovery of dispersed uranium is critical for the sustainable development of nuclear energy. Designing an adsorbent with water transport channel structure is a promising approach for boosting uranium recovery performance, while balancing the demands of high stability and high adsorption capacity using currently available structural design methods is challenging. Herein, a novel structurally stable huge block sponge with super-sized water transport channels (SWTC-PAO sponge) is fabricated to recover dispersed uranium. In natural seawater, SWTC-PAO sponge realizes a high uranium extraction capacity of <sc>9.1 mg g<sup>−1</sup></sc> with a rapid extraction rate. Moreover, the SWTC-PAO sponge can efficiently remove 99.59% of uranium within <sc>24 h</sc> from uranium-containing wastewater. The concentrations of metal ions in the treated wastewater are lower than the drinking water standard set by the WHO. The broad application potential in natural seawater and wastewater makes the SWTC-PAO sponge a highly promising adsorbent for recovering dispersed uranium resources and for treating environmental uranium pollution.

National Science Open
Clean water and sanitation
Openalex Percentile: Top 42%
Radioactive element chemistry and processing
0.48
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Huge block adsorbent with super-sized water transport channels for ultrafast and high-capacity recovery of dispersed uranium — Yaping Jian, Yihui Yuan, et al. · National Science Open (2024) | TGRS Research Map | TGRS