Highly efficient uranium uptake by the eco-designed cocamidopropyl betaine-decorated Na-P1 coal fly-ash zeolite

In some locations around the globe, the U concentrations may exceed WHO standards by 2-folds therefore, effective yet environmentally wise solutions to purify radioactive waters are of significant importance. Here, the optimized and fully controlled coal-fly-ash based Na-P1 zeolite functionalization...

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Veröffentlicht in:Journal of hazardous materials 2024-09, Vol.477, p.135230, Article 135230
Hauptverfasser: Sobczyk, M., Rossberg, A., Santhana Krishna Kumar, A., Marzec, M., Cwanek, A., Łokas, E., Nguyen Dinh, C., Bajda, T.
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container_issue
container_start_page 135230
container_title Journal of hazardous materials
container_volume 477
creator Sobczyk, M.
Rossberg, A.
Santhana Krishna Kumar, A.
Marzec, M.
Cwanek, A.
Łokas, E.
Nguyen Dinh, C.
Bajda, T.
description In some locations around the globe, the U concentrations may exceed WHO standards by 2-folds therefore, effective yet environmentally wise solutions to purify radioactive waters are of significant importance. Here, the optimized and fully controlled coal-fly-ash based Na-P1 zeolite functionalization by employing novel, biodegradable biosurfactant molecule - cocamidopropyl betaine (CAPB) is showcased. The zeolite’s surface decoration renders three composites with varying amounts of introduced CAPB molecule (Na-P1 @ CAPB), with 0.44, 0.88, and 1.59-times External Cation Exchange Capacity (ECEC). Wet-chemistry experiments revealed extremely high U adsorption capacity (qmax = 137.1 mg U/g) unveiling preferential interactions of uranyl dimers with CAPB molecules coupled with ion-exchange between Na+ ions. Multimodal spectroscopic analyses, including Fourier-Transformed Infra-Red (FT-IR), X-ray Photoelectron (XPS), and X-ray Absorption Fine Structure (XAFS), showed the hexavalent oxidation state of U, and no secondary release of the CAPB molecule from the composite. The EXAFS signals fingerprint changes in the interatomic distances of adsorbed U, showing the impact of the O and N, heteroatoms present in the CAPB molecule on U binding mechanism. The presented research outcomes showcase the easy, scalable, optimized, and environmentally friendly synthesis of biofunctional zeolite effectively purifying the real-life U-bearing wastewaters from the vicinity of the Pribram deposit (Czech Republic). [Display omitted] ●An eco-designed cocamidopropyl betaine (CAPB)-decorated Na-P1 zeolite was engineered.●Zeolite’s surface decoration precisely controlled by adjusting pH, and CAPB content.●The amount of CAPB comprehensively verified by combining FT-IR, XPS, and EA.●Qmax equals 137.11 mgU/gNa-P1@0.44CAPB, at pHeq ∼ 6, and S/Lratio = 2.5 g/L.●U dimeric hydroxy-complexes [(UO2)2(OH)22+] unveiled by U-L3 edge XAFS spectroscopy.
doi_str_mv 10.1016/j.jhazmat.2024.135230
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The EXAFS signals fingerprint changes in the interatomic distances of adsorbed U, showing the impact of the O and N, heteroatoms present in the CAPB molecule on U binding mechanism. The presented research outcomes showcase the easy, scalable, optimized, and environmentally friendly synthesis of biofunctional zeolite effectively purifying the real-life U-bearing wastewaters from the vicinity of the Pribram deposit (Czech Republic). 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Here, the optimized and fully controlled coal-fly-ash based Na-P1 zeolite functionalization by employing novel, biodegradable biosurfactant molecule - cocamidopropyl betaine (CAPB) is showcased. The zeolite’s surface decoration renders three composites with varying amounts of introduced CAPB molecule (Na-P1 @ CAPB), with 0.44, 0.88, and 1.59-times External Cation Exchange Capacity (ECEC). Wet-chemistry experiments revealed extremely high U adsorption capacity (qmax = 137.1 mg U/g) unveiling preferential interactions of uranyl dimers with CAPB molecules coupled with ion-exchange between Na+ ions. Multimodal spectroscopic analyses, including Fourier-Transformed Infra-Red (FT-IR), X-ray Photoelectron (XPS), and X-ray Absorption Fine Structure (XAFS), showed the hexavalent oxidation state of U, and no secondary release of the CAPB molecule from the composite. 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source Elsevier ScienceDirect Journals Complete
subjects adsorption
betaine
biodegradability
Biosurfactants
cation exchange capacity
coal
coal fly ash
Czech Republic
Functional adsorbents
ion exchange
Organo-minerals
oxidation
Uranium
uranyl ions
wastewater
X-radiation
X-ray absorption spectroscopy
XAS
zeolites
title Highly efficient uranium uptake by the eco-designed cocamidopropyl betaine-decorated Na-P1 coal fly-ash zeolite
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