Fabrication of Robust Forward Osmosis Membrane by Assembling FeO<sub>x</sub>Cl<sub>y</sub> Nanoparticles

Abstract Owing to its inherent advantages like low‐energy consumption, low‐fouling propensity, and high recovering ability over high‐pressure‐driven membrane processes, the future of membrane technology is shifting toward forward osmosis (FO). However, the utility of FO in challenging areas is hindered by the lack of suitable FO membranes. Here, the development of innovative FO membranes by depositing weakly magnetic and positively charged FeO x Cl y nanoparticles on a negatively charged nylon membrane (FeO x ‐Nyl) is reported. Remarkably, the FeO x ‐Nyl membrane possesses outstanding stability in an aqueous medium and survived in both acidic (pH = 3.3) and basic (pH = 12.2) solutions. Upon varying the loading amount of FeO x Cl y , the water flux of the FeO x ‐Nyl membrane varies from 27.8 to 61.3 LMH (from 5 to 30 mg). Due to its hydrophilic nature, the FeO x ‐Nyl membrane exhibits excellent flux recovery rates (FRR), up to ≈70%. The outstanding robustness and high flux of FeO x ‐Nyl are exploited in challenging applications like recovering reactive chemical wastes and dehydration of acetic acid.

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Publication Details

Journal
Advanced Functional Materials
Published
2024-10-22
DOI
https://doi.org/10.1002/adfm.202414087
Primary Topic
Membrane Separation Technologies
Type
article
Field-Weighted Citation Impact
0.00

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Fabrication of Robust Forward Osmosis Membrane by Assembling FeOxCly Nanoparticles

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Fabrication of Robust Forward Osmosis Membrane by Assembling FeOxCly Nanoparticles

Kalyan Raidongia, K. K. R. Datta, Raktim Gogoi, Priyamjeet Deka, Bikash Kumar Das, Sonali Roy, Kiran Mayawad, Mrityunjoy Dey
article en

Abstract

Abstract Owing to its inherent advantages like low‐energy consumption, low‐fouling propensity, and high recovering ability over high‐pressure‐driven membrane processes, the future of membrane technology is shifting toward forward osmosis (FO). However, the utility of FO in challenging areas is hindered by the lack of suitable FO membranes. Here, the development of innovative FO membranes by depositing weakly magnetic and positively charged FeO x Cl y nanoparticles on a negatively charged nylon membrane (FeO x ‐Nyl) is reported. Remarkably, the FeO x ‐Nyl membrane possesses outstanding stability in an aqueous medium and survived in both acidic (pH = 3.3) and basic (pH = 12.2) solutions. Upon varying the loading amount of FeO x Cl y , the water flux of the FeO x ‐Nyl membrane varies from 27.8 to 61.3 LMH (from 5 to 30 mg). Due to its hydrophilic nature, the FeO x ‐Nyl membrane exhibits excellent flux recovery rates (FRR), up to ≈70%. The outstanding robustness and high flux of FeO x ‐Nyl are exploited in challenging applications like recovering reactive chemical wastes and dehydration of acetic acid.

Advanced Functional MaterialsVol. 35(4)
Indian Institute of Technology Guwahati (IN), SRM Institute of Science and Technology (IN), Kyungpook National University (KR)
Science and Engineering Research Council
Affordable and clean energy
Openalex Percentile: Top 82%
Membrane Separation Technologies
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