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Discriminating Chemosensor for Detection of Fe3+ in Aqueous Media by Fluorescence Quenching Methodology

The Schiff base as chemosensor (B) namely 2‐((anthracen‐1‐ylimino) methyl) phenol was designed and synthesized. The spectral properties of chemosensor B were confirmed by using IR, 1H NMR, 13C NMR, and LC–MS techniques. The chemosensor B shows a significant fluorescence quenching with incremental ad...

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Bibliographic Details
Published in:Bulletin of the Korean Chemical Society 2018, 39(5), , pp.631-637
Main Authors: Vanjare, Balasaheb D., Mahajan, Prasad G., Hong, Seong‐Karp, Lee, Ki Hwan
Format: Article
Language:English
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Summary:The Schiff base as chemosensor (B) namely 2‐((anthracen‐1‐ylimino) methyl) phenol was designed and synthesized. The spectral properties of chemosensor B were confirmed by using IR, 1H NMR, 13C NMR, and LC–MS techniques. The chemosensor B shows a significant fluorescence quenching with incremental addition of Fe3+. The present chemosensor B shows unaffected fluorescence response induced by Fe3+ even in the presence of other competing ions in mixed solvent system. The binding mode and stoichiometry (2:1) between chemosensor B and Fe3+ were analyzed by recording 1H NMR and Job's plot respectively. The ground state complexation of chemosensor B and Fe3+was confirmed by absorption titration and fluorescence lifetime measurement in the absence and presence of various concentration of Fe3+ ion to chemosensor B. The lower detection limit for Fe3+ found to be 0.59 μM with correlation coefficient R2 = 0.9815. The present chemosensor B successfully applied for quantitative determination of the Fe3+ ion from ordinary water samples.
ISSN:1229-5949
0253-2964
1229-5949
DOI:10.1002/bkcs.11442