Journal
CHEMICAL PAPERS
Volume 77, Issue 4, Pages 2161-2169Publisher
SPRINGER INT PUBL AG
DOI: 10.1007/s11696-022-02619-w
Keywords
Water stability; Dehydration process; Metal-ligand bond; Transition metals; MOFs
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In this study, four 1,3,5-tricarboxylic benzoic acid-based metal organic frameworks (BTC-MOFs) were synthesized using Fe, Ni, Cu, and Zn as metal ions and 1,3,5-tricarboxylic benzoic acid as organic linkers in an aqueous medium. The structural features of BTC-MOFs were confirmed through morphological and spectroscopic analysis. A comparison study was conducted on the water stability and absorption capacity of BTC-MOF at different temperatures, and it was found that Fe-BTC had the highest water stable structure among the four BTC-MOFs.
Four 1,3,5-tricarboxylic benzoic acid-based metal organic frameworks (BTC-MOFs) have been synthesized using Fe, Ni, Cu and Zn as metal ions and 1,3,5-tricarboxylic benzoic acid as organic linkers in aqueous medium under certain experimental conditions. The structural features of BTC-MOFs have been confirmed through morphological and spectroscopic analysis. Afterward, the comparison study has been made on water stability and absorption capacity of BTC-MOF at different temperatures (25 degrees C, 50 degrees C, 75 degrees C and 100 degrees C) using thermogravimetric analysis and UV-visible spectroscopy. Our study results confirm that Fe-BTC has high water stable structure among four BTC-MOFs due to induces dehydration process. Here, we have noted interesting order (i.e., Fe-BTC > Ni-BTC > Cu-BTC > Zn-BTC) for water stability and absorption capacity. Importantly, such type of experimental study helps to fill the major gap between laboratories to industrial research in term of forecasting biomedical application of MOFs. [GRAPHICS] .
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