Abstract
Quantification of the distribution of Q(n) species, representing the number of bridging oxygens (n) around a silicate tetrahedra in potassium disilicate glass, is achieved using the two-dimensional Phase-Adjusted Spinning Sideband (2D PASS) sequence. Furthermore, we compare the relative concentrations of each Q(n) species obtained through the PASS method with a previous study utilizing the Magic Angle Flip** (MAF) technique on the same glass composition. While MAF has been employed in prior research to enhance the precision of Q(n) species measurements in glasses, it necessitates a specialized probe capable of reorienting the rotor axis. In contrast, alternatives like MAT or 2D PASS are more appealing as they can be implemented using a conventional MAS probe. In this study, we demonstrate that the PASS experiment provides comparable accuracy to MAF while significantly reducing the required time.
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Acknowledgements
The author Manasi Ghosh is grateful to Science and Engineering Research Board (SERB)-POWER research grant (file no. SPG/2021/000303), Department of Science and Technology (DST), Government of India, IoE-BHU Seed Grant-II (Dev. Scheme No. 6031(B), for financial support.
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Dr. Krishna Kishor Dey had performed all the experiments. Prince Sen, Bijay Laxmi Pradhan, Lekhan Lodhi, had analyze the data, and make Figures of the manuscript under the guidance of Dr. Manasi Ghosh and Dr. Krishna Kishor Dey. Dr. Manasi Ghosh and Dr. Krishna Kishor Dey had prepared the manuscript.
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Sen, P., Pradhan, B.L., Lodhi, L. et al. Precise Measurement of Qn Species Distributions in Modified Silicate Glass Using Phase-Adjusted Spinning Sideband NMR Experiment. Silicon 15, 8065–8071 (2023). https://doi.org/10.1007/s12633-023-02639-5
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DOI: https://doi.org/10.1007/s12633-023-02639-5