Efficient NMR measurement and data analysis supported by the Bayesian inference: The case of the heavy fermion compound YbCo 2 Zn 20

We propose a data-driven technique to infer microscopic physical quantities from nuclear magnetic resonance (NMR) spectra, in which the data size and quality required for the Bayesian inference are investigated. The Co-NMR measurement of YbCo Zn single crystal generates complex spectra with 28 peaks...

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Veröffentlicht in:Journal of magnetic resonance (1997) 2023-12, Vol.357, p.107585
Hauptverfasser: Ueda, H, Katakami, S, Okada, M, Yoshida, S, Nakai, Y, Mito, T, Mizumaki, M
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container_title Journal of magnetic resonance (1997)
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creator Ueda, H
Katakami, S
Okada, M
Yoshida, S
Nakai, Y
Mito, T
Mizumaki, M
description We propose a data-driven technique to infer microscopic physical quantities from nuclear magnetic resonance (NMR) spectra, in which the data size and quality required for the Bayesian inference are investigated. The Co-NMR measurement of YbCo Zn single crystal generates complex spectra with 28 peaks. By exploiting the site symmetry in the crystal structure, the isotropic Knight shift K and nuclear quadrupole resonance (NQR) frequency ν were respectively estimated to be K =0.7822±0.0090% and ν =2.008±0.016 MHz (T=20 K and H≃10.2 T) by analyzing only 30 data points from one spectrum. The estimated ν is consistent with the precise value obtained in the NQR experiment. Our method can significantly reduce the measurement time and the computational cost of data analysis in NMR experiments.
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title Efficient NMR measurement and data analysis supported by the Bayesian inference: The case of the heavy fermion compound YbCo 2 Zn 20
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