Ultrasound is a powerful means to study numerous phenomena of condensed-matter physics as acoustic waves couple strongly to structural, magnetic, orbital, and charge degrees of freedom. In this paper, we present such a technique combined with single-turn coils (STCs) that generate magnetic fields beyond 100 T with the typical pulse duration of 6 µs. As a benchmark of this technique, the ultrasound results for MnCr2S4, Cu6Si6O18·6H2O, and liquid oxygen are shown. The resolution for the relative sound-velocity change in the STC is estimated as Δv/v ∼ 10−3, which is sufficient to study various field-induced phase transitions and critical phenomena.
Description
Ultrasound measurement technique for the single-turn-coil magnets: Review of Scientific Instruments: Vol 92, No 6
%0 Journal Article
%1 nomura2021ultrasound
%A Nomura, T
%A Hauspurg, A
%A Gorbunov, D. I.
%A Miyata, A
%A Schulze, E
%A Zvyagin, S. A.
%A Tsurkan, V
%A Matsuda, Y. H.
%A Kohama, Y
%A Zherlitsyn, S
%D 2021
%I American Institute of Physics
%J Rev. Sci. Instrum.
%K b
%N 6
%P 063902
%R 10.1063/5.0045209
%T Ultrasound measurement technique for the single-turn-coil magnets
%U https://doi.org/10.1063/5.0045209
%V 92
%X Ultrasound is a powerful means to study numerous phenomena of condensed-matter physics as acoustic waves couple strongly to structural, magnetic, orbital, and charge degrees of freedom. In this paper, we present such a technique combined with single-turn coils (STCs) that generate magnetic fields beyond 100 T with the typical pulse duration of 6 µs. As a benchmark of this technique, the ultrasound results for MnCr2S4, Cu6Si6O18·6H2O, and liquid oxygen are shown. The resolution for the relative sound-velocity change in the STC is estimated as Δv/v ∼ 10−3, which is sufficient to study various field-induced phase transitions and critical phenomena.
@article{nomura2021ultrasound,
abstract = {Ultrasound is a powerful means to study numerous phenomena of condensed-matter physics as acoustic waves couple strongly to structural, magnetic, orbital, and charge degrees of freedom. In this paper, we present such a technique combined with single-turn coils (STCs) that generate magnetic fields beyond 100 T with the typical pulse duration of 6 µs. As a benchmark of this technique, the ultrasound results for MnCr2S4, Cu6[Si6O18]·6H2O, and liquid oxygen are shown. The resolution for the relative sound-velocity change in the STC is estimated as Δv/v ∼ 10−3, which is sufficient to study various field-induced phase transitions and critical phenomena.
},
added-at = {2021-10-14T17:52:52.000+0200},
author = {Nomura, T and Hauspurg, A and Gorbunov, D. I. and Miyata, A and Schulze, E and Zvyagin, S. A. and Tsurkan, V and Matsuda, Y. H. and Kohama, Y and Zherlitsyn, S},
biburl = {https://www.bibsonomy.org/bibtex/2bc318a91e5ebf2e8329b7c42cfdf0693/ctqmat},
comment = {doi: 10.1063/5.0045209},
day = 07,
description = {Ultrasound measurement technique for the single-turn-coil magnets: Review of Scientific Instruments: Vol 92, No 6},
doi = {10.1063/5.0045209},
interhash = {425c9338c0028eef264e8579acc6c46b},
intrahash = {bc318a91e5ebf2e8329b7c42cfdf0693},
issn = {00346748},
journal = {Rev. Sci. Instrum. },
keywords = {b},
month = jun,
number = 6,
pages = 063902,
publisher = {American Institute of Physics},
timestamp = {2023-10-16T10:09:10.000+0200},
title = {Ultrasound measurement technique for the single-turn-coil magnets},
url = {https://doi.org/10.1063/5.0045209},
volume = 92,
year = 2021
}