Bulletin of the American Physical Society
APS March Meeting 2020
Volume 65, Number 1
Monday–Friday, March 2–6, 2020; Denver, Colorado
Session D61: Fe-Based Superconductors - Nematicity II
2:30 PM–5:30 PM,
Monday, March 2, 2020
Room: Mile High Ballroom 4B
Sponsoring
Units:
DMP DCMP DCOMP
Chair: Peter Johnson, Brookhaven National Laboratory
Abstract: D61.00002 : Electronic phase diagram of FeSe1-xTex under high pressure
Presenter:
Kiyotaka Mukasa
(Department of Advanced Materials Science, University of Tokyo)
Authors:
Kiyotaka Mukasa
(Department of Advanced Materials Science, University of Tokyo)
Kohei Matsuura
(Department of Advanced Materials Science, University of Tokyo)
Yuichi Sugimura
(Department of Advanced Materials Science, University of Tokyo)
Muku Otani
(Department of Advanced Materials Science, University of Tokyo)
Mingwei Qiu
(Department of Advanced Materials Science, University of Tokyo)
Mikihiko Saito
(Department of Advanced Materials Science, University of Tokyo)
Yuta Mizukami
(Department of Advanced Materials Science, University of Tokyo)
Kenichiro Hashimoto
(Department of Advanced Materials Science, University of Tokyo)
Jun Gouchi
(Institute for Solid State Physics, University of Tokyo)
Yoshiya Uwatoko
(Institute for Solid State Physics, University of Tokyo)
Takasada Shibauchi
(Department of Advanced Materials Science, University of Tokyo)
In this study, we focus on FeSe1-xTex in which selenium is substituted by tellurium. In order to clarify the relationship between the nematic phase and the superconducting phase, we have synthesized bulk single crystals of FeSe1-xTex (0<x<0.22) by using the chemical vapor transport method. The temperature dependence of the electrical resistivity was measured on the FeSe1-xTex crystals under pressure up to 8 GPa using a constant loading cubic anvil high-pressure apparatus. As a result, we have established the three-dimensional electronic phase diagram; temperature against pressure and Te-substitution. The obtained phase diagram indicates that the tellurium substitution shifts the pressure-induced magnetic phase to a lower pressure side, which is in contrast to the sulfur substitution case.
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