Probing FeSi, a d -electron topological Kondo insulator candidate, with magnetic field, pressure, and microwaves

Recently, evidence for a conducting surface state (CSS) below 19 K was reported for the correlated -electron small gap semiconductor FeSi. In the work reported herein, the CSS and the bulk phase of FeSi were probed via electrical resistivity ρ measurements as a function of temperature , magnetic fie...

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Veröffentlicht in:Proceedings of the National Academy of Sciences - PNAS 2023-02, Vol.120 (8), p.e2216367120-e2216367120
Hauptverfasser: Breindel, Alexander J, Deng, Yuhang, Moir, Camilla M, Fang, Yuankan, Ran, Sheng, Lou, Hongbo, Li, Shubin, Zeng, Qiaoshi, Shu, Lei, Wolowiec, Christian T, Schuller, Ivan K, Rosa, Priscila F S, Fisk, Zachary, Singleton, John, Maple, M Brian
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container_title Proceedings of the National Academy of Sciences - PNAS
container_volume 120
creator Breindel, Alexander J
Deng, Yuhang
Moir, Camilla M
Fang, Yuankan
Ran, Sheng
Lou, Hongbo
Li, Shubin
Zeng, Qiaoshi
Shu, Lei
Wolowiec, Christian T
Schuller, Ivan K
Rosa, Priscila F S
Fisk, Zachary
Singleton, John
Maple, M Brian
description Recently, evidence for a conducting surface state (CSS) below 19 K was reported for the correlated -electron small gap semiconductor FeSi. In the work reported herein, the CSS and the bulk phase of FeSi were probed via electrical resistivity ρ measurements as a function of temperature , magnetic field to 60 T, and pressure to 7.6 GPa, and by means of a magnetic field-modulated microwave spectroscopy (MFMMS) technique. The properties of FeSi were also compared with those of the Kondo insulator SmB to address the question of whether FeSi is a -electron analogue of an -electron Kondo insulator and, in addition, a "topological Kondo insulator" (TKI). The overall behavior of the magnetoresistance of FeSi at temperatures above and below the onset temperature = 19 K of the CSS is similar to that of SmB . The two energy gaps, inferred from the ρ( ) data in the semiconducting regime, increase with pressure up to about 7 GPa, followed by a drop which coincides with a sharp suppression of . Several studies of ρ( ) under pressure on SmB reveal behavior similar to that of FeSi in which the two energy gaps vanish at a critical pressure near the pressure at which vanishes, although the energy gaps in SmB initially decrease with pressure, whereas in FeSi they increase with pressure. The MFMMS measurements showed a sharp feature at ≈ 19 K for FeSi, which could be due to ferromagnetic ordering of the CSS. However, no such feature was observed at ≈ 4.5 K for SmB .
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In the work reported herein, the CSS and the bulk phase of FeSi were probed via electrical resistivity ρ measurements as a function of temperature , magnetic field to 60 T, and pressure to 7.6 GPa, and by means of a magnetic field-modulated microwave spectroscopy (MFMMS) technique. The properties of FeSi were also compared with those of the Kondo insulator SmB to address the question of whether FeSi is a -electron analogue of an -electron Kondo insulator and, in addition, a "topological Kondo insulator" (TKI). The overall behavior of the magnetoresistance of FeSi at temperatures above and below the onset temperature = 19 K of the CSS is similar to that of SmB . The two energy gaps, inferred from the ρ( ) data in the semiconducting regime, increase with pressure up to about 7 GPa, followed by a drop which coincides with a sharp suppression of . Several studies of ρ( ) under pressure on SmB reveal behavior similar to that of FeSi in which the two energy gaps vanish at a critical pressure near the pressure at which vanishes, although the energy gaps in SmB initially decrease with pressure, whereas in FeSi they increase with pressure. The MFMMS measurements showed a sharp feature at ≈ 19 K for FeSi, which could be due to ferromagnetic ordering of the CSS. 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In the work reported herein, the CSS and the bulk phase of FeSi were probed via electrical resistivity ρ measurements as a function of temperature , magnetic field to 60 T, and pressure to 7.6 GPa, and by means of a magnetic field-modulated microwave spectroscopy (MFMMS) technique. The properties of FeSi were also compared with those of the Kondo insulator SmB to address the question of whether FeSi is a -electron analogue of an -electron Kondo insulator and, in addition, a "topological Kondo insulator" (TKI). The overall behavior of the magnetoresistance of FeSi at temperatures above and below the onset temperature = 19 K of the CSS is similar to that of SmB . The two energy gaps, inferred from the ρ( ) data in the semiconducting regime, increase with pressure up to about 7 GPa, followed by a drop which coincides with a sharp suppression of . 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subjects CLASSICAL AND QUANTUM MECHANICS, GENERAL PHYSICS
conducting surface state
Critical pressure
Electrical resistivity
Energy gap
Ferromagnetism
Intermetallic compounds
Iron silicide
Kondo insulator
Magnetic fields
Magnetic properties
Magnetoresistance
Magnetoresistivity
Microwave radiation
Microwaves
Physical Sciences
Pressure
pressure-induced metallization
Samarium compounds
Spectroscopy
topological insulator
Topology
title Probing FeSi, a d -electron topological Kondo insulator candidate, with magnetic field, pressure, and microwaves
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