Magnetotransport properties of FeSe in fields up to 50T
arXiv:1707.00474 · doi:10.1016/j.jmmm.2017.10.108
Abstract
Magnetotransport properties of the high-quality FeSe crystal, measured in a wide temperature range and in magnetic fields up to 50 T, show the symmetry of the main holelike and electronlike bands in this compound. In addition to the main two bands, there is also a tiny, highly mobile, electronlike band which is responsible for the non-linear behavior of (B) at low temperatures and some other peculiarities of FeSe. We observe the inversion of the temperature coeficient at a magnetic field higher than about 20 T which is an implicit conformation of the electron-hole symmetry in the main bands.
arXiv commentMISM 2017
References in corpus (14)
- Interface induced high temperature superconductivity in single unit-cell FeSe films on SrTiO3
- Superconductivity at 36 K in beta-Fe1.01Se with the compression of the interlayer separation under pressure
- Field-induced superconducting phase of FeSe in the BCS-BEC cross-over
- Evolution of high-temperature superconductivity from low-Tc phase tuned by carrier concentration in FeSe thin flakes
- The key ingredients of the electronic structure of FeSe
- Role of multiband effects and electron-hole asymmetry in the superconductivity and normal state properties of Ba(FeCo)As
- Interface induced high temperature superconductivity in single unit-cell FeSe films on SrTiO3(110)
- Compensated semimetal LaSb with unsaturated magnetoresistance
- Dichotomy between the hole and electrons behavior in the multiband FeSe probed by ultra high magnetic fields
- Variation of transition temperatures and residual resistivity ratio in vapor-grown FeSe
- Manifestations of multiple-carrier charge transport in the magnetostructurally ordered phase of undoped BaFeAs
- Magnetotransport study of the pressure-induced antiferromagnetic phase in FeSe
- Acoustic characteristics of FeSe single crystals Acoustic characteristics of FeSe single crystals
- Highly mobile carriers in orthorhombic phases of iron-based superconductors FeSeS