Crystalline electric field effects in the electrical resistivity of PrOsSb
arXiv:cond-mat/0303471 · doi:10.1088/0953-8984/15/27/310
Abstract
The temperature and magnetic field dependencies of the electrical resistivity of the recently discovered heavy fermion superconductor \PrOsSb{} have features that are associated with the splitting of the Pr Hund's rule multiplet by the crystalline electric field (CEF). These features are apparently due to magnetic exchange and aspherical Coulomb scattering from the thermally populated CEF-split Pr energy levels. The data in zero magnetic field can be described well by calculations based on CEF theory for various ratios of magnetic exchange and aspherical Coulomb scattering, and yield CEF parameters that are qualitatively consistent with those previously derived from magnetic susceptibility, specific heat, and inelastic neutron scattering measurements. Calculated isotherms for a ground state qualitatively account for the `dome-shaped' feature in the measured isotherms.
arXiv comment8 pages, 2 figures, submitted to Journal of Physics: Condensed Matter
References in corpus (2)
Cited by in corpus (8)
- Heavy Fermion Behavior, Crystalline Electric Field Effects, and Weak Ferromagnetism in SmOs_{4}Sb_{12}
- Ferromagnetism and possible heavy fermion behavior in single crystals of NdOsSb
- Superconducting states in the tetrahedral compound PrOs4Sb12
- Transport properties of the heavy fermion superconductor PrOsSb
- High magnetic field phase diagram of PrOs4Sb12
- Time Reversal Symmetry Breaking in the B Phase of the Heavy Fermion Superconductor PrOsSb
- On the origin of multiple ordered phases in PrFe4P12
- Magnetoresistance of PrLaOsSb: Disentangling local crystalline-electric-field physics and lattice effects