Enhanced hybridization sets the stage for electronic nematicity in CeRhIn5
arXiv:1803.01748 · doi:10.1103/PhysRevLett.122.016402
Abstract
High magnetic fields induce a pronounced in-plane electronic anisotropy in the tetragonal antiferromagnetic metal CeRhIn at T for fields off the -axis. Here we investigate the response of the underlying crystal lattice in magnetic fields to T via high-resolution dilatometry. Within the antiferromagnetic phase of CeRhIn, a finite magnetic field component in the tetragonal -plane explicitly breaks the tetragonal () symmetry of the lattice well below revealing a finite nematic susceptibility at low fields. A modest magnetostriction anomaly, , at T hence presumably marks the crossover to a fluctuating nematic phase with large electronic nematic susceptibility. Magnetostriction quantum oscillations confirm a Fermi surface change at with the emergence of new orbits. By analyzing the field-induced change in the crystal-field ground state, we conclude that the in-plane Ce hybridization is enhanced at , carrying the in-plane -electron anisotropy to the Fermi surface. We argue that the nematic behavior observed in this prototypical heavy-fermion material is of electronic origin, and is driven by the hybridization between and conduction electrons.
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