On two phases inside the Bose condensation dome of YbSiO
arXiv:2001.08219 · doi:10.1103/PhysRevLett.126.067201
Abstract
Recent experimental data on Bose-Einstein Condensation (BEC) of magnons in the spin-gap compound YbSiO revealed an asymmetric BEC dome arXiv:1810.13096v2. We examine modifications to the Heisenberg model on a breathing honeycomb lattice, showing that this physics can be explained by competing forms of weak anisotropy. We employ a gamut of analytical and numerical techniques to show that the anisotropy yields a field driven phase transition from a state with broken Ising symmetry to a phase which breaks no symmetries and crosses over to the polarized limit.
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