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/content/aip/journal/adva/6/5/10.1063/1.4944337
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/content/aip/journal/adva/6/5/10.1063/1.4944337
2016-03-11
2016-09-29

Abstract

Measurements of magnetization () and specific heat () under a [001] magnetic field were carried out on a single crystal of a quantum spin ice system YbTiO in order to investigate a feature of the transition occurred at ∼ 0.2 K. As a result of applying the magnetic field μ < 0.1 T, the / curve structure and transition temperature barely changed. On the other hand, applying the more than 0.1 T magnetic field, the / curve structure drastically change from sharp peak structure to broad peak one, and the broad peak temperature of / curves linearly increases with increasing magnetic field (). In the magnetic field μ < 0.1 T, the magnetization drastically increases around ∼ 0.2 K with decreasing , and a thermal hysteresis loop of the curve is observed. With increasing , the thermal hysteresis loop of the curves disappears above μ = 0.1 T. We can understand these results, where YbTiO exhibits a first-order ferromagnetictransition associated with the latent heat corresponding to the energy of μ = 0.1 T. Basis of the phase diagram along [001] magnetic field, the feature of the transition occurred at ∼ 0.2 K in quantum spin ice system YbTiO is discussed.

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