In the heavy-fermion system Yb2Pd2In1-xSnx, the interplay of crystal-field splitting, Kondo effect, and Ruderman-Kittel-Kasuya-Yosida interactions leads to complex chemical-, pressure-, and magnetic-field phase diagrams still to be explored in full detail. By using a series of techniques, we show that even modest changes of parameters other than temperature are sufficient to induce multiple quantum-critical transitions in this highly susceptible heavy-fermion family. In particular, we show that, above similar to 10 kbar, hydrostatic pressure not only induces an antiferromagnetic phase at low temperature, but it likely leads to a reorientation of the Yb magnetic moments and/or the competition among different antiferromagnetic configurations.
Lamura, G., Onuorah, I.J., Bonfà, P., Sanna, S., Shermadini, Z., Khasanov, R., et al. (2020). Pressure-induced antiferromagnetic dome in the heavy-fermion Yb2Pd2In1-xSnx system. PHYSICAL REVIEW. B, 101(5), 1-14 [10.1103/PhysRevB.101.054410].
Pressure-induced antiferromagnetic dome in the heavy-fermion Yb2Pd2In1-xSnx system
Sanna, S.;
2020
Abstract
In the heavy-fermion system Yb2Pd2In1-xSnx, the interplay of crystal-field splitting, Kondo effect, and Ruderman-Kittel-Kasuya-Yosida interactions leads to complex chemical-, pressure-, and magnetic-field phase diagrams still to be explored in full detail. By using a series of techniques, we show that even modest changes of parameters other than temperature are sufficient to induce multiple quantum-critical transitions in this highly susceptible heavy-fermion family. In particular, we show that, above similar to 10 kbar, hydrostatic pressure not only induces an antiferromagnetic phase at low temperature, but it likely leads to a reorientation of the Yb magnetic moments and/or the competition among different antiferromagnetic configurations.File | Dimensione | Formato | |
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