The effect of a crystalline electric field on the magnetic transition temperatures of rare-earth rhodium borides☆
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Cited by (143)
Single crystal growths and magnetic properties of hexagonal polar semimetals RAuGe (R = Y, Gd–Tm, and Lu)
2023, Journal of Alloys and CompoundsCrystal structure and magnetic properties of R<inf>11</inf>Co<inf>4</inf>In<inf>9</inf> (R=Tb, Dy, Ho and Er) compounds
2021, IntermetallicsCitation Excerpt :The theoretical dependence is almost fulfilled for the paramagnetic Curie temperatures while for the critical temperatures of magnetic ordering (TC,N) a large discrepancy between the experimental and calculated temperatures is observed, especially visible for R = Tb and Dy. Such a result indicates a strong influence of crystalline electric field (CEF) on stability of the magnetic order [27]. Similar discrepancies have been observed in R2CoIn8 [17] and R2CoGa8 [28] (R = rare earth element).
Magnetic properties and magnetic structures of R<inf>2</inf>PdGe<inf>6</inf> (R = Pr, Nd, Gd-Er) and R<inf>2</inf>PtGe<inf>6</inf> (R = Tb, Ho, Er)
2020, Journal of Magnetism and Magnetic MaterialsCitation Excerpt :This result is in agreement with the large R-R interatomic distances and metallic character of the temperature dependence of the electrical resistivity [21]. Noticeable discrepancy between the experimental and theoretical values of TN for Tb2TGe6 (T = Ni, Pd) can be attributed to the influence of the crystalline electric field [26]. The role of the CEF manifests itself also in a reduction of the magnetic moments in the ordered state in comparison to the free R3+ ion values (see Table 2).
Magnetic properties and magnetic structures of R<inf>2</inf>TGe<inf>6</inf> (T = Ni, Cu; R = Tb, Ho and Er)
2019, Journal of Alloys and Compounds