Magnetic structure of the TbNiC2 ternary carbide
References (9)
- et al.
J. Less-Common Met.
(1986) - P.A. Kotsanidis, J.K. Yakinthos and H. Gamari-Seale, J. Less-Common Met. (in...
- et al.
J. Appl. Cryst.
(1984)
Cited by (33)
Magnetism, electrical and thermal transport in R<inf>2</inf>Ni<inf>5</inf>C<inf>3</inf> (R = La-Nd, Sm, Gd, Tb)
2023, Journal of Alloys and CompoundsHeat capacity and high temperature electrical transport properties of TbNiC<inf>2</inf>
2020, Solid State SciencesCitation Excerpt :This is reasonable due to mass relationship – for larger Tb one expects lower ΘD (the discrepancy in case of Lu is undetermined). The fit to magnon specific heat contribution in the range of 5–18 K (red solid line extrapolated to 0 K in Fig. 6, main panel) yields a spin-wave excitation gap of Δ = 26(2) K, which is essentially related to a significant crystal field anisotropy, in consistency with [15]. The factor A = 1.99(5)∙10−5 J mol−1 K−5, obtained from Eq. (2), is related to the spin-wave stiffness D: A ~ D−3/2 [32,33].
Alloy Systems and Compounds Containing Rare Earth Metals and Carbon
2017, Handbook on the Physics and Chemistry of Rare EarthsCitation Excerpt :The crystal structure of TbNiC2, similar to other RNiC2 compounds, belongs to the CeNiC2 structure type [124]. It was refined by PND at 300 K (RB = 7.2%), and the refinement resulted in the TbNi0.94C1.72 composition [167]. Crystal structures of ternary phases with approximate compositions “Tb3Ni2C4,” “Tb5Ni2C7,” and “Tb10Co3C12” remain unknown.
Synthesis, structure, and magnetism of Tb<inf>4</inf>PdGa<inf>12</inf> and Tb<inf>4</inf>PtGa<inf>12</inf>
2005, Journal of Solid State ChemistrySpin dynamics and spin disorder in frustrated TbCo<inf>x</inf>Ni<inf>1-x</inf>C<inf>2</inf>
2003, Physica B: Condensed MatterMagnetic properties of single-crystalline RNiC<inf>2</inf> compounds (R - Ce, Pr, Nd and Sm)
1998, Journal of Magnetism and Magnetic Materials