Magnetocrystalline anisotropy ofR2Fe14

X.C. Kou

¹

,

Tiesong Zhao

²

,

R. Größinger

³

et al.

Structure and magnetic properties of Er3Fe29−xCrx compounds

“…This is quite different from that observed in the Er 2 Fe 17 compound, where no anomaly in the χ -T curve was observed [16]. Usually this anomaly can be attributed to two possible reasons, one is the spin reorientation, as has been observed in many 2:17 compounds, and the other is the domain wall motion which has been observed in R 2 Co 17 (R = Tb, Dy, Ho) [17]. In order to investigate the physical nature of the anomaly observed in the Er 3 Fe 29−x Cr x compounds, we measured the temperature dependence of the ac susceptibility of the rotation aligned Er 3 Fe 29 sample with the external field applied parallel and perpendicular to the alignment direction.…”

“…5(b). It is generally accepted that if the anomaly depends obviously on the alignment direction and it disappears when the external field is applied parallel to the HMD, the anomaly cannot be attributed to the spin reorientation [17]. It can be seen from Fig.…”

A magnetic and Mössbauer spectral study of PrFe11Ti and PrFe11TiH

“…Hence, the easy magnetization axis in both compounds does not change between 4.2 K and their Curie temperature. In PrFe 11 Ti, the easy magnetization direction lies within the basal plane [9] between 4.2 and the Curie temperature, because the planar praseodymium sublattice anisotropy dominates the uniaxial iron sublattice anisotropy.…”

A magnetic and Mössbauer spectral study of SmFe11Ti, LuFe11Ti, and their respective hydrides

“…Among the RFe 11 Ti compounds, where R is a rare earth, that crystallize in the ThMn 12 I4/mmm tetragonal structure [1][2][3][4][5][6][7][8], SmFe 11 Ti, GdFe 11 Ti, and LuFe 11 Ti exhibit [9] an axial magnetic anisotropy, an anisotropy, which is preserved [8][9][10][11][12] in their hydrides. The same behavior is observed [13] in CeFe 11 Ti and its hydride.…”