Magnetic order in the chemically-substituted frustrated antiferromagnet CsCrF
arXiv:2011.06263 · doi:10.1103/PhysRevB.102.174440
Abstract
The effect of chemical substitution on the ground state of the geometrically frustrated antiferromagnet CsCrF has been investigated through a neutron powder diffraction experiment. Magnetic Fe-substituted CsCrFeF and nonmagnetic Al-substituted CsCrAlF samples are measured, and magnetic Bragg peaks are clearly observed in both samples. Magnetic structure analysis revealed a 120 structure having a magnetic propagation vector in CsCrFeF. For CsCrAlF, a quasi-120 structure having is formed. It is notable that the identified magnetic structure in CsCrFeF belongs to a different phase of ground states from those in CsCrAlF and the parent CsCrF. These results suggest that the Fe-substitution strongly influences the ground state of CsCrF.
References in corpus (6)
- Spin Freezing in Geometrically Frustrated Antiferromagnets with Weak Disorder
- Classical dipoles on the kagome lattice
- Interplay of anisotropy and frustration: triple transitions in a triangular-lattice antiferromagnet
- Kagome-Triangular Lattice Antiferromagnet NaBa2Mn3F11
- Order Induced by Dilution in Pyrochlore XY Antiferromagnets
- Magnetic phase diagram of the coupled triangular spin tubes for CsCrF4