Multiferroic hexagonal ferrites (h-RFeO, R=Y, Dy-Lu): an experimental review
arXiv:1407.1798 · doi:10.1142/S0217984914300087
Abstract
Hexagonal ferrites (h-RFeO, R=Y, Dy-Lu) have recently been identified as a new family of multiferroic complex oxides. The coexisting spontaneous electric and magnetic polarizations make h-RFeO rare-case ferroelectric ferromagnets at low temperature. Plus the room-temperature multiferroicity and predicted magnetoelectric effect, h-RFeO are promising materials for multiferroic applications. Here we review the structural, ferroelectric, magnetic, and magnetoelectric properties of h-RFeO. The thin film growth is also discussed because it is critical in making high quality single crystalline materials for studying intrinsic properties.
References in corpus (2)
Cited by in corpus (13)
- Ferroelectric Ferrimagnetic LiFeF: Charge Ordering Mediated Magnetoelectricity
- Epitaxy of hexagonal ABO quantum materials
- Magnetic structure and multiferroicity of Sc-substituted hexagonal YbFeO
- Effects of biaxial strain on the improper multiferroicity in h-LuFeO3 films
- Effect of interface on epitaxy and magnetism in h-RFeO3/Fe3O4/Al2O3 films (R=Lu, Yb)
- Improper ferroelectricity in ultrathin hexagonal ferrites film
- Recent Progress on Multiferroic Hexagonal Rare-Earth Ferrites (h-RFeO3, R = Y,Dy-Lu)
- Low temperature Terahertz Spectroscopy of LaFeO, PrFeO, ErFeO, and LuFeO: Quasimagnon resonances and ground multiplet transitions
- Giant interfacial spin-Hall angle from Rashba-Edelstein effect revealed by the spin-Hall Hanle processes
- Dual mechanisms for transient capacitance anomaly in improper ferroelectrics
- Strong tunability of epitaxial relationship and reconstruction at improper ferroelectric interface
- Polarization Pinning at Antiphase Boundaries in Multiferroic YbFeO
- Persistent Interfacial Topological Hall Effect Demonstrating Electrical Readout of Topological Spin Structures in Insulators