Correlated Electrons and Magnetism in Double Perovskites
arXiv:2506.09307 · doi:10.1142/S0129156426400021
Abstract
This paper is an overview of some recent work done on the double perovskites. We discuss the physics of selected double perovskite compounds emphasizing the relevant interactions and resulting observable phenomena such as the magnetic order using different theoretical approaches. Spin-Orbit interaction, which is comparable to other relevant interaction strengths, plays a central role in determining the physics of such 4d-5d perovskites.
12 pages + 5 Figures
References in corpus (16)
- Correlated quantum phenomena in the strong spin-orbit regime
- Kitaev-Heisenberg Model on Honeycomb Lattice: Possible Exotic Phases in Iridium Oxides IrO
- Generic spin model for the honeycomb iridates beyond the Kitaev limit
- Excitonic Magnetism in Van Vleck-type d^4 Mott Insulators
- Spin-orbit coupling in ordered double perovskites
- Spin-orbit-entangled electronic phases in 4 and 5 transition-metal compounds
- Mixing of - orbitals in 4d and 5d transition metal oxides
- Spin-orbit coupling, strong correlation, and insulator-metal transitions: the J =3\2 ferromagnetic Mott insulator BaNaOsO
- Exchange interactions, Jahn-Teller coupling, and multipole orders in pseudospin one-half Mott insulators
- Ferro-octupolar order and low-energy excitations in d double perovskites of Osmium
- Floquet engineering of Kitaev quantum magnets
- Inverse Faraday effect in Mott insulators
- Modelling Magnetic Multipolar Phases in Density Functional Theory
- Emergent orbital magnetization in Kitaev quantum magnets
- Multipolar multiferroics in / Mott insulators
- Composite quadrupole order in ferroic and multiferroic materials