The Magnetoelectric Effect in Transition Metal Oxides: Insights and the Rational Design of New Materials from First Principles
arXiv:1207.5026 · doi:10.1016/j.cossms.2012.08.002
Abstract
The search for materials displaying a large magnetoelectric effect has occupied researchers for many decades. The rewards could include not only advanced electronics technologies, but also fundamental insights concerning the dielectric and magnetic properties of condensed matter. In this article, we focus on the magnetoelectric effect in transition metal oxides and review the manner in which first-principles calculations have helped guide the search for (and increasingly, predicted) new materials and shed light on the microscopic mechanisms responsible for magnetoelectric phenomena.
24 pages, 12 figures
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Cited by in corpus (10)
- Topological transition from nodal to nodeless Zeeman splitting in altermagnets
- Rational material design of mixed-valent high T superconductors
- First-principles study of PbTiO under uniaxial strains and stresses
- Uniaxial strain control of bulk ferromagnetism in rare-earth titanates
- Novel magneto-electric multiferroics from first-principles
- Strain-tunable metamagnetic critical endpoint in Mott insulating rare-earth titanates
- Ultra-low-energy Electric field-induced Magnetization Switching in Multiferroic Heterostructures
- Electric field-induced magnetization switching in interface-coupled multiferroic heterostructures: A highly-dense, non-volatile, and ultra-low-energy computing paradigm
- Dynamical systems study in single-phase multiferroic materials
- First-principles investigation of the magnetoelectric properties of BaMnO