Multiferroic materials, which show simultaneous ferroelectric and magnetic ordering, exhibit unusual physical properties—and in turn promise new device applications—as a result of …
Transition metal L2, 3 electron energy-loss spectra for a wide range of V-, Mn-and Fe-based oxides were recorded and carefully analyzed for their correlation with the formal oxidation …
The growth and characterization of functional oxide thin films that are ferroelectric, magnetic, or both at the same time are reviewed. The evolution of synthesis techniques and how …
The control of magnetism by electric fields is an important goal for the future development of low-power spintronics. Various approaches have been proposed on the basis of either …
We review the recent developments in the electric field control of magnetism in multiferroic heterostructures, which consist of heterogeneous materials systems where a …
Multiferroic materials, or materials that simultaneously possess two or more ferroic order parameters, have returned to the forefront of materials research. Driven by the desire to …
Application of the field-effect transistor principle to novel materials to achieve electrostatic doping is a relatively new research area. It may provide the opportunity to bring about …
In numerous systems, giant physical responses have been discovered when two phases coexist; for example, near a phase transition. An intermetallic FeRh system undergoes a first …
Reversible electric‐field control of the metal‐insulator transition in the rare earth nickelate compound NdNiO 3 is demonstrated. Using the electric double layer technique, giant …