Magnetoelectric coupling (MEC) allows to change the magnetic state by an electric field. In bulk metallic systems any electric field is screened and MEC is not expected. However, the screening charge leads to displacements of the atomic cores in the surface which in turn may modify the magnetic order. We found MEC in Fe nanoislands using the electric field of a scanning tunneling microscope. MEC is a fundamental effect that may lead to the development of metallic high-density storage devices
Spintronics is primarily based on the precise control of a nanostructure magnetization direction, ar...
Many possible applications have arisen in the domain of spin electronics since the prediction and ex...
This thesis presents a general formalism for a Density Functional Theory description of the magneti...
Nowadays, the development of magnetic data storage devices technique faces fundamental limitations w...
Magneto-electric coupling offers a new pathway to information storage in magnetic memory devices. Th...
A surface magnetoelectric effect is revealed by density-functional calculations that are applied to ...
Using first-principles density-functional calculations, we demonstrate that ferromagnetism can be in...
Half a century of magnetic data storage has changed the world. A constantly increasing storage densi...
With the fast development of multifunctional devices, magnetoelectric (ME) coupling — a bridge betwe...
Magnetoelectric coupling is the material based coupling between electric and magnetic fields without...
The control of magnetization via the application of an electric field, known as magnetoelectric coup...
The coupling between the magnetic and electric dipoles in multiferroic and magnetoelectric materials...
Schmalhorst J-M, Brückl H, Reiss G, Gieres G, Wecker J. Evolution of magnetic coupling in ferromagne...
A large electric field at the surface of a ferromagnetic metal is expected to appreciably change its...
Magnetic data storage and magnetically actuated devices are conventionally controlled by magnetic fi...
Spintronics is primarily based on the precise control of a nanostructure magnetization direction, ar...
Many possible applications have arisen in the domain of spin electronics since the prediction and ex...
This thesis presents a general formalism for a Density Functional Theory description of the magneti...
Nowadays, the development of magnetic data storage devices technique faces fundamental limitations w...
Magneto-electric coupling offers a new pathway to information storage in magnetic memory devices. Th...
A surface magnetoelectric effect is revealed by density-functional calculations that are applied to ...
Using first-principles density-functional calculations, we demonstrate that ferromagnetism can be in...
Half a century of magnetic data storage has changed the world. A constantly increasing storage densi...
With the fast development of multifunctional devices, magnetoelectric (ME) coupling — a bridge betwe...
Magnetoelectric coupling is the material based coupling between electric and magnetic fields without...
The control of magnetization via the application of an electric field, known as magnetoelectric coup...
The coupling between the magnetic and electric dipoles in multiferroic and magnetoelectric materials...
Schmalhorst J-M, Brückl H, Reiss G, Gieres G, Wecker J. Evolution of magnetic coupling in ferromagne...
A large electric field at the surface of a ferromagnetic metal is expected to appreciably change its...
Magnetic data storage and magnetically actuated devices are conventionally controlled by magnetic fi...
Spintronics is primarily based on the precise control of a nanostructure magnetization direction, ar...
Many possible applications have arisen in the domain of spin electronics since the prediction and ex...
This thesis presents a general formalism for a Density Functional Theory description of the magneti...