Controlling magnetism by means of electric fields is a key issue for the future development of
low-power spintronics. Progress has been made in the electrical control of magnetic …

The prospect of controlling the magnetization (M) of a material solely with an external
electric field (E) could enable the development of low-power spintronics. Although there has …

Multiferroic materials possess two or more ferroic orders but have not been exploited in
devices owing to the scarcity of room-temperature examples. Those that are ferromagnetic …

Spintronic devices currently rely on magnetic switching or controlled motion of domain walls
by an external magnetic field or spin-polarized current. Achieving the same degree of …

Materials that exhibit simultaneous order in their electric and magnetic ground states hold
promise for use in next-generation memory devices in which electric fields control …

Magnetoelectrics and multiferroics present exciting opportunities for electric-field control of
magnetism. However, there are few room-temperature ferromagnetic-ferroelectrics. Among …

Magnetism and ferroelectricity are essential to many forms of current technology, and the
quest for multiferroic materials, where these two phenomena are intimately coupled, is of …

Mutual control of the electricity and magnetism in terms of magnetic (H) and electric (E)
fields, the magnetoelectric (ME) effect, offers versatile low power consumption alternatives to …

Intrinsic magnetoelectric coupling describes the interaction between magnetic and electric
polarization through an inherent microscopic mechanism in a single-phase material. This …

Reversible control of magnetism is reported for a Fe thin film in proximity of a Ba Ti O 3
single crystal. Large magnetization changes emerge in response to ferroelectric switching …