Magnetoelectric effect enables controlling magnetism with an electric field or controlling
polarization remotely with a magnetic field, without involving any driving electric currents …

Topological structures in ferroic materials have drawn great interest in recent years due to
the richness of the underlying physics and the potential for applications in next generation …

The possibility of tuning the magnetic properties of materials with voltage (converse
magnetoelectricity) or generating electric voltage with magnetic fields (direct …

Strain-coupled multiferroic heterostructures provide a path to energy-efficient, voltage-
controlled magnetic nanoscale devices, a region where current-based methods of magnetic …

The ability to control magnetic vortex is critical for their potential applications in spintronic
devices. Traditional methods including magnetic field, spin-polarized current etc. have been …

The ability to synthesize high-quality, complex-oxide heterostructures has created a
veritable playground in which to explore emergent phenomena and exotic phases which …

The precise manipulation of ferroelectric vortices is one of the most important issues
concerning its potential applications in functional electronic devices such as non-volatile …

Deterministic switching of a magnetic vortex with an electric field is challenging because
electric fields cannot break time-reversal symmetry. Here we demonstrate, using phase-field …

For 1 µm-diameter Ni discs on a BaTiO 3 substrate, the local magnetization direction is
determined by ferroelectric domain orientation as a consequence of growth strain, such that …

The various spiral structures that exist in nature inspire humanity because of their
morphological beauty, and spiral structures are used in various fields, including architecture …