Multiferroic heterostructures can be synthesized by integrating monolithic ferroelectric and
magnetic materials, with interfacial coupling between electric polarization and …

Multiferroic magnetoelectric composite systems such as ferromagnetic‐ferroelectric
heterostructures have recently attracted an ever‐increasing interest and provoked a great …

Over the past few decades, magnetoelectric (ME) materials and devices have been
investigated extensively, which is one of the most interesting research topics since the …

The observation of magnetic domains by magneto-optical microscopy, based on the Kerr
and the Faraday effect, is one of the most prominent techniques for the visualization of …

The rapid development of smart electronics has enabled their applications into such fields
as portable instruments, wearable electronic devices, implantable medical devices and even …

Materials science is recognized as one of the main factors driving development and
economic growth. Since the silicon industrial revolution of the 1950s, research and …

Multiferroic (MF)-magnetoelectric (ME) composites, which integrate magnetic and
ferroelectric materials, exhibit a higher operational temperature (above room temperature) …

In recent years, the field of antiferromagnetic spintronics has been substantially advanced.
Electric‐field control is a promising approach for achieving ultralow power spintronic devices …

We review the recent developments in the electric field control of magnetism in multiferroic
heterostructures, which consist of heterogeneous materials systems where a …

Polymer‐based magnetoelectric (ME) materials are an interesting, challenging and
innovative research field, that will bridge the gap between fundamental research and …