Materials with a coexistence of magnetic and ferroelectric order—multiferroics—provide an
efficient route for the control of magnetism by electric fields. The study of multiferroics dates …

Taking a historical perspective, we provide a brief overview of the first-principles modeling of
ferroelectric perovskite oxides over the past 30 years. We emphasize how the work done by …

Abstract The Dzyaloshinskii–Moriya interaction (DMI) between two magnetic moments mi
and mj is of the form D ij⋅(mi× mj). It originates from spin–orbit coupling, and is at the heart …

Many material properties such as superconductivity, magnetoresistance or
magnetoelectricity emerge from the non-linear interactions of spins and lattice/phonons …

Antiferromagnetic insulators offer strategic advantages in spintronic applications because of
their negligible stray fields and ultrafast magnetic dynamics. Control of their magnetization …

High entropy oxides (HEOs) are a recently introduced class of oxide materials, which are
characterized by a large number of elements (ie, five or more) sharing one lattice site, which …

Spin-induced ferroelectricity usually does not occur in perovskites with simple collinear
magnetic structures. Here, we demonstrate that in even-layer perovskite systems, some …

The coexistence and coupling of multiple ferroics may not only cause some novel physical
phenomena but also provide new means for the detection and control of electronic degrees …

Perovskite oxides are considered promising redox materials for many fields of application,
such as chemical looping processes for thermochemical air separation, oxygen pumping …

This mini-review focuses on the recent advancements in ferroelectrics and multiferroics,
highlighting the exploration in discovering new materials and efficient strategies for …