Abstract Bismuth ferrite (BiFeO 3, BFO) as one of the few single-phase room-temperature
multiferroics, has aroused ever-increasing enthusiasm in research communities during the …

A promising approach to the next generation of low-power, functional, and green
nanoelectronics relies on advances in the electric-field control of lattice, charge, orbital, and …

The bismuth ferrite (BiFeO 3) material offers a comprehensive package of multifunctionality.
In addition to the multiferroic behavior, ie, coexistence of electric and magnetic orderings,[1] …

Control over ferroelectric polarization variants in BiFeO3 films through the use of various
vicinal SrTiO3 substrates is demonstrated. The ferroelectric polarization variants in these …

Among the different types of multiferroic compounds, bismuth ferrite (BiFeO 3; BFO) stands
out because it is perhaps the only one being simultaneously magnetic and strongly …

BiFeO3-based heterostructures have attracted much attention for potential applications due
to their room-temperature multiferroic properties, proper band gaps and ultrahigh …

Multiferroic nanomaterials have attracted great interest due to simultaneous two or more
properties such as ferroelectricity, ferromagnetism, and ferroelasticity, which can promise a …

Bismuth ferrite (BiFeO3) is the most widely studied multiferroic material with robust
ferroelectricity and antiferromagnetic ordering at room temperature. One of the possible …

Rare‐earth substitution in the multiferroic BiFeO3 (BFO) material holds promise for resolving
drawbacks inherent to pure BFO, and for enhancing piezoelectric and magneto‐electric …

Controlling ferroic orders (ferroelectricity, ferromagnetism and ferroelasticity) by optical
methods is a significant challenge due to the large mismatch in energy scales between the …