TY - JOUR KW - Thin films KW - Crystal structure KW - Multiferroics KW - Epitaxial growth KW - Ferroelectricity KW - Bismuth ferrite KW - Bismuth KW - Ferrite KW - Ferroelectric films KW - Ferroelectric switching KW - Piezoforce microscopy KW - Domain structure KW - Composite micromechanics KW - Crystals KW - BFO films KW - Coercivities KW - Complex domains KW - Critical issues KW - Ferroelectric property KW - Future directions KW - Heteroepitaxy KW - Model platform KW - State of research KW - X-ray reciprocal space mapping AU - Y.H Chu AU - L.W Martin AU - Q Zhan AU - P.L Yang AU - M.P Cruz AU - K Lee AU - M Barry AU - S.Y Yang AU - Ramamoorthy Ramesh AU - Fridkin V AU - Ducharme S AU - Kleemann W AU - Ishibashi Y AB -

We write this article in honor of Professor Vitaly L. Ginzburg, truly the father of the field of ferroelectricity. This article serves as a review of the current state of research pertaining to multiferroic BiFeO3 thin films. In this review we will delve into details of the growth of BiFeO 3 thin films and the use of piezoforce microscopy and x-ray reciprocal space mapping to characterize the crystal structure and domain structure of BiFeO3. We will also discuss the use of vicinal and asymmetric substrates to simplify the domain structure in BiFeO3. By simplifying the domain structure we can, in turn, control the ferroelectric switching mechanisms in BiFeO3. Finally we describe the basic ferroelectric properties of BFO films and discuss the critical issues needed to be solved in BiFeO3 films including leakage, complex domain structure, coercivity, and reliability. Such results are promising for continued exploration for detailed multiferroic-coupling studies in the magnetoelectric BiFeO3 system and BiFeO3, in turn, provides a model platform with which to realize the exciting possibility of electrically control magnetism.

BT - Ferroelectrics DO - 10.1080/00150190701454867 LA - eng M1 - 1 N1 -

cited By 35

N2 -

We write this article in honor of Professor Vitaly L. Ginzburg, truly the father of the field of ferroelectricity. This article serves as a review of the current state of research pertaining to multiferroic BiFeO3 thin films. In this review we will delve into details of the growth of BiFeO 3 thin films and the use of piezoforce microscopy and x-ray reciprocal space mapping to characterize the crystal structure and domain structure of BiFeO3. We will also discuss the use of vicinal and asymmetric substrates to simplify the domain structure in BiFeO3. By simplifying the domain structure we can, in turn, control the ferroelectric switching mechanisms in BiFeO3. Finally we describe the basic ferroelectric properties of BFO films and discuss the critical issues needed to be solved in BiFeO3 films including leakage, complex domain structure, coercivity, and reliability. Such results are promising for continued exploration for detailed multiferroic-coupling studies in the magnetoelectric BiFeO3 system and BiFeO3, in turn, provides a model platform with which to realize the exciting possibility of electrically control magnetism.

PY - 2007 SP - 167 EP - 177 T2 - Ferroelectrics TI - Epitaxial multiferroic BiFeO3 thin films: Progress and future directions VL - 354 SN - 00150193 ER -