TY - JOUR
T1 - Recent advancements in magnetoelectric particulate and laminate composites
AU - Priya, Shashank
AU - Islam, Rashed
AU - Dong, Shuxiang
AU - Viehland, D.
N1 - Funding Information:
Acknowledgement The authors (S. Priya and R. A. Islam) would like to acknowledge the support from DOE and Texas Higher Education Coordinating Board through grant number’s DE-FG02-06ER46288 and 003656-0010-2006 respectively.
PY - 2007/9
Y1 - 2007/9
N2 - Recently, the magnetoelectric (ME) effect-dielectric polarization of a material under magnetic field, or induced magnetization under an electric field-has become the focus of significant research interests. The primary requirement for the observance of said effect is the coexistence of magnetic and electric dipoles. Most of the known single phase materials suffer from the drawback that the ME effect is quite small, even at low temperatures limiting their applicability in practical devices. Better alternatives are ME composites, which have large magnitudes of the ME voltage coefficient. Composites exploit the product property of materials; where the ME effect is realized by combining magnetostrictive and piezoelectric phases that independently are not ME, but acting together (i.e., their product) result in a ME effect. In this review article, we survey recently reported results concerning ME composites, focusing on ME particulate (synthesized via a controlled precipitation technique) and laminated composites. The article also provides a survey of the compositions and magnitudes of the ME coefficients reported in the literature; a brief description of the analytical models developed to explain and predict the behavior of composites; and discuss several applications that are made possible by enhanced ME effects.
AB - Recently, the magnetoelectric (ME) effect-dielectric polarization of a material under magnetic field, or induced magnetization under an electric field-has become the focus of significant research interests. The primary requirement for the observance of said effect is the coexistence of magnetic and electric dipoles. Most of the known single phase materials suffer from the drawback that the ME effect is quite small, even at low temperatures limiting their applicability in practical devices. Better alternatives are ME composites, which have large magnitudes of the ME voltage coefficient. Composites exploit the product property of materials; where the ME effect is realized by combining magnetostrictive and piezoelectric phases that independently are not ME, but acting together (i.e., their product) result in a ME effect. In this review article, we survey recently reported results concerning ME composites, focusing on ME particulate (synthesized via a controlled precipitation technique) and laminated composites. The article also provides a survey of the compositions and magnitudes of the ME coefficients reported in the literature; a brief description of the analytical models developed to explain and predict the behavior of composites; and discuss several applications that are made possible by enhanced ME effects.
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U2 - 10.1007/s10832-007-9042-5
DO - 10.1007/s10832-007-9042-5
M3 - Article
AN - SCOPUS:34948867759
SN - 1385-3449
VL - 19
SP - 147
EP - 164
JO - Journal of Electroceramics
JF - Journal of Electroceramics
IS - 1
ER -