Homogenization of Magnetoelectric 0-3 Type Composites by 3-D Multiphysics Finite-Element Modeling

• Published in: IEEE transactions on magnetics Vol. 55; no. 6; pp. 1 - 4
• Main Authors: Do, Tuan Anh, Talleb, Hakeim, Gensbittel, Aurelie, Ren, Zhuoxiang
• Format: Journal Article
• Language: English
• Published: New York IEEE 01-06-2019; The Institute of Electrical and Electronics Engineers, Inc. (IEEE); Institute of Electrical and Electronics Engineers
• Subjects: Boundary conditions; Deformation; Electric potential; Electromagnetism; Engineering Sciences; Fiber composites; Finite element method; Finite-element (FE) analysis; Homogenization; Iron; Magnetic domains; Magnetism; magnetoelectric (ME) particulate structure; Magnetoelectric effects; Magnetostatics; Magnetostriction; Mathematical models; Piezoelectricity; Three dimensional composites; Three dimensional models; homogenization; Finite-element (FE) analysis; magnetoelectric (ME) particulate structure
• ISSN: 0018-9464; 1941-0069
• DOI: 10.1109/TMAG.2019.2900149

The magnetoelectric (ME) materials attracted significant attentions by their capacity of transforming the magnetic energy to the electric energy through the mediation of mechanical deformation. The ME composites can be found in three types: the laminate structure (2-2 type), the rod matrix structure (1-3 type), and the particle matrix structure (0-3 type). In this paper, we use the 3-D finite-element (FE)-based multiphysics analysis to homogenize the 0-3 type ME particulate structure (or the 1-3 type rod matrix structure). The FE analysis is performed on a representative elementary volume of the composite using the periodic boundary conditions. The homogenized material coefficients of a magnetostrictive matrix reinforced with cylindrical piezoelectric fiber composite are compared with the analytical model available from the literature. Next, the homogenization of a cubic inclusion composite, for which the analytical model does not apply, is performed.