Magnetoelectric Effect in Ni/PZT Laminate Composites

Hong Wan, Chao Xu, Xuezhong Wu
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Abstract

Giant magnetoelectric coupling effect between Ni and PZT was discovered by investigating the Ni/PZT laminate composites experimentally and numerically. The experimental results, which were well coincident with the data calculated by the finite element software ANSYS, showed that the magnetoelectric voltage coefficient alphaE could reach to 4800 mV/A for Ni/PZT bilayer cantilever at its resonant frequency and the average alphaE of Ni/PZT/Ni three-ply was about 1050 mV/A at its nonresonant frequency. That giant magnetoelectric coupling effect of Ni/PZT laminate composites attributed to the high magnetostrictive sensitivity of Ni at a low applied magnetic field and the high piezoelectric properties of PZT. With low cost and easy fabrication, this kind of composite was potential candidates for magnetoelectric memory devices, electrically controlled magnetic devices, magnetically controlled piezoelectric devices, and smart sensors
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Ni/PZT层压复合材料的磁电效应
通过对Ni/PZT层合复合材料的实验和数值研究,发现了Ni与PZT之间的巨大磁电耦合效应。结果表明,Ni/PZT双层悬臂梁在谐振频率下的磁电电压系数alpha可达4800 mV/A,而Ni/PZT/Ni三层悬臂梁在非谐振频率下的平均alpha约为1050 mV/A,与有限元软件ANSYS计算结果吻合较好。Ni/PZT层合复合材料的巨大磁电耦合效应归因于Ni在低外加磁场下的高磁致伸缩灵敏度和PZT的高压电性能。该复合材料成本低,易于制造,是磁电存储器件、电控磁器件、磁控压电器件和智能传感器的潜在候选材料
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