Consistent c-axis orientation and reinforced magnetoelectric coupling performance in bulk BaSrCo2Fe11AlO22

Dongpeng Zhao, Jun Li, H. Bai, Huantong Wu, Xiping Chen, Guangai Sun, Zhongxiang Zhou
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Abstract

Consistent c-axis orientation characteristics toward the direction of applied pressure of Y-type BaSrCo2Fe11AlO22 (BSCFAO-θ) were successfully prepared by the strategy of hot pressing. The samples’ magnetoelectric coupling performance was greatly enhanced by the strategy of hot pressing than that of the traditional solid reaction method. The magnetoelectric current of BSCFAO-θ (θ = 0°) (12.06 μA/m2) was nearly 5 times higher than BSCFAO-SS (2.24 μA/m2). The magnetoelectric polarization of BSCFAO-θ (θ = 0°) (32.82 μC/m2) was nearly 4 times higher than that of BSCFAO-SS (8.31 μC/m2). The magnetoelectric coupling coefficients of BSCFAO-θ (θ = 0°) (1880 ps/m) were nearly 4 times higher than those of BSCFAO-SS (404 ps/m). The enhancement of magnetoelectric polarization of BSCFAO-θ (θ = 0°) can be attributed to the uniform c-axis orientation, which reinforced magnetoelectric polarization compared with none orientation that eliminated the magnetoelectric polarization on grain boundaries. The magnetoelectric coupling performance of BSCFAO-θ presented a gradually decreasing trend with the angle changing from 0° to 90° for the changing of orientation. Compared with traditional solid reaction methods, the strategy of hot pressing inhibits grain growth and increases grain boundaries, thus facilitating the enhancement of grain boundaries’ resistivity, and the electrical resistivity of BSCFAO-θ (3.08 × 1010 Ω cm) was nearly 10 000 times higher than that of BSCFAO-SS (2.5 × 106 Ω cm), which also benefits the magnetoelectric polarization performance of BSCFAO-θ. Therefore, the hot-pressing strategy can contribute to the forming of oriented ceramics and enhance the grain boundaries’ resistivity to improve magnetoelectric coupling performance.
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块状 BaSrCo2Fe11AlO22 中一致的 c 轴取向和强化的磁电耦合性能
通过热压策略成功制备出了具有一致c轴取向特性的Y型BaSrCo2Fe11AlO22(BSCFAO-θ)。与传统的固体反应法相比,热压法大大提高了样品的磁电耦合性能。BSCFAO-θ (θ = 0°) 的磁电电流(12.06 μA/m2)是 BSCFAO-SS (2.24 μA/m2)的近 5 倍。BSCFAO-θ 的磁电极化(θ = 0°)(32.82 μC/m2)比 BSCFAO-SS 的磁电极化(8.31 μC/m2)高出近 4 倍。BSCFAO-θ (θ = 0°) 的磁电耦合系数(1880 ps/m)比 BSCFAO-SS 的磁电耦合系数(404 ps/m)高出近 4 倍。BSCFAO-θ (θ = 0°) 磁电极化的增强可归因于均匀的 c 轴取向,与消除晶界磁电极化的无取向相比,均匀的 c 轴取向增强了磁电极化。随着取向的变化,BSCFAO-θ 的磁电耦合性能随着角度从 0°到 90°的变化呈逐渐下降的趋势。与传统的固体反应方法相比,热压策略抑制了晶粒生长,增加了晶界,从而有利于提高晶界电阻率,BSCFAO-θ 的电阻率(3.08 × 1010 Ω cm)比 BSCFAO-SS 的电阻率(2.5 × 106 Ω cm)高出近 10000 倍,这也有利于 BSCFAO-θ 磁电极化性能的提高。因此,热压策略有助于形成取向陶瓷,提高晶界电阻率,从而改善磁电耦合性能。
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