材料科学
铁电性
电场
钛酸钡
位错
电场位移场
凝聚态物理
极化(电化学)
半导体
极化密度
各向异性
电介质
复合材料
压电
光电子学
光学
物理
磁化
化学
物理化学
量子力学
磁场
作者
Marion Höfling,Xiandong Zhou,Lukas M. Riemer,Enrico Bruder,Binzhi Liu,Lin Zhou,Pedro B. Groszewicz,Fangping Zhuo,Bai‐Xiang Xu,Karsten Durst,Xiaoli Tan,Dragan Damjanović,Jurij Koruza,Jürgen Rödel
出处
期刊:Science
[American Association for the Advancement of Science]
日期:2021-05-27
卷期号:372 (6545): 961-964
被引量:167
标识
DOI:10.1126/science.abe3810
摘要
Imprinting oxides Dislocations can be problematic for the properties of functional oxides and are often avoided as a result. Höfling et al. found that introducing a network of dislocations to barium titanate actually enhanced the dielectric and piezoelectric properties. The authors introduced the dislocation network with uniaxial compression, which forced the material to have a domain structure that enhanced the piezoelectric coefficient by a factor of 19. This strategy should be a useful tool for optimizing properties of other functional oxides. Science , abe3810, this issue p. 961
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