哈夫尼亚
铁电性
材料科学
光电子学
非易失性存储器
辐照
铪
晶体管
电介质
电气工程
锆
电压
陶瓷
复合材料
核物理学
冶金
工程类
立方氧化锆
物理
作者
Maximilian Lederer,Tobias Vogel,Thomas Kämpfe,Nico Kaiser,Eszter Piros,Ricardo Olivo,Tarek Ali,Stefan Petzold,David Lehninger,C. Trautmann,Lambert Alff,Konrad Seidel
摘要
The discovery of ferroelectric hafnium oxide enabled a variety of non-volatile memory devices, like ferroelectric tunnel junctions or field-effect transistors. Reliable application of hafnium oxide based electronics in space or other high-dose environments requires an understanding of how these devices respond to highly ionizing radiation. Here, the effect of 1.6 GeV Au ion irradiation on these devices is explored, revealing a reversible phase transition, as well as a grain fragmentation process. The collected data demonstrate that non-volatile memory devices based on ferroelectric hafnia layers are ideal for applications where excellent radiation hardness is mandatory.
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