铁电和层间协同优化与高续航力场效应管的深入分析

Yuejia Zhou, Zhongxin Liang, Wenpu Luo, M. Yu, Runteng Zhu, X. Lv, Jiachen Li, Qianqian Huang, Fei Liu, Kechao Tang, Ru Huang
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引用次数: 1

摘要

面对关键的耐久性问题,我们首次从整体角度对FeFET中的铁电材料和中间层进行了协同优化。与普通基于HZO的栅极堆叠相比,Hf0.95 Al0.05 O2+ al2o3的新型组合在保持> 10年的保留时间的同时,将耐用性提高到$\gt 5 \ × 10 ^{9}$周期。基于DFT和DQSCV的深入分析揭示了层间电场的减小和界面电荷捕获是优化的机制。我们还开发了一个分布式界面陷阱模型,将不同的陷阱动力学与每个器件的层间性质联系起来。这项工作推动了对场效应管高续航策略的理解和发展。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Ferroelectric and Interlayer Co-optimization with In-depth Analysis for High Endurance FeFET
In face of the critical endurance issue, for the first time we take a holistic perspective to co-optimize the ferroelectric materials and interlayer in FeFET. Compared to the common HZO based gate stack, the novel combination of Hf0.95 Al0.05 O2+Al2 O3 enhances the endurance to $\gt 5 \times 10 ^{9}$ cycles while maintaining a retention > 10 years. In-depth analysis based on DFT and DQSCV reveal the reduction of interlayer electric field and interface charge trapping as the mechanism of optimization. We also develop a distributed interface trap model to correlate different trapping dynamics with the interlayer property in each device. This work pushes forward the understanding and development of high endurance strategy for FeFET.
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