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Ferroelectric field-effect transistor (FeFET) memory is currently a popular non-volatile memory. It has many advantages such as nonvolatility, better scalability, energy-efficient switching with non-destructive read-out and anti-radiation. To promote the application of FeFET in radiation environments, the single-event transient effect in HfO2-based fully-depleted silicon-on-insulator (FDSOI) FeFET memory cell is studied by technology computer aided design (TCAD) numerical simulation. The effects of different incident positions and angles of heavy ions and the drain bias voltage on the characteristics of the memory cell are analyzed. The results show that the corresponding polarization state in the HfO2 ferroelectric layer will not reverse regardless of the change for the incident position of heavy ions, but the transient change of the output voltage for the memory cell will be affected. The most sensitive area is close to the drain-body junction area. Moreover, with the decrease of the ion incidence angle, the peak of output voltage for the memory cell increases. And the effect of the incident angle change is more obvious when reading data is “0” rather than “1”. The peak of output voltage for the memory cell is modulated by the drain bias voltage, and the modulation effect is more obvious when reading data is “1” rather than “0”. The above findings provide theoretical basis and guidance for the anti-single event design of the FDSOI FeFET memory cell.
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Keywords:
- fully-depleted silicon-on-insulator /
- ferroelectric field-effect transistor /
- single-event effect /
- technology computer aided design
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Zeng B J 2019 Ph. D. Dissertation (Xiangtan: Xiangtan University) (in Chinese)
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Google Scholar
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图 1 HfO2 基FDSOI FeFET (a)器件模型的截面示意图; (b)存储单元结构示意图
Figure 1. HfO2-based FDSOI FeFET: (a) Schematic cross section of device model; (b) schematic diagram of storage unit structure.
图 2 HfO2基FDSOI FeFET的转移特性曲线
Figure 2. Transfer characteristic curve of HfO2-based FDSOI FeFET.
图 3 存储单元读取状态下输出电压的变化
Figure 3. Change of output voltage under the storage unit reading state.
图 4 重离子入射HfO2基FDSOI FeFET不同位置时铁电层极化强度的变化 (a)读数据“1”时; (b)读数据“0”时
Figure 4. Changes of polarization intensity for ferroelectric layer when heavy particles incident on different positions of the HfO2-based FDSOI FeFET: (a) When reading “1”; (b) when reading “0”.
图 5 重离子入射存储单元不同位置时输出电压瞬态变化 (a)读数据“1”时; (b)读数据“0”时
Figure 5. Transient change of output voltage when heavy particles incident on different positions of the storage unit: (a) When reading “1”; (b) when reading “0”.
图 6 存储单元读数据“1”时, 重离子击中不同位置, T = 10.5 ns时在距离沟道底部5 nm处的水平切割线电子迁移率的变化
Figure 6. Electron mobility variation of the horizontal cutting line 5 nm away from the bottom of the channel when the memory cell reading “1” after heavy ions hit different positions at T = 10.5 ns.
图 7 存储单元读数据“0”时, 重离子击中不同位置, T = 10.5 ns时在距离沟道底部5 nm 处的水平切割线入射前后静电势的变化
Figure 7. Electrostatic potential variation for the horizontal cutting line of 5 nm away from the bottom of the channel when the memory cell reading “0” before and after heavy ions hit different positions at T = 10.5 ns.
图 8 存储单元读数据“1”和“0”时输出电压瞬态峰值随入射角度的变化
Figure 8. Variations of output voltage transient peak value with incident angle when the memory cell reading “1” and “0”
图 9 不同角度重离子入射存储单元时电荷密度变化
Figure 9. Changes in the charge density when the heavy ions with different angle entering the storage unit.
图 10 不同角度重离子入射2 ps后, 在距离沟道底部5 nm处的水平切割线静电势和电子迁移率的变化 (a)存储单元读数据“0”时静电势的变化; (b)存储单元读数据“1”时电子迁移率的变化
Figure 10. Variations of electrostatic potential and electron mobility at the horizontal cutting line 5 nm away from the bottom of the channel after heavy ions are incident at different angles for 2 ps: (a) Electrostatic potential variation when the memory cell reading “0”; (b) electron mobility variation when the memory cell reading “1”.
图 11 存储单元读数据“1”和“0”时输出电压瞬态峰值随漏极偏置电压的变化
Figure 11. Variation of transient peak value for the output voltage with drain bias voltage when the memory cell reading “1” and “0”.
图 12 重离子击中存储单元2 ps后, 距离沟道底部5 nm, 沿x轴切割线的一维电场分布 (a)读数据“1”时; (b)读数据“0”时
Figure 12. One-dimensional electric field distribution along the x-axis cutting line which is 5 nm away from the bottom of the channel after 2 ps for the heavy ions incident in the storage cell: (a) The memory cell reading “1”; (b) The memory cell reading “0”.
表 1 HfO2 基FDSOI FeFET工艺参数
Table 1. Process parameters of HfO2-based FDSOI FeFET.
物理参数 数值 TiN厚度/nm 1 HfO2铁电层厚度/nm 10 栅氧厚度/nm 1 顶层硅膜厚度/nm 7 氧化物掩埋层厚度/nm 25 沟道长度/nm 30 隔离层长度/nm 10 源漏区高度/ nm 18.5 HfO2铁电薄膜介电常数 30 剩余极化Pr/(µC·cm–2) 17 矫顽场Ec/(MV·cm–1) 1 
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[1] Chen D, Kim H, Phan A, Wilcox E, LaBel K, Buchner S, Khachatrian A, Roche N 2014 IEEE Trans. Nucl. Sci. 61 3088
Google Scholar
[2] 沈自才, 丁义刚 2015 抗辐射设计与辐射效应 (北京: 中国科学技术出版社) 第78页
Shen Z C, Ding Y G 2015 Anti-Radiation Design and Radiation Effect (Beijing: China Science and Technology Press) p78 (in Chinese)
[3] 高占占, 侯鹏飞, 郭红霞, 李波, 宋宏甲, 王金斌, 钟向丽 2019 68 048501
Google Scholar
Gao Z Z, Hou P F, Guo H X, Li B, Song H J, Wang J B, Zhong X L 2019 Acta Phys. Sin. 68 048501
Google Scholar
[4] Carter R, Mazurier J, Pirro L, et al. 2016 IEEE International Electron Devices Meeting San Francisco, USA, December 3–7, 2016 p2.2.1
[5] Mikolajick T, Schroeder U, Lomenzo P D, Breyer E T, Mulaosmanovic H, Hoffmann M, Mittmann T, Mehmood F, Max B, Slesazeck S 2019 IEEE International Electron Devices Meeting San Francisco, USA, December 7–11, 2019 p15.5.1
[6] Beyer S, Dünkel S, Trentzsch M, et al. 2020 IEEE International Memory Workshop Dresden, Germany, May 17–20, 2020 p1
[7] Müller J, Böscke T S, Bräuhaus D, Schröder U, Böttger U, Sundqvist J, Kücher P, Mikolajick T, Frey L 2011 Appl. Phys. Lett. 99 102901
Google Scholar
[8] Zeng B J, Liao M, Liao J J, Xiao W W, Peng Q X, Zheng S Z, Zhou Y C 2019 IEEE Electron Device Lett. 40 710
Google Scholar
[9] Breyer E T, Mulaosmanovic H, Trommer J, Melde T, Dünkel S, Trentzsch M, Beyer S, Slesazeck S, Mikolajick T 2020 IEEE J. Electron Devices Soc. 8 748
Google Scholar
[10] O'Sullivan B J, Putcha V, Izmailov R, Afanas'ev V, Simoen E, Jung T, Higashi Y, Degraeve R, Truijen B, Kaczer B, Ronchi N, McMitchell S, Banerjee K, Clima S, Breuil L, Van den Bosch G, Linten D, Van Houdt J 2020 Appl. Phys. Lett. 117 203504
Google Scholar
[11] Wu Y C, Jhan Y R 2018 3D TCAD Simulation for CMOS Nanoeletronic Devices (Singapore: Springer) pp1–17
[12] 黎华梅, 侯鹏飞, 王金斌, 宋宏甲, 钟向丽 2020 69 098502
Google Scholar
Li H M, Hou P F, Wang J B, Song H J, Zhong X L 2020 Acta Phys. Sin. 69 098502
Google Scholar
[13] Xu J Y, Chen S M, Song R Q, Wu Z Y, Chen J J 2018 Nucl. Sci. Tech. 29 49
Google Scholar
[14] Wang L F, Liu H N, Chen L K, Zhou Y L, Zhang H Y, Gao J T, Zhao F Z, Luo J J, Yu F, Han Z S 2016 13th IEEE International Conference on Solid-State and Integrated Circuit Technology Hangzhou, China, October 25–28, 2016 p1506
[15] Trentzsch M, Flachowsky S, Richter R, et al. 2016 IEEE International Electron Devices Meeting San Francisco, USA, December 3–7, 2016 p11.5.1
[16] Planes N, Weber O, Barral V, et al. 2012 Symposium on VLSI Technology Honolulu, USA, June 12–14, 2012 p133
[17] Breyer E T, Mulaosmanovic H, Mikolajick T, Slesazeck S 2017 IEEE International Electron Devices Meeting San Francisco, USA, December 2–6, 2017 p28.5.1
[18] Tian G L, Bi J S, Xu G B, Xi K, Yang X, Yin X Q, Xu Q X, Wang W W 2020 Semicond. Sci. Tech. 35 105010
Google Scholar
[19] Hyuk Park M, Joon Kim H, Jin Kim Y, Lee W, Moon T, Seong Hwang C 2013 Appl. Phys. Lett. 102 242905
Google Scholar
[20] 曾斌建 2019 博士学位论文 (湘潭: 湘潭大学)
Zeng B J 2019 Ph. D. Dissertation (Xiangtan: Xiangtan University) (in Chinese)
[21] 毕津顺, 刘刚, 罗家俊, 韩郑生 2013 62 208501
Google Scholar
Bi S J, Liu G, Luo J J, Han Z S 2013 Acta Phys. Sin. 62 208501
Google Scholar
[22] Bartic A T, Wouters D J, Maes H E, Rickes J T, Waser R M 2001 J. Appl. Phys. 89 3420
Google Scholar
[23] Tu L Q, Cao R R, Wang X D, Chen Y, Wu S Q, Wang F, Wang Z, Shen H, Lin T, Zhou P, Meng X J, Hu W D, Liu Q, Wang J L, Liu M, Chu J H 2020 Nat. Commun. 11 101
Google Scholar
[24] Synopsys, Inc. https://www.synopsys.com/silicon/tcad.html [2021-07-10]
[25] Nsengiyumva P, Massengill L W, Alles M L, Bhuva B L, Ball D R, Kauppila J S, Haeffner T D, Holman W T, Reed R A 2017 IEEE Trans. Nucl. Sci. 64 441
Google Scholar
[26] Nsengiyumva P, Massengill L W, Kauppila J S, Maharrey J A, Harrington R C, Haeffner T D, Ball D R, Alles M L, Bhuva B L, Holman W T, Zhang E X, Rowe J D, Sternberg A L 2018 IEEE Trans Nucl. Sci. 65 223
Google Scholar
[27] Wang Q Q, Liu H X, Wang S L, Chen S P 2018 IEEE Trans. Nucl. Sci. 65 2250
Google Scholar
[28] Space Environment Effects Laboratory, https://www.seelab.ac.cn/ [2021-11-15]
[29] Yan S A, Tang M H, Zhao W, Guo H X, Zhang W L, Xu X Y, Wang X D, Ding H, Chen J W, Li Z, Zhou Y C 2014 Chin. Phys. B 23 046104
Google Scholar
[30] 卓青青, 刘红侠, 郝跃 2012 61 220702
Google Scholar
Zhuo Q Q, Liu H X, Hao Y 2012 Acta Phys. Sin. 61 220702
Google Scholar
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