Endurance > 1011 Cycling of 3D GAA Nanosheet Ferroelectric FET with Stacked HfZrO2 to Homogenize Corner Field Toward Mitigate Dead Zone for High-Density eNVM

C.-Y. Liao, K.-Y. Hsiang, Z.-F. Lou, Hsuan-Chi Tseng, C. Lin, Z.-X. Li, F.-C. Hsieh, C. C. Wang, Fu-Sheng Chang, Wei-Chang Ray, Y. Tseng, Shu-Tong Chang, T. C. Chen, M. Lee
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引用次数: 7

Abstract

After 1011 high endurance cycles with memory window (MW) =0.9 V is achieved for the 3D gate-all-around (GAA) nanosheet (NS) ferroelectric field-effect transistor (FeFET) based on double-HZO; the aim is to homogenize the corner field and mitigate dead zones. The interlayer Al2O3 or TiN in the double-HZO exhibits MW enhancement or low access voltage, respectively. The proposed MFMFS GAA-FeFET demonstrates a low VP/E = ±3.5 V (±2.3 MV/cm), large MW = 1.3 V, >1011 robust endurance cycles, and stable storage with data retention of >2×104 s; therefore, physical dimension scaling of the embedded nonvolatile memory (eNVM) is feasible for future generations.
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高密度eNVM中采用叠置HfZrO2均匀化角场的三维GAA纳米片铁电场效应管耐久性> 1011循环
基于双hzo的三维栅极全能(GAA)纳米片铁电场效应晶体管(FeFET)经过1011次高寿命循环,存储器窗口(MW) =0.9 V;目的是均匀化角场,减少死区。双hzo层间Al2O3和TiN分别表现出MW增强和低接入电压。所提出的MFMFS GAA-FeFET具有低VP/E =±3.5 V(±2.3 MV/cm),大MW = 1.3 V, >1011个稳健的持久周期,稳定的存储,数据保留时间>2×104 s;因此,嵌入式非易失性存储器(eNVM)的物理尺寸缩放在未来是可行的。
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