电阻开关存储器中丝状传导的量子点接触模型

X. Lian, S. Long, C. Cagli, J. Buckley, E. Miranda, Ming Liu, J. Suñé
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引用次数: 13

摘要

量子点接触(QPC)模型最初用于模拟薄氧化物MOS器件软击穿和硬击穿事件后的传导,现已应用于电阻式随机存取存储器(RRAM)。QPC模型基于导电灯丝(CF)作为量子线的思想,并充分描述了在低电阻状态(LRS)和高电阻状态(HRS)下的传导。这两种状态分别表现出线性和非线性的电流-电压(I-V)特性。在LRS中,CF表现出金属导电特性和电导量子化特征。在HRS中,在足够低和足够高的电压下,导通是线性的,在这两个线性状态之间的转换是强烈的非线性的。在证明该模型适用于LRS和HRS之后,QPC图被用来为基于cf的RRAM器件和忆阻器的整个动态开关周期提供一个紧凑的模型。
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Quantum point contact model of filamentary conduction in resistive switching memories
The quantum point contact (QPC) model, originally developed to model the conduction after soft and hard breakdown events in thin-oxide MOS devices, is applied to resistive random access memories (RRAM). The QPC model is based on the idea that the conducting filament (CF) behaves as a quantum wire and it is shown to adequately describe the conduction in the low-resistance state (LRS) and in the high-resistance state (HRS). These two regimes show linear and nonlinear current-voltage (I-V) characteristics, respectively. In the LRS, the CF shows metallic conduction properties and the signature of conductance quantization. In the HRS, the conduction is linear at low and high enough voltages, and it is strongly nonlinear in the transition between these two linear regimes. After showing that the model is adequate for both the LRS and the HRS, the QPC picture is used to provide a compact model for the whole dynamic switching cycle of CF-based RRAM devices and memristors.
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