Bionic Sypantic Application of OxRRAM Devices

Zongjie Shen, Chun Zhao, Li Yang, Cezhou Zhao
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Abstract

In this work, bionic synaptic application of OxRRAM (oxide RRAM) devices with various materials are provided and reviewed, mainly including transition metal oxides and non-metal oxides fabricated by different methodologies. It is possible to stimulate synaptic function in the human brain by electrical signals due to the typical ‘MIM’ sandwich structure and efficient fabrication process of OxRRAM devices. Based on elementary electrical characteristics including switching behavior, endurance performance and retention property, artificial synaptic behaviors mimicked by OxRRAM devices were under investigation, such as potentiation/depression response, long-/short-term plasticity (STP/LTP) and spike-time-dependent plasticity (STDP). In addition, the transition from short-term memory (STM) to longterm memory (LTM) of OxRRAM devices revealed the extensive prospect of its bionic application in artificial neuron network (ANN).
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OxRRAM器件的仿生突触应用
本文综述了不同材料的氧化物RRAM (OxRRAM)器件在仿生突触中的应用,主要包括不同方法制备的过渡金属氧化物和非金属氧化物。由于典型的“MIM”夹层结构和OxRRAM器件的高效制造工艺,通过电信号刺激人脑突触功能成为可能。基于开关行为、持久性能和保持特性等基本电特性,研究了OxRRAM模拟的人工突触行为,如增强/抑制反应、长/短期可塑性(STP/LTP)和峰值时间依赖性可塑性(STDP)。此外,OxRRAM器件从短期记忆(STM)向长期记忆(LTM)的转变,揭示了其在人工神经元网络(ANN)仿生应用中的广阔前景。
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