Spin-MTJ based Non-volatile Flip-Flop

Weisheng Zhao, E. Belhaire, C. Chappert
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引用次数: 86

Abstract

Spin Transfer Torque (STT) writing approach based Magnetic Tunnel Junction (Spin-MTJ) is the excellent candidate to be used as Spintronics device in Magnetic RAM (MRAM) and Magnetic Logic. We present the first Non-volatile Flip-Flop based on this device for Field Programmable Gate Array (FPGA) and System On Chip (SOC) circuits, which can make these circuits fully non-volatile by storing permanently all the data processed in the Spin-MTJ memory cells. The non-volatility enables logic circuits to decrease significantly the start-up latency of these circuits from some micro seconds down to some hundred pico seconds. By using St microelectronics 90 nm CMOS technology and a behavior Spin-MTJ simulation Model in Verilog-A language, this non-volatile Flip-Flop has been demonstrated that it works not only in very high speed or low propagation delay, but also keeps low power dissipation and small cell surface.
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基于Spin-MTJ的非易失性触发器
基于自旋传递转矩(STT)写入方法的磁隧道结(Spin- mtj)是在磁性RAM (MRAM)和磁逻辑中用作自旋电子学器件的理想人选。我们提出了第一个基于该器件的非易失性触发器,用于现场可编程门阵列(FPGA)和片上系统(SOC)电路,通过永久存储Spin-MTJ存储单元中处理的所有数据,可以使这些电路完全非易失性。非易失性使逻辑电路的启动延迟从几微秒显著降低到几百皮秒。通过采用St微电子90nm CMOS技术和Verilog-A语言的行为自旋- mtj仿真模型,证明了该非易失性触发器不仅可以在非常高的速度或低的传播延迟下工作,而且可以保持低功耗和小单元表面。
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