忆阻模拟电阻开关的读写电路

Siti Musliha Ajmal Mokhtar, W. Abdullah, K. A. Kadiran, R. Rifin, M. Omar
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引用次数: 5

摘要

众所周知,尺寸缩放CMOS晶体管可以提高成本、速度和每个芯片的功率,从而实现高性能集成电路。然而,晶体管尺寸太小会降低晶体管的性能,从而成为CMOS缩放的限制。克服这一限制的一种方法是将CMOS与忆阻器结合;该器件具有小尺寸、低功耗、非易失性和开关能力,并与CMOS技术兼容。在本研究中,提出了忆阻电阻写电路(RWC)和读电路(RRC)。RWC设计采用脉冲编码忆阻器编程方法。它使用2组开关通过提供正脉冲或负脉冲来减小或增加电阻。另外,供电信号宽度越长,电阻变化越大。接下来,介绍了两种类型的RRC;电压读出电路和电流读出电路。原电路由反阻抗放大器和电阻组成。放大器的输出电压表示忆阻电阻的阻值。当电源为负脉冲时,忆阻电阻增大,Vout逐渐减小,反之。后一种电路由放大器和CMOS晶体管组成,从忆阻器读取电流,表示忆阻电阻。当忆阻电阻改变时,电流也随之改变。增加了一组电流反射镜,使忆阻器电流能够被复制到其他电路。增加了电流采样和保持电路,以便在没有电压供应时保持电流信息。结果表明,第一个RWC成功地对忆阻器的电阻进行了增大或减小的编程。二是电压读电路可以用电压形式表示电阻值,但输出电压为负,不太适用。三是电流读出电路可以根据忆阻电阻输出电流,与其他电路兼容。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Write and read circuit for memristor analog resistance switching
Size scaling CMOS transistors are known to improve cost, speed, and power per chip that results in high performance IC. However, too small transistor size can degrade transistor performance thus become limitation to CMOS scaling. One way to overcome this limitation is by incorporating CMOS with memristor; a device that offers small size, low power, nonvolatile characteristic with switching ability and is compatible with CMOS technology. In this research, memristor resistance write circuit (RWC) and read circuit (RRC) are presented. A pulse-coded memristor programming method is adopted in RWC design. It uses 2 sets of switches to decreases or increases resistance by supplying positive or negative pulse. Plus, the longer width of supply signal, the bigger changes of resistance. Next, two types of RRC are presented; voltage read circuit and current read circuit. Former circuit consists of trans-impedance amplifier and resistor. Output voltage from amplifier expresses memristor resistance value. When voltage supply is negative pulse, memristor resistance increases thus Vout gradually decreases and otherwise. Latter circuit consists of amplifier and CMOS transistor to read the current from memristor that express memristor resistance. When memristor resistance changes, the current also changes. Set of current mirror is added to enable memristor current to be copied to other circuit. A current sample and hold circuit is added to keep current information when there is no voltage supply. Result shows first RWC successfully program resistance of memristor either to increase or decrease. Second, voltage read circuit can express resistance value in voltage form but have negative output voltage that not very applicable. Third, current read circuit can give current output based on memristor resistance and applicable with other circuits.
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