Exploration of Edge of Chaos in Bio-Inspired Devices, Circuits, and Systems

A. Ascoli, A. S. Demirkol, R. Tetzlaff, L. Chua
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引用次数: 1

Abstract

With Moore's era approaching an inevitable end, much research is currently focused on multi-purpose nano-devices, which may endow traditional purely-CMOS circuits with add-on functionalities, allowing to boost the performance of integrated circuits, despite further reductions in transistor dimensions shall no longer be viable. One of the most promising nanotechnologies for fostering progress in electronics in the years to come allows to fabricate memristors, which, depending upon their constitutive materials, may pave the way toward the circuit realisation of disruptive in-memory computing or mem-computing paradigms of great appeal to the Internet-of- Things industry. Moreover, with their extraordinary capability to capture the rich dynamics of neural structures, memristors shall play a key role in the development of miniaturised hardware systems operating according to principles similar to the mechanisms underlying the functionalities of the human brain. In this regard this work sheds light into the conditions, under which electronic systems, leveraging the locally-active behaviour of a NbO device stack, may enter a particular operating regime, hosting the seed for complexity, and referred to as Edge of Chaos, similarly as axon membranes on the verge to generate all-or-none spikes, which, travelling across neural structures, enable the development of intelligence in human beings.
生物启发装置、电路和系统中混沌边缘的探索
随着摩尔时代不可避免地接近尾声,目前许多研究都集中在多用途纳米器件上,这可能会赋予传统的纯cmos电路附加功能,从而提高集成电路的性能,尽管进一步缩小晶体管尺寸将不再可行。在未来几年里,最有希望促进电子技术进步的纳米技术之一是制造忆阻器,这取决于它们的构成材料,可能为颠覆性内存计算或memm计算范式的电路实现铺平道路,这对物联网行业非常有吸引力。此外,凭借其捕捉神经结构丰富动态的非凡能力,记忆电阻器将在小型化硬件系统的发展中发挥关键作用,这些系统的运行原理与人脑功能的基本机制相似。在这方面,这项工作揭示了电子系统的条件,在这种条件下,利用NbO设备堆栈的局部主动行为,可能进入特定的操作状态,承载复杂性的种子,并被称为混沌边缘,类似于边缘的轴突膜,产生全或无尖峰,这些尖峰穿过神经结构,使人类智能的发展成为可能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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