忆阻器动态使能计算

Yuchao Yang
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引用次数: 0

摘要

自2008年将理论忆阻器概念与物理阻性开关器件联系起来以来,材料和器件技术的发展及其在存储和计算系统中的应用取得了巨大进展。忆阻器的物理实施例对应于基于不同机制的各种电阻开关器件。这些机制赋予忆阻器丰富的非线性动力学特性,是构建生物学上合理的动态计算系统的关键。忆阻器可以被描述为一组微分方程,这些微分方程表明内部状态变量如何决定器件特性以及外部电刺激如何影响这些状态变量。状态变量和内部动力学的增加极大地丰富了忆阻器的动力学和功能。进一步探索和控制这种动态对于高效的信息处理应用是必不可少的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Memristor Dynamics Enabled Computing
Since the connection of the theoretical memristor concept with physical resistive switching devices in 2008, tremendous progress has been made in terms of material and device technology developments and their applications in memory and computing systems. The physical embodiments of memristors correspond to various resistive switching devices based on different mechanisms. These mechanisms endow the memristors with rich nonlinear dynamics, which is key to constructing biologically plausible dynamic computing systems. Memristor can be described as a set of differential equations that indicate how the internal state variables determine device characteristics and how external electrical stimulations influence these state variables. The increases in the number of state variables and internal dynamics have dramatically enriched the dynamics and functionality of memristors. Further exploration and control of such dynamics are essential for highly efficient information processing applications.
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