社论:关注神经形态计算的二维材料

Feng Miao, J. JoshuaYang, I. Valov, Yang Chai
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引用次数: 0

摘要

神经形态计算旨在模仿大脑中的突触、树突和神经元以及它们相关的连接网络来执行各种复杂的任务,包括传感、计算、感知,有时直接利用材料的物理特性。它们的功能多样性和性能高度依赖于材料的使用。与传统材料相比,二维材料具有许多独特的物理性质,二维材料的研究重塑了神经形态计算领域。本期特刊介绍了使用基于二维材料的设备来模拟生物突触或为硬件神经网络产生噪声注入的一些创新。这期杂志还全面分析了利用二维材料的独特物理特性进行神经形态计算的最新进展。这些创新和分析可能为进一步推进二维材料的实际应用提供有用的指导。本期特刊包括两篇研究文章和四篇综述文章,内容简述如下。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Editorial: Focus issue on 2D materials for neuromorphic computing
Neuromorphic computing aims at mimicking the synapses, dendrites, and neurons in the brain as well as their associated connected networks to perform a variety of complex tasks including sensing, computing, perception, sometimes by directly utilizing the physical properties of materials. Their functionality diversity and performance highly depend on the use of materials. Compared to the conventional materials, 2D materials exhibit many unique physical properties and the research of 2D materials has reshaped the field of neuromorphic computing. This special issue presents some of the innovations in using devices based on 2D materials to emulate the biological synapses or generate noise injection to hardware neural networks. The issue also provides a comprehensive analysis of recent advances in exploiting the unique physical properties of 2D materials for neuromorphic computing. These innovations and analysis may serve as a useful guide to further advance 2D materials for practical applications. This special issue includes two research articles and four review articles, with contents briefly summarized in the following paragraphs.
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