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混合聚合物金属氧化物忆阻器中紫外线诱导的电阻开关

UV induced resistive switching in hybrid polymer metal oxide memristors.

作者信息

Stathopoulos Spyros, Tzouvadaki Ioulia, Prodromakis Themis

机构信息

Centre for Electronics Frontiers, Zepler Institute for Photonics and Nanoelectronics, University of Southampton, Southampton, SO17 1BJ, UK.

出版信息

Sci Rep. 2020 Dec 3;10(1):21130. doi: 10.1038/s41598-020-78102-x.

Abstract

There is an increasing interest for alternative ways to program memristive devices to arbitrary resistive levels. Among them, light-controlled programming approach, where optical input is used to improve or to promote the resistive switching, has drawn particular attention. Here, we present a straight-forward method to induce resistive switching to a memristive device, introducing a new version of a metal-oxide memristive architecture coupled with a UV-sensitive hybrid top electrode obtained through direct surface treatment with PEDOT:PSS of an established resistive random access memory platform. UV-illumination ultimately results to resistive switching, without involving any additional stimulation, and a relation between the switching magnitude and the applied wavelength is depicted. Overall, the system and method presented showcase a promising proof-of-concept for granting an exclusively light-triggered resistive switching to memristive devices irrespectively of the structure and materials comprising their main core, and, in perspective can be considered for functional integrations optical-induced sensing.

摘要

人们对将忆阻器件编程到任意电阻水平的替代方法越来越感兴趣。其中,光控编程方法利用光输入来改善或促进电阻开关,受到了特别关注。在此,我们提出了一种直接的方法来诱导忆阻器件的电阻开关,引入了一种新型的金属氧化物忆阻架构,该架构与通过对已建立的电阻式随机存取存储器平台进行PEDOT:PSS直接表面处理而获得的对紫外线敏感的混合顶部电极相结合。紫外线照射最终导致电阻开关,无需任何额外刺激,并描绘了开关幅度与所施加波长之间的关系。总体而言,所展示的系统和方法展示了一个有前景的概念验证,即无论忆阻器件的主要核心结构和材料如何,都能实现完全由光触发的电阻开关,并且从长远来看,可以考虑用于光诱导传感的功能集成。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/8263/7712831/51ec6b655a9a/41598_2020_78102_Fig1_HTML.jpg

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