提高有机电化学晶体管瞬态速度的通用预充电方法

IF 5.4 1区 化学 Q2 CHEMISTRY, MULTIDISCIPLINARY GIANT Pub Date : 2024-06-14 DOI:10.1016/j.giant.2024.100306
Chao Zhao , Björn Lüssem , Sen Zhang , Shijie Wang , Wei Ma
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引用次数: 0

摘要

有机电化学晶体管(OECT)在各种应用中显示出巨大的潜力;然而,在许多 OECT 中,其缓慢的瞬态响应限制了其实际应用。反应缓慢的原因之一是迄今为止人们对横向和纵向离子传输之间复杂的相互作用了解甚少。在这项工作中,我们研究了横向离子传输对 OECT 瞬态响应的影响,并引入了一种稳健的预充电方法来控制缓慢的横向离子传输。这种方法可以加快离子再分布,提高开关速度。我们展示了预充电方法在提高各种材料系统(具有低和高离子迁移率的特点)和不同器件架构的开关速度方面的通用性,实现了几乎对称的导通和关断速度。此外,我们还展示了预充电方法在实际应用中使慢速 OECT 捕捉快速信号的功效。我们的研究成果为提高 OECT 器件的响应时间和加深我们对 OECT 器件瞬态机制的理解提供了一种开创性的策略。
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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A universal pre-charging method for enhancing transient speed in Organic Electrochemical Transistors

Organic electrochemical transistors (OECT) have shown great potential in diverse applications; however, in many OECTs, their slow transient response has thus far limited their practical use. One reason for the slow response is the complex interplay between lateral and vertical ion transport that has so far been poorly understood. In this work, we study the impact of lateral ion transport on OECT transient response, introduce a robust pre-charging method to manipulate the slow lateral ion transport. This approach leads to quicker ion redistribution and improved switching speeds. We show the general utility of pre-charging method in enhancing the switching speeds across various material systems, characterized by both low and high ion mobilities, and across different device architectures, achieving nearly symmetric speeds for both on-switching and off-switching. Moreover, we showcase the efficacy of the pre-charging method in enabling slow OECTs to capture rapid signals in real-world applications. Our findings present a groundbreaking strategy for enhancing the response times of OECT devices and deepening our understanding of the transient mechanisms in OECT device.

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来源期刊
GIANT
GIANT Multiple-
CiteScore
8.50
自引率
8.60%
发文量
46
审稿时长
42 days
期刊介绍: Giant is an interdisciplinary title focusing on fundamental and applied macromolecular science spanning all chemistry, physics, biology, and materials aspects of the field in the broadest sense. Key areas covered include macromolecular chemistry, supramolecular assembly, multiscale and multifunctional materials, organic-inorganic hybrid materials, biophysics, biomimetics and surface science. Core topics range from developments in synthesis, characterisation and assembly towards creating uniformly sized precision macromolecules with tailored properties, to the design and assembly of nanostructured materials in multiple dimensions, and further to the study of smart or living designer materials with tuneable multiscale properties.
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