Walking the Route to GHz Solution‐Processed Organic Electronics: A HEROIC Exploration

数码产品 共形矩阵 有机电子学 晶体管 材料科学 有机半导体 电容感应 可扩展性 柔性电子器件 无线电频率 光电子学 半导体 干扰(通信) 领域(数学) 纳米技术 计算机科学 电气工程 电信 电压 工程类 复合材料 数学 频道(广播) 纯数学 数据库
作者
Andrea Perinot,Bianca Passarella,Michele Giorgio,Mario Caironi
出处
期刊:Advanced Functional Materials [Wiley]
卷期号:30 (20) 被引量:20
标识
DOI:10.1002/adfm.201907641
摘要

Abstract Limited charge carrier mobility of organic semiconductors, especially for solution‐processed polymer thin films, has typically relegated organic electronics to low‐frequency operation. Nevertheless, thanks to a steady increase in electronic properties of organics, much higher operation frequencies are feasible, suggesting a possible and appealing scenario where lightweight, cost‐effective, and conformable electronics can integrate both sensing and radio‐frequency transmitting functionalities, which are the key to unlock pervasive networks of distributed sensors revolutionizing human–environment interaction. Few years ago, it was suggested that gigahertz (GHz) field‐effect transistors could be achievable even with solution‐based processes. This was the basis for the European Research Council project high‐frequency printed and direct‐written organic‐hybrid integrated circuits (HEROIC), which in the last few years investigated such unexplored path. Here, the authors report their vision toward the achievement of radio‐frequency organic electronics mainly with solution‐based and scalable processes, with reference to the experience of the HEROIC project and to some of the most notable literature examples. The authors show that the achievement of solution‐processable organic field‐effect transistors with GHz operation is indeed feasible, but requires considering a carefully revised scenario in which the main role is played by charge injection, together with the geometric overlap, the capacitive parasitism associated to fringing and some constraints on the dielectric layer thickness.
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