Advanced Printed Electronics – Materials and Junction Technologies

T. Hasegawa
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Abstract

Printed electronics aims to realize self-formation of electronics devices under ambient conditions via the printed patterned fluids that contain such as dispersed metal nanoparticles or soluble organic semiconductors [1] , [2] . These technologies are expected to realize facile productions of light weight and flexible human interface or energy harvesting devices without the use of huge vacuum facilities. In this talk, we present our recent studies to develop advanced printed electronics technologies for the production of all-printed and high-resolution thin-film transistors (TFTs) by utilizing self-organized characteristics of both silver nanoparticles and organic semiconductors. Specifically, we show that 1) novel printing principle via the nanoparticle chemisorption effect enables the formation of conductive silver patterning with submicron resolution, and 2) intrinsic high layered crystallinity of some organic semiconductors is quite effective to produce high performance printed organic TFTs. We also discuss that the junction technologies are crucial for these semiconductor devices, although the issues and features are fundamentally different from those in inorganic semiconductor devices.
先进印刷电子-材料和结技术
印刷电子学旨在通过含有分散的金属纳米颗粒或可溶性有机半导体等印刷图案流体,实现电子器件在环境条件下的自形成[1],[2]。这些技术有望在不使用大型真空设备的情况下实现轻量化和灵活的人机界面或能量收集设备的便捷生产。在这次演讲中,我们介绍了我们最近的研究,利用银纳米粒子和有机半导体的自组织特性,开发先进的印刷电子技术,用于生产全印刷和高分辨率薄膜晶体管(TFTs)。具体来说,我们发现1)通过纳米粒子的化学吸附效应,新的印刷原理可以形成具有亚微米分辨率的导电银图案;2)某些有机半导体固有的高层结晶度是生产高性能印刷有机tft的有效途径。我们还讨论了结技术对这些半导体器件至关重要,尽管其问题和特征与无机半导体器件有根本不同。
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