Self assembled polymer nanocomposites for stimuli-interactive sensing display (Conference Presentation)

Cheolmin Park
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Abstract

Development of stimuli-interactive sensing display capable of spontaneously visualizing various external human sensible inputs has been of great interest and tremendous efforts are devoted to the visualization of nonvisible human senses such as touch, smell, taste, and sound. Field induced electroluminescence of either organic or inorganic fluorescent materials under alternating current (AC) has been extensively studied and its unique device architecture in which an emitting layer is separated with an insulator from electrode offers a new platform for designing and developing emerging stimuli-interactive displays. In this presentation, high-performance field-induced AC polymer electroluminescence (AC-PEL) devices are demonstrated with high brightness, high efficiency and color and intensity-tunability. We also present a pressure interactive AC display sensor that allows for both sensing and visualisation of pressure. Light emission upon exposure to an AC field between two electrodes is controlled by the capacitance change of the insulator arising from the pressure applied on top. Besides capacitive pressure sensing, our EL sensor allows for direct visualisation of the static and dynamic information of position, shape, and size of a pressurising object on a non-pixelated single device platform. Finally, the presentation shows that simultaneous sensing and visualization of the conductive substance is achieved when the conductive object is coupled with the light emissive material layer on our novel parallel-type AC-PEL device. A variety of conductive materials can be detected regardless of their work functions, and thus information written by a conductive pen is visualized, as is a human fingerprint with natural conductivity.
用于刺激交互传感显示的自组装聚合物纳米复合材料(会议报告)
能够自发地将各种外部人类感官输入可视化的刺激交互传感显示器的开发引起了极大的兴趣,并且在触觉、嗅觉、味觉和声音等非可见人类感官的可视化方面投入了巨大的努力。有机或无机荧光材料在交流电流下的场致电致发光已经得到了广泛的研究,其独特的发射层与绝缘体分离的器件结构为设计和开发新兴的刺激交互显示器提供了一个新的平台。在本报告中,展示了高性能场致交流聚合物电致发光(AC- pel)器件具有高亮度,高效率和颜色和强度可调性。我们还提出了一种压力交互式交流显示传感器,可以同时感知和可视化压力。暴露于两个电极之间的交流场时的光发射是由顶部施加的压力引起的绝缘体的电容变化控制的。除了电容式压力传感外,我们的EL传感器还可以在非像素化的单个设备平台上直接可视化加压物体的位置、形状和大小的静态和动态信息。最后,在我们的新型并联AC-PEL器件上,当导电物体与发光材料层耦合时,可以实现导电物质的同时传感和可视化。无论其工作功能如何,都可以检测到各种导电材料,从而使导电笔所写的信息可视化,就像具有天然导电性的人体指纹一样。
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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