High Efficiency White and Colored Organic Electroluminescence

R. H. Jordan, A. Dodabalapur, M. Strukelj, L. Rothberg, R. Slusher, T. M. Miller
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Abstract

The need for light weight, low power multicolor displays and backlights has spurred interest in thin-film, organic electroluminescent (EL) devices. A typical organic EL device consists of an indium-tin oxide anode (ITO) layer on a glass substrate, and sequential layers of bis(triphenyl)diamine (TAD, hole transporter), tris(8-hydroxyquinoline)aluminum (A1Q, electron transporter and green light-emitter), and a low work function metal cathode (e.g., Al or Mg:Ag).1 Device efficiency, stability, and spectral output can be tailored by incorporating intermediate layers of organic hole-blockers2 or blue-emitters,3 or doping A1Q with narrow spectral linewidth organic dyes.4 Cavity resonance effects have been employed in lithographically patterned optical microcavities to select single5or multiple6 colors out of broad spectrum organic emitters like A1Q. Device efficiency is a critical parameter, especially for liquid crystal display backlight applications. We will describe an approach for white light EL and an approach for enhancing device efficiency.
高效白色和彩色有机电致发光
对重量轻、功耗低的多色显示器和背光的需求激发了人们对薄膜有机电致发光(EL)器件的兴趣。典型的有机电致发光器件由玻璃衬底上的氧化铟锡阳极(ITO)层、双(三苯基)二胺(TAD,空穴传输子)、三(8-羟基喹啉)铝(A1Q,电子传输子和绿光发射器)和低功函数金属阴极(例如Al或Mg:Ag)组成器件的效率、稳定性和光谱输出可以通过结合有机空穴阻挡剂s2或蓝色发射器3的中间层或掺杂A1Q与窄谱线宽有机染料来定制腔共振效应已被用于光刻图像化的光学微腔中,以从广谱有机发射体(如A1Q)中选择单色或多色。器件效率是一个关键参数,特别是对于液晶显示背光应用。我们将描述一种白光EL的方法和一种提高器件效率的方法。
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