标题: 有机与高分子光电材料元件之基础研究
Understanding Optoelectronic Nano-Devices Composed of Organic Molecules and Polymer Materials
作者: 刁维光
DIAU ERIC WEI-GUANG
国立交通大学应用化学系(所)
关键字: 氧化钛;电子吸收光谱;染料敏化太阳能电池;钌错合物;TiO2;electroabsorption;dye-sensitized solar cells;Ru complexes
公开日期: 2010
摘要: 我们提出一个三年期之台日合作研究计画“有机与高分子光电材料元件之基础研
究”,其目的在结合双方互补之技术与资源,对有机与高分子光电材料元件(OLED、OLEFET
及DSSC)的基本过程进行深入的研究与探讨。元件电致发光或光电转换效率的特性与材
料的光谱特性、激发态动态学以及他们的电场效应息息相关,要了解控制效率的关键因
素,我们将进行电致吸收(vis. and IR)光谱/放射光谱、光电流电压特征曲线、以及其
对应的动力学基础研究。分析这些元件电场/光电效应或动力学的结果可以帮助我们了
解其运作机制,以及其和元件效能的对应关系而促使我们未來能设计出功能更强大的元
件。其中有机/高分子/奈米材料的合成、OLED 与DSSC 元件的制备、以及相关光谱动力
学的研究将在台湾进行,而OLEFET 元件制备与相关材料的电场效应研究则由日本团队
负责。吾人预期这个国际合作研究计画将会有非常丰硕的成果产出。
as efficient organic light emitting diodes (OLEDs) and organic light emitting field effect
transistor (OLEFET), and dye-sensitized solar cells (DSSC) using organic molecules, novel
polymers, and nanomaterials. 2) In OLEDs, multilayer thin films including electron, hole
transporting layers, and emitting layer are deposited between electrodes by spin coating or
vapor deposition. OLEFETs which are operated under the action of drain-source bias are also
constructed. DSSC is a sandwich-type device containing dye sensitizers, electron and hole
transporting layers. The electroluminescence or conversion efficiency of these devices
depends strongly on the spectral property, excited-state dynamics and their electric field
effects. To understand the critical factors governing the efficiency, UV-Vis electro-absorption
and electro-photoluminescence spectra, photocurrent and photovoltage, and their decay
profiles, IR electro-absorption and transient absorption spectra will be recorded. 3) Analysis
of these electric and photo-electric effects will lead to better understanding of the emission
mechanism and efficiency of these nano devices and provide guidelines for making nano
devices with improved performance. 4) Polymers, organic sensitizers and nanomaterials will
be synthesized and nanodevices of OLED, DSSC, and OLEFETs will be fabricated in Taiwan
and Japan, respectively. The electric-field effect in the UV-Vis spectral region will be carried
out in Japan, and those in the IR region will be performed in Taiwan. 5) Understanding of
the detailed mechanism is expected to lead to development of efficient and durable
light-emitting and photovoltaic devices that can be used in many applications, including
flexible display, solar cell or optical sensor.
官方说明文件#: NSC99-2923-M009-001-MY3
URI: http://hdl.handle.net/11536/100135
https://www.grb.gov.tw/search/planDetail?id=2013151&docId=329567
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