The influence of the thickness of electron transport layer on the properties of organic light-emitti

来源 :International Conference on Molecular Electronic Materials a | 被引量 : 0次 | 上传用户:ttkuaile
下载到本地 , 更方便阅读
声明 : 本文档内容版权归属内容提供方 , 如果您对本文有版权争议 , 可与客服联系进行内容授权或下架
论文部分内容阅读
In this study,we investigate experimentally and theoretically the influence of the thickness of electron transport layer (ETL) on the properties of the typical NPB/Alq3 heterojunction based organic light-emitting diodes,where the the thickness of ETL is varied to adjust the distance between the emitting zone and the metal electrode.
其他文献
P-n copolymerization serves as the most effective toolbox to tune the properties both inter and intra molecules in plastic semiconductor materials.
The open-circuit voltage (VOC) dependence on bulk energy and electrode interfacial potential is investigated by using the capacitance-voltage and photoluminescence intensity measurements based on the
Poly-4-vinylphenol,poly (methyl methacrylate) and cross-linked PVP are employed as polymeric insulator and chemical vapor deposition is used to form self-assembled monolayer on polymeric insulators su
会议
Organic memory devices have attracted extensive attentions on account of their unique advantages,such as good scalability,light weight,and low-cost fabrication process.
This article reports experimental studies on the effects of interfacial dipole on surface-charge accumulation and collection by using electric field-dependent photoluminescence (electro-photoluminesce
ZnSe quantum dots (QDs) having greater band gaps ranging from 2.8–3.4 eV (bulk ZnSe having a band gap of 2.7 eV) was especially interesting emitting materials over a region from UV to blue,which demon
Graphene,one monolayer of sp2-bonded carbon tightly packed into a two-dimensional honeycomb lattice,has drawn numerous attention as a hopeful candidate material for spintronic devices due to its high
Nanowires have been used in more and more applications,such as next generation bio-sensors and flexible electronics.
A fluorescence blue emitting unit and a phosphorescence orange-green emitting unit were stacked to form a hybrid tandem white organic light-emitting diode (WOLED) .
In this study highly efficient blue emitting materials consisting of dual core derivatives[1] with phenyl and/or naphthyl side groups and asymmetric or symmetric structures were designed and synthesiz