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聚TPD電荷傳輸材料的制備與單層器件的電致發光

Poly-TPD for charge transport materials and electroluminescence of single layer devices

  • 摘要: 為了提高空穴傳輸材料TPD(三苯基二胺衍生物)的熱穩定性和器件的壽命,用TPD通過Friedel-Crafts反應和二鹵化合物進行縮聚,將TPD結構單元引入到聚合物的主鏈,得到了一系列具有電荷傳輸性能的新型電致發光聚合物.研究發現,所有聚合物的熱穩定性均高于TPD,能帶結構幾乎沒有發生改變,有的聚合物既能傳輸空穴,又能傳輸電子.考察了單層器件的發光性能.結果顯示,器件最大亮度在17V時約為36cd·m-2,最大發射為460nm.

     

    Abstract: In order to enhance the thermal stability of TPD (Triphenylamines Derivatives) for hole transport materials and device durability, a series of novel electroluminescent polymers with charge transporting properties were synthesized by condensation polymerization using TPD with di-halide through the Friedel-Crafts reaction, which TPD units were introduced into the main chain of polymers. It was found that all poly-TPD had almost the same structure of energy band as that of TPD itself and had better thermal stability. Some of polymers can transport holes as well as electrons. Their properties for electroluminesence of single layer devices were investigated. The results show that the devices emitted the maximum luminescence of about 36 cd·m-2 at 17 V and the maximum emission of the device was 460 nm.

     

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