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首页> 外文期刊>Displays >Effect of MgZnO-bilayer/BA-CH_3 combination interlayer on emission characteristics of MoO_3/F8BT/ZnO hybrid light emitting diodes fabricated on ZnO/Ag/ZnO transparent cathode
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Effect of MgZnO-bilayer/BA-CH_3 combination interlayer on emission characteristics of MoO_3/F8BT/ZnO hybrid light emitting diodes fabricated on ZnO/Ag/ZnO transparent cathode

机译:MgZnO双层/ BA-CH_3组合中间层对ZnO / Ag / ZnO透明阴极上制造的MoO_3 / F8BT / ZnO混合发光二极管发射特性的影响

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摘要

The characteristics of MoO_3/F8BT/ZnO inorganic/organic hybrid light emitting diodes (IO-HyLEDs) fabricated on ZnO/Ag/ZnO dielectric/metal/dielectric (DMD) and conventional ZnO/ITO were investigated. The DMD had a low sheet resistance of 9 Ω/sq and a high transmittance of 90.7%. The device fabricated on DMD showed similar current density-voltage (J-V) and luminance-current density (L-J) characteristics to that on ZnO/ITO, indicating the possibility of DMD as a promising transparent conductive layer for IO-HyLEDs. The maximum luminous intensity of 237,000 cd/m~2 was demonstrated under pulsed condition for the DMD device. We also investigated the effect of the combination interlayer (CIL) at the F8BT/ ZnO interface on the IO-HyLEDs. The CIL was composed of a Mg_(0.52)Zn_(0.48)O/Mg_(0.25)Zn_(0.75)O bilayer and a self-assembled dipole molecule (SADM) of BA-CH3. The devices with CIL exhibited an approximately threefold enhancement of the luminous intensity and efficiency in comparison with the devices without CIL. This improvement was considered to be brought about by the enhancement of the electron injection efficiency by CIL.
机译:研究了在ZnO / Ag / ZnO电介质/金属/电介质(DMD)和常规ZnO / ITO上制造的MoO_3 / F8BT / ZnO无机/有机混合发光二极管(IO-HyLED)的特性。 DMD具有9Ω/ sq的低薄层电阻和90.7%的高透射率。在DMD上制造的器件显示出与ZnO / ITO相似的电流密度-电压(J-V)和亮度-电流密度(L-J)特性,这表明DMD可能成为有希望的IO-HyLED透明导电层。在DMD装置的脉冲条件下,最大发光强度为237,000 cd / m〜2。我们还研究了IO-HyLED上F8BT / ZnO界面处组合中间层(CIL)的影响。 CIL由Mg_(0.52)Zn_(0.48)O / Mg_(0.25)Zn_(0.75)O双层和BA-CH3的自组装偶极分子(SADM)组成。与没有CIL的设备相比,具有CIL的设备显示出发光强度和效率的大约三倍的提高。认为该改善是由于CIL提高了电子注入效率而引起的。

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