Optical properties of PZN-PT nanoparticles thin layer on ITO glass for photovoltaic application

R. Ndioukane, D. Kobor, L. Motte, J. Solard
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引用次数: 1

Abstract

In this work, undoped and Mn doped Pb(Zn1/3Nb2/3)O3-4.5PbTiO3 nanoparticles were dispersed in biopolymer and in mixed biopolymer + pentacene as active layer and deposited by spin coating on ITO glasses. Morphological, optical and electrical properties of these layers were investigated. SEM images show the superposition of different deposited layers ITO/TiO2/PZN-PT-np-biopolymer on glass substrate with thicknesses of 1.600 μm, 1.505 μm and 1.765 μm respectively. The absorbance value in UV visible for pentacene layer increases from 75 % to 99 % while the transmittance for ITO glasses diminishes from more than 80 % to 2 %. Optical gaps of ITO, TiO2, PZN-PT nanoparticles are respectively 3.75 eV, 3.2 eV and 3.15 eV. Pentacene deposition reduced the gap to 1.65 eV for undoped sample and 1.60 eV for the doped ones. Intermediate gaps (2.3 eV and 2.6 eV for undoped sample and 2.15 eV and 2.7 eV for doped sample) were observed. Photoluminescence performed between 450 nm and 750 nm confirms « these intermediate gaps ».
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光电ITO玻璃上PZN-PT纳米粒子薄层的光学性质
本研究将未掺杂和Mn掺杂的Pb(Zn1/3Nb2/3)O3-4.5PbTiO3纳米粒子分散在生物聚合物和混合生物聚合物+并五苯中作为活性层,并通过自旋镀膜沉积在ITO玻璃上。研究了这些层的形态、光学和电学性质。SEM图像显示,在厚度分别为1.600 μm、1.505 μm和1.765 μm的玻璃基板上叠加了不同厚度的ITO/TiO2/ pzn - pt -np-生物聚合物层。并五苯层的紫外可见吸收值从75%增加到99%,而ITO玻璃的透过率从80%以上减少到2%。ITO、TiO2、PZN-PT纳米粒子的光隙分别为3.75 eV、3.2 eV和3.15 eV。并五苯沉积使未掺杂样品的间隙减小到1.65 eV,掺杂样品的间隙减小到1.60 eV。中间间隙(未掺杂样品为2.3 eV和2.6 eV,掺杂样品为2.15 eV和2.7 eV)。在450 nm和750 nm之间进行的光致发光证实了“这些中间间隙”。
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