旋转镀膜法制备In2O3薄膜

S. Benramache, Y. Aoun
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引用次数: 2

摘要

摘要:本文采用自旋镀膜技术制备了In2O3薄膜;这项技术是在我们的实验室里制备的。研究了层数(3、5、7、9)对光学性能和结构性能的影响。将0.2 M氯化铟脱水物InCl3.2H2O溶解在绝对水中制备了In2O3薄膜。在600℃的温度下结晶,等待时间为1小时。光学性能表明,制备的In2O3薄膜经过3次和5次的透射率约为85%。5次最大带隙能量为3.69 eV, 9次最低乌尔巴赫能量为0.47 eV。从XDR上看,所有制备的In2O3薄膜都具有一个衍射晶图(222)峰强度,该属性具有良好的晶体结构,(222)晶图的最小晶粒尺寸为59.69 nm。所制备的In2O3薄膜由于具有良好的相位和较高的透射率,可用于光伏应用。
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Spin Coating Method Fabricated of In2O3 Thin Films
Abstract In this work, the In2O3 thin films have been fabricated using a spin coating technique; this technique was prepared in our laboratory. The effect of the layer times (3, 5, 7 and 9 times) on optical and structural properties was investigated. In2O3 thin films were fabricated by dissolving 0.2 M of the indium chloride dehydrate InCl3.2H2O in the absolute H2O. The In2O3 thin films were crystallized at a temperature of 600 °C with pending time of 1 hour. The optical property shows that the prepared In2O3 thin films for 3 and 5 times have a transmission of about 85 %. The maximum bandgap energy was 3.69 eV for 5 times and the lowest Urbach energy was 0.47 eV for 9 times. From XDR all fabricated In2O3 thin films having one diffraction crystal plan is (222) peak intensity, this attribution have good crystalline structure with minimum crystallite size of the (222) plan is 59.69 nm. The prepared In2O3 thin films can be used in photovoltaic applications due to the existing phase and higher transmission.
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