滤波阴极真空电弧制备纳米多层光学器件

Zhiwei Zhao, B. Tay, D. McCulloch, J. Peng
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引用次数: 0

摘要

采用过滤阴极真空电弧(FCVA)技术,成功制备了由高折射率tio2薄膜和低折射率al2o3薄膜交替组成的8纳米层多层器件。利用透射电镜(TEM)和电子能谱(EELS)分析了多层涂层的微观结构和元素分布。结果表明,层间界面清晰,具有光滑、锋利、平整的特点。电子衍射图和x射线衍射分析表明,每一层的纳米厚度都保持非晶结构。EELS测量结果表明,tio2和al2o3层的键性质分别为Ti4+- o2和Al3+- o2,没有原子扩散到附近的层中。在微观结构和元素分布上良好的均匀性预示着用FCVA沉积多层膜具有包括光学应用在内的先进性能的潜力。
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Fabrication of Nanoscale Multilayer Device by Filtered Cathodic Vacuum Arc for Optical Application
Multilayer device with 8 nano-layers consisting of alternate TiO2thin films (high refractive index) and Al2O3thin films (low refractive index) have been successfully fabricated by filtered cathodic vacuum arc (FCVA) with two separate cathodic sources. Microstructure and element distribution of multilayer coatings were examined by TEM and electron energy loss spectroscopy (EELS), respectively. The results show that the interfaces of the layers are well defined and exhibit smooth, sharp and flat properties. Each layer with nano-thickness keeps amorphous structure as determined by the electron diffraction pattern and XRD. The bond nature in respective TiO2and Al2O3layers is Ti4+-O2-and Al3+-O2-and no atoms diffuse into the nearby layer as concluded by EELS measurements. Good homogeneity in microstructure and element distribution indicates the potential deposition of multilayer by FCVA for advanced performances including optical application.
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