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首页> 外文期刊>Nanotechnology >Fabrication of nanostructured transmissive optical devices on ITO-glass with UV1116 photoresist using high-energy electron beam lithography
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Fabrication of nanostructured transmissive optical devices on ITO-glass with UV1116 photoresist using high-energy electron beam lithography

机译:使用高能电子束光刻技术在具有UV1116光刻胶的ITO玻璃上制备纳米结构的透射光学器件

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摘要

High-energy electron beam lithography for patterning nanostructures on insulating substrates can be challenging. For high resolution, conventional resists require large exposure doses and for reasonable throughput, using typical beam currents leads to charge dissipation problems. Here, we use UV1116 photoresist (Dow Chemical Company), designed for photolithographic technologies, with a relatively low area dose at a standard operating current (80 kV, 40-50 mu C cm(-2), 1 nAs(-1)) to pattern over large areas on commercially coated ITO-glass cover slips. The minimum linewidth fabricated was similar to 3 nm with 80 nm spacing; for isolated structures, similar to 45 nm structural width with 50 nm separation. Due to the low beam dose, and nA current, throughput is high. This work highlights the use of UV1116 photoresist as an alternative to conventional e-beam resists on insulating substrates. To evaluate suitability, we fabricate a range of transmissive optical devices, that could find application for customized wire-grid polarisers and spectral filters for imaging, which operate based on the excitation of surface plasmon polaritons in nanosized geometries, with arrays encompassing areas similar to 0.25 cm(2).
机译:用于在绝缘基板上构图纳米结构的高能电子束光刻技术可能具有挑战性。对于高分辨率,常规抗蚀剂需要大的曝光剂量,并且为了获得合理的通量,使用典型的电子束电流会导致电荷耗散问题。在这里,我们使用针对光刻技术设计的UV1116光致抗蚀剂(陶氏化学公司),在标准工作电流(80 kV,40-50μC cm(-2),1 nAs(-1))下具有相对较低的面积剂量在商业涂层的ITO玻璃盖玻片上大面积图案化。所制造的最小线宽类似于3 nm,间距为80 nm。用于隔离的结构,类似于45 nm结构宽度和50 nm间隔。由于低的电子束剂量和nA电流,吞吐量很高。这项工作强调了使用UV1116光致抗蚀剂作为绝缘基板上常规电子束抗蚀剂的替代方法。为了评估适用性,我们制造了一系列透射光学器件,可以找到定制的线栅偏振器和成像光谱滤光片,它们基于纳米尺寸几何体中的表面等离激元极化子的激发而工作,阵列覆盖的面积类似于0.25厘米(2)。

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