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Development of plant-based resist materials in electron beam lithography

机译:电子束光刻中基于植物的抗蚀剂材料的开发

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Electron beam lithography has great potential for future production of nano-imprint templates, light-emitting diodes, solar cell devices, actuators, biosensors, and micro electro mechanical systems (MEMS) where continued success ultimately requires improvements in current processing technologies. Electron beam lithography is promising for advancing multiple electronic applications due to several advantages such as high resolution, deep depth of focus, flexibility in material design, and assumable cost.This study presents progress in the development of a new plant-based resist material (TPU-EBR1) to achieve high exposure sensitivity and lower film thickness shrinkage by electron beam irradiation. Highly efficient crosslinking properties and high quality patterning line images were provided by specific process conditions of 30 keV electron beam lithography. Lower film thickness shrinkage of the newly developed TPU-EBR than that of the referenced acrylate type resist material is one of key to achieve EB patterning. The validity of our approach using the developed TPU-EBR was confirmed experimentally.In addition, this new approach was demonstrated to apply glucose and dextrin derivatives as the eco-friendlier compounds to the resist materials in micro and nano-patterning processes for environmentally-compatible electronic device fabrications.
机译:电子束光刻技术在未来生产纳米压印模板,发光二极管,太阳能电池设备,致动器,生物传感器和微机电系统(MEMS)方面具有巨大潜力,而持续成功最终需要改进当前的处理技术。电子束光刻技术具有高分辨率,聚焦深度深,材料设计的灵活性以及成本可观等诸多优点,有望在多种电子应用中得到发展。这项研究提出了一种新型的植物基抗蚀剂材料(TPU)的开发进展。 -EBR1)通过电子束照射实现高曝光灵敏度和较低的膜厚收缩率。通过30 keV电子束光刻的特定工艺条件提供了高效的交联性能和高质量的图案化线条图像。新开发的TPU-EBR的薄膜厚度收缩率比参考丙烯酸酯型抗蚀剂材料的薄膜厚度收缩率低是实现EB图案化的关键之一。实验证明了我们使用已开发的TPU-EBR的方法的有效性。此外,该新方法还证明了在微观和纳米构图工艺中将葡萄糖和糊精衍生物作为生态友好型化合物应用于抗蚀剂材料,具有环境相容性电子设备的制造。

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