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Development and Study of Applications Combining Nanopowder Imprint Lithography and Array-Type UV-Curing Technology for Micro-Lens Molding

机译:纳米粉末压印光刻技术与阵列式紫外线固化技术相结合在微透镜成型中的应用研究与开发

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摘要

This study developed creative imprinting technology, combining nano-imprint lithography and array-type UV-curing technology. It used nanopowders as the method to transmit imprint force, and integrated technical features, such as soft lithography, light-curing resistant and gas-assisted imprint technology, in order to study the development of technological processes of micro-lens array manufacturing, and mature the application and technology of nano-imprinting. According to research results, SUS 304 stainless steel sheet with a micro-hole array could be smoothly fabricated into an original micro-lens array mold upon gas-assisted micro-hot embossing. At the same time, a micro-lens array structure with a complementary external form could be precisely remolded and reproduced by PDMS. Complete molding of micro-lens could be effectively achieved by combining imprints of gas-assisted lithography developed in this study, and even UV-NIL. The effective imprinting area and reproducibility of transfer printing could be greatly improved when a micro-lens contacts perfectly with a substrate surface. Moreover, since PDMS soft molds have short remolding times, and are easily feathered during manufacturing, production costs could be effectively reduced through features such as, low surface free energy, resistant to adhering to the mold during imprinting, and collocation of gas-assisted nanopowder imprinting of micro-structural processes.
机译:这项研究结合了纳米压印光刻技术和阵列型UV固化技术,开发了创新的压印技术。它采用纳米粉末作为传递压印力的方法,并结合了软光刻,抗光固化和气体辅助压印技术等综合技术特征,以研究微透镜阵列制造技术工艺的发展和成熟。纳米压印的应用和技术。根据研究结果,可以在气体辅助微热压花的基础上,将具有微孔阵列的SUS 304不锈钢薄板平滑地制成原始的微透镜阵列模具。同时,具有互补的外部形式的微透镜阵列结构可以通过PDMS精确地重塑和复制。通过结合本研究中开发的气体辅助光刻的印记甚至是UV-NIL,可以有效地完成微透镜的完整成型。当微透镜与基材表面完美接触时,有效压印区域和转印的重现性可以大大提高。此外,由于PDMS软模具有短的重塑时间,并且在制造过程中容易羽化,因此可以通过以下功能有效降低生产成本:低表面自由能,在压印过程中不易粘附在模子上以及与气体辅助纳米粉共存微观结构过程的烙印。

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  • 来源
    《Polymer-Plastics Technology and Engineering》 |2010年第8期|p.853-860|共8页
  • 作者

    Yong-Cheng Wong; Yung-Jin Weng;

  • 作者单位

    Department of Polymer Engineering, National Taiwan University of Science and Technology, Taipei, Taiwan, Republic of China;

    Center for General Education, Kainan University, Luchu, Taiwan, Republic of China;

    Department of Mechanical Engineering, National;

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