本研究以滾輪壓印技術(R2R)及旋轉塗佈法製作尺寸為900 nm及10

本研究以滾輪壓印技術(R2R)及旋轉塗佈法製作尺寸為900 nm及100nm聚苯乙烯微/奈米複合結構膜。首先進行自組裝製程，藉原子凡得瓦力作用使奈米顆粒排列成蛾眼陣列結構。再來使用金屬鍍膜保護微奈米結構並翻印於鎳鈷合金，以便將所得之結構固定於滾輪。接著以實驗室開發之滾輪壓印機台翻印PET薄膜，最後即可藉滾輪壓印技術連續製造微奈米結構。 此研究將以較低成本及較簡易的製程製造具抗反射特性之高分子膜，每個步驟環環相扣，從旋轉塗佈法的參數設計、金屬濺鍍濃度、電鑄翻模及壓印參數設計都是本研究欲探討的範圍。最後得出具微奈米結構之PET膜能具有抗反射特性，藉由表面微結構降低反射率，提升吸收能源以優化其能源效益，應用於太陽能電池等領域。

結果 (英文) 1:

In this study, roller imprint technique (the R2R) production size, and spin coating is 900 nm and 100nm polystyrene / nano composite membrane. First self-assembly process, by Van der Waals force acting atoms so that nano particles are arranged in an array moth-eye structure. Again using a metal nanostructure and microstructure for plating nickel-cobalt alloy to be reproduced, so that the resultant structure is fixed to the roller. Followed by the development roller embossing machine laboratory reproduced PET film, and finally to the platen roller by continuous manufacturing techniques microstructure nanostructures.
This study will be a relatively simple and low cost process for producing a polymer film having anti-reflection characteristics of each step in a chain, from the design parameters of the spin coating method, the concentration of metal sputtering, electroforming and die pressing turning India design parameters are to be discussed in the scope of this. Finally, the PET film may issue a microstructure nano structures can have anti-reflection characteristics, surface microstructure by reducing the reflectivity, to enhance the absorption of energy in order to optimize its energy efficiency, and the like used in a solar cell.

結果 (英文) 2:

In this study, the roller imprinting technology (R2R) and rotary coating method were made with a size of 900 nm and 100nm polystyrene micro/nanomi composite structure film. The first self-assembling process is carried out, and the nanoparticles are arranged into an array structure of the eye by the action of the atomic Vandis. A metal coating is used to protect the micro-nanorice structure and reprint it in a nickel-cobalt alloy in order to secure the resulting structure to the roller. Then the laboratory development of the roller printing machine table to reprint the PET film, and finally by the roller imprinting technology to continuously manufacture micro-nanostructure.
This study will be a lower cost and simpler process to manufacture a polymer membrane with anti-reflective characteristics, each step ring buckle, from the rotation coating method of parameter design, metal sputtering concentration, electrocast die and imprinting parameter design are the scope of this study to explore. Finally, the PET membrane of micro-nanostructure can have anti-reflective properties, reduce the reflectivity by surface microstructure, improve the absorption of energy to optimize its energy efficiency, and apply it to solar cells and other fields.

結果 (英文) 3:

In this study, roller imprinting technology (R2R) and rotary coating method were used to make the size of 900 Nm and 100nm polystyrene micro / nano composite structure films. Firstly, self-assembly process is carried out, and the nano particles are arranged into moth eye array structure by the action of atomic van der Waals. Then, the micro nano structure is protected by metal coating and reprinted on nickel cobalt alloy, so as to fix the structure on the roller. Then, PET film is reprinted on the roller press developed in the laboratory, and finally, the PET film can be borrowed and rolled Continuous fabrication of micro nanostructures by wheel imprinting technology.
In this study, the polymer film with antireflection characteristics will be manufactured in a low cost and simple process, and each step is closely linked. The parameter design of rotary coating, metal splashing concentration, electroforming die turning and embossing parameter design are the scope of this study. Finally, it is concluded that the PET film with micro nanostructure can have antireflection characteristics, and reduce the reflectivity by surface microstructure, Enhance the absorption of energy to optimize its energy efficiency, applied in solar cells and other fields.