| 研究生: |
李又儒 Lee, You-Ru |
|---|---|
| 論文名稱: |
平面精密磁浮壓印平台之設計 Design of Two-Dimensional Precision Embossing Platform with Magnetic Actuator |
| 指導教授: |
楊文彬
Young, Wen-Bin |
| 學位類別: |
碩士 Master |
| 系所名稱: |
工學院 - 航空太空工程學系 Department of Aeronautics & Astronautics |
| 論文出版年: | 2004 |
| 畢業學年度: | 92 |
| 語文別: | 中文 |
| 論文頁數: | 75 |
| 中文關鍵詞: | 壓印平台 、電磁致動器 、奈米平板壓印 |
| 外文關鍵詞: | nano imprint, magnetic actuators, embossing platform |
| 相關次數: | 點閱:82 下載:3 |
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伴隨著微機電技術的不斷進步,高分子的微米及奈米製造科技在光電、生化等領域中發展了許多的應用,而在其微成品製造技術中,傳統熱壓成形技術在結合了微機電的LIGA製程後,轉變成為熱壓平板印刷,亦即奈米平板壓印,可用來複製奈米結構,因而成為相當重要的關鍵技術。在熱壓成型的過程中,影響微結構最大的因素就是壓印壓力、壓印溫度、壓印時間等,此外熱壓機台的精度與模具間的平行度也影響到熱壓後元件或微結構的品質。故本論文研究係利用電磁致動器做為壓印平台的驅動裝置,再結合雷射位移感測器與回授控制來修正平台的定位誤差,藉以提高平台與模具間的平行度,期望藉著上述平台之實現,進而提昇微結構的品質,並達到縮小微結構上的表面粗度。在本文中,首先針對與本研究相關之基本電磁理論及磁浮系統作一詳盡的介紹,再透過理論及實驗量測獲得精確的電磁鐵磁力模型,其後,將平台簡化成為一利用電磁鐵控制且具端點質量的懸臂樑,再對整個系統進行性能分析及控制器的設計,輔以電腦模擬來進行系統評估,之後以實驗來驗證系統設計的可能性,結果發現系統具有快速反應、且能達到次微米的定位精度,最後利用端點控制的設計架構,再結合立式鳩尾滑座的機構,完成了一具長運動行程、高定位精度的壓印平台。
With the progress of MEMS technology, micro and nano fabrication technology of polymer have developed many applications in electro- optical science and biochemistry area. After combined with LIGA process, the nano imprint technology was developed to fabricate nano structures. This process is used to replicate nano structure, and becomes a very important key technology. During the nano imprint process, the most important factors are those as printing pressure, printing temperature, printing time, and so on. Besides, the imprinting machine’s precision and parallelism also affect the quality of finished products. In this study, we use magnetic actuators to drive the embossing platform and the laser displacement meter with feedback control to reduce the position error, so as to increase the parallelism between molds. By the realization of the platform, we expect to increase the quality of micro structure and decrease the surface roughness in imprinting process. A simplified platform made of a cantilever beam with a tip mass and electromagnet was first studied. Based on experimental results, we find that the system can rapidly response and reach submicro position accuracy. Based on the former concept, an embossing platform with large traveling range and precision position was designed.
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