在本論文中描述一種新型的塑膠透鏡光纖成型技術，其優點是製造快速、可一次大量製作，並且增加耦合率。此塑膠透鏡光纖的製作方式是先利用文獻所使用的點膠方式在平頭光纖頭端點膠，膠體會因為表面張力自然形成球面透鏡，之後再利用高電壓產生靜電吸引的方式將球面透鏡拉伸成錐狀後固化而成錐狀透鏡。利用點膠的方式製作透鏡有一些限制，包括點膠量控制、固化收縮率及透鏡形狀等。因此在本論文中，將改善點膠製作透鏡的限制，使點膠製作透鏡的方式能製作更高耦合率透鏡。

A novel method to form plastic lensed fiber that could be used to manufacture in bulk quickly and raise the coupling efficiency is proposed. The way to form plastic lensed fiber is droping the mucilage on the fiber endface which is described in the reference, then the mucilage will be formed ball lens with surface tension. Next step is to force the ball lens to hyperbola shape with electric force.
The method contains some restrictions including controlling the volume of the drop, the shrinking rate after curing, and the shape of the fabricated lens. The way improving the restriction of fabrication to achieve high coupling efficiency is described in this paper.

目錄
謝誌.....................................................1
目錄.....................................................2
圖目錄.................................................5
表目錄.................................................8
緒論.....................................................9
摘要...................................................12
第一章 介紹 .............................14
1-1光纖介紹.....................................14
1-2透鏡光纖結構..............................16
1-3研究動機......................................18
1-4研究目的......................................19
第二章 文獻回顧.......................20
2-1張力成型製作微透鏡...................21
2-1-1LIGA製程製作微透鏡...........21
2-1-2微粒滴法製作微透鏡............21
2-1-3電濕潤法製作微透鏡............22
2-2非張力成型製作微透鏡................23
2-2-1雷射加工法製作微透鏡........23
2-2-3電吸引法製作微透鏡.............24
2-3外加鏡組式耦光技術....................26
2-3-1單鏡片光纖耦光技術.............26
2-3-2鏡片組光纖耦光技術.............26
2-4透鏡光纖式耦光技術.....................27
2-4-1研磨法製作透鏡光纖..............27
2-4-2熔燒法製作透鏡光纖..............28
2-4-3點膠法製作透鏡光纖..............28
第三章 研究方法與分析..............31
3-1研究架構..........................................31
3-2透鏡材料分析.................................32
3-3光學分析..........................................37
3-3-1目標透鏡外形分析....................37
3-3-2ZEMAX光學模擬.......................42
3-4點膠體積分析..................................44
3-5電場與透鏡外形分析......................46
第四章 實驗與結果.......................49
4-1實驗架構..........................................49
4-2實驗流程..........................................50
4-2-1收縮率量測..................................50
4-2-2電場與透鏡外形關係...................51
4-2-3透鏡光纖耦光性能量測...............54
第五章 結論與未來發展...............58
5-1結論...................................................58
5-2未來發展方向...................................58
Reference..............................................59

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