本論文的目的是利用矽光學平台的V槽與U槽技術整合透鏡光纖與兩片不同特性的超薄薄膜濾波器，進而製作出積體化之三向光收發模組。三向光收發模組的輸出光波長為1.31 µm，此光源經由透鏡光纖發出，穿透兩片超薄薄膜濾波器後傳輸至另一透鏡光纖輸出時，量得之插入損耗為1.25dB；而1.49 µm的入射光源將先穿透第一片超薄薄膜濾波器，再被第二片超薄薄膜濾波器反射至一多模光纖，最後由光收發模組的光檢器接收，量得之插入損耗為1.14dB； 1.55 µm的入射光源則由第一片超薄薄膜濾波器反射至另一多模光纖，再由另一光檢器接收，量得之插入損耗為0.68dB。

The primary target of this paper is to fabricate triplexer modules based on Si-bench technology. The triplexer modules were formed by hybrid integration of single mode lensed fibers and ultra-thin thin-film filters (TFF) on silicon bench as using V-groove and U-groove techniques. The output light at 1.31 µm was launched into the input lensed fiber of the module. After passing through two filters, the light was received by the output lensed fiber of the module. The insertion loss of the module at the 1.31 µm light was 1.25 dB. On the other hand, incoming lights at 1.49µm and 1.55µm were received from the output lensed fiber. Lights at 1.49µm will pass through the first filter, and be reflected by the second filter, and eventually be collected into the second multimode fiber. The insertion loss of the module at the 1.49 µm light was 1.14 dB. The 1.55µm wavelength lights received at the lensed fiber are reflected by the first filter and collected by the first multimode fiber. The insertion loss of the module at the 1.55 µm light was 0.68 dB.

第一章 導論
第二章 光收發模組結構與模擬分析
2-1 雙向光和三向光收發模組之基本結構
2-2 以單模光纖為傳輸通道之理論模擬
2-3模擬結果與討論
第三章 量測分析
3-1 TFF光學頻譜特性
3-2自由空間雙向光收發之量測分析
3-3自由空間三向光收發之量測分析
3-4量測分析與討論
第四章 元件之製作
4-1 TFF切割製程
4-2矽工作台製作流程
4-3製程分析與討論
第五章 三向光收發模組之量測與分析
5-1三向光收發模組之光學特性量測
5-2量測結果與分析
第六章 實驗結果與討論

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