臺灣博碩士論文加值系統

摘要ii
Abstractiii
目錄iv
圖目錄vi
表目錄ix
第一章 緒論1
1.1前言1
1.2研究目的3
1.3論文架構3
第二章 基本原理4
2.1光子晶體光纖 (Photonic Crystal Fiber)4
2.2啁啾脈衝放大 (Chirped-pulse Amplification, CPA)5
2.3 類噪脈衝 (Noise-Like Pulse)6
2.4 超連續光譜 (Supercontinuum)7
2.5 非線性效應 (Nonlinear Effects)8
第三章 實驗架構14
3.1 整體架構15
3.1.1 使用摻鉺光纖放大器產生超連續光譜15
3.1.2 使用HNLF產生第一階段中心波長為1560 nm的超連續光譜16
3.1.3 使用PCF產生第二階段中心波長為1560 nm的超連續光譜17
3.2脈衝雷射光源18
3.3 光纖放大器20
3.3.1 前級放大器 (Pre-amplifier)21
3.3.2助推器 (Booster)22
第四章 實驗數據分析23
4.1使用摻鉺光纖放大器產生中心波長為1560 nm之超連續光譜23
4.1.1 種子雷射輸出特性23
4.1.2 經由摻鉺光纖放大器輸出後透過不同長度單模光纖傳輸之特性26
4.1.3 放大後經過不同長度的SMF所產生之超連續光譜35
4.2 使用典型脈衝作為種子光源產生第二階段涵蓋可見光範圍之超連續光譜37
4.2.1 使用50 m SMF作為預啁啾光纖37
4.2.2 使用大於50 m 的 SMF作為預啁啾光纖44
4.2.3前級放大器放大後經過不同長度單模光纖50
4.3 使用類噪脈衝作為種子光源產生涵蓋可見光範圍之超連續光譜59
4.3.1 種子雷射輸出特性59
4.3.2 助推器放大後的輸出特性60
4.3.3 使用8 cm HNLF產生第一階段超連續光譜64
4.3.4 以8 cm HNLF與2 m PCF組合產生超連續光譜65
第五章 結果與討論66
參考文獻68

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