同軸全像儲存系統之特性與改良及溫度補償

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姓名

余業緯(Yeh-Wei Yu) 查詢紙本館藏

畢業系所

光電科學與工程學系

論文名稱

同軸全像儲存系統之特性與改良及溫度補償
(The Characteristic Study, Improvement and Temperature Compensation of the Collinear Holographic Storage System)

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摘要(中)

本論文之目的在於研究同軸式體積全像儲存系統之特性，再進一步提出改良，並解決同軸系統由溫度變化所產生的膨脹收縮問題，研究方式採取先推導出各狀況下之近軸近似解，藉由近軸近似解所呈現的各種物理特性提出改良方案，其成果為：
1.我們提出使用透鏡陣列相位調製方式以使繞射訊號達到最佳的SNR。
2.我們提出點位移靈敏度與畫素位移靈敏度之概念，並比較使用此兩種觀點分析位移靈敏度之優劣。
3.以解析解為基礎，並考量材料應變對碟片厚度的影響，我們提出世界第一套同軸系統之溫度補償方案，甚至能夠在不改變讀取光波長的情況下進行溫度補償。

摘要(英)

The purpose of this dissertation is to study the property of the collinear holographic storage system, and to improve the system. Besides, we propose methods to compensate the problem caused by thermal expansion. In order to study this topic, we derive the paraxial solution of the collinear system, which makes it easy to understand the physical characteristic of the system. Thus, we can improve the system based on the physical concept. The achievements in this dissertation are list below.
1.We propose the lens array phase modulation, which makes the diffracted signal achieve the best signal to noise ratio.
2.We propose the concepts of shift selectivity for point object and shift selectivity for pixel object, and compare the shift selectivity based on these two different concepts.
3.Based on the paraxial solution, and considering the thickness variation of the material caused by strain, we propose the first solution in the world for temperature compensation of the collinear system without changing the wave length of reading beam.

關鍵字(中)

★ 相位疊加法
★ 體積全像
★ 相位調製
★ 收縮
★ 膨脹
★ 熱膨脹
★ 溫度補償
★ 同軸
★ 全像
★ 儲存

關鍵字(英)

★ phase modulation
★ Volume holographic
★ VOHIL
★ shrinkage
★ expansion
★ thermal expansion
★ temperature compensation
★ storage
★ coaxial
★ collinear

論文目次

摘要 I
誌謝 III
目錄 V
圖索引 IX
表索引 XIV
第一章緒論 1
1-1研究動機 1
1-1-1 儲存技術的傳輸速度將在未來扮演關鍵角色 1
1-1-2 資料蒐尋檢索越趨重要 3
1-1-3 能夠快速大量複製的光儲存技術無可取代 3
1-2全像技術之發展史 4
1-3 論文大綱 10
第二章同軸全像光學儲存系統 15
2-1同軸系統架構 15
2-2同軸系統之改良技術 19
2-2-1 405nm雷射光源 20
2-2-2 相位光罩 20
2-2-3 高 NA之物鏡與afocal system 21
2-2-4 偏振分光散射器 22
2-3 大量複製方式 27
第三章體積全像計算理論 30
3-1布拉格條件 30
3-2耦合理論 32
3-2-1 布拉格匹配 39
3-2-2 布拉格不匹配 41
3.3相位疊加法 44
3-4 近距離傳遞下之Fresnel transform 48
第四章點光源擴散響應的模擬分析與改良 52
4-1公式推導 54
4-2 模擬分析 58
4-2-1 二元相位調製方式 62
4-2-2 透鏡陣列相位調製方式 64
4-2-2-1 使用透鏡陣列進行相位調製 64
4-2-2-2 使用柱狀透鏡環型陣列做相位調製 68
4-3 各種調製方式之比較 71
4-4 結論 74
第五章位移靈敏度的推導與模擬分析 76
5-1導論 76
5-2點位移靈敏度之推導 78
5-3畫素位移靈敏度之推導 82
5-4定性分析厚度對位移靈敏度的影響 87
5-5 模擬分析 90
5-5-1 二維畫素位移靈敏度 90
5-5-2 模擬比較不同參考光調製下之畫素位移靈敏度與點位移靈敏度 93
5-6 結論 97
第六章溫度補償技術 99
6-1 導論 99
6-2 溫度的影響 100
6-3 使用K-Space對各種儲存系統作定性分析 102
6-3-1 平面波角度多工架構 102
6-3-2 球面波位移多功架構 107
6-3-3同軸架構 109
6-4 材料膨脹收縮後繞射光之近軸近似解 113
6-5 溫度變化與碟片變形量之關係 125
6-5-1 基本理論 125
6-5-2 建立溫度變化下碟片變形量之模型 127
6-5-3 解側向之溫度線膨脹係數αL 128
6-5-4 應力所產生的雙折變效應 130
6-6 穿透式光柵與反射式光柵之溫度容忍度模擬分析 131
6-7 點光源擴散響應隨溫度變化之模擬分析 136
6-7-1 夾層基板其線膨脹係數為可忽略時 139
6-7-2 夾層基板之線膨脹係數為可選擇時 147
6-7-3 徑向不變調製 157
6-8 結論 168
第七章結論 171
中英文名詞對照表 174
附錄 A 179

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指導教授

孫慶成(Ching-Cherng Sun)

審核日期

2009-3-4

推文