新型投影機光源之研究

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姓名

陳昱達(Yu-Ta Chen) 查詢紙本館藏

畢業系所

光電科學與工程學系

論文名稱

新型投影機光源之研究
(Research of novel illumination system in the projector)

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摘要(中)

隨著時代科技的進步，投影顯示器不論在商用會議、家用電視或是大尺寸的用途，都是具有一定的市佔率，但是傳統投影機光源的壽命、體積及色彩，都是令人垢病的地方，所以本論文提出一個新型投影顯示器光源，具有壽命長、色彩豐富、效率高、體積小及均勻度佳的投影顯示器光源，在目前都是微小化的時代，具有一定優勢。
本論文介紹及比較目前常見的四種投影顯示器，挑出數位微鏡式投影顯示器當做設計目標，且針對數位微鏡式投影顯示器的架構做比較，設計雷射投影機光源系統，建構在全內反射式稜鏡式數位微鏡投影顯示器內，並且跟傳統燈泡光源在傳統的投影顯示器架構下作比較，所設計出的光源系統，具有73.55％系統效率、99.3％的ANSI Uniformity和131％的NTSC面積大小(在CIE1931系統下)，雖然在光展量匹配上有很大的損耗，不過這是在傳統投影機架構下，若未來將投影機微小化時，情況將會被改善。

摘要(英)

With the progress of science and technology of the times, the projection display is no matter at commercial meeting, home theater or larger use; all have certain taking rate of market. But the traditional projector has some defects which are life-time and color. So we propose a novel projection light source of display in this paper, has long life-time, color, high efficiency and high performance of uniformity in the projection display. In the microfabrication the times, that will be an advantage.
We introduced and compared the four types of projector and regard as our design in the digital micro-mirror device type of the projector, this is called DLP. We design the illumination system with new light source which is built in digital micro-mirror device projection display of TIR prism type and compare the traditional lamp light source and laser light source system with the same projector structure in this paper. Our system has 73.55% of the system efficiency, 99.3% of the ANSI Uniformity and 131% of the NTSC area (under CIE1931 system). We have loss in the Étendue matched but that based on convention structure of projector. If we reduce the size of projector in the future, that defect will be reformed.

關鍵字(中)

★ 雷射投影機
★ 數位微鏡式投影顯示器

關鍵字(英)

★ DLP
★ laser projector

論文目次

中文摘要....................................i
英文摘要...................................ii
誌謝......................................iii
圖目錄....................................vii
表目錄.....................................xi
第一章緒論.................................1
1-1 前言....................................1
1-2 研究動機與目的..........................1
第二章投影顯示器簡介.......................4
2-1 投影顯示器種類..........................4
2-1-1 穿透式液晶投影顯示器..................4
2-1-2 反射式液晶投影顯示器..................7
2-1-3 數位微鏡式投影顯示器..................9
2-1-4 掃描式雷射投影顯示器.................13
2-2 單片式數位微鏡式投影顯示器架構.........14
2-2-1 遠心式結構...........................15
2-2-2 非遠心式結構.........................16
2-3 照明系統元件...........................18
2-3-1 燈泡.................................18
2-3-2 光均勻系統...........................21
2-3-3 色輪.................................24
2-3-4 全內反射稜鏡.........................24
2-3-5 投影鏡頭.............................25
2-4 新型投影顯示器光源.....................26
2-4-1 雷射二極體...........................27
2-4-2 二倍頻...............................28
第三章雷射投影顯示器照明系統設計與分析....30
3-1 照明系統...............................30
3-2 光源擴束系統...........................30
3-2-1 無焦系統設計.........................30
3-3 光源均勻系統設計.......................33
3-3 全內反射稜鏡設計.......................36
3-4 系統分析...............................40
第四章模擬與實驗結果分析..................46
4-1 光源系統建立...........................46
4-2 模擬結果...............................48
4-3 結果與分析.............................52
第五章結論與未來展望......................55
5-1 結論...................................55
5-2 未來發展...............................56
第六章參考文獻............................58
個人著作...................................64

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指導教授

歐陽盟(Mang Ou-Yang)

審核日期

2008-7-15

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