在全像顯示的相關領域中，可視角範圍的限制一直是一個重要的課題，尤其是應用於重建高擬真度的三維立體顯示，不過高擬真度的重建影像伴隨著許多的問題，如離焦影像的串擾、影像移動容忍度等。本論文提出降低多視點全像影像中離焦資訊串擾影響之方法，目的設計一光場全像顯示系統。本文給多視點的定義為多視角加上多深度。在這研究中我們提出四種機構，搭配兩種優化後的演算法，以實現多視點全像顯示。前三種機構分別為透鏡陣列合光系統、雙稜鏡合光系統與半穿反合光系統，前三種機構大部分在解決多視角所產生的問題，並搭配角度多工演算法，可以做到在不同視角看到不同角度的影像。兩種演算法分別為光柵演加密演算法與相位加密演算法，其中演算法方面大部分在解決多深度所產生的問題。最後我們選擇使用相位加密演算法搭配第四種光學機構，模擬上可以達到多視點影像的觀看，而且大幅降低離焦影像的干擾，前後移動容忍度也大幅提升。不過目前還在模擬階段，未來將於光學桌上實現，以開發一光場全像顯示系統。

In the related field of holographic display, the limitation of the viewing angle has always been a significant issue, especially for reconstructing high-fidelity three-dimensional display. As high-fidelity reconstruction images progress, many problems are aroused, such as crosstalk of image defocus, image tolerance, etc. In this research, we propose a method to reduce the effect of crosstalk noise from defocused multi-view holographic image. The aim to this study is to design a light field holographic display system. We define the multi-view as combining the multi-angle and multi-depth in this article. We propose four optical systems, with two optimized algorithms to implement multi-view holographic display. Three of prior systems are lens array combine system, dual prism combine system and semi-reflecting mirror combine system. These three mechanisms solve the problems caused by multi-angle images. By utilizing the angular-multiplexing algorithm, we can watch images at different angles from different perspectives. The two algorithms are raster encryption algorithm and phase encryption algorithm, respectively. The main purpose of both are solving the problems caused by multi-depth. Finally, we use the phase encryption algorithm with the fourth optical system. The simulation can achieve multi-view watching, and reduce the crosstalk noise from defocused images, as well as the tolerance of moving back and forth is also improved. However, it is still in the simulation stage, we will implement a light field holographic display system on the optical table in the future.

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