隨著平面顯示器技術的快速發展，從傳統的CRT到LCD，再到現今的OLED、Micro LED，顯示器的響應速度、厚薄、色域以及可視角範圍都有了很大的改進。除了平面顯示器的規格提升外，人們也努力追求與過去不同的視覺體驗，例如立體顯示、360度虛擬實境顯示等。平面立體顯示器由於觀看位置受限，因此針對展場開放空間觀看者可隨意移動的體積式顯示技術應運而生。
利用發展成熟的面板顯示器，進行旋轉而得到立體感知的顯示技術，本研究將其合稱為「面板旋轉式顯示技術」，其中包含了被稱為「假3D」的「全方向多視角顯示技術」以及「真3D」的「旋轉式體積掃描顯示技術」。由於顯示器硬體參數的限制，面板旋轉式顯示系統的成像品質不佳，包含混疊、運動模糊等。相較於空間多工的立體顯示，影響面板旋轉式顯示的成像品質因素更多更複雜。
本研究提出了一套面板旋轉式顯示成像模擬系統，以及數個評估該系統成像品質的模組。利用這些模組，可協助系統設計者優化顯示品質。
此外，本研究也在當前可以達到的系統硬體參數之下，利用旋轉交錯掃描方式，改善旋轉式體積掃描的成像品質。另一方面也經由人因實驗驗證交錯掃描方式能有效改善顯示系統閃爍明顯與對比不足的問題。

With the rapid development of flat-panel display technology, from CRTs to LCDs to today's OLEDs and Micro LEDs, the response time, thickness, color gamut, and viewing angle of displays have been greatly improved. In addition to the improvement of flat-panel displays, people are also striving to pursue newly visual experiences, such as stereoscopic displays and 360-degree virtual reality displays. Due to the limited viewing position of the flat stereo display, volumetric display technologies that allow viewers to move freely in the open space of the exhibition site are under development.
We called the display, which provide the depth cue based on the spinning of highly developed flat-panel display as “flat-panel spinning display.” There are two types of display systems based on the flat-panel spinning display. The first is called “all-around display”, which is the so-called fake 3D display. The second type is called “swept-volume display”, which is a kind of the volumetric display, and it is also known as true 3D display. Due to the limitation of the display hardware parameters, the image quality of the flat-panel spinning display systems is not good, including aliasing, motion blur, etc. Compared with the spatially multiplexed stereo display, there are more complicated factors affecting the image quality of the flat-panel spinning displays.
This research proposes a set of imaging simulation system for the flat-panel spinning displays and several modules to evaluate the imaging quality of the displays. Using these modules can assist system designers to optimize display quality.
In addition, this research also uses the interlaced spinning method to improve the imaging quality of the swept-volume display under the current available system hardware parameters. On the other hand, it has been verified through a psychophysical experiment that the interlaced scanning method can effectively reduce the flicker and enhance the contrast of the display system.

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