驱动高像素密度显示器的方法

Yi-Cheng Liu, Ting-Wei Chen, Yen-Ju Li, Yu-Cheng Fan
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引用次数: 1

摘要

通用高像素密度显示器于2012年向消费者推出,包括8K甚至16K显示器。因此,我们提出了一种新的方法来设计栅极驱动电路和微尺度器件传质印刷技术,以解决与显示边界空间和电子迁移率有关的问题。在本文中,概念设计由大量转移印刷技术和GOA驱动电路组成。我们设计了一个双向低漏电流扫描电路,其中包括一个晶体衬底,以提供更高的性能和一个更小的器件(小于薄膜非晶或多晶硅)。然后,我们使用质量转移印刷技术将微型芯片转移到玻璃基板上。接下来,我们将微型芯片转移到面板的有效区域,微型芯片为显示器提供栅极驱动信号。边界变得更细,甚至消失。这些类型的显示器应用于大屏幕视频显示器,柔性显示器,高像素密度显示器等。我们的芯片采用台积电180纳米CMOS工艺制造;单芯片可包含864个双侧引脚,横向尺寸为8286 μm × 21 μm。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Method for Driving High-pixel-density Displays
Universal high-pixel-density displays were introduced to consumers in 2012, including 8K and even 16K displays. Therefore, we propose a new method to design gate driver circuits and micro-scale device mass transfer-printing technologies in order to solve problems related to display border space and electron mobility. In this paper, the conceptual design is composed of mass transfer-printing technologies and a GOA driving circuit. We design a bidirectional low-leakage-current scan circuit that includes a crystalline substrate to provide higher performance and a smaller device (smaller than thin-film amorphous or polycrystalline silicon). We then use the mass transfer-printing technologies to transfer microscale chips onto the glass substrate. Next, we transfer our microscale chip onto the effective area of a panel, and the microscale chip provides gate drive signals for the display. The border becomes slimmer or even disappears. These types of displays are applied in large-screen video monitors, flexible displays, high-pixel-density displays, etc.Our chips were fabricated using the TSMC 180-nm CMOS process; a single chip can include 864 dual-side pins, and has lateral dimensions of 8286 μm × 21 μm.
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